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919913f118
mame/src/emu/cpu/dsp32/dsp32.h
Aaron Giles 919913f118 Collapsed device_config and device_t into one class. Updated all 
existing modern devices and the legacy wrappers to work in this
environment. This in general greatly simplifies writing a modern
device. [Aaron Giles]

General notes:
 * some more cleanup probably needs to happen behind this change,
   but I needed to get it in before the next device modernization 
   or import from MESS  :)

 * new template function device_creator which automatically defines
   the static function that creates the device; use this instead of
   creating a static_alloc_device_config function

 * added device_stop() method which is called at around the time
   the previous device_t's destructor was called; if you auto_free
   anything, do it here because the machine is gone when the 
   destructor is called

 * changed the static_set_* calls to pass a device_t & instead of
   a device_config *

 * for many devices, the static config structure member names over-
   lapped the device's names for devcb_* functions; in these cases
   the members in the interface were renamed to have a _cb suffix

 * changed the driver_enumerator to only cache 100 machine_configs
   because caching them all took a ton of memory; fortunately this
   implementation detail is completely hidden behind the 
   driver_enumerator interface

 * got rid of the macros for creating derived classes; doing it
   manually is now clean enough that it isn't worth hiding the
   details in a macro
2011-04-27 05:11:18 +00:00

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/***************************************************************************
dsp32.h
Interface file for the portable DSP32 emulator.
****************************************************************************
Copyright Aaron Giles
All rights reserved.
Redistribution and use in source and binary forms, with or without
modification, are permitted provided that the following conditions are
met:
* Redistributions of source code must retain the above copyright
notice, this list of conditions and the following disclaimer.
* Redistributions in binary form must reproduce the above copyright
notice, this list of conditions and the following disclaimer in
the documentation and/or other materials provided with the
distribution.
* Neither the name 'MAME' nor the names of its contributors may be
used to endorse or promote products derived from this software
without specific prior written permission.
THIS SOFTWARE IS PROVIDED BY AARON GILES ''AS IS'' AND ANY EXPRESS OR
IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED
WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE
DISCLAIMED. IN NO EVENT SHALL AARON GILES BE LIABLE FOR ANY DIRECT,
INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES
(INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR
SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION)
HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT,
STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING
IN ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE
POSSIBILITY OF SUCH DAMAGE.
***************************************************************************/
#pragma once
#ifndef __DSP32_H__
#define __DSP32_H__
//**************************************************************************
// INTERFACE CONFIGURATION MACROS
//**************************************************************************
#define MCFG_DSP32C_CONFIG(_config) \
dsp32c_device::static_set_config(*device, _config); \
//**************************************************************************
// CONSTANTS
//**************************************************************************
// IRQ sources
const int DSP32_IRQ0 = 0; // IRQ0
const int DSP32_IRQ1 = 1; // IRQ1
// pin signal bits
const int DSP32_OUTPUT_PIF = 0x01;
// register enumeration
enum
{
// CAU
DSP32_PC=1,
DSP32_R0,
DSP32_R1,
DSP32_R2,
DSP32_R3,
DSP32_R4,
DSP32_R5,
DSP32_R6,
DSP32_R7,
DSP32_R8,
DSP32_R9,
DSP32_R10,
DSP32_R11,
DSP32_R12,
DSP32_R13,
DSP32_R14,
DSP32_R15,
DSP32_R16,
DSP32_R17,
DSP32_R18,
DSP32_R19,
DSP32_R20,
DSP32_R21,
DSP32_R22,
DSP32_PIN,
DSP32_POUT,
DSP32_IVTP,
// DAU
DSP32_A0,
DSP32_A1,
DSP32_A2,
DSP32_A3,
DSP32_DAUC,
// PIO
DSP32_PAR,
DSP32_PDR,
DSP32_PIR,
DSP32_PCR,
DSP32_EMR,
DSP32_ESR,
DSP32_PCW,
DSP32_PIOP,
// SIO
DSP32_IBUF,
DSP32_ISR,
DSP32_OBUF,
DSP32_OSR,
DSP32_IOC
};
//**************************************************************************
// TYPE DEFINITIONS
//**************************************************************************
class dsp32c_device;
// ======================> dsp32_config
struct dsp32_config
{
void (*m_output_pins_changed)(dsp32c_device &device, UINT32 pins); // a change has occurred on an output pin
};
// ======================> dsp32c_device
class dsp32c_device : public cpu_device,
public dsp32_config
{
public:
// construction/destruction
dsp32c_device(const machine_config &mconfig, const char *tag, device_t *owner, UINT32 clock);
// inline configuration helpers
static void static_set_config(device_t &device, const dsp32_config &config);
// public interfaces
void pio_w(int reg, int data);
int pio_r(int reg);
protected:
// device-level overrides
virtual void device_start();
virtual void device_reset();
// device_execute_interface overrides
virtual UINT32 execute_min_cycles() const;
virtual UINT32 execute_max_cycles() const;
virtual UINT32 execute_input_lines() const;
virtual void execute_run();
virtual void execute_set_input(int inputnum, int state);
// device_memory_interface overrides
virtual const address_space_config *memory_space_config(address_spacenum spacenum = AS_0) const;
// device_state_interface overrides
virtual void state_import(const device_state_entry &entry);
virtual void state_export(const device_state_entry &entry);
virtual void state_string_export(const device_state_entry &entry, astring &string);
// device_disasm_interface overrides
virtual UINT32 disasm_min_opcode_bytes() const;
virtual UINT32 disasm_max_opcode_bytes() const;
virtual offs_t disasm_disassemble(char *buffer, offs_t pc, const UINT8 *oprom, const UINT8 *opram, UINT32 options);
// memory accessors
UINT32 ROPCODE(offs_t pc);
UINT8 RBYTE(offs_t addr);
void WBYTE(offs_t addr, UINT8 data);
UINT16 RWORD(offs_t addr);
UINT32 RLONG(offs_t addr);
void WWORD(offs_t addr, UINT16 data);
void WLONG(offs_t addr, UINT32 data);
// interrupts
void check_irqs();
void set_irq_line(int irqline, int state);
void update_pcr(UINT16 newval);
void illegal(UINT32 op);
void unimplemented(UINT32 op);
void execute_one();
// CAU helpers
UINT32 cau_read_pi_special(UINT8 i);
void cau_write_pi_special(UINT8 i, UINT32 val);
UINT8 cau_read_pi_1byte(int pi);
UINT16 cau_read_pi_2byte(int pi);
UINT32 cau_read_pi_4byte(int pi);
void cau_write_pi_1byte(int pi, UINT8 val);
void cau_write_pi_2byte(int pi, UINT16 val);
void cau_write_pi_4byte(int pi, UINT32 val);
// DAU helpers
double dau_get_amult(int aidx);
double dau_get_anzflags();
UINT8 dau_get_avuflags();
void remember_last_dau(int aidx);
void dau_set_val_noflags(int aidx, double res);
void dau_set_val_flags(int aidx, double res);
double dsp_to_double(UINT32 val);
UINT32 double_to_dsp(double val);
double dau_read_pi_special(int i);
void dau_write_pi_special(int i, double val);
double dau_read_pi_double_1st(int pi, int multiplier);
double dau_read_pi_double_2nd(int pi, int multiplier, double xval);
UINT32 dau_read_pi_4bytes(int pi);
UINT16 dau_read_pi_2bytes(int pi);
void dau_write_pi_double(int pi, double val);
void dau_write_pi_4bytes(int pi, UINT32 val);
void dau_write_pi_2bytes(int pi, UINT16 val);
// common condition routine
int condition(int cond);
// CAU branch instruction implementation
void nop(UINT32 op);
void goto_t(UINT32 op);
void goto_pl(UINT32 op);
void goto_mi(UINT32 op);
void goto_ne(UINT32 op);
void goto_eq(UINT32 op);
void goto_vc(UINT32 op);
void goto_vs(UINT32 op);
void goto_cc(UINT32 op);
void goto_cs(UINT32 op);
void goto_ge(UINT32 op);
void goto_lt(UINT32 op);
void goto_gt(UINT32 op);
void goto_le(UINT32 op);
void goto_hi(UINT32 op);
void goto_ls(UINT32 op);
void goto_auc(UINT32 op);
void goto_aus(UINT32 op);
void goto_age(UINT32 op);
void goto_alt(UINT32 op);
void goto_ane(UINT32 op);
void goto_aeq(UINT32 op);
void goto_avc(UINT32 op);
void goto_avs(UINT32 op);
void goto_agt(UINT32 op);
void goto_ale(UINT32 op);
void goto_ibe(UINT32 op);
void goto_ibf(UINT32 op);
void goto_obf(UINT32 op);
void goto_obe(UINT32 op);
void goto_pde(UINT32 op);
void goto_pdf(UINT32 op);
void goto_pie(UINT32 op);
void goto_pif(UINT32 op);
void goto_syc(UINT32 op);
void goto_sys(UINT32 op);
void goto_fbc(UINT32 op);
void goto_fbs(UINT32 op);
void goto_irq1lo(UINT32 op);
void goto_irq1hi(UINT32 op);
void goto_irq2lo(UINT32 op);
void goto_irq2hi(UINT32 op);
void dec_goto(UINT32 op);
void call(UINT32 op);
void goto24(UINT32 op);
void call24(UINT32 op);
void do_i(UINT32 op);
void do_r(UINT32 op);
// CAU 16-bit arithmetic implementation
void add_si(UINT32 op);
void add_ss(UINT32 op);
void mul2_s(UINT32 op);
void subr_ss(UINT32 op);
void addr_ss(UINT32 op);
void sub_ss(UINT32 op);
void neg_s(UINT32 op);
void andc_ss(UINT32 op);
void cmp_ss(UINT32 op);
void xor_ss(UINT32 op);
void rcr_s(UINT32 op);
void or_ss(UINT32 op);
void rcl_s(UINT32 op);
void shr_s(UINT32 op);
void div2_s(UINT32 op);
void and_ss(UINT32 op);
void test_ss(UINT32 op);
void add_di(UINT32 op);
void subr_di(UINT32 op);
void addr_di(UINT32 op);
void sub_di(UINT32 op);
void andc_di(UINT32 op);
void cmp_di(UINT32 op);
void xor_di(UINT32 op);
void or_di(UINT32 op);
void and_di(UINT32 op);
void test_di(UINT32 op);
// CAU 24-bit arithmetic implementation
void adde_si(UINT32 op);
void adde_ss(UINT32 op);
void mul2e_s(UINT32 op);
void subre_ss(UINT32 op);
void addre_ss(UINT32 op);
void sube_ss(UINT32 op);
void nege_s(UINT32 op);
void andce_ss(UINT32 op);
void cmpe_ss(UINT32 op);
void xore_ss(UINT32 op);
void rcre_s(UINT32 op);
void ore_ss(UINT32 op);
void rcle_s(UINT32 op);
void shre_s(UINT32 op);
void div2e_s(UINT32 op);
void ande_ss(UINT32 op);
void teste_ss(UINT32 op);
void adde_di(UINT32 op);
void subre_di(UINT32 op);
void addre_di(UINT32 op);
void sube_di(UINT32 op);
void andce_di(UINT32 op);
void cmpe_di(UINT32 op);
void xore_di(UINT32 op);
void ore_di(UINT32 op);
void ande_di(UINT32 op);
void teste_di(UINT32 op);
// CAU load/store implementation
void load_hi(UINT32 op);
void load_li(UINT32 op);
void load_i(UINT32 op);
void load_ei(UINT32 op);
void store_hi(UINT32 op);
void store_li(UINT32 op);
void store_i(UINT32 op);
void store_ei(UINT32 op);
void load_hr(UINT32 op);
void load_lr(UINT32 op);
void load_r(UINT32 op);
void load_er(UINT32 op);
void store_hr(UINT32 op);
void store_lr(UINT32 op);
void store_r(UINT32 op);
void store_er(UINT32 op);
void load24(UINT32 op);
// DAU form 1 implementation
void d1_aMpp(UINT32 op);
void d1_aMpm(UINT32 op);
void d1_aMmp(UINT32 op);
void d1_aMmm(UINT32 op);
void d1_0px(UINT32 op);
void d1_0mx(UINT32 op);
void d1_1pp(UINT32 op);
void d1_1pm(UINT32 op);
void d1_1mp(UINT32 op);
void d1_1mm(UINT32 op);
void d1_aMppr(UINT32 op);
void d1_aMpmr(UINT32 op);
void d1_aMmpr(UINT32 op);
void d1_aMmmr(UINT32 op);
// DAU form 2 implementation
void d2_aMpp(UINT32 op);
void d2_aMpm(UINT32 op);
void d2_aMmp(UINT32 op);
void d2_aMmm(UINT32 op);
void d2_aMppr(UINT32 op);
void d2_aMpmr(UINT32 op);
void d2_aMmpr(UINT32 op);
void d2_aMmmr(UINT32 op);
// DAU form 3 implementation
void d3_aMpp(UINT32 op);
void d3_aMpm(UINT32 op);
void d3_aMmp(UINT32 op);
void d3_aMmm(UINT32 op);
void d3_aMppr(UINT32 op);
void d3_aMpmr(UINT32 op);
void d3_aMmpr(UINT32 op);
void d3_aMmmr(UINT32 op);
// DAU form 4 implementation
void d4_pp(UINT32 op);
void d4_pm(UINT32 op);
void d4_mp(UINT32 op);
void d4_mm(UINT32 op);
void d4_ppr(UINT32 op);
void d4_pmr(UINT32 op);
void d4_mpr(UINT32 op);
void d4_mmr(UINT32 op);
// DAU form 5 implementation
void d5_ic(UINT32 op);
void d5_oc(UINT32 op);
void d5_float(UINT32 op);
void d5_int(UINT32 op);
void d5_round(UINT32 op);
void d5_ifalt(UINT32 op);
void d5_ifaeq(UINT32 op);
void d5_ifagt(UINT32 op);
void d5_float24(UINT32 op);
void d5_int24(UINT32 op);
void d5_ieee(UINT32 op);
void d5_dsp(UINT32 op);
void d5_seed(UINT32 op);
// dma helpers
void dma_increment();
void dma_load();
void dma_store();
// configuration
const address_space_config m_program_config;
// internal state
UINT32 m_r[32];
UINT32 m_pin, m_pout;
UINT32 m_ivtp;
UINT32 m_nzcflags;
UINT32 m_vflags;
double m_a[6];
double m_NZflags;
UINT8 m_VUflags;
double m_abuf[4];
UINT8 m_abufreg[4];
UINT8 m_abufVUflags[4];
UINT8 m_abufNZflags[4];
int m_abufcycle[4];
int m_abuf_index;
INT32 m_mbufaddr[4];
UINT32 m_mbufdata[4];
int m_mbuf_index;
UINT16 m_par;
UINT8 m_pare;
UINT16 m_pdr;
UINT16 m_pdr2;
UINT16 m_pir;
UINT16 m_pcr;
UINT16 m_emr;
UINT8 m_esr;
UINT16 m_pcw;
UINT8 m_piop;
UINT32 m_ibuf;
UINT32 m_isr;
UINT32 m_obuf;
UINT32 m_osr;
UINT32 m_iotemp;
// internal stuff
int m_lastp;
int m_icount;
UINT8 m_lastpins;
UINT32 m_ppc;
address_space * m_program;
direct_read_data *m_direct;
// tables
static void (dsp32c_device::*const s_dsp32ops[])(UINT32 op);
static const UINT32 s_regmap[4][16];
};
extern const device_type DSP32C;
#endif /* __DSP32_H__ */
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