Переход на относительные URL подмодулей

This commit is contained in:
Анатолий Белянский 2026-05-16 20:05:55 +10:00 committed by Tolik
parent 314ba263d6
commit 3b64afe4e1
277 changed files with 19574 additions and 56177 deletions

2
.gitmodules vendored
View File

@ -1,4 +1,4 @@
[submodule "Shared_Includes"]
branch = main
path = Shared_Includes
url = https://github.com/Tolik-Trek/Shared_Includes.git
url = ../Shared_Includes.git

@ -1 +1 @@
Subproject commit 51198ce44bd19f511b63e6fafaf91b3de5470f9d
Subproject commit 591d3212c9341f17d6dd034bf2b8da91bd2f6107

View File

@ -16,7 +16,7 @@
;---------------------------------------;
;-----------[Shared Includes]-----------
INCLUDE 'src/bios/shared/includes.inc' ; Includes
INCLUDE 'bios/shared/includes.inc' ; Includes
;---------------------------------------
@ -41,16 +41,14 @@
print ()
if detected_os == "Windows" then
pack_prog = "src\\bin\\hrust.exe Build\\Bin\\temp\\MAIN.PAK Build\\Bin\\temp\\MAIN.BIN"
elseif detected_os == "MacOS" then
pack_prog = "src/bin/mhmt -hst -zxh Build/Bin/temp/MAIN.BIN Build/Bin/temp/MAIN.PAK"
elseif detected_os == "Linux" then
pack_prog = "src/bin/mhmt -hst -zxh Build/Bin/temp/MAIN.BIN Build/Bin/temp/MAIN.PAK"
pack_prog = "bin\\hrust.exe Build\\Bin\\temp\\MAIN.PAK Build\\Bin\\temp\\MAIN.BIN"
else
pack_prog = "bin/mhmt -hst -zxh Build/Bin/temp/MAIN.BIN Build/Bin/temp/MAIN.PAK"
end
-- ª®¬¯¨«ïæ¨ï ¤«ï ¯®«ã祭¨ï ᦠ⮣® ä ©«  MAIN ¨ 宫®á⮩ ¯à®å®¤ Set_Pictures.asm
if (os.execute("sjasmplus -DPREBUILD=1 -Wall --msg=war --nologo --syntax=w --fullpath --lst=Build/Prebuilds.LST SRC/BIOS/ROM/SETUP/MAIN.ASM")) then
if (os.execute("sjasmplus -DPREBUILD=1 -Wall --msg=war --nologo --syntax=w --fullpath --lst=Build/Prebuilds.LST BIOS/ROM/SETUP/MAIN.ASM")) then
print("--[ MAIN.ASM Prebuild DONE ]--")
if (os.execute(pack_prog)) then
print("--[ Hrusting MAIN.BIN DONE ]--")
@ -71,7 +69,7 @@
;----------[MAIN's referenses]----------; Š®¬¯¨«ïæ¨ï ¤«ï ¯®«ã祭¨ï  ¤à¥á®¢ ¬¥â®ª ¨ ¯à®æ¥¤ãà
MMU 2 e, 18 ; áâà ­¨æ  18 ¢ ¡ ­ªã 2 ¨ ¯à®¢¥àª  ­  £à ­¨æë.
ORG COMPILE_ADDR.MAIN
INCLUDE 'src/bios/ROM/SETUP/MAIN.asm'
INCLUDE 'bios/ROM/SETUP/MAIN.asm'
;---------------------------------------
ENDIF
@ -83,7 +81,7 @@
DEFINE+ IsInBIOS 1
OUTPUT 'Build/Bin/EXP.BIN'
ShowInfo 'EXP block Start', 0 ; !!!!! test
INCLUDE 'src/bios/EXP/EXP.asm'
INCLUDE 'bios/EXP/EXP.asm'
ShowInfo 'EXP block End', 0 ; !!!!! test
OUTEND
;---------------------------------------
@ -97,7 +95,7 @@
DEFINE+ IsInBIOS 0
OUTPUT 'Build/Bin/ROM.BIN'
ShowInfo 'ROM block Start', 0 ; !!!!! test
INCLUDE 'src/bios/ROM/ROM.asm'
INCLUDE 'bios/ROM/ROM.asm'
ShowInfo 'ROM block End', 0 ; !!!!! test
OUTEND
UNDEFINE IsInBIOS
@ -135,7 +133,7 @@
MMU 1 e, 1 ; áâà ­¨æ  1 ¢ ¡ ­ªã 1 ¨ ¯à®¢¥àª  ­  £à ­¨æë.
ORG ROM_MAP.LOGO
OUTPUT 'Build/Bin/LOGO.BIN'
INCLUDE 'src/bios/logo/Set_Pictures.asm'
INCLUDE 'bios/logo/Set_Pictures.asm'
OUTEND
;---------------------------------------
;

View File

@ -2,7 +2,7 @@
;------------[LUA functions]------------;
includelua 'Shared_Includes/LUA/Functions.lua'
;---------------------------------------;
DEFINE PICTURE_FILE './src/bios/logo/psfathers.bmp'
DEFINE PICTURE_FILE './bios/logo/psfathers.bmp'
LUA PASS1
@ -20,8 +20,8 @@
*/
INCLUDE 'shared/defines.inc'
DEFINE IMG_RECOVERY 'src/bios/shared/recovery.img'
;DEFINE IMG_RECOVERY 'src/bios/shared/recovery_tst.img'
DEFINE IMG_RECOVERY 'bios/shared/recovery.img'
;DEFINE IMG_RECOVERY 'bios/shared/recovery_tst.img'
;
;[--------------------------------------------------------------------------]
@ -32,9 +32,9 @@
ENDM
;[--------------------------------------------------------------------------]
DEFINE SP_128_BIN INCBIN 'src/ZX_ROMS/NEW/SP_128.BIN'
DEFINE SP__48_BIN INCBIN 'src/ZX_ROMS/NEW/SP__48.BIN'
DEFINE SP_TRDOS_BIN INCBIN 'src/ZX_ROMS/NEW/SP_TRDOS.BIN'
DEFINE SP_128_BIN INCBIN 'ZX_ROMS/NEW/SP_128.BIN'
DEFINE SP__48_BIN INCBIN 'ZX_ROMS/NEW/SP__48.BIN'
DEFINE SP_TRDOS_BIN INCBIN 'ZX_ROMS/NEW/SP_TRDOS.BIN'
;[--------------------------------------------------------------------------]
MACRO ROM_BUILD bitstream

View File

@ -143,7 +143,7 @@
.STRING: DB ACEX.RELOAD_STRING
.Conf_header: include 'src/bios/Loader/bitstream_header.inc'
.Conf_header: include 'bios/Loader/bitstream_header.inc'
.Conf_header.length EQU $-.Conf_header
;----------------------;

View File

@ -0,0 +1,54 @@
;
;------------[LUA functions]------------;
includelua 'Shared_Includes/LUA/Functions.lua'
;---------------------------------------;
LUA PASS1
-- <EFBFBD>஢¥à塞 BMP, ¤®áâ ñ¬ ¨§ ­¥£® ¯ à ¬¥âàë, ०¥¬ ­  ªã᪨
bmp_width, bmp_height, bmp_image_size, bmp_image_offset, bmp_colors = Get_bmp8bit_values (sj.get_define("PICTURE_FILE"))
if bmp_width ~= 128 then sj.error("Invalid BMP width", bmp_width) end
if bmp_height ~= 72 then sj.error("Invalid BMP height", bmp_height) end
if bmp_colors ~= 256 then sj.error("Invalid BMP number of colors", bmp_colors) end
if not File_save(sj.get_define("PICTURE_FILE"), "./Build/Bin/LOGO_PAL.BIN", bmp_image_offset-1024, 1024) then sj.error("Palete save error!") end
if not File_save(sj.get_define("PICTURE_FILE"), "./Build/Bin/LOGO_DAT.BIN", bmp_image_offset, bmp_image_size) then sj.error("Image data save error!") end
ENDLUA
LUA ALLPASS
function make_pic_files (fileName, needPal, needPic)
local fileNameBMP = "'" .. fileName .. ".bmp" .. "'"
local fileNamePAL = fileName .. "_PAL.BIN"
local fileNameDAT = fileName .. "_DAT.BIN"
local bmp_width, bmp_height, bmp_image_size, bmp_image_offset, bmp_colors = Get_bmp8bit_values (fileNameBMP)
if needPal == 1 then
if bmp_width ~= 128 then sj.error(fileNameBMP .. "Invalid BMP width", bmp_width) end
if bmp_height ~= 72 then sj.error(fileNameBMP .. "Invalid BMP height", bmp_height) end
if bmp_colors ~= 256 then sj.error(fileNameBMP .. "Invalid BMP number of colors", bmp_colors) end
if not File_save(fileNameBMP, fileNamePAL, bmp_image_offset-1024, 1024) then
sj.error(fileNameBMP .. "Palete save error!")
end
end
if needPic == 1 then
local correctWidth = ((bmp_width*3)%4)+bmp_width
if correctWidth > bmp_width then
File_save(fileNameBMP, fileNameDAT, bmp_image_offset, bmp_image_size, bmp_width, correctWidth-bmp_width)
else
File_save(fileNameBMP, fileNameDAT, bmp_image_offset, bmp_image_size)
end
end
print("Resolution: " .. bmp_width .. "x" .. bmp_height, fileNameDAT)
end
ENDLUA
MODULE MAIN_LOGO
Pallete:
INCBIN 'Build/Bin/LOGO_PAL.BIN'
.length EQU $-Pallete
Raster:
INCBIN 'Build/Bin/LOGO_DAT.BIN'
.length EQU $-Raster
ENDMODULE

View File

Before

Width:  |  Height:  |  Size: 10 KiB

After

Width:  |  Height:  |  Size: 10 KiB

View File

Before

Width:  |  Height:  |  Size: 10 KiB

After

Width:  |  Height:  |  Size: 10 KiB

View File

Before

Width:  |  Height:  |  Size: 10 KiB

After

Width:  |  Height:  |  Size: 10 KiB

View File

Before

Width:  |  Height:  |  Size: 10 KiB

After

Width:  |  Height:  |  Size: 10 KiB

View File

@ -194,7 +194,7 @@ SETUP_MAIN:
DEPACK_DATA:
DISP DEPACKER.WorkAddr
MODULE UnPacker
INCLUDE 'src/bios/ROM/SETUP/DEHRUST.asm' ; !TODO ᤥ« âì ­  LUA  ¢â®¢ë¡®à ¤¥ª®¬¯à¥áá®à  ¨ ª®¬¯à¥áá®à 
INCLUDE 'bios/ROM/SETUP/DEHRUST.asm' ; !TODO ᤥ« âì ­  LUA  ¢â®¢ë¡®à ¤¥ª®¬¯à¥áá®à  ¨ ª®¬¯à¥áá®à 
PackedMAIN: INCBIN 'Build/Bin/temp/MAIN.PAK'
ENDMODULE
ENT
@ -205,7 +205,7 @@ DEPACK_DATA.length EQU $-DEPACK_DATA
ELSE
DISP COMPILE_ADDR.SETUP
ShowInfo 'Setup block DISP start', 1 ; !!!!! test
SETUP_MAIN: INCLUDE 'src/bios/ROM/SETUP/Main.asm'
SETUP_MAIN: INCLUDE 'bios/ROM/SETUP/Main.asm'
SETUP_MAIN.Size EQU $-SETUP_MAIN
ShowInfo 'Setup block DISP end', 1 ; !!!!! test
ENT

View File

@ -48,7 +48,7 @@
; ENCODING "DOS"
DEVICE ZXSPECTRUM4096 ; ¬®¤¥«ì á 4 ¬¥âà ¬¨ ¯ ¬ïâ¨
MMU 2 e, 0 ; áâà ­¨æ  0 ¢ ¡ ­ªã 2 ¨ ¯à®¢¥àª  ­  £à ­¨æë.
INCLUDE 'src/bios/shared/includes.inc'
INCLUDE 'bios/shared/includes.inc'
ORG COMPILE_ADDR.MAIN
OUTPUT 'Build/Bin/temp/MAIN.BIN'
ENDIF
@ -1858,7 +1858,7 @@ init_zx_roms: DI
;---------------------------------------
INCLUDE 'src/bios/ROM/SETUP/messages.z80'
INCLUDE 'bios/ROM/SETUP/messages.z80'
;---------------------------------------
;
@ -1886,7 +1886,7 @@ STACK EQU #C000
DISPLAY '-----[Set_Pictures Prebuild start]-----'
MMU 1 e, 0 ; áâà ­¨æ  0 ¢ ¡ ­ªã 0 ¨ ¯à®¢¥àª  ­  £à ­¨æë.
ORG ROM_MAP.LOGO
INCLUDE 'src/bios/logo/Set_Pictures.asm'
INCLUDE 'bios/logo/Set_Pictures.asm'
DISPLAY '-----[Set_Pictures Prebuild done ]-----'
ELSE
MAIN_END_CODE_ADDRESS EQU $-1

View File

@ -10,7 +10,7 @@ RELEASEhotFIX EQU 0 ;
DEFINE SP2000_Loader_Flag #0107 ;
DEFINE IDE_Optimization 1 ; á«¥£ª  ®¯â¨¬¨§¨àã¥â ­¥ª®â®àë¥ ¯à®æ¥¤ãàë à ¡®âë á HDD
DEFINE NeedSafePort_Y 1 ; ¥á«¨ 0, â® ¢ ०¨¬¥ ¡¥§  ªá¥«ï ­¥ª®â®àë¥ ¯à®æ¥¤ãàë ¬®£ãâ § áà âì íªà ­
DEFINE PICTURE_FILE './src/bios/logo/psfathers.bmp' ;
DEFINE PICTURE_FILE './bios/logo/psfathers.bmp' ;
DEFINE StandartCGApallete 1 ; <20>®¤ª«îç âì ¯ «¨âàã ¨§ standart_colors.inc
DEFINE BitStream_SizeInPages 4 ;
DEFINE USE_E1_SCANCODE 0 ;

17
bios/shared/includes.inc Normal file
View File

@ -0,0 +1,17 @@
;
;---------[All shared includes]---------
INCLUDE 'bios/shared/DEFINES.INC' ; Shared defines
INCLUDE 'Shared_Includes/structures/FileSystem.inc'
INCLUDE 'Shared_Includes/structures/ATA_ATAPI.inc'
INCLUDE 'bios/Loader/Loader.asm' ; Bitstream loader as macros
INCLUDE 'bios/shared/CompMacro.asm' ; ¬ ªà®áë
INCLUDE 'Shared_Includes/constants/SP2000.inc' ; ª®­áâ ­âë
INCLUDE 'Shared_Includes/constants/zx_char_codes.inc' ; ª®­áâ ­âë
INCLUDE 'Shared_Includes/constants/zx_vars.inc' ;
INCLUDE 'Shared_Includes/macroses/macros.z80'
INCLUDE 'bios/ROM/MEM_MAP.inc' ; ª àâ  ¯ ¬ïâ¨
INCLUDE 'bios/shared/VERSION.inc' ; ‚¥àá¨ï EXP ¨ ROM
INCLUDE 'Shared_Includes/constants/BIOS_EQU.inc'
INCLUDE 'bios/ROM/BIOS.inc'
;---------------------------------------
;

View File

@ -1,568 +0,0 @@
--
-- Copyright (C) 1988-2000 Altera Corporation
-- Any megafunction design, and related net list (encrypted or decrypted),
-- support information, device programming or simulation file, and any other
-- associated documentation or information provided by Altera or a partner
-- under Altera's Megafunction Partnership Program may be used only to
-- program PLD devices (but not masked PLD devices) from Altera. Any other
-- use of such megafunction design, net list, support information, device
-- programming or simulation file, or any other related documentation or
-- information is prohibited for any other purpose, including, but not
-- limited to modification, reverse engineering, de-compiling, or use with
-- any other silicon devices, unless such use is explicitly licensed under
-- a separate agreement with Altera or a megafunction partner. Title to
-- the intellectual property, including patents, copyrights, trademarks,
-- trade secrets, or maskworks, embodied in any such megafunction design,
-- net list, support information, device programming or simulation file, or
-- any other related documentation or information provided by Altera or a
-- megafunction partner, remains with Altera, the megafunction partner, or
-- their respective licensors. No other licenses, including any licenses
-- needed under any third party's intellectual property, are provided herein.
--
CHIP acceler
BEGIN
DEVICE = EP1K30QC208-3;
END;
DEFAULT_DEVICES
BEGIN
AUTO_DEVICE = EP1K100FC484-1;
AUTO_DEVICE = EP1K100FC256-1;
AUTO_DEVICE = EP1K100QC208-1;
AUTO_DEVICE = EP1K50FC484-1;
AUTO_DEVICE = EP1K50FC256-1;
AUTO_DEVICE = EP1K50QC208-1;
AUTO_DEVICE = EP1K50TC144-1;
AUTO_DEVICE = EP1K30FC256-1;
AUTO_DEVICE = EP1K30QC208-1;
AUTO_DEVICE = EP1K30TC144-1;
ASK_BEFORE_ADDING_EXTRA_DEVICES = ON;
END;
TIMING_POINT
BEGIN
DEVICE_FOR_TIMING_SYNTHESIS = EP1K30QC208-3;
FREQUENCY = 200MHz;
MAINTAIN_STABLE_SYNTHESIS = OFF;
CUT_ALL_CLEAR_PRESET = ON;
CUT_ALL_BIDIR = ON;
END;
IGNORED_ASSIGNMENTS
BEGIN
FIT_IGNORE_TIMING = OFF;
DEMOTE_SPECIFIC_LCELL_ASSIGNMENTS_TO_LAB_ASSIGNMENTS = OFF;
IGNORE_LOCAL_ROUTING_ASSIGNMENTS = OFF;
IGNORE_DEVICE_ASSIGNMENTS = OFF;
IGNORE_LC_ASSIGNMENTS = OFF;
IGNORE_PIN_ASSIGNMENTS = OFF;
IGNORE_CHIP_ASSIGNMENTS = OFF;
IGNORE_TIMING_ASSIGNMENTS = OFF;
IGNORE_LOGIC_OPTION_ASSIGNMENTS = OFF;
IGNORE_CLIQUE_ASSIGNMENTS = OFF;
END;
GLOBAL_PROJECT_DEVICE_OPTIONS
BEGIN
MAX7000B_ENABLE_VREFB = OFF;
MAX7000B_ENABLE_VREFA = OFF;
MAX7000B_VCCIO_IOBANK2 = 3.3V;
MAX7000B_VCCIO_IOBANK1 = 3.3V;
CONFIG_EPROM_PULLUP_RESISTOR = ON;
CONFIG_EPROM_USER_CODE = FFFFFFFF;
FLEX_CONFIGURATION_EPROM = AUTO;
MAX7000AE_ENABLE_JTAG = ON;
MAX7000AE_USER_CODE = FFFFFFFF;
FLEX6000_USE_LOW_VOLTAGE_CONFIGURATION_EPROM = OFF;
FLEX10KA_USE_LOW_VOLTAGE_CONFIGURATION_EPROM = ON;
FLEX10K_USE_LOW_VOLTAGE_CONFIGURATION_EPROM = OFF;
FLEX6000_ENABLE_JTAG = OFF;
CONFIG_SCHEME_FLEX_6000 = PASSIVE_SERIAL;
MULTIVOLT_IO = OFF;
MAX7000S_ENABLE_JTAG = ON;
FLEX10K_ENABLE_LOCK_OUTPUT = OFF;
MAX7000S_USER_CODE = FFFF;
CONFIG_SCHEME_10K = PASSIVE_SERIAL;
FLEX10K_JTAG_USER_CODE = 7F;
ENABLE_INIT_DONE_OUTPUT = OFF;
ENABLE_CHIP_WIDE_OE = OFF;
ENABLE_CHIP_WIDE_RESET = OFF;
nCEO = UNRESERVED;
CLKUSR = UNRESERVED;
ADD17 = UNRESERVED;
ADD16 = UNRESERVED;
ADD15 = UNRESERVED;
ADD14 = UNRESERVED;
ADD13 = UNRESERVED;
ADD0_TO_ADD12 = UNRESERVED;
SDOUT = RESERVED_DRIVES_OUT;
RDCLK = UNRESERVED;
RDYnBUSY = UNRESERVED;
nWS_nRS_nCS_CS = UNRESERVED;
DATA1_TO_DATA7 = UNRESERVED;
DATA0 = RESERVED_TRI_STATED;
FLEX8000_ENABLE_JTAG = OFF;
CONFIG_SCHEME = ACTIVE_SERIAL;
DISABLE_TIME_OUT = OFF;
ENABLE_DCLK_OUTPUT = OFF;
RELEASE_CLEARS = OFF;
AUTO_RESTART = OFF;
USER_CLOCK = OFF;
SECURITY_BIT = OFF;
RESERVED_PINS_PERCENT = 0;
RESERVED_LCELLS_PERCENT = 0;
END;
GLOBAL_PROJECT_SYNTHESIS_ASSIGNMENT_OPTIONS
BEGIN
STYLE = FAST;
DEVICE_FAMILY = ACEX1K;
MULTI_LEVEL_SYNTHESIS_MAX9000 = ON;
AUTO_IMPLEMENT_IN_EAB = OFF;
AUTO_OPEN_DRAIN_PINS = ON;
ONE_HOT_STATE_MACHINE_ENCODING = OFF;
AUTO_REGISTER_PACKING = OFF;
AUTO_FAST_IO = OFF;
AUTO_GLOBAL_OE = ON;
AUTO_GLOBAL_PRESET = ON;
AUTO_GLOBAL_CLEAR = ON;
AUTO_GLOBAL_CLOCK = ON;
MULTI_LEVEL_SYNTHESIS_MAX5000_7000 = OFF;
OPTIMIZE_FOR_SPEED = 5;
END;
COMPILER_PROCESSING_CONFIGURATION
BEGIN
USE_QUARTUS_FITTER = ON;
PRESERVE_ALL_NODE_NAME_SYNONYMS = OFF;
FITTER_SETTINGS = NORMAL;
SMART_RECOMPILE = OFF;
GENERATE_AHDL_TDO_FILE = OFF;
RPT_FILE_USER_ASSIGNMENTS = ON;
RPT_FILE_LCELL_INTERCONNECT = ON;
RPT_FILE_HIERARCHY = ON;
RPT_FILE_EQUATIONS = ON;
LINKED_SNF_EXTRACTOR = OFF;
OPTIMIZE_TIMING_SNF = OFF;
TIMING_SNF_EXTRACTOR = ON;
FUNCTIONAL_SNF_EXTRACTOR = OFF;
DESIGN_DOCTOR_RULES = EPLD;
DESIGN_DOCTOR = OFF;
END;
COMPILER_INTERFACES_CONFIGURATION
BEGIN
NETLIST_OUTPUT_TIME_SCALE = 0.1ns;
EDIF_INPUT_SHOW_LMF_MAPPING_MESSAGES = OFF;
EDIF_BUS_DELIMITERS = [];
EDIF_FLATTEN_BUS = OFF;
EDIF_OUTPUT_FORCE_0NS_DELAYS = OFF;
EDIF_OUTPUT_INCLUDE_SPECIAL_PRIM = OFF;
EDIF_OUTPUT_MAP_ILLEGAL_CHAR = OFF;
EDIF_OUTPUT_DELAY_CONSTRUCTS = EDO_FILE;
EDIF_OUTPUT_USE_EDC = OFF;
EDIF_INPUT_USE_LMF2 = OFF;
EDIF_INPUT_USE_LMF1 = OFF;
EDIF_OUTPUT_GND = GND;
EDIF_OUTPUT_VCC = VCC;
EDIF_INPUT_GND = GND;
EDIF_INPUT_VCC = VCC;
EDIF_OUTPUT_EDC_FILE = *.edc;
EDIF_INPUT_LMF2 = *.lmf;
EDIF_INPUT_LMF1 = *.lmf;
VHDL_GENERATE_CONFIGURATION_DECLARATION = OFF;
VHDL_OUTPUT_DELAY_CONSTRUCTS = VHO_FILE;
VERILOG_OUTPUT_DELAY_CONSTRUCTS = VO_FILE;
VHDL_FLATTEN_BUS = OFF;
VERILOG_FLATTEN_BUS = OFF;
EDIF_TRUNCATE_HIERARCHY_PATH = OFF;
VHDL_TRUNCATE_HIERARCHY_PATH = OFF;
VERILOG_TRUNCATE_HIERARCHY_PATH = OFF;
VERILOG_OUTPUT_MAP_ILLEGAL_CHAR = OFF;
VHDL_WRITER_VERSION = VHDL87;
VHDL_READER_VERSION = VHDL87;
SYNOPSYS_MAPPING_EFFORT = MEDIUM;
SYNOPSYS_BOUNDARY_OPTIMIZATION = OFF;
SYNOPSYS_HIERARCHICAL_COMPILATION = ON;
SYNOPSYS_DESIGNWARE = OFF;
SYNOPSYS_COMPILER = DESIGN;
USE_SYNOPSYS_SYNTHESIS = OFF;
VHDL_NETLIST_WRITER = OFF;
VERILOG_NETLIST_WRITER = OFF;
XNF_GENERATE_AHDL_TDX_FILE = ON;
XNF_TRANSLATE_INTERNAL_NODE_NAMES = ON;
XNF_EMULATE_TRI_STATE_BUSES = INTERNAL_LOGIC;
EDIF_OUTPUT_VERSION = 200;
EDIF_NETLIST_WRITER = OFF;
END;
CUSTOM_DESIGN_DOCTOR_RULES
BEGIN
MASTER_RESET = OFF;
EXPANDER_NETWORKS = ON;
RACE_CONDITIONS = ON;
DELAY_CHAINS = ON;
ASYNCHRONOUS_INPUTS = ON;
PRESET_CLEAR_NETWORKS = ON;
STATIC_HAZARDS_AFTER_SYNTHESIS = OFF;
STATIC_HAZARDS_BEFORE_SYNTHESIS = ON;
MULTI_CLOCK_NETWORKS = ON;
MULTI_LEVEL_CLOCKS = ON;
GATED_CLOCKS = ON;
RIPPLE_CLOCKS = ON;
END;
SIMULATOR_CONFIGURATION
BEGIN
END_TIME = 5.0us;
BIDIR_PIN = STRONG;
START_TIME = 0.0ns;
GLITCH_TIME = 0.0ns;
GLITCH = OFF;
OSCILLATION_TIME = 0.0ns;
OSCILLATION = OFF;
CHECK_OUTPUTS = OFF;
SETUP_HOLD = OFF;
USE_DEVICE = OFF;
END;
TIMING_ANALYZER_CONFIGURATION
BEGIN
ANALYSIS_MODE = REGISTERED_PERFORMANCE;
CUT_OFF_RAM_REGISTERED_WE_PATHS = OFF;
LIST_PATH_FREQUENCY = 10MHz;
LIST_PATH_COUNT = 10;
REGISTERED_PERFORMANCE_OPTIONS = NUMBER_OF_PATHS;
INCLUDE_PATHS_LESS_THAN_VALUE = 214.7483647ms;
INCLUDE_PATHS_LESS_THAN = OFF;
INCLUDE_PATHS_GREATER_THAN_VALUE = 0.0ns;
INCLUDE_PATHS_GREATER_THAN = OFF;
DELAY_MATRIX_OPTIONS = SHOW_ALL_PATHS;
CELL_WIDTH = 18;
LIST_ONLY_LONGEST_PATH = ON;
CUT_OFF_CLEAR_AND_PRESET_PATHS = ON;
CUT_OFF_IO_PIN_FEEDBACK = ON;
AUTO_RECALCULATE = OFF;
END;
OTHER_CONFIGURATION
BEGIN
LAST_MAXPLUS2_VERSION = 10.0;
ROW_PINS_LCELL_INSERT = ON;
CARRY_OUT_PINS_LCELL_INSERT = OFF;
NORMAL_LCELL_INSERT = ON;
EXPLICIT_FAMILY = 1;
FLEX_10K_52_COLUMNS = 40;
DEFAULT_9K_EXP_PER_LCELL = 1/2;
LOCAL_INTERCONNECT_PER_LAB_PERCENT = 100;
LCELLS_PER_ROW_PERCENT = 100;
FAN_IN_PER_LCELL_PERCENT = 100;
EXP_PER_LCELL_PERCENT = 100;
ROW_PINS_PERCENT = 50;
ORIGINAL_MAXPLUS2_VERSION = 9.6;
COMPILER_DATA = "1,1,0,1,0,0,0,1,1,1,1,0,1,1,1";
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.MAX5000
BEGIN
REGISTER_OPTIMIZATION = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = ON;
REFACTORIZATION = ON;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = ON;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.MAX7000
BEGIN
REGISTER_OPTIMIZATION = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = ON;
REFACTORIZATION = ON;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = ON;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.CLASSIC
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.FLEX8000
BEGIN
REGISTER_OPTIMIZATION = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = ON;
REFACTORIZATION = ON;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
IGNORE_SOFT_BUFFERS = ON;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN_LENGTH = 32;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = 2;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.MAX5000
BEGIN
REGISTER_OPTIMIZATION = ON;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
MINIMIZATION = FULL;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = ON;
SLOW_SLEW_RATE = OFF;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.MAX7000
BEGIN
REGISTER_OPTIMIZATION = ON;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
MINIMIZATION = FULL;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
PARALLEL_EXPANDERS = ON;
TURBO_BIT = ON;
XOR_SYNTHESIS = ON;
SLOW_SLEW_RATE = OFF;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.CLASSIC
BEGIN
REGISTER_OPTIMIZATION = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
MINIMIZATION = FULL;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.FLEX8000
BEGIN
CARRY_CHAIN_LENGTH = 32;
CASCADE_CHAIN_LENGTH = 2;
REGISTER_OPTIMIZATION = ON;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
CARRY_CHAIN = AUTO;
CASCADE_CHAIN = AUTO;
MINIMIZATION = FULL;
IGNORE_SOFT_BUFFERS = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.MAX5000
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = OFF;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = OFF;
SOFT_BUFFER_INSERTION = OFF;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = PARTIAL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.MAX7000
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = OFF;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = OFF;
SOFT_BUFFER_INSERTION = OFF;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = PARTIAL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.CLASSIC
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = OFF;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = PARTIAL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.FLEX8000
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = OFF;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = OFF;
SOFT_BUFFER_INSERTION = ON;
IGNORE_SOFT_BUFFERS = ON;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = PARTIAL;
CARRY_CHAIN_LENGTH = 32;
CARRY_CHAIN = MANUAL;
CASCADE_CHAIN_LENGTH = 2;
CASCADE_CHAIN = MANUAL;
END;

View File

@ -1,26 +0,0 @@
-- Copyright (C) 1988-2000 Altera Corporation
-- Any megafunction design, and related net list (encrypted or decrypted),
-- support information, device programming or simulation file, and any other
-- associated documentation or information provided by Altera or a partner
-- under Altera's Megafunction Partnership Program may be used only to
-- program PLD devices (but not masked PLD devices) from Altera. Any other
-- use of such megafunction design, net list, support information, device
-- programming or simulation file, or any other related documentation or
-- information is prohibited for any other purpose, including, but not
-- limited to modification, reverse engineering, de-compiling, or use with
-- any other silicon devices, unless such use is explicitly licensed under
-- a separate agreement with Altera or a megafunction partner. Title to
-- the intellectual property, including patents, copyrights, trademarks,
-- trade secrets, or maskworks, embodied in any such megafunction design,
-- net list, support information, device programming or simulation file, or
-- any other related documentation or information provided by Altera or a
-- megafunction partner, remains with Altera, the megafunction partner, or
-- their respective licensors. No other licenses, including any licenses
-- needed under any third party's intellectual property, are provided herein.
-- MAX+plus II Include File
-- Version 10.0 9/14/2000
-- Created: Fri Jan 25 12:59:19 2002
FUNCTION acceler (clk42, /reset, ct[2..0], ras, cas, clk_z80, mc_end, mc_begin, mc_type, mc_write, ai[15..0], di[7..0], /io, /rd, /wr, /mr, /rf, /m1, /iom, dcp[7..0], mdi[15..0], acc_ena, hddr[7..0], hdd_flip)
RETURNS (continue, ao[15..0], do[7..0], mdo[15..0], md[7..0], g_line[7..0], glisser, acc_on, double_cas, acc_dir[7..0]);

View File

@ -1,374 +0,0 @@
TITLE "ACCELERATOR";
INCLUDE "lpm_ram_dp";
SUBDESIGN acceler
(
CLK42 : INPUT;
/RESET : INPUT;
CT[2..0] : INPUT;
RAS : INPUT;
CAS : INPUT;
CLK_Z80 : INPUT;
CONTINUE : OUTPUT;
MC_END : INPUT;
MC_BEGIN : INPUT;
MC_TYPE : INPUT;
MC_WRITE : INPUT;
-- MCA[1..0] : INPUT;
AI[15..0] : INPUT;
DI[7..0] : INPUT;
AO[15..0] : OUTPUT;
DO[7..0] : OUTPUT;
/IO : INPUT;
/RD : INPUT;
/WR : INPUT;
/MR : INPUT;
/RF : INPUT;
/M1 : INPUT;
/IOM : INPUT;
DCP[7..0] : INPUT;
MDI[15..0] : INPUT;
MDO[15..0] : OUTPUT;
MD[7..0] : OUTPUT;
G_LINE[7..0]: OUTPUT;
GLISSER : OUTPUT;
ACC_ON : OUTPUT;
ACC_ENA : INPUT;
DOUBLE_CAS : OUTPUT;
HDDR[7..0] : INPUT;
HDD_FLIP : INPUT;
ACC_DIR[7..0] : OUTPUT;
)
VARIABLE
RAM : LPM_RAM_DP WITH (LPM_WIDTH=16,LPM_WIDTHAD=8);
DO[7..0] : DFFE;
MDO[15..0] : DFFE;
PRF_CMD : DFFE;
ED_CMD : DFFE;
CB_CMD : DFFE;
ID_CMD : DFFE;
IN_OUT_CMD : DFFE;
CORRECT_1F : NODE;
ACC_BLK : DFF;
RETI : DFFE;
RETN : DFFE;
AA[15..0] : DFFE;
RGACC[7..0] : DFFE;
AGR[7..0] : DFFE;
ACC_CNT[7..0] : DFFE;
START_ACC : NODE;
ACC_END : DFFE;
FN_ACC[2..0]: DFFE;
ACC_MODE[3..0] : DFFE;
MD[7..0] : LCELL;
XMD[7..0] : DFF;
XMDH[7..0] : DFF;
ACC_DIR[7..0] : LCELL;
/M1M : NODE;
ACC_GO : NODE;
ACC_GO_1 : NODE;
RAM_WR : NODE;
STATE_EI : DFFE;
-- HDDR[7..0] : DFFE;
XAGR[7..0] : DFFE;
AAGR[9..0] : DFFE;
XCNT[7..0] : DFFE;
ALT_ACC : NODE;
RAM_ADR[7..0] : NODE;
ACC_C : NODE;
WR_C7 : NODE;
XCNT_AGR[15..0] : NODE;
MDOX[7..0] : DFF;
MDOY[7..0] : DFF;
GLISS_R : DFF;
ACC_TIME : NODE;
BEGIN
ACC_ON = ACC_DIR0;
/M1M = DFF(!/M1,CLK_Z80,/RESET,);
PRF_CMD.clk = /MR;
PRF_CMD.ena = /M1M;
PRF_CMD.d = (DI[] == B"11XX1XX1") &
((DI[] == B"XX00X01X") or -- CB
(DI[] == B"XX01X10X") or -- DD
(DI[] == B"XX10X10X") or -- ED
(DI[] == B"XX11X10X")); -- FD
-- === interrupt === 0 - disable; 1 - enable
STATE_EI.clk = /MR;
STATE_EI.ena = /M1M & !PRF_CMD & (DI[] == B"1111X011");
STATE_EI.d = DI3;
-- RETI comand
ED_CMD.clk = /MR;
ED_CMD.ena = /M1M;
ED_CMD.d = (DI[] == H"ED");
RETI.clk = /MR;
RETI.ena = /M1M;
RETI.d = ED_CMD & (DI[] == H"4D");
-- "1" on the RETI triger is the end of interupt sycle.
RETN.clk = /MR;
RETN.ena = /M1M;
RETN.d = ED_CMD & (DI[] == H"45");
-- The end of NMI sycle.
ACC_BLK.clk = /M1;
ACC_BLK.d = DFF(((/IO & ACC_BLK) or (!ACC_BLK & RETI)),CLK_Z80,,);
ACC_BLK.prn = /RESET & ACC_MODE3;
CB_CMD.clk = /MR;
ID_CMD.clk = /MR;
CB_CMD.ena = /M1M;
ID_CMD.ena = /M1M;
CB_CMD.d = (DI[] == H"CB");
ID_CMD.d = (DI[] == B"11X11101");
IN_OUT_CMD.clk = /MR;
IN_OUT_CMD.ena = /M1M;
IN_OUT_CMD.d = (DI[] == B"1101X011") & !PRF_CMD; -- D3/DB
IN_OUT_CMD.clrn = /IO;
CORRECT_1F = LCELL(IN_OUT_CMD & (DO[] == H"1F") & !/MR & !/RD);
DO[4..3].clrn = !CORRECT_1F;
ACC_GO = DFFE((CAS or START_ACC),CLK42,,(!/MR & /M1),CT1);
ACC_GO_1 = DFF(ACC_GO,CLK42,,);
-- == accelerator number ==
RGACC[].clk = /MR;
RGACC[].ena = DFF((/M1 & /RF & ACC_DIR3),CLK_Z80,,);
RGACC[].d = DI[];
-- == accelerator grafic line ==
AGR[].clk = CLK42;
AGR[].ena = !DFF((/IOM or /WR or !DFF((DCP[] == B"1100X100"),CLK42,,)),CLK42,,) or
!(!ACC_DIR4 or ACC_GO or !ACC_GO_1);
CASE DFF(START_ACC,CLK42,,) IS
WHEN 0 => AGR[].d = AGR[] + 1;
WHEN 1 => AGR[].d = DI[];
END CASE;
AGR[].clrn = /RESET;
G_LINE[] = AGR[];
-- == accelerator counter ==
ACC_C = (!ACC_GO & DFF(((CT0 & !/RD) or (CT1 & !/WR)),CLK42,,));
ACC_CNT[].clk = CLK42;
-- ACC_CNT[].ena = START_ACC or (ACC_C & ACC_DIR2);
ACC_CNT[].ena = LCELL(START_ACC or (ACC_C & ACC_DIR2));
CASE DFF(START_ACC,CLK42,,) IS
WHEN 1 => ACC_CNT[].d = RGACC[];
WHEN 0 => ACC_CNT[].d = ACC_CNT[] - 1;
END CASE;
WR_C7 = DFF((/IOM or DFF(!/IOM,CLK42,,) or /WR or DFF(!(DCP[] == B"1100X111"),CLK42,,)),CLK42,,);
ALT_ACC = DFF(VCC,WR_C7,/RESET,);
(AAGR[].ena,XCNT[].ena,XAGR[].ena) = LCELL(!WR_C7 or (ACC_DIR1 & ACC_C));
(AAGR[].clk,XCNT[].clk,XAGR[].clk) = CLK42;
XCNT_AGR[15..0] = (XCNT[],XAGR[]) + (B"000000",AAGR[]);
CASE !DFF(START_ACC,CLK42,,) IS
WHEN 1 => AAGR[].d = AAGR[];
(XCNT[].d,XAGR[].d) = XCNT_AGR[15..0];
WHEN 0 => AAGR[].d = (AI9,AI8,DI[]);
(XCNT[].d,XAGR[].d) = (B"00",AI[15..10],B"00000000");
END CASE;
-- == accelerator dir ==
START_ACC = LCELL(LCELL(/MR or !/M1 or !/RF or !ACC_BLK) or (!ACC_DIR0 or MC_TYPE));
DOUBLE_CAS= LCELL(ACC_DIR6 & !START_ACC);
ACC_END.clk = CLK42;
ACC_END.ena = !ACC_GO & ACC_GO_1;
ACC_END.prn = /M1;
ACC_END.d = (ACC_CNT[] == 1) or !ACC_DIR2;
CONTINUE = ACC_END;
CASE ACC_MODE[2..0] IS
WHEN 0 => ACC_DIR[] = B"00000000"; % LD B,B %
WHEN 1 => ACC_DIR[] = B"00100101"; % LD C,C % % fill by constant %
WHEN 2 => ACC_DIR[] = B"00001001"; % LD D,D % % load count accelerator %
WHEN 3 => ACC_DIR[] = B"00010101"; % LD E,E % % fill by constant VERTICAL %
WHEN 4 => ACC_DIR[] = B"01000001"; % LD H,H % % duble byte fn %
WHEN 5 => ACC_DIR[] = B"00100111"; % LD L,L % % copy line %
WHEN 6 => ACC_DIR[] = B"00000000"; % HALT %
WHEN 7 => ACC_DIR[] = B"00010111"; % LD A,A % % copy line VERTICAL %
END CASE;
-- == accelerator mode ==
ACC_MODE[].clk = /MR;
ACC_MODE[].ena = DFF((!/M1 & !PRF_CMD &
LCELL((DI[] == B"XXX00X00") or
(DI[] == B"XXX01X01") or
(DI[] == B"XXX10X10") or
(DI[] == B"XXX11X11")) &
LCELL((DI[] == B"010XX0XX") or
(DI[] == B"011XX1XX"))),CLK_Z80,,);
ACC_MODE[].d = (VCC,DI[2..0]);
ACC_MODE[2..0].clrn = /RESET & ACC_ENA;
ACC_MODE[3].clrn = /RESET & !DFF(ACC_MODE3,CLK_Z80,,);
-- == accelerator datas ==
CASE DFFE(AA0,CLK42,,,(CT2 & CT1)) IS
WHEN 0 => MD[] = MDI[7..0];
-- GLISSER = DFF((MDO[7..0] == H"FF"),CLK42,,);
WHEN 1 => MD[] = MDI[15..8];
-- GLISSER = DFF((MDO[15..8] == H"FF"),CLK42,,);
END CASE;
GLISS_R.clk = CLK42;
CASE ACC_DIR1 IS
WHEN 0 => GLISS_R = LCELL(DI[] == H"FF");
WHEN 1 => GLISS_R = LCELL(RAM.q[7..4] == H"F") & LCELL(RAM.q[3..0] == H"F");
END CASE;
GLISSER = GLISS_R;
-- MDO[].clk = !CLK42;
MDO[].clk = CLK42;
MDO[].ena = CAS;
MDOX[].clk = CLK42;
MDOY[].clk = CLK42;
CASE LCELL(MC_END & HDD_FLIP) IS
WHEN 0 => MDOX[7..0] = DI[];
WHEN 1 => MDOX[7..0] = HDDR[];
END CASE;
CASE ACC_DIR6 IS
WHEN 0 => MDOY[7..0] = DI[];
WHEN 1 => MDOY[7..0] = HDDR[];
END CASE;
CASE LCELL(/IO & ACC_DIR1) IS
WHEN 0 => MDO[].d = (MDOY[],MDOX[]);
WHEN 1 => MDO[].d = (RAM.q[7..0],RAM.q[7..0]);
END CASE;
DO[].clk = DFF(MC_END,!CLK42,,);
-- DO[].clk = !CLK42;
DO[].ena = VCC;
-- DO[].ena = DFF(!MC_END,CLK42,,);
DO[].d = MD[];
-- == accelerator functions ==
FN_ACC[].clk = /MR;
FN_ACC[].ena = /M1M;
FN_ACC[].d = LCELL(DI7 & !DI6 & !PRF_CMD) & !(DI[5..3]);
XMDH[].clk = !CLK42;
XMDH[] = MDI[15..8];
XMD[].clk = !CLK42;
CASE FN_ACC[1..0] IS
WHEN 0 =>
XMD[] = MD[]; % BE %
WHEN 1 =>
XMD[] = MD[] or RAM.q[7..0]; % B6 %
WHEN 2 =>
XMD[] = MD[] xor RAM.q[7..0]; % AE %
WHEN 3 =>
XMD[] = MD[] & RAM.q[7..0]; % A6 %
END CASE;
CASE ALT_ACC IS
WHEN 0 => RAM_ADR[] = ACC_CNT[];
WHEN 1 => RAM_ADR[] = XCNT[];
END CASE;
ACC_TIME = LCELL((!ACC_END or !DFFE(ACC_END,CLK42,,,(CT1 & CT2))));
-- RAM_WR = DFF((!/RD & (!ACC_GO & CT0) & ACC_TIME),CLK42,,);
RAM_WR = DFF((!/RD & (!ACC_GO & CT0) & ACC_DIR1),CLK42,,);
RAM.wren = RAM_WR;
RAM.data[] = (XMD[],XMD[]);
-- RAM.wraddress[] = ACC_CNT[];
RAM.wraddress[] = RAM_ADR[];
RAM.wrclock = CLK42;
RAM.wrclken = VCC;
RAM.rden = VCC;
-- RAM.rdaddress[] = ACC_CNT[];
RAM.rdaddress[] = RAM_ADR[];
RAM.rdclock = CLK42;
RAM.rdclken = VCC;
AA[].clk = CLK42;
-- AA[].ena = START_ACC or (ACC_DIR5 & !ACC_GO & ACC_GO_1);
AA[].ena = LCELL(START_ACC or (ACC_DIR5 & !(CAS or START_ACC) & (ACC_GO or (ACC_GO_1 & ACC_DIR6))));
CASE DFF(START_ACC,CLK42,,) IS
WHEN 1 => AA[].d = AI[];
-- WHEN 0 => AA[].d = AA[] + (B"00000000000000",ACC_DIR6,!ACC_DIR6);
WHEN 0 => AA[].d = AA[] + 1;
END CASE;
AO[] = (AA[15..0]);
END;

View File

@ -1,578 +0,0 @@
--
-- Copyright (C) 1988-2000 Altera Corporation
-- Any megafunction design, and related net list (encrypted or decrypted),
-- support information, device programming or simulation file, and any other
-- associated documentation or information provided by Altera or a partner
-- under Altera's Megafunction Partnership Program may be used only to
-- program PLD devices (but not masked PLD devices) from Altera. Any other
-- use of such megafunction design, net list, support information, device
-- programming or simulation file, or any other related documentation or
-- information is prohibited for any other purpose, including, but not
-- limited to modification, reverse engineering, de-compiling, or use with
-- any other silicon devices, unless such use is explicitly licensed under
-- a separate agreement with Altera or a megafunction partner. Title to
-- the intellectual property, including patents, copyrights, trademarks,
-- trade secrets, or maskworks, embodied in any such megafunction design,
-- net list, support information, device programming or simulation file, or
-- any other related documentation or information provided by Altera or a
-- megafunction partner, remains with Altera, the megafunction partner, or
-- their respective licensors. No other licenses, including any licenses
-- needed under any third party's intellectual property, are provided herein.
--
CHIP ay
BEGIN
DEVICE = EP1K30QC208-3;
END;
DEFAULT_DEVICES
BEGIN
AUTO_DEVICE = EP1K100FC484-1;
AUTO_DEVICE = EP1K100FC256-1;
AUTO_DEVICE = EP1K100QC208-1;
AUTO_DEVICE = EP1K50FC484-1;
AUTO_DEVICE = EP1K50FC256-1;
AUTO_DEVICE = EP1K50QC208-1;
AUTO_DEVICE = EP1K50TC144-1;
AUTO_DEVICE = EP1K30FC256-1;
AUTO_DEVICE = EP1K30QC208-1;
AUTO_DEVICE = EP1K30TC144-1;
AUTO_DEVICE = EP1K10FC256-1;
AUTO_DEVICE = EP1K10QC208-1;
AUTO_DEVICE = EP1K10TC144-1;
AUTO_DEVICE = EP1K10TC100-1;
ASK_BEFORE_ADDING_EXTRA_DEVICES = ON;
END;
TIMING_POINT
BEGIN
DEVICE_FOR_TIMING_SYNTHESIS = EP1K30QC208-3;
FREQUENCY = 100MHz;
MAINTAIN_STABLE_SYNTHESIS = OFF;
CUT_ALL_CLEAR_PRESET = ON;
CUT_ALL_BIDIR = ON;
END;
IGNORED_ASSIGNMENTS
BEGIN
FIT_IGNORE_TIMING = ON;
DEMOTE_SPECIFIC_LCELL_ASSIGNMENTS_TO_LAB_ASSIGNMENTS = OFF;
IGNORE_LOCAL_ROUTING_ASSIGNMENTS = OFF;
IGNORE_DEVICE_ASSIGNMENTS = OFF;
IGNORE_LC_ASSIGNMENTS = OFF;
IGNORE_PIN_ASSIGNMENTS = OFF;
IGNORE_CHIP_ASSIGNMENTS = OFF;
IGNORE_TIMING_ASSIGNMENTS = OFF;
IGNORE_LOGIC_OPTION_ASSIGNMENTS = OFF;
IGNORE_CLIQUE_ASSIGNMENTS = OFF;
END;
GLOBAL_PROJECT_DEVICE_OPTIONS
BEGIN
MAX7000B_ENABLE_VREFB = OFF;
MAX7000B_ENABLE_VREFA = OFF;
MAX7000B_VCCIO_IOBANK2 = 3.3V;
MAX7000B_VCCIO_IOBANK1 = 3.3V;
CONFIG_EPROM_PULLUP_RESISTOR = ON;
CONFIG_EPROM_USER_CODE = FFFFFFFF;
FLEX_CONFIGURATION_EPROM = AUTO;
MAX7000AE_ENABLE_JTAG = ON;
MAX7000AE_USER_CODE = FFFFFFFF;
FLEX6000_USE_LOW_VOLTAGE_CONFIGURATION_EPROM = OFF;
FLEX10KA_USE_LOW_VOLTAGE_CONFIGURATION_EPROM = ON;
FLEX10K_USE_LOW_VOLTAGE_CONFIGURATION_EPROM = OFF;
FLEX6000_ENABLE_JTAG = OFF;
CONFIG_SCHEME_FLEX_6000 = PASSIVE_SERIAL;
MULTIVOLT_IO = OFF;
MAX7000S_ENABLE_JTAG = ON;
FLEX10K_ENABLE_LOCK_OUTPUT = OFF;
MAX7000S_USER_CODE = FFFF;
CONFIG_SCHEME_10K = PASSIVE_SERIAL;
FLEX10K_JTAG_USER_CODE = 7F;
ENABLE_INIT_DONE_OUTPUT = OFF;
ENABLE_CHIP_WIDE_OE = OFF;
ENABLE_CHIP_WIDE_RESET = OFF;
nCEO = UNRESERVED;
CLKUSR = UNRESERVED;
ADD17 = UNRESERVED;
ADD16 = UNRESERVED;
ADD15 = UNRESERVED;
ADD14 = UNRESERVED;
ADD13 = UNRESERVED;
ADD0_TO_ADD12 = UNRESERVED;
SDOUT = RESERVED_DRIVES_OUT;
RDCLK = UNRESERVED;
RDYnBUSY = UNRESERVED;
nWS_nRS_nCS_CS = UNRESERVED;
DATA1_TO_DATA7 = UNRESERVED;
DATA0 = RESERVED_TRI_STATED;
FLEX8000_ENABLE_JTAG = OFF;
CONFIG_SCHEME = ACTIVE_SERIAL;
DISABLE_TIME_OUT = OFF;
ENABLE_DCLK_OUTPUT = OFF;
RELEASE_CLEARS = OFF;
AUTO_RESTART = OFF;
USER_CLOCK = OFF;
SECURITY_BIT = OFF;
RESERVED_PINS_PERCENT = 0;
RESERVED_LCELLS_PERCENT = 0;
END;
GLOBAL_PROJECT_SYNTHESIS_ASSIGNMENT_OPTIONS
BEGIN
MULTI_LEVEL_SYNTHESIS_MAX9000 = ON;
AUTO_IMPLEMENT_IN_EAB = OFF;
AUTO_OPEN_DRAIN_PINS = ON;
ONE_HOT_STATE_MACHINE_ENCODING = OFF;
AUTO_REGISTER_PACKING = OFF;
DEVICE_FAMILY = ACEX1K;
STYLE = NORMAL;
AUTO_FAST_IO = OFF;
AUTO_GLOBAL_OE = ON;
AUTO_GLOBAL_PRESET = ON;
AUTO_GLOBAL_CLEAR = ON;
AUTO_GLOBAL_CLOCK = ON;
MULTI_LEVEL_SYNTHESIS_MAX5000_7000 = OFF;
OPTIMIZE_FOR_SPEED = 5;
END;
COMPILER_PROCESSING_CONFIGURATION
BEGIN
USE_QUARTUS_FITTER = ON;
PRESERVE_ALL_NODE_NAME_SYNONYMS = OFF;
FITTER_SETTINGS = NORMAL;
SMART_RECOMPILE = OFF;
GENERATE_AHDL_TDO_FILE = OFF;
RPT_FILE_USER_ASSIGNMENTS = ON;
RPT_FILE_LCELL_INTERCONNECT = ON;
RPT_FILE_HIERARCHY = ON;
RPT_FILE_EQUATIONS = ON;
LINKED_SNF_EXTRACTOR = OFF;
OPTIMIZE_TIMING_SNF = OFF;
TIMING_SNF_EXTRACTOR = ON;
FUNCTIONAL_SNF_EXTRACTOR = OFF;
DESIGN_DOCTOR_RULES = EPLD;
DESIGN_DOCTOR = OFF;
END;
COMPILER_INTERFACES_CONFIGURATION
BEGIN
NETLIST_OUTPUT_TIME_SCALE = 0.1ns;
EDIF_INPUT_SHOW_LMF_MAPPING_MESSAGES = OFF;
EDIF_BUS_DELIMITERS = [];
EDIF_FLATTEN_BUS = OFF;
EDIF_OUTPUT_FORCE_0NS_DELAYS = OFF;
EDIF_OUTPUT_INCLUDE_SPECIAL_PRIM = OFF;
EDIF_OUTPUT_MAP_ILLEGAL_CHAR = OFF;
EDIF_OUTPUT_DELAY_CONSTRUCTS = EDO_FILE;
EDIF_OUTPUT_USE_EDC = OFF;
EDIF_INPUT_USE_LMF2 = OFF;
EDIF_INPUT_USE_LMF1 = OFF;
EDIF_OUTPUT_GND = GND;
EDIF_OUTPUT_VCC = VCC;
EDIF_INPUT_GND = GND;
EDIF_INPUT_VCC = VCC;
EDIF_OUTPUT_EDC_FILE = *.edc;
EDIF_INPUT_LMF2 = *.lmf;
EDIF_INPUT_LMF1 = *.lmf;
VHDL_GENERATE_CONFIGURATION_DECLARATION = OFF;
VHDL_OUTPUT_DELAY_CONSTRUCTS = VHO_FILE;
VERILOG_OUTPUT_DELAY_CONSTRUCTS = VO_FILE;
VHDL_FLATTEN_BUS = OFF;
VERILOG_FLATTEN_BUS = OFF;
EDIF_TRUNCATE_HIERARCHY_PATH = OFF;
VHDL_TRUNCATE_HIERARCHY_PATH = OFF;
VERILOG_TRUNCATE_HIERARCHY_PATH = OFF;
VERILOG_OUTPUT_MAP_ILLEGAL_CHAR = OFF;
VHDL_WRITER_VERSION = VHDL93;
VHDL_READER_VERSION = VHDL93;
SYNOPSYS_MAPPING_EFFORT = MEDIUM;
SYNOPSYS_BOUNDARY_OPTIMIZATION = OFF;
SYNOPSYS_HIERARCHICAL_COMPILATION = ON;
SYNOPSYS_DESIGNWARE = OFF;
SYNOPSYS_COMPILER = DESIGN;
USE_SYNOPSYS_SYNTHESIS = OFF;
VHDL_NETLIST_WRITER = OFF;
VERILOG_NETLIST_WRITER = OFF;
XNF_GENERATE_AHDL_TDX_FILE = ON;
XNF_TRANSLATE_INTERNAL_NODE_NAMES = ON;
XNF_EMULATE_TRI_STATE_BUSES = INTERNAL_LOGIC;
EDIF_OUTPUT_VERSION = 200;
EDIF_NETLIST_WRITER = OFF;
END;
CUSTOM_DESIGN_DOCTOR_RULES
BEGIN
MASTER_RESET = OFF;
EXPANDER_NETWORKS = ON;
RACE_CONDITIONS = ON;
DELAY_CHAINS = ON;
ASYNCHRONOUS_INPUTS = ON;
PRESET_CLEAR_NETWORKS = ON;
STATIC_HAZARDS_AFTER_SYNTHESIS = OFF;
STATIC_HAZARDS_BEFORE_SYNTHESIS = ON;
MULTI_CLOCK_NETWORKS = ON;
MULTI_LEVEL_CLOCKS = ON;
GATED_CLOCKS = ON;
RIPPLE_CLOCKS = ON;
END;
SIMULATOR_CONFIGURATION
BEGIN
BIDIR_PIN = STRONG;
END_TIME = 0.0ns;
START_TIME = 0.0ns;
GLITCH_TIME = 0.0ns;
GLITCH = OFF;
OSCILLATION_TIME = 0.0ns;
OSCILLATION = OFF;
CHECK_OUTPUTS = OFF;
SETUP_HOLD = OFF;
USE_DEVICE = OFF;
END;
TIMING_ANALYZER_CONFIGURATION
BEGIN
ANALYSIS_MODE = REGISTERED_PERFORMANCE;
CUT_OFF_RAM_REGISTERED_WE_PATHS = OFF;
LIST_PATH_FREQUENCY = 10MHz;
LIST_PATH_COUNT = 10;
REGISTERED_PERFORMANCE_OPTIONS = NUMBER_OF_PATHS;
INCLUDE_PATHS_LESS_THAN_VALUE = 214.7483647ms;
INCLUDE_PATHS_LESS_THAN = OFF;
INCLUDE_PATHS_GREATER_THAN_VALUE = 0.0ns;
INCLUDE_PATHS_GREATER_THAN = OFF;
DELAY_MATRIX_OPTIONS = SHOW_ALL_PATHS;
CELL_WIDTH = 18;
LIST_ONLY_LONGEST_PATH = ON;
CUT_OFF_CLEAR_AND_PRESET_PATHS = ON;
CUT_OFF_IO_PIN_FEEDBACK = ON;
AUTO_RECALCULATE = OFF;
END;
OTHER_CONFIGURATION
BEGIN
ROW_PINS_LCELL_INSERT = ON;
CARRY_OUT_PINS_LCELL_INSERT = OFF;
NORMAL_LCELL_INSERT = ON;
EXPLICIT_FAMILY = 1;
LAST_MAXPLUS2_VERSION = 10.0;
FLEX_10K_52_COLUMNS = 40;
DEFAULT_9K_EXP_PER_LCELL = 1/2;
LOCAL_INTERCONNECT_PER_LAB_PERCENT = 100;
LCELLS_PER_ROW_PERCENT = 100;
FAN_IN_PER_LCELL_PERCENT = 100;
EXP_PER_LCELL_PERCENT = 100;
ROW_PINS_PERCENT = 50;
ORIGINAL_MAXPLUS2_VERSION = 10.0;
COMPILER_DATA = "1,1,0,1,0,0,0,1,1,1,1,0,1,1,1";
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.MAX5000
BEGIN
REGISTER_OPTIMIZATION = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = ON;
REFACTORIZATION = ON;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = ON;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.MAX7000
BEGIN
REGISTER_OPTIMIZATION = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = ON;
REFACTORIZATION = ON;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = ON;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.CLASSIC
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.FLEX8000
BEGIN
REGISTER_OPTIMIZATION = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = ON;
REFACTORIZATION = ON;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
IGNORE_SOFT_BUFFERS = ON;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN_LENGTH = 32;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = 2;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.MAX5000
BEGIN
REGISTER_OPTIMIZATION = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = ON;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.MAX7000
BEGIN
REGISTER_OPTIMIZATION = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = ON;
TURBO_BIT = ON;
XOR_SYNTHESIS = ON;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.CLASSIC
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.FLEX8000
BEGIN
REGISTER_OPTIMIZATION = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
IGNORE_SOFT_BUFFERS = ON;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN_LENGTH = 32;
CARRY_CHAIN = AUTO;
CASCADE_CHAIN_LENGTH = 2;
CASCADE_CHAIN = AUTO;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.MAX5000
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = OFF;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = OFF;
SOFT_BUFFER_INSERTION = OFF;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = PARTIAL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.MAX7000
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = OFF;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = OFF;
SOFT_BUFFER_INSERTION = OFF;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = PARTIAL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.CLASSIC
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = OFF;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = PARTIAL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.FLEX8000
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = OFF;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = OFF;
SOFT_BUFFER_INSERTION = ON;
IGNORE_SOFT_BUFFERS = ON;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = PARTIAL;
CARRY_CHAIN_LENGTH = 32;
CARRY_CHAIN = MANUAL;
CASCADE_CHAIN_LENGTH = 2;
CASCADE_CHAIN = MANUAL;
END;

View File

@ -1,26 +0,0 @@
-- Copyright (C) 1988-2000 Altera Corporation
-- Any megafunction design, and related net list (encrypted or decrypted),
-- support information, device programming or simulation file, and any other
-- associated documentation or information provided by Altera or a partner
-- under Altera's Megafunction Partnership Program may be used only to
-- program PLD devices (but not masked PLD devices) from Altera. Any other
-- use of such megafunction design, net list, support information, device
-- programming or simulation file, or any other related documentation or
-- information is prohibited for any other purpose, including, but not
-- limited to modification, reverse engineering, de-compiling, or use with
-- any other silicon devices, unless such use is explicitly licensed under
-- a separate agreement with Altera or a megafunction partner. Title to
-- the intellectual property, including patents, copyrights, trademarks,
-- trade secrets, or maskworks, embodied in any such megafunction design,
-- net list, support information, device programming or simulation file, or
-- any other related documentation or information provided by Altera or a
-- megafunction partner, remains with Altera, the megafunction partner, or
-- their respective licensors. No other licenses, including any licenses
-- needed under any third party's intellectual property, are provided herein.
-- MAX+plus II Include File
-- Version 10.0 9/14/2000
-- Created: Sat May 26 07:09:40 2001
FUNCTION ay (/reset, clk42, ay_t[8..0], ay_d_wr, ay_a_wr, d[7..0], beeper)
RETURNS (do[7..0], ay_ch_a[3..0], ay_ch_b[3..0], ay_ch_c[3..0], ay_ch_l[9..0], ay_ch_r[9..0], ay_ch_val);

View File

@ -1,154 +0,0 @@
DEPTH = 256; % Memory depth and width are required %
WIDTH = 8; % Enter a decimal number %
ADDRESS_RADIX = HEX; % Address and value radixes are optional %
DATA_RADIX = BIN; % Enter BIN, DEC, HEX, or OCT; unless %
% otherwise specified, radixes = HEX %
-- Specify values for addresses, which can be single address or range
CONTENT
BEGIN
[0..7F] : 00000000;
0 : 00000000 00000000
00000000 00000000
00000000 00000000
00000000 11111111
00000000 00000000
00000000 00000000
00000000 00000000
00000000 00000000
11111111 11111111
11111111 11111111
11111111 11111111
11111111 11111111
11111111 11111111
11111111 11111111
11111111 00000001
00000000 11111111
;
1E : 00000000;
1F : 11111111;
30 : 00000000
00000010
00000011
00000100
00000110
00001000
00001011
00010000
00010110
00100000
00101101
01000000
01011010
10000000
10110100
11111111;
[80..FF]: 00000000;
%
000 - set CX, load & sub 1
001 - load
010 - save, if NZ,reset CX
011 - bit_out
100 - load & sub 1
101 - load & sub C
110 - if CX, save
111 - read states /RESET, AY_F_RES
%
80 :
00010000 -- set C,CX load reg10 & sub C
01010000 -- save reg10 & reset CX if NZ
10110001 -- load reg11 & sub C
01010001 -- save reg11 & reset CX if NZ
00100000 -- set C load reg00 & sub C
11010000 -- save reg10 if CX
00100001 -- load reg01 & sub C
11010001 -- save reg11 if CX
00101000 -- load reg08
01100001 -- set AY_OUT1
00010010 -- set C,CX load reg12 & sub C
01010010 -- save reg12 & reset CX if NZ
10110011 -- load reg13 & sub C
01010011 -- save reg13 & reset CX if NZ
00100010 -- set C load reg02 & sub C
11010010 -- save reg12 if CX
00100011 -- load reg03 & reset CX if NZ
11010011 -- save reg13 if CX
00101001 -- load reg09
01100010 -- set AY_OUT2
00010100 -- set C,CX load reg14 & sub C
01010100 -- save reg14 & reset CX if NZ
10110101 -- load reg15 & sub C
01010101 -- save reg15 & reset CX if NZ
00100100 -- set C load reg04 & sub C
11010100 -- save reg14 if CX
00100101 -- load reg05 & reset CX if NZ
11010101 -- save reg15 if CX
00101010 -- load reg0A
01100011 -- set AY_OUT3
00010111 -- set C,CX load reg17 & dec 1
01010111 -- save reg17 & reset CX if NZ
00100110 -- load reg06 dec 1 ***********
11010111 -- save reg17 if CX
01100100 -- set AY_SH
00000000 -- NOP
00011000 -- set C,CX load reg18 & sub C
01011000 -- save reg18 & reset CX if NZ
10111001 -- load reg19 & sub C
01011001 -- save reg19 & reset CX if NZ
00101011 -- load reg0B & sub 1
11011000 -- save reg18 if CX
00101100 -- load reg0C & sub C
11011001 -- save reg19 if CX
01100101 -- set FORM_CLK
11100000 -- set CX = AY_F_RES
-- 00101011 -- load reg0B & sub 1
-- 11011000 -- save reg18 if CX
-- 00101100 -- load reg0C & sub C
-- 11011001 -- save reg19 if CX
11100001 -- set CX = /RESET
00111111 -- load reg1F - FF ***********
11000111 -- save reg07 if CX
00111110 -- load reg1E - 00 ***********
11001101 -- save reg0D if CX
11001000 -- save reg08 if CX
11001001 -- save reg09 if CX
11001010 -- save reg0a if CX
00100111 -- load reg07 ***********
01100110 -- set keys_bits
00101101 -- load reg0D ***********
01100111 -- set keys_bits SET-FORM-bits
-- 01100000 -- set AY_OUT_ALL
;
END ;

View File

@ -1,368 +0,0 @@
TITLE "AY-3-8910";
include "lpm_ram_dq";
include "lpm_add_sub";
SUBDESIGN ay
(
/RESET : INPUT;
CLK42 : INPUT; -- â ªâë 42
AY_T[8..0] : INPUT; -- ¢­¥è­¨© áç¥â稪 ⠪⮢
AY_D_WR : INPUT;
AY_A_WR : INPUT;
D[7..0] : INPUT;
DO[7..0] : OUTPUT;
AY_CH_A[3..0] : OUTPUT;
AY_CH_B[3..0] : OUTPUT;
AY_CH_C[3..0] : OUTPUT;
AY_CH_L[9..0] : OUTPUT;
AY_CH_R[9..0] : OUTPUT;
AY_CH_VAL : OUTPUT; -- chanels data valid
BEEPER : INPUT;
)
VARIABLE
BD[7..0] : DFFE;
BWR : DFFE;
AWR : DFFE;
AY_DI[7..0] : NODE;
AY_DO[7..0] : NODE;
AY_F_RES : NODE;
AY_F_R1 : NODE;
AY_ADR[7..0] : DFF;
AY_AAX[1..0] : DFF;
AY_X_[5..0] : DFFE;
AY_GF[3..0] : DFFE;
AY_OUT[3..1] : DFFE;
AY_OUTS[3..1] : NODE;
AY_CLK1 : NODE;
AY_SH[16..0] : DFFE;
AY_AA[3..0] : DFF;
AY_SH_Q : NODE;
AY_ABLK : NODE;
AY_BBLK : NODE;
AY_AINV : NODE;
AY_BINV : NODE;
AY_ADRX[7..0] : NODE;
AY_CCC[8..0] : DFF;
AY_AX[7..0] : NODE;
AY_C : DFFE;
AY_CX : DFFE;
AY_CXX : DFFE;
AY_WR : NODE;
AY_VA[3..0] : DFFE;
AY_VAR : DFFE;
AY_VX : DFFE;
AY_DAT_WR : DFF;
AY_DAT[7..0] : DFFE;
AY_DQ1[3..0] : DFFE;
AY_DQ2[3..0] : DFFE;
AY_DQ3[3..0] : DFFE;
AY_DQX[3..0] : DFFE;
AY_OUTSX : NODE;
AY_CH_MIX : DFF;
AY_AMP[3..0] : DFF;
AY_DD[7..0] : DFFE;
AY_CH_A[3..0] : DFF;
AY_CH_B[3..0] : DFF;
AY_CH_C[3..0] : DFF;
AY_CH_CS[8..0] : DFF;
AY_CH_LX[10..0] : DFFE;
AY_CH_RX[10..0] : DFFE;
-- AY_CH_L[9..0] : DFF;
-- AY_CH_R[9..0] : DFF;
AY_CH_DIR[7..0] : DFFE;
AY_OUTS1X : NODE;
AY_OUTS2X : NODE;
AY_OUTS3X : NODE;
AY_OUTS1Y : NODE;
-- AY_OUTS2Y : NODE;
AY_OUTS3Y : NODE;
BEGIN
-- ====== AY8910 III version =========
BD[].clk = CLK42;
AWR.clk = CLK42;
BWR.clk = CLK42;
BD[].ena = AY_CCC1;
BWR.ena = AY_CCC1;
AWR.ena = AY_CCC1;
BD[7..5].clrn = !((AY_ADR[3..0] == B"00X1") or -- ch 1,2
(AY_ADR[3..0] == B"0101") or -- ch 3
(AY_ADR[3..0] == B"0110") -- ch shum
);
BD4.clrn = !((AY_ADR[3..0] == B"00X1") or -- ch 1,2
(AY_ADR[3..0] == B"0101") -- ch 3
);
BD[] = D[];
AWR = AY_A_WR;
-- BWR = (AY_D_WR or !(AY_ADR[5..4] == 0));
BWR = AY_D_WR;
AY_CH_DIR[].clk = AY_D_WR;
AY_CH_DIR[].ena = (AY_ADR[] == B"XXX10000");
AY_CH_DIR[].d = D[];
AY_CH_DIR[].clrn= /RESET;
AY_CCC[].clk = CLK42;
AY_CCC[8..0].d = AY_T[];
(AY_AAX[].clk,AY_ADR[].clk) = AY_A_WR;
AY_ADR[].d = D[];
-- Write to 0D register
AY_AAX0.d = (D[3..0] == B"1101");
-- Write to AMP registers 08,09,0A
AY_AAX1.d = (D[3..0] == B"1000") or (D[3..0] == B"1001") or (D[3..0] == B"1010");
-- reset signal for form generator
-- AY_F_RES = DFF(VCC,DFF((!((AY_DO[7..5] == B"111") & AY_CCC1 & !AY_DO0) or AY_F_RES),CLK42,,),LCELL(!(AY_AAX0 or (AY_AAX1 & BD4)) or BWR),);
-- AY_F_R1 = DFF((!(AY_AAX0 or (AY_AAX1)) or BWR),CLK42,,);
AY_F_R1 = DFF((!AY_AAX0 or BWR),CLK42,,);
AY_F_RES = DFF(DFF(VCC,AY_CCC7,AY_F_R1,),AY_CCC7,AY_F_R1,);
AY_X_[].prn = VCC;
-- AY_GF[3..0].clrn = /RESET;
-- AY_GF[3..0].clk = AY_D_WR;
-- AY_GF[3..0].ena = AY_ADR[] == B"XXXX1101";
-- AY_GF[3..0].d = D[3..0];
AY_DAT_WR.clk = CLK42;
CASE AY_CCC[1..0] IS
WHEN B"00" =>
AY_AX[] = (VCC,GND,AY_CCC[7..2]); -- CMD adress
AY_WR = GND;
AY_DI[] = AY_DAT[];
AY_DAT_WR = VCC;
WHEN B"01" =>
AY_AX[] = (B"0000",AY_ADR[3..0]);
AY_WR = !BWR;
AY_DI[] = BD[];
AY_DAT_WR = VCC;
WHEN B"1X" =>
AY_AX[] = (GND,GND,GND,AY_DO[4..0]);
AY_DAT_WR = AY_DO6;
AY_WR = !LCELL(!(AY_DO[7..5] == B"010") &
!((AY_DO[7..5] == B"110") & AY_CXX));
-- !((AY_DO[7..5] == B"110") & AY_CX));
AY_DI[] = AY_DAT[];
END CASE;
AY_DD[].clk = CLK42;
AY_DD[].ena = !AY_CCC1 & !AY_CCC0;
AY_DD[] = AY_DO[];
AY_DO[] = lpm_ram_dq(AY_DI[],AY_AX[],AY_WR,CLK42,CLK42)
WITH (lpm_width=8,lpm_widthad=8,lpm_file="AY.MIF");
-- AY_CX.prn = !DFF((((AY_DO[7..5] == B"00X") & AY_CCC1) & (!AY_DO5 or AY_C)),CLK42,,);
AY_CX.prn = !DFF(((AY_DO[7..5] == B"000") & AY_CCC1),CLK42,,);
AY_CXX.prn = !DFF(((AY_DO[7..5] == B"000") & AY_CCC1),CLK42,,);
AY_C.prn = VCC;
AY_CX.clk = CLK42;
AY_CXX.clk = CLK42;
(AY_CXX.ena,AY_CX.ena) = DFF((((AY_DO[7..5] == B"010") or (AY_DO[7..5] == B"111")) & AY_CCC1),CLK42,,);
IF DFF(((AY_DO[7..5] == B"010")),CLK42,,) THEN
AY_CX = (LCELL(AY_DAT[] == 0) & AY_CX);
-- AY_CXX = (LCELL(AY_DAT[] == 0) & AY_CXX);
-- AY_CX = (LCELL(AY_DAT[] == 0) & AY_CX) or (AY_C & DFF(AY_DO0,CLK42,,));
AY_CXX = (LCELL(AY_DAT[] == 0) & AY_CXX) or (AY_C & DFF(AY_DO0,CLK42,,));
ELSE
AY_CXX = DFF(((!/RESET & AY_DO0) or (!AY_F_RES & !AY_DO0)),CLK42,,);
AY_CX = DFF(((!/RESET & AY_DO0) or (!AY_F_RES & !AY_DO0)),CLK42,,);
END IF;
(AY_C.clk,AY_DAT[].clk) = CLK42;
(AY_C.ena,AY_DAT[].ena) = !DFF(AY_DAT_WR,CLK42,,);
(AY_C,AY_DAT[]) = (GND,AY_DO[]) - (B"00000000",DFF((DFF(!AY_DO5,CLK42,,) or (AY_C & DFF(AY_DO7,CLK42,,))),CLK42,,));
AY_OUT[].clk = CLK42;
AY_AMP[].clk = CLK42;
AY_AMP[] = ((AY_DAT[3..0] or AY_DAT[4]) & (AY_AA[] or !AY_DAT[4]));
AY_DQ1[].clk = CLK42;
AY_OUTS1 = DFF(((AY_DO[7..0] == B"011XX001") & AY_CCC1),CLK42,,);
AY_OUT1.ena = AY_OUTS1;
AY_OUT1 = AY_CX xor AY_OUT1;
AY_DQ1[].ena = AY_OUTS1;
AY_DQ1[] = AY_AMP[] & LCELL((AY_OUT1 or AY_X_0) & (AY_X_3 or AY_SH0));
AY_DQ2[].clk = CLK42;
AY_OUTS2 = DFF(((AY_DO[7..0] == B"011XX010") & AY_CCC1),CLK42,,);
AY_OUT2.ena = AY_OUTS2;
AY_OUT2 = AY_CX xor AY_OUT2;
AY_DQ2[].ena = AY_OUTS2;
AY_DQ2[] = AY_AMP[] & LCELL((AY_OUT2 or AY_X_1) & (AY_X_4 or AY_SH0));
AY_DQ3[].clk = CLK42;
AY_OUTS3 = DFF(((AY_DO[7..0] == B"011XX011") & AY_CCC1),CLK42,,);
AY_OUT3.ena = AY_OUTS3;
AY_OUT3 = AY_CX xor AY_OUT3;
AY_DQ3[].ena = AY_OUTS3;
AY_DQ3[] = AY_AMP[] & LCELL((AY_OUT3 or AY_X_2) & (AY_X_5 or AY_SH0));
AY_OUTSX = DFF((((AY_DO[7..0] == B"011XX01X") or
(AY_DO[7..0] == B"011XX0X1")) & AY_CCC1),CLK42,,);
AY_DQX[].clk = CLK42;
AY_DQX[].ena = AY_OUTSX;
AY_DQX[] = AY_AMP[] & AY_CH_MIX;
AY_DQX[].clrn = !AY_SH_Q;
AY_DQX[].prn = (B"0010") or !DFF((AY_SH_Q & BEEPER),CLK42,,);
AY_CH_MIX.clk = CLK42;
CASE AY_DO[1..0] IS
WHEN 0,1 => AY_CH_MIX = LCELL((AY_OUT1 or AY_X_0) & (AY_X_3 or AY_SH0));
WHEN 2 => AY_CH_MIX = LCELL((AY_OUT2 or AY_X_1) & (AY_X_4 or AY_SH0));
WHEN 3 => AY_CH_MIX = LCELL((AY_OUT3 or AY_X_2) & (AY_X_5 or AY_SH0));
END CASE;
AY_SH_Q = DFF(((AY_DO[7..0] == B"011XX100") & AY_CCC1),CLK42,,);
AY_SH[].clk = CLK42;
AY_SH[].prn = /RESET;
AY_SH[].ena = AY_SH_Q & AY_CXX;
AY_SH[] = ((AY_SH3 xor AY_SH0),AY_SH[16..1]);
AY_VAR.clk = CLK42;
AY_VX.clk = CLK42;
AY_VA[].clk = CLK42;
(AY_VAR.clrn,AY_VA[].clrn) = AY_F_RES;
AY_VX.clrn = AY_F_RES;
(AY_VX.ena,AY_VA[].ena,AY_VAR.ena) = DFF(((AY_DO[7..0] == B"011XX101") & AY_CCC1 & !AY_BBLK & AY_CX),CLK42,,);
(AY_VX,AY_VA[],AY_VAR) = (AY_VX,AY_VA[],AY_VAR) + 1;
AY_X_[].clk = CLK42;
AY_X_[].ena = DFF(((AY_DO[7..0] == B"011XX110") & AY_CCC1),CLK42,,);
AY_X_[] = AY_DAT[5..0];
AY_GF[].clk = CLK42;
AY_GF[].ena = DFF(((AY_DO[7..0] == B"011XX111") & AY_CCC1),CLK42,,);
AY_GF[] = AY_DAT[3..0];
-- block count when 1-st period end
AY_BBLK = DFF((AY_VX & (AY_GF0 or !AY_GF3)),CLK42,,); -- VA_COUNT_STOP
-- set ALL ZERO when 1-st period end
AY_ABLK = DFF((!AY_GF3 & AY_VX),CLK42,,);
-- inverse 2-nd-s periods
AY_BINV = DFF((AY_VX & ((AY_GF[] == B"1X10") or (AY_GF == B"1X01"))),CLK42,,);
-- inverse ALL
AY_AINV = AY_GF2;
AY_AA[].clrn= VCC;
AY_AA[].clk = CLK42;
AY_AA[].d = (AY_VA[] xor AY_BINV xor !AY_AINV) & !AY_ABLK;
%
AY_AA[].clrn= VCC;
AY_AA[].prn = GND;
AY_AA[].clk = CLK42;
AY_AA[] = VCC;
%
AY_CH_A[3..0].clk = AY_CCC7;
AY_CH_B[3..0].clk = AY_CCC7;
AY_CH_C[3..0].clk = AY_CCC7;
AY_CH_A[3..0] = AY_DQ1[3..0];
AY_CH_B[3..0] = AY_DQ2[3..0];
AY_CH_C[3..0] = AY_DQ3[3..0];
DO[7..0] = AY_DD[];
AY_CH_CS[].clk = CLK42;
CASE AY_DQX[] IS
WHEN 15 => AY_CH_CS[] = 360 ;
WHEN 14 => AY_CH_CS[] = 255 ;
WHEN 13 => AY_CH_CS[] = 180 ;
WHEN 12 => AY_CH_CS[] = 127 ;
WHEN 11 => AY_CH_CS[] = 90 ;
WHEN 10 => AY_CH_CS[] = 64 ;
WHEN 9 => AY_CH_CS[] = 45 ;
WHEN 8 => AY_CH_CS[] = 32 ;
WHEN 7 => AY_CH_CS[] = 22 ;
WHEN 6 => AY_CH_CS[] = 16 ;
WHEN 5 => AY_CH_CS[] = 11 ;
WHEN 4 => AY_CH_CS[] = 8 ;
WHEN 3 => AY_CH_CS[] = 6 ;
WHEN 2 => AY_CH_CS[] = 4 ;
WHEN 1 => AY_CH_CS[] = 2 ;
WHEN 0 => AY_CH_CS[] = 0 ;
END CASE;
AY_OUTS1X = DFF(AY_OUTS1,CLK42,,);
AY_OUTS2X = DFF((AY_OUTS2 or AY_SH_Q),CLK42,,);
AY_OUTS3X = DFF(AY_OUTS3,CLK42,,);
AY_OUTS1Y = DFF(AY_OUTS1 or AY_OUTS1X,CLK42,,);
-- AY_OUTS2Y = DFF(AY_OUTS2 or AY_OUTS2X,CLK42,,);
AY_OUTS3Y = DFF(AY_OUTS3 or AY_OUTS3X,CLK42,,);
(AY_CH_LX[].clrn,AY_CH_RX[].clrn) = !DFF((AY_CCC[7..2] == 0),CLK42,,);
(AY_CH_LX[],,) = LPM_ADD_SUB (,AY_CH_LX[],(B"00",AY_CH_CS[]),,,,)
WITH(LPM_WIDTH=11,LPM_REPRESENTATION="UNSIGNED");
(AY_CH_RX[],,) = LPM_ADD_SUB (,AY_CH_RX[],(B"00",AY_CH_CS[]),,,,)
WITH (LPM_WIDTH=11,LPM_REPRESENTATION="UNSIGNED");
AY_CH_LX[].clk = CLK42;
AY_CH_RX[].clk = CLK42;
AY_CH_LX[].ena = DFF(DFF((AY_OUTS1 or AY_OUTS1Y or AY_OUTS2X or AY_OUTS2),CLK42,,),CLK42,,);
AY_CH_RX[].ena = DFF(DFF((AY_OUTS3 or AY_OUTS3Y or AY_OUTS2X or AY_OUTS2),CLK42,,),CLK42,,);
AY_CH_VAL = DFF((AY_CCC[7..2] == B"111100"),CLK42,,);
-- AY_CH_L[].clk = AY_CH_VAL;
-- AY_CH_R[].clk = AY_CH_VAL;
AY_CH_L[] = AY_CH_LX[10..1];
AY_CH_R[] = AY_CH_RX[10..1];
END;

View File

@ -1,568 +0,0 @@
--
-- Copyright (C) 1988-2000 Altera Corporation
-- Any megafunction design, and related net list (encrypted or decrypted),
-- support information, device programming or simulation file, and any other
-- associated documentation or information provided by Altera or a partner
-- under Altera's Megafunction Partnership Program may be used only to
-- program PLD devices (but not masked PLD devices) from Altera. Any other
-- use of such megafunction design, net list, support information, device
-- programming or simulation file, or any other related documentation or
-- information is prohibited for any other purpose, including, but not
-- limited to modification, reverse engineering, de-compiling, or use with
-- any other silicon devices, unless such use is explicitly licensed under
-- a separate agreement with Altera or a megafunction partner. Title to
-- the intellectual property, including patents, copyrights, trademarks,
-- trade secrets, or maskworks, embodied in any such megafunction design,
-- net list, support information, device programming or simulation file, or
-- any other related documentation or information provided by Altera or a
-- megafunction partner, remains with Altera, the megafunction partner, or
-- their respective licensors. No other licenses, including any licenses
-- needed under any third party's intellectual property, are provided herein.
--
CHIP dcp
BEGIN
DEVICE = EP1K30FC256-3;
END;
DEFAULT_DEVICES
BEGIN
AUTO_DEVICE = EP1K100FC484-1;
AUTO_DEVICE = EP1K100FC256-1;
AUTO_DEVICE = EP1K100QC208-1;
AUTO_DEVICE = EP1K50FC484-1;
AUTO_DEVICE = EP1K50FC256-1;
AUTO_DEVICE = EP1K50QC208-1;
AUTO_DEVICE = EP1K50TC144-1;
AUTO_DEVICE = EP1K30FC256-1;
AUTO_DEVICE = EP1K30QC208-1;
AUTO_DEVICE = EP1K30TC144-1;
ASK_BEFORE_ADDING_EXTRA_DEVICES = ON;
END;
TIMING_POINT
BEGIN
DEVICE_FOR_TIMING_SYNTHESIS = EP1K30FC256-3;
FREQUENCY = 200MHz;
MAINTAIN_STABLE_SYNTHESIS = OFF;
CUT_ALL_CLEAR_PRESET = ON;
CUT_ALL_BIDIR = ON;
END;
IGNORED_ASSIGNMENTS
BEGIN
FIT_IGNORE_TIMING = OFF;
DEMOTE_SPECIFIC_LCELL_ASSIGNMENTS_TO_LAB_ASSIGNMENTS = OFF;
IGNORE_LOCAL_ROUTING_ASSIGNMENTS = OFF;
IGNORE_DEVICE_ASSIGNMENTS = OFF;
IGNORE_LC_ASSIGNMENTS = OFF;
IGNORE_PIN_ASSIGNMENTS = OFF;
IGNORE_CHIP_ASSIGNMENTS = OFF;
IGNORE_TIMING_ASSIGNMENTS = OFF;
IGNORE_LOGIC_OPTION_ASSIGNMENTS = OFF;
IGNORE_CLIQUE_ASSIGNMENTS = OFF;
END;
GLOBAL_PROJECT_DEVICE_OPTIONS
BEGIN
MAX7000B_ENABLE_VREFB = OFF;
MAX7000B_ENABLE_VREFA = OFF;
MAX7000B_VCCIO_IOBANK2 = 3.3V;
MAX7000B_VCCIO_IOBANK1 = 3.3V;
CONFIG_EPROM_PULLUP_RESISTOR = ON;
CONFIG_EPROM_USER_CODE = FFFFFFFF;
FLEX_CONFIGURATION_EPROM = AUTO;
MAX7000AE_ENABLE_JTAG = ON;
MAX7000AE_USER_CODE = FFFFFFFF;
FLEX6000_USE_LOW_VOLTAGE_CONFIGURATION_EPROM = OFF;
FLEX10KA_USE_LOW_VOLTAGE_CONFIGURATION_EPROM = ON;
FLEX10K_USE_LOW_VOLTAGE_CONFIGURATION_EPROM = OFF;
FLEX6000_ENABLE_JTAG = OFF;
CONFIG_SCHEME_FLEX_6000 = PASSIVE_SERIAL;
MULTIVOLT_IO = OFF;
MAX7000S_ENABLE_JTAG = ON;
FLEX10K_ENABLE_LOCK_OUTPUT = OFF;
MAX7000S_USER_CODE = FFFF;
CONFIG_SCHEME_10K = PASSIVE_SERIAL;
FLEX10K_JTAG_USER_CODE = 7F;
ENABLE_INIT_DONE_OUTPUT = OFF;
ENABLE_CHIP_WIDE_OE = OFF;
ENABLE_CHIP_WIDE_RESET = OFF;
nCEO = UNRESERVED;
CLKUSR = UNRESERVED;
ADD17 = UNRESERVED;
ADD16 = UNRESERVED;
ADD15 = UNRESERVED;
ADD14 = UNRESERVED;
ADD13 = UNRESERVED;
ADD0_TO_ADD12 = UNRESERVED;
SDOUT = RESERVED_DRIVES_OUT;
RDCLK = UNRESERVED;
RDYnBUSY = UNRESERVED;
nWS_nRS_nCS_CS = UNRESERVED;
DATA1_TO_DATA7 = UNRESERVED;
DATA0 = RESERVED_TRI_STATED;
FLEX8000_ENABLE_JTAG = OFF;
CONFIG_SCHEME = ACTIVE_SERIAL;
DISABLE_TIME_OUT = OFF;
ENABLE_DCLK_OUTPUT = OFF;
RELEASE_CLEARS = OFF;
AUTO_RESTART = OFF;
USER_CLOCK = OFF;
SECURITY_BIT = OFF;
RESERVED_PINS_PERCENT = 0;
RESERVED_LCELLS_PERCENT = 0;
END;
GLOBAL_PROJECT_SYNTHESIS_ASSIGNMENT_OPTIONS
BEGIN
STYLE = FAST;
MULTI_LEVEL_SYNTHESIS_MAX9000 = ON;
AUTO_IMPLEMENT_IN_EAB = OFF;
AUTO_OPEN_DRAIN_PINS = ON;
ONE_HOT_STATE_MACHINE_ENCODING = OFF;
AUTO_REGISTER_PACKING = OFF;
DEVICE_FAMILY = ACEX1K;
AUTO_FAST_IO = OFF;
AUTO_GLOBAL_OE = ON;
AUTO_GLOBAL_PRESET = ON;
AUTO_GLOBAL_CLEAR = ON;
AUTO_GLOBAL_CLOCK = ON;
MULTI_LEVEL_SYNTHESIS_MAX5000_7000 = OFF;
OPTIMIZE_FOR_SPEED = 5;
END;
COMPILER_PROCESSING_CONFIGURATION
BEGIN
USE_QUARTUS_FITTER = ON;
PRESERVE_ALL_NODE_NAME_SYNONYMS = OFF;
FITTER_SETTINGS = NORMAL;
SMART_RECOMPILE = OFF;
GENERATE_AHDL_TDO_FILE = OFF;
RPT_FILE_USER_ASSIGNMENTS = ON;
RPT_FILE_LCELL_INTERCONNECT = ON;
RPT_FILE_HIERARCHY = ON;
RPT_FILE_EQUATIONS = ON;
LINKED_SNF_EXTRACTOR = OFF;
OPTIMIZE_TIMING_SNF = OFF;
TIMING_SNF_EXTRACTOR = ON;
FUNCTIONAL_SNF_EXTRACTOR = OFF;
DESIGN_DOCTOR_RULES = EPLD;
DESIGN_DOCTOR = OFF;
END;
COMPILER_INTERFACES_CONFIGURATION
BEGIN
NETLIST_OUTPUT_TIME_SCALE = 0.1ns;
EDIF_INPUT_SHOW_LMF_MAPPING_MESSAGES = OFF;
EDIF_BUS_DELIMITERS = [];
EDIF_FLATTEN_BUS = OFF;
EDIF_OUTPUT_FORCE_0NS_DELAYS = OFF;
EDIF_OUTPUT_INCLUDE_SPECIAL_PRIM = OFF;
EDIF_OUTPUT_MAP_ILLEGAL_CHAR = OFF;
EDIF_OUTPUT_DELAY_CONSTRUCTS = EDO_FILE;
EDIF_OUTPUT_USE_EDC = OFF;
EDIF_INPUT_USE_LMF2 = OFF;
EDIF_INPUT_USE_LMF1 = OFF;
EDIF_OUTPUT_GND = GND;
EDIF_OUTPUT_VCC = VCC;
EDIF_INPUT_GND = GND;
EDIF_INPUT_VCC = VCC;
EDIF_OUTPUT_EDC_FILE = *.edc;
EDIF_INPUT_LMF2 = *.lmf;
EDIF_INPUT_LMF1 = *.lmf;
VHDL_GENERATE_CONFIGURATION_DECLARATION = OFF;
VHDL_OUTPUT_DELAY_CONSTRUCTS = VHO_FILE;
VERILOG_OUTPUT_DELAY_CONSTRUCTS = VO_FILE;
VHDL_FLATTEN_BUS = OFF;
VERILOG_FLATTEN_BUS = OFF;
EDIF_TRUNCATE_HIERARCHY_PATH = OFF;
VHDL_TRUNCATE_HIERARCHY_PATH = OFF;
VERILOG_TRUNCATE_HIERARCHY_PATH = OFF;
VERILOG_OUTPUT_MAP_ILLEGAL_CHAR = OFF;
VHDL_WRITER_VERSION = VHDL87;
VHDL_READER_VERSION = VHDL87;
SYNOPSYS_MAPPING_EFFORT = MEDIUM;
SYNOPSYS_BOUNDARY_OPTIMIZATION = OFF;
SYNOPSYS_HIERARCHICAL_COMPILATION = ON;
SYNOPSYS_DESIGNWARE = OFF;
SYNOPSYS_COMPILER = DESIGN;
USE_SYNOPSYS_SYNTHESIS = OFF;
VHDL_NETLIST_WRITER = OFF;
VERILOG_NETLIST_WRITER = OFF;
XNF_GENERATE_AHDL_TDX_FILE = ON;
XNF_TRANSLATE_INTERNAL_NODE_NAMES = ON;
XNF_EMULATE_TRI_STATE_BUSES = INTERNAL_LOGIC;
EDIF_OUTPUT_VERSION = 200;
EDIF_NETLIST_WRITER = OFF;
END;
CUSTOM_DESIGN_DOCTOR_RULES
BEGIN
MASTER_RESET = OFF;
EXPANDER_NETWORKS = ON;
RACE_CONDITIONS = ON;
DELAY_CHAINS = ON;
ASYNCHRONOUS_INPUTS = ON;
PRESET_CLEAR_NETWORKS = ON;
STATIC_HAZARDS_AFTER_SYNTHESIS = OFF;
STATIC_HAZARDS_BEFORE_SYNTHESIS = ON;
MULTI_CLOCK_NETWORKS = ON;
MULTI_LEVEL_CLOCKS = ON;
GATED_CLOCKS = ON;
RIPPLE_CLOCKS = ON;
END;
SIMULATOR_CONFIGURATION
BEGIN
END_TIME = 5.0us;
BIDIR_PIN = STRONG;
START_TIME = 0.0ns;
GLITCH_TIME = 0.0ns;
GLITCH = OFF;
OSCILLATION_TIME = 0.0ns;
OSCILLATION = OFF;
CHECK_OUTPUTS = OFF;
SETUP_HOLD = OFF;
USE_DEVICE = OFF;
END;
TIMING_ANALYZER_CONFIGURATION
BEGIN
ANALYSIS_MODE = REGISTERED_PERFORMANCE;
CUT_OFF_RAM_REGISTERED_WE_PATHS = OFF;
LIST_PATH_FREQUENCY = 10MHz;
LIST_PATH_COUNT = 10;
REGISTERED_PERFORMANCE_OPTIONS = NUMBER_OF_PATHS;
INCLUDE_PATHS_LESS_THAN_VALUE = 214.7483647ms;
INCLUDE_PATHS_LESS_THAN = OFF;
INCLUDE_PATHS_GREATER_THAN_VALUE = 0.0ns;
INCLUDE_PATHS_GREATER_THAN = OFF;
DELAY_MATRIX_OPTIONS = SHOW_ALL_PATHS;
CELL_WIDTH = 18;
LIST_ONLY_LONGEST_PATH = ON;
CUT_OFF_CLEAR_AND_PRESET_PATHS = ON;
CUT_OFF_IO_PIN_FEEDBACK = ON;
AUTO_RECALCULATE = OFF;
END;
OTHER_CONFIGURATION
BEGIN
LAST_MAXPLUS2_VERSION = 10.0;
EXPLICIT_FAMILY = 1;
ROW_PINS_LCELL_INSERT = ON;
CARRY_OUT_PINS_LCELL_INSERT = OFF;
NORMAL_LCELL_INSERT = ON;
FLEX_10K_52_COLUMNS = 40;
DEFAULT_9K_EXP_PER_LCELL = 1/2;
LOCAL_INTERCONNECT_PER_LAB_PERCENT = 100;
LCELLS_PER_ROW_PERCENT = 100;
FAN_IN_PER_LCELL_PERCENT = 100;
EXP_PER_LCELL_PERCENT = 100;
ROW_PINS_PERCENT = 50;
ORIGINAL_MAXPLUS2_VERSION = 9.6;
COMPILER_DATA = "1,1,0,1,0,0,0,1,1,1,1,0,1,1,1";
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.MAX5000
BEGIN
REGISTER_OPTIMIZATION = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = ON;
REFACTORIZATION = ON;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = ON;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.MAX7000
BEGIN
REGISTER_OPTIMIZATION = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = ON;
REFACTORIZATION = ON;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = ON;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.CLASSIC
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.FLEX8000
BEGIN
REGISTER_OPTIMIZATION = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = ON;
REFACTORIZATION = ON;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
IGNORE_SOFT_BUFFERS = ON;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN_LENGTH = 32;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = 2;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.MAX5000
BEGIN
REGISTER_OPTIMIZATION = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = ON;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.MAX7000
BEGIN
REGISTER_OPTIMIZATION = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = ON;
TURBO_BIT = ON;
XOR_SYNTHESIS = ON;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.CLASSIC
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.FLEX8000
BEGIN
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
REGISTER_OPTIMIZATION = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
IGNORE_SOFT_BUFFERS = ON;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN_LENGTH = 32;
CARRY_CHAIN = AUTO;
CASCADE_CHAIN_LENGTH = 2;
CASCADE_CHAIN = AUTO;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.MAX5000
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = OFF;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = OFF;
SOFT_BUFFER_INSERTION = OFF;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = PARTIAL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.MAX7000
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = OFF;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = OFF;
SOFT_BUFFER_INSERTION = OFF;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = PARTIAL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.CLASSIC
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = OFF;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = PARTIAL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.FLEX8000
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = OFF;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = OFF;
SOFT_BUFFER_INSERTION = ON;
IGNORE_SOFT_BUFFERS = ON;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = PARTIAL;
CARRY_CHAIN_LENGTH = 32;
CARRY_CHAIN = MANUAL;
CASCADE_CHAIN_LENGTH = 2;
CASCADE_CHAIN = MANUAL;
END;

View File

@ -1,27 +0,0 @@
-- Copyright (C) 1988-2000 Altera Corporation
-- Any megafunction design, and related net list (encrypted or decrypted),
-- support information, device programming or simulation file, and any other
-- associated documentation or information provided by Altera or a partner
-- under Altera's Megafunction Partnership Program may be used only to
-- program PLD devices (but not masked PLD devices) from Altera. Any other
-- use of such megafunction design, net list, support information, device
-- programming or simulation file, or any other related documentation or
-- information is prohibited for any other purpose, including, but not
-- limited to modification, reverse engineering, de-compiling, or use with
-- any other silicon devices, unless such use is explicitly licensed under
-- a separate agreement with Altera or a megafunction partner. Title to
-- the intellectual property, including patents, copyrights, trademarks,
-- trade secrets, or maskworks, embodied in any such megafunction design,
-- net list, support information, device programming or simulation file, or
-- any other related documentation or information provided by Altera or a
-- megafunction partner, remains with Altera, the megafunction partner, or
-- their respective licensors. No other licenses, including any licenses
-- needed under any third party's intellectual property, are provided herein.
-- MAX+plus II Include File
-- Version 10.0 9/14/2000
-- Created: Thu Feb 07 21:14:23 2002
FUNCTION dcp (clk42, /reset, ct[2..0], continue, a[15..0], di[7..0], turbo_hand, /io, /rd, /wr, /mr, /rf, /m1, md[7..0], dos, refresh, g_line[9..0], test_r, acc_on, double_cas, blk_mem)
WITH (UPDATE)
RETURNS (/res, ras, cas, mc_end, mc_begin, mc_type, mc_write, do[7..0], ma[11..0], mca[1..0], clk_z80, turbo, /wait, /iom, /iomm, ra[17..14], page[11..0], type[3..0], cs_rom, cs_ram, v_ram, port, wr_dwg, wr_tm9, wr_awg, rd_kp11, kp11_mix, ga[9..0], graf, sp_scr, sp_sa, scr128, hdd_data, hdd_flip, ram, blk_r, pn4q, dcpp[7..0]);

View File

@ -1,119 +0,0 @@
DEPTH = 256; % Memory depth and width are required %
WIDTH = 16; % Enter a decimal number %
ADDRESS_RADIX = HEX; % Address and value radixes are optional %
DATA_RADIX = HEX; % Enter BIN, DEC, HEX, or OCT; unless %
% otherwise specified, radixes = HEX %
-- Specify values for addresses, which can be single address or range
CONTENT
BEGIN
[0..FF] : 1000;
0 : 1040 % DCP PAGE %;
%
MA[11..0] bit0 - WG_A5
bit1 - WG_A6
bit2 - MUX_KP11, 0 - WG,CMOS 1 - KMPS,TM9
bit3 - RD/WR 0 - WRITE 1 - READ
bit4 - CS_WG93 or WR_TM9
bit5 - HDD/CMOS strobe
bit6,7 - 00 - FDD/Scr switches
01 - HDD Switch/ Reset
10 - HDD1/HDD2
11 - CMOS
bit8 - HDD CS1/CS3 or CMOS data/adr
bit9,10,11 - HDD_A[2..0]
%
10 :
7018 % RD WG93 1F,0F %
7019 % RD WG93 3F %
701A % RD WG93 5F %
701B % RD WG93 7F %
7017 % WR_PDOS FF %
701F % RD_KEYS/ WR_A20 %
7023 % Set 720 %
7027 % Set 1440 %;
-- 18 :
-- 1000 % No_function %
-- 1B : 1000; % ISA_A20 WR %
1C : 71D8 % CMOS_DAT_RD %;
1D : 70D4 % CMOS_ADR_WR %;
1E : 71D4 % CMOS_DAT_WR %;
20 :
60A8 % HD_CS1 ports %
62A8
64A8
66A8
68A8
6AA8
6CA8
6EA8
6DA8 % HD_CS3 3F6 port %
6FA8 % HD_CS3 3F7 port %
7060 % Set HDD1 %
7064 % Set HDD2 %
7120 % Set 320 Lines %
7124 % Set 312 Lines %
7160 % Soft Reset %
7164 % ??? %;
30 :
7000 % slot 1 ports %
7001 % slot 2 ports %
7002 % slot 1 mem %
7003 % slot 2 mem %
;
40 : 4000; % kb read %
52 : 3000; -- AY_D READ
58 : 5000; -- KEMPSTON-Mouse
[80..FF]: C000;
88 : 2000; -- COVOX
89 : 2000; -- COVOX-Mode
8C : 3000; -- AY_D READ
8D : 2000; -- AY_A WRITE
8E : 2000; -- AY_D WRITE
8F : 2000; -- port for ROM_WRITE
-- 80 : 7F 7F 7F 7F 7F 7F 7F 7F % KBD_DAT %;
-- 90 : 7F % PORT FF %;
90 : 3030 3031 2032 2033 2034 2035 2036 2037
2038 2039 203A 203B 203C 203D 203E 203F; % RAM PAGES %
B0 : 2020 2021 2022 2023 2024 2025 2026 2027
2028 2029 202A 202B 202C 202D 202E 202F; % RAM PAGES %
[C0..CF]: 2000 % SYS PORTS COPYES %;
D0 : 2010 2011 2012 2013 2014 2015 2016 2017
2018 2019 201A 201B 201C 201D 201E 201F; % RAM PAGES %
E0 : 2041 2041 2041 2041 2041 2041 2041 2041
2000 2005 2002 2041 20FF 2000 2000 2041; % ROM PAGES %
-- E0 : 41 42 43 44 45 46 47 48 00 05 02 E0 F0 00 00 E8; % ROM PAGES %
F0 : 2000 2001 2002 2003 2004 2005 2006 2007
2008 2009 200A 200B 200C 200D 200E 200F; % RAM PAGES %
END ;

View File

@ -1,750 +0,0 @@
TITLE "DCP";
PARAMETERS
(
UPDATE = 1
);
INCLUDE "lpm_ram_dp";
-- INCLUDE "DC_PORT2";
SUBDESIGN dcp
(
CLK42 : INPUT;
/RESET : INPUT;
/RES : OUTPUT;
CT[2..0] : INPUT;
CONTINUE : INPUT;
RAS : OUTPUT;
CAS : OUTPUT;
MC_END : OUTPUT;
MC_BEGIN : OUTPUT;
MC_TYPE : OUTPUT;
MC_WRITE : OUTPUT;
A[15..0] : INPUT;
DI[7..0] : INPUT;
DO[7..0] : OUTPUT;
MA[11..0] : OUTPUT;
MCA[1..0] : OUTPUT;
TURBO_HAND : INPUT;
CLK_Z80 : OUTPUT;
TURBO : OUTPUT;
/IO : INPUT;
/RD : INPUT;
/WR : INPUT;
/MR : INPUT;
/RF : INPUT;
/M1 : INPUT;
/WAIT : OUTPUT;
/IOM : OUTPUT;
/IOMM : OUTPUT;
MD[7..0] : INPUT;
RA[17..14] : OUTPUT;
PAGE[11..0] : OUTPUT;
TYPE[3..0] : OUTPUT;
CS_ROM : OUTPUT;
CS_RAM : OUTPUT;
V_RAM : OUTPUT;
PORT : OUTPUT;
-- DOS : OUTPUT;
DOS : INPUT;
WR_DWG : OUTPUT;
WR_TM9 : OUTPUT;
WR_AWG : OUTPUT;
RD_KP11 : OUTPUT;
KP11_MIX : OUTPUT;
REFRESH : INPUT;
G_LINE[9..0]: INPUT;
GA[9..0] : OUTPUT;
GRAF : OUTPUT;
SP_SCR : OUTPUT;
SP_SA : OUTPUT;
SCR128 : OUTPUT;
TEST_R : INPUT;
HDD_DATA : OUTPUT;
HDD_FLIP : OUTPUT;
RAM : OUTPUT;
BLK_R : OUTPUT;
PN4Q : OUTPUT;
ACC_ON : INPUT; -- asselerator state - 1 - present
DCPP[7..0] : OUTPUT;
DOUBLE_CAS : INPUT;
BLK_MEM : INPUT;
)
VARIABLE
CLK21 : NODE;
-- DC : DC_PORT2;
CLK84 : NODE;
CLK42X : NODE;
CTZ[1..0] : DFF;
-- CT[2..0] : DFF;
MEM : LPM_RAM_DP WITH (LPM_WIDTH=16,LPM_WIDTHAD=8,LPM_FILE="DCP.MIF");
D[7..0] : NODE;
ADR8_MEM : NODE;
MEM_D[15..0]: NODE;
MEM_WR : NODE;
DCP_CX : NODE;
SC_LCELL : NODE;
PG3[5..0] : NODE;
PG0[5..0] : NODE;
MPGS[7..0] : LCELL;
PGS[7..0] : DFF;
-- PGS[7..0] : NODE;
PN[7..0] : DFFE;
SC[7..0] : DFFE;
SYS : DFFE;
CNF[7..0] : DFFE;
AROM16 : DFFE;
TB_SW : DFFE;
CASH_ON : NODE;
NMI_ENA : NODE;
DD[7..0] : DFFE;
STARTING : NODE;
-- DOS_ : NODE;
-- DOS : NODE;
-- DOS_ON_ : NODE;
MC_RQ : NODE;
MC_END : DFFE;
MC_BEGIN : DFFE;
MC_TYPE : DFFE;
MC_WRITE : DFFE;
RAS : DFFE;
CAS : DFFE;
MA_[11..0] : DFFE;
MCA[1..0] : DFFE;
/IOM : DFFE;
/IOMM : DFFE;
/IOMX : DFFE;
/IOMY : DFFE;
WT_CT[3..0] : DFFE;
W_TAB[3..0] : LCELL;
HDD_W[3..0] : NODE;
/IO_WAIT : NODE;
/MR_WAIT : NODE;
MEM_RW : NODE;
IO_RW : NODE;
IO_RWM : NODE;
MA_CT[1..0] : DFFE;
WR_TM9 : DFFE;
RD_KP11 : DFFE;
/RES : NODE;
RFT : DFF;
RFC : DFFE;
GRAF : DFFE;
GRAF_X : NODE;
GA[9..0] : LCELL;
SP_SCR : LCELL;
SP_SA : LCELL;
HDD_FLIP : DFFE;
/IOMZ : DFFE;
HDD_DATA : NODE;
HDD_ENA : NODE;
BLK_C : NODE;
/CASH : NODE;
DCPP[7..0] : DFFE;
PORTS_X : NODE;
NO_IO_WAIT : NODE;
DCP_RES : NODE;
HDD_A[3..0] : DFF;
X_ADR[11..0]: LCELL;
X_MA_[11..0]: LCELL;
WR_AWGX : NODE;
/IOWR : NODE;
RA[17..14] : LCELL;
-- SPR_[1..0] : NODE;
SPR_[1..0] : LCELL;
SYS_ENA : NODE;
BEGIN
%
-- DC.CLK42 = CLK42;
-- DC./RESET = /RESET;
--
-- DC.A[15..0] = A[15..0];
--
-- DC./IO = /IO;
-- DC./WR = /WR;
-- DC./M1 = /M1;
--
-- -- DC./IOM;
-- -- DC./IOMM;
-- -- DC.DCP[7..0];
--
-- DC.DOS = DOS;
-- DC.CNF[1..0]= CNF[4..3];
--
-- DC.SYS = SYS;
--
-- -- DC.PORT_X;
%
-- ==============================================================
%
-- CT[].clk = CLK42;
--
-- IF CT1 THEN
-- CT[1..0] = GND;
-- CT2 = !CT2;
-- ELSE
-- CT[1..0] = CT[1..0]+1;
-- CT2 = CT2;
-- END IF;
%
/RES = DFFE(VCC,CLK42,,,CT0);
-- ==============================================================
-- TURBO = DFFE((TB_SW & TURBO_HAND),CLK42,,/RESET,CLK_Z80);
TURBO = DFF(DFFE((TB_SW & TURBO_HAND),CLK_Z80,,/RESET,!/RF),CLK42,,);
CLK84 = CLK42 xor LCELL(CLK42X);
CLK42X = DFF(!CLK42X,CLK84,,);
CTZ[].clk = CLK84 xor CTZ1;
CTZ[] = CTZ[]+1;
-- CLK_Z80 = CTZ1;
-- CLK_Z80 = DFF((!CLK21 & TURBO) or (TFF((CT2 & CT1),CLK42,,) & !TURBO),!CLK42,,);
-- CLK_Z80 = DFF((CLK21 & TURBO) or (TFF((CT2 & CT1),CLK42,,) & !TURBO),!CLK42,,);
CLK_Z80 = DFF((CLK21 & TURBO) or (TFF((!CT2 & CT1),CLK42,,) & !TURBO),!CLK42,,);
-- CLK_Z80 = DFF((!CLK21 & TURBO) or (TFF((!CT2 & CT1),CLK42,,) & !TURBO),!CLK42,,);
-- ==============================================================
CLK21 = DFF((!CT0 xor CT2),CLK42,,);
-- === Adress Multiplexer =======================================
MA_[].clk = CLK42;
-- MA_[].ena = (CT2 xor CT0);
MA_[].ena = CLK21;
WR_TM9.clk = CLK42;
-- WR_TM9.ena = (CT2 xor CT0);
WR_TM9.ena = CLK21;
WR_TM9.prn = /RES;
RD_KP11.clk = !CLK42;
-- RD_KP11.ena = (CT2 xor CT0);
RD_KP11.ena = CLK21;
RD_KP11.prn = /RES;
RD_KP11.d = !(MA_CT[] == 0);
-- WR_AWGX = DFF((WR_TM9 or CLK21),!CLK42,,);
WR_AWGX = DFF(GND,!WR_TM9,,DFF(WR_AWGX,CLK42,,));
-- WR_TM9 = (!MA_CT1 or (!IO_RW & !PORTS_X));
WR_TM9 = (!MA_CT1 or (!/IO & !PORTS_X));
WR_AWG = WR_AWGX;
KP11_MIX = TFF(VCC,RD_KP11,,);
WR_DWG = !MC_BEGIN;
-- WR_DWG = DFF(!MC_BEGIN,CLK42,,);
-- WR_DWG = LCELL(!MC_BEGIN);
-- MA_CT[].ena = (CT2 xor CT0);
MA_CT[].ena = CLK21;
MA_CT[].clk = CLK42;
IF !LCELL(CT2 & !CT1) THEN
MA_CT[] = MA_CT[]+1;
ELSE
MA_CT[] = GND;
END IF;
%
-- MA_[11..0] bit0 - WG_A5
-- bit1 - WG_A6
-- bit2 - MUX_KP11, 0 - WG,CMOS 1 - KMPS,TM9
-- bit3 - RD/WR 0 - WRITE 1 - READ
-- bit4 - CS_WG93 or WR_TM9
-- bit5 - HDD/CMOS strobe
-- bit7,6 - 00 - not
-- 01 - ????
-- 10 - HDD1/2
-- 11 - CMOS
-- bit8 - HDD CS1/CS3 or CMOS data/adr
-- bit9,10,11 - HDD_A[2..0]
%
CASE A[15..14] IS
WHEN 0 => SP_SCR = GND; SP_SA = GND;
WHEN 1 => SP_SCR = !GRAF; SP_SA = GND;
WHEN 2 => SP_SCR = GND; SP_SA = PG3[1];
WHEN 3 => SP_SCR = !GRAF & LCELL(PG3[] == B"1101X1"); SP_SA = PG3[1];
END CASE;
CASE GRAF IS
WHEN 0 => GA[] = (GND,GND,MEM.q[3..0],A[13..10]);
-- WHEN 1 => GA[] = (VCC,(G_LINE[8..0] + (B"00000",A[13..10])));
WHEN 1 => GA[] = (VCC,G_LINE[8..0]);
END CASE;
CASE (IO_RW,MA_CT0) IS
WHEN 0 => X_ADR[] = (GND,CNF4,PN5,DOS,/WR,A15,A14,A[6..5],A13,A7,A[2]);
WHEN 1 => X_ADR[] = (GND,GND,CNF[4..3],B"01000000");
WHEN 2 => X_ADR[] = (GND,GA3,GA[1..0],A[9..2]);
WHEN 3 => X_ADR[] = (GND,GND,GA[3..2],MEM.q[7..4],GA[7..4]);
END CASE;
CASE IO_RW IS
WHEN 0 => X_MA_[] = (HDD_A[2..0],MEM.q[8..6],((MEM.q[5..4]) & (!/IOMZ,!/IOMY)),/WR,MEM.q2,A[6..5]);
WHEN 1 => X_MA_[] = (HDD_A[2..0],B"00000",/WR,VCC,A[6..5]);
END CASE;
%
-- CASE MA_CT1 IS
---- WHEN 0 => MA_[] = X_ADR[];
-- WHEN 0 => MA_[] = (GND,X_ADR[10..0]);
-- WHEN 1 => MA_[] = (HDD_A[2..0],X_MA_[8..4],/WR,X_MA_[3],A[6..5]);
-- END CASE;
%
CASE (IO_RW,MA_CT1) IS
WHEN B"00" =>
MA_[] = (X_ADR[11..0]);
WHEN B"01" =>
MA_[] = (HDD_A[2..0],MEM.q[8..6],((MEM.q[5..4]) & (!/IOMZ,!/IOMY)),/WR,MEM.q2,A[6..5]);
WHEN B"10" =>
MA_[] = (X_ADR[11..0]);
WHEN B"11" =>
MA_[] = (HDD_A[2..0],B"00000",/WR,VCC,A[6..5]);
END CASE;
MA[] = MA_[];
MCA[].ena = CT2 & CT1;
MCA[].clk = CLK42;
MCA[] = A[1..0]; -- adress for CAS
HDD_A[].clk = CLK42;
CASE (A[14],A[2..0]) IS
WHEN 0 => HDD_A[] = 0;
WHEN 1 => HDD_A[] = 1;
WHEN 2 => HDD_A[] = 2;
WHEN 3 => HDD_A[] = 3;
WHEN 4 => HDD_A[] = 4;
WHEN 5 => HDD_A[] = 5;
WHEN 6 => HDD_A[] = 0;
WHEN 7 => HDD_A[] = 0;
WHEN 8 => HDD_A[] = 0;
WHEN 9 => HDD_A[] = 0;
WHEN 10 => HDD_A[] = 6;
WHEN 11 => HDD_A[] = 7;
WHEN 12 => HDD_A[] = 14;
WHEN 13 => HDD_A[] = 15;
WHEN 14 => HDD_A[] = 0;
WHEN 15 => HDD_A[] = 0;
END CASE;
-- === Memory Sinchronizer ======================================
% RF | MEM | RF
____ | | _______
/MR \__________/
| |
_____| | _______
MC_BEGIN \________/
| |__
MC_END ____________/ \_______
______ |__________
MC_TYPE \_____/
| |
RAS __ _ ___ __
\__/|\__/ | \__/
____ _ __
CAS \__/ | \__/|\__/
| |
%
-- MC_RQ = DFF(((/MR & DFF(/IO,CLK42,,)) or (/RD & /WR)),CLK42,,);
-- MC_RQ = DFF(((/MR & DFFE(GND,!CLK42,,!/IO,CT0)) or (/RD & /WR)),!CLK42,,);
-- MC_RQ = DFF((((/MR or !/RF) & DFF(/IO,CLK42,,/M1)) or (/RD & /WR)),CLK42,,);
-- MC_RQ = DFF((((/MR or !/RF) & IO_RW) or (/RD & /WR)),CLK42,,);
-- MC_RQ = DFF(((MEM_RW & IO_RW) or (/RD & /WR)),CLK42,,);
MC_RQ = DFF(((MEM_RW & DFF(DFF(IO_RW,CLK42,,!/IO),CLK42,,!/IO)) or (/RD & /WR)),!CLK42,,);
MC_BEGIN.clk= CLK42;
MC_BEGIN.ena= CT1 & CT2;
MC_BEGIN.d = MC_RQ;
MC_BEGIN.prn= !(/MR & /IO);
MC_END.clk = CLK42;
MC_END.d = VCC;
MC_END.ena = (CT0 & CT2) & !MC_BEGIN & CONTINUE & !BLK_C;
MC_END.clrn = !(/MR & /IO);
MC_TYPE.clk = CLK42;
MC_TYPE.ena = CT1 & CT2;
MC_TYPE.d = MC_RQ or MC_END;
MC_TYPE.prn = /RES;
MC_WRITE.clk= CLK42;
MC_WRITE.ena= CT1 & CT2;
MC_WRITE.d = MC_RQ or CS_RAM or /WR or MC_END;
MC_WRITE.prn= /RES;
RFT.clk = REFRESH;
RFT.d = GND;
RFT.prn = RFC;
-- RFT.prn = VCC;
RFC.clk = CLK42;
RFC.d = !MC_RQ or RFT;
-- RFC.d = !MC_RQ;
RFC.ena = CT1 & CT2;
RAS.ena = (!(CT1 or (CT0 xor MC_TYPE))) & (!MC_TYPE or !RFC);
CAS.ena = (!(CT1 or (CT0 xor !MC_TYPE))) & (!MC_TYPE or !RFC);
-- RAS.ena = (!(CT1 or (CT0 xor MC_TYPE)));
-- CAS.ena = (!(CT1 or (CT0 xor !MC_TYPE)));
RAS.clk = CLK42; CAS.clk = CLK42;
RAS.d = CT2; CAS.d = CT2 or BLK_C;
RAS.prn = /RES;
CAS.prn = /RES;
-- CAS.prn = !BLK_C;
-- /MR_WAIT = (MEM_RW or /CASH or DFF(MC_END,CLK42,!/MR,)) or (!TURBO & !ACC_ON);
-- /MR_WAIT = MC_END or LCELL(MEM_RW or /CASH or (!TURBO & !ACC_ON));
/MR_WAIT = LCELL(MC_END or MEM_RW or /CASH or (!TURBO & !ACC_ON));
-- MEM_RW = LCELL(/MR or !/RF);
-- anti gluk!
MEM_RW = DFF((!/RF or BLK_MEM),!/MR,,LCELL(MEM_RW or !/MR));
IO_RWM = DFF(!/M1,!/IO,,LCELL(IO_RW or !/IO));
IO_RW = DFF(/IO,CLK42,,/M1);
/IOMM.clk = CLK42;
-- /IOMM.ena = CT0 xor CT2;
/IOMM.ena = CLK21;
/IOMM.d = IO_RW or !MC_END or DFF((WT_CT[] == 0),CLK42,,);
/IOMM.prn = /RES;
/IOMX.clk = CLK42;
-- /IOMX.ena = CT0 xor CT2;
/IOMX.ena = CLK21;
/IOMX.d = /IOMM;
/IOMX.prn = /RES;
/IOMY.clk = CLK42;
-- /IOMY.ena = CT0 xor CT2;
/IOMY.ena = CLK21;
/IOMY.d = /IOMX or !MC_END or DFF((WT_CT[] == B"000X"),CLK42,,);
-- /IOMY.prn = /RES;
/IOMY.prn = PORTS_X;
PORTS_X = DFF(((DCPP[7..4] == B"0010") or (DCPP[7..4] == B"0001")),CLK42,,);
/IOMZ.clk = CLK42;
-- /IOMZ.ena = CT0 xor CT2;
/IOMZ.ena = CLK21;
/IOMZ.d = (A8 xor /RD) or /IOMX or !MC_END or DFF((WT_CT[] == B"000X"),CLK42,,);
/IOMZ.prn = PORTS_X;
HDD_DATA = DFF((HDD_ENA & DFF((MEM.q[11..8] == 0),CLK42,,) & PORTS_X),CLK42,,);
HDD_ENA = (MEM.q[7..5] == B"101");
HDD_FLIP.clk = /IOM;
HDD_FLIP.ena = HDD_ENA & DFF((DCPP[] == B"0010XXXX"),CLK42,,);
HDD_FLIP.d = !HDD_FLIP & (MEM.q[11..8] == 0);
HDD_FLIP.clrn = /RESET & DFF(GND,!DOUBLE_CAS,,HDD_FLIP);
/IOM.clk = CLK42;
-- /IOM.ena = CT0 xor CT2;
/IOM.ena = CLK21;
/IOM.d = (/IOMX & /IOM);
/IOM.prn = !/IO & /M1;
-- /IO_WAIT = LCELL(/IO or !/M1 or DFF(DFFE((WT_CT[] == 0),CLK42,,,CLK21),CLK42,,NO_IO_WAIT));
/IO_WAIT = LCELL(IO_RWM or DFF(DFFE((WT_CT[] == 0),CLK42,,,CLK21),CLK42,,NO_IO_WAIT));
NO_IO_WAIT = !DFF(((A[7..0] == B"111XX1XX") & !TURBO & DOS),CLK42,,);
-- NO_IO_WAIT = TURBO;
WT_CT[].clk = CLK42;
-- WT_CT[].ena = (CT2 xor CT0);
WT_CT[].ena = CLK21;
-- WT_CT[].ena = CT1;
WT_CT[].prn = MC_END;
CASE (/IOM,DFF((WT_CT[] == 0),CLK42,,)) IS
WHEN B"1X" => WT_CT[].d = W_TAB[];
WHEN B"00" => WT_CT[].d = WT_CT[]-1;
WHEN B"01" => WT_CT[].d = GND;
END CASE;
CASE (TURBO,MEM.q[14..12]) IS
WHEN 0 => W_TAB[] = 2; WHEN 8 => W_TAB[] = 2;
WHEN 1 => W_TAB[] = 2; WHEN 9 => W_TAB[] = 2;
WHEN 2 => W_TAB[] = 1; WHEN 10 => W_TAB[] = 4;
WHEN 3 => W_TAB[] = 1; WHEN 11 => W_TAB[] = 4;
WHEN 4 => W_TAB[] = 1; WHEN 12 => W_TAB[] = 7;
WHEN 5 => W_TAB[] = 2; WHEN 13 => W_TAB[] = 7;
-- WHEN 6 => W_TAB[] = 10; WHEN 14 => W_TAB[] = 10;
WHEN 6 => W_TAB[] = 7; WHEN 14 => W_TAB[] = 7;
-- WHEN 6 => W_TAB[] = 13; WHEN 14 => W_TAB[] = 13;
WHEN 7 => W_TAB[] = 10; WHEN 15 => W_TAB[] = 10;
END CASE;
CASE LCELL(MEM.q[11..8] == 0) IS
WHEN 0 => HDD_W[] = 10; -- registers wait
WHEN 1 => HDD_W[] = 4; -- datas wait
END CASE;
/WAIT = (/IO_WAIT & /MR_WAIT);
-- === Other Devicese CASHE, ISA, ROM... ===
V_RAM = PN2; -- for ORIGINAL Waits
IF UPDATE == 1 GENERATE
-- all ROM/RAM switches in main .tdf
BLK_R = SC4;
-- all cashes in main .tdf
/CASH = GND;
-- cashe dir in main .tdf
CASH_ON = GND;
ELSE GENERATE
-- for blk wait
/CASH = DFF((MEM.q[7..4] == 15),!CLK42,BLK_R,);
-- when BLK_R = 1 => Other Devices stay Active!
BLK_R = DFF( (LCELL((MEM.q7 & MEM.q6 & RAM) or
(MEM.q7 & LCELL(A14 & A15 & SC4))) &
!DFF(DFF(MC_RQ,CLK42,,!/MR),CLK42,,!/MR)),!CLK42,!/MR,);
CASH_ON = DFFE(A7,(/IO or /RD),/RESET,,DFF((DCPP[] == H"88"),CLK42,,));
END GENERATE;
RAM = !LCELL(A14 or A15 or (SC0 & SYS));
CS_ROM = LCELL(/MR or !RAM or !/RF);
CS_RAM = LCELL(/MR or RAM or !/RF);
-- ==============================================
-- graf screen enable for pages
GRAF_X = LCELL(MEM.q[7..4] == B"0101");
GRAF.clk = CLK42;
GRAF.ena = (CT0 & CT2);
GRAF.d = GRAF_X;
BLK_C = LCELL((GRAF_X xor GRAF) & !MC_TYPE);
-----------------------------------------
SCR128 = PN3;
D[] = DI[];
-- when not IO - reset DCPP!
DCP_RES = DFF((STARTING & !/IO & /M1),CLK42,,);
DCPP[].clk = CLK42;
DCPP[].ena = !DFF(MC_END,CLK42,,);
DCPP[].clrn = MC_END & DCP_RES; -- not in/out when START
DCPP[].d = MD[];
-- DD[].clk = !CLK42;
-- DD[].ena = !DFF(MC_END,!CLK42,,);
DD[].clk = CLK42;
DD[].ena = !DFF(MC_END,CLK42,,);
DD[].clrn = MC_END & DCP_RES;
CASE LCELL(MD[7..4] == 15) IS
WHEN 0 => DD[].d = MD[];
WHEN 1 => DD[].d = (VCC,VCC,PG3[]);
END CASE;
-- === Port Decoder =============================================
DCP_CX = (DCPP[] == B"1100XXXX");
SYS_ENA = DFF((DCP_CX & (DCPP[] == B"XXXXX110")),CLK42,,);
-- /IOWR = DFF((/WR or /IO),CLK42,,!/IO);
/IOWR = LCELL(/IO or /WR or !/M1);
CNF[].ena = SYS_ENA; CNF[].d = (DI[] & DI2) or (CNF[] & !DI2);
AROM16.ena = SYS_ENA; AROM16.d = (DI0 & !DI1) or (AROM16 & DI1);
TB_SW.ena = SYS_ENA; TB_SW.d = (DI0 & DI1) or (TB_SW & !DI1);
SYS.ena = SYS_ENA; SYS.d = !A6;
SC[].ena = DFF((DCP_CX & (DCPP[] == B"XXXXX000")),CLK42,,) ;SC[].d = DI[];
PN[].ena = DFF((DCP_CX & (DCPP[] == B"XXXXX001")),CLK42,,) ;PN[].d = DI[];
TB_SW.clk = /IOWR;
AROM16.clk = /IOWR;
PN[].clk = /IOWR;
SC[].clk = /IOWR;
SYS.clk = /IOWR;
CNF[].clk = /IOWR;
AROM16.clrn = /RESET;
TB_SW.prn = /RESET;
SYS.clrn = /RESET;
CNF[].clrn = /RESET;
SC[].clrn = /RESET & !CNF6; -- Scorpion-OFF
PN[5..0].clrn = /RESET & !CNF5; -- reset PN5
PN[7..6].clrn = /RESET & CNF7; -- set Pentagon-512
PN4Q = PN4;
-- ====================================
-- ********** Pages decoder ***********
-- ====================================
PG3[] = (!PN7,VCC,LCELL((SC4 & !CNF7) or (CNF7 & PN6)),PN[2..0]);
-- SC0,SC1,SYS,DOS,PN4,AROM16,CASH_ON,NMI_ENA
PG0[] = (VCC,GND,
LCELL(SC0 or !SYS or CASH_ON or !NMI_ENA),
LCELL(((AROM16 & !(SC0 & SYS)) or (CASH_ON & NMI_ENA))),
LCELL((SPR_1 & SC_LCELL) or !SYS or !NMI_ENA),
LCELL((SPR_0 & SC_LCELL) or !SYS or !NMI_ENA));
-- SC_LCELL = LCELL(!(SC0 & SYS) & !CASH_ON);
SC_LCELL = (!(SC0 & SYS) & !CASH_ON);
NMI_ENA = VCC;
SPR_[] = !SC1 & (DOS,(PN4 or !DOS)); -- expansion/dos/basic128/basic48
CASE (TEST_R,SYS) IS
WHEN B"X0" => RA[] = (!AROM16,B"000"); -- system 0/1
WHEN B"01" => RA[] = (!AROM16,GND,SPR_[]); -- expansion/dos/basic
WHEN B"11" => RA[] = (B"001",SPR_0); -- test
END CASE;
-- ====================================
CASE A[15..14] IS
WHEN 0 => MPGS[5..0] = PG0[];
WHEN 1 => MPGS[5..0] = B"101001"; %H"E9"%
WHEN 2 => MPGS[5..0] = B"101010"; %H"EA"%
WHEN 3 => MPGS[5..0] = PG3[];
END CASE;
MPGS[7..6] = VCC;
-- STARTING = DFF(GND,VCC,/RESET,(/IO or /RD));
STARTING = LCELL(/RESET & (STARTING or !(/IO or /RD)));
PGS[].clk = !CLK42;
CASE (LCELL(/IO & !(A14 & A15 & !STARTING)),MC_END) IS
WHEN B"1X" => PGS[] = (VCC,VCC,MPGS[5..0]);
WHEN B"01" => PGS[] = DD[];
WHEN B"00" => PGS[] = GND;
END CASE;
MEM_WR = DFFE((DCPP[7] & DCPP[6] & STARTING & DFF(DFF((MC_END & !/WR),CLK42,,),CLK42,,)),CLK42,!/IO,,CT1);
ADR8_MEM = GND;
CASE ADR8_MEM IS
WHEN 1 => MEM_D[] = (DI[],MEM.q[7..0]); DO[] = MEM.q[15..8];
WHEN 0 => MEM_D[] = (MEM.q[15..8],DI[]); DO[] = MEM.q[7..0];
END CASE;
MEM.wren = MEM_WR;
MEM.data[] = MEM_D[];
MEM.wraddress[] = PGS[];
MEM.wrclock = CLK42;
MEM.wrclken = VCC;
MEM.rden = VCC;
MEM.rdaddress[] = PGS[];
MEM.rdclock = CLK42;
MEM.rdclken = VCC;
-- = MEM.q[];
PAGE[] = MEM.q[11..0];
TYPE[] = MEM.q[15..12];
PORT = !(MEM.q[15..12] == 0) or /IO or (/RD & /WR);
END;

View File

@ -1,568 +0,0 @@
--
-- Copyright (C) 1988-2000 Altera Corporation
-- Any megafunction design, and related net list (encrypted or decrypted),
-- support information, device programming or simulation file, and any other
-- associated documentation or information provided by Altera or a partner
-- under Altera's Megafunction Partnership Program may be used only to
-- program PLD devices (but not masked PLD devices) from Altera. Any other
-- use of such megafunction design, net list, support information, device
-- programming or simulation file, or any other related documentation or
-- information is prohibited for any other purpose, including, but not
-- limited to modification, reverse engineering, de-compiling, or use with
-- any other silicon devices, unless such use is explicitly licensed under
-- a separate agreement with Altera or a megafunction partner. Title to
-- the intellectual property, including patents, copyrights, trademarks,
-- trade secrets, or maskworks, embodied in any such megafunction design,
-- net list, support information, device programming or simulation file, or
-- any other related documentation or information provided by Altera or a
-- megafunction partner, remains with Altera, the megafunction partner, or
-- their respective licensors. No other licenses, including any licenses
-- needed under any third party's intellectual property, are provided herein.
--
CHIP kbd
BEGIN
DEVICE = EP1K30QC208-3;
END;
DEFAULT_DEVICES
BEGIN
AUTO_DEVICE = EP1K100FC484-1;
AUTO_DEVICE = EP1K100FC256-1;
AUTO_DEVICE = EP1K100QC208-1;
AUTO_DEVICE = EP1K50FC484-1;
AUTO_DEVICE = EP1K50FC256-1;
AUTO_DEVICE = EP1K50QC208-1;
AUTO_DEVICE = EP1K50TC144-1;
AUTO_DEVICE = EP1K30FC256-1;
AUTO_DEVICE = EP1K30QC208-1;
AUTO_DEVICE = EP1K30TC144-1;
ASK_BEFORE_ADDING_EXTRA_DEVICES = ON;
END;
TIMING_POINT
BEGIN
DEVICE_FOR_TIMING_SYNTHESIS = EP1K30QC208-3;
FREQUENCY = 100MHz;
MAINTAIN_STABLE_SYNTHESIS = OFF;
CUT_ALL_CLEAR_PRESET = ON;
CUT_ALL_BIDIR = ON;
END;
IGNORED_ASSIGNMENTS
BEGIN
FIT_IGNORE_TIMING = OFF;
DEMOTE_SPECIFIC_LCELL_ASSIGNMENTS_TO_LAB_ASSIGNMENTS = OFF;
IGNORE_LOCAL_ROUTING_ASSIGNMENTS = OFF;
IGNORE_DEVICE_ASSIGNMENTS = OFF;
IGNORE_LC_ASSIGNMENTS = OFF;
IGNORE_PIN_ASSIGNMENTS = OFF;
IGNORE_CHIP_ASSIGNMENTS = OFF;
IGNORE_TIMING_ASSIGNMENTS = OFF;
IGNORE_LOGIC_OPTION_ASSIGNMENTS = OFF;
IGNORE_CLIQUE_ASSIGNMENTS = OFF;
END;
GLOBAL_PROJECT_DEVICE_OPTIONS
BEGIN
MAX7000B_ENABLE_VREFB = OFF;
MAX7000B_ENABLE_VREFA = OFF;
MAX7000B_VCCIO_IOBANK2 = 3.3V;
MAX7000B_VCCIO_IOBANK1 = 3.3V;
CONFIG_EPROM_PULLUP_RESISTOR = ON;
CONFIG_EPROM_USER_CODE = FFFFFFFF;
FLEX_CONFIGURATION_EPROM = AUTO;
MAX7000AE_ENABLE_JTAG = ON;
MAX7000AE_USER_CODE = FFFFFFFF;
FLEX6000_USE_LOW_VOLTAGE_CONFIGURATION_EPROM = OFF;
FLEX10KA_USE_LOW_VOLTAGE_CONFIGURATION_EPROM = ON;
FLEX10K_USE_LOW_VOLTAGE_CONFIGURATION_EPROM = OFF;
FLEX6000_ENABLE_JTAG = OFF;
CONFIG_SCHEME_FLEX_6000 = PASSIVE_SERIAL;
MULTIVOLT_IO = OFF;
MAX7000S_ENABLE_JTAG = ON;
FLEX10K_ENABLE_LOCK_OUTPUT = OFF;
MAX7000S_USER_CODE = FFFF;
CONFIG_SCHEME_10K = PASSIVE_SERIAL;
FLEX10K_JTAG_USER_CODE = 7F;
ENABLE_INIT_DONE_OUTPUT = OFF;
ENABLE_CHIP_WIDE_OE = OFF;
ENABLE_CHIP_WIDE_RESET = OFF;
nCEO = UNRESERVED;
CLKUSR = UNRESERVED;
ADD17 = UNRESERVED;
ADD16 = UNRESERVED;
ADD15 = UNRESERVED;
ADD14 = UNRESERVED;
ADD13 = UNRESERVED;
ADD0_TO_ADD12 = UNRESERVED;
SDOUT = RESERVED_DRIVES_OUT;
RDCLK = UNRESERVED;
RDYnBUSY = UNRESERVED;
nWS_nRS_nCS_CS = UNRESERVED;
DATA1_TO_DATA7 = UNRESERVED;
DATA0 = RESERVED_TRI_STATED;
FLEX8000_ENABLE_JTAG = OFF;
CONFIG_SCHEME = ACTIVE_SERIAL;
DISABLE_TIME_OUT = OFF;
ENABLE_DCLK_OUTPUT = OFF;
RELEASE_CLEARS = OFF;
AUTO_RESTART = OFF;
USER_CLOCK = OFF;
SECURITY_BIT = OFF;
RESERVED_PINS_PERCENT = 0;
RESERVED_LCELLS_PERCENT = 0;
END;
GLOBAL_PROJECT_SYNTHESIS_ASSIGNMENT_OPTIONS
BEGIN
STYLE = FAST;
MULTI_LEVEL_SYNTHESIS_MAX9000 = ON;
AUTO_IMPLEMENT_IN_EAB = OFF;
AUTO_OPEN_DRAIN_PINS = ON;
ONE_HOT_STATE_MACHINE_ENCODING = OFF;
AUTO_REGISTER_PACKING = OFF;
DEVICE_FAMILY = ACEX1K;
AUTO_FAST_IO = OFF;
AUTO_GLOBAL_OE = ON;
AUTO_GLOBAL_PRESET = ON;
AUTO_GLOBAL_CLEAR = ON;
AUTO_GLOBAL_CLOCK = ON;
MULTI_LEVEL_SYNTHESIS_MAX5000_7000 = OFF;
OPTIMIZE_FOR_SPEED = 5;
END;
COMPILER_PROCESSING_CONFIGURATION
BEGIN
USE_QUARTUS_FITTER = ON;
PRESERVE_ALL_NODE_NAME_SYNONYMS = OFF;
FITTER_SETTINGS = NORMAL;
SMART_RECOMPILE = OFF;
GENERATE_AHDL_TDO_FILE = OFF;
RPT_FILE_USER_ASSIGNMENTS = ON;
RPT_FILE_LCELL_INTERCONNECT = ON;
RPT_FILE_HIERARCHY = ON;
RPT_FILE_EQUATIONS = ON;
LINKED_SNF_EXTRACTOR = OFF;
OPTIMIZE_TIMING_SNF = OFF;
TIMING_SNF_EXTRACTOR = ON;
FUNCTIONAL_SNF_EXTRACTOR = OFF;
DESIGN_DOCTOR_RULES = EPLD;
DESIGN_DOCTOR = OFF;
END;
COMPILER_INTERFACES_CONFIGURATION
BEGIN
NETLIST_OUTPUT_TIME_SCALE = 0.1ns;
EDIF_INPUT_SHOW_LMF_MAPPING_MESSAGES = OFF;
EDIF_BUS_DELIMITERS = [];
EDIF_FLATTEN_BUS = OFF;
EDIF_OUTPUT_FORCE_0NS_DELAYS = OFF;
EDIF_OUTPUT_INCLUDE_SPECIAL_PRIM = OFF;
EDIF_OUTPUT_MAP_ILLEGAL_CHAR = OFF;
EDIF_OUTPUT_DELAY_CONSTRUCTS = EDO_FILE;
EDIF_OUTPUT_USE_EDC = OFF;
EDIF_INPUT_USE_LMF2 = OFF;
EDIF_INPUT_USE_LMF1 = OFF;
EDIF_OUTPUT_GND = GND;
EDIF_OUTPUT_VCC = VCC;
EDIF_INPUT_GND = GND;
EDIF_INPUT_VCC = VCC;
EDIF_OUTPUT_EDC_FILE = *.edc;
EDIF_INPUT_LMF2 = *.lmf;
EDIF_INPUT_LMF1 = *.lmf;
VHDL_GENERATE_CONFIGURATION_DECLARATION = OFF;
VHDL_OUTPUT_DELAY_CONSTRUCTS = VHO_FILE;
VERILOG_OUTPUT_DELAY_CONSTRUCTS = VO_FILE;
VHDL_FLATTEN_BUS = OFF;
VERILOG_FLATTEN_BUS = OFF;
EDIF_TRUNCATE_HIERARCHY_PATH = OFF;
VHDL_TRUNCATE_HIERARCHY_PATH = OFF;
VERILOG_TRUNCATE_HIERARCHY_PATH = OFF;
VERILOG_OUTPUT_MAP_ILLEGAL_CHAR = OFF;
VHDL_WRITER_VERSION = VHDL87;
VHDL_READER_VERSION = VHDL87;
SYNOPSYS_MAPPING_EFFORT = MEDIUM;
SYNOPSYS_BOUNDARY_OPTIMIZATION = OFF;
SYNOPSYS_HIERARCHICAL_COMPILATION = ON;
SYNOPSYS_DESIGNWARE = OFF;
SYNOPSYS_COMPILER = DESIGN;
USE_SYNOPSYS_SYNTHESIS = OFF;
VHDL_NETLIST_WRITER = OFF;
VERILOG_NETLIST_WRITER = OFF;
XNF_GENERATE_AHDL_TDX_FILE = ON;
XNF_TRANSLATE_INTERNAL_NODE_NAMES = ON;
XNF_EMULATE_TRI_STATE_BUSES = INTERNAL_LOGIC;
EDIF_OUTPUT_VERSION = 200;
EDIF_NETLIST_WRITER = OFF;
END;
CUSTOM_DESIGN_DOCTOR_RULES
BEGIN
MASTER_RESET = OFF;
EXPANDER_NETWORKS = ON;
RACE_CONDITIONS = ON;
DELAY_CHAINS = ON;
ASYNCHRONOUS_INPUTS = ON;
PRESET_CLEAR_NETWORKS = ON;
STATIC_HAZARDS_AFTER_SYNTHESIS = OFF;
STATIC_HAZARDS_BEFORE_SYNTHESIS = ON;
MULTI_CLOCK_NETWORKS = ON;
MULTI_LEVEL_CLOCKS = ON;
GATED_CLOCKS = ON;
RIPPLE_CLOCKS = ON;
END;
SIMULATOR_CONFIGURATION
BEGIN
BIDIR_PIN = STRONG;
END_TIME = 0.0ns;
START_TIME = 0.0ns;
GLITCH_TIME = 0.0ns;
GLITCH = OFF;
OSCILLATION_TIME = 0.0ns;
OSCILLATION = OFF;
CHECK_OUTPUTS = OFF;
SETUP_HOLD = OFF;
USE_DEVICE = OFF;
END;
TIMING_ANALYZER_CONFIGURATION
BEGIN
ANALYSIS_MODE = REGISTERED_PERFORMANCE;
CUT_OFF_RAM_REGISTERED_WE_PATHS = OFF;
LIST_PATH_FREQUENCY = 10MHz;
LIST_PATH_COUNT = 10;
REGISTERED_PERFORMANCE_OPTIONS = NUMBER_OF_PATHS;
INCLUDE_PATHS_LESS_THAN_VALUE = 214.7483647ms;
INCLUDE_PATHS_LESS_THAN = OFF;
INCLUDE_PATHS_GREATER_THAN_VALUE = 0.0ns;
INCLUDE_PATHS_GREATER_THAN = OFF;
DELAY_MATRIX_OPTIONS = SHOW_ALL_PATHS;
CELL_WIDTH = 18;
LIST_ONLY_LONGEST_PATH = ON;
CUT_OFF_CLEAR_AND_PRESET_PATHS = ON;
CUT_OFF_IO_PIN_FEEDBACK = ON;
AUTO_RECALCULATE = OFF;
END;
OTHER_CONFIGURATION
BEGIN
LAST_MAXPLUS2_VERSION = 10.0;
EXPLICIT_FAMILY = 1;
ROW_PINS_LCELL_INSERT = ON;
CARRY_OUT_PINS_LCELL_INSERT = OFF;
NORMAL_LCELL_INSERT = ON;
FLEX_10K_52_COLUMNS = 40;
DEFAULT_9K_EXP_PER_LCELL = 1/2;
LOCAL_INTERCONNECT_PER_LAB_PERCENT = 100;
LCELLS_PER_ROW_PERCENT = 100;
FAN_IN_PER_LCELL_PERCENT = 100;
EXP_PER_LCELL_PERCENT = 100;
ROW_PINS_PERCENT = 50;
ORIGINAL_MAXPLUS2_VERSION = 9.6;
COMPILER_DATA = "1,1,0,1,0,0,0,1,1,1,1,0,1,1,1";
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.MAX5000
BEGIN
REGISTER_OPTIMIZATION = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = ON;
REFACTORIZATION = ON;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = ON;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.MAX7000
BEGIN
REGISTER_OPTIMIZATION = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = ON;
REFACTORIZATION = ON;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = ON;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.CLASSIC
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.FLEX8000
BEGIN
REGISTER_OPTIMIZATION = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = ON;
REFACTORIZATION = ON;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
IGNORE_SOFT_BUFFERS = ON;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN_LENGTH = 32;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = 2;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.MAX5000
BEGIN
REGISTER_OPTIMIZATION = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = ON;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.MAX7000
BEGIN
REGISTER_OPTIMIZATION = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = ON;
TURBO_BIT = ON;
XOR_SYNTHESIS = ON;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.CLASSIC
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.FLEX8000
BEGIN
SUBFACTOR_EXTRACTION = ON;
REFACTORIZATION = ON;
REGISTER_OPTIMIZATION = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
IGNORE_SOFT_BUFFERS = ON;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN_LENGTH = 32;
CARRY_CHAIN = AUTO;
CASCADE_CHAIN_LENGTH = 2;
CASCADE_CHAIN = AUTO;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.MAX5000
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = OFF;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = OFF;
SOFT_BUFFER_INSERTION = OFF;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = PARTIAL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.MAX7000
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = OFF;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = OFF;
SOFT_BUFFER_INSERTION = OFF;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = PARTIAL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.CLASSIC
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = OFF;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = PARTIAL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.FLEX8000
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = OFF;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = OFF;
SOFT_BUFFER_INSERTION = ON;
IGNORE_SOFT_BUFFERS = ON;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = PARTIAL;
CARRY_CHAIN_LENGTH = 32;
CARRY_CHAIN = MANUAL;
CASCADE_CHAIN_LENGTH = 2;
CASCADE_CHAIN = MANUAL;
END;

View File

@ -1,26 +0,0 @@
-- Copyright (C) 1988-2000 Altera Corporation
-- Any megafunction design, and related net list (encrypted or decrypted),
-- support information, device programming or simulation file, and any other
-- associated documentation or information provided by Altera or a partner
-- under Altera's Megafunction Partnership Program may be used only to
-- program PLD devices (but not masked PLD devices) from Altera. Any other
-- use of such megafunction design, net list, support information, device
-- programming or simulation file, or any other related documentation or
-- information is prohibited for any other purpose, including, but not
-- limited to modification, reverse engineering, de-compiling, or use with
-- any other silicon devices, unless such use is explicitly licensed under
-- a separate agreement with Altera or a megafunction partner. Title to
-- the intellectual property, including patents, copyrights, trademarks,
-- trade secrets, or maskworks, embodied in any such megafunction design,
-- net list, support information, device programming or simulation file, or
-- any other related documentation or information provided by Altera or a
-- megafunction partner, remains with Altera, the megafunction partner, or
-- their respective licensors. No other licenses, including any licenses
-- needed under any third party's intellectual property, are provided herein.
-- MAX+plus II Include File
-- Version 10.0 9/14/2000
-- Created: Thu May 03 21:43:31 2001
FUNCTION kbd (clk42, clk_k, kbd_cc, kbd_dd, /rf, /io, /iom, /m1, a[15..8], ena, int_ena)
RETURNS (kbo[7..0], kb_reset, kb_f12, kb_ctrl, kb_alt, kb_sh, int);

View File

@ -1,180 +0,0 @@
TITLE "ZX-Keyboard";
INCLUDE "lpm_ram_dq";
SUBDESIGN kbd
(
CLK42 : INPUT; -- full sinc 42MHz
CLK_K : INPUT; -- sinc input 15KHz
KBD_CC : INPUT; -- sinc KBD
KBD_DD : INPUT; -- data KBD
/RF : INPUT; -- /rfsh
/IO : INPUT; -- /iorq
/IOM : INPUT;
/M1 : INPUT;
A[15..8] : INPUT;
KBO[7..0] : OUTPUT; -- output
KB_RESET : OUTPUT;
KB_F12 : OUTPUT;
KB_CTRL : OUTPUT;
KB_ALT : OUTPUT;
KB_SH : OUTPUT;
ENA : INPUT;
INT_ENA : INPUT;
INT : OUTPUT;
)
VARIABLE
KB_CT[2..0] : DFF;
KB_D[10..0] : DFF;
KB_OFF : DFFE;
KB_EXT : DFF;
KB_ALT : DFF;
KB_CTRL : DFF;
KB_SH : DFF;
KB_CTRL_X : NODE;
KB_ALT_X : NODE;
KB_SH_X : NODE;
KB_XXX : NODE;
KB_RESET : DFF;
RXA[1..0] : DFFE;
K_CLK : NODE;
KA[15..0] : NODE;
KB_MA[2..0] : DFF;
KB_MXA : NODE;
KDCA[2..0] : LCELL;
KDD[7..0] : DFF;
KBD[5..0] : DFF;
KD[7..0] : NODE;
KDX[5..0] : DFF;
KDXX[5..0] : DFF;
WR_KBD : NODE;
KB_OFL : NODE;
BEGIN
INT = DFF((KB_CT[] == 0),CLK42,,INT_ENA);
-- KB_CT[].clk = DFF(CLK_K,CLK42,,);
KB_CT[].clk = CLK_K;
KB_CT[].prn = DFF(KBD_CC,CLK42,,);
CASE KB_CT[] IS
WHEN 0 => KB_CT[].d = GND;
WHEN 1,2,3,4,5,6,7 => KB_CT[].d = KB_CT[] - 1;
END CASE;
KB_D[].clk = DFF(!KBD_CC,CLK42,,);
KB_D[].d = (KBD_DD,KB_D[10..1]);
KB_OFF.ena = !KB_EXT;
KB_OFF.clk = DFF((KB_CT[] == 0),CLK42,,);
KB_OFF.d = KB_D[] == B"XX11110000X";
KB_EXT.clk = DFF((KB_CT[] == 1),CLK42,,);
KB_EXT.d = KB_D[] == B"XX11100000X";
KB_CTRL.clk = !KB_CT2;
KB_ALT.clk = !KB_CT2;
KB_SH.clk = !KB_CT2;
KB_CTRL_X = LCELL(KB_D[] == B"XXXXX1X100X");
KB_ALT_X = LCELL(KB_D[] == B"XXXXX1X001X");
KB_SH_X = LCELL(KB_D[] == B"XX0X01X0XXX") &
CASCADE((KB_D[] == B"XXX1XX1X01X") or (KB_D[] == B"XXX0XX0X10X"));
KB_XXX = LCELL(KB_D[] == B"XX000X0XXXX");
CASE KB_OFF IS
WHEN 0 =>
KB_CTRL.d = (KB_CTRL_X & KB_XXX) or KB_CTRL;
KB_ALT.d = (KB_ALT_X & KB_XXX) or KB_ALT;
KB_SH.d = (KB_SH_X) or KB_SH;
WHEN 1 =>
KB_CTRL.d = !(KB_CTRL_X & KB_XXX) & KB_CTRL;
KB_ALT.d = !(KB_ALT_X & KB_XXX) & KB_ALT;
KB_SH.d = !(KB_SH_X) & KB_SH;
END CASE;
KB_F12 = DFF(!((KB_XXX & LCELL(KB_D[] == B"XXXXX0X111X")) & !KB_OFF),
!KB_CT2,,!(KB_CT[] == 1));
KB_RESET.clk = !KB_CT2;
KB_RESET.d = !(KB_ALT_X & (KB_D[] == B"XX011X0XXXX") & !KB_OFF & KB_CTRL & KB_ALT);
KB_RESET.prn = !DFF((KB_CT[] == 1),CLK42,,);
K_CLK = DFF(/RF,CLK42,,);
RXA[].ena = VCC;
RXA[].clk = K_CLK;
CASE DFF((!(KB_CT[] == B"01X") & (RXA[] == 0)),CLK42,,) IS
WHEN B"1" => RXA[] = GND;
WHEN B"0" => RXA[] = (RXA0,!RXA1);
END CASE;
CASE (DFF((/IO & (RXA[] == 0),CLK42,,)),LCELL(KDD7 & KDD6)) IS
WHEN B"0X" => KA[15..8] = (B"101",KDCA[],B"11");
WHEN B"10" => KA[15..8] = (B"110000",KDD7,KDD6);
WHEN B"11" => KA[15..8] = KB_D[8..1];
END CASE;
KB_MA[].clk = CLK42;
KB_MA[].d = KB_MA[] + 1;
KB_MA[].clrn = !DFF(/IO,CLK42,,);
KB_MXA = DFF(( (((KB_MA[] == 7) & A15) or ((KB_MA[] == 6) & A14))
or (((KB_MA[] == 5) & A13) or ((KB_MA[] == 4) & A12))
or (((KB_MA[] == 3) & A11) or ((KB_MA[] == 2) & A10))
or (((KB_MA[] == 1) & A9 ) or ((KB_MA[] == 0) & A8 ))),CLK42,,);
IF !DFF(/IO,CLK42,,) THEN
KDCA[] = KB_MA[];
ELSE
KDCA[] = KDD[5..3];
END IF;
KDD[].clk = RXA0;
KDD[].d = KD[];
KDD[7..6].prn = !KB_CT2;
KDXX[].clk = RXA0;
KDXX[].d = !((KD[2..0] == 5),(KD[2..0] == 4),
(KD[2..0] == 3),(KD[2..0] == 2),
(KD[2..0] == 1),(KD[2..0] == 0));
KDX[].clk = RXA1;
CASE KB_OFF IS
WHEN B"0" => KDX[].d = (KD[5..0] & KDXX[]);
WHEN B"1" => KDX[].d = (KD[5..0] or !KDXX[]);
END CASE;
-- ==============================
WR_KBD = K_CLK or !DFF((KB_CT[] == 2),CLK42,,) or !(RXA[] == 3);
KD[] = lpm_ram_dq((B"11",KDX[5..0]),KA[15..8],!WR_KBD,CLK42,)
WITH (lpm_width=8,lpm_widthad=8,lpm_file="KBD_INI2.MIF",
lpm_outdata="UNREGISTERED");
KBD[].clk = CLK42;
KBD[].prn = DFF(VCC,KB_MA2,(!/IO & ENA),);
-- KBD[].prn = DFF(!/IOM,CLK42,,);
KBD[].d = KBD[] & (KD[5..0] or KB_MXA);
KBO[] = (VCC,VCC,KBD[]);
END;

View File

@ -1,167 +0,0 @@
DEPTH = 256; % Memory depth and width are required %
WIDTH = 8; % Enter a decimal number %
ADDRESS_RADIX = HEX; % Address and value radixes are optional %
DATA_RADIX = BIN; % Enter BIN, DEC, HEX, or OCT; unless %
% otherwise specified, radixes = HEX %
-- Specify values for addresses, which can be single address or range
CONTENT
BEGIN
[0..FF] : 11111111;
0 :
11111111 % .. %
00100001 % F9 %
11111111 % .. %
00011100 % F5 %
00011010 % F3 %
00011000 % F1 %
00011001 % F2 %
11111111 % F12 %
11111111 % .. %
00100000 % F10 %
00100010 % F8 %
00100100 % F6 %
00011011 % F4 %
01011000 % Tab %
10001000 % ~` %
11111111 % .. %
11111111 % .. %
01111001 % Alt %
11000000 % Left Shift %
11111111 % .. %
11111001 % Ctrl %
11010000 % 'Q' %
11011000 % '1' %
11111111 % .. %
11111111 % .. %
11111111 % .. %
11000001 % 'Z' %
11001001 % 'S' %
11001000 % 'A' %
11010001 % 'W' %
11011001 % '2' %
01110000 % left WIN %
11111111 % .. %
11000011 % 'C' %
11000010 % 'X' %
11001010 % 'D' %
11010010 % 'E' %
11011011 % '4' %
11011010 % '3' %
10110000 % Right WIN %
11111111 % .. %
11111000 % ' ' %
11000100 % 'V' %
11001011 % 'F' %
11010100 % 'T' %
11010011 % 'R' %
11011100 % '5' %
10111000 % Right Mouse %
11111111 % .. %
11111011 % 'N' %
11111100 % 'B' %
11110100 % 'H' %
11001100 % 'G' %
11101100 % 'Y' %
11100100 % '6' %
11111111 % .. %
11111111 % .. %
11111111 % .. %
11111010 % 'M' %
11110011 % 'J' %
11101011 % 'U' %
11100011 % '7' %
11100010 % '8' %
11111111 % .. %
11111111 % .. %
10111011 % ',' %
11110010 % 'K' %
11101010 % 'I' %
11101001 % 'O' %
11100000 % '0' %
11100001 % '9' %
11111111 % .. %
11111111 % .. %
10111010 % '.' %
10000100 % '/' %
11110001 % 'L' %
10101001 % ';' %
11101000 % 'P' %
10110011 % '-' %
11111111 % .. %
11111111 % .. %
11111111 % .. %
10101000 % "'" %
11111111 % .. %
10101100 % '[' %
10110001 % '=' %
11111111 % .. %
11111111 % .. %
01011001 % Caps Lock %
11000000 % Right SHIFT %
11110000 % ENTER %
10101011 % ']' %
11111111 % .. %
10001010 % '\' %
11111111 % .. %
11111111 % .. %
11111111 % .. %
11111111 % .. %
11111111 % .. %
11111111 % .. %
11111111 % .. %
11111111 % .. %
01100000 % Back %
11111111 % .. %
11111111 % .. %
10010010 % End %
11111111 % .. %
01011100 % <- %
10010000 % Home %
11111111 % .. %
11111111 % .. %
11111111 % .. %
10010001 % ins %
01100001 % DEL %
01100100 % Dn %
10101010 % grey 5 ; ctrl + I %
01100010 % -> %
01100011 % Up %
01111000 % ESC %
00111111 % Num %
11111111 % F11 %
10110010 % G+ %
01011011 % PDn ; caps + 4 %
10110011 % G- %
10111100 % G* %
01011010 % PUp ; caps + 3 %
00000000 % Scrol Lock %
11111111 % .. %
11111111 % .. %
11111111 % .. %
11111111 % .. %
00100011 % F7 % ;
% !! DATA FOR CAPS !! %
C0 :
11111101 % Function shift %
11000000 % Left Shift %
11111001 % Ctrl %
11111111 ; % no shift %
END ;

View File

@ -1,571 +0,0 @@
--
-- Copyright (C) 1988-2000 Altera Corporation
-- Any megafunction design, and related net list (encrypted or decrypted),
-- support information, device programming or simulation file, and any other
-- associated documentation or information provided by Altera or a partner
-- under Altera's Megafunction Partnership Program may be used only to
-- program PLD devices (but not masked PLD devices) from Altera. Any other
-- use of such megafunction design, net list, support information, device
-- programming or simulation file, or any other related documentation or
-- information is prohibited for any other purpose, including, but not
-- limited to modification, reverse engineering, de-compiling, or use with
-- any other silicon devices, unless such use is explicitly licensed under
-- a separate agreement with Altera or a megafunction partner. Title to
-- the intellectual property, including patents, copyrights, trademarks,
-- trade secrets, or maskworks, embodied in any such megafunction design,
-- net list, support information, device programming or simulation file, or
-- any other related documentation or information provided by Altera or a
-- megafunction partner, remains with Altera, the megafunction partner, or
-- their respective licensors. No other licenses, including any licenses
-- needed under any third party's intellectual property, are provided herein.
--
CHIP mouse
BEGIN
DEVICE = EP1K30QC208-3;
END;
DEFAULT_DEVICES
BEGIN
AUTO_DEVICE = EP1K100FC484-1;
AUTO_DEVICE = EP1K100FC256-1;
AUTO_DEVICE = EP1K100QC208-1;
AUTO_DEVICE = EP1K50FC484-1;
AUTO_DEVICE = EP1K50FC256-1;
AUTO_DEVICE = EP1K50QC208-1;
AUTO_DEVICE = EP1K50TC144-1;
AUTO_DEVICE = EP1K30FC256-1;
AUTO_DEVICE = EP1K30QC208-1;
AUTO_DEVICE = EP1K30TC144-1;
AUTO_DEVICE = EP1K10FC256-1;
AUTO_DEVICE = EP1K10QC208-1;
AUTO_DEVICE = EP1K10TC144-1;
AUTO_DEVICE = EP1K10TC100-1;
ASK_BEFORE_ADDING_EXTRA_DEVICES = ON;
END;
TIMING_POINT
BEGIN
DEVICE_FOR_TIMING_SYNTHESIS = EP1K30QC208-3;
FREQUENCY = 200MHz;
MAINTAIN_STABLE_SYNTHESIS = OFF;
CUT_ALL_CLEAR_PRESET = ON;
CUT_ALL_BIDIR = ON;
END;
IGNORED_ASSIGNMENTS
BEGIN
FIT_IGNORE_TIMING = OFF;
DEMOTE_SPECIFIC_LCELL_ASSIGNMENTS_TO_LAB_ASSIGNMENTS = OFF;
IGNORE_LOCAL_ROUTING_ASSIGNMENTS = OFF;
IGNORE_DEVICE_ASSIGNMENTS = OFF;
IGNORE_LC_ASSIGNMENTS = OFF;
IGNORE_PIN_ASSIGNMENTS = OFF;
IGNORE_CHIP_ASSIGNMENTS = OFF;
IGNORE_TIMING_ASSIGNMENTS = OFF;
IGNORE_LOGIC_OPTION_ASSIGNMENTS = OFF;
IGNORE_CLIQUE_ASSIGNMENTS = OFF;
END;
GLOBAL_PROJECT_DEVICE_OPTIONS
BEGIN
MAX7000B_ENABLE_VREFB = OFF;
MAX7000B_ENABLE_VREFA = OFF;
MAX7000B_VCCIO_IOBANK2 = 3.3V;
MAX7000B_VCCIO_IOBANK1 = 3.3V;
CONFIG_EPROM_PULLUP_RESISTOR = ON;
CONFIG_EPROM_USER_CODE = FFFFFFFF;
FLEX_CONFIGURATION_EPROM = AUTO;
MAX7000AE_ENABLE_JTAG = ON;
MAX7000AE_USER_CODE = FFFFFFFF;
FLEX6000_USE_LOW_VOLTAGE_CONFIGURATION_EPROM = OFF;
FLEX10KA_USE_LOW_VOLTAGE_CONFIGURATION_EPROM = ON;
FLEX10K_USE_LOW_VOLTAGE_CONFIGURATION_EPROM = OFF;
FLEX6000_ENABLE_JTAG = OFF;
CONFIG_SCHEME_FLEX_6000 = PASSIVE_SERIAL;
MULTIVOLT_IO = OFF;
MAX7000S_ENABLE_JTAG = ON;
FLEX10K_ENABLE_LOCK_OUTPUT = OFF;
MAX7000S_USER_CODE = FFFF;
CONFIG_SCHEME_10K = PASSIVE_SERIAL;
FLEX10K_JTAG_USER_CODE = 7F;
ENABLE_INIT_DONE_OUTPUT = OFF;
ENABLE_CHIP_WIDE_OE = OFF;
ENABLE_CHIP_WIDE_RESET = OFF;
nCEO = UNRESERVED;
CLKUSR = UNRESERVED;
ADD17 = UNRESERVED;
ADD16 = UNRESERVED;
ADD15 = UNRESERVED;
ADD14 = UNRESERVED;
ADD13 = UNRESERVED;
ADD0_TO_ADD12 = UNRESERVED;
SDOUT = RESERVED_DRIVES_OUT;
RDCLK = UNRESERVED;
RDYnBUSY = UNRESERVED;
nWS_nRS_nCS_CS = UNRESERVED;
DATA1_TO_DATA7 = UNRESERVED;
DATA0 = RESERVED_TRI_STATED;
FLEX8000_ENABLE_JTAG = OFF;
CONFIG_SCHEME = ACTIVE_SERIAL;
DISABLE_TIME_OUT = OFF;
ENABLE_DCLK_OUTPUT = OFF;
RELEASE_CLEARS = OFF;
AUTO_RESTART = OFF;
USER_CLOCK = OFF;
SECURITY_BIT = OFF;
RESERVED_PINS_PERCENT = 0;
RESERVED_LCELLS_PERCENT = 0;
END;
GLOBAL_PROJECT_SYNTHESIS_ASSIGNMENT_OPTIONS
BEGIN
STYLE = FAST;
MULTI_LEVEL_SYNTHESIS_MAX9000 = ON;
AUTO_IMPLEMENT_IN_EAB = OFF;
AUTO_OPEN_DRAIN_PINS = ON;
ONE_HOT_STATE_MACHINE_ENCODING = OFF;
AUTO_REGISTER_PACKING = OFF;
DEVICE_FAMILY = ACEX1K;
AUTO_FAST_IO = OFF;
AUTO_GLOBAL_OE = ON;
AUTO_GLOBAL_PRESET = ON;
AUTO_GLOBAL_CLEAR = ON;
AUTO_GLOBAL_CLOCK = ON;
MULTI_LEVEL_SYNTHESIS_MAX5000_7000 = OFF;
OPTIMIZE_FOR_SPEED = 5;
END;
COMPILER_PROCESSING_CONFIGURATION
BEGIN
USE_QUARTUS_FITTER = ON;
PRESERVE_ALL_NODE_NAME_SYNONYMS = OFF;
FITTER_SETTINGS = NORMAL;
SMART_RECOMPILE = OFF;
GENERATE_AHDL_TDO_FILE = OFF;
RPT_FILE_USER_ASSIGNMENTS = ON;
RPT_FILE_LCELL_INTERCONNECT = ON;
RPT_FILE_HIERARCHY = ON;
RPT_FILE_EQUATIONS = ON;
LINKED_SNF_EXTRACTOR = OFF;
OPTIMIZE_TIMING_SNF = OFF;
TIMING_SNF_EXTRACTOR = ON;
FUNCTIONAL_SNF_EXTRACTOR = OFF;
DESIGN_DOCTOR_RULES = EPLD;
DESIGN_DOCTOR = OFF;
END;
COMPILER_INTERFACES_CONFIGURATION
BEGIN
NETLIST_OUTPUT_TIME_SCALE = 0.1ns;
EDIF_INPUT_SHOW_LMF_MAPPING_MESSAGES = OFF;
EDIF_BUS_DELIMITERS = [];
EDIF_FLATTEN_BUS = OFF;
EDIF_OUTPUT_FORCE_0NS_DELAYS = OFF;
EDIF_OUTPUT_INCLUDE_SPECIAL_PRIM = OFF;
EDIF_OUTPUT_MAP_ILLEGAL_CHAR = OFF;
EDIF_OUTPUT_DELAY_CONSTRUCTS = EDO_FILE;
EDIF_OUTPUT_USE_EDC = OFF;
EDIF_INPUT_USE_LMF2 = OFF;
EDIF_INPUT_USE_LMF1 = OFF;
EDIF_OUTPUT_GND = GND;
EDIF_OUTPUT_VCC = VCC;
EDIF_INPUT_GND = GND;
EDIF_INPUT_VCC = VCC;
EDIF_OUTPUT_EDC_FILE = *.edc;
EDIF_INPUT_LMF2 = *.lmf;
EDIF_INPUT_LMF1 = *.lmf;
VHDL_GENERATE_CONFIGURATION_DECLARATION = OFF;
VHDL_OUTPUT_DELAY_CONSTRUCTS = VHO_FILE;
VERILOG_OUTPUT_DELAY_CONSTRUCTS = VO_FILE;
VHDL_FLATTEN_BUS = OFF;
VERILOG_FLATTEN_BUS = OFF;
EDIF_TRUNCATE_HIERARCHY_PATH = OFF;
VHDL_TRUNCATE_HIERARCHY_PATH = OFF;
VERILOG_TRUNCATE_HIERARCHY_PATH = OFF;
VERILOG_OUTPUT_MAP_ILLEGAL_CHAR = OFF;
VHDL_WRITER_VERSION = VHDL93;
VHDL_READER_VERSION = VHDL93;
SYNOPSYS_MAPPING_EFFORT = MEDIUM;
SYNOPSYS_BOUNDARY_OPTIMIZATION = OFF;
SYNOPSYS_HIERARCHICAL_COMPILATION = ON;
SYNOPSYS_DESIGNWARE = OFF;
SYNOPSYS_COMPILER = DESIGN;
USE_SYNOPSYS_SYNTHESIS = OFF;
VHDL_NETLIST_WRITER = OFF;
VERILOG_NETLIST_WRITER = OFF;
XNF_GENERATE_AHDL_TDX_FILE = ON;
XNF_TRANSLATE_INTERNAL_NODE_NAMES = ON;
XNF_EMULATE_TRI_STATE_BUSES = INTERNAL_LOGIC;
EDIF_OUTPUT_VERSION = 200;
EDIF_NETLIST_WRITER = OFF;
END;
CUSTOM_DESIGN_DOCTOR_RULES
BEGIN
MASTER_RESET = OFF;
EXPANDER_NETWORKS = ON;
RACE_CONDITIONS = ON;
DELAY_CHAINS = ON;
ASYNCHRONOUS_INPUTS = ON;
PRESET_CLEAR_NETWORKS = ON;
STATIC_HAZARDS_AFTER_SYNTHESIS = OFF;
STATIC_HAZARDS_BEFORE_SYNTHESIS = ON;
MULTI_CLOCK_NETWORKS = ON;
MULTI_LEVEL_CLOCKS = ON;
GATED_CLOCKS = ON;
RIPPLE_CLOCKS = ON;
END;
SIMULATOR_CONFIGURATION
BEGIN
END_TIME = 10.0us;
BIDIR_PIN = STRONG;
START_TIME = 0.0ns;
GLITCH_TIME = 0.0ns;
GLITCH = OFF;
OSCILLATION_TIME = 0.0ns;
OSCILLATION = OFF;
CHECK_OUTPUTS = OFF;
SETUP_HOLD = OFF;
USE_DEVICE = OFF;
END;
TIMING_ANALYZER_CONFIGURATION
BEGIN
CUT_OFF_RAM_REGISTERED_WE_PATHS = OFF;
LIST_PATH_FREQUENCY = 10MHz;
LIST_PATH_COUNT = 10;
REGISTERED_PERFORMANCE_OPTIONS = NUMBER_OF_PATHS;
INCLUDE_PATHS_LESS_THAN_VALUE = 214.7483647ms;
INCLUDE_PATHS_LESS_THAN = OFF;
INCLUDE_PATHS_GREATER_THAN_VALUE = 0.0ns;
INCLUDE_PATHS_GREATER_THAN = OFF;
DELAY_MATRIX_OPTIONS = SHOW_ALL_PATHS;
CELL_WIDTH = 18;
LIST_ONLY_LONGEST_PATH = ON;
CUT_OFF_CLEAR_AND_PRESET_PATHS = ON;
CUT_OFF_IO_PIN_FEEDBACK = ON;
AUTO_RECALCULATE = OFF;
ANALYSIS_MODE = DELAY_MATRIX;
END;
OTHER_CONFIGURATION
BEGIN
EXPLICIT_FAMILY = 1;
ROW_PINS_LCELL_INSERT = ON;
CARRY_OUT_PINS_LCELL_INSERT = OFF;
NORMAL_LCELL_INSERT = ON;
LAST_MAXPLUS2_VERSION = 10.0;
FLEX_10K_52_COLUMNS = 40;
DEFAULT_9K_EXP_PER_LCELL = 1/2;
LOCAL_INTERCONNECT_PER_LAB_PERCENT = 100;
LCELLS_PER_ROW_PERCENT = 100;
FAN_IN_PER_LCELL_PERCENT = 100;
EXP_PER_LCELL_PERCENT = 100;
ROW_PINS_PERCENT = 50;
ORIGINAL_MAXPLUS2_VERSION = 10.0;
COMPILER_DATA = "1,1,0,1,0,0,0,1,1,1,1,0,1,1,1";
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.MAX5000
BEGIN
REGISTER_OPTIMIZATION = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = ON;
REFACTORIZATION = ON;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = ON;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.MAX7000
BEGIN
REGISTER_OPTIMIZATION = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = ON;
REFACTORIZATION = ON;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = ON;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.CLASSIC
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.FLEX8000
BEGIN
REGISTER_OPTIMIZATION = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = ON;
REFACTORIZATION = ON;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
IGNORE_SOFT_BUFFERS = ON;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN_LENGTH = 32;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = 2;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.MAX5000
BEGIN
REGISTER_OPTIMIZATION = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = ON;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.MAX7000
BEGIN
REGISTER_OPTIMIZATION = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = ON;
TURBO_BIT = ON;
XOR_SYNTHESIS = ON;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.CLASSIC
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.FLEX8000
BEGIN
REGISTER_OPTIMIZATION = ON;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
IGNORE_SOFT_BUFFERS = ON;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = FULL;
CARRY_CHAIN_LENGTH = 32;
CARRY_CHAIN = AUTO;
CASCADE_CHAIN_LENGTH = 2;
CASCADE_CHAIN = AUTO;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.MAX5000
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = OFF;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = OFF;
SOFT_BUFFER_INSERTION = OFF;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = PARTIAL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.MAX7000
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = OFF;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = OFF;
SOFT_BUFFER_INSERTION = OFF;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = PARTIAL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.CLASSIC
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = OFF;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = PARTIAL;
CARRY_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.FLEX8000
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = OFF;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = OFF;
SOFT_BUFFER_INSERTION = ON;
IGNORE_SOFT_BUFFERS = ON;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = PARTIAL;
CARRY_CHAIN_LENGTH = 32;
CARRY_CHAIN = MANUAL;
CASCADE_CHAIN_LENGTH = 2;
CASCADE_CHAIN = MANUAL;
END;

View File

@ -1,26 +0,0 @@
-- Copyright (C) 1988-2000 Altera Corporation
-- Any megafunction design, and related net list (encrypted or decrypted),
-- support information, device programming or simulation file, and any other
-- associated documentation or information provided by Altera or a partner
-- under Altera's Megafunction Partnership Program may be used only to
-- program PLD devices (but not masked PLD devices) from Altera. Any other
-- use of such megafunction design, net list, support information, device
-- programming or simulation file, or any other related documentation or
-- information is prohibited for any other purpose, including, but not
-- limited to modification, reverse engineering, de-compiling, or use with
-- any other silicon devices, unless such use is explicitly licensed under
-- a separate agreement with Altera or a megafunction partner. Title to
-- the intellectual property, including patents, copyrights, trademarks,
-- trade secrets, or maskworks, embodied in any such megafunction design,
-- net list, support information, device programming or simulation file, or
-- any other related documentation or information provided by Altera or a
-- megafunction partner, remains with Altera, the megafunction partner, or
-- their respective licensors. No other licenses, including any licenses
-- needed under any third party's intellectual property, are provided herein.
-- MAX+plus II Include File
-- Version 10.0 9/14/2000
-- Created: Sat Jun 16 17:49:35 2001
FUNCTION mouse (mouse_d, clk)
RETURNS (out_x[9..0], out_y[9..0], out_k[1..0], int);

View File

@ -1,65 +0,0 @@
DEPTH = 256; % Memory depth and width are required %
WIDTH = 16; % Enter a decimal number %
ADDRESS_RADIX = HEX; % Address and value radixes are optional %
DATA_RADIX = HEX; % Enter BIN, DEC, HEX, or OCT; unless %
% otherwise specified, radixes = HEX %
-- Specify values for addresses, which can be single address or range
CONTENT
BEGIN
[0..FF] : 0;
%
11
1211
122211
12222211
1222222211
122222222211
1222222211
12222221
12222221
121112221
11 12221
1 1221
111
%
00 : 1 1 0 0 0 0 0 0 0 0 0 0 0 0 0 0;
10 : 1 2 1 1 0 0 0 0 0 0 0 0 0 0 0 0;
20 : 1 2 2 2 1 1 0 0 0 0 0 0 0 0 0 0;
30 : 1 2 2 2 2 2 1 1 0 0 0 0 0 0 0 0;
40 : 1 2 2 2 2 2 2 2 1 1 0 0 0 0 0 0;
50 : 1 2 2 2 2 2 2 2 2 2 1 1 0 0 0 0;
60 : 1 2 2 2 2 2 2 2 1 1 0 0 0 0 0 0;
E0 : 1 2 2 2 2 2 2 1 0 0 0 0 0 0 0 0;
70 : 1 2 2 2 2 2 2 1 0 0 0 0 0 0 0 0;
80 : 1 2 1 1 1 2 2 2 1 0 0 0 0 0 0 0;
90 : 1 1 0 0 0 1 2 2 2 1 0 0 0 0 0 0;
A0 : 1 0 0 0 0 0 1 2 2 1 0 0 0 0 0 0;
B0 : 0 0 0 0 0 0 0 1 1 1 0 0 0 0 0 0;
C0 : 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0;
D0 : 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0;
E0 : 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0;
F0 : 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0 0;
%
1110 0000 0000 0 00 0000 0000 0000 0000
1000 0000 0000 0100 0000 0100 0000 0000
1000 1100 1010 0000 1100 1110 0100 1010
1110 1010 1100 0100 1010 0100 1010 1100
0010 1010 1000 0100 1010 0100 1110 1000
0010 1100 1000 0100 1010 0100 1000 1000
1110 1000 1000 0100 1010 0010 0110 1000
0000 1000 0000 0000 0000 0000 0000 0000
%
END;

View File

@ -1,76 +0,0 @@
TITLE "Sp-Mouse";
INCLUDE "lpm_add_sub";
SUBDESIGN mouse
(
MOUSE_D : INPUT;
CLK : INPUT;
OUT_X[9..0] : OUTPUT;
OUT_Y[9..0] : OUTPUT;
OUT_K[1..0] : OUTPUT;
INT : OUTPUT;
)
VARIABLE
SUM_X[9..0] : DFFE;
SUM_Y[9..0] : DFFE;
CT[3..0] : DFF;
RG[9..0] : DFFE;
STATE[1..0] : DFFE;
RGK[5..0] : DFFE;
MOUSE_IMP : NODE;
DDX[7..0] : NODE;
DDY[7..0] : NODE;
BEGIN
CT[].clk = CLK;
MOUSE_IMP = MOUSE_D xor !DFF(MOUSE_D,CLK,,);
CT[].clrn = MOUSE_IMP;
IF CT[] == 12 THEN
CT[] = GND;
ELSE
CT[] = CT[]+1;
END IF;
RG[].clk = CLK;
RG[].ena = (CT[] == 4) or !RG0;
RG[].d = ((MOUSE_D,RG[9..1]) or !RG0);
RG[].prn = VCC;
STATE[].ena = !RG0;
STATE[].clk = CLK;
STATE[].d = (STATE0,RG7);
RGK[].clk = CLK;
RGK[].ena = (RG7 & !RG0);
RGK[].d = RG[6..1];
DDX[] = (RGK[1..0],RG[6..1]);
DDY[] = (RGK[3..2],RG[6..1]);
SUM_X[].ena = LCELL(!RG7 & (STATE[] == 1) & !RG0);
SUM_Y[].ena = LCELL(!RG7 & (STATE[] == 2) & !RG0);
SUM_X[].clk = CLK;
SUM_Y[].clk = CLK;
SUM_X[] = SUM_X[] + (DDX7,DDX7,DDX[]);
SUM_Y[] = SUM_Y[] + (DDY7,DDY7,DDY[]);
OUT_X[] = SUM_X[];
OUT_Y[] = SUM_Y[];
OUT_K[] = RGK[5..4];
INT = DFF(((STATE[] == 2) & !RG0),CLK,,);
END;

File diff suppressed because it is too large Load Diff

File diff suppressed because it is too large Load Diff

View File

@ -1,588 +0,0 @@
--
-- Copyright (C) 1988-2000 Altera Corporation
-- Any megafunction design, and related net list (encrypted or decrypted),
-- support information, device programming or simulation file, and any other
-- associated documentation or information provided by Altera or a partner
-- under Altera's Megafunction Partnership Program may be used only to
-- program PLD devices (but not masked PLD devices) from Altera. Any other
-- use of such megafunction design, net list, support information, device
-- programming or simulation file, or any other related documentation or
-- information is prohibited for any other purpose, including, but not
-- limited to modification, reverse engineering, de-compiling, or use with
-- any other silicon devices, unless such use is explicitly licensed under
-- a separate agreement with Altera or a megafunction partner. Title to
-- the intellectual property, including patents, copyrights, trademarks,
-- trade secrets, or maskworks, embodied in any such megafunction design,
-- net list, support information, device programming or simulation file, or
-- any other related documentation or information provided by Altera or a
-- megafunction partner, remains with Altera, the megafunction partner, or
-- their respective licensors. No other licenses, including any licenses
-- needed under any third party's intellectual property, are provided herein.
--
CHIP video2
BEGIN
DEVICE = AUTO;
END;
DEFAULT_DEVICES
BEGIN
ASK_BEFORE_ADDING_EXTRA_DEVICES = ON;
AUTO_DEVICE = EP1K30TC144-1;
AUTO_DEVICE = EP1K30QC208-1;
AUTO_DEVICE = EP1K30FC256-1;
AUTO_DEVICE = EP1K50TC144-1;
AUTO_DEVICE = EP1K50QC208-1;
AUTO_DEVICE = EP1K50FC256-1;
AUTO_DEVICE = EP1K50FC484-1;
AUTO_DEVICE = EP1K100QC208-1;
AUTO_DEVICE = EP1K100FC256-1;
AUTO_DEVICE = EP1K100FC484-1;
END;
TIMING_POINT
BEGIN
MAINTAIN_STABLE_SYNTHESIS = ON;
DEVICE_FOR_TIMING_SYNTHESIS = EP1K30FC256-3;
CUT_ALL_BIDIR = ON;
CUT_ALL_CLEAR_PRESET = ON;
FREQUENCY = 200MHz;
END;
IGNORED_ASSIGNMENTS
BEGIN
IGNORE_CLIQUE_ASSIGNMENTS = OFF;
IGNORE_LOGIC_OPTION_ASSIGNMENTS = OFF;
IGNORE_TIMING_ASSIGNMENTS = OFF;
IGNORE_CHIP_ASSIGNMENTS = OFF;
IGNORE_PIN_ASSIGNMENTS = OFF;
IGNORE_LC_ASSIGNMENTS = OFF;
IGNORE_DEVICE_ASSIGNMENTS = OFF;
IGNORE_LOCAL_ROUTING_ASSIGNMENTS = OFF;
DEMOTE_SPECIFIC_LCELL_ASSIGNMENTS_TO_LAB_ASSIGNMENTS = OFF;
FIT_IGNORE_TIMING = OFF;
END;
LOGIC_OPTIONS
BEGIN
|VAO15 : FAST_IO = ON;
|VAO14 : FAST_IO = ON;
|VAO13 : FAST_IO = ON;
|VAO12 : FAST_IO = ON;
|VAO11 : FAST_IO = ON;
|VAO10 : FAST_IO = ON;
|VAO9 : FAST_IO = ON;
|VAO8 : FAST_IO = ON;
|VAO7 : FAST_IO = ON;
|VAO6 : FAST_IO = ON;
|VAO5 : FAST_IO = ON;
|VAO4 : FAST_IO = ON;
|VAO3 : FAST_IO = ON;
|VAO2 : FAST_IO = ON;
|VAO1 : FAST_IO = ON;
|VAO0 : FAST_IO = ON;
END;
GLOBAL_PROJECT_DEVICE_OPTIONS
BEGIN
RESERVED_LCELLS_PERCENT = 0;
RESERVED_PINS_PERCENT = 0;
SECURITY_BIT = OFF;
USER_CLOCK = OFF;
AUTO_RESTART = OFF;
RELEASE_CLEARS = OFF;
ENABLE_DCLK_OUTPUT = OFF;
DISABLE_TIME_OUT = OFF;
CONFIG_SCHEME = ACTIVE_SERIAL;
FLEX8000_ENABLE_JTAG = OFF;
DATA0 = RESERVED_TRI_STATED;
DATA1_TO_DATA7 = UNRESERVED;
nWS_nRS_nCS_CS = UNRESERVED;
RDYnBUSY = UNRESERVED;
RDCLK = UNRESERVED;
SDOUT = RESERVED_DRIVES_OUT;
ADD0_TO_ADD12 = UNRESERVED;
ADD13 = UNRESERVED;
ADD14 = UNRESERVED;
ADD15 = UNRESERVED;
ADD16 = UNRESERVED;
ADD17 = UNRESERVED;
CLKUSR = UNRESERVED;
nCEO = UNRESERVED;
ENABLE_CHIP_WIDE_RESET = OFF;
ENABLE_CHIP_WIDE_OE = OFF;
ENABLE_INIT_DONE_OUTPUT = OFF;
FLEX10K_JTAG_USER_CODE = 7F;
CONFIG_SCHEME_10K = PASSIVE_SERIAL;
MAX7000S_USER_CODE = FFFF;
FLEX10K_ENABLE_LOCK_OUTPUT = OFF;
MAX7000S_ENABLE_JTAG = ON;
MULTIVOLT_IO = OFF;
CONFIG_SCHEME_FLEX_6000 = PASSIVE_SERIAL;
FLEX6000_ENABLE_JTAG = OFF;
FLEX10K_USE_LOW_VOLTAGE_CONFIGURATION_EPROM = OFF;
FLEX10KA_USE_LOW_VOLTAGE_CONFIGURATION_EPROM = ON;
FLEX6000_USE_LOW_VOLTAGE_CONFIGURATION_EPROM = OFF;
MAX7000AE_USER_CODE = FFFFFFFF;
MAX7000AE_ENABLE_JTAG = ON;
FLEX_CONFIGURATION_EPROM = AUTO;
CONFIG_EPROM_USER_CODE = FFFFFFFF;
CONFIG_EPROM_PULLUP_RESISTOR = ON;
MAX7000B_VCCIO_IOBANK1 = 3.3V;
MAX7000B_VCCIO_IOBANK2 = 3.3V;
MAX7000B_ENABLE_VREFA = OFF;
MAX7000B_ENABLE_VREFB = OFF;
END;
GLOBAL_PROJECT_SYNTHESIS_ASSIGNMENT_OPTIONS
BEGIN
OPTIMIZE_FOR_SPEED = 5;
MULTI_LEVEL_SYNTHESIS_MAX5000_7000 = OFF;
AUTO_GLOBAL_CLOCK = ON;
AUTO_GLOBAL_CLEAR = ON;
AUTO_GLOBAL_PRESET = ON;
AUTO_GLOBAL_OE = ON;
AUTO_FAST_IO = OFF;
DEVICE_FAMILY = ACEX1K;
AUTO_REGISTER_PACKING = OFF;
ONE_HOT_STATE_MACHINE_ENCODING = OFF;
AUTO_OPEN_DRAIN_PINS = ON;
AUTO_IMPLEMENT_IN_EAB = OFF;
MULTI_LEVEL_SYNTHESIS_MAX9000 = ON;
STYLE = FAST;
END;
COMPILER_PROCESSING_CONFIGURATION
BEGIN
USE_QUARTUS_FITTER = ON;
DESIGN_DOCTOR = OFF;
DESIGN_DOCTOR_RULES = EPLD;
FUNCTIONAL_SNF_EXTRACTOR = OFF;
TIMING_SNF_EXTRACTOR = ON;
OPTIMIZE_TIMING_SNF = OFF;
LINKED_SNF_EXTRACTOR = OFF;
RPT_FILE_EQUATIONS = ON;
RPT_FILE_HIERARCHY = ON;
RPT_FILE_LCELL_INTERCONNECT = ON;
RPT_FILE_USER_ASSIGNMENTS = ON;
GENERATE_AHDL_TDO_FILE = OFF;
SMART_RECOMPILE = OFF;
FITTER_SETTINGS = NORMAL;
PRESERVE_ALL_NODE_NAME_SYNONYMS = OFF;
END;
COMPILER_INTERFACES_CONFIGURATION
BEGIN
EDIF_NETLIST_WRITER = OFF;
EDIF_OUTPUT_VERSION = 200;
XNF_EMULATE_TRI_STATE_BUSES = INTERNAL_LOGIC;
XNF_TRANSLATE_INTERNAL_NODE_NAMES = ON;
XNF_GENERATE_AHDL_TDX_FILE = ON;
VERILOG_NETLIST_WRITER = OFF;
VHDL_NETLIST_WRITER = OFF;
USE_SYNOPSYS_SYNTHESIS = OFF;
SYNOPSYS_COMPILER = DESIGN;
SYNOPSYS_DESIGNWARE = OFF;
SYNOPSYS_HIERARCHICAL_COMPILATION = ON;
SYNOPSYS_BOUNDARY_OPTIMIZATION = OFF;
SYNOPSYS_MAPPING_EFFORT = MEDIUM;
VHDL_READER_VERSION = VHDL87;
VHDL_WRITER_VERSION = VHDL87;
VERILOG_OUTPUT_MAP_ILLEGAL_CHAR = OFF;
VERILOG_TRUNCATE_HIERARCHY_PATH = OFF;
VHDL_TRUNCATE_HIERARCHY_PATH = OFF;
EDIF_TRUNCATE_HIERARCHY_PATH = OFF;
VERILOG_FLATTEN_BUS = OFF;
VHDL_FLATTEN_BUS = OFF;
VERILOG_OUTPUT_DELAY_CONSTRUCTS = VO_FILE;
VHDL_OUTPUT_DELAY_CONSTRUCTS = VHO_FILE;
VHDL_GENERATE_CONFIGURATION_DECLARATION = OFF;
EDIF_INPUT_LMF1 = *.lmf;
EDIF_INPUT_LMF2 = *.lmf;
EDIF_OUTPUT_EDC_FILE = *.edc;
EDIF_INPUT_VCC = VCC;
EDIF_INPUT_GND = GND;
EDIF_OUTPUT_VCC = VCC;
EDIF_OUTPUT_GND = GND;
EDIF_INPUT_USE_LMF1 = OFF;
EDIF_INPUT_USE_LMF2 = OFF;
EDIF_OUTPUT_USE_EDC = OFF;
EDIF_OUTPUT_DELAY_CONSTRUCTS = EDO_FILE;
EDIF_OUTPUT_MAP_ILLEGAL_CHAR = OFF;
EDIF_OUTPUT_INCLUDE_SPECIAL_PRIM = OFF;
EDIF_OUTPUT_FORCE_0NS_DELAYS = OFF;
EDIF_FLATTEN_BUS = OFF;
EDIF_BUS_DELIMITERS = [];
EDIF_INPUT_SHOW_LMF_MAPPING_MESSAGES = OFF;
NETLIST_OUTPUT_TIME_SCALE = 0.1ns;
END;
CUSTOM_DESIGN_DOCTOR_RULES
BEGIN
RIPPLE_CLOCKS = ON;
GATED_CLOCKS = ON;
MULTI_LEVEL_CLOCKS = ON;
MULTI_CLOCK_NETWORKS = ON;
STATIC_HAZARDS_BEFORE_SYNTHESIS = ON;
STATIC_HAZARDS_AFTER_SYNTHESIS = OFF;
PRESET_CLEAR_NETWORKS = ON;
ASYNCHRONOUS_INPUTS = ON;
DELAY_CHAINS = ON;
RACE_CONDITIONS = ON;
EXPANDER_NETWORKS = ON;
MASTER_RESET = OFF;
END;
SIMULATOR_CONFIGURATION
BEGIN
CHECK_OUTPUTS = OFF;
USE_DEVICE = OFF;
SETUP_HOLD = OFF;
OSCILLATION = OFF;
OSCILLATION_TIME = 0.0ns;
GLITCH = OFF;
GLITCH_TIME = 0.0ns;
START_TIME = 0.0ns;
BIDIR_PIN = STRONG;
END_TIME = 10.0us;
END;
TIMING_ANALYZER_CONFIGURATION
BEGIN
ANALYSIS_MODE = REGISTERED_PERFORMANCE;
AUTO_RECALCULATE = OFF;
CUT_OFF_IO_PIN_FEEDBACK = ON;
CUT_OFF_CLEAR_AND_PRESET_PATHS = ON;
LIST_ONLY_LONGEST_PATH = ON;
CELL_WIDTH = 18;
DELAY_MATRIX_OPTIONS = SHOW_ALL_PATHS;
INCLUDE_PATHS_GREATER_THAN = OFF;
INCLUDE_PATHS_GREATER_THAN_VALUE = 0.0ns;
INCLUDE_PATHS_LESS_THAN = OFF;
INCLUDE_PATHS_LESS_THAN_VALUE = 214.7483647ms;
REGISTERED_PERFORMANCE_OPTIONS = NUMBER_OF_PATHS;
LIST_PATH_COUNT = 10;
LIST_PATH_FREQUENCY = 10MHz;
CUT_OFF_RAM_REGISTERED_WE_PATHS = OFF;
END;
OTHER_CONFIGURATION
BEGIN
LAST_MAXPLUS2_VERSION = 10.0;
EXPLICIT_FAMILY = 1;
COMPILER_DATA = "1,1,0,1,0,0,0,1,1,1,1,0,1,1,1";
ORIGINAL_MAXPLUS2_VERSION = 9.6;
ROW_PINS_PERCENT = 50;
EXP_PER_LCELL_PERCENT = 100;
FAN_IN_PER_LCELL_PERCENT = 100;
LCELLS_PER_ROW_PERCENT = 100;
LOCAL_INTERCONNECT_PER_LAB_PERCENT = 100;
DEFAULT_9K_EXP_PER_LCELL = 1/2;
FLEX_10K_52_COLUMNS = 40;
NORMAL_LCELL_INSERT = ON;
CARRY_OUT_PINS_LCELL_INSERT = OFF;
ROW_PINS_LCELL_INSERT = ON;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.MAX5000
BEGIN
CASCADE_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CARRY_CHAIN_LENGTH = -1;
MINIMIZATION = FULL;
SLOW_SLEW_RATE = OFF;
XOR_SYNTHESIS = ON;
TURBO_BIT = OFF;
PARALLEL_EXPANDERS = OFF;
IGNORE_SOFT_BUFFERS = OFF;
FAST_IO = OFF;
SOFT_BUFFER_INSERTION = ON;
DECOMPOSE_GATES = ON;
REDUCE_LOGIC = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
NOT_GATE_PUSH_BACK = ON;
REFACTORIZATION = ON;
SUBFACTOR_EXTRACTION = ON;
MULTI_LEVEL_FACTORING = ON;
RESYNTHESIZE_NETWORK = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
REGISTER_OPTIMIZATION = ON;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.MAX7000
BEGIN
CASCADE_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CARRY_CHAIN_LENGTH = -1;
MINIMIZATION = FULL;
SLOW_SLEW_RATE = OFF;
XOR_SYNTHESIS = ON;
TURBO_BIT = ON;
PARALLEL_EXPANDERS = OFF;
IGNORE_SOFT_BUFFERS = OFF;
FAST_IO = OFF;
SOFT_BUFFER_INSERTION = ON;
DECOMPOSE_GATES = ON;
REDUCE_LOGIC = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
NOT_GATE_PUSH_BACK = ON;
REFACTORIZATION = ON;
SUBFACTOR_EXTRACTION = ON;
MULTI_LEVEL_FACTORING = ON;
RESYNTHESIZE_NETWORK = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
REGISTER_OPTIMIZATION = ON;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.CLASSIC
BEGIN
CASCADE_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CARRY_CHAIN_LENGTH = -1;
MINIMIZATION = FULL;
SLOW_SLEW_RATE = OFF;
XOR_SYNTHESIS = OFF;
TURBO_BIT = ON;
PARALLEL_EXPANDERS = OFF;
IGNORE_SOFT_BUFFERS = OFF;
FAST_IO = OFF;
SOFT_BUFFER_INSERTION = ON;
DECOMPOSE_GATES = ON;
REDUCE_LOGIC = OFF;
DUPLICATE_LOGIC_EXTRACTION = OFF;
NOT_GATE_PUSH_BACK = ON;
REFACTORIZATION = OFF;
SUBFACTOR_EXTRACTION = OFF;
MULTI_LEVEL_FACTORING = OFF;
RESYNTHESIZE_NETWORK = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
REGISTER_OPTIMIZATION = OFF;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.FLEX8000
BEGIN
CASCADE_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = 2;
CARRY_CHAIN = IGNORE;
CARRY_CHAIN_LENGTH = 32;
MINIMIZATION = FULL;
SLOW_SLEW_RATE = OFF;
XOR_SYNTHESIS = OFF;
TURBO_BIT = OFF;
PARALLEL_EXPANDERS = OFF;
IGNORE_SOFT_BUFFERS = ON;
SOFT_BUFFER_INSERTION = ON;
DECOMPOSE_GATES = ON;
REDUCE_LOGIC = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
NOT_GATE_PUSH_BACK = ON;
REFACTORIZATION = ON;
SUBFACTOR_EXTRACTION = ON;
MULTI_LEVEL_FACTORING = ON;
RESYNTHESIZE_NETWORK = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
REGISTER_OPTIMIZATION = ON;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.MAX5000
BEGIN
SLOW_SLEW_RATE = OFF;
XOR_SYNTHESIS = ON;
TURBO_BIT = OFF;
PARALLEL_EXPANDERS = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
IGNORE_SOFT_BUFFERS = OFF;
FAST_IO = OFF;
MINIMIZATION = FULL;
CASCADE_CHAIN = IGNORE;
CARRY_CHAIN = IGNORE;
SOFT_BUFFER_INSERTION = ON;
DECOMPOSE_GATES = ON;
REDUCE_LOGIC = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
NOT_GATE_PUSH_BACK = ON;
REFACTORIZATION = OFF;
SUBFACTOR_EXTRACTION = OFF;
MULTI_LEVEL_FACTORING = ON;
RESYNTHESIZE_NETWORK = ON;
REGISTER_OPTIMIZATION = ON;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.MAX7000
BEGIN
SLOW_SLEW_RATE = OFF;
XOR_SYNTHESIS = ON;
TURBO_BIT = ON;
PARALLEL_EXPANDERS = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
IGNORE_SOFT_BUFFERS = OFF;
FAST_IO = OFF;
MINIMIZATION = FULL;
CASCADE_CHAIN = IGNORE;
CARRY_CHAIN = IGNORE;
SOFT_BUFFER_INSERTION = ON;
DECOMPOSE_GATES = ON;
REDUCE_LOGIC = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
NOT_GATE_PUSH_BACK = ON;
REFACTORIZATION = OFF;
SUBFACTOR_EXTRACTION = OFF;
MULTI_LEVEL_FACTORING = ON;
RESYNTHESIZE_NETWORK = ON;
REGISTER_OPTIMIZATION = ON;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.CLASSIC
BEGIN
SLOW_SLEW_RATE = OFF;
XOR_SYNTHESIS = OFF;
TURBO_BIT = ON;
PARALLEL_EXPANDERS = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
IGNORE_SOFT_BUFFERS = OFF;
FAST_IO = OFF;
MINIMIZATION = FULL;
CASCADE_CHAIN = IGNORE;
CARRY_CHAIN = IGNORE;
SOFT_BUFFER_INSERTION = ON;
DECOMPOSE_GATES = ON;
REDUCE_LOGIC = OFF;
DUPLICATE_LOGIC_EXTRACTION = OFF;
NOT_GATE_PUSH_BACK = ON;
REFACTORIZATION = OFF;
SUBFACTOR_EXTRACTION = OFF;
MULTI_LEVEL_FACTORING = OFF;
RESYNTHESIZE_NETWORK = ON;
REGISTER_OPTIMIZATION = OFF;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.FLEX8000
BEGIN
SLOW_SLEW_RATE = OFF;
XOR_SYNTHESIS = OFF;
TURBO_BIT = OFF;
PARALLEL_EXPANDERS = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
IGNORE_SOFT_BUFFERS = ON;
MINIMIZATION = FULL;
CASCADE_CHAIN = AUTO;
CARRY_CHAIN = AUTO;
SOFT_BUFFER_INSERTION = ON;
DECOMPOSE_GATES = ON;
REDUCE_LOGIC = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
NOT_GATE_PUSH_BACK = ON;
REFACTORIZATION = ON;
SUBFACTOR_EXTRACTION = ON;
MULTI_LEVEL_FACTORING = ON;
RESYNTHESIZE_NETWORK = ON;
REGISTER_OPTIMIZATION = ON;
CASCADE_CHAIN_LENGTH = 2;
CARRY_CHAIN_LENGTH = 32;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.MAX5000
BEGIN
CASCADE_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CARRY_CHAIN_LENGTH = -1;
MINIMIZATION = PARTIAL;
SLOW_SLEW_RATE = OFF;
XOR_SYNTHESIS = OFF;
TURBO_BIT = OFF;
PARALLEL_EXPANDERS = OFF;
IGNORE_SOFT_BUFFERS = OFF;
FAST_IO = OFF;
SOFT_BUFFER_INSERTION = OFF;
DECOMPOSE_GATES = OFF;
REDUCE_LOGIC = OFF;
DUPLICATE_LOGIC_EXTRACTION = OFF;
NOT_GATE_PUSH_BACK = ON;
REFACTORIZATION = OFF;
SUBFACTOR_EXTRACTION = OFF;
MULTI_LEVEL_FACTORING = OFF;
RESYNTHESIZE_NETWORK = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
REGISTER_OPTIMIZATION = OFF;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.MAX7000
BEGIN
CASCADE_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CARRY_CHAIN_LENGTH = -1;
MINIMIZATION = PARTIAL;
SLOW_SLEW_RATE = OFF;
XOR_SYNTHESIS = OFF;
TURBO_BIT = ON;
PARALLEL_EXPANDERS = OFF;
IGNORE_SOFT_BUFFERS = OFF;
FAST_IO = OFF;
SOFT_BUFFER_INSERTION = OFF;
DECOMPOSE_GATES = OFF;
REDUCE_LOGIC = OFF;
DUPLICATE_LOGIC_EXTRACTION = OFF;
NOT_GATE_PUSH_BACK = ON;
REFACTORIZATION = OFF;
SUBFACTOR_EXTRACTION = OFF;
MULTI_LEVEL_FACTORING = OFF;
RESYNTHESIZE_NETWORK = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
REGISTER_OPTIMIZATION = OFF;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.CLASSIC
BEGIN
CASCADE_CHAIN = IGNORE;
CASCADE_CHAIN_LENGTH = -1;
CARRY_CHAIN = IGNORE;
CARRY_CHAIN_LENGTH = -1;
MINIMIZATION = PARTIAL;
SLOW_SLEW_RATE = OFF;
XOR_SYNTHESIS = OFF;
TURBO_BIT = ON;
PARALLEL_EXPANDERS = OFF;
IGNORE_SOFT_BUFFERS = OFF;
FAST_IO = OFF;
SOFT_BUFFER_INSERTION = OFF;
DECOMPOSE_GATES = ON;
REDUCE_LOGIC = OFF;
DUPLICATE_LOGIC_EXTRACTION = OFF;
NOT_GATE_PUSH_BACK = ON;
REFACTORIZATION = OFF;
SUBFACTOR_EXTRACTION = OFF;
MULTI_LEVEL_FACTORING = OFF;
RESYNTHESIZE_NETWORK = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
REGISTER_OPTIMIZATION = OFF;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.FLEX8000
BEGIN
CASCADE_CHAIN = MANUAL;
CASCADE_CHAIN_LENGTH = 2;
CARRY_CHAIN = MANUAL;
CARRY_CHAIN_LENGTH = 32;
MINIMIZATION = PARTIAL;
SLOW_SLEW_RATE = OFF;
XOR_SYNTHESIS = OFF;
TURBO_BIT = OFF;
PARALLEL_EXPANDERS = OFF;
IGNORE_SOFT_BUFFERS = ON;
SOFT_BUFFER_INSERTION = ON;
DECOMPOSE_GATES = OFF;
REDUCE_LOGIC = OFF;
DUPLICATE_LOGIC_EXTRACTION = OFF;
NOT_GATE_PUSH_BACK = ON;
REFACTORIZATION = OFF;
SUBFACTOR_EXTRACTION = OFF;
MULTI_LEVEL_FACTORING = OFF;
RESYNTHESIZE_NETWORK = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
REGISTER_OPTIMIZATION = OFF;
END;

View File

@ -1,27 +0,0 @@
-- Copyright (C) 1988-2000 Altera Corporation
-- Any megafunction design, and related net list (encrypted or decrypted),
-- support information, device programming or simulation file, and any other
-- associated documentation or information provided by Altera or a partner
-- under Altera's Megafunction Partnership Program may be used only to
-- program PLD devices (but not masked PLD devices) from Altera. Any other
-- use of such megafunction design, net list, support information, device
-- programming or simulation file, or any other related documentation or
-- information is prohibited for any other purpose, including, but not
-- limited to modification, reverse engineering, de-compiling, or use with
-- any other silicon devices, unless such use is explicitly licensed under
-- a separate agreement with Altera or a megafunction partner. Title to
-- the intellectual property, including patents, copyrights, trademarks,
-- trade secrets, or maskworks, embodied in any such megafunction design,
-- net list, support information, device programming or simulation file, or
-- any other related documentation or information provided by Altera or a
-- megafunction partner, remains with Altera, the megafunction partner, or
-- their respective licensors. No other licenses, including any licenses
-- needed under any third party's intellectual property, are provided herein.
-- MAX+plus II Include File
-- Version 10.0 9/14/2000
-- Created: Mon Nov 19 00:36:42 2001
FUNCTION video2 (clk42, start_up, copy_sinc_h, copy_sinc_v, wr, vai[19..0], d[7..0], mdi[15..0], vdm0[7..0], vdm1[7..0], vdm2[7..0], vdm3[7..0], zx_port[7..0], dir_port[7..0], double_cas, mouse_x[9..0], mouse_y[9..0])
WITH (MODE, MOUSE)
RETURNS (ct[5..0], cth[5..0], ctv[8..0], ctf[6..0], blank, vao[15..0], vdo0[7..0], vdo1[7..0], vdo2[7..0], vdo3[7..0], v_wr[3..0], v_wen[3..0], v_cs[1..0], wr_pix, intt);

View File

@ -1,783 +0,0 @@
TITLE "Video-controller";
INCLUDE "lpm_ram_dp";
PARAMETERS
(
MODE = "SPRINTER",
MOUSE = "NO",
HOR_PLACE = H"50",
VER_PLACE = H"91" -- 122h/2
);
SUBDESIGN video2
(
CLK42 : INPUT;
CT[5..0] : OUTPUT;
CTH[5..0] : OUTPUT;
CTV[8..0] : OUTPUT;
CTF[6..0] : OUTPUT;
BLANK : OUTPUT;
START_UP : INPUT;
COPY_SINC_H : INPUT;
COPY_SINC_V : INPUT;
WR : INPUT;
VAI[19..0] : INPUT; -- input screen adress
VAO[15..0] : OUTPUT;
D[7..0] : INPUT;
MDI[15..0] : INPUT;
VDO0[7..0] : OUTPUT;
VDO1[7..0] : OUTPUT;
VDO2[7..0] : OUTPUT;
VDO3[7..0] : OUTPUT;
VDM0[7..0] : INPUT;
VDM1[7..0] : INPUT;
VDM2[7..0] : INPUT;
VDM3[7..0] : INPUT;
V_WR[3..0] : OUTPUT;
V_WEN[3..0] : OUTPUT;
V_CS[1..0] : OUTPUT;
WR_PIX : OUTPUT;
-- ZX_COLOR[3..0] : OUTPUT;
ZX_PORT[7..0] : INPUT;
DIR_PORT[7..0] : INPUT;
%
bit0 - Spectrum SCREEN Switch
bit1 - Spectrum Adress MODE
bit2 - Write to Spectrum Screen OFF
bit3 - MODE page 0/1
bit4 - MODE on/off screen
bit7..5 - Border
%
INTT : OUTPUT;
DOUBLE_CAS : INPUT;
MOUSE_X[9..0] : INPUT;
MOUSE_Y[9..0] : INPUT;
)
VARIABLE
-- CLK84 : NODE;
-- CLK84_X : NODE;
-- CLK84_Y : NODE;
ZX_COLOR[3..0] : NODE;
CT[5..0] : DFFE;
CTH[5..0] : DFFE;
CTV[8..0] : DFFE;
CTF[6..0] : DFF;
VXA[19..0] : DFFE;
VXD0[7..0] : DFFE;
VXD1[7..0] : DFFE;
VXD2[7..0] : DFFE;
VXD3[7..0] : DFFE;
E_WR : NODE;
E_WRD : NODE;
BLANK : NODE;
BORD : NODE;
-- INTT_T : NODE;
INTTX : NODE;
VLA[17..0] : DFF;
-- SVA[17..0] : NODE;
SVA[17..0] : DFF;
-- RSVA[8..0] : LCELL;
RSVA[8..0] : NODE;
-- RSVA[8..0] : DFF;
V_CST[1..0] : DFF;
VCM[2..0] : DFF;
TSN_W3 : DFF;
V_WE : DFF;
V_WEX : DFF;
V_WEM : NODE;
V_WEM2 : NODE;
V_WRM : NODE;
V_WRM2 : NODE;
%
V_WEMM : NODE;
V_WEMMM : NODE;
V_WEMMN : NODE;
V_WEMMO : NODE;
%
V_WEMM : NODE;
V_WEMMM : NODE;
V_WEMMN : NODE;
V_WEMMO : NODE;
V_WEMMP : NODE;
V_WEMMQ : NODE;
V_WEMMR : NODE;
V_WEMMS : NODE;
V_WEMMT : NODE;
V_WEMMU : NODE;
V_WEMMV : NODE;
V_WEMMW : NODE;
V_WEMMX : NODE;
V_WEMMY : NODE;
V_WEMMZ : NODE;
V_WET[3..0] : DFF;
D_PIC0[7..0] : DFFE;
-- D_PIC0_[7..0] : LCELL;
D_PIC0_[7..0] : DFFE;
D_PIC1_[7..0] : DFFE;
D_PIC2_[7..0] : DFFE;
D_PIC3_[7..0] : DFFE;
D_PICX_[7..0] : NODE;
LWR_PIC : NODE;
LWR_COL : NODE;
WR_PIC : DFF;
WR_COL : DFF;
LD_PIC : NODE;
MXL: NODE;
MXR: NODE;
RBRVA[10..8]: DFF;
BRVA[7..0] : DFF;
DCOL[7..0] : DFFE;
MXWE : NODE;
-- MXCE : NODE;
AX128 : NODE;
BRD[2..0] : NODE;
ZX_COL[3..0] : LCELL;
ZXA15 : NODE;
ZXS[5..0] : NODE;
ZX_SCREEN : NODE;
SCR128 : NODE;
MODE0[7..0] : DFFE;
MODE1[7..0] : DFFE;
MODE2[7..0] : DFFE;
-- MODE3[7..0] : DFF;
WR_MODE : DFF;
LWR_MODE : NODE;
X_MODE[7..4]: NODE;
X_MODE_BOND : NODE;
-- M_CTV[2..0] : DFF;
-- M_CT[5..3] : DFF;
M_CTV[2..0] : LCELL;
M_CT[5..3] : LCELL;
DOUBLE : DFFE;
PIC_CLK : NODE;
MS_X[9..0] : DFF;
MS_Y[9..0] : DFF;
MS_POINT : NODE;
MS_POINT2 : NODE;
MS_PNT : NODE;
MS_DAT : LPM_RAM_DP WITH (LPM_WIDTH=16,LPM_WIDTHAD=8,LPM_FILE="MOUSE.MIF");
SCR_ENA : DFFE;
V_WR_[3..0] : LCELL;
V_WEY[3..0] : LCELL;
V_WE_R : NODE;
V_CSX[3..0] : NODE;
V_EN[3..0] : NODE;
F_WR : NODE;
BEGIN
DEFAULTS
WR_MODE.d = VCC; -- WR_MODE2.d = VCC; -- WR_MODE2X.d = VCC;
V_CST[].d = VCC; V_WR[] = VCC; TSN_W3.d = VCC;
V_WE.d = VCC; WR_COL.d = VCC; WR_PIC.d = VCC;
V_WET[].d = VCC;
END DEFAULTS;
ZX_COLOR[] = ZX_COL[];
-- === MOUSE counters ========
MS_X[].clk = !CT1;
CASE LCELL(CTH[5..2] == 12) IS
WHEN 0 => MS_X[] = MS_X[] + 1;
WHEN 1 => MS_X[] = (!MOUSE_X[9..0]);
END CASE;
MS_Y[].clk = !CTH5;
CASE LCELL(CTV8 & !CTV5 & CTV4) IS
WHEN 0 => MS_Y[] = MS_Y[] + 1;
WHEN 1 => MS_Y[] = (GND,!MOUSE_Y[8..0]);
END CASE;
MS_PNT = DFF(((MS_X[] == B"100000XXXX") & (MS_Y[] == B"100000XXXX")),CLK42,,);
MS_DAT.wren = GND;
MS_DAT.data[] = GND;
MS_DAT.wraddress[] = GND;
MS_DAT.wrclock = CLK42;
MS_DAT.wrclken = GND;
MS_DAT.rden = VCC;
MS_DAT.rdaddress[] = (MS_Y[3..0],MS_X[3..0]);
MS_DAT.rdclock = CLK42;
MS_DAT.rdclken = VCC;
IF MOUSE == "NO" GENERATE
MS_POINT = GND;
MS_POINT2 = GND;
ELSE GENERATE
MS_POINT = DFF((MS_PNT & MS_DAT.q0),CLK42,,);
MS_POINT2 = DFF((MS_PNT & MS_DAT.q1),CLK42,,);
END GENERATE;
-- === Sinc-counts GENERATOR ============================================
-- CT[].clrn = START_UP;
-- (,CTH[5..0].clrn,CT[5].clrn) = !COPY_SINC_H or HOR_PLACE;
-- (,CTH[5..0].prn ,CT[5].prn ) = !COPY_SINC_H or !HOR_PLACE;
-- CTV[].clrn = !COPY_SINC_V or VER_PLACE;
-- CTV[].prn = !COPY_SINC_V or !VER_PLACE;
CT[5].clrn = !COPY_SINC_H;
-- set CTH to 50 (32h)
CTH[0].clrn = !COPY_SINC_H;
CTH[1].prn = !COPY_SINC_H;
CTH[2].clrn = !COPY_SINC_H;
CTH[3].clrn = !COPY_SINC_H;
CTH[4].prn = !COPY_SINC_H;
CTH[5].prn = !COPY_SINC_H;
-- set CTV to 122h
CTV[0].clrn = !COPY_SINC_V;
CTV[1].prn = !COPY_SINC_V;
CTV[3..2].clrn = !COPY_SINC_V;
CTV[4].clrn = !COPY_SINC_V;
CTV[5].prn = !COPY_SINC_V;
CTV[7..6].clrn = !COPY_SINC_V;
CTV[8].prn = !COPY_SINC_V;
CT[5..0].clk = CLK42;
CTH[5..0].clk = CLK42;
CTV[8..0].clk = CLK42;
CT[2..0].ena = VCC;
CASE CT[2..0] IS
WHEN 0 => CT[2..0] = 1;
WHEN 1 => CT[2..0] = 2;
WHEN 2 => CT[2..0] = 4;
WHEN 3 => CT[2..0] = 4;
WHEN 4 => CT[2..0] = 5;
WHEN 5 => CT[2..0] = 6;
WHEN 6 => CT[2..0] = 0;
WHEN 7 => CT[2..0] = 0;
END CASE;
-- for remove sinc jitter
-- CT[5..3].ena = DFF(((CT0 & CT2) or (COPY_SINC_H & !CT4)),CLK42,,);
CT[5..3].ena = DFF((CT0 & CT2),CLK42,,);
CT[5..3] = CT[5..3]+1;
%
CASE CT[4..3] IS
WHEN 0 => CT[5..3] = CT[5..3]+1;
WHEN 1 => CT[5..3] = CT[5..3]+1;
WHEN 2 => CT[5..3] = CT[5..3]+1;
WHEN 3 => CT[5..3] = CT[5..3]+1;
END CASE;
%
CTH[].ena = DFF(((CT[5..2] == 15) & CT0),CLK42,,);
CTV[].ena = DFF(((CT[5..2] == 15) & CT0 & (CTH[] == 48)),CLK42,,);
IF CTH[] == 55 THEN
CTH[] = GND;
ELSE
CTH[] = CTH[] + 1;
END IF;
IF CTV[] == 319 THEN
CTV[] = GND;
ELSE
CTV[] = CTV[] + 1;
END IF;
CTF[].clk = CTV8;
CTF[] = CTF[]+1;
-- ==== Video ==========================================================
ZXS[] = ZX_PORT[5..0]; -- pages ZX Screens
ZX_SCREEN = ZX_PORT6; -- enable ZX Screen write
ZXA15 = ZX_PORT7; -- ZX A15' line
SCR128 = DIR_PORT0;
-- WR_PIX = LCELL(TSN_W3);
WR_PIX = TSN_W3;
DOUBLE.clk = CLK42; DOUBLE.ena = !E_WR; DOUBLE = DOUBLE_CAS;
VXA[].clk = CLK42; VXA[].ena = !E_WR;
VXD0[].clk = CLK42; VXD0[].ena = !E_WRD; VDO0[] = VXD0[];
VXD1[].clk = CLK42; VXD1[].ena = !E_WRD; VDO1[] = VXD1[];
VXD2[].clk = CLK42; VXD2[].ena = !E_WRD; VDO2[] = VXD2[];
VXD3[].clk = CLK42; VXD3[].ena = !E_WRD; VDO3[] = VXD3[];
-- VXD0[] = D[];
-- VXD1[] = D[];
-- VXD2[] = D[];
-- VXD3[] = D[];
(VXD0[],VXD1[]) = MDI[];
(VXD2[],VXD3[]) = MDI[];
BRD[] = DIR_PORT[7..5];
VCM[].clk = CLK42;
TSN_W3.clk = CLK42;
V_CST[].clk = CLK42;
V_WE.clk = CLK42;
V_WET[].clk = CLK42;
VLA[].clk = CLK42;
SCR_ENA.clk = CLK42;
SCR_ENA.ena = !E_WR;
SCR_ENA.d = !(VAI19 or ZX_SCREEN);
E_WRD = DFF(E_WR,CLK42,,);
E_WR = LCELL(WR or !(VAI19 or ZX_SCREEN) or !DFF(WR,CLK42,,));
-- E_WR = LCELL(WR or !DFF(WR,CLK42,,));
-- ****************************************************
IF MODE == "SPRINTER" GENERATE
-- VAI[19] - switch adress mode 1 - graf mode, 0 - spectrum mode
-- MXWE = DFF(((DFF(E_WR,CLK42,,) or SCR_ENA) & MXWE),CLK42,,V_WE);
MXWE = DFF(MXWE,CLK42,E_WR,V_WE);
IF VAI[19] THEN
-- in graf mode all 256k(512k) range
VXA[] = VAI[];
ELSE
-- in spectrum mode 8k/16k range pages
VXA[] = (GND,GND,VAI[7..0],ZXS[4..1],LCELL(ZXS0 xor ZXA15 xor VAI13),VAI[12..8]);
END IF;
-- BORD = DFF((MODE0[7..4] == 15),WR_PIC,,);
-- BLANK = DFF((BORD & MODE03 & MODE02),WR_PIC,,);
-- INTTX = DFF((BORD & MODE03 & MODE02 & MODE00),WR_PIC,,);
BORD = DFF((MODE0[7..4] == 15),LWR_COL,,);
BLANK = DFF(((BORD & MODE03 & MODE02) or DIR_PORT4),LWR_COL,,);
INTTX = DFF((BORD & MODE03 & MODE02 & MODE00),LWR_COL,,);
INTT = DFF(!(INTTX & (CTV[2..0] == 7)),CT5,,);
-- INTT = DFF((INTTX or DFF(INTTX,CT5,,)),CT5,,);
-- INTT = DFF(!(BLANK & (CTV[2..0] == 7)),CLK42,,MODE0[0]);
CASE CT[2..0] IS
WHEN B"110" => VCM[2..0].d = 5; -- 110 -> 101 6 -> 5
WHEN B"000" => VCM[2..0].d = 1; -- 000 -> 001 0 -> 1
WHEN B"001" => VCM[2..0].d = 4; -- 001 -> 100 1 -> 4
WHEN B"010" => VCM[2..0].d = 3; -- 010 -> 011 2 -> 3
WHEN B"100" => VCM[2..0].d = 2; -- 100 -> 010 4 -> 2
WHEN B"101" => VCM[2..0].d = 0; -- 101 -> 000 5 -> 0
END CASE;
CASE VCM[1..0] IS
WHEN 0 =>
VLA[].d = (BRVA[7..0],VCC,VCC,VCC,VCC,VCC,RBRVA[10..8],GND,GND);
V_CST[].d = (VCC,GND);
V_WE.d = VCC;
V_WEX.d = VCC;
TSN_W3.d = X_MODE_BOND;
%
IF VCM2 THEN
-- TSN_W3.d = X_MODE5;
TSN_W3.d = X_MODE_BOND;
-- V_CST[].d = (VCC,X_MODE5);
ELSE
TSN_W3.d = X_MODE_BOND;
-- V_CST[].d = (VCC,X_MODE_BOND);
END IF;
%
WHEN 1 =>
WR_PIC.d = !VCM2;
WR_COL.d = VCM2;
VLA[].d = SVA[];
V_CST[].d = (VCC,GND);
V_WE.d = VCC;
V_WEX.d = VCC;
WHEN 2 =>
VLA[].d = VXA[17..0];
V_CST[].d = (!VXA18,VXA18) or MXWE;
V_WE.d = MXWE;
V_WEX.d = GND;
V_WET[].d = MXWE or !((!VXA1 & !VXA0),(!VXA1 & VXA0),(VXA1 & !VXA0),(VXA1 & VXA0));
WHEN 3 =>
-- WR_PIC.d = X_MODE5;
-- NEW 26.08.2022, fix bug with first column
-- it was reproducing when changes mode 320 -> 640, like any 320px screen squares -> text mode squares
WR_PIC.d = MODE0[5];
VLA[].d = (DIR_PORT3,CTH[5..0],CT5,VCC,VCC,CTV[8..3],GND,GND);
WR_MODE.d = !(CT[5..3] == B"111") & !(CT4 & CT3 & !MODE0[5]);
V_CST[].d = (VCC,GND);
V_WE.d = VCC;
V_WEX.d = VCC;
END CASE;
-- choose V-RAM komplect
V_CST1.prn = GND;
-- V_CS0.clrn = GND;
V_CST0.prn = (LCELL(DFF(GND,!CLK42,,!V_CST0)));
V_CS1 = VCC;
-- V_CS0 = LCELL(V_CST0);
V_CSX0 = LCELL(!CLK42);
V_CSX1 = LCELL(V_CSX0);
V_CSX2 = LCELL(V_CSX1 & V_CSX0);
V_CSX3 = LCELL(V_CSX2);
-- V_CS0 = V_CSX3;
V_CS0 = GND;
-- =====================
SVA[].clk = CLK42;
SVA[9..6] = MODE0[3..0];
-- RSVA[].clk = CLK42;
(SVA[12..10],SVA[5..0]) = RSVA[];
-- M_CTV[2..0].clk = CLK42;
-- M_CT[5..3].clk = CLK42;
M_CTV[2..0] = (!MODE2[2] & CTV[2..0]) or MODE2[2] & (MODE2[1],CTV[2..1]);
M_CT[5..3] = (!MODE2[2] & (CT[5],!CT[4..3])) or MODE2[2] & (MODE2[0],!CT[5..4]);
CASE (!VCM2,MODE0[4]) IS
-- CASE (!VCM1,MODE0[4]) IS
WHEN B"X0" =>
-- Graf adress --
RSVA[] = (M_CTV[2..0],MODE1[2..0],M_CT[5..3]);
SVA[17..13] = MODE1[7..3];
-- SVA[12..10] = CTV[2..0];
-- SVA[5..0] = (MODE1[2..0],CT5,!CT[4..3]);
WHEN B"01" =>
-- ZX-atr adress --
RSVA[] = (MODE2[2..0],SCR128,VCC,VCC,GND,!MODE0[7..6]);
SVA[17..13] = MODE2[7..3];
-- SVA[12..10] = MODE2[2..0];
-- SVA[5..0] = (SCR128,VCC,VCC,GND,!MODE0[7..6]);
WHEN B"11" =>
-- ZX-pic adress --
RSVA[] = (MODE1[2..0],SCR128,MODE0[7..6],CTV2,!CTV1,!CTV0);
SVA[17..13] = MODE1[7..3];
-- SVA[12..10] = MODE1[2..0];
-- SVA[5..0] = (SCR128,MODE0[7..6],CTV2,!CTV1,!CTV0);
END CASE;
-- X_MODE_BOND = LCELL(LCELL(DCOL[7..4] == 15) & LCELL(DCOL[3..0] == 15) & DFF((MODE0[7] & MODE0[5] & !MODE0[4]),LWR_COL,VCC,VCC));
X_MODE_BOND = GND;
-- LD_PIC = LCELL((MODE0[5] & DFF((CT[5..3] == B"000"),CLK42,,)) or (!MODE0[5] & DFF((CT[4..2] == B"000"),CLK42,,)));
LD_PIC = LCELL((MODE0[5] & DFF((CT[5..3] == B"000"),CLK42,,)) or (!MODE0[5] & DFF((CT[4..2] == B"000"),CLK42,,)));
-- CASE (DFF(VLA1,!CLK42,,),DFF(VLA0,!CLK42,,)) IS
-- D_PIC0_[].clk = !CLK42;
-- D_PIC1_[].clk = !CLK42;
-- D_PIC2_[].clk = !CLK42;
-- D_PIC3_[].clk = !CLK42;
-- PIC_CLK = LCELL(LCELL(CLK42));
PIC_CLK = !CLK42;
D_PIC0_[].clk = PIC_CLK;
D_PIC1_[].clk = PIC_CLK;
D_PIC2_[].clk = PIC_CLK;
D_PIC3_[].clk = PIC_CLK;
D_PIC0_[] = VDM0[];
D_PIC1_[] = VDM1[];
D_PIC2_[] = VDM2[];
D_PIC3_[] = VDM3[];
CASE (DFF(VLA1,CLK42,,),DFF(VLA0,CLK42,,)) IS
WHEN 0 => D_PICX_[] = D_PIC0_[];
WHEN 1 => D_PICX_[] = D_PIC1_[];
WHEN 2 => D_PICX_[] = D_PIC2_[];
WHEN 3 => D_PICX_[] = D_PIC3_[];
END CASE;
MODE0[].ena = VCC;
MODE1[].ena = VCC;
MODE2[].ena = VCC;
MODE0[].clk = LWR_MODE;
MODE1[].clk = LWR_MODE;
MODE2[].clk = LWR_MODE;
MODE0[].d = VDM3[];
MODE1[].d = VDM2[];
MODE2[].d = VDM1[];
LWR_MODE = LCELL(LCELL(WR_MODE));
%
MODE0[].ena = LWR_MODE;
MODE1[].ena = LWR_MODE;
MODE2[].ena = LWR_MODE;
MODE0[].clk = CLK42;
MODE1[].clk = CLK42;
MODE2[].clk = CLK42;
MODE0[].d = D_PIC3_[];
MODE1[].d = D_PIC2_[];
MODE2[].d = D_PIC1_[];
LWR_MODE = DFF(!WR_MODE,CLK42,,);
%
X_MODE7 = DFF(MODE0[7],LWR_COL,,);
X_MODE6 = DFF(MODE0[6],LWR_COL,,);
X_MODE5 = DFF(MODE0[5],LWR_COL,,);
X_MODE4 = DFF(MODE0[4],LWR_COL,,);
VAO[] = VLA[17..2];
WR_PIC.clk = CLK42;
WR_COL.clk = CLK42;
WR_MODE.clk = CLK42;
-- LWR_PIC = LCELL(LCELL(WR_PIC));
-- LWR_COL = LCELL(LCELL(WR_COL));
-- LWR_PIC = LCELL(WR_PIC);
-- LWR_COL = LCELL(WR_COL);
LWR_PIC = DFF(WR_PIC,CLK42,,);
LWR_COL = DFF(WR_COL,CLK42,,);
-- D_PIC0[].ena = VCC;
-- D_PIC0[].clk = (LWR_PIC);
D_PIC0[].ena = !LWR_PIC;
D_PIC0[].clk = CLK42;
IF LD_PIC THEN
-- D_PIC0[] = D_PIC0_[];
D_PIC0[] = D_PICX_[];
ELSE
D_PIC0[] = (D_PIC0[6..0],GND);
END IF;
-- DCOL[].clk = (LWR_COL);
DCOL[].ena = !LWR_COL;
DCOL[].clk = CLK42;
IF DFF((MODE0[7..4] == 15),WR_PIC,,) THEN
DCOL[].d = (B"00",BRD[2..0],BRD[2..0]);
ELSE
-- DCOL[].d = D_PIC0_[];
DCOL[].d = D_PICX_[];
END IF;
DCOL[].clrn = !BLANK;
BRVA[].clk = CLK42;
BRVA[].clrn = !MS_POINT;
BRVA[].prn = !MS_POINT2;
-- MODE0[4] - graph / text
-- MODE0[5] - 320 / 640 resolution
-- CASE (LCELL(X_MODE4 or X_MODE5),CT2) IS
CASE (DFF((MODE0[4] or MODE0[5]),LWR_COL,,),CT2) IS
WHEN B"1X" => BRVA[7..0] = DCOL[];
WHEN B"01" => BRVA[7..0] = (B"0000",DCOL[7..4]);
WHEN B"00" => BRVA[7..0] = (B"0000",DCOL[3..0]);
END CASE;
-- BRVA[10..8] = (x_mode4,RBRVA[9..8]);
RBRVA[].clk = CLK42;
CASE (BORD,X_MODE4) IS
WHEN B"X0" => RBRVA[10..8].d = (GND,X_MODE[7..6]);
WHEN B"X1" => RBRVA[10..8].d = (VCC,(CTF4 & !BLANK),D_PIC0[7]);
END CASE;
RBRVA[9..8].clrn = !BORD;
RBRVA[10].prn = !BORD;
CASE (RBRVA[9..8],BRVA7) IS
WHEN 0,1,4,7 => ZX_COL[] = (BRVA[6],BRVA[5..3]);
WHEN 2,3,6,5 => ZX_COL[] = (BRVA[6],BRVA[2..0]);
END CASE;
-- V_WET[].prn = LCELL(DFF(GND,!CLK42,,!V_WE));
-- V_WE.prn = LCELL(DFF(GND,!CLK42,,!V_WE));
V_WE_R = DFF(GND,!CLK42,,!V_WE);
V_WE.prn = V_WE_R;
V_WET[].prn = V_WE_R;
-- V_WR[] = LCELL(V_WE) or !((!VXA1 & !VXA0),(!VXA1 & VXA0),(VXA1 & !VXA0),(VXA1 & VXA0));
-- V_WR[] = (V_WE) or !(
V_WEX.clk = CLK42;
-- V_WEX.d = V_WE;
-- V_WEX.prn = (DFF(GND,CLK42,,!V_WEX));
V_WEMMM = LCELL(V_WE);
-- V_WEMMN = LCELL(V_WEMMM); -- bios ok, fn ok, fnf1 failed, zx almost ok
-- V_WEMMO = LCELL(V_WEMMN); -- green arts
-- V_WEMMP = LCELL(V_WEMMO); -- blue + pink arts
-- V_WEMMR = LCELL(V_WEMMP); -- no F1 issue, but red arts (fix by finger, not enough capacity??)
-- V_WEMMS = LCELL(V_WEMMR);
-- V_WEMMT = LCELL(V_WEMMS);
-- V_WEMMU = LCELL(V_WEMMT);
-- V_WEMMV = LCELL(V_WEMMU);
-- V_WEMMW = LCELL(V_WEMMV);
-- V_WEMMX = LCELL(V_WEMMW);
-- V_WEMMY = LCELL(V_WEMMX);
-- V_WEMMZ = LCELL(V_WEMMY);
V_WRM = LCELL(V_WE or V_WEMMM);
-- V_WRM = LCELL(V_WEMMN or V_WEMMM);
-- V_WRM2 = LCELL(V_WEMMN or V_WEMMM);
-- V_WRM2 = LCELL(V_WEMMR);
-- V_WRM = LCELL(V_WEMMM or V_WEMMN);
-- V_WRM2 = LCELL(V_WEMMM or V_WEMMN);
V_WEM = (V_WE);
-- V_WEM2 = LCELL(V_WE);
-- V_WEM = LCELL(V_WEMMM & V_WEMMN);
-- V_WEM2 = LCELL(V_WEMMM & V_WEMMO);
--- LWR_COL = DFF(WR_COL,CLK42,,);
F_WR = ((LCELL(LCELL(LCELL(DFF(VCC,V_WE,,))))));
--- F_WR = DFF(V_WE,CLK42,,);
-- V_WEMMZ = LCELL(CLK42);
V_EN3 = (DFF(!(!VXA1 & (!VXA0 or DOUBLE)), CLK42, F_WR,));
V_EN2 = (DFF(!(!VXA1 & (VXA0 or DOUBLE)), CLK42, F_WR,));
V_EN1 = (DFF(!(VXA1 & (!VXA0 or DOUBLE)), CLK42, F_WR,));
V_EN0 = (DFF(!(VXA1 & (VXA0 or DOUBLE)), CLK42, F_WR,));
-- V_WR_3 = LCELL(V_WRM or V_EN3);
-- V_WR_2 = LCELL(V_WRM or V_EN2);
-- V_WR_1 = LCELL(V_WRM or V_EN1);
-- V_WR_0 = LCELL(V_WRM or V_EN0);
V_WR_3 = (LCELL(LCELL(LCELL(V_WRM or V_EN3))));
V_WR_2 = (LCELL(LCELL(LCELL(V_WRM or V_EN2))));
V_WR_1 = (LCELL(LCELL(LCELL(V_WRM or V_EN1))));
V_WR_0 = (LCELL(LCELL(LCELL(V_WRM or V_EN0))));
V_WEY3 = LCELL(V_WE or V_EN3);
V_WEY2 = LCELL(V_WE or V_EN2);
V_WEY1 = LCELL(V_WE or V_EN1);
V_WEY0 = LCELL(V_WE or V_EN0);
V_WR[] = V_WR_[]; -- V_WR0-3
V_WEN[] = V_WEY[]; -- VD0-3
%
V_WEMMM = LCELL(V_WE);
V_WEMMN = LCELL(V_WEMMM);
V_WEMMO = LCELL(V_WEMMN);
V_WEMM = LCELL(V_WEMMO);
V_WRM = LCELL(V_WEMMN & V_WEMMM);
V_WRM2 = LCELL(V_WEMMN & V_WEMMM);
V_WEM = LCELL(V_WEMMM & V_WEMMO);
V_WEM2 = LCELL(V_WEMMM & V_WEMMO);
V_EN3 = DFF(!(!VXA1 & (!VXA0 or DOUBLE)),CLK42,F_WR,);
V_EN2 = DFF(!(!VXA1 & (VXA0 or DOUBLE)) ,CLK42,F_WR,);
V_EN1 = DFF(!(VXA1 & (!VXA0 or DOUBLE)) ,CLK42,F_WR,);
V_EN0 = DFF(!(VXA1 & (VXA0 or DOUBLE)) ,CLK42,F_WR,);
F_WR = DFF(VCC,V_WE,,);
V_WR_3 = V_WRM or V_EN3;
V_WR_2 = V_WRM2 or V_EN2;
V_WR_1 = V_WRM or V_EN1;
V_WR_0 = V_WRM or V_EN0;
V_WEY3 = V_WEM or V_EN3;
V_WEY2 = V_WEM2 or V_EN2;
V_WEY1 = V_WEM or V_EN1;
V_WEY0 = V_WEM or V_EN0;
V_WR[] = V_WR_[];
V_WEN[] = V_WEY[];
%
-- CLK84 = LCELL(CLK42 xor CLK84_X);
-- CLK84_X = DFF(!CLK84_X,CLK84,,);
-- CLK84_Y = CLK84;
END GENERATE; -- end "sprinter" mode
END;

View File

@ -1,708 +0,0 @@
TITLE "Video-controller";
INCLUDE "lpm_ram_dp";
PARAMETERS
(
MODE = "SPRINTER",
MOUSE = "NO",
HOR_PLACE = H"50",
VER_PLACE = H"91" -- 122h/2
);
SUBDESIGN video2
(
CLK42 : INPUT;
CT[5..0] : OUTPUT;
CTH[5..0] : OUTPUT;
CTV[8..0] : OUTPUT;
CTF[6..0] : OUTPUT;
BLANK : OUTPUT;
START_UP : INPUT;
COPY_SINC_H : INPUT;
COPY_SINC_V : INPUT;
WR : INPUT;
VAI[19..0] : INPUT; -- input screen adress
VAO[15..0] : OUTPUT;
D[7..0] : INPUT;
MDI[15..0] : INPUT;
VDO0[7..0] : OUTPUT;
VDO1[7..0] : OUTPUT;
VDO2[7..0] : OUTPUT;
VDO3[7..0] : OUTPUT;
VDM0[7..0] : INPUT;
VDM1[7..0] : INPUT;
VDM2[7..0] : INPUT;
VDM3[7..0] : INPUT;
V_WR[3..0] : OUTPUT;
V_WEN[3..0] : OUTPUT;
V_CS[1..0] : OUTPUT;
WR_PIX : OUTPUT;
-- ZX_COLOR[3..0] : OUTPUT;
ZX_PORT[7..0] : INPUT;
DIR_PORT[7..0] : INPUT;
%
bit0 - Spectrum SCREEN Switch
bit1 - Spectrum Adress MODE
bit2 - Write to Spectrum Screen OFF
bit3 - MODE page 0/1
bit4 - MODE on/off screen
bit7..5 - Border
%
INTT : OUTPUT;
DOUBLE_CAS : INPUT;
MOUSE_X[9..0] : INPUT;
MOUSE_Y[9..0] : INPUT;
)
VARIABLE
CLK84 : NODE;
CLK84_X : NODE;
CLK84_Y : NODE;
ZX_COLOR[3..0] : NODE;
CT[5..0] : DFFE;
CTH[5..0] : DFFE;
CTV[8..0] : DFFE;
CTF[6..0] : DFF;
VXA[19..0] : DFFE;
VXD0[7..0] : DFFE;
VXD1[7..0] : DFFE;
VXD2[7..0] : DFFE;
VXD3[7..0] : DFFE;
E_WR : NODE;
E_WRD : NODE;
BLANK : NODE;
BORD : NODE;
-- INTT_T : NODE;
INTTX : NODE;
VLA[17..0] : DFF;
-- SVA[17..0] : NODE;
SVA[17..0] : DFF;
-- RSVA[8..0] : LCELL;
RSVA[8..0] : NODE;
-- RSVA[8..0] : DFF;
V_CST[1..0] : DFF;
VCM[2..0] : DFF;
TSN_W3 : DFF;
V_WE : DFF;
V_WEX : DFF;
V_WEM : NODE;
V_WEM1 : NODE;
V_WEM2 : NODE;
V_WEM3 : NODE;
V_WRM : NODE;
V_WRM1 : NODE;
V_WRM2 : NODE;
V_WRM3 : NODE;
V_WEMM : NODE;
V_WEMMM : NODE;
V_WEMMN : NODE;
V_WEMMO : NODE;
V_WEMMP : NODE;
V_WEMMQ : NODE;
V_WEMMR : NODE;
V_WEMMS : NODE;
V_WEMMT : NODE;
V_WEMMU : NODE;
V_WEMMV : NODE;
V_WEMMW : NODE;
V_WEMMX : NODE;
V_WEMMY : NODE;
V_WEMMZ : NODE;
V_WET[3..0] : DFF;
D_PIC0[7..0] : DFFE;
-- D_PIC0_[7..0] : LCELL;
D_PIC0_[7..0] : DFFE;
D_PIC1_[7..0] : DFFE;
D_PIC2_[7..0] : DFFE;
D_PIC3_[7..0] : DFFE;
D_PICX_[7..0] : NODE;
LWR_PIC : NODE;
LWR_COL : NODE;
WR_PIC : DFF;
WR_COL : DFF;
LD_PIC : NODE;
RBRVA[10..8]: DFF;
BRVA[7..0] : DFF;
DCOL[7..0] : DFFE;
MXWE : NODE;
-- MXCE : NODE;
AX128 : NODE;
BRD[2..0] : NODE;
ZX_COL[3..0] : LCELL;
ZXA15 : NODE;
ZXS[5..0] : NODE;
ZX_SCREEN : NODE;
SCR128 : NODE;
MODE0[7..0] : DFFE;
MODE1[7..0] : DFFE;
MODE2[7..0] : DFFE;
-- MODE3[7..0] : DFF;
WR_MODE : DFF;
LWR_MODE : NODE;
X_MODE[7..4]: NODE;
X_MODE_BOND : NODE;
-- M_CTV[2..0] : DFF;
-- M_CT[5..3] : DFF;
M_CTV[2..0] : LCELL;
M_CT[5..3] : LCELL;
DOUBLE : DFFE;
PIC_CLK : NODE;
MS_X[9..0] : DFF;
MS_Y[9..0] : DFF;
MS_POINT : NODE;
MS_POINT2 : NODE;
MS_PNT : NODE;
MS_DAT : LPM_RAM_DP WITH (LPM_WIDTH=16,LPM_WIDTHAD=8,LPM_FILE="MOUSE.MIF");
SCR_ENA : DFFE;
V_WR_[3..0] : LCELL;
V_WEY[3..0] : LCELL;
V_WE_R : NODE;
V_CSX[3..0] : NODE;
V_EN[3..0] : NODE;
F_WR : NODE;
BEGIN
DEFAULTS
WR_MODE.d = VCC; -- WR_MODE2.d = VCC; -- WR_MODE2X.d = VCC;
V_CST[].d = VCC; V_WR[] = VCC; TSN_W3.d = VCC;
V_WE.d = VCC; WR_COL.d = VCC; WR_PIC.d = VCC;
V_WET[].d = VCC;
END DEFAULTS;
ZX_COLOR[] = ZX_COL[];
-- === MOUSE counters ========
MS_X[].clk = !CT1;
CASE LCELL(CTH[5..2] == 12) IS
WHEN 0 => MS_X[] = MS_X[] + 1;
WHEN 1 => MS_X[] = (!MOUSE_X[9..0]);
END CASE;
MS_Y[].clk = !CTH5;
CASE LCELL(CTV8 & !CTV5 & CTV4) IS
WHEN 0 => MS_Y[] = MS_Y[] + 1;
WHEN 1 => MS_Y[] = (GND,!MOUSE_Y[8..0]);
END CASE;
MS_PNT = DFF(((MS_X[] == B"100000XXXX") & (MS_Y[] == B"100000XXXX")),CLK42,,);
MS_DAT.wren = GND;
MS_DAT.data[] = GND;
MS_DAT.wraddress[] = GND;
MS_DAT.wrclock = CLK42;
MS_DAT.wrclken = GND;
MS_DAT.rden = VCC;
MS_DAT.rdaddress[] = (MS_Y[3..0],MS_X[3..0]);
MS_DAT.rdclock = CLK42;
MS_DAT.rdclken = VCC;
IF MOUSE == "NO" GENERATE
MS_POINT = GND;
MS_POINT2 = GND;
ELSE GENERATE
MS_POINT = DFF((MS_PNT & MS_DAT.q0),CLK42,,);
MS_POINT2 = DFF((MS_PNT & MS_DAT.q1),CLK42,,);
END GENERATE;
-- === Sinc-counts GENERATOR ============================================
-- CT[].clrn = START_UP;
-- (,CTH[5..0].clrn,CT[5].clrn) = !COPY_SINC_H or HOR_PLACE;
-- (,CTH[5..0].prn ,CT[5].prn ) = !COPY_SINC_H or !HOR_PLACE;
-- CTV[].clrn = !COPY_SINC_V or VER_PLACE;
-- CTV[].prn = !COPY_SINC_V or !VER_PLACE;
CT[5].clrn = !COPY_SINC_H;
-- set CTH to 50 (32h)
CTH[0].clrn = !COPY_SINC_H;
CTH[1].prn = !COPY_SINC_H;
CTH[2].clrn = !COPY_SINC_H;
CTH[3].clrn = !COPY_SINC_H;
CTH[4].prn = !COPY_SINC_H;
CTH[5].prn = !COPY_SINC_H;
-- set CTV to 122h
CTV[0].clrn = !COPY_SINC_V;
CTV[1].prn = !COPY_SINC_V;
CTV[3..2].clrn = !COPY_SINC_V;
CTV[4].clrn = !COPY_SINC_V;
CTV[5].prn = !COPY_SINC_V;
CTV[7..6].clrn = !COPY_SINC_V;
CTV[8].prn = !COPY_SINC_V;
CT[5..0].clk = CLK42;
CTH[5..0].clk = CLK42;
CTV[8..0].clk = CLK42;
CT[2..0].ena = VCC;
CASE CT[2..0] IS
WHEN 0 => CT[2..0] = 1;
WHEN 1 => CT[2..0] = 2;
WHEN 2 => CT[2..0] = 4;
WHEN 3 => CT[2..0] = 4;
WHEN 4 => CT[2..0] = 5;
WHEN 5 => CT[2..0] = 6;
WHEN 6 => CT[2..0] = 0;
WHEN 7 => CT[2..0] = 0;
END CASE;
-- for remove sinc jitter
-- CT[5..3].ena = DFF(((CT0 & CT2) or (COPY_SINC_H & !CT4)),CLK42,,);
CT[5..3].ena = DFF((CT0 & CT2),CLK42,,);
CT[5..3] = CT[5..3]+1;
%
CASE CT[4..3] IS
WHEN 0 => CT[5..3] = CT[5..3]+1;
WHEN 1 => CT[5..3] = CT[5..3]+1;
WHEN 2 => CT[5..3] = CT[5..3]+1;
WHEN 3 => CT[5..3] = CT[5..3]+1;
END CASE;
%
CTH[].ena = DFF(((CT[5..2] == 15) & CT0),CLK42,,);
CTV[].ena = DFF(((CT[5..2] == 15) & CT0 & (CTH[] == 48)),CLK42,,);
IF CTH[] == 55 THEN
CTH[] = GND;
ELSE
CTH[] = CTH[] + 1;
END IF;
IF CTV[] == 319 THEN
CTV[] = GND;
ELSE
CTV[] = CTV[] + 1;
END IF;
CTF[].clk = CTV8;
CTF[] = CTF[]+1;
-- ==== Video ==========================================================
ZXS[] = ZX_PORT[5..0]; -- pages ZX Screens
ZX_SCREEN = ZX_PORT6; -- enable ZX Screen write
ZXA15 = ZX_PORT7; -- ZX A15' line
SCR128 = DIR_PORT0;
-- WR_PIX = LCELL(TSN_W3);
WR_PIX = (TSN_W3);
DOUBLE.clk = CLK42; DOUBLE.ena = !E_WR; DOUBLE = DOUBLE_CAS;
VXA[].clk = CLK42; VXA[].ena = !E_WR;
VXD0[].clk = CLK42; VXD0[].ena = !E_WRD; VDO0[] = VXD0[];
VXD1[].clk = CLK42; VXD1[].ena = !E_WRD; VDO1[] = VXD1[];
VXD2[].clk = CLK42; VXD2[].ena = !E_WRD; VDO2[] = VXD2[];
VXD3[].clk = CLK42; VXD3[].ena = !E_WRD; VDO3[] = VXD3[];
-- VXD0[] = D[];
-- VXD1[] = D[];
-- VXD2[] = D[];
-- VXD3[] = D[];
(VXD0[],VXD1[]) = MDI[];
(VXD2[],VXD3[]) = MDI[];
BRD[] = DIR_PORT[7..5];
VCM[].clk = CLK42;
TSN_W3.clk = CLK42;
V_CST[].clk = CLK42;
V_WE.clk = CLK42;
V_WET[].clk = CLK42;
VLA[].clk = CLK42;
SCR_ENA.clk = CLK42;
SCR_ENA.ena = !E_WR;
SCR_ENA.d = !(VAI19 or ZX_SCREEN);
E_WRD = DFF(E_WR,CLK42,,);
E_WR = LCELL(WR or !(VAI19 or ZX_SCREEN) or !DFF(WR,CLK42,,));
-- E_WR = LCELL(WR or !DFF(WR,CLK42,,));
-- ****************************************************
IF MODE == "SPRINTER" GENERATE
-- VAI[19] - switch adress mode 1 - graf mode, 0 - spectrum mode
-- MXWE = DFF(((DFF(E_WR,CLK42,,) or SCR_ENA) & MXWE),CLK42,,V_WE);
MXWE = DFF(MXWE,CLK42,E_WR,V_WE);
IF VAI[19] THEN
-- in graf mode all 256k(512k) range
VXA[] = VAI[];
ELSE
-- in spectrum mode 8k/16k range pages
VXA[] = (GND,GND,VAI[7..0],ZXS[4..1],LCELL(ZXS0 xor ZXA15 xor VAI13),VAI[12..8]);
END IF;
-- BORD = DFF((MODE0[7..4] == 15),WR_PIC,,);
-- BLANK = DFF((BORD & MODE03 & MODE02),WR_PIC,,);
-- INTTX = DFF((BORD & MODE03 & MODE02 & MODE00),WR_PIC,,);
BORD = DFF((MODE0[7..4] == 15),LWR_COL,,);
BLANK = DFF(((BORD & MODE03 & MODE02) or DIR_PORT4),LWR_COL,,);
INTTX = DFF((BORD & MODE03 & MODE02 & MODE00),LWR_COL,,);
INTT = DFF(!(INTTX & (CTV[2..0] == 7)),CT5,,);
-- INTT = DFF((INTTX or DFF(INTTX,CT5,,)),CT5,,);
-- INTT = DFF(!(BLANK & (CTV[2..0] == 7)),CLK42,,MODE0[0]);
CASE CT[2..0] IS
WHEN B"110" => VCM[2..0].d = 5; -- 101
WHEN B"000" => VCM[2..0].d = 1; -- 001
WHEN B"001" => VCM[2..0].d = 4; -- 100
WHEN B"010" => VCM[2..0].d = 3; -- 011
WHEN B"100" => VCM[2..0].d = 2; -- 010
WHEN B"101" => VCM[2..0].d = 0; -- 000
END CASE;
CASE VCM[1..0] IS
WHEN 0 =>
VLA[].d = (BRVA[7..0],VCC,VCC,VCC,VCC,VCC,RBRVA[10..8],GND,GND);
V_CST[].d = (VCC,GND);
V_WE.d = VCC;
V_WEX.d = VCC;
IF VCM2 THEN
-- TSN_W3.d = X_MODE5;
TSN_W3.d = X_MODE_BOND;
-- V_CST[].d = (VCC,X_MODE5);
ELSE
TSN_W3.d = X_MODE_BOND;
-- V_CST[].d = (VCC,X_MODE_BOND);
END IF;
WHEN 1 =>
WR_PIC.d = !VCM2;
WR_COL.d = VCM2;
VLA[].d = SVA[];
V_CST[].d = (VCC,GND);
V_WE.d = VCC;
V_WEX.d = VCC;
WHEN 2 =>
VLA[].d = VXA[17..0];
V_CST[].d = (!VXA18,VXA18) or MXWE;
V_WE.d = MXWE;
V_WEX.d = GND;
V_WET[].d = MXWE or !((!VXA1 & !VXA0),(!VXA1 & VXA0),(VXA1 & !VXA0),(VXA1 & VXA0));
WHEN 3 =>
WR_PIC.d = X_MODE5;
VLA[].d = (DIR_PORT3,CTH[5..0],CT5,VCC,VCC,CTV[8..3],GND,GND);
WR_MODE.d = !(CT[5..3] == B"111") & !(CT4 & CT3 & !MODE0[5]);
V_CST[].d = (VCC,GND);
V_WE.d = VCC;
V_WEX.d = VCC;
END CASE;
-- choose V-RAM komplect
V_CST1.prn = GND;
-- V_CS0.clrn = GND;
V_CST0.prn = (LCELL(DFF(GND,!CLK42,,!V_CST0)));
V_CS1 = VCC;
-- V_CS0 = LCELL(V_CST0);
V_CSX0 = LCELL(!CLK42);
V_CSX1 = LCELL(V_CSX0);
V_CSX2 = LCELL(V_CSX1 & V_CSX0);
V_CSX3 = LCELL(V_CSX2);
-- V_CS0 = V_CSX3;
V_CS0 = GND;
-- =====================
SVA[].clk = CLK42;
SVA[9..6] = MODE0[3..0];
-- RSVA[].clk = CLK42;
(SVA[12..10],SVA[5..0]) = RSVA[];
-- M_CTV[2..0].clk = CLK42;
-- M_CT[5..3].clk = CLK42;
M_CTV[2..0] = (!MODE2[2] & CTV[2..0]) or MODE2[2] & (MODE2[1],CTV[2..1]);
M_CT[5..3] = (!MODE2[2] & (CT[5],!CT[4..3])) or MODE2[2] & (MODE2[0],!CT[5..4]);
CASE (!VCM2,MODE0[4]) IS
-- CASE (!VCM1,MODE0[4]) IS
WHEN B"X0" =>
-- Graf adress --
RSVA[] = (M_CTV[2..0],MODE1[2..0],M_CT[5..3]);
SVA[17..13] = MODE1[7..3];
-- SVA[12..10] = CTV[2..0];
-- SVA[5..0] = (MODE1[2..0],CT5,!CT[4..3]);
WHEN B"01" =>
-- ZX-atr adress --
RSVA[] = (MODE2[2..0],SCR128,VCC,VCC,GND,!MODE0[7..6]);
SVA[17..13] = MODE2[7..3];
-- SVA[12..10] = MODE2[2..0];
-- SVA[5..0] = (SCR128,VCC,VCC,GND,!MODE0[7..6]);
WHEN B"11" =>
-- ZX-pic adress --
RSVA[] = (MODE1[2..0],SCR128,MODE0[7..6],CTV2,!CTV1,!CTV0);
SVA[17..13] = MODE1[7..3];
-- SVA[12..10] = MODE1[2..0];
-- SVA[5..0] = (SCR128,MODE0[7..6],CTV2,!CTV1,!CTV0);
END CASE;
-- X_MODE_BOND = LCELL(LCELL(DCOL[7..4] == 15) & LCELL(DCOL[3..0] == 15) & DFF((MODE0[7] & MODE0[5] & !MODE0[4]),LWR_COL,VCC,VCC));
X_MODE_BOND = GND;
-- LD_PIC = LCELL((MODE0[5] & DFF((CT[5..3] == B"000"),CLK42,,)) or (!MODE0[5] & DFF((CT[4..2] == B"000"),CLK42,,)));
LD_PIC = LCELL((MODE0[5] & DFF((CT[5..3] == B"000"),CLK42,,)) or (!MODE0[5] & DFF((CT[4..2] == B"000"),CLK42,,)));
-- CASE (DFF(VLA1,!CLK42,,),DFF(VLA0,!CLK42,,)) IS
-- D_PIC0_[].clk = !CLK42;
-- D_PIC1_[].clk = !CLK42;
-- D_PIC2_[].clk = !CLK42;
-- D_PIC3_[].clk = !CLK42;
-- PIC_CLK = LCELL(LCELL(CLK42));
PIC_CLK = !CLK42;
D_PIC0_[].clk = PIC_CLK;
D_PIC1_[].clk = PIC_CLK;
D_PIC2_[].clk = PIC_CLK;
D_PIC3_[].clk = PIC_CLK;
D_PIC0_[] = VDM0[];
D_PIC1_[] = VDM1[];
D_PIC2_[] = VDM2[];
D_PIC3_[] = VDM3[];
CASE (DFF(VLA1,CLK42,,),DFF(VLA0,CLK42,,)) IS
WHEN 0 => D_PICX_[] = D_PIC0_[];
WHEN 1 => D_PICX_[] = D_PIC1_[];
WHEN 2 => D_PICX_[] = D_PIC2_[];
WHEN 3 => D_PICX_[] = D_PIC3_[];
END CASE;
MODE0[].ena = VCC;
MODE1[].ena = VCC;
MODE2[].ena = VCC;
MODE0[].clk = LWR_MODE;
MODE1[].clk = LWR_MODE;
MODE2[].clk = LWR_MODE;
MODE0[].d = VDM3[];
MODE1[].d = VDM2[];
MODE2[].d = VDM1[];
LWR_MODE = LCELL(LCELL(WR_MODE));
%
MODE0[].ena = LWR_MODE;
MODE1[].ena = LWR_MODE;
MODE2[].ena = LWR_MODE;
MODE0[].clk = CLK42;
MODE1[].clk = CLK42;
MODE2[].clk = CLK42;
MODE0[].d = D_PIC3_[];
MODE1[].d = D_PIC2_[];
MODE2[].d = D_PIC1_[];
LWR_MODE = DFF(!WR_MODE,CLK42,,);
%
X_MODE7 = DFF(MODE0[7],LWR_COL,,);
X_MODE6 = DFF(MODE0[6],LWR_COL,,);
X_MODE5 = DFF(MODE0[5],LWR_COL,,);
X_MODE4 = DFF(MODE0[4],LWR_COL,,);
VAO[] = VLA[17..2];
WR_PIC.clk = CLK42;
WR_COL.clk = CLK42;
WR_MODE.clk = CLK42;
-- LWR_PIC = LCELL(LCELL(WR_PIC));
-- LWR_COL = LCELL(LCELL(WR_COL));
-- LWR_PIC = LCELL(WR_PIC);
-- LWR_COL = LCELL(WR_COL);
LWR_PIC = DFF(WR_PIC,CLK42,,);
LWR_COL = DFF(WR_COL,CLK42,,);
-- D_PIC0[].ena = VCC;
-- D_PIC0[].clk = (LWR_PIC);
D_PIC0[].ena = !LWR_PIC;
D_PIC0[].clk = CLK42;
IF LD_PIC THEN
-- D_PIC0[] = D_PIC0_[];
D_PIC0[] = D_PICX_[];
ELSE
D_PIC0[] = (D_PIC0[6..0],GND);
END IF;
-- DCOL[].clk = (LWR_COL);
DCOL[].ena = !LWR_COL;
DCOL[].clk = CLK42;
IF DFF((MODE0[7..4] == 15),WR_PIC,,) THEN
DCOL[].d = (B"00",BRD[2..0],BRD[2..0]);
ELSE
-- DCOL[].d = D_PIC0_[];
DCOL[].d = D_PICX_[];
END IF;
DCOL[].clrn = !BLANK;
BRVA[].clk = CLK42;
BRVA[].clrn = !MS_POINT;
BRVA[].prn = !MS_POINT2;
-- CASE (LCELL(X_MODE4 or X_MODE5),CT2) IS
CASE (DFF((MODE0[4] or MODE0[5]),LWR_COL,,),CT2) IS
WHEN B"1X" => BRVA[7..0] = DCOL[];
WHEN B"01" => BRVA[7..0] = (B"0000",DCOL[7..4]);
WHEN B"00" => BRVA[7..0] = (B"0000",DCOL[3..0]);
END CASE;
-- BRVA[10..8] = (x_mode4,RBRVA[9..8]);
RBRVA[].clk = CLK42;
CASE (BORD,X_MODE4) IS
WHEN B"X0" => RBRVA[10..8].d = (GND,X_MODE[7..6]);
WHEN B"X1" => RBRVA[10..8].d = (VCC,(CTF4 & !BLANK),D_PIC0[7]);
END CASE;
RBRVA[9..8].clrn = !BORD;
RBRVA[10].prn = !BORD;
CASE (RBRVA[9..8],BRVA7) IS
WHEN 0,1,4,7 => ZX_COL[] = (BRVA[6],BRVA[5..3]);
WHEN 2,3,6,5 => ZX_COL[] = (BRVA[6],BRVA[2..0]);
END CASE;
-- V_WET[].prn = LCELL(DFF(GND,!CLK42,,!V_WE));
-- V_WE.prn = LCELL(DFF(GND,!CLK42,,!V_WE));
V_WE_R = DFF(GND,!CLK42,,!V_WE);
V_WE.prn = V_WE_R;
V_WET[].prn = V_WE_R;
-- V_WR[] = LCELL(V_WE) or !((!VXA1 & !VXA0),(!VXA1 & VXA0),(VXA1 & !VXA0),(VXA1 & VXA0));
-- V_WR[] = (V_WE) or !(
V_WEX.clk = CLK42;
-- V_WEX.d = V_WE;
-- V_WEX.prn = (DFF(GND,CLK42,,!V_WEX));
-- V_WE_R1 = LCELL(V_WE);
-- V_WEMMM = LCELL(V_WE_R1);
V_WEMMM = LCELL(V_WE);
V_WEMMN = LCELL(V_WEMMM); -- bios ok, fn ok, fnf1 failed, zx almost ok
V_WEMMO = LCELL(V_WEMMN); -- green arts
V_WEMMP = LCELL(V_WEMMO); -- blue + pink arts
V_WEMMR = LCELL(V_WEMMP); -- no F1 issue, but red arts (fix by finger, not enough capacity??)
V_WEMMS = LCELL(V_WEMMR);
-- V_WEMMT = LCELL(V_WEMMS);
-- V_WEMMU = LCELL(V_WEMMT);
-- V_WEMMV = LCELL(V_WEMMU);
-- V_WEMMW = LCELL(V_WEMMV);
-- V_WEMMX = LCELL(V_WEMMW);
-- V_WEMMY = LCELL(V_WEMMX);
-- V_WEMMZ = LCELL(V_WEMMY);
V_WRM = LCELL(V_WEMMN or V_WEMMM);
-- V_WRM2 = LCELL(V_WEMMR);
-- V_WRM = LCELL(V_WEMMM or V_WEMMN);
-- V_WRM2 = LCELL(V_WEMMM or V_WEMMN);
V_WEM = LCELL(V_WE);
-- V_WEM2 = LCELL(V_WE);
-- V_WEM = LCELL(V_WEMMM & V_WEMMN);
-- V_WEM2 = LCELL(V_WEMMM & V_WEMMO);
F_WR = DFF(VCC,V_WE,,);
V_EN3 = DFF(!(!VXA1 & (!VXA0 or DOUBLE)), CLK42, F_WR,);
V_EN2 = DFF(!(!VXA1 & (VXA0 or DOUBLE)), CLK42, F_WR,);
V_EN1 = DFF(!(VXA1 & (!VXA0 or DOUBLE)), CLK42, F_WR,);
V_EN0 = DFF(!(VXA1 & (VXA0 or DOUBLE)), CLK42, F_WR,);
V_WR_3 = (V_WRM or V_EN3);
V_WR_2 = (V_WRM or V_EN2);
V_WR_1 = (V_WRM or V_EN1);
V_WR_0 = (V_WRM or V_EN0);
V_WEY3 = V_WEM or V_EN3;
V_WEY2 = V_WEM or V_EN2;
V_WEY1 = V_WEM or V_EN1;
V_WEY0 = V_WEM or V_EN0;
V_WR[] = V_WR_[];
V_WEN[] = V_WEY[];
-- CLK84 = LCELL(CLK42 xor CLK84_X);
-- CLK84_X = DFF(!CLK84_X,CLK84,,);
-- CLK84_Y = CLK84;
END GENERATE; -- end "sprinter" mode
END;

View File

@ -1,773 +0,0 @@
TITLE "Video-controller";
INCLUDE "lpm_ram_dp";
PARAMETERS
(
MODE = "SPRINTER",
MOUSE = "NO",
HOR_PLACE = H"50",
VER_PLACE = H"91" -- 122h/2
);
SUBDESIGN video2
(
CLK42 : INPUT;
CT[5..0] : OUTPUT;
CTH[5..0] : OUTPUT;
CTV[8..0] : OUTPUT;
CTF[6..0] : OUTPUT;
BLANK : OUTPUT;
START_UP : INPUT;
COPY_SINC_H : INPUT;
COPY_SINC_V : INPUT;
WR : INPUT;
VAI[19..0] : INPUT; -- input screen adress
VAO[15..0] : OUTPUT;
D[7..0] : INPUT;
MDI[15..0] : INPUT;
VDO0[7..0] : OUTPUT;
VDO1[7..0] : OUTPUT;
VDO2[7..0] : OUTPUT;
VDO3[7..0] : OUTPUT;
VDM0[7..0] : INPUT;
VDM1[7..0] : INPUT;
VDM2[7..0] : INPUT;
VDM3[7..0] : INPUT;
V_WR[3..0] : OUTPUT;
V_WEN[3..0] : OUTPUT;
V_CS[1..0] : OUTPUT;
WR_PIX : OUTPUT;
-- ZX_COLOR[3..0] : OUTPUT;
ZX_PORT[7..0] : INPUT;
DIR_PORT[7..0] : INPUT;
%
bit0 - Spectrum SCREEN Switch
bit1 - Spectrum Adress MODE
bit2 - Write to Spectrum Screen OFF
bit3 - MODE page 0/1
bit4 - MODE on/off screen
bit7..5 - Border
%
INTT : OUTPUT;
DOUBLE_CAS : INPUT;
MOUSE_X[9..0] : INPUT;
MOUSE_Y[9..0] : INPUT;
)
VARIABLE
-- CLK84 : NODE;
-- CLK84_X : NODE;
-- CLK84_Y : NODE;
ZX_COLOR[3..0] : NODE;
CT[5..0] : DFFE;
CTH[5..0] : DFFE;
CTV[8..0] : DFFE;
CTF[6..0] : DFF;
VXA[19..0] : DFFE;
VXD0[7..0] : DFFE;
VXD1[7..0] : DFFE;
VXD2[7..0] : DFFE;
VXD3[7..0] : DFFE;
E_WR : NODE;
E_WRD : NODE;
BLANK : NODE;
BORD : NODE;
-- INTT_T : NODE;
INTTX : NODE;
VLA[17..0] : DFF;
-- SVA[17..0] : NODE;
SVA[17..0] : DFF;
-- RSVA[8..0] : LCELL;
RSVA[8..0] : NODE;
-- RSVA[8..0] : DFF;
V_CST[1..0] : DFF;
VCM[2..0] : DFF;
TSN_W3 : DFF;
V_WE : DFF;
V_WEX : DFF;
V_WEM : NODE;
V_WEM2 : NODE;
V_WRM : NODE;
V_WRM2 : NODE;
%
V_WEMM : NODE;
V_WEMMM : NODE;
V_WEMMN : NODE;
V_WEMMO : NODE;
%
V_WEMM : NODE;
V_WEMMM : NODE;
V_WEMMN : NODE;
V_WEMMO : NODE;
V_WEMMP : NODE;
V_WEMMQ : NODE;
V_WEMMR : NODE;
V_WEMMS : NODE;
V_WEMMT : NODE;
V_WEMMU : NODE;
V_WEMMV : NODE;
V_WEMMW : NODE;
V_WEMMX : NODE;
V_WEMMY : NODE;
V_WEMMZ : NODE;
V_WET[3..0] : DFF;
D_PIC0[7..0] : DFFE;
-- D_PIC0_[7..0] : LCELL;
D_PIC0_[7..0] : DFFE;
D_PIC1_[7..0] : DFFE;
D_PIC2_[7..0] : DFFE;
D_PIC3_[7..0] : DFFE;
D_PICX_[7..0] : NODE;
LWR_PIC : NODE;
LWR_COL : NODE;
WR_PIC : DFF;
WR_COL : DFF;
LD_PIC : NODE;
MXL: NODE;
MXR: NODE;
RBRVA[10..8]: DFF;
BRVA[7..0] : DFF;
DCOL[7..0] : DFFE;
MXWE : NODE;
-- MXCE : NODE;
AX128 : NODE;
BRD[2..0] : NODE;
ZX_COL[3..0] : LCELL;
ZXA15 : NODE;
ZXS[5..0] : NODE;
ZX_SCREEN : NODE;
SCR128 : NODE;
MODE0[7..0] : DFFE;
MODE1[7..0] : DFFE;
MODE2[7..0] : DFFE;
-- MODE3[7..0] : DFF;
WR_MODE : DFF;
LWR_MODE : NODE;
X_MODE[7..4]: NODE;
X_MODE_BOND : NODE;
-- M_CTV[2..0] : DFF;
-- M_CT[5..3] : DFF;
M_CTV[2..0] : LCELL;
M_CT[5..3] : LCELL;
DOUBLE : DFFE;
PIC_CLK : NODE;
MS_X[9..0] : DFF;
MS_Y[9..0] : DFF;
MS_POINT : NODE;
MS_POINT2 : NODE;
MS_PNT : NODE;
MS_DAT : LPM_RAM_DP WITH (LPM_WIDTH=16,LPM_WIDTHAD=8,LPM_FILE="MOUSE.MIF");
SCR_ENA : DFFE;
V_WR_[3..0] : LCELL;
V_WEY[3..0] : LCELL;
V_WE_R : NODE;
V_CSX[3..0] : NODE;
V_EN[3..0] : NODE;
F_WR : NODE;
BEGIN
DEFAULTS
WR_MODE.d = VCC; -- WR_MODE2.d = VCC; -- WR_MODE2X.d = VCC;
V_CST[].d = VCC; V_WR[] = VCC; TSN_W3.d = VCC;
V_WE.d = VCC; WR_COL.d = VCC; WR_PIC.d = VCC;
V_WET[].d = VCC;
END DEFAULTS;
ZX_COLOR[] = ZX_COL[];
-- === MOUSE counters ========
MS_X[].clk = !CT1;
CASE LCELL(CTH[5..2] == 12) IS
WHEN 0 => MS_X[] = MS_X[] + 1;
WHEN 1 => MS_X[] = (!MOUSE_X[9..0]);
END CASE;
MS_Y[].clk = !CTH5;
CASE LCELL(CTV8 & !CTV5 & CTV4) IS
WHEN 0 => MS_Y[] = MS_Y[] + 1;
WHEN 1 => MS_Y[] = (GND,!MOUSE_Y[8..0]);
END CASE;
MS_PNT = DFF(((MS_X[] == B"100000XXXX") & (MS_Y[] == B"100000XXXX")),CLK42,,);
MS_DAT.wren = GND;
MS_DAT.data[] = GND;
MS_DAT.wraddress[] = GND;
MS_DAT.wrclock = CLK42;
MS_DAT.wrclken = GND;
MS_DAT.rden = VCC;
MS_DAT.rdaddress[] = (MS_Y[3..0],MS_X[3..0]);
MS_DAT.rdclock = CLK42;
MS_DAT.rdclken = VCC;
IF MOUSE == "NO" GENERATE
MS_POINT = GND;
MS_POINT2 = GND;
ELSE GENERATE
MS_POINT = DFF((MS_PNT & MS_DAT.q0),CLK42,,);
MS_POINT2 = DFF((MS_PNT & MS_DAT.q1),CLK42,,);
END GENERATE;
-- === Sinc-counts GENERATOR ============================================
-- CT[].clrn = START_UP;
-- (,CTH[5..0].clrn,CT[5].clrn) = !COPY_SINC_H or HOR_PLACE;
-- (,CTH[5..0].prn ,CT[5].prn ) = !COPY_SINC_H or !HOR_PLACE;
-- CTV[].clrn = !COPY_SINC_V or VER_PLACE;
-- CTV[].prn = !COPY_SINC_V or !VER_PLACE;
CT[5].clrn = !COPY_SINC_H;
-- set CTH to 50 (32h)
CTH[0].clrn = !COPY_SINC_H;
CTH[1].prn = !COPY_SINC_H;
CTH[2].clrn = !COPY_SINC_H;
CTH[3].clrn = !COPY_SINC_H;
CTH[4].prn = !COPY_SINC_H;
CTH[5].prn = !COPY_SINC_H;
-- set CTV to 122h
CTV[0].clrn = !COPY_SINC_V;
CTV[1].prn = !COPY_SINC_V;
CTV[3..2].clrn = !COPY_SINC_V;
CTV[4].clrn = !COPY_SINC_V;
CTV[5].prn = !COPY_SINC_V;
CTV[7..6].clrn = !COPY_SINC_V;
CTV[8].prn = !COPY_SINC_V;
CT[5..0].clk = CLK42;
CTH[5..0].clk = CLK42;
CTV[8..0].clk = CLK42;
CT[2..0].ena = VCC;
CASE CT[2..0] IS
WHEN 0 => CT[2..0] = 1;
WHEN 1 => CT[2..0] = 2;
WHEN 2 => CT[2..0] = 4;
WHEN 3 => CT[2..0] = 4;
WHEN 4 => CT[2..0] = 5;
WHEN 5 => CT[2..0] = 6;
WHEN 6 => CT[2..0] = 0;
WHEN 7 => CT[2..0] = 0;
END CASE;
-- for remove sinc jitter
-- CT[5..3].ena = DFF(((CT0 & CT2) or (COPY_SINC_H & !CT4)),CLK42,,);
CT[5..3].ena = DFF((CT0 & CT2),CLK42,,);
CT[5..3] = CT[5..3]+1;
%
CASE CT[4..3] IS
WHEN 0 => CT[5..3] = CT[5..3]+1;
WHEN 1 => CT[5..3] = CT[5..3]+1;
WHEN 2 => CT[5..3] = CT[5..3]+1;
WHEN 3 => CT[5..3] = CT[5..3]+1;
END CASE;
%
CTH[].ena = DFF(((CT[5..2] == 15) & CT0),CLK42,,);
CTV[].ena = DFF(((CT[5..2] == 15) & CT0 & (CTH[] == 48)),CLK42,,);
IF CTH[] == 55 THEN
CTH[] = GND;
ELSE
CTH[] = CTH[] + 1;
END IF;
IF CTV[] == 319 THEN
CTV[] = GND;
ELSE
CTV[] = CTV[] + 1;
END IF;
CTF[].clk = CTV8;
CTF[] = CTF[]+1;
-- ==== Video ==========================================================
ZXS[] = ZX_PORT[5..0]; -- pages ZX Screens
ZX_SCREEN = ZX_PORT6; -- enable ZX Screen write
ZXA15 = ZX_PORT7; -- ZX A15' line
SCR128 = DIR_PORT0;
-- WR_PIX = LCELL(TSN_W3);
WR_PIX = (TSN_W3);
DOUBLE.clk = CLK42; DOUBLE.ena = !E_WR; DOUBLE = DOUBLE_CAS;
VXA[].clk = CLK42; VXA[].ena = !E_WR;
VXD0[].clk = CLK42; VXD0[].ena = !E_WRD; VDO0[] = VXD0[];
VXD1[].clk = CLK42; VXD1[].ena = !E_WRD; VDO1[] = VXD1[];
VXD2[].clk = CLK42; VXD2[].ena = !E_WRD; VDO2[] = VXD2[];
VXD3[].clk = CLK42; VXD3[].ena = !E_WRD; VDO3[] = VXD3[];
-- VXD0[] = D[];
-- VXD1[] = D[];
-- VXD2[] = D[];
-- VXD3[] = D[];
(VXD0[],VXD1[]) = MDI[];
(VXD2[],VXD3[]) = MDI[];
BRD[] = DIR_PORT[7..5];
VCM[].clk = CLK42;
TSN_W3.clk = CLK42;
V_CST[].clk = CLK42;
V_WE.clk = CLK42;
V_WET[].clk = CLK42;
VLA[].clk = CLK42;
SCR_ENA.clk = CLK42;
SCR_ENA.ena = !E_WR;
SCR_ENA.d = !(VAI19 or ZX_SCREEN);
E_WRD = DFF(E_WR,CLK42,,);
E_WR = LCELL(WR or !(VAI19 or ZX_SCREEN) or !DFF(WR,CLK42,,));
-- E_WR = LCELL(WR or !DFF(WR,CLK42,,));
-- ****************************************************
IF MODE == "SPRINTER" GENERATE
-- VAI[19] - switch adress mode 1 - graf mode, 0 - spectrum mode
-- MXWE = DFF(((DFF(E_WR,CLK42,,) or SCR_ENA) & MXWE),CLK42,,V_WE);
MXWE = DFF(MXWE,CLK42,E_WR,V_WE);
IF VAI[19] THEN
-- in graf mode all 256k(512k) range
VXA[] = VAI[];
ELSE
-- in spectrum mode 8k/16k range pages
VXA[] = (GND,GND,VAI[7..0],ZXS[4..1],LCELL(ZXS0 xor ZXA15 xor VAI13),VAI[12..8]);
END IF;
-- BORD = DFF((MODE0[7..4] == 15),WR_PIC,,);
-- BLANK = DFF((BORD & MODE03 & MODE02),WR_PIC,,);
-- INTTX = DFF((BORD & MODE03 & MODE02 & MODE00),WR_PIC,,);
BORD = DFF((MODE0[7..4] == 15),LWR_COL,,);
BLANK = DFF(((BORD & MODE03 & MODE02) or DIR_PORT4),LWR_COL,,);
INTTX = DFF((BORD & MODE03 & MODE02 & MODE00),LWR_COL,,);
INTT = DFF(!(INTTX & (CTV[2..0] == 7)),CT5,,);
-- INTT = DFF((INTTX or DFF(INTTX,CT5,,)),CT5,,);
-- INTT = DFF(!(BLANK & (CTV[2..0] == 7)),CLK42,,MODE0[0]);
CASE CT[2..0] IS
WHEN B"110" => VCM[2..0].d = 5; -- 110 -> 101 6 -> 5
WHEN B"000" => VCM[2..0].d = 1; -- 000 -> 001 0 -> 1
WHEN B"001" => VCM[2..0].d = 4; -- 001 -> 100 1 -> 4
WHEN B"010" => VCM[2..0].d = 3; -- 010 -> 011 2 -> 3
WHEN B"100" => VCM[2..0].d = 2; -- 100 -> 010 4 -> 2
WHEN B"101" => VCM[2..0].d = 0; -- 101 -> 000 5 -> 0
END CASE;
CASE VCM[1..0] IS
WHEN 0 =>
VLA[].d = (BRVA[7..0],VCC,VCC,VCC,VCC,VCC,RBRVA[10..8],GND,GND);
V_CST[].d = (VCC,GND);
V_WE.d = VCC;
V_WEX.d = VCC;
IF VCM2 THEN
-- TSN_W3.d = X_MODE5;
TSN_W3.d = X_MODE_BOND;
-- V_CST[].d = (VCC,X_MODE5);
ELSE
TSN_W3.d = X_MODE_BOND;
-- V_CST[].d = (VCC,X_MODE_BOND);
END IF;
WHEN 1 =>
WR_PIC.d = !VCM2;
WR_COL.d = VCM2;
VLA[].d = SVA[];
V_CST[].d = (VCC,GND);
V_WE.d = VCC;
V_WEX.d = VCC;
WHEN 2 =>
VLA[].d = VXA[17..0];
V_CST[].d = (!VXA18,VXA18) or MXWE;
V_WE.d = MXWE;
V_WEX.d = GND;
V_WET[].d = MXWE or !((!VXA1 & !VXA0),(!VXA1 & VXA0),(VXA1 & !VXA0),(VXA1 & VXA0));
WHEN 3 =>
-- WR_PIC.d = X_MODE5;
-- NEW 26.08.2022, fix bug with first column
-- it was reproducing when changes mode 320 -> 640, like any 320px screen squares -> text mode squares
WR_PIC.d = MODE0[5];
VLA[].d = (DIR_PORT3,CTH[5..0],CT5,VCC,VCC,CTV[8..3],GND,GND);
WR_MODE.d = !(CT[5..3] == B"111") & !(CT4 & CT3 & !MODE0[5]);
V_CST[].d = (VCC,GND);
V_WE.d = VCC;
V_WEX.d = VCC;
END CASE;
-- choose V-RAM komplect
V_CST1.prn = GND;
-- V_CS0.clrn = GND;
V_CST0.prn = (LCELL(DFF(GND,!CLK42,,!V_CST0)));
V_CS1 = VCC;
-- V_CS0 = LCELL(V_CST0);
V_CSX0 = LCELL(!CLK42);
V_CSX1 = LCELL(V_CSX0);
V_CSX2 = LCELL(V_CSX1 & V_CSX0);
V_CSX3 = LCELL(V_CSX2);
-- V_CS0 = V_CSX3;
V_CS0 = GND;
-- =====================
SVA[].clk = CLK42;
SVA[9..6] = MODE0[3..0];
-- RSVA[].clk = CLK42;
(SVA[12..10],SVA[5..0]) = RSVA[];
-- M_CTV[2..0].clk = CLK42;
-- M_CT[5..3].clk = CLK42;
M_CTV[2..0] = (!MODE2[2] & CTV[2..0]) or MODE2[2] & (MODE2[1],CTV[2..1]);
M_CT[5..3] = (!MODE2[2] & (CT[5],!CT[4..3])) or MODE2[2] & (MODE2[0],!CT[5..4]);
CASE (!VCM2,MODE0[4]) IS
-- CASE (!VCM1,MODE0[4]) IS
WHEN B"X0" =>
-- Graf adress --
RSVA[] = (M_CTV[2..0],MODE1[2..0],M_CT[5..3]);
SVA[17..13] = MODE1[7..3];
-- SVA[12..10] = CTV[2..0];
-- SVA[5..0] = (MODE1[2..0],CT5,!CT[4..3]);
WHEN B"01" =>
-- ZX-atr adress --
RSVA[] = (MODE2[2..0],SCR128,VCC,VCC,GND,!MODE0[7..6]);
SVA[17..13] = MODE2[7..3];
-- SVA[12..10] = MODE2[2..0];
-- SVA[5..0] = (SCR128,VCC,VCC,GND,!MODE0[7..6]);
WHEN B"11" =>
-- ZX-pic adress --
RSVA[] = (MODE1[2..0],SCR128,MODE0[7..6],CTV2,!CTV1,!CTV0);
SVA[17..13] = MODE1[7..3];
-- SVA[12..10] = MODE1[2..0];
-- SVA[5..0] = (SCR128,MODE0[7..6],CTV2,!CTV1,!CTV0);
END CASE;
-- X_MODE_BOND = LCELL(LCELL(DCOL[7..4] == 15) & LCELL(DCOL[3..0] == 15) & DFF((MODE0[7] & MODE0[5] & !MODE0[4]),LWR_COL,VCC,VCC));
X_MODE_BOND = GND;
-- LD_PIC = LCELL((MODE0[5] & DFF((CT[5..3] == B"000"),CLK42,,)) or (!MODE0[5] & DFF((CT[4..2] == B"000"),CLK42,,)));
-- LD_PIC = LCELL((MODE0[5] & DFF((CT[5..3] == B"000"),CLK42,,)) or (!MODE0[5] & DFF((CT[4..2] == B"000"),CLK42,,)));
LD_PIC = LCELL((MODE0[5] & DFF((CT[5..2] == B"0000"),CLK42,,)) or (!MODE0[5] & DFF((CT[4..2] == B"000"),CLK42,,)));
-- CASE (DFF(VLA1,!CLK42,,),DFF(VLA0,!CLK42,,)) IS
-- D_PIC0_[].clk = !CLK42;
-- D_PIC1_[].clk = !CLK42;
-- D_PIC2_[].clk = !CLK42;
-- D_PIC3_[].clk = !CLK42;
-- PIC_CLK = LCELL(LCELL(CLK42));
PIC_CLK = !CLK42;
D_PIC0_[].clk = PIC_CLK;
D_PIC1_[].clk = PIC_CLK;
D_PIC2_[].clk = PIC_CLK;
D_PIC3_[].clk = PIC_CLK;
D_PIC0_[] = VDM0[];
D_PIC1_[] = VDM1[];
D_PIC2_[] = VDM2[];
D_PIC3_[] = VDM3[];
CASE (DFF(VLA1,CLK42,,),DFF(VLA0,CLK42,,)) IS
WHEN 0 => D_PICX_[] = D_PIC0_[];
WHEN 1 => D_PICX_[] = D_PIC1_[];
WHEN 2 => D_PICX_[] = D_PIC2_[];
WHEN 3 => D_PICX_[] = D_PIC3_[];
END CASE;
MODE0[].ena = VCC;
MODE1[].ena = VCC;
MODE2[].ena = VCC;
MODE0[].clk = LWR_MODE;
MODE1[].clk = LWR_MODE;
MODE2[].clk = LWR_MODE;
MODE0[].d = VDM3[];
MODE1[].d = VDM2[];
MODE2[].d = VDM1[];
LWR_MODE = LCELL(LCELL(WR_MODE));
%
MODE0[].ena = LWR_MODE;
MODE1[].ena = LWR_MODE;
MODE2[].ena = LWR_MODE;
MODE0[].clk = CLK42;
MODE1[].clk = CLK42;
MODE2[].clk = CLK42;
MODE0[].d = D_PIC3_[];
MODE1[].d = D_PIC2_[];
MODE2[].d = D_PIC1_[];
LWR_MODE = DFF(!WR_MODE,CLK42,,);
%
X_MODE7 = DFF(MODE0[7],LWR_COL,,);
X_MODE6 = DFF(MODE0[6],LWR_COL,,);
X_MODE5 = DFF(MODE0[5],LWR_COL,,);
X_MODE4 = DFF(MODE0[4],LWR_COL,,);
VAO[] = VLA[17..2];
WR_PIC.clk = CLK42;
WR_COL.clk = CLK42;
WR_MODE.clk = CLK42;
-- LWR_PIC = LCELL(LCELL(WR_PIC));
-- LWR_COL = LCELL(LCELL(WR_COL));
-- LWR_PIC = LCELL(WR_PIC);
-- LWR_COL = LCELL(WR_COL);
LWR_PIC = DFF(WR_PIC,CLK42,,);
LWR_COL = DFF(WR_COL,CLK42,,);
-- D_PIC0[].ena = VCC;
-- D_PIC0[].clk = (LWR_PIC);
D_PIC0[].ena = !LWR_PIC;
D_PIC0[].clk = CLK42;
IF LD_PIC THEN
-- D_PIC0[] = D_PIC0_[];
D_PIC0[] = D_PICX_[];
ELSE
D_PIC0[] = (D_PIC0[6..0],GND);
END IF;
-- DCOL[].clk = (LWR_COL);
DCOL[].ena = !LWR_COL;
DCOL[].clk = CLK42;
IF DFF((MODE0[7..4] == 15),WR_PIC,,) THEN
DCOL[].d = (B"00",BRD[2..0],BRD[2..0]);
ELSE
-- DCOL[].d = D_PIC0_[];
DCOL[].d = D_PICX_[];
END IF;
DCOL[].clrn = !BLANK;
BRVA[].clk = CLK42;
BRVA[].clrn = !MS_POINT;
BRVA[].prn = !MS_POINT2;
-- MODE0[4] - graph / text
-- MODE0[5] - 320 / 640 resolution
-- CASE (LCELL(X_MODE4 or X_MODE5),CT2) IS
CASE (DFF((MODE0[4] or MODE0[5]),LWR_COL,,),CT2) IS
WHEN B"1X" => BRVA[7..0] = DCOL[];
WHEN B"01" => BRVA[7..0] = (B"0000",DCOL[7..4]);
WHEN B"00" => BRVA[7..0] = (B"0000",DCOL[3..0]);
END CASE;
-- BRVA[10..8] = (x_mode4,RBRVA[9..8]);
RBRVA[].clk = CLK42;
CASE (BORD,X_MODE4) IS
WHEN B"X0" => RBRVA[10..8].d = (GND,X_MODE[7..6]);
WHEN B"X1" => RBRVA[10..8].d = (VCC,(CTF4 & !BLANK),D_PIC0[7]);
END CASE;
RBRVA[9..8].clrn = !BORD;
RBRVA[10].prn = !BORD;
CASE (RBRVA[9..8],BRVA7) IS
WHEN 0,1,4,7 => ZX_COL[] = (BRVA[6],BRVA[5..3]);
WHEN 2,3,6,5 => ZX_COL[] = (BRVA[6],BRVA[2..0]);
END CASE;
-- V_WET[].prn = LCELL(DFF(GND,!CLK42,,!V_WE));
-- V_WE.prn = LCELL(DFF(GND,!CLK42,,!V_WE));
V_WE_R = DFF(GND,!CLK42,,!V_WE);
V_WE.prn = V_WE_R;
V_WET[].prn = V_WE_R;
-- V_WR[] = LCELL(V_WE) or !((!VXA1 & !VXA0),(!VXA1 & VXA0),(VXA1 & !VXA0),(VXA1 & VXA0));
-- V_WR[] = (V_WE) or !(
V_WEX.clk = CLK42;
-- V_WEX.d = V_WE;
-- V_WEX.prn = (DFF(GND,CLK42,,!V_WEX));
V_WEMMM = LCELL(V_WE);
V_WEMMN = LCELL(V_WEMMM); -- bios ok, fn ok, fnf1 failed, zx almost ok
V_WEMMO = LCELL(V_WEMMN); -- green arts
V_WEMMP = LCELL(V_WEMMO); -- blue + pink arts
V_WEMMR = LCELL(V_WEMMP); -- no F1 issue, but red arts (fix by finger, not enough capacity??)
V_WEMMS = LCELL(V_WEMMR);
-- V_WEMMT = LCELL(V_WEMMS);
-- V_WEMMU = LCELL(V_WEMMT);
-- V_WEMMV = LCELL(V_WEMMU);
-- V_WEMMW = LCELL(V_WEMMV);
-- V_WEMMX = LCELL(V_WEMMW);
-- V_WEMMY = LCELL(V_WEMMX);
-- V_WEMMZ = LCELL(V_WEMMY);
V_WRM = LCELL(V_WE or V_WEMMM);
-- V_WRM = LCELL(V_WEMMN or V_WEMMM);
-- V_WRM2 = LCELL(V_WEMMN or V_WEMMM);
-- V_WRM2 = LCELL(V_WEMMR);
-- V_WRM = LCELL(V_WEMMM or V_WEMMN);
-- V_WRM2 = LCELL(V_WEMMM or V_WEMMN);
V_WEM = (V_WE);
-- V_WEM2 = LCELL(V_WE);
-- V_WEM = LCELL(V_WEMMM & V_WEMMN);
-- V_WEM2 = LCELL(V_WEMMM & V_WEMMO);
F_WR = DFF(VCC,V_WE,,);
V_EN3 = DFF(!(!VXA1 & (!VXA0 or DOUBLE)), CLK42, F_WR,);
V_EN2 = DFF(!(!VXA1 & (VXA0 or DOUBLE)), CLK42, F_WR,);
V_EN1 = DFF(!(VXA1 & (!VXA0 or DOUBLE)), CLK42, F_WR,);
V_EN0 = DFF(!(VXA1 & (VXA0 or DOUBLE)), CLK42, F_WR,);
-- V_WR_3 = LCELL(V_WRM or V_EN3);
-- V_WR_2 = LCELL(V_WRM or V_EN2);
-- V_WR_1 = LCELL(V_WRM or V_EN1);
-- V_WR_0 = LCELL(V_WRM or V_EN0);
V_WR_3 = LCELL(LCELL(LCELL(V_WRM or V_EN3)));
V_WR_2 = LCELL(LCELL(LCELL(V_WRM or V_EN2)));
V_WR_1 = LCELL(LCELL(LCELL(V_WRM or V_EN1)));
V_WR_0 = LCELL(LCELL(LCELL(V_WRM or V_EN0)));
V_WEY3 = LCELL(V_WEM or V_EN3);
V_WEY2 = LCELL(V_WEM or V_EN2);
V_WEY1 = LCELL(V_WEM or V_EN1);
V_WEY0 = LCELL(V_WEM or V_EN0);
V_WR[] = V_WR_[]; -- V_WR0-3
V_WEN[] = V_WEY[]; -- VD0-3
%
V_WEMMM = LCELL(V_WE);
V_WEMMN = LCELL(V_WEMMM);
V_WEMMO = LCELL(V_WEMMN);
V_WEMM = LCELL(V_WEMMO);
V_WRM = LCELL(V_WEMMN & V_WEMMM);
V_WRM2 = LCELL(V_WEMMN & V_WEMMM);
V_WEM = LCELL(V_WEMMM & V_WEMMO);
V_WEM2 = LCELL(V_WEMMM & V_WEMMO);
V_EN3 = DFF(!(!VXA1 & (!VXA0 or DOUBLE)),CLK42,F_WR,);
V_EN2 = DFF(!(!VXA1 & (VXA0 or DOUBLE)) ,CLK42,F_WR,);
V_EN1 = DFF(!(VXA1 & (!VXA0 or DOUBLE)) ,CLK42,F_WR,);
V_EN0 = DFF(!(VXA1 & (VXA0 or DOUBLE)) ,CLK42,F_WR,);
F_WR = DFF(VCC,V_WE,,);
V_WR_3 = V_WRM or V_EN3;
V_WR_2 = V_WRM2 or V_EN2;
V_WR_1 = V_WRM or V_EN1;
V_WR_0 = V_WRM or V_EN0;
V_WEY3 = V_WEM or V_EN3;
V_WEY2 = V_WEM2 or V_EN2;
V_WEY1 = V_WEM or V_EN1;
V_WEY0 = V_WEM or V_EN0;
V_WR[] = V_WR_[];
V_WEN[] = V_WEY[];
%
-- CLK84 = LCELL(CLK42 xor CLK84_X);
-- CLK84_X = DFF(!CLK84_X,CLK84,,);
-- CLK84_Y = CLK84;
END GENERATE; -- end "sprinter" mode
END;

View File

@ -1,783 +0,0 @@
TITLE "Video-controller";
INCLUDE "lpm_ram_dp";
PARAMETERS
(
MODE = "SPRINTER",
MOUSE = "NO",
HOR_PLACE = H"50",
VER_PLACE = H"91" -- 122h/2
);
SUBDESIGN video2
(
CLK42 : INPUT;
CT[5..0] : OUTPUT;
CTH[5..0] : OUTPUT;
CTV[8..0] : OUTPUT;
CTF[6..0] : OUTPUT;
BLANK : OUTPUT;
START_UP : INPUT;
COPY_SINC_H : INPUT;
COPY_SINC_V : INPUT;
WR : INPUT;
VAI[19..0] : INPUT; -- input screen adress
VAO[15..0] : OUTPUT;
D[7..0] : INPUT;
MDI[15..0] : INPUT;
VDO0[7..0] : OUTPUT;
VDO1[7..0] : OUTPUT;
VDO2[7..0] : OUTPUT;
VDO3[7..0] : OUTPUT;
VDM0[7..0] : INPUT;
VDM1[7..0] : INPUT;
VDM2[7..0] : INPUT;
VDM3[7..0] : INPUT;
V_WR[3..0] : OUTPUT;
V_WEN[3..0] : OUTPUT;
V_CS[1..0] : OUTPUT;
WR_PIX : OUTPUT;
-- ZX_COLOR[3..0] : OUTPUT;
ZX_PORT[7..0] : INPUT;
DIR_PORT[7..0] : INPUT;
%
bit0 - Spectrum SCREEN Switch
bit1 - Spectrum Adress MODE
bit2 - Write to Spectrum Screen OFF
bit3 - MODE page 0/1
bit4 - MODE on/off screen
bit7..5 - Border
%
INTT : OUTPUT;
DOUBLE_CAS : INPUT;
MOUSE_X[9..0] : INPUT;
MOUSE_Y[9..0] : INPUT;
)
VARIABLE
-- CLK84 : NODE;
-- CLK84_X : NODE;
-- CLK84_Y : NODE;
ZX_COLOR[3..0] : NODE;
CT[5..0] : DFFE;
CTH[5..0] : DFFE;
CTV[8..0] : DFFE;
CTF[6..0] : DFF;
VXA[19..0] : DFFE;
VXD0[7..0] : DFFE;
VXD1[7..0] : DFFE;
VXD2[7..0] : DFFE;
VXD3[7..0] : DFFE;
E_WR : NODE;
E_WRD : NODE;
BLANK : NODE;
BORD : NODE;
-- INTT_T : NODE;
INTTX : NODE;
VLA[17..0] : DFF;
-- SVA[17..0] : NODE;
SVA[17..0] : DFF;
-- RSVA[8..0] : LCELL;
RSVA[8..0] : NODE;
-- RSVA[8..0] : DFF;
V_CST[1..0] : DFF;
VCM[2..0] : DFF;
TSN_W3 : DFF;
V_WE : DFF;
V_WEX : DFF;
V_WEM : NODE;
V_WEM2 : NODE;
V_WRM : NODE;
V_WRM2 : NODE;
%
V_WEMM : NODE;
V_WEMMM : NODE;
V_WEMMN : NODE;
V_WEMMO : NODE;
%
V_WEMM : NODE;
V_WEMMM : NODE;
V_WEMMN : NODE;
V_WEMMO : NODE;
V_WEMMP : NODE;
V_WEMMQ : NODE;
V_WEMMR : NODE;
V_WEMMS : NODE;
V_WEMMT : NODE;
V_WEMMU : NODE;
V_WEMMV : NODE;
V_WEMMW : NODE;
V_WEMMX : NODE;
V_WEMMY : NODE;
V_WEMMZ : NODE;
V_WET[3..0] : DFF;
D_PIC0[7..0] : DFFE;
-- D_PIC0_[7..0] : LCELL;
D_PIC0_[7..0] : DFFE;
D_PIC1_[7..0] : DFFE;
D_PIC2_[7..0] : DFFE;
D_PIC3_[7..0] : DFFE;
D_PICX_[7..0] : NODE;
LWR_PIC : NODE;
LWR_COL : NODE;
WR_PIC : DFF;
WR_COL : DFF;
LD_PIC : NODE;
MXL: NODE;
MXR: NODE;
RBRVA[10..8]: DFF;
BRVA[7..0] : DFF;
DCOL[7..0] : DFFE;
MXWE : NODE;
-- MXCE : NODE;
AX128 : NODE;
BRD[2..0] : NODE;
ZX_COL[3..0] : LCELL;
ZXA15 : NODE;
ZXS[5..0] : NODE;
ZX_SCREEN : NODE;
SCR128 : NODE;
MODE0[7..0] : DFFE;
MODE1[7..0] : DFFE;
MODE2[7..0] : DFFE;
-- MODE3[7..0] : DFF;
WR_MODE : DFF;
LWR_MODE : NODE;
X_MODE[7..4]: NODE;
X_MODE_BOND : NODE;
-- M_CTV[2..0] : DFF;
-- M_CT[5..3] : DFF;
M_CTV[2..0] : LCELL;
M_CT[5..3] : LCELL;
DOUBLE : DFFE;
PIC_CLK : NODE;
MS_X[9..0] : DFF;
MS_Y[9..0] : DFF;
MS_POINT : NODE;
MS_POINT2 : NODE;
MS_PNT : NODE;
MS_DAT : LPM_RAM_DP WITH (LPM_WIDTH=16,LPM_WIDTHAD=8,LPM_FILE="MOUSE.MIF");
SCR_ENA : DFFE;
V_WR_[3..0] : LCELL;
V_WEY[3..0] : LCELL;
V_WE_R : NODE;
V_CSX[3..0] : NODE;
V_EN[3..0] : NODE;
F_WR : NODE;
BEGIN
DEFAULTS
WR_MODE.d = VCC; -- WR_MODE2.d = VCC; -- WR_MODE2X.d = VCC;
V_CST[].d = VCC; V_WR[] = VCC; TSN_W3.d = VCC;
V_WE.d = VCC; WR_COL.d = VCC; WR_PIC.d = VCC;
V_WET[].d = VCC;
END DEFAULTS;
ZX_COLOR[] = ZX_COL[];
-- === MOUSE counters ========
MS_X[].clk = !CT1;
CASE LCELL(CTH[5..2] == 12) IS
WHEN 0 => MS_X[] = MS_X[] + 1;
WHEN 1 => MS_X[] = (!MOUSE_X[9..0]);
END CASE;
MS_Y[].clk = !CTH5;
CASE LCELL(CTV8 & !CTV5 & CTV4) IS
WHEN 0 => MS_Y[] = MS_Y[] + 1;
WHEN 1 => MS_Y[] = (GND,!MOUSE_Y[8..0]);
END CASE;
MS_PNT = DFF(((MS_X[] == B"100000XXXX") & (MS_Y[] == B"100000XXXX")),CLK42,,);
MS_DAT.wren = GND;
MS_DAT.data[] = GND;
MS_DAT.wraddress[] = GND;
MS_DAT.wrclock = CLK42;
MS_DAT.wrclken = GND;
MS_DAT.rden = VCC;
MS_DAT.rdaddress[] = (MS_Y[3..0],MS_X[3..0]);
MS_DAT.rdclock = CLK42;
MS_DAT.rdclken = VCC;
IF MOUSE == "NO" GENERATE
MS_POINT = GND;
MS_POINT2 = GND;
ELSE GENERATE
MS_POINT = DFF((MS_PNT & MS_DAT.q0),CLK42,,);
MS_POINT2 = DFF((MS_PNT & MS_DAT.q1),CLK42,,);
END GENERATE;
-- === Sinc-counts GENERATOR ============================================
-- CT[].clrn = START_UP;
-- (,CTH[5..0].clrn,CT[5].clrn) = !COPY_SINC_H or HOR_PLACE;
-- (,CTH[5..0].prn ,CT[5].prn ) = !COPY_SINC_H or !HOR_PLACE;
-- CTV[].clrn = !COPY_SINC_V or VER_PLACE;
-- CTV[].prn = !COPY_SINC_V or !VER_PLACE;
CT[5].clrn = !COPY_SINC_H;
-- set CTH to 50 (32h)
CTH[0].clrn = !COPY_SINC_H;
CTH[1].prn = !COPY_SINC_H;
CTH[2].clrn = !COPY_SINC_H;
CTH[3].clrn = !COPY_SINC_H;
CTH[4].prn = !COPY_SINC_H;
CTH[5].prn = !COPY_SINC_H;
-- set CTV to 122h
CTV[0].clrn = !COPY_SINC_V;
CTV[1].prn = !COPY_SINC_V;
CTV[3..2].clrn = !COPY_SINC_V;
CTV[4].clrn = !COPY_SINC_V;
CTV[5].prn = !COPY_SINC_V;
CTV[7..6].clrn = !COPY_SINC_V;
CTV[8].prn = !COPY_SINC_V;
CT[5..0].clk = CLK42;
CTH[5..0].clk = CLK42;
CTV[8..0].clk = CLK42;
CT[2..0].ena = VCC;
CASE CT[2..0] IS
WHEN 0 => CT[2..0] = 1;
WHEN 1 => CT[2..0] = 2;
WHEN 2 => CT[2..0] = 4;
WHEN 3 => CT[2..0] = 4;
WHEN 4 => CT[2..0] = 5;
WHEN 5 => CT[2..0] = 6;
WHEN 6 => CT[2..0] = 0;
WHEN 7 => CT[2..0] = 0;
END CASE;
-- for remove sinc jitter
-- CT[5..3].ena = DFF(((CT0 & CT2) or (COPY_SINC_H & !CT4)),CLK42,,);
CT[5..3].ena = DFF((CT0 & CT2),CLK42,,);
CT[5..3] = CT[5..3]+1;
%
CASE CT[4..3] IS
WHEN 0 => CT[5..3] = CT[5..3]+1;
WHEN 1 => CT[5..3] = CT[5..3]+1;
WHEN 2 => CT[5..3] = CT[5..3]+1;
WHEN 3 => CT[5..3] = CT[5..3]+1;
END CASE;
%
CTH[].ena = DFF(((CT[5..2] == 15) & CT0),CLK42,,);
CTV[].ena = DFF(((CT[5..2] == 15) & CT0 & (CTH[] == 48)),CLK42,,);
IF CTH[] == 55 THEN
CTH[] = GND;
ELSE
CTH[] = CTH[] + 1;
END IF;
IF CTV[] == 319 THEN
CTV[] = GND;
ELSE
CTV[] = CTV[] + 1;
END IF;
CTF[].clk = CTV8;
CTF[] = CTF[]+1;
-- ==== Video ==========================================================
ZXS[] = ZX_PORT[5..0]; -- pages ZX Screens
ZX_SCREEN = ZX_PORT6; -- enable ZX Screen write
ZXA15 = ZX_PORT7; -- ZX A15' line
SCR128 = DIR_PORT0;
-- WR_PIX = LCELL(TSN_W3);
WR_PIX = TSN_W3;
DOUBLE.clk = CLK42; DOUBLE.ena = !E_WR; DOUBLE = DOUBLE_CAS;
VXA[].clk = CLK42; VXA[].ena = !E_WR;
VXD0[].clk = CLK42; VXD0[].ena = !E_WRD; VDO0[] = VXD0[];
VXD1[].clk = CLK42; VXD1[].ena = !E_WRD; VDO1[] = VXD1[];
VXD2[].clk = CLK42; VXD2[].ena = !E_WRD; VDO2[] = VXD2[];
VXD3[].clk = CLK42; VXD3[].ena = !E_WRD; VDO3[] = VXD3[];
-- VXD0[] = D[];
-- VXD1[] = D[];
-- VXD2[] = D[];
-- VXD3[] = D[];
(VXD0[],VXD1[]) = MDI[];
(VXD2[],VXD3[]) = MDI[];
BRD[] = DIR_PORT[7..5];
VCM[].clk = CLK42;
TSN_W3.clk = CLK42;
V_CST[].clk = CLK42;
V_WE.clk = CLK42;
V_WET[].clk = CLK42;
VLA[].clk = CLK42;
SCR_ENA.clk = CLK42;
SCR_ENA.ena = !E_WR;
SCR_ENA.d = !(VAI19 or ZX_SCREEN);
E_WRD = DFF(E_WR,CLK42,,);
E_WR = LCELL(WR or !(VAI19 or ZX_SCREEN) or !DFF(WR,CLK42,,));
-- E_WR = LCELL(WR or !DFF(WR,CLK42,,));
-- ****************************************************
IF MODE == "SPRINTER" GENERATE
-- VAI[19] - switch adress mode 1 - graf mode, 0 - spectrum mode
-- MXWE = DFF(((DFF(E_WR,CLK42,,) or SCR_ENA) & MXWE),CLK42,,V_WE);
MXWE = DFF(MXWE,CLK42,E_WR,V_WE);
IF VAI[19] THEN
-- in graf mode all 256k(512k) range
VXA[] = VAI[];
ELSE
-- in spectrum mode 8k/16k range pages
VXA[] = (GND,GND,VAI[7..0],ZXS[4..1],LCELL(ZXS0 xor ZXA15 xor VAI13),VAI[12..8]);
END IF;
-- BORD = DFF((MODE0[7..4] == 15),WR_PIC,,);
-- BLANK = DFF((BORD & MODE03 & MODE02),WR_PIC,,);
-- INTTX = DFF((BORD & MODE03 & MODE02 & MODE00),WR_PIC,,);
BORD = DFF((MODE0[7..4] == 15),LWR_COL,,);
BLANK = DFF(((BORD & MODE03 & MODE02) or DIR_PORT4),LWR_COL,,);
INTTX = DFF((BORD & MODE03 & MODE02 & MODE00),LWR_COL,,);
INTT = DFF(!(INTTX & (CTV[2..0] == 7)),CT5,,);
-- INTT = DFF((INTTX or DFF(INTTX,CT5,,)),CT5,,);
-- INTT = DFF(!(BLANK & (CTV[2..0] == 7)),CLK42,,MODE0[0]);
CASE CT[2..0] IS
WHEN B"110" => VCM[2..0].d = 5; -- 110 -> 101 6 -> 5
WHEN B"000" => VCM[2..0].d = 1; -- 000 -> 001 0 -> 1
WHEN B"001" => VCM[2..0].d = 4; -- 001 -> 100 1 -> 4
WHEN B"010" => VCM[2..0].d = 3; -- 010 -> 011 2 -> 3
WHEN B"100" => VCM[2..0].d = 2; -- 100 -> 010 4 -> 2
WHEN B"101" => VCM[2..0].d = 0; -- 101 -> 000 5 -> 0
END CASE;
CASE VCM[1..0] IS
WHEN 0 =>
VLA[].d = (BRVA[7..0],VCC,VCC,VCC,VCC,VCC,RBRVA[10..8],GND,GND);
V_CST[].d = (VCC,GND);
V_WE.d = VCC;
V_WEX.d = VCC;
TSN_W3.d = X_MODE_BOND;
%
IF VCM2 THEN
-- TSN_W3.d = X_MODE5;
TSN_W3.d = X_MODE_BOND;
-- V_CST[].d = (VCC,X_MODE5);
ELSE
TSN_W3.d = X_MODE_BOND;
-- V_CST[].d = (VCC,X_MODE_BOND);
END IF;
%
WHEN 1 =>
WR_PIC.d = !VCM2;
WR_COL.d = VCM2;
VLA[].d = SVA[];
V_CST[].d = (VCC,GND);
V_WE.d = VCC;
V_WEX.d = VCC;
WHEN 2 =>
VLA[].d = VXA[17..0];
V_CST[].d = (!VXA18,VXA18) or MXWE;
V_WE.d = MXWE;
V_WEX.d = GND;
V_WET[].d = MXWE or !((!VXA1 & !VXA0),(!VXA1 & VXA0),(VXA1 & !VXA0),(VXA1 & VXA0));
WHEN 3 =>
-- WR_PIC.d = X_MODE5;
-- NEW 26.08.2022, fix bug with first column
-- it was reproducing when changes mode 320 -> 640, like any 320px screen squares -> text mode squares
WR_PIC.d = MODE0[5];
VLA[].d = (DIR_PORT3,CTH[5..0],CT5,VCC,VCC,CTV[8..3],GND,GND);
WR_MODE.d = !(CT[5..3] == B"111") & !(CT4 & CT3 & !MODE0[5]);
V_CST[].d = (VCC,GND);
V_WE.d = VCC;
V_WEX.d = VCC;
END CASE;
-- choose V-RAM komplect
V_CST1.prn = GND;
-- V_CS0.clrn = GND;
V_CST0.prn = (LCELL(DFF(GND,!CLK42,,!V_CST0)));
V_CS1 = VCC;
-- V_CS0 = LCELL(V_CST0);
V_CSX0 = LCELL(!CLK42);
V_CSX1 = LCELL(V_CSX0);
V_CSX2 = LCELL(V_CSX1 & V_CSX0);
V_CSX3 = LCELL(V_CSX2);
-- V_CS0 = V_CSX3;
V_CS0 = GND;
-- =====================
SVA[].clk = CLK42;
SVA[9..6] = MODE0[3..0];
-- RSVA[].clk = CLK42;
(SVA[12..10],SVA[5..0]) = RSVA[];
-- M_CTV[2..0].clk = CLK42;
-- M_CT[5..3].clk = CLK42;
M_CTV[2..0] = (!MODE2[2] & CTV[2..0]) or MODE2[2] & (MODE2[1],CTV[2..1]);
M_CT[5..3] = (!MODE2[2] & (CT[5],!CT[4..3])) or MODE2[2] & (MODE2[0],!CT[5..4]);
CASE (!VCM2,MODE0[4]) IS
-- CASE (!VCM1,MODE0[4]) IS
WHEN B"X0" =>
-- Graf adress --
RSVA[] = (M_CTV[2..0],MODE1[2..0],M_CT[5..3]);
SVA[17..13] = MODE1[7..3];
-- SVA[12..10] = CTV[2..0];
-- SVA[5..0] = (MODE1[2..0],CT5,!CT[4..3]);
WHEN B"01" =>
-- ZX-atr adress --
RSVA[] = (MODE2[2..0],SCR128,VCC,VCC,GND,!MODE0[7..6]);
SVA[17..13] = MODE2[7..3];
-- SVA[12..10] = MODE2[2..0];
-- SVA[5..0] = (SCR128,VCC,VCC,GND,!MODE0[7..6]);
WHEN B"11" =>
-- ZX-pic adress --
RSVA[] = (MODE1[2..0],SCR128,MODE0[7..6],CTV2,!CTV1,!CTV0);
SVA[17..13] = MODE1[7..3];
-- SVA[12..10] = MODE1[2..0];
-- SVA[5..0] = (SCR128,MODE0[7..6],CTV2,!CTV1,!CTV0);
END CASE;
-- X_MODE_BOND = LCELL(LCELL(DCOL[7..4] == 15) & LCELL(DCOL[3..0] == 15) & DFF((MODE0[7] & MODE0[5] & !MODE0[4]),LWR_COL,VCC,VCC));
X_MODE_BOND = GND;
-- LD_PIC = LCELL((MODE0[5] & DFF((CT[5..3] == B"000"),CLK42,,)) or (!MODE0[5] & DFF((CT[4..2] == B"000"),CLK42,,)));
LD_PIC = LCELL((MODE0[5] & DFF((CT[5..3] == B"000"),CLK42,,)) or (!MODE0[5] & DFF((CT[4..2] == B"000"),CLK42,,)));
-- CASE (DFF(VLA1,!CLK42,,),DFF(VLA0,!CLK42,,)) IS
-- D_PIC0_[].clk = !CLK42;
-- D_PIC1_[].clk = !CLK42;
-- D_PIC2_[].clk = !CLK42;
-- D_PIC3_[].clk = !CLK42;
-- PIC_CLK = LCELL(LCELL(CLK42));
PIC_CLK = !CLK42;
D_PIC0_[].clk = PIC_CLK;
D_PIC1_[].clk = PIC_CLK;
D_PIC2_[].clk = PIC_CLK;
D_PIC3_[].clk = PIC_CLK;
D_PIC0_[] = VDM0[];
D_PIC1_[] = VDM1[];
D_PIC2_[] = VDM2[];
D_PIC3_[] = VDM3[];
CASE (DFF(VLA1,CLK42,,),DFF(VLA0,CLK42,,)) IS
WHEN 0 => D_PICX_[] = D_PIC0_[];
WHEN 1 => D_PICX_[] = D_PIC1_[];
WHEN 2 => D_PICX_[] = D_PIC2_[];
WHEN 3 => D_PICX_[] = D_PIC3_[];
END CASE;
MODE0[].ena = VCC;
MODE1[].ena = VCC;
MODE2[].ena = VCC;
MODE0[].clk = LWR_MODE;
MODE1[].clk = LWR_MODE;
MODE2[].clk = LWR_MODE;
MODE0[].d = VDM3[];
MODE1[].d = VDM2[];
MODE2[].d = VDM1[];
LWR_MODE = LCELL(LCELL(WR_MODE));
%
MODE0[].ena = LWR_MODE;
MODE1[].ena = LWR_MODE;
MODE2[].ena = LWR_MODE;
MODE0[].clk = CLK42;
MODE1[].clk = CLK42;
MODE2[].clk = CLK42;
MODE0[].d = D_PIC3_[];
MODE1[].d = D_PIC2_[];
MODE2[].d = D_PIC1_[];
LWR_MODE = DFF(!WR_MODE,CLK42,,);
%
X_MODE7 = DFF(MODE0[7],LWR_COL,,);
X_MODE6 = DFF(MODE0[6],LWR_COL,,);
X_MODE5 = DFF(MODE0[5],LWR_COL,,);
X_MODE4 = DFF(MODE0[4],LWR_COL,,);
VAO[] = VLA[17..2];
WR_PIC.clk = CLK42;
WR_COL.clk = CLK42;
WR_MODE.clk = CLK42;
-- LWR_PIC = LCELL(LCELL(WR_PIC));
-- LWR_COL = LCELL(LCELL(WR_COL));
-- LWR_PIC = LCELL(WR_PIC);
-- LWR_COL = LCELL(WR_COL);
LWR_PIC = DFF(WR_PIC,CLK42,,);
LWR_COL = DFF(WR_COL,CLK42,,);
-- D_PIC0[].ena = VCC;
-- D_PIC0[].clk = (LWR_PIC);
D_PIC0[].ena = !LWR_PIC;
D_PIC0[].clk = CLK42;
IF LD_PIC THEN
-- D_PIC0[] = D_PIC0_[];
D_PIC0[] = D_PICX_[];
ELSE
D_PIC0[] = (D_PIC0[6..0],GND);
END IF;
-- DCOL[].clk = (LWR_COL);
DCOL[].ena = !LWR_COL;
DCOL[].clk = CLK42;
IF DFF((MODE0[7..4] == 15),WR_PIC,,) THEN
DCOL[].d = (B"00",BRD[2..0],BRD[2..0]);
ELSE
-- DCOL[].d = D_PIC0_[];
DCOL[].d = D_PICX_[];
END IF;
DCOL[].clrn = !BLANK;
BRVA[].clk = CLK42;
BRVA[].clrn = !MS_POINT;
BRVA[].prn = !MS_POINT2;
-- MODE0[4] - graph / text
-- MODE0[5] - 320 / 640 resolution
-- CASE (LCELL(X_MODE4 or X_MODE5),CT2) IS
CASE (DFF((MODE0[4] or MODE0[5]),LWR_COL,,),CT2) IS
WHEN B"1X" => BRVA[7..0] = DCOL[];
WHEN B"01" => BRVA[7..0] = (B"0000",DCOL[7..4]);
WHEN B"00" => BRVA[7..0] = (B"0000",DCOL[3..0]);
END CASE;
-- BRVA[10..8] = (x_mode4,RBRVA[9..8]);
RBRVA[].clk = CLK42;
CASE (BORD,X_MODE4) IS
WHEN B"X0" => RBRVA[10..8].d = (GND,X_MODE[7..6]);
WHEN B"X1" => RBRVA[10..8].d = (VCC,(CTF4 & !BLANK),D_PIC0[7]);
END CASE;
RBRVA[9..8].clrn = !BORD;
RBRVA[10].prn = !BORD;
CASE (RBRVA[9..8],BRVA7) IS
WHEN 0,1,4,7 => ZX_COL[] = (BRVA[6],BRVA[5..3]);
WHEN 2,3,6,5 => ZX_COL[] = (BRVA[6],BRVA[2..0]);
END CASE;
-- V_WET[].prn = LCELL(DFF(GND,!CLK42,,!V_WE));
-- V_WE.prn = LCELL(DFF(GND,!CLK42,,!V_WE));
V_WE_R = DFF(GND,!CLK42,,!V_WE);
V_WE.prn = V_WE_R;
V_WET[].prn = V_WE_R;
-- V_WR[] = LCELL(V_WE) or !((!VXA1 & !VXA0),(!VXA1 & VXA0),(VXA1 & !VXA0),(VXA1 & VXA0));
-- V_WR[] = (V_WE) or !(
V_WEX.clk = CLK42;
-- V_WEX.d = V_WE;
-- V_WEX.prn = (DFF(GND,CLK42,,!V_WEX));
V_WEMMM = LCELL(V_WE);
-- V_WEMMN = LCELL(V_WEMMM); -- bios ok, fn ok, fnf1 failed, zx almost ok
-- V_WEMMO = LCELL(V_WEMMN); -- green arts
-- V_WEMMP = LCELL(V_WEMMO); -- blue + pink arts
-- V_WEMMR = LCELL(V_WEMMP); -- no F1 issue, but red arts (fix by finger, not enough capacity??)
-- V_WEMMS = LCELL(V_WEMMR);
-- V_WEMMT = LCELL(V_WEMMS);
-- V_WEMMU = LCELL(V_WEMMT);
-- V_WEMMV = LCELL(V_WEMMU);
-- V_WEMMW = LCELL(V_WEMMV);
-- V_WEMMX = LCELL(V_WEMMW);
-- V_WEMMY = LCELL(V_WEMMX);
-- V_WEMMZ = LCELL(V_WEMMY);
V_WRM = LCELL(V_WE or V_WEMMM);
-- V_WRM = LCELL(V_WEMMN or V_WEMMM);
-- V_WRM2 = LCELL(V_WEMMN or V_WEMMM);
-- V_WRM2 = LCELL(V_WEMMR);
-- V_WRM = LCELL(V_WEMMM or V_WEMMN);
-- V_WRM2 = LCELL(V_WEMMM or V_WEMMN);
V_WEM = (V_WE);
-- V_WEM2 = LCELL(V_WE);
-- V_WEM = LCELL(V_WEMMM & V_WEMMN);
-- V_WEM2 = LCELL(V_WEMMM & V_WEMMO);
--- LWR_COL = DFF(WR_COL,CLK42,,);
F_WR = (LCELL(LCELL(LCELL(LCELL(DFF(VCC,V_WE,,))))));
--- F_WR = DFF(V_WE,CLK42,,);
V_WEMMZ = LCELL(CLK42);
V_EN3 = (DFF(!(!VXA1 & LCELL(!VXA0 or DOUBLE)), V_WEMMZ, F_WR,));
V_EN2 = (DFF(!(!VXA1 & LCELL(VXA0 or DOUBLE)), V_WEMMZ, F_WR,));
V_EN1 = (DFF(!(VXA1 & LCELL(!VXA0 or DOUBLE)), V_WEMMZ, F_WR,));
V_EN0 = (DFF(!(VXA1 & LCELL(VXA0 or DOUBLE)), V_WEMMZ, F_WR,));
-- V_WR_3 = LCELL(V_WRM or V_EN3);
-- V_WR_2 = LCELL(V_WRM or V_EN2);
-- V_WR_1 = LCELL(V_WRM or V_EN1);
-- V_WR_0 = LCELL(V_WRM or V_EN0);
V_WR_3 = LCELL(LCELL(LCELL(LCELL(V_WE or V_EN3))));
V_WR_2 = LCELL(LCELL(LCELL(LCELL(V_WE or V_EN2))));
V_WR_1 = LCELL(LCELL(LCELL(LCELL(V_WE or V_EN1))));
V_WR_0 = LCELL(LCELL(LCELL(LCELL(V_WE or V_EN0))));
V_WEY3 = LCELL(V_WE or V_EN3);
V_WEY2 = LCELL(V_WE or V_EN2);
V_WEY1 = LCELL(V_WE or V_EN1);
V_WEY0 = LCELL(V_WE or V_EN0);
V_WR[] = V_WR_[]; -- V_WR0-3
V_WEN[] = V_WEY[]; -- VD0-3
%
V_WEMMM = LCELL(V_WE);
V_WEMMN = LCELL(V_WEMMM);
V_WEMMO = LCELL(V_WEMMN);
V_WEMM = LCELL(V_WEMMO);
V_WRM = LCELL(V_WEMMN & V_WEMMM);
V_WRM2 = LCELL(V_WEMMN & V_WEMMM);
V_WEM = LCELL(V_WEMMM & V_WEMMO);
V_WEM2 = LCELL(V_WEMMM & V_WEMMO);
V_EN3 = DFF(!(!VXA1 & (!VXA0 or DOUBLE)),CLK42,F_WR,);
V_EN2 = DFF(!(!VXA1 & (VXA0 or DOUBLE)) ,CLK42,F_WR,);
V_EN1 = DFF(!(VXA1 & (!VXA0 or DOUBLE)) ,CLK42,F_WR,);
V_EN0 = DFF(!(VXA1 & (VXA0 or DOUBLE)) ,CLK42,F_WR,);
F_WR = DFF(VCC,V_WE,,);
V_WR_3 = V_WRM or V_EN3;
V_WR_2 = V_WRM2 or V_EN2;
V_WR_1 = V_WRM or V_EN1;
V_WR_0 = V_WRM or V_EN0;
V_WEY3 = V_WEM or V_EN3;
V_WEY2 = V_WEM2 or V_EN2;
V_WEY1 = V_WEM or V_EN1;
V_WEY0 = V_WEM or V_EN0;
V_WR[] = V_WR_[];
V_WEN[] = V_WEY[];
%
-- CLK84 = LCELL(CLK42 xor CLK84_X);
-- CLK84_X = DFF(!CLK84_X,CLK84,,);
-- CLK84_Y = CLK84;
END GENERATE; -- end "sprinter" mode
END;

View File

@ -1,783 +0,0 @@
TITLE "Video-controller";
INCLUDE "lpm_ram_dp";
PARAMETERS
(
MODE = "SPRINTER",
MOUSE = "NO",
HOR_PLACE = H"50",
VER_PLACE = H"91" -- 122h/2
);
SUBDESIGN video2
(
CLK42 : INPUT;
CT[5..0] : OUTPUT;
CTH[5..0] : OUTPUT;
CTV[8..0] : OUTPUT;
CTF[6..0] : OUTPUT;
BLANK : OUTPUT;
START_UP : INPUT;
COPY_SINC_H : INPUT;
COPY_SINC_V : INPUT;
WR : INPUT;
VAI[19..0] : INPUT; -- input screen adress
VAO[15..0] : OUTPUT;
D[7..0] : INPUT;
MDI[15..0] : INPUT;
VDO0[7..0] : OUTPUT;
VDO1[7..0] : OUTPUT;
VDO2[7..0] : OUTPUT;
VDO3[7..0] : OUTPUT;
VDM0[7..0] : INPUT;
VDM1[7..0] : INPUT;
VDM2[7..0] : INPUT;
VDM3[7..0] : INPUT;
V_WR[3..0] : OUTPUT;
V_WEN[3..0] : OUTPUT;
V_CS[1..0] : OUTPUT;
WR_PIX : OUTPUT;
-- ZX_COLOR[3..0] : OUTPUT;
ZX_PORT[7..0] : INPUT;
DIR_PORT[7..0] : INPUT;
%
bit0 - Spectrum SCREEN Switch
bit1 - Spectrum Adress MODE
bit2 - Write to Spectrum Screen OFF
bit3 - MODE page 0/1
bit4 - MODE on/off screen
bit7..5 - Border
%
INTT : OUTPUT;
DOUBLE_CAS : INPUT;
MOUSE_X[9..0] : INPUT;
MOUSE_Y[9..0] : INPUT;
)
VARIABLE
-- CLK84 : NODE;
-- CLK84_X : NODE;
-- CLK84_Y : NODE;
ZX_COLOR[3..0] : NODE;
CT[5..0] : DFFE;
CTH[5..0] : DFFE;
CTV[8..0] : DFFE;
CTF[6..0] : DFF;
VXA[19..0] : DFFE;
VXD0[7..0] : DFFE;
VXD1[7..0] : DFFE;
VXD2[7..0] : DFFE;
VXD3[7..0] : DFFE;
E_WR : NODE;
E_WRD : NODE;
BLANK : NODE;
BORD : NODE;
-- INTT_T : NODE;
INTTX : NODE;
VLA[17..0] : DFF;
-- SVA[17..0] : NODE;
SVA[17..0] : DFF;
-- RSVA[8..0] : LCELL;
RSVA[8..0] : NODE;
-- RSVA[8..0] : DFF;
V_CST[1..0] : DFF;
VCM[2..0] : DFF;
TSN_W3 : DFF;
V_WE : DFF;
V_WEX : DFF;
V_WEM : NODE;
V_WEM2 : NODE;
V_WRM : NODE;
V_WRM2 : NODE;
%
V_WEMM : NODE;
V_WEMMM : NODE;
V_WEMMN : NODE;
V_WEMMO : NODE;
%
V_WEMM : NODE;
V_WEMMM : NODE;
V_WEMMN : NODE;
V_WEMMO : NODE;
V_WEMMP : NODE;
V_WEMMQ : NODE;
V_WEMMR : NODE;
V_WEMMS : NODE;
V_WEMMT : NODE;
V_WEMMU : NODE;
V_WEMMV : NODE;
V_WEMMW : NODE;
V_WEMMX : NODE;
V_WEMMY : NODE;
V_WEMMZ : NODE;
V_WET[3..0] : DFF;
D_PIC0[7..0] : DFFE;
-- D_PIC0_[7..0] : LCELL;
D_PIC0_[7..0] : DFFE;
D_PIC1_[7..0] : DFFE;
D_PIC2_[7..0] : DFFE;
D_PIC3_[7..0] : DFFE;
D_PICX_[7..0] : NODE;
LWR_PIC : NODE;
LWR_COL : NODE;
WR_PIC : DFF;
WR_COL : DFF;
LD_PIC : NODE;
MXL: NODE;
MXR: NODE;
RBRVA[10..8]: DFF;
BRVA[7..0] : DFF;
DCOL[7..0] : DFFE;
MXWE : NODE;
-- MXCE : NODE;
AX128 : NODE;
BRD[2..0] : NODE;
ZX_COL[3..0] : LCELL;
ZXA15 : NODE;
ZXS[5..0] : NODE;
ZX_SCREEN : NODE;
SCR128 : NODE;
MODE0[7..0] : DFFE;
MODE1[7..0] : DFFE;
MODE2[7..0] : DFFE;
-- MODE3[7..0] : DFF;
WR_MODE : DFF;
LWR_MODE : NODE;
X_MODE[7..4]: NODE;
X_MODE_BOND : NODE;
-- M_CTV[2..0] : DFF;
-- M_CT[5..3] : DFF;
M_CTV[2..0] : LCELL;
M_CT[5..3] : LCELL;
DOUBLE : DFFE;
PIC_CLK : NODE;
MS_X[9..0] : DFF;
MS_Y[9..0] : DFF;
MS_POINT : NODE;
MS_POINT2 : NODE;
MS_PNT : NODE;
MS_DAT : LPM_RAM_DP WITH (LPM_WIDTH=16,LPM_WIDTHAD=8,LPM_FILE="MOUSE.MIF");
SCR_ENA : DFFE;
V_WR_[3..0] : LCELL;
V_WEY[3..0] : LCELL;
V_WE_R : NODE;
V_CSX[3..0] : NODE;
V_EN[3..0] : NODE;
F_WR : NODE;
BEGIN
DEFAULTS
WR_MODE.d = VCC; -- WR_MODE2.d = VCC; -- WR_MODE2X.d = VCC;
V_CST[].d = VCC; V_WR[] = VCC; TSN_W3.d = VCC;
V_WE.d = VCC; WR_COL.d = VCC; WR_PIC.d = VCC;
V_WET[].d = VCC;
END DEFAULTS;
ZX_COLOR[] = ZX_COL[];
-- === MOUSE counters ========
MS_X[].clk = !CT1;
CASE LCELL(CTH[5..2] == 12) IS
WHEN 0 => MS_X[] = MS_X[] + 1;
WHEN 1 => MS_X[] = (!MOUSE_X[9..0]);
END CASE;
MS_Y[].clk = !CTH5;
CASE LCELL(CTV8 & !CTV5 & CTV4) IS
WHEN 0 => MS_Y[] = MS_Y[] + 1;
WHEN 1 => MS_Y[] = (GND,!MOUSE_Y[8..0]);
END CASE;
MS_PNT = DFF(((MS_X[] == B"100000XXXX") & (MS_Y[] == B"100000XXXX")),CLK42,,);
MS_DAT.wren = GND;
MS_DAT.data[] = GND;
MS_DAT.wraddress[] = GND;
MS_DAT.wrclock = CLK42;
MS_DAT.wrclken = GND;
MS_DAT.rden = VCC;
MS_DAT.rdaddress[] = (MS_Y[3..0],MS_X[3..0]);
MS_DAT.rdclock = CLK42;
MS_DAT.rdclken = VCC;
IF MOUSE == "NO" GENERATE
MS_POINT = GND;
MS_POINT2 = GND;
ELSE GENERATE
MS_POINT = DFF((MS_PNT & MS_DAT.q0),CLK42,,);
MS_POINT2 = DFF((MS_PNT & MS_DAT.q1),CLK42,,);
END GENERATE;
-- === Sinc-counts GENERATOR ============================================
-- CT[].clrn = START_UP;
-- (,CTH[5..0].clrn,CT[5].clrn) = !COPY_SINC_H or HOR_PLACE;
-- (,CTH[5..0].prn ,CT[5].prn ) = !COPY_SINC_H or !HOR_PLACE;
-- CTV[].clrn = !COPY_SINC_V or VER_PLACE;
-- CTV[].prn = !COPY_SINC_V or !VER_PLACE;
CT[5].clrn = !COPY_SINC_H;
-- set CTH to 50 (32h)
CTH[0].clrn = !COPY_SINC_H;
CTH[1].prn = !COPY_SINC_H;
CTH[2].clrn = !COPY_SINC_H;
CTH[3].clrn = !COPY_SINC_H;
CTH[4].prn = !COPY_SINC_H;
CTH[5].prn = !COPY_SINC_H;
-- set CTV to 122h
CTV[0].clrn = !COPY_SINC_V;
CTV[1].prn = !COPY_SINC_V;
CTV[3..2].clrn = !COPY_SINC_V;
CTV[4].clrn = !COPY_SINC_V;
CTV[5].prn = !COPY_SINC_V;
CTV[7..6].clrn = !COPY_SINC_V;
CTV[8].prn = !COPY_SINC_V;
CT[5..0].clk = CLK42;
CTH[5..0].clk = CLK42;
CTV[8..0].clk = CLK42;
CT[2..0].ena = VCC;
CASE CT[2..0] IS
WHEN 0 => CT[2..0] = 1;
WHEN 1 => CT[2..0] = 2;
WHEN 2 => CT[2..0] = 4;
WHEN 3 => CT[2..0] = 4;
WHEN 4 => CT[2..0] = 5;
WHEN 5 => CT[2..0] = 6;
WHEN 6 => CT[2..0] = 0;
WHEN 7 => CT[2..0] = 0;
END CASE;
-- for remove sinc jitter
-- CT[5..3].ena = DFF(((CT0 & CT2) or (COPY_SINC_H & !CT4)),CLK42,,);
CT[5..3].ena = DFF((CT0 & CT2),CLK42,,);
CT[5..3] = CT[5..3]+1;
%
CASE CT[4..3] IS
WHEN 0 => CT[5..3] = CT[5..3]+1;
WHEN 1 => CT[5..3] = CT[5..3]+1;
WHEN 2 => CT[5..3] = CT[5..3]+1;
WHEN 3 => CT[5..3] = CT[5..3]+1;
END CASE;
%
CTH[].ena = DFF(((CT[5..2] == 15) & CT0),CLK42,,);
CTV[].ena = DFF(((CT[5..2] == 15) & CT0 & (CTH[] == 48)),CLK42,,);
IF CTH[] == 55 THEN
CTH[] = GND;
ELSE
CTH[] = CTH[] + 1;
END IF;
IF CTV[] == 319 THEN
CTV[] = GND;
ELSE
CTV[] = CTV[] + 1;
END IF;
CTF[].clk = CTV8;
CTF[] = CTF[]+1;
-- ==== Video ==========================================================
ZXS[] = ZX_PORT[5..0]; -- pages ZX Screens
ZX_SCREEN = ZX_PORT6; -- enable ZX Screen write
ZXA15 = ZX_PORT7; -- ZX A15' line
SCR128 = DIR_PORT0;
-- WR_PIX = LCELL(TSN_W3);
WR_PIX = TSN_W3;
DOUBLE.clk = CLK42; DOUBLE.ena = !E_WR; DOUBLE = DOUBLE_CAS;
VXA[].clk = CLK42; VXA[].ena = !E_WR;
VXD0[].clk = CLK42; VXD0[].ena = !E_WRD; VDO0[] = VXD0[];
VXD1[].clk = CLK42; VXD1[].ena = !E_WRD; VDO1[] = VXD1[];
VXD2[].clk = CLK42; VXD2[].ena = !E_WRD; VDO2[] = VXD2[];
VXD3[].clk = CLK42; VXD3[].ena = !E_WRD; VDO3[] = VXD3[];
-- VXD0[] = D[];
-- VXD1[] = D[];
-- VXD2[] = D[];
-- VXD3[] = D[];
(VXD0[],VXD1[]) = MDI[];
(VXD2[],VXD3[]) = MDI[];
BRD[] = DIR_PORT[7..5];
VCM[].clk = CLK42;
TSN_W3.clk = CLK42;
V_CST[].clk = CLK42;
V_WE.clk = CLK42;
V_WET[].clk = CLK42;
VLA[].clk = CLK42;
SCR_ENA.clk = CLK42;
SCR_ENA.ena = !E_WR;
SCR_ENA.d = !(VAI19 or ZX_SCREEN);
E_WRD = DFF(E_WR,CLK42,,);
E_WR = LCELL(WR or !(VAI19 or ZX_SCREEN) or !DFF(WR,CLK42,,));
-- E_WR = LCELL(WR or !DFF(WR,CLK42,,));
-- ****************************************************
IF MODE == "SPRINTER" GENERATE
-- VAI[19] - switch adress mode 1 - graf mode, 0 - spectrum mode
-- MXWE = DFF(((DFF(E_WR,CLK42,,) or SCR_ENA) & MXWE),CLK42,,V_WE);
MXWE = DFF(MXWE,CLK42,E_WR,V_WE);
IF VAI[19] THEN
-- in graf mode all 256k(512k) range
VXA[] = VAI[];
ELSE
-- in spectrum mode 8k/16k range pages
VXA[] = (GND,GND,VAI[7..0],ZXS[4..1],LCELL(ZXS0 xor ZXA15 xor VAI13),VAI[12..8]);
END IF;
-- BORD = DFF((MODE0[7..4] == 15),WR_PIC,,);
-- BLANK = DFF((BORD & MODE03 & MODE02),WR_PIC,,);
-- INTTX = DFF((BORD & MODE03 & MODE02 & MODE00),WR_PIC,,);
BORD = DFF((MODE0[7..4] == 15),LWR_COL,,);
BLANK = DFF(((BORD & MODE03 & MODE02) or DIR_PORT4),LWR_COL,,);
INTTX = DFF((BORD & MODE03 & MODE02 & MODE00),LWR_COL,,);
INTT = DFF(!(INTTX & (CTV[2..0] == 7)),CT5,,);
-- INTT = DFF((INTTX or DFF(INTTX,CT5,,)),CT5,,);
-- INTT = DFF(!(BLANK & (CTV[2..0] == 7)),CLK42,,MODE0[0]);
CASE CT[2..0] IS
WHEN B"110" => VCM[2..0].d = 5; -- 110 -> 101 6 -> 5
WHEN B"000" => VCM[2..0].d = 1; -- 000 -> 001 0 -> 1
WHEN B"001" => VCM[2..0].d = 4; -- 001 -> 100 1 -> 4
WHEN B"010" => VCM[2..0].d = 3; -- 010 -> 011 2 -> 3
WHEN B"100" => VCM[2..0].d = 2; -- 100 -> 010 4 -> 2
WHEN B"101" => VCM[2..0].d = 0; -- 101 -> 000 5 -> 0
END CASE;
CASE VCM[1..0] IS
WHEN 0 =>
VLA[].d = (BRVA[7..0],VCC,VCC,VCC,VCC,VCC,RBRVA[10..8],GND,GND);
V_CST[].d = (VCC,GND);
V_WE.d = VCC;
V_WEX.d = VCC;
TSN_W3.d = X_MODE_BOND;
%
IF VCM2 THEN
-- TSN_W3.d = X_MODE5;
TSN_W3.d = X_MODE_BOND;
-- V_CST[].d = (VCC,X_MODE5);
ELSE
TSN_W3.d = X_MODE_BOND;
-- V_CST[].d = (VCC,X_MODE_BOND);
END IF;
%
WHEN 1 =>
WR_PIC.d = !VCM2;
WR_COL.d = VCM2;
VLA[].d = SVA[];
V_CST[].d = (VCC,GND);
V_WE.d = VCC;
V_WEX.d = VCC;
WHEN 2 =>
VLA[].d = VXA[17..0];
V_CST[].d = (!VXA18,VXA18) or MXWE;
V_WE.d = MXWE;
V_WEX.d = GND;
V_WET[].d = MXWE or !((!VXA1 & !VXA0),(!VXA1 & VXA0),(VXA1 & !VXA0),(VXA1 & VXA0));
WHEN 3 =>
-- WR_PIC.d = X_MODE5;
-- NEW 26.08.2022, fix bug with first column
-- it was reproducing when changes mode 320 -> 640, like any 320px screen squares -> text mode squares
WR_PIC.d = MODE0[5];
VLA[].d = (DIR_PORT3,CTH[5..0],CT5,VCC,VCC,CTV[8..3],GND,GND);
WR_MODE.d = !(CT[5..3] == B"111") & !(CT4 & CT3 & !MODE0[5]);
V_CST[].d = (VCC,GND);
V_WE.d = VCC;
V_WEX.d = VCC;
END CASE;
-- choose V-RAM komplect
V_CST1.prn = GND;
-- V_CS0.clrn = GND;
V_CST0.prn = (LCELL(DFF(GND,!CLK42,,!V_CST0)));
V_CS1 = VCC;
-- V_CS0 = LCELL(V_CST0);
V_CSX0 = LCELL(!CLK42);
V_CSX1 = LCELL(V_CSX0);
V_CSX2 = LCELL(V_CSX1 & V_CSX0);
V_CSX3 = LCELL(V_CSX2);
-- V_CS0 = V_CSX3;
V_CS0 = GND;
-- =====================
SVA[].clk = CLK42;
SVA[9..6] = MODE0[3..0];
-- RSVA[].clk = CLK42;
(SVA[12..10],SVA[5..0]) = RSVA[];
-- M_CTV[2..0].clk = CLK42;
-- M_CT[5..3].clk = CLK42;
M_CTV[2..0] = (!MODE2[2] & CTV[2..0]) or MODE2[2] & (MODE2[1],CTV[2..1]);
M_CT[5..3] = (!MODE2[2] & (CT[5],!CT[4..3])) or MODE2[2] & (MODE2[0],!CT[5..4]);
CASE (!VCM2,MODE0[4]) IS
-- CASE (!VCM1,MODE0[4]) IS
WHEN B"X0" =>
-- Graf adress --
RSVA[] = (M_CTV[2..0],MODE1[2..0],M_CT[5..3]);
SVA[17..13] = MODE1[7..3];
-- SVA[12..10] = CTV[2..0];
-- SVA[5..0] = (MODE1[2..0],CT5,!CT[4..3]);
WHEN B"01" =>
-- ZX-atr adress --
RSVA[] = (MODE2[2..0],SCR128,VCC,VCC,GND,!MODE0[7..6]);
SVA[17..13] = MODE2[7..3];
-- SVA[12..10] = MODE2[2..0];
-- SVA[5..0] = (SCR128,VCC,VCC,GND,!MODE0[7..6]);
WHEN B"11" =>
-- ZX-pic adress --
RSVA[] = (MODE1[2..0],SCR128,MODE0[7..6],CTV2,!CTV1,!CTV0);
SVA[17..13] = MODE1[7..3];
-- SVA[12..10] = MODE1[2..0];
-- SVA[5..0] = (SCR128,MODE0[7..6],CTV2,!CTV1,!CTV0);
END CASE;
-- X_MODE_BOND = LCELL(LCELL(DCOL[7..4] == 15) & LCELL(DCOL[3..0] == 15) & DFF((MODE0[7] & MODE0[5] & !MODE0[4]),LWR_COL,VCC,VCC));
X_MODE_BOND = GND;
-- LD_PIC = LCELL((MODE0[5] & DFF((CT[5..3] == B"000"),CLK42,,)) or (!MODE0[5] & DFF((CT[4..2] == B"000"),CLK42,,)));
LD_PIC = LCELL((MODE0[5] & DFF((CT[5..3] == B"000"),CLK42,,)) or (!MODE0[5] & DFF((CT[4..2] == B"000"),CLK42,,)));
-- CASE (DFF(VLA1,!CLK42,,),DFF(VLA0,!CLK42,,)) IS
-- D_PIC0_[].clk = !CLK42;
-- D_PIC1_[].clk = !CLK42;
-- D_PIC2_[].clk = !CLK42;
-- D_PIC3_[].clk = !CLK42;
-- PIC_CLK = LCELL(LCELL(CLK42));
PIC_CLK = !CLK42;
D_PIC0_[].clk = PIC_CLK;
D_PIC1_[].clk = PIC_CLK;
D_PIC2_[].clk = PIC_CLK;
D_PIC3_[].clk = PIC_CLK;
D_PIC0_[] = VDM0[];
D_PIC1_[] = VDM1[];
D_PIC2_[] = VDM2[];
D_PIC3_[] = VDM3[];
CASE (DFF(VLA1,CLK42,,),DFF(VLA0,CLK42,,)) IS
WHEN 0 => D_PICX_[] = D_PIC0_[];
WHEN 1 => D_PICX_[] = D_PIC1_[];
WHEN 2 => D_PICX_[] = D_PIC2_[];
WHEN 3 => D_PICX_[] = D_PIC3_[];
END CASE;
MODE0[].ena = VCC;
MODE1[].ena = VCC;
MODE2[].ena = VCC;
MODE0[].clk = LWR_MODE;
MODE1[].clk = LWR_MODE;
MODE2[].clk = LWR_MODE;
MODE0[].d = VDM3[];
MODE1[].d = VDM2[];
MODE2[].d = VDM1[];
LWR_MODE = LCELL(LCELL(WR_MODE));
%
MODE0[].ena = LWR_MODE;
MODE1[].ena = LWR_MODE;
MODE2[].ena = LWR_MODE;
MODE0[].clk = CLK42;
MODE1[].clk = CLK42;
MODE2[].clk = CLK42;
MODE0[].d = D_PIC3_[];
MODE1[].d = D_PIC2_[];
MODE2[].d = D_PIC1_[];
LWR_MODE = DFF(!WR_MODE,CLK42,,);
%
X_MODE7 = DFF(MODE0[7],LWR_COL,,);
X_MODE6 = DFF(MODE0[6],LWR_COL,,);
X_MODE5 = DFF(MODE0[5],LWR_COL,,);
X_MODE4 = DFF(MODE0[4],LWR_COL,,);
VAO[] = VLA[17..2];
WR_PIC.clk = CLK42;
WR_COL.clk = CLK42;
WR_MODE.clk = CLK42;
-- LWR_PIC = LCELL(LCELL(WR_PIC));
-- LWR_COL = LCELL(LCELL(WR_COL));
-- LWR_PIC = LCELL(WR_PIC);
-- LWR_COL = LCELL(WR_COL);
LWR_PIC = DFF(WR_PIC,CLK42,,);
LWR_COL = DFF(WR_COL,CLK42,,);
-- D_PIC0[].ena = VCC;
-- D_PIC0[].clk = (LWR_PIC);
D_PIC0[].ena = !LWR_PIC;
D_PIC0[].clk = CLK42;
IF LD_PIC THEN
-- D_PIC0[] = D_PIC0_[];
D_PIC0[] = D_PICX_[];
ELSE
D_PIC0[] = (D_PIC0[6..0],GND);
END IF;
-- DCOL[].clk = (LWR_COL);
DCOL[].ena = !LWR_COL;
DCOL[].clk = CLK42;
IF DFF((MODE0[7..4] == 15),WR_PIC,,) THEN
DCOL[].d = (B"00",BRD[2..0],BRD[2..0]);
ELSE
-- DCOL[].d = D_PIC0_[];
DCOL[].d = D_PICX_[];
END IF;
DCOL[].clrn = !BLANK;
BRVA[].clk = CLK42;
BRVA[].clrn = !MS_POINT;
BRVA[].prn = !MS_POINT2;
-- MODE0[4] - graph / text
-- MODE0[5] - 320 / 640 resolution
-- CASE (LCELL(X_MODE4 or X_MODE5),CT2) IS
CASE (DFF((MODE0[4] or MODE0[5]),LWR_COL,,),CT2) IS
WHEN B"1X" => BRVA[7..0] = DCOL[];
WHEN B"01" => BRVA[7..0] = (B"0000",DCOL[7..4]);
WHEN B"00" => BRVA[7..0] = (B"0000",DCOL[3..0]);
END CASE;
-- BRVA[10..8] = (x_mode4,RBRVA[9..8]);
RBRVA[].clk = CLK42;
CASE (BORD,X_MODE4) IS
WHEN B"X0" => RBRVA[10..8].d = (GND,X_MODE[7..6]);
WHEN B"X1" => RBRVA[10..8].d = (VCC,(CTF4 & !BLANK),D_PIC0[7]);
END CASE;
RBRVA[9..8].clrn = !BORD;
RBRVA[10].prn = !BORD;
CASE (RBRVA[9..8],BRVA7) IS
WHEN 0,1,4,7 => ZX_COL[] = (BRVA[6],BRVA[5..3]);
WHEN 2,3,6,5 => ZX_COL[] = (BRVA[6],BRVA[2..0]);
END CASE;
-- V_WET[].prn = LCELL(DFF(GND,!CLK42,,!V_WE));
-- V_WE.prn = LCELL(DFF(GND,!CLK42,,!V_WE));
V_WE_R = DFF(GND,!CLK42,,!V_WE);
V_WE.prn = V_WE_R;
V_WET[].prn = V_WE_R;
-- V_WR[] = LCELL(V_WE) or !((!VXA1 & !VXA0),(!VXA1 & VXA0),(VXA1 & !VXA0),(VXA1 & VXA0));
-- V_WR[] = (V_WE) or !(
V_WEX.clk = CLK42;
-- V_WEX.d = V_WE;
-- V_WEX.prn = (DFF(GND,CLK42,,!V_WEX));
V_WEMMM = LCELL(V_WE);
-- V_WEMMN = LCELL(V_WEMMM); -- bios ok, fn ok, fnf1 failed, zx almost ok
-- V_WEMMO = LCELL(V_WEMMN); -- green arts
-- V_WEMMP = LCELL(V_WEMMO); -- blue + pink arts
-- V_WEMMR = LCELL(V_WEMMP); -- no F1 issue, but red arts (fix by finger, not enough capacity??)
-- V_WEMMS = LCELL(V_WEMMR);
-- V_WEMMT = LCELL(V_WEMMS);
-- V_WEMMU = LCELL(V_WEMMT);
-- V_WEMMV = LCELL(V_WEMMU);
-- V_WEMMW = LCELL(V_WEMMV);
-- V_WEMMX = LCELL(V_WEMMW);
-- V_WEMMY = LCELL(V_WEMMX);
-- V_WEMMZ = LCELL(V_WEMMY);
V_WRM = LCELL(V_WE or V_WEMMM);
-- V_WRM = LCELL(V_WEMMN or V_WEMMM);
-- V_WRM2 = LCELL(V_WEMMN or V_WEMMM);
-- V_WRM2 = LCELL(V_WEMMR);
-- V_WRM = LCELL(V_WEMMM or V_WEMMN);
-- V_WRM2 = LCELL(V_WEMMM or V_WEMMN);
V_WEM = (V_WE);
-- V_WEM2 = LCELL(V_WE);
-- V_WEM = LCELL(V_WEMMM & V_WEMMN);
-- V_WEM2 = LCELL(V_WEMMM & V_WEMMO);
--- LWR_COL = DFF(WR_COL,CLK42,,);
F_WR = ((LCELL(LCELL(LCELL(DFF(VCC,V_WE,,))))));
--- F_WR = DFF(V_WE,CLK42,,);
-- V_WEMMZ = LCELL(CLK42);
V_EN3 = (DFF(!(!VXA1 & (!VXA0 or DOUBLE)), CLK42, F_WR,));
V_EN2 = (DFF(!(!VXA1 & (VXA0 or DOUBLE)), CLK42, F_WR,));
V_EN1 = (DFF(!(VXA1 & (!VXA0 or DOUBLE)), CLK42, F_WR,));
V_EN0 = (DFF(!(VXA1 & (VXA0 or DOUBLE)), CLK42, F_WR,));
-- V_WR_3 = LCELL(V_WRM or V_EN3);
-- V_WR_2 = LCELL(V_WRM or V_EN2);
-- V_WR_1 = LCELL(V_WRM or V_EN1);
-- V_WR_0 = LCELL(V_WRM or V_EN0);
V_WR_3 = (LCELL(LCELL(LCELL(V_WRM or V_EN3))));
V_WR_2 = (LCELL(LCELL(LCELL(V_WRM or V_EN2))));
V_WR_1 = (LCELL(LCELL(LCELL(V_WRM or V_EN1))));
V_WR_0 = (LCELL(LCELL(LCELL(V_WRM or V_EN0))));
V_WEY3 = LCELL(V_WE or V_EN3);
V_WEY2 = LCELL(V_WE or V_EN2);
V_WEY1 = LCELL(V_WE or V_EN1);
V_WEY0 = LCELL(V_WE or V_EN0);
V_WR[] = V_WR_[]; -- V_WR0-3
V_WEN[] = V_WEY[]; -- VD0-3
%
V_WEMMM = LCELL(V_WE);
V_WEMMN = LCELL(V_WEMMM);
V_WEMMO = LCELL(V_WEMMN);
V_WEMM = LCELL(V_WEMMO);
V_WRM = LCELL(V_WEMMN & V_WEMMM);
V_WRM2 = LCELL(V_WEMMN & V_WEMMM);
V_WEM = LCELL(V_WEMMM & V_WEMMO);
V_WEM2 = LCELL(V_WEMMM & V_WEMMO);
V_EN3 = DFF(!(!VXA1 & (!VXA0 or DOUBLE)),CLK42,F_WR,);
V_EN2 = DFF(!(!VXA1 & (VXA0 or DOUBLE)) ,CLK42,F_WR,);
V_EN1 = DFF(!(VXA1 & (!VXA0 or DOUBLE)) ,CLK42,F_WR,);
V_EN0 = DFF(!(VXA1 & (VXA0 or DOUBLE)) ,CLK42,F_WR,);
F_WR = DFF(VCC,V_WE,,);
V_WR_3 = V_WRM or V_EN3;
V_WR_2 = V_WRM2 or V_EN2;
V_WR_1 = V_WRM or V_EN1;
V_WR_0 = V_WRM or V_EN0;
V_WEY3 = V_WEM or V_EN3;
V_WEY2 = V_WEM2 or V_EN2;
V_WEY1 = V_WEM or V_EN1;
V_WEY0 = V_WEM or V_EN0;
V_WR[] = V_WR_[];
V_WEN[] = V_WEY[];
%
-- CLK84 = LCELL(CLK42 xor CLK84_X);
-- CLK84_X = DFF(!CLK84_X,CLK84,,);
-- CLK84_Y = CLK84;
END GENERATE; -- end "sprinter" mode
END;

View File

@ -1,5 +0,0 @@
C:
cd "C:\users\tolik\Documents\SP_Projects\ASM\GIT\SP_Core\Build\acex\tmp\"
"C:\Program Files (x86)\MAXPLUS2\MAXPLUS2.EXE" -compile SP2_ACEX >> compile.log
transttf.exe SP2_ACEX.ttf ..\STREAM.BIN
exit

View File

@ -1,10 +0,0 @@
@echo off
cd acex
call make.cmd
cd ..\max
call make.cmd
cd ..

View File

@ -1,653 +0,0 @@
--
-- Copyright (C) 1988-2000 Altera Corporation
-- Any megafunction design, and related net list (encrypted or decrypted),
-- support information, device programming or simulation file, and any other
-- associated documentation or information provided by Altera or a partner
-- under Altera's Megafunction Partnership Program may be used only to
-- program PLD devices (but not masked PLD devices) from Altera. Any other
-- use of such megafunction design, net list, support information, device
-- programming or simulation file, or any other related documentation or
-- information is prohibited for any other purpose, including, but not
-- limited to modification, reverse engineering, de-compiling, or use with
-- any other silicon devices, unless such use is explicitly licensed under
-- a separate agreement with Altera or a megafunction partner. Title to
-- the intellectual property, including patents, copyrights, trademarks,
-- trade secrets, or maskworks, embodied in any such megafunction design,
-- net list, support information, device programming or simulation file, or
-- any other related documentation or information provided by Altera or a
-- megafunction partner, remains with Altera, the megafunction partner, or
-- their respective licensors. No other licenses, including any licenses
-- needed under any third party's intellectual property, are provided herein.
--
CHIP SP2_MAX
BEGIN
DEVICE = EPM7064STC100-10;
|GND65 : INPUT_PIN = 65;
|GND33 : INPUT_PIN = 33;
|/CONF_X : BIDIR_PIN = 54;
|10K_D0 : OUTPUT_PIN = 58;
|CLKZZ : BIDIR_PIN = 32;
|10K_CLK : OUTPUT_PIN = 56;
|XHD2_CS2 : OUTPUT_PIN = 83;
|XHD2_CS1 : OUTPUT_PIN = 81;
|XHD1_CS2 : OUTPUT_PIN = 80;
|XHD1_CS1 : OUTPUT_PIN = 79;
|XHD_WR : OUTPUT_PIN = 75;
|XHD_RES : OUTPUT_PIN = 71;
|XHD_RD : OUTPUT_PIN = 76;
|WR_PDOS : OUTPUT_PIN = 8;
|/WG_WR : OUTPUT_PIN = 93;
|/WG_RD : OUTPUT_PIN = 97;
|WDAT : OUTPUT_PIN = 98;
|TG42_OUT : OUTPUT_PIN = 85;
|TG42_BUF : OUTPUT_PIN = 36;
|SINC_2 : OUTPUT_PIN = 19;
|SINC_1 : OUTPUT_PIN = 20;
|SINC_V : OUTPUT_PIN = 64;
|SINC_H : OUTPUT_PIN = 68;
|SINC : OUTPUT_PIN = 67;
|QDAT : OUTPUT_PIN = 16;
|HD_DIR : OUTPUT_PIN = 48;
|HD_CS : OUTPUT_PIN = 52;
|FDAT : OUTPUT_PIN = 14;
|DENS_X : OUTPUT_PIN = 96;
|CMOS_DWR : OUTPUT_PIN = 100;
|CMOS_DRD : OUTPUT_PIN = 99;
|CMOS_AS : OUTPUT_PIN = 6;
|CLK14 : OUTPUT_PIN = 31;
|CLK_WG : OUTPUT_PIN = 13;
|BEEP : OUTPUT_PIN = 84;
|AUD : OUTPUT_PIN = 35;
|XHR_RDY : INPUT_PIN = 88;
|XA2 : INPUT_PIN = 23;
|XA1 : INPUT_PIN = 21;
|XA0 : INPUT_PIN = 17;
|XACS : INPUT_PIN = 37;
|WSTB : INPUT_PIN = 10;
|WR_CNF : INPUT_PIN = 57;
|WD : INPUT_PIN = 9;
|VGA_IN : INPUT_PIN = 61;
|TR43 : INPUT_PIN = 12;
|TG42_IN : INPUT_PIN = 87;
|STE : INPUT_PIN = 94;
|SR : INPUT_PIN = 29;
|SL : INPUT_PIN = 30;
|SINC_IN : INPUT_PIN = 69;
|RSTB : INPUT_PIN = 25;
|RDAT : INPUT_PIN = 92;
|PW_GOOD : INPUT_PIN = 90;
|HDD_C3 : INPUT_PIN = 40;
|HDD_C2 : INPUT_PIN = 41;
|HDD_C1 : INPUT_PIN = 42;
|HDD_C0 : INPUT_PIN = 47;
|FDD_C2 : INPUT_PIN = 46;
|FDD_C1 : INPUT_PIN = 45;
|FDD_C0 : INPUT_PIN = 44;
|EPM_RES : INPUT_PIN = 89;
|D0 : INPUT_PIN = 60;
END;
DEFAULT_DEVICES
BEGIN
AUTO_DEVICE = EPM7256SQC208-7;
AUTO_DEVICE = EPM7256SRC208-7;
AUTO_DEVICE = EPM7192SQC160-7;
AUTO_DEVICE = EPM7160SQC160-6;
AUTO_DEVICE = EPM7160STC100-6;
AUTO_DEVICE = EPM7160SLC84-6;
AUTO_DEVICE = EPM7128SQC160-6;
AUTO_DEVICE = EPM7128STC100-6;
AUTO_DEVICE = EPM7128SQC100-6;
AUTO_DEVICE = EPM7128SLC84-6;
AUTO_DEVICE = EPM7064STC100-5;
AUTO_DEVICE = EPM7064SLC84-5;
AUTO_DEVICE = EPM7064STC44-5;
AUTO_DEVICE = EPM7064SLC44-5;
AUTO_DEVICE = EPM7032STC44-5;
AUTO_DEVICE = EPM7032SLC44-5;
ASK_BEFORE_ADDING_EXTRA_DEVICES = ON;
END;
TIMING_POINT
BEGIN
DEVICE_FOR_TIMING_SYNTHESIS = EPM7064STC100-10;
FREQUENCY = 100MHz;
MAINTAIN_STABLE_SYNTHESIS = OFF;
CUT_ALL_CLEAR_PRESET = ON;
CUT_ALL_BIDIR = ON;
END;
IGNORED_ASSIGNMENTS
BEGIN
FIT_IGNORE_TIMING = ON;
DEMOTE_SPECIFIC_LCELL_ASSIGNMENTS_TO_LAB_ASSIGNMENTS = OFF;
IGNORE_LOCAL_ROUTING_ASSIGNMENTS = OFF;
IGNORE_DEVICE_ASSIGNMENTS = OFF;
IGNORE_LC_ASSIGNMENTS = OFF;
IGNORE_PIN_ASSIGNMENTS = OFF;
IGNORE_CHIP_ASSIGNMENTS = OFF;
IGNORE_TIMING_ASSIGNMENTS = OFF;
IGNORE_LOGIC_OPTION_ASSIGNMENTS = OFF;
IGNORE_CLIQUE_ASSIGNMENTS = OFF;
END;
LOGIC_OPTIONS
BEGIN
|LR_T1 : TURBO_BIT = ON;
|LR_T0 : TURBO_BIT = ON;
|CLK_WG : TURBO_BIT = ON;
|TG42_BUF : STYLE = WYSIWYG;
|TG42_OUT : STYLE = WYSIWYG;
|XHD_RD : TURBO_BIT = OFF;
|XHD_RES : TURBO_BIT = OFF;
|XHD_WR : TURBO_BIT = OFF;
|XHD1_CS1 : TURBO_BIT = OFF;
|XHD1_CS2 : TURBO_BIT = OFF;
|XHD2_CS1 : TURBO_BIT = OFF;
|XHD2_CS2 : TURBO_BIT = OFF;
|10K_CLK : TURBO_BIT = OFF;
|10K_D0 : TURBO_BIT = OFF;
|REG_P0 : TURBO_BIT = ON;
|REG_P1 : TURBO_BIT = ON;
|REG_P2 : TURBO_BIT = ON;
|TG42_BUF : TURBO_BIT = ON;
|TG42_OUT : TURBO_BIT = ON;
|STWG0 : TURBO_BIT = ON;
|STWG1 : TURBO_BIT = ON;
|STWG2 : TURBO_BIT = ON;
|XCT0 : TURBO_BIT = ON;
|XCT1 : TURBO_BIT = ON;
END;
GLOBAL_PROJECT_DEVICE_OPTIONS
BEGIN
MULTIVOLT_IO = OFF;
SECURITY_BIT = ON;
MAX7000B_ENABLE_VREFB = OFF;
MAX7000B_ENABLE_VREFA = OFF;
MAX7000B_VCCIO_IOBANK2 = 3.3V;
MAX7000B_VCCIO_IOBANK1 = 3.3V;
CONFIG_EPROM_PULLUP_RESISTOR = ON;
CONFIG_EPROM_USER_CODE = FFFFFFFF;
FLEX_CONFIGURATION_EPROM = AUTO;
MAX7000AE_ENABLE_JTAG = ON;
MAX7000AE_USER_CODE = FFFFFFFF;
FLEX6000_USE_LOW_VOLTAGE_CONFIGURATION_EPROM = OFF;
FLEX10KA_USE_LOW_VOLTAGE_CONFIGURATION_EPROM = ON;
FLEX10K_USE_LOW_VOLTAGE_CONFIGURATION_EPROM = OFF;
FLEX6000_ENABLE_JTAG = OFF;
CONFIG_SCHEME_FLEX_6000 = PASSIVE_SERIAL;
MAX7000S_ENABLE_JTAG = ON;
FLEX10K_ENABLE_LOCK_OUTPUT = OFF;
MAX7000S_USER_CODE = FFFF;
CONFIG_SCHEME_10K = PASSIVE_SERIAL;
FLEX10K_JTAG_USER_CODE = 7F;
ENABLE_INIT_DONE_OUTPUT = OFF;
ENABLE_CHIP_WIDE_OE = OFF;
ENABLE_CHIP_WIDE_RESET = OFF;
nCEO = UNRESERVED;
CLKUSR = UNRESERVED;
ADD17 = UNRESERVED;
ADD16 = UNRESERVED;
ADD15 = UNRESERVED;
ADD14 = UNRESERVED;
ADD13 = UNRESERVED;
ADD0_TO_ADD12 = UNRESERVED;
SDOUT = RESERVED_DRIVES_OUT;
RDCLK = UNRESERVED;
RDYnBUSY = UNRESERVED;
nWS_nRS_nCS_CS = UNRESERVED;
DATA1_TO_DATA7 = UNRESERVED;
DATA0 = RESERVED_TRI_STATED;
FLEX8000_ENABLE_JTAG = OFF;
CONFIG_SCHEME = ACTIVE_SERIAL;
DISABLE_TIME_OUT = OFF;
ENABLE_DCLK_OUTPUT = OFF;
RELEASE_CLEARS = OFF;
AUTO_RESTART = OFF;
USER_CLOCK = OFF;
RESERVED_PINS_PERCENT = 0;
RESERVED_LCELLS_PERCENT = 0;
END;
GLOBAL_PROJECT_SYNTHESIS_ASSIGNMENT_OPTIONS
BEGIN
STYLE = NORMAL;
AUTO_GLOBAL_CLEAR = OFF;
AUTO_GLOBAL_CLOCK = OFF;
DEVICE_FAMILY = MAX7000S;
MULTI_LEVEL_SYNTHESIS_MAX9000 = ON;
AUTO_IMPLEMENT_IN_EAB = OFF;
AUTO_OPEN_DRAIN_PINS = ON;
ONE_HOT_STATE_MACHINE_ENCODING = OFF;
AUTO_REGISTER_PACKING = OFF;
AUTO_FAST_IO = OFF;
AUTO_GLOBAL_OE = ON;
AUTO_GLOBAL_PRESET = ON;
MULTI_LEVEL_SYNTHESIS_MAX5000_7000 = OFF;
OPTIMIZE_FOR_SPEED = 5;
END;
COMPILER_PROCESSING_CONFIGURATION
BEGIN
FITTER_SETTINGS = ADVANCED;
USE_QUARTUS_FITTER = OFF;
PRESERVE_ALL_NODE_NAME_SYNONYMS = OFF;
SMART_RECOMPILE = OFF;
GENERATE_AHDL_TDO_FILE = OFF;
RPT_FILE_USER_ASSIGNMENTS = ON;
RPT_FILE_LCELL_INTERCONNECT = ON;
RPT_FILE_HIERARCHY = ON;
RPT_FILE_EQUATIONS = ON;
LINKED_SNF_EXTRACTOR = OFF;
OPTIMIZE_TIMING_SNF = OFF;
TIMING_SNF_EXTRACTOR = ON;
FUNCTIONAL_SNF_EXTRACTOR = OFF;
DESIGN_DOCTOR_RULES = EPLD;
DESIGN_DOCTOR = OFF;
END;
COMPILER_INTERFACES_CONFIGURATION
BEGIN
NETLIST_OUTPUT_TIME_SCALE = 0.1ns;
EDIF_INPUT_SHOW_LMF_MAPPING_MESSAGES = OFF;
EDIF_BUS_DELIMITERS = [];
EDIF_FLATTEN_BUS = OFF;
EDIF_OUTPUT_FORCE_0NS_DELAYS = OFF;
EDIF_OUTPUT_INCLUDE_SPECIAL_PRIM = OFF;
EDIF_OUTPUT_MAP_ILLEGAL_CHAR = OFF;
EDIF_OUTPUT_DELAY_CONSTRUCTS = EDO_FILE;
EDIF_OUTPUT_USE_EDC = OFF;
EDIF_INPUT_USE_LMF2 = OFF;
EDIF_INPUT_USE_LMF1 = OFF;
EDIF_OUTPUT_GND = GND;
EDIF_OUTPUT_VCC = VCC;
EDIF_INPUT_GND = GND;
EDIF_INPUT_VCC = VCC;
EDIF_OUTPUT_EDC_FILE = *.edc;
EDIF_INPUT_LMF2 = *.lmf;
EDIF_INPUT_LMF1 = *.lmf;
VHDL_GENERATE_CONFIGURATION_DECLARATION = OFF;
VHDL_OUTPUT_DELAY_CONSTRUCTS = VHO_FILE;
VERILOG_OUTPUT_DELAY_CONSTRUCTS = VO_FILE;
VHDL_FLATTEN_BUS = OFF;
VERILOG_FLATTEN_BUS = OFF;
EDIF_TRUNCATE_HIERARCHY_PATH = OFF;
VHDL_TRUNCATE_HIERARCHY_PATH = OFF;
VERILOG_TRUNCATE_HIERARCHY_PATH = OFF;
VERILOG_OUTPUT_MAP_ILLEGAL_CHAR = OFF;
VHDL_WRITER_VERSION = VHDL87;
VHDL_READER_VERSION = VHDL87;
SYNOPSYS_MAPPING_EFFORT = MEDIUM;
SYNOPSYS_BOUNDARY_OPTIMIZATION = OFF;
SYNOPSYS_HIERARCHICAL_COMPILATION = ON;
SYNOPSYS_DESIGNWARE = OFF;
SYNOPSYS_COMPILER = DESIGN;
USE_SYNOPSYS_SYNTHESIS = OFF;
VHDL_NETLIST_WRITER = OFF;
VERILOG_NETLIST_WRITER = OFF;
XNF_GENERATE_AHDL_TDX_FILE = ON;
XNF_TRANSLATE_INTERNAL_NODE_NAMES = ON;
XNF_EMULATE_TRI_STATE_BUSES = INTERNAL_LOGIC;
EDIF_OUTPUT_VERSION = 200;
EDIF_NETLIST_WRITER = OFF;
END;
CUSTOM_DESIGN_DOCTOR_RULES
BEGIN
MASTER_RESET = OFF;
EXPANDER_NETWORKS = ON;
RACE_CONDITIONS = ON;
DELAY_CHAINS = ON;
ASYNCHRONOUS_INPUTS = ON;
PRESET_CLEAR_NETWORKS = ON;
STATIC_HAZARDS_AFTER_SYNTHESIS = OFF;
STATIC_HAZARDS_BEFORE_SYNTHESIS = ON;
MULTI_CLOCK_NETWORKS = ON;
MULTI_LEVEL_CLOCKS = ON;
GATED_CLOCKS = ON;
RIPPLE_CLOCKS = ON;
END;
SIMULATOR_CONFIGURATION
BEGIN
END_TIME = 25.0us;
BIDIR_PIN = STRONG;
START_TIME = 0.0ns;
GLITCH_TIME = 0.0ns;
GLITCH = OFF;
OSCILLATION_TIME = 0.0ns;
OSCILLATION = OFF;
CHECK_OUTPUTS = OFF;
SETUP_HOLD = OFF;
USE_DEVICE = OFF;
END;
TIMING_ANALYZER_CONFIGURATION
BEGIN
ANALYSIS_MODE = REGISTERED_PERFORMANCE;
CUT_OFF_RAM_REGISTERED_WE_PATHS = OFF;
LIST_PATH_FREQUENCY = 10MHz;
LIST_PATH_COUNT = 10;
REGISTERED_PERFORMANCE_OPTIONS = NUMBER_OF_PATHS;
INCLUDE_PATHS_LESS_THAN_VALUE = 214.7483647ms;
INCLUDE_PATHS_LESS_THAN = OFF;
INCLUDE_PATHS_GREATER_THAN_VALUE = 0.0ns;
INCLUDE_PATHS_GREATER_THAN = OFF;
DELAY_MATRIX_OPTIONS = SHOW_ALL_PATHS;
CELL_WIDTH = 18;
LIST_ONLY_LONGEST_PATH = ON;
CUT_OFF_CLEAR_AND_PRESET_PATHS = ON;
CUT_OFF_IO_PIN_FEEDBACK = ON;
AUTO_RECALCULATE = OFF;
END;
OTHER_CONFIGURATION
BEGIN
LAST_MAXPLUS2_VERSION = 10.0;
ROW_PINS_LCELL_INSERT = ON;
CARRY_OUT_PINS_LCELL_INSERT = OFF;
NORMAL_LCELL_INSERT = ON;
EXPLICIT_FAMILY = 1;
FLEX_10K_52_COLUMNS = 40;
DEFAULT_9K_EXP_PER_LCELL = 1/2;
LOCAL_INTERCONNECT_PER_LAB_PERCENT = 100;
LCELLS_PER_ROW_PERCENT = 100;
FAN_IN_PER_LCELL_PERCENT = 100;
EXP_PER_LCELL_PERCENT = 100;
ROW_PINS_PERCENT = 50;
ORIGINAL_MAXPLUS2_VERSION = 9.6;
COMPILER_DATA = "1,1,0,1,0,0,0,1,1,1,1,0,1,1,1";
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.MAX5000
BEGIN
REGISTER_OPTIMIZATION = ON;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = ON;
REFACTORIZATION = ON;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
MINIMIZATION = FULL;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = ON;
SLOW_SLEW_RATE = OFF;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.MAX7000
BEGIN
TURBO_BIT = ON;
REGISTER_OPTIMIZATION = ON;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = ON;
REFACTORIZATION = ON;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
MINIMIZATION = FULL;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
PARALLEL_EXPANDERS = OFF;
XOR_SYNTHESIS = ON;
SLOW_SLEW_RATE = OFF;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.CLASSIC
BEGIN
REGISTER_OPTIMIZATION = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
MINIMIZATION = FULL;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.FLEX8000
BEGIN
CARRY_CHAIN_LENGTH = 32;
CASCADE_CHAIN_LENGTH = 2;
REGISTER_OPTIMIZATION = ON;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = ON;
REFACTORIZATION = ON;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
MINIMIZATION = FULL;
IGNORE_SOFT_BUFFERS = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.MAX5000
BEGIN
REGISTER_OPTIMIZATION = ON;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
MINIMIZATION = FULL;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = ON;
SLOW_SLEW_RATE = OFF;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.MAX7000
BEGIN
TURBO_BIT = ON;
SLOW_SLEW_RATE = OFF;
XOR_SYNTHESIS = ON;
REGISTER_OPTIMIZATION = ON;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
MINIMIZATION = FULL;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
PARALLEL_EXPANDERS = ON;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.CLASSIC
BEGIN
REGISTER_OPTIMIZATION = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
MINIMIZATION = FULL;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.FLEX8000
BEGIN
CARRY_CHAIN_LENGTH = 32;
CASCADE_CHAIN_LENGTH = 2;
REGISTER_OPTIMIZATION = ON;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
CARRY_CHAIN = AUTO;
CASCADE_CHAIN = AUTO;
MINIMIZATION = FULL;
IGNORE_SOFT_BUFFERS = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.MAX5000
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = OFF;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = OFF;
SOFT_BUFFER_INSERTION = OFF;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = PARTIAL;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.MAX7000
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = OFF;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = OFF;
SOFT_BUFFER_INSERTION = OFF;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = PARTIAL;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.CLASSIC
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = OFF;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = PARTIAL;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.FLEX8000
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = OFF;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = OFF;
SOFT_BUFFER_INSERTION = ON;
IGNORE_SOFT_BUFFERS = ON;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = PARTIAL;
CARRY_CHAIN_LENGTH = 32;
CARRY_CHAIN = MANUAL;
CASCADE_CHAIN_LENGTH = 2;
CASCADE_CHAIN = MANUAL;
END;

View File

@ -1,499 +0,0 @@
TITLE "SINC_controller";
PARAMETERS
(
G_MODE = 1, -- 1 on LCELL, 0 - on EXP
NUM = "NO",
NUMBER1 = B"00100000X", -- 0 - sinc
NUMBER2 = B"00110111X", -- 7
NUMBER3 = B"01001101X", -- D
NUMBER4 = B"01010010X", -- 2
NUMBER5 = B"00100000X", --
NUMBER6 = B"00100000X", --
NUMBER7 = B"00100000X" --
);
SUBDESIGN SP2_MAX
(
TG42_IN : INPUT;
TG42_OUT : OUTPUT;
TG42_BUF : OUTPUT;
CLKZZ : BIDIR;
CLK14 : OUTPUT;
AUD : OUTPUT; -- clk for timers
BEEP : OUTPUT;
CMOS_DRD : OUTPUT;
CMOS_AS : OUTPUT;
CMOS_DWR : OUTPUT;
WR_PDOS : OUTPUT;
WD : INPUT;
WSTB : INPUT;
SR,SL : INPUT;
RSTB : INPUT;
TR43 : INPUT;
CLK_WG : OUTPUT;
FDAT : OUTPUT;
QDAT : OUTPUT;
RDAT : INPUT;
/WG_WR : OUTPUT;
/WG_RD : OUTPUT;
STE : INPUT;
DENS_X : OUTPUT;
WDAT : OUTPUT;
-- XA[2..0] : BIDIR;
XA[2..0] : INPUT;
XACS : INPUT;
-- SINC_1 : OUTPUT;
SINC_1 : BIDIR;
SINC_2 : BIDIR;
HDD_C[3..0] : INPUT;
FDD_C[2..0] : INPUT;
HD_DIR : OUTPUT;
HD_CS : OUTPUT;
/CONF_X : BIDIR;
10K_CLK : OUTPUT;
WR_CNF : INPUT;
10K_D0 : OUTPUT;
D0 : INPUT;
VGA_IN : INPUT;
-- WR_COL : INPUT;
SINC_V : OUTPUT;
SINC_H : OUTPUT;
SINC : OUTPUT;
SINC_IN : INPUT;
XHD_RES : OUTPUT;
XHD_WR : OUTPUT;
XHD_RD : OUTPUT;
XHD1_CS[2..1] : OUTPUT;
XHD2_CS[2..1] : OUTPUT;
XHR_RDY : INPUT;
EPM_RES : INPUT;
PW_GOOD : INPUT;
UNUSED65 : INPUT; -- was GND65, hack for 3000 family
UNUSED33 : INPUT; -- was GND33, hack for 3000 family
UNUSED1 : INPUT;
UNUSED2 : INPUT;
UNUSED5 : INPUT;
UNUSED7 : INPUT;
UNUSED22 : INPUT;
UNUSED24 : INPUT;
UNUSED27 : INPUT;
UNUSED28 : INPUT;
UNUSED49 : INPUT;
UNUSED50 : INPUT;
UNUSED53 : INPUT;
UNUSED55 : INPUT;
UNUSED63 : INPUT;
UNUSED70 : INPUT;
UNUSED72 : INPUT;
UNUSED77 : INPUT;
UNUSED78 : INPUT;
)
VARIABLE
XCT[2..0] : DFF;
CNF_ON : NODE;
CNF_OFF : NODE;
CLK42 : NODE;
CT[3..0] : DFF;
CTH[5..0] : DFF;
CTV[8..0] : DFFE;
SINC_HT : DFF;
SINC_VT : DFFE;
TURBING : NODE;
FDD_1440 : NODE;
NFDD_1440 : NODE;
CT_WG : NODE;
CT_WG1 : NODE;
STWG[2..0] : DFF;
CLK_PRC : NODE;
WGR[4..0] : DFF;
RDAT_X : NODE;
REG_P[2..0] : DFF;
/RESET : NODE;
S144,S720 : NODE;
SHDD1,SHDD2 : NODE;
THDD : NODE;
NTHDD : NODE;
NO_HDD : NODE;
S320,S312 : NODE;
T320 : NODE;
NT320 : NODE;
SOFT_RESET : NODE;
SOFT_RESET2 : NODE;
HDD_CLK : NODE;
LR_T[1..0] : DFF;
EXP_X : NODE;
EXP_Y : NODE;
CTV8M : DFF;
CTV8C : NODE;
FN_NUM : NODE;
BEGIN
/RESET = DFF((EPM_RES & XHD_RES),!CT3,SOFT_RESET,);
-- /RESET = (EXP(!EPM_RES & EXP(EXP(EXP(EPM_RES)))) & SOFT_RESET);
EXP_X = EXP(TG42_IN);
EXP_Y = EXP(TG42_IN);
IF (G_MODE == 0) GENERATE
TG42_OUT = LCELL(EXP_X);
ELSE GENERATE
TG42_OUT = LCELL(TG42_BUF);
END GENERATE;
TG42_BUF = LCELL(!TG42_IN);
CLK42 = TG42_IN;
-- CT[].clk = CLK14;
CT[].clk = XCT1;
CT[] = CT[] + 1;
-- === horizontal sinc =====
CTH[].clk = !CT3;
SINC_HT.clk = !CT3;
IF !((CTH[] == B"XXXX11") & SINC_HT) THEN
CTH[] = CTH[] + 1;
ELSE
CTH[] = GND;
END IF;
-- SINC_1 = CTH5;
SINC_1 = TRI(CTH5,VCC);
SINC_2 = TRI(CTV8,VCC);
SINC_HT.d = (CTH[] == B"1101XX");
SINC_H = SINC_HT;
-- === vertical sinc =======
-- CTV[].clk = !CT3;
-- SINC_VT.clk = !CT3;
CTV[].clk = SINC_HT;
SINC_VT.clk = SINC_HT;
CTV8M.clk = SINC_HT;
-- CTV[].ena = (CTH[] == B"110111");
-- SINC_VT.ena = (CTH[] == B"110111");
CTV[].ena = VCC;
SINC_VT.ena = VCC;
-- IF (CTV[] == B"100111111") THEN
IF (NUM == "YES") GENERATE
FN_NUM =(
(CTV[8..0] == NUMBER1) or
(CTV[8..0] == NUMBER2) or
(CTV[8..0] == NUMBER3) or
(CTV[8..0] == NUMBER4) or
(CTV[8..0] == NUMBER5) or
(CTV[8..0] == NUMBER6) or
(CTV[8..0] == NUMBER7)
) & !NO_HDD;
ELSE GENERATE
FN_NUM = GND;
END GENERATE;
IF EXP((CTV[] == B"XXXXXXX11") & SINC_VT) THEN
(CTV[8..0]) = ((CTV[8..0]) + 1) xor (CTV8M,B"00000000");
CTV8M = FN_NUM;
ELSE
CTV[7..0] = GND;
CTV8M = GND;
CTV8 = GND;
END IF;
SINC_VT.d = ((CTV[8..0] == B"1001111XX") or ((CTV[8..0] == B"1001101XX")) & NT320);
SINC_V = SINC_VT;
SINC = SINC_V xor SINC_H;
-- =============================
-- =========================================
-- divide by 6
XCT[].clk = (TG42_IN xor !XCT1);
XCT[].d = XCT[] + 1;
-- CLKZZ = 14 MHz
CLKZZ = TRI(XCT1,CNF_OFF);
CLK14 = DFF(!CLK14,XCT0,,);
-- test exists
-- CNF_OFF = EXP(CNF_ON & /RESET);
-- CNF_ON = EXP(CNF_OFF & XACS);
CNF_OFF = DFF(GND,GND,XACS,/RESET);
CNF_ON = !CNF_OFF;
-- =========================================
-- ======== FDD controller ==================
TURBING = EXP(EXP(TURBING & !WSTB & !RSTB) & !STE & NFDD_1440);
-- TURBING = GND;
CT_WG = TFF(VCC,(XCT1 xor (CT_WG & TURBING)),,);
STWG[].clk = (CT_WG xor STWG2);
STWG[].d = STWG[] + 1;
CLK_WG = STWG2;
-- CLK_PRC = STWG0;
CLK_PRC = CT_WG;
CT_WG1 = EXP(EXP(XCT1 & FDD_1440) & EXP(CT0 & NFDD_1440));
WGR[].clk = CT_WG1;
IF !FDAT THEN
TABLE WGR[3..0] => WGR[3..0].d;
0 => 4; 1 => 5; 2 => 4; 3 => 5;
4 => 6; 5 => 7; 6 => 8; 7 => 8;
8 => 9; 9 => 9; 10 => 10; 11 => 11;
12 => 12; 13 => 13; 14 => 14; 15 => 15;
END TABLE;
WGR4.d = WGR4;
ELSE
IF WGR[3..0] == 0 THEN
WGR[3..0].d = 3;
WGR4.d = WGR4;
ELSE
WGR[].d = WGR[] + 1;
END IF;
END IF;
QDAT = WGR4;
RDAT_X = EXP(EXP(RDAT_X & EXP(!RDAT & !CT_WG1)) & EXP(RDAT & !CT_WG1));
-- FDAT = DFF((RDAT_X or !DFF(RDAT_X,CT_WG1,,)),CT_WG1,,);
FDAT = DFF((RDAT_X or EXP(DFF(RDAT_X,CT_WG1,,))),CT_WG1,,);
-- ==========================================================
-- now not complete!
AUD = CT3;
BEEP = GND;
-- /CONF_X = TRI(GND,!/RESET);
/CONF_X = OPNDRN(/RESET);
-- 10K_CLK = WR_CNF; -- now not protect!
10K_CLK = DFF((WR_CNF & CNF_OFF) or ((HDD_C0 or FDD_C2) & CNF_ON),CLK42,,);
10K_D0 = DFFE(D0,10K_CLK,S720,(S144 & /RESET),CNF_OFF);
DENS_X = VCC;
-- === now NOT PRECOMP! =====
-- WDAT = WD;
WDAT = REG_P2;
REG_P[].clk = !CLK_PRC;
-- CASE WD IS
-- WHEN 1 => REG_P[].d = (GND,SL,!(SL or SR),SR);
-- WHEN 0 => REG_P[].d = (EXP(EXP(REG_P2)),REG_P[1..0],GND);
-- END CASE;
-- CASE (DFF(WD,CLK_WG,,),DFF((SL & TR43),CLK_WG,,),DFF((SR & TR43),CLK_WG,,)) IS
LR_T[].clk = STWG2;
-- LR_T[].clk = CLK_WG;
LR_T[].d = ((WD & !(SL & TR43)),(WD & !(SR & TR43)));
CASE LR_T[] IS
WHEN 0 => REG_P[1..0] = (REG_P[1..0] - 1) & EXP(REG_P[1..0] == 0);
REG_P[2] = EXP(EXP(REG_P[1..0] == 1));
-- REG_P[2] = (REG_P[1..0] == 1);
WHEN 1 => REG_P[1..0] = 1; REG_P[2] = GND;
WHEN 2 => REG_P[1..0] = 3; REG_P[2] = GND;
WHEN 3 => REG_P[1..0] = 2; REG_P[2] = GND;
END CASE;
%
CASE (WD,DFF((SL & TR43),CLK_WG,,),DFF((SR & TR43),CLK_WG,,)) IS
WHEN B"0XX" => REG_P[1..0] = (REG_P[1..0] - 1) & EXP(REG_P[1..0] == 0);
WHEN B"100" => REG_P[1..0] = 2;
WHEN B"110" => REG_P[1..0] = 1;
WHEN B"101" => REG_P[1..0] = 3;
WHEN B"111" => REG_P[1..0] = 2;
END CASE;
%
%
CASE WD IS
WHEN 0 => REG_P[3] = EXP(EXP(REG_P[1..0] == 1));
WHEN 1 => REG_P[3] = GND;
END CASE;
%
-- === Port Controls ====================================
%
FDD_C0 - 0 - WG93 / 1 - kmps/ p_dos
FDD_C1 - 0 - write / 1 - read
FDD_C2 - 0 - no / 1 - CS_WG/ strobe
HDD_C0 - strobe
HDD_C[2..1] = 00 - SYS_FN, 01 - SYS_FN, 10 - HDD1/2, 11 - CMOS
HDD_C3 - 0 - HD_CS1, 1 HD_CS3 / 0 CMOS_DAT, 1 - CMOS_ADR
HDD_C[3..0] = 0001, FDD_C[2..1] = 00; -> FDD_C0 = 1/0 -> set 1.44/720
HDD_C[3..0] = 1001, FDD_C[2..1] = 00; -> FDD_C0 = 1/0 -> set 320/312 lines
HDD_C[3..0] = 0011, FDD_C[2..1] = 00; -> FDD_C0 = 1/0 -> set HDD1/HDD2
HDD_C[3..0] = 1011, FDD_C[2..1] = 00; -> FDD_C0 = 0 -> soft_reset!
HDD_C[3..0] = X101, FDD_C[2..1] = XX; -> HDD1/2 rd/wr
%
SOFT_RESET = !((HDD_C[] == B"1011") & (FDD_C[] == B"000"));
SOFT_RESET2 = !((HDD_C[] == B"1011") & (FDD_C[] == B"001"));
-- FDD switch
-- NFDD_1440 = EXP(FDD_1440 & S720 & /RESET);
-- FDD_1440 = EXP(NFDD_1440 & S144);
FDD_1440 = 10K_D0;
NFDD_1440 = !10K_D0;
S144 = EXP((HDD_C[] == B"0001") & (FDD_C[] == B"001"));
S720 = EXP((HDD_C[] == B"0001") & (FDD_C[] == B"000"));
-- Screen Switch
T320 = EXP(NT320 & S320 & /RESET);
NT320 = EXP(T320 & S312);
S312 = EXP((HDD_C[] == B"1001") & (FDD_C[] == B"001"));
S320 = EXP((HDD_C[] == B"1001") & (FDD_C[] == B"000"));
-- HDD Switch
-- THDD = EXP(NTHDD & SHDD2 & /RESET);
-- NTHDD = EXP(THDD & SHDD1);
THDD = EXP(NTHDD & NO_HDD & SHDD2 & /RESET & SOFT_RESET2);
NTHDD = EXP(THDD & NO_HDD & SHDD1 & /RESET & SOFT_RESET2);
NO_HDD = EXP(NTHDD & THDD & SHDD1 & SHDD2);
SHDD2 = EXP((HDD_C[] == B"0011") & (FDD_C[] == B"001"));
SHDD1 = EXP((HDD_C[] == B"0011") & (FDD_C[] == B"000"));
-- Control signals
WR_PDOS = DFF(!((HDD_C[] == 0) & (FDD_C[] == B"X01")),HDD_CLK,,FDD_C2);
/WG_WR = DFF(!((HDD_C[] == 0) & (FDD_C[] == B"X00")),HDD_CLK,,FDD_C2);
/WG_RD = DFF(!((HDD_C[] == 0) & (FDD_C[] == B"X10")),HDD_CLK,,FDD_C2);
CMOS_DWR = DFF(!((HDD_C[] == B"1110") & (FDD_C[] == B"X01")),HDD_CLK,,FDD_C2);
CMOS_AS =!DFF(!((HDD_C[] == B"0110") & (FDD_C[] == B"X01")),HDD_CLK,,FDD_C2);
CMOS_DRD = DFF(!((HDD_C[] == B"1110") & (FDD_C[] == B"X10")),HDD_CLK,,FDD_C2);
-- HD_DIR = !HDD_C1; -- ????????????
HD_DIR = XHD_RD;
-- HD_CS = GND;
-- HD_CS = CTV8M;
HD_CS = (CTV8M and /RESET);
-- HD_CS = !/RESET;
-- XHD_RES = VCC;
-- XHD_RES = DFF(PW_GOOD,SINC_V,,);
XHD_RES = DFF(PW_GOOD,SINC_V,EPM_RES,);
-- XHD_WR = DFF((!(HDD_C[] == B"X101") or FDD_C1),CLK42,,);
-- XHD_RD = DFF((!(HDD_C[] == B"X101") or !FDD_C1),CLK42,,);
-- HDD_CLK = EXP(EXP(HDD_C0));
HDD_CLK = 10K_CLK;
-- XHD_WR = DFF((!(HDD_C[] == B"X101") or FDD_C1 or !HDD_CLK),CLK42,,HDD_C0);
-- XHD_RD = DFF((!(HDD_C[] == B"X101") or !FDD_C1 or !HDD_CLK),CLK42,,HDD_C0);
-- XHD_WR = DFF((!(HDD_C[] == B"X101") or FDD_C1),HDD_CLK,,HDD_C0);
-- XHD_RD = DFF((!(HDD_C[] == B"X101") or !FDD_C1),HDD_CLK,,HDD_C0);
XHD_WR = DFF((!(HDD_C[] == B"X101") or FDD_C1),HDD_CLK,,(HDD_C0 and /RESET));
XHD_RD = DFF((!(HDD_C[] == B"X101") or !FDD_C1),HDD_CLK,,(HDD_C0 and /RESET));
-- XHD1_CS1 = DFF(!((HDD_C[] == B"010X") & NTHDD),CLK42,,);
-- XHD1_CS2 = DFF(!((HDD_C[] == B"110X") & NTHDD),CLK42,,);
-- XHD2_CS1 = DFF(!((HDD_C[] == B"010X") & THDD),CLK42,,);
-- XHD2_CS2 = DFF(!((HDD_C[] == B"110X") & THDD),CLK42,,);
-- XHD1_CS1 = DFF((!(HDD_C[] == B"010X") or THDD),CLK42,,);
-- XHD1_CS2 = DFF((!(HDD_C[] == B"110X") or THDD),CLK42,,);
XHD1_CS1 = DFF((!(HDD_C[] == B"010X") or THDD),CLK42,,/RESET);
XHD1_CS2 = DFF((!(HDD_C[] == B"110X") or THDD),CLK42,,/RESET);
-- XHD2_CS1 = DFF((!(HDD_C[] == B"010X") or NTHDD),CLK42,,);
-- XHD2_CS2 = DFF((!(HDD_C[] == B"110X") or NTHDD),CLK42,,);
XHD2_CS1 = DFF((!(HDD_C[] == B"010X") or NTHDD),CLK42,,/RESET);
XHD2_CS2 = DFF((!(HDD_C[] == B"110X") or NTHDD),CLK42,,/RESET);
END;

View File

@ -1,699 +0,0 @@
--
-- Copyright (C) 1988-2000 Altera Corporation
-- Any megafunction design, and related net list (encrypted or decrypted),
-- support information, device programming or simulation file, and any other
-- associated documentation or information provided by Altera or a partner
-- under Altera's Megafunction Partnership Program may be used only to
-- program PLD devices (but not masked PLD devices) from Altera. Any other
-- use of such megafunction design, net list, support information, device
-- programming or simulation file, or any other related documentation or
-- information is prohibited for any other purpose, including, but not
-- limited to modification, reverse engineering, de-compiling, or use with
-- any other silicon devices, unless such use is explicitly licensed under
-- a separate agreement with Altera or a megafunction partner. Title to
-- the intellectual property, including patents, copyrights, trademarks,
-- trade secrets, or maskworks, embodied in any such megafunction design,
-- net list, support information, device programming or simulation file, or
-- any other related documentation or information provided by Altera or a
-- megafunction partner, remains with Altera, the megafunction partner, or
-- their respective licensors. No other licenses, including any licenses
-- needed under any third party's intellectual property, are provided herein.
--
CHIP SP2_MAX
BEGIN
DEVICE = EPM7128STC100-10;
|UNUSED1: INPUT_PIN = 1; -- 7064 N.C.
|UNUSED2: INPUT_PIN = 2; -- 7064 N.C.
-- |VCCIO
-- |#TDI
|UNUSED5: INPUT_PIN = 5; -- 7064 N.C.
|CMOS_AS : OUTPUT_PIN = 6;
|UNUSED7: INPUT_PIN = 7; -- 7064 N.C.
|WR_PDOS : OUTPUT_PIN = 8;
|WD : INPUT_PIN = 9;
|WSTB : INPUT_PIN = 10;
-- |GND
|TR43 : INPUT_PIN = 12;
|CLK_WG : OUTPUT_PIN = 13;
|FDAT : OUTPUT_PIN = 14;
-- |#TMS
|QDAT : OUTPUT_PIN = 16;
|XA0 : INPUT_PIN = 17;
-- |VCCIO
|SINC_2 : OUTPUT_PIN = 19;
|SINC_1 : OUTPUT_PIN = 20;
|XA1 : INPUT_PIN = 21;
|UNUSED22: INPUT_PIN = 22; -- 7064 N.C.
|XA2 : INPUT_PIN = 23;
|UNUSED24: INPUT_PIN = 24; -- 7064 N.C.
|RSTB : INPUT_PIN = 25;
-- |GND
|UNUSED27: INPUT_PIN = 27; -- 7064 N.C.
|UNUSED28: INPUT_PIN = 28; -- 7064 N.C.
|SR : INPUT_PIN = 29;
|SL : INPUT_PIN = 30;
|CLK14 : OUTPUT_PIN = 31;
|CLKZZ : BIDIR_PIN = 32;
|UNUSED33 : INPUT_PIN = 33; -- be careful! at 3000 family the pin 33 is GND
-- |VCCIO
|AUD : OUTPUT_PIN = 35;
|TG42_BUF : OUTPUT_PIN = 36;
|XACS : INPUT_PIN = 37;
-- |GND
-- |VCCINT
|HDD_C3 : INPUT_PIN = 40;
|HDD_C2 : INPUT_PIN = 41;
|HDD_C1 : INPUT_PIN = 42;
-- |GND
|FDD_C0 : INPUT_PIN = 44;
|FDD_C1 : INPUT_PIN = 45;
|FDD_C2 : INPUT_PIN = 46;
|HDD_C0 : INPUT_PIN = 47;
|HD_DIR : OUTPUT_PIN = 48;
|UNUSED49: INPUT_PIN = 49; -- 7064 N.C.
|UNUSED50: INPUT_PIN = 50; -- 7064 N.C.
-- |VCCIO
|HD_CS : OUTPUT_PIN = 52;
|UNUSED53 : INPUT_PIN = 53; -- 7064 N.C.
|/CONF_X : BIDIR_PIN = 54;
|UNUSED55: INPUT_PIN = 55; -- 7064 N.C.
|10K_CLK : OUTPUT_PIN = 56;
|WR_CNF : INPUT_PIN = 57;
|10K_D0 : OUTPUT_PIN = 58;
-- |GND
|D0 : INPUT_PIN = 60;
|VGA_IN : INPUT_PIN = 61;
-- |#TCK
|UNUSED63: INPUT_PIN = 63;
|SINC_V : OUTPUT_PIN = 64;
|UNUSED65 : INPUT_PIN = 65; -- be careful! at 3000 family the pin 33 is GND
-- |VCCIO
|SINC : OUTPUT_PIN = 67;
|SINC_H : OUTPUT_PIN = 68;
|SINC_IN : INPUT_PIN = 69;
|UNUSED70: INPUT_PIN = 70; -- 7064 N.C.
|XHD_RES : OUTPUT_PIN = 71;
|UNUSED72: INPUT_PIN = 72; -- 7064 N.C.
-- |#TDO
-- |GND
|XHD_WR : OUTPUT_PIN = 75;
|XHD_RD : OUTPUT_PIN = 76;
|UNUSED77: INPUT_PIN = 77; -- 7064 N.C.
|UNUSED78 : INPUT_PIN = 78; -- 7064 N.C.
|XHD1_CS1 : OUTPUT_PIN = 79;
|XHD1_CS2 : OUTPUT_PIN = 80;
|XHD2_CS1 : OUTPUT_PIN = 81;
-- |VCCIO
|XHD2_CS2 : OUTPUT_PIN = 83;
|BEEP : OUTPUT_PIN = 84;
|TG42_OUT : OUTPUT_PIN = 85;
-- |GND
|TG42_IN : INPUT_PIN = 87;
|XHR_RDY : INPUT_PIN = 88;
|EPM_RES : INPUT_PIN = 89;
|PW_GOOD : INPUT_PIN = 90;
-- |VCCINT
|RDAT : INPUT_PIN = 92;
|/WG_WR : OUTPUT_PIN = 93;
|STE : INPUT_PIN = 94;
-- |GND
|DENS_X : OUTPUT_PIN = 96;
|/WG_RD : OUTPUT_PIN = 97;
|WDAT : OUTPUT_PIN = 98;
|CMOS_DRD : OUTPUT_PIN = 99;
|CMOS_DWR : OUTPUT_PIN = 100;
END;
DEFAULT_DEVICES
BEGIN
AUTO_DEVICE = EPM7256SQC208-7;
AUTO_DEVICE = EPM7256SRC208-7;
AUTO_DEVICE = EPM7192SQC160-7;
AUTO_DEVICE = EPM7160SQC160-6;
AUTO_DEVICE = EPM7160STC100-6;
AUTO_DEVICE = EPM7160SLC84-6;
AUTO_DEVICE = EPM7128SQC160-6;
AUTO_DEVICE = EPM7128STC100-6;
AUTO_DEVICE = EPM7128SQC100-6;
AUTO_DEVICE = EPM7128SLC84-6;
AUTO_DEVICE = EPM7064STC100-5;
AUTO_DEVICE = EPM7064SLC84-5;
AUTO_DEVICE = EPM7064STC44-5;
AUTO_DEVICE = EPM7064SLC44-5;
AUTO_DEVICE = EPM7032STC44-5;
AUTO_DEVICE = EPM7032SLC44-5;
ASK_BEFORE_ADDING_EXTRA_DEVICES = ON;
END;
TIMING_POINT
BEGIN
DEVICE_FOR_TIMING_SYNTHESIS = EPM7128STC100-10;
FREQUENCY = 100MHz;
MAINTAIN_STABLE_SYNTHESIS = OFF;
CUT_ALL_CLEAR_PRESET = ON;
CUT_ALL_BIDIR = ON;
END;
IGNORED_ASSIGNMENTS
BEGIN
FIT_IGNORE_TIMING = ON;
DEMOTE_SPECIFIC_LCELL_ASSIGNMENTS_TO_LAB_ASSIGNMENTS = OFF;
IGNORE_LOCAL_ROUTING_ASSIGNMENTS = OFF;
IGNORE_DEVICE_ASSIGNMENTS = OFF;
IGNORE_LC_ASSIGNMENTS = OFF;
IGNORE_PIN_ASSIGNMENTS = OFF;
IGNORE_CHIP_ASSIGNMENTS = OFF;
IGNORE_TIMING_ASSIGNMENTS = OFF;
IGNORE_LOGIC_OPTION_ASSIGNMENTS = OFF;
IGNORE_CLIQUE_ASSIGNMENTS = OFF;
END;
LOGIC_OPTIONS
BEGIN
|LR_T1 : TURBO_BIT = ON;
|LR_T0 : TURBO_BIT = ON;
|CLK_WG : TURBO_BIT = ON;
|TG42_BUF : STYLE = WYSIWYG;
|TG42_OUT : STYLE = WYSIWYG;
|XHD_RD : TURBO_BIT = OFF;
|XHD_RES : TURBO_BIT = OFF;
|XHD_WR : TURBO_BIT = OFF;
|XHD1_CS1 : TURBO_BIT = OFF;
|XHD1_CS2 : TURBO_BIT = OFF;
|XHD2_CS1 : TURBO_BIT = OFF;
|XHD2_CS2 : TURBO_BIT = OFF;
|10K_CLK : TURBO_BIT = OFF;
|10K_D0 : TURBO_BIT = OFF;
|REG_P0 : TURBO_BIT = ON;
|REG_P1 : TURBO_BIT = ON;
|REG_P2 : TURBO_BIT = ON;
|TG42_BUF : TURBO_BIT = ON;
|TG42_OUT : TURBO_BIT = ON;
|STWG0 : TURBO_BIT = ON;
|STWG1 : TURBO_BIT = ON;
|STWG2 : TURBO_BIT = ON;
|XCT0 : TURBO_BIT = ON;
|XCT1 : TURBO_BIT = ON;
END;
GLOBAL_PROJECT_DEVICE_OPTIONS
BEGIN
MULTIVOLT_IO = OFF;
SECURITY_BIT = ON;
MAX7000B_ENABLE_VREFB = OFF;
MAX7000B_ENABLE_VREFA = OFF;
MAX7000B_VCCIO_IOBANK2 = 3.3V;
MAX7000B_VCCIO_IOBANK1 = 3.3V;
CONFIG_EPROM_PULLUP_RESISTOR = ON;
CONFIG_EPROM_USER_CODE = FFFFFFFF;
FLEX_CONFIGURATION_EPROM = AUTO;
MAX7000AE_ENABLE_JTAG = ON;
MAX7000AE_USER_CODE = FFFFFFFF;
FLEX6000_USE_LOW_VOLTAGE_CONFIGURATION_EPROM = OFF;
FLEX10KA_USE_LOW_VOLTAGE_CONFIGURATION_EPROM = ON;
FLEX10K_USE_LOW_VOLTAGE_CONFIGURATION_EPROM = OFF;
FLEX6000_ENABLE_JTAG = OFF;
CONFIG_SCHEME_FLEX_6000 = PASSIVE_SERIAL;
MAX7000S_ENABLE_JTAG = ON;
FLEX10K_ENABLE_LOCK_OUTPUT = OFF;
MAX7000S_USER_CODE = FFFF;
CONFIG_SCHEME_10K = PASSIVE_SERIAL;
FLEX10K_JTAG_USER_CODE = 7F;
ENABLE_INIT_DONE_OUTPUT = OFF;
ENABLE_CHIP_WIDE_OE = OFF;
ENABLE_CHIP_WIDE_RESET = OFF;
nCEO = UNRESERVED;
CLKUSR = UNRESERVED;
ADD17 = UNRESERVED;
ADD16 = UNRESERVED;
ADD15 = UNRESERVED;
ADD14 = UNRESERVED;
ADD13 = UNRESERVED;
ADD0_TO_ADD12 = UNRESERVED;
SDOUT = RESERVED_DRIVES_OUT;
RDCLK = UNRESERVED;
RDYnBUSY = UNRESERVED;
nWS_nRS_nCS_CS = UNRESERVED;
DATA1_TO_DATA7 = UNRESERVED;
DATA0 = RESERVED_TRI_STATED;
FLEX8000_ENABLE_JTAG = OFF;
CONFIG_SCHEME = ACTIVE_SERIAL;
DISABLE_TIME_OUT = OFF;
ENABLE_DCLK_OUTPUT = OFF;
RELEASE_CLEARS = OFF;
AUTO_RESTART = OFF;
USER_CLOCK = OFF;
RESERVED_PINS_PERCENT = 0;
RESERVED_LCELLS_PERCENT = 0;
END;
GLOBAL_PROJECT_SYNTHESIS_ASSIGNMENT_OPTIONS
BEGIN
STYLE = NORMAL;
AUTO_GLOBAL_CLEAR = OFF;
AUTO_GLOBAL_CLOCK = OFF;
DEVICE_FAMILY = MAX7000S;
MULTI_LEVEL_SYNTHESIS_MAX9000 = ON;
AUTO_IMPLEMENT_IN_EAB = OFF;
AUTO_OPEN_DRAIN_PINS = ON;
ONE_HOT_STATE_MACHINE_ENCODING = OFF;
AUTO_REGISTER_PACKING = OFF;
AUTO_FAST_IO = OFF;
AUTO_GLOBAL_OE = ON;
AUTO_GLOBAL_PRESET = ON;
MULTI_LEVEL_SYNTHESIS_MAX5000_7000 = OFF;
OPTIMIZE_FOR_SPEED = 5;
END;
COMPILER_PROCESSING_CONFIGURATION
BEGIN
FITTER_SETTINGS = ADVANCED;
USE_QUARTUS_FITTER = OFF;
PRESERVE_ALL_NODE_NAME_SYNONYMS = OFF;
SMART_RECOMPILE = OFF;
GENERATE_AHDL_TDO_FILE = OFF;
RPT_FILE_USER_ASSIGNMENTS = ON;
RPT_FILE_LCELL_INTERCONNECT = ON;
RPT_FILE_HIERARCHY = ON;
RPT_FILE_EQUATIONS = ON;
LINKED_SNF_EXTRACTOR = OFF;
OPTIMIZE_TIMING_SNF = OFF;
TIMING_SNF_EXTRACTOR = ON;
FUNCTIONAL_SNF_EXTRACTOR = OFF;
DESIGN_DOCTOR_RULES = EPLD;
DESIGN_DOCTOR = OFF;
END;
COMPILER_INTERFACES_CONFIGURATION
BEGIN
NETLIST_OUTPUT_TIME_SCALE = 0.1ns;
EDIF_INPUT_SHOW_LMF_MAPPING_MESSAGES = OFF;
EDIF_BUS_DELIMITERS = [];
EDIF_FLATTEN_BUS = OFF;
EDIF_OUTPUT_FORCE_0NS_DELAYS = OFF;
EDIF_OUTPUT_INCLUDE_SPECIAL_PRIM = OFF;
EDIF_OUTPUT_MAP_ILLEGAL_CHAR = OFF;
EDIF_OUTPUT_DELAY_CONSTRUCTS = EDO_FILE;
EDIF_OUTPUT_USE_EDC = OFF;
EDIF_INPUT_USE_LMF2 = OFF;
EDIF_INPUT_USE_LMF1 = OFF;
EDIF_OUTPUT_GND = GND;
EDIF_OUTPUT_VCC = VCC;
EDIF_INPUT_GND = GND;
EDIF_INPUT_VCC = VCC;
EDIF_OUTPUT_EDC_FILE = *.edc;
EDIF_INPUT_LMF2 = *.lmf;
EDIF_INPUT_LMF1 = *.lmf;
VHDL_GENERATE_CONFIGURATION_DECLARATION = OFF;
VHDL_OUTPUT_DELAY_CONSTRUCTS = VHO_FILE;
VERILOG_OUTPUT_DELAY_CONSTRUCTS = VO_FILE;
VHDL_FLATTEN_BUS = OFF;
VERILOG_FLATTEN_BUS = OFF;
EDIF_TRUNCATE_HIERARCHY_PATH = OFF;
VHDL_TRUNCATE_HIERARCHY_PATH = OFF;
VERILOG_TRUNCATE_HIERARCHY_PATH = OFF;
VERILOG_OUTPUT_MAP_ILLEGAL_CHAR = OFF;
VHDL_WRITER_VERSION = VHDL87;
VHDL_READER_VERSION = VHDL87;
SYNOPSYS_MAPPING_EFFORT = MEDIUM;
SYNOPSYS_BOUNDARY_OPTIMIZATION = OFF;
SYNOPSYS_HIERARCHICAL_COMPILATION = ON;
SYNOPSYS_DESIGNWARE = OFF;
SYNOPSYS_COMPILER = DESIGN;
USE_SYNOPSYS_SYNTHESIS = OFF;
VHDL_NETLIST_WRITER = OFF;
VERILOG_NETLIST_WRITER = OFF;
XNF_GENERATE_AHDL_TDX_FILE = ON;
XNF_TRANSLATE_INTERNAL_NODE_NAMES = ON;
XNF_EMULATE_TRI_STATE_BUSES = INTERNAL_LOGIC;
EDIF_OUTPUT_VERSION = 200;
EDIF_NETLIST_WRITER = OFF;
END;
CUSTOM_DESIGN_DOCTOR_RULES
BEGIN
MASTER_RESET = OFF;
EXPANDER_NETWORKS = ON;
RACE_CONDITIONS = ON;
DELAY_CHAINS = ON;
ASYNCHRONOUS_INPUTS = ON;
PRESET_CLEAR_NETWORKS = ON;
STATIC_HAZARDS_AFTER_SYNTHESIS = OFF;
STATIC_HAZARDS_BEFORE_SYNTHESIS = ON;
MULTI_CLOCK_NETWORKS = ON;
MULTI_LEVEL_CLOCKS = ON;
GATED_CLOCKS = ON;
RIPPLE_CLOCKS = ON;
END;
SIMULATOR_CONFIGURATION
BEGIN
END_TIME = 25.0us;
BIDIR_PIN = STRONG;
START_TIME = 0.0ns;
GLITCH_TIME = 0.0ns;
GLITCH = OFF;
OSCILLATION_TIME = 0.0ns;
OSCILLATION = OFF;
CHECK_OUTPUTS = OFF;
SETUP_HOLD = OFF;
USE_DEVICE = OFF;
END;
TIMING_ANALYZER_CONFIGURATION
BEGIN
ANALYSIS_MODE = REGISTERED_PERFORMANCE;
CUT_OFF_RAM_REGISTERED_WE_PATHS = OFF;
LIST_PATH_FREQUENCY = 10MHz;
LIST_PATH_COUNT = 10;
REGISTERED_PERFORMANCE_OPTIONS = NUMBER_OF_PATHS;
INCLUDE_PATHS_LESS_THAN_VALUE = 214.7483647ms;
INCLUDE_PATHS_LESS_THAN = OFF;
INCLUDE_PATHS_GREATER_THAN_VALUE = 0.0ns;
INCLUDE_PATHS_GREATER_THAN = OFF;
DELAY_MATRIX_OPTIONS = SHOW_ALL_PATHS;
CELL_WIDTH = 18;
LIST_ONLY_LONGEST_PATH = ON;
CUT_OFF_CLEAR_AND_PRESET_PATHS = ON;
CUT_OFF_IO_PIN_FEEDBACK = ON;
AUTO_RECALCULATE = OFF;
END;
OTHER_CONFIGURATION
BEGIN
LAST_MAXPLUS2_VERSION = 10.0;
ROW_PINS_LCELL_INSERT = ON;
CARRY_OUT_PINS_LCELL_INSERT = OFF;
NORMAL_LCELL_INSERT = ON;
EXPLICIT_FAMILY = 1;
FLEX_10K_52_COLUMNS = 40;
DEFAULT_9K_EXP_PER_LCELL = 1/2;
LOCAL_INTERCONNECT_PER_LAB_PERCENT = 100;
LCELLS_PER_ROW_PERCENT = 100;
FAN_IN_PER_LCELL_PERCENT = 100;
EXP_PER_LCELL_PERCENT = 100;
ROW_PINS_PERCENT = 50;
ORIGINAL_MAXPLUS2_VERSION = 9.6;
COMPILER_DATA = "1,1,0,1,0,0,0,1,1,1,1,0,1,1,1";
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.MAX5000
BEGIN
REGISTER_OPTIMIZATION = ON;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = ON;
REFACTORIZATION = ON;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
MINIMIZATION = FULL;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = ON;
SLOW_SLEW_RATE = OFF;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.MAX7000
BEGIN
TURBO_BIT = ON;
REGISTER_OPTIMIZATION = ON;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = ON;
REFACTORIZATION = ON;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
MINIMIZATION = FULL;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
PARALLEL_EXPANDERS = OFF;
XOR_SYNTHESIS = ON;
SLOW_SLEW_RATE = OFF;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.CLASSIC
BEGIN
REGISTER_OPTIMIZATION = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
MINIMIZATION = FULL;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE NORMAL.FLEX8000
BEGIN
CARRY_CHAIN_LENGTH = 32;
CASCADE_CHAIN_LENGTH = 2;
REGISTER_OPTIMIZATION = ON;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = ON;
REFACTORIZATION = ON;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
MINIMIZATION = FULL;
IGNORE_SOFT_BUFFERS = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.MAX5000
BEGIN
REGISTER_OPTIMIZATION = ON;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
MINIMIZATION = FULL;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = ON;
SLOW_SLEW_RATE = OFF;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.MAX7000
BEGIN
TURBO_BIT = ON;
SLOW_SLEW_RATE = OFF;
XOR_SYNTHESIS = ON;
REGISTER_OPTIMIZATION = ON;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
MINIMIZATION = FULL;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
PARALLEL_EXPANDERS = ON;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.CLASSIC
BEGIN
REGISTER_OPTIMIZATION = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
MINIMIZATION = FULL;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE FAST.FLEX8000
BEGIN
CARRY_CHAIN_LENGTH = 32;
CASCADE_CHAIN_LENGTH = 2;
REGISTER_OPTIMIZATION = ON;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = ON;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = ON;
REDUCE_LOGIC = ON;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = ON;
CARRY_CHAIN = AUTO;
CASCADE_CHAIN = AUTO;
MINIMIZATION = FULL;
IGNORE_SOFT_BUFFERS = ON;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.MAX5000
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = OFF;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = OFF;
SOFT_BUFFER_INSERTION = OFF;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = PARTIAL;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.MAX7000
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = OFF;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = OFF;
SOFT_BUFFER_INSERTION = OFF;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = PARTIAL;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.CLASSIC
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = ON;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = ON;
SOFT_BUFFER_INSERTION = OFF;
FAST_IO = OFF;
IGNORE_SOFT_BUFFERS = OFF;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = ON;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = PARTIAL;
CARRY_CHAIN = IGNORE;
CASCADE_CHAIN = IGNORE;
END;
DEFINE_LOGIC_SYNTHESIS_STYLE WYSIWYG.FLEX8000
BEGIN
REGISTER_OPTIMIZATION = OFF;
USE_LPM_FOR_AHDL_OPERATORS = OFF;
RESYNTHESIZE_NETWORK = OFF;
MULTI_LEVEL_FACTORING = OFF;
SUBFACTOR_EXTRACTION = OFF;
REFACTORIZATION = OFF;
NOT_GATE_PUSH_BACK = ON;
DUPLICATE_LOGIC_EXTRACTION = OFF;
REDUCE_LOGIC = OFF;
DECOMPOSE_GATES = OFF;
SOFT_BUFFER_INSERTION = ON;
IGNORE_SOFT_BUFFERS = ON;
PARALLEL_EXPANDERS = OFF;
TURBO_BIT = OFF;
XOR_SYNTHESIS = OFF;
SLOW_SLEW_RATE = OFF;
MINIMIZATION = PARTIAL;
CARRY_CHAIN_LENGTH = 32;
CARRY_CHAIN = MANUAL;
CASCADE_CHAIN_LENGTH = 2;
CASCADE_CHAIN = MANUAL;
END;

View File

@ -1,499 +0,0 @@
TITLE "SINC_controller";
PARAMETERS
(
G_MODE = 1, -- 1 on LCELL, 0 - on EXP
NUM = "NO",
NUMBER1 = B"00100000X", -- 0 - sinc
NUMBER2 = B"00110111X", -- 7
NUMBER3 = B"01001101X", -- D
NUMBER4 = B"01010010X", -- 2
NUMBER5 = B"00100000X", --
NUMBER6 = B"00100000X", --
NUMBER7 = B"00100000X" --
);
SUBDESIGN SP2_MAX
(
TG42_IN : INPUT;
TG42_OUT : OUTPUT;
TG42_BUF : OUTPUT;
CLKZZ : BIDIR;
CLK14 : OUTPUT;
AUD : OUTPUT; -- clk for timers
BEEP : OUTPUT;
CMOS_DRD : OUTPUT;
CMOS_AS : OUTPUT;
CMOS_DWR : OUTPUT;
WR_PDOS : OUTPUT;
WD : INPUT;
WSTB : INPUT;
SR,SL : INPUT;
RSTB : INPUT;
TR43 : INPUT;
CLK_WG : OUTPUT;
FDAT : OUTPUT;
QDAT : OUTPUT;
RDAT : INPUT;
/WG_WR : OUTPUT;
/WG_RD : OUTPUT;
STE : INPUT;
DENS_X : OUTPUT;
WDAT : OUTPUT;
-- XA[2..0] : BIDIR;
XA[2..0] : INPUT;
XACS : INPUT;
-- SINC_1 : OUTPUT;
SINC_1 : BIDIR;
SINC_2 : BIDIR;
HDD_C[3..0] : INPUT;
FDD_C[2..0] : INPUT;
HD_DIR : OUTPUT;
HD_CS : OUTPUT;
/CONF_X : BIDIR;
10K_CLK : OUTPUT;
WR_CNF : INPUT;
10K_D0 : OUTPUT;
D0 : INPUT;
VGA_IN : INPUT;
-- WR_COL : INPUT;
SINC_V : OUTPUT;
SINC_H : OUTPUT;
SINC : OUTPUT;
SINC_IN : INPUT;
XHD_RES : OUTPUT;
XHD_WR : OUTPUT;
XHD_RD : OUTPUT;
XHD1_CS[2..1] : OUTPUT;
XHD2_CS[2..1] : OUTPUT;
XHR_RDY : INPUT;
EPM_RES : INPUT;
PW_GOOD : INPUT;
UNUSED65 : INPUT; -- was GND65, hack for 3000 family
UNUSED33 : INPUT; -- was GND33, hack for 3000 family
UNUSED1 : INPUT;
UNUSED2 : INPUT;
UNUSED5 : INPUT;
UNUSED7 : INPUT;
UNUSED22 : INPUT;
UNUSED24 : INPUT;
UNUSED27 : INPUT;
UNUSED28 : INPUT;
UNUSED49 : INPUT;
UNUSED50 : INPUT;
UNUSED53 : INPUT;
UNUSED55 : INPUT;
UNUSED63 : INPUT;
UNUSED70 : INPUT;
UNUSED72 : INPUT;
UNUSED77 : INPUT;
UNUSED78 : INPUT;
)
VARIABLE
XCT[2..0] : DFF;
CNF_ON : NODE;
CNF_OFF : NODE;
CLK42 : NODE;
CT[3..0] : DFF;
CTH[5..0] : DFF;
CTV[8..0] : DFFE;
SINC_HT : DFF;
SINC_VT : DFFE;
TURBING : NODE;
FDD_1440 : NODE;
NFDD_1440 : NODE;
CT_WG : NODE;
CT_WG1 : NODE;
STWG[2..0] : DFF;
CLK_PRC : NODE;
WGR[4..0] : DFF;
RDAT_X : NODE;
REG_P[2..0] : DFF;
/RESET : NODE;
S144,S720 : NODE;
SHDD1,SHDD2 : NODE;
THDD : NODE;
NTHDD : NODE;
NO_HDD : NODE;
S320,S312 : NODE;
T320 : NODE;
NT320 : NODE;
SOFT_RESET : NODE;
SOFT_RESET2 : NODE;
HDD_CLK : NODE;
LR_T[1..0] : DFF;
EXP_X : NODE;
EXP_Y : NODE;
CTV8M : DFF;
CTV8C : NODE;
FN_NUM : NODE;
BEGIN
/RESET = DFF((EPM_RES & XHD_RES),!CT3,SOFT_RESET,);
-- /RESET = (EXP(!EPM_RES & EXP(EXP(EXP(EPM_RES)))) & SOFT_RESET);
EXP_X = EXP(TG42_IN);
EXP_Y = EXP(TG42_IN);
IF (G_MODE == 0) GENERATE
TG42_OUT = LCELL(EXP_X);
ELSE GENERATE
TG42_OUT = LCELL(TG42_BUF);
END GENERATE;
TG42_BUF = LCELL(!TG42_IN);
CLK42 = TG42_IN;
-- CT[].clk = CLK14;
CT[].clk = XCT1;
CT[] = CT[] + 1;
-- === horizontal sinc =====
CTH[].clk = !CT3;
SINC_HT.clk = !CT3;
IF !((CTH[] == B"XXXX11") & SINC_HT) THEN
CTH[] = CTH[] + 1;
ELSE
CTH[] = GND;
END IF;
-- SINC_1 = CTH5;
SINC_1 = TRI(CTH5,VCC);
SINC_2 = TRI(CTV8,VCC);
SINC_HT.d = (CTH[] == B"1101XX");
SINC_H = SINC_HT;
-- === vertical sinc =======
-- CTV[].clk = !CT3;
-- SINC_VT.clk = !CT3;
CTV[].clk = SINC_HT;
SINC_VT.clk = SINC_HT;
CTV8M.clk = SINC_HT;
-- CTV[].ena = (CTH[] == B"110111");
-- SINC_VT.ena = (CTH[] == B"110111");
CTV[].ena = VCC;
SINC_VT.ena = VCC;
-- IF (CTV[] == B"100111111") THEN
IF (NUM == "YES") GENERATE
FN_NUM =(
(CTV[8..0] == NUMBER1) or
(CTV[8..0] == NUMBER2) or
(CTV[8..0] == NUMBER3) or
(CTV[8..0] == NUMBER4) or
(CTV[8..0] == NUMBER5) or
(CTV[8..0] == NUMBER6) or
(CTV[8..0] == NUMBER7)
) & !NO_HDD;
ELSE GENERATE
FN_NUM = GND;
END GENERATE;
IF EXP((CTV[] == B"XXXXXXX11") & SINC_VT) THEN
(CTV[8..0]) = ((CTV[8..0]) + 1) xor (CTV8M,B"00000000");
CTV8M = FN_NUM;
ELSE
CTV[7..0] = GND;
CTV8M = GND;
CTV8 = GND;
END IF;
SINC_VT.d = ((CTV[8..0] == B"1001111XX") or ((CTV[8..0] == B"1001101XX")) & NT320);
SINC_V = SINC_VT;
SINC = SINC_V xor SINC_H;
-- =============================
-- =========================================
-- divide by 6
XCT[].clk = (TG42_IN xor !XCT1);
XCT[].d = XCT[] + 1;
-- CLKZZ = 14 MHz
CLKZZ = TRI(XCT1,CNF_OFF);
CLK14 = DFF(!CLK14,XCT0,,);
-- test exists
-- CNF_OFF = EXP(CNF_ON & /RESET);
-- CNF_ON = EXP(CNF_OFF & XACS);
CNF_OFF = DFF(GND,GND,XACS,/RESET);
CNF_ON = !CNF_OFF;
-- =========================================
-- ======== FDD controller ==================
TURBING = EXP(EXP(TURBING & !WSTB & !RSTB) & !STE & NFDD_1440);
-- TURBING = GND;
CT_WG = TFF(VCC,(XCT1 xor (CT_WG & TURBING)),,);
STWG[].clk = (CT_WG xor STWG2);
STWG[].d = STWG[] + 1;
CLK_WG = STWG2;
-- CLK_PRC = STWG0;
CLK_PRC = CT_WG;
CT_WG1 = EXP(EXP(XCT1 & FDD_1440) & EXP(CT0 & NFDD_1440));
WGR[].clk = CT_WG1;
IF !FDAT THEN
TABLE WGR[3..0] => WGR[3..0].d;
0 => 4; 1 => 5; 2 => 4; 3 => 5;
4 => 6; 5 => 7; 6 => 8; 7 => 8;
8 => 9; 9 => 9; 10 => 10; 11 => 11;
12 => 12; 13 => 13; 14 => 14; 15 => 15;
END TABLE;
WGR4.d = WGR4;
ELSE
IF WGR[3..0] == 0 THEN
WGR[3..0].d = 3;
WGR4.d = WGR4;
ELSE
WGR[].d = WGR[] + 1;
END IF;
END IF;
QDAT = WGR4;
RDAT_X = EXP(EXP(RDAT_X & EXP(!RDAT & !CT_WG1)) & EXP(RDAT & !CT_WG1));
-- FDAT = DFF((RDAT_X or !DFF(RDAT_X,CT_WG1,,)),CT_WG1,,);
FDAT = DFF((RDAT_X or EXP(DFF(RDAT_X,CT_WG1,,))),CT_WG1,,);
-- ==========================================================
-- now not complete!
AUD = CT3;
BEEP = GND;
-- /CONF_X = TRI(GND,!/RESET);
/CONF_X = OPNDRN(/RESET);
-- 10K_CLK = WR_CNF; -- now not protect!
10K_CLK = DFF((WR_CNF & CNF_OFF) or ((HDD_C0 or FDD_C2) & CNF_ON),CLK42,,);
10K_D0 = DFFE(D0,10K_CLK,S720,(S144 & /RESET),CNF_OFF);
DENS_X = VCC;
-- === now NOT PRECOMP! =====
-- WDAT = WD;
WDAT = REG_P2;
REG_P[].clk = !CLK_PRC;
-- CASE WD IS
-- WHEN 1 => REG_P[].d = (GND,SL,!(SL or SR),SR);
-- WHEN 0 => REG_P[].d = (EXP(EXP(REG_P2)),REG_P[1..0],GND);
-- END CASE;
-- CASE (DFF(WD,CLK_WG,,),DFF((SL & TR43),CLK_WG,,),DFF((SR & TR43),CLK_WG,,)) IS
LR_T[].clk = STWG2;
-- LR_T[].clk = CLK_WG;
LR_T[].d = ((WD & !(SL & TR43)),(WD & !(SR & TR43)));
CASE LR_T[] IS
WHEN 0 => REG_P[1..0] = (REG_P[1..0] - 1) & EXP(REG_P[1..0] == 0);
REG_P[2] = EXP(EXP(REG_P[1..0] == 1));
-- REG_P[2] = (REG_P[1..0] == 1);
WHEN 1 => REG_P[1..0] = 1; REG_P[2] = GND;
WHEN 2 => REG_P[1..0] = 3; REG_P[2] = GND;
WHEN 3 => REG_P[1..0] = 2; REG_P[2] = GND;
END CASE;
%
CASE (WD,DFF((SL & TR43),CLK_WG,,),DFF((SR & TR43),CLK_WG,,)) IS
WHEN B"0XX" => REG_P[1..0] = (REG_P[1..0] - 1) & EXP(REG_P[1..0] == 0);
WHEN B"100" => REG_P[1..0] = 2;
WHEN B"110" => REG_P[1..0] = 1;
WHEN B"101" => REG_P[1..0] = 3;
WHEN B"111" => REG_P[1..0] = 2;
END CASE;
%
%
CASE WD IS
WHEN 0 => REG_P[3] = EXP(EXP(REG_P[1..0] == 1));
WHEN 1 => REG_P[3] = GND;
END CASE;
%
-- === Port Controls ====================================
%
FDD_C0 - 0 - WG93 / 1 - kmps/ p_dos
FDD_C1 - 0 - write / 1 - read
FDD_C2 - 0 - no / 1 - CS_WG/ strobe
HDD_C0 - strobe
HDD_C[2..1] = 00 - SYS_FN, 01 - SYS_FN, 10 - HDD1/2, 11 - CMOS
HDD_C3 - 0 - HD_CS1, 1 HD_CS3 / 0 CMOS_DAT, 1 - CMOS_ADR
HDD_C[3..0] = 0001, FDD_C[2..1] = 00; -> FDD_C0 = 1/0 -> set 1.44/720
HDD_C[3..0] = 1001, FDD_C[2..1] = 00; -> FDD_C0 = 1/0 -> set 320/312 lines
HDD_C[3..0] = 0011, FDD_C[2..1] = 00; -> FDD_C0 = 1/0 -> set HDD1/HDD2
HDD_C[3..0] = 1011, FDD_C[2..1] = 00; -> FDD_C0 = 0 -> soft_reset!
HDD_C[3..0] = X101, FDD_C[2..1] = XX; -> HDD1/2 rd/wr
%
SOFT_RESET = !((HDD_C[] == B"1011") & (FDD_C[] == B"000"));
SOFT_RESET2 = !((HDD_C[] == B"1011") & (FDD_C[] == B"001"));
-- FDD switch
-- NFDD_1440 = EXP(FDD_1440 & S720 & /RESET);
-- FDD_1440 = EXP(NFDD_1440 & S144);
FDD_1440 = 10K_D0;
NFDD_1440 = !10K_D0;
S144 = EXP((HDD_C[] == B"0001") & (FDD_C[] == B"001"));
S720 = EXP((HDD_C[] == B"0001") & (FDD_C[] == B"000"));
-- Screen Switch
T320 = EXP(NT320 & S320 & /RESET);
NT320 = EXP(T320 & S312);
S312 = EXP((HDD_C[] == B"1001") & (FDD_C[] == B"001"));
S320 = EXP((HDD_C[] == B"1001") & (FDD_C[] == B"000"));
-- HDD Switch
-- THDD = EXP(NTHDD & SHDD2 & /RESET);
-- NTHDD = EXP(THDD & SHDD1);
THDD = EXP(NTHDD & NO_HDD & SHDD2 & /RESET & SOFT_RESET2);
NTHDD = EXP(THDD & NO_HDD & SHDD1 & /RESET & SOFT_RESET2);
NO_HDD = EXP(NTHDD & THDD & SHDD1 & SHDD2);
SHDD2 = EXP((HDD_C[] == B"0011") & (FDD_C[] == B"001"));
SHDD1 = EXP((HDD_C[] == B"0011") & (FDD_C[] == B"000"));
-- Control signals
WR_PDOS = DFF(!((HDD_C[] == 0) & (FDD_C[] == B"X01")),HDD_CLK,,FDD_C2);
/WG_WR = DFF(!((HDD_C[] == 0) & (FDD_C[] == B"X00")),HDD_CLK,,FDD_C2);
/WG_RD = DFF(!((HDD_C[] == 0) & (FDD_C[] == B"X10")),HDD_CLK,,FDD_C2);
CMOS_DWR = DFF(!((HDD_C[] == B"1110") & (FDD_C[] == B"X01")),HDD_CLK,,FDD_C2);
CMOS_AS =!DFF(!((HDD_C[] == B"0110") & (FDD_C[] == B"X01")),HDD_CLK,,FDD_C2);
CMOS_DRD = DFF(!((HDD_C[] == B"1110") & (FDD_C[] == B"X10")),HDD_CLK,,FDD_C2);
-- HD_DIR = !HDD_C1; -- ????????????
HD_DIR = XHD_RD;
-- HD_CS = GND;
-- HD_CS = CTV8M;
HD_CS = (CTV8M and /RESET);
-- HD_CS = !/RESET;
-- XHD_RES = VCC;
-- XHD_RES = DFF(PW_GOOD,SINC_V,,);
XHD_RES = DFF(PW_GOOD,SINC_V,EPM_RES,);
-- XHD_WR = DFF((!(HDD_C[] == B"X101") or FDD_C1),CLK42,,);
-- XHD_RD = DFF((!(HDD_C[] == B"X101") or !FDD_C1),CLK42,,);
-- HDD_CLK = EXP(EXP(HDD_C0));
HDD_CLK = 10K_CLK;
-- XHD_WR = DFF((!(HDD_C[] == B"X101") or FDD_C1 or !HDD_CLK),CLK42,,HDD_C0);
-- XHD_RD = DFF((!(HDD_C[] == B"X101") or !FDD_C1 or !HDD_CLK),CLK42,,HDD_C0);
-- XHD_WR = DFF((!(HDD_C[] == B"X101") or FDD_C1),HDD_CLK,,HDD_C0);
-- XHD_RD = DFF((!(HDD_C[] == B"X101") or !FDD_C1),HDD_CLK,,HDD_C0);
XHD_WR = DFF((!(HDD_C[] == B"X101") or FDD_C1),HDD_CLK,,(HDD_C0 and /RESET));
XHD_RD = DFF((!(HDD_C[] == B"X101") or !FDD_C1),HDD_CLK,,(HDD_C0 and /RESET));
-- XHD1_CS1 = DFF(!((HDD_C[] == B"010X") & NTHDD),CLK42,,);
-- XHD1_CS2 = DFF(!((HDD_C[] == B"110X") & NTHDD),CLK42,,);
-- XHD2_CS1 = DFF(!((HDD_C[] == B"010X") & THDD),CLK42,,);
-- XHD2_CS2 = DFF(!((HDD_C[] == B"110X") & THDD),CLK42,,);
-- XHD1_CS1 = DFF((!(HDD_C[] == B"010X") or THDD),CLK42,,);
-- XHD1_CS2 = DFF((!(HDD_C[] == B"110X") or THDD),CLK42,,);
XHD1_CS1 = DFF((!(HDD_C[] == B"010X") or THDD),CLK42,,/RESET);
XHD1_CS2 = DFF((!(HDD_C[] == B"110X") or THDD),CLK42,,/RESET);
-- XHD2_CS1 = DFF((!(HDD_C[] == B"010X") or NTHDD),CLK42,,);
-- XHD2_CS2 = DFF((!(HDD_C[] == B"110X") or NTHDD),CLK42,,);
XHD2_CS1 = DFF((!(HDD_C[] == B"010X") or NTHDD),CLK42,,/RESET);
XHD2_CS2 = DFF((!(HDD_C[] == B"110X") or NTHDD),CLK42,,/RESET);
END;

Some files were not shown because too many files have changed in this diff Show More