mame/src/lib/netlist/nl_setup.cpp
Vas Crabb 5e8fefbb12 Turn psring iterator into a real forward iterator that works with standard algorithms.
There are a few changes to achieve this:
* Rename to const_iterator since it's immutable
* Typedef iterator to const_iterator for now as there's no mutable iterator
* Add default constrcutor and operator-> required by concept, const-qualify operators
* Remove operator+ and operator+= since it's not a random-access iterator (use std::next and std::advance instead)
* Return reference/pointer to a proxy rather than a code_t value from opertator*/operator->

The final change is required to meet the requirement that operator* for
two equivalent forward iterators return an equivalent reference.  The
pstring doesn't actually contain a sequence of code_t, so there's no way
to return a reference to code_t directly.  Instead, a reference to a
proxy object aliased on the string storage is returned.  The proxy is
implicitly convertible to code_t.  The most noticeable side effect is
that auto c = *s.begin() or for (auto c : s) won't work.  You need to do
for (auto &c : s) or for (code_t c : s) instead.
2017-03-30 15:51:14 +11:00

1034 lines
27 KiB
C++

// license:GPL-2.0+
// copyright-holders:Couriersud
/*
* nlsetup.c
*
*/
#include "plib/palloc.h"
#include "plib/putil.h"
#include "nl_base.h"
#include "nl_setup.h"
#include "nl_parser.h"
#include "nl_factory.h"
#include "devices/nlid_system.h"
#include "devices/nlid_proxy.h"
#include "analog/nld_twoterm.h"
#include "solver/nld_solver.h"
#include "devices/nlid_truthtable.h"
// ----------------------------------------------------------------------------------------
// setup_t
// ----------------------------------------------------------------------------------------
namespace netlist
{
setup_t::setup_t(netlist_t &netlist)
: m_netlist(netlist)
, m_factory(*this)
, m_proxy_cnt(0)
, m_frontier_cnt(0)
{
devices::initialize_factory(m_factory);
}
setup_t::~setup_t()
{
m_links.clear();
m_alias.clear();
m_params.clear();
m_terminals.clear();
m_param_values.clear();
m_sources.clear();
pstring::resetmem();
}
pstring setup_t::build_fqn(const pstring &obj_name) const
{
if (m_namespace_stack.empty())
//return netlist().name() + "." + obj_name;
return obj_name;
else
return m_namespace_stack.top() + "." + obj_name;
}
void setup_t::namespace_push(const pstring &aname)
{
if (m_namespace_stack.empty())
//m_namespace_stack.push(netlist().name() + "." + aname);
m_namespace_stack.push(aname);
else
m_namespace_stack.push(m_namespace_stack.top() + "." + aname);
}
void setup_t::namespace_pop()
{
m_namespace_stack.pop();
}
void setup_t::register_lib_entry(const pstring &name, const pstring &sourcefile)
{
factory().register_device(plib::make_unique_base<factory::element_t, factory::library_element_t>(*this, name, name, "", sourcefile));
}
void setup_t::register_dev(const pstring &classname, const pstring &name)
{
auto f = factory().factory_by_name(classname);
if (f == nullptr)
log().fatal(MF_1_CLASS_1_NOT_FOUND, classname);
/* make sure we parse macro library entries */
f->macro_actions(netlist(), name);
m_device_factory.push_back(std::pair<pstring, factory::element_t *>(build_fqn(name), f));
}
bool setup_t::device_exists(const pstring &name) const
{
for (auto e : m_device_factory)
{
if (e.first == name)
return true;
}
return false;
}
void setup_t::register_model(const pstring &model_in)
{
auto pos = model_in.find(" ");
if (pos == model_in.end())
log().fatal(MF_1_UNABLE_TO_PARSE_MODEL_1, model_in);
pstring model = model_in.left(pos).trim().ucase();
pstring def = model_in.substr(std::next(pos, 1)).trim();
if (!m_models.insert({model, def}).second)
log().fatal(MF_1_MODEL_ALREADY_EXISTS_1, model_in);
}
void setup_t::register_alias_nofqn(const pstring &alias, const pstring &out)
{
if (!m_alias.insert({alias, out}).second)
log().fatal(MF_1_ADDING_ALIAS_1_TO_ALIAS_LIST, alias);
}
void setup_t::register_alias(const pstring &alias, const pstring &out)
{
pstring alias_fqn = build_fqn(alias);
pstring out_fqn = build_fqn(out);
register_alias_nofqn(alias_fqn, out_fqn);
}
void setup_t::register_dippins_arr(const pstring &terms)
{
std::vector<pstring> list(plib::psplit(terms,", "));
if (list.size() == 0 || (list.size() % 2) == 1)
log().fatal(MF_1_DIP_PINS_MUST_BE_AN_EQUAL_NUMBER_OF_PINS_1,
build_fqn(""));
std::size_t n = list.size();
for (std::size_t i = 0; i < n / 2; i++)
{
register_alias(plib::pfmt("{1}")(i+1), list[i * 2]);
register_alias(plib::pfmt("{1}")(n-i), list[i * 2 + 1]);
}
}
pstring setup_t::termtype_as_str(detail::core_terminal_t &in) const
{
switch (in.type())
{
case detail::terminal_type::TERMINAL:
return pstring("TERMINAL");
case detail::terminal_type::INPUT:
return pstring("INPUT");
case detail::terminal_type::OUTPUT:
return pstring("OUTPUT");
}
log().fatal(MF_1_UNKNOWN_OBJECT_TYPE_1, static_cast<unsigned>(in.type()));
return pstring("Error");
}
pstring setup_t::get_initial_param_val(const pstring &name, const pstring &def)
{
auto i = m_param_values.find(name);
if (i != m_param_values.end())
return i->second;
else
return def;
}
double setup_t::get_initial_param_val(const pstring &name, const double def)
{
auto i = m_param_values.find(name);
if (i != m_param_values.end())
{
double vald = 0;
if (sscanf(i->second.c_str(), "%lf", &vald) != 1)
log().fatal(MF_2_INVALID_NUMBER_CONVERSION_1_2, name, i->second);
return vald;
}
else
return def;
}
int setup_t::get_initial_param_val(const pstring &name, const int def)
{
auto i = m_param_values.find(name);
if (i != m_param_values.end())
{
double vald = 0;
if (sscanf(i->second.c_str(), "%lf", &vald) != 1)
log().fatal(MF_2_INVALID_NUMBER_CONVERSION_1_2, name, i->second);
return static_cast<int>(vald);
}
else
return def;
}
void setup_t::register_param(const pstring &name, param_t &param)
{
if (!m_params.insert({param.name(), param_ref_t(param.name(), param.device(), param)}).second)
log().fatal(MF_1_ADDING_PARAMETER_1_TO_PARAMETER_LIST, name);
}
void setup_t::register_term(detail::core_terminal_t &term)
{
if (!m_terminals.insert({term.name(), &term}).second)
log().fatal(MF_2_ADDING_1_2_TO_TERMINAL_LIST, termtype_as_str(term),
term.name());
log().debug("{1} {2}\n", termtype_as_str(term), term.name());
}
void setup_t::register_link_arr(const pstring &terms)
{
std::vector<pstring> list(plib::psplit(terms,", "));
if (list.size() < 2)
log().fatal(MF_2_NET_C_NEEDS_AT_LEAST_2_TERMINAL);
for (std::size_t i = 1; i < list.size(); i++)
{
register_link(list[0], list[i]);
}
}
void setup_t::register_link_fqn(const pstring &sin, const pstring &sout)
{
link_t temp = link_t(sin, sout);
log().debug("link {1} <== {2}\n", sin, sout);
m_links.push_back(temp);
}
void setup_t::register_link(const pstring &sin, const pstring &sout)
{
register_link_fqn(build_fqn(sin), build_fqn(sout));
}
void setup_t::remove_connections(const pstring &pin)
{
pstring pinfn = build_fqn(pin);
bool found = false;
for (auto link = m_links.begin(); link != m_links.end(); )
{
if ((link->first == pinfn) || (link->second == pinfn))
{
log().verbose("removing connection: {1} <==> {2}\n", link->first, link->second);
link = m_links.erase(link);
found = true;
}
else
link++;
}
if (!found)
log().fatal(MF_1_FOUND_NO_OCCURRENCE_OF_1, pin);
}
void setup_t::register_frontier(const pstring &attach, const double r_IN, const double r_OUT)
{
pstring frontier_name = plib::pfmt("frontier_{1}")(m_frontier_cnt);
m_frontier_cnt++;
register_dev("FRONTIER_DEV", frontier_name);
register_param(frontier_name + ".RIN", r_IN);
register_param(frontier_name + ".ROUT", r_OUT);
register_link(frontier_name + ".G", "GND");
pstring attfn = build_fqn(attach);
pstring front_fqn = build_fqn(frontier_name);
bool found = false;
for (auto & link : m_links)
{
if (link.first == attfn)
{
link.first = front_fqn + ".I";
found = true;
}
else if (link.second == attfn)
{
link.second = front_fqn + ".I";
found = true;
}
}
if (!found)
log().fatal(MF_1_FOUND_NO_OCCURRENCE_OF_1, attach);
register_link(attach, frontier_name + ".Q");
}
void setup_t::register_param(const pstring &param, const double value)
{
register_param(param, plib::pfmt("{1}").e(value,".9"));
}
void setup_t::register_param(const pstring &param, const pstring &value)
{
pstring fqn = build_fqn(param);
auto idx = m_param_values.find(fqn);
if (idx == m_param_values.end())
{
if (!m_param_values.insert({fqn, value}).second)
log().fatal(MF_1_ADDING_PARAMETER_1_TO_PARAMETER_LIST,
param);
}
else
{
log().warning(MW_3_OVERWRITING_PARAM_1_OLD_2_NEW_3, fqn, idx->second,
value);
m_param_values[fqn] = value;
}
}
const pstring setup_t::resolve_alias(const pstring &name) const
{
pstring temp = name;
pstring ret;
/* FIXME: Detect endless loop */
do {
ret = temp;
auto p = m_alias.find(ret);
temp = (p != m_alias.end() ? p->second : "");
} while (temp != "" && temp != ret);
log().debug("{1}==>{2}\n", name, ret);
return ret;
}
detail::core_terminal_t *setup_t::find_terminal(const pstring &terminal_in, bool required)
{
const pstring &tname = resolve_alias(terminal_in);
auto ret = m_terminals.find(tname);
/* look for default */
if (ret == m_terminals.end())
{
/* look for ".Q" std output */
ret = m_terminals.find(tname + ".Q");
}
detail::core_terminal_t *term = (ret == m_terminals.end() ? nullptr : ret->second);
if (term == nullptr && required)
log().fatal(MF_2_TERMINAL_1_2_NOT_FOUND, terminal_in, tname);
if (term != nullptr)
log().debug("Found input {1}\n", tname);
return term;
}
detail::core_terminal_t *setup_t::find_terminal(const pstring &terminal_in,
detail::terminal_type atype, bool required)
{
const pstring &tname = resolve_alias(terminal_in);
auto ret = m_terminals.find(tname);
/* look for default */
if (ret == m_terminals.end() && atype == detail::terminal_type::OUTPUT)
{
/* look for ".Q" std output */
ret = m_terminals.find(tname + ".Q");
}
if (ret == m_terminals.end() && required)
log().fatal(MF_2_TERMINAL_1_2_NOT_FOUND, terminal_in, tname);
detail::core_terminal_t *term = (ret == m_terminals.end() ? nullptr : ret->second);
if (term != nullptr && term->type() != atype)
{
if (required)
log().fatal(MF_2_OBJECT_1_2_WRONG_TYPE, terminal_in, tname);
else
term = nullptr;
}
if (term != nullptr)
log().debug("Found input {1}\n", tname);
return term;
}
param_t *setup_t::find_param(const pstring &param_in, bool required) const
{
const pstring param_in_fqn = build_fqn(param_in);
const pstring &outname = resolve_alias(param_in_fqn);
auto ret = m_params.find(outname);
if (ret == m_params.end() && required)
log().fatal(MF_2_PARAMETER_1_2_NOT_FOUND, param_in_fqn, outname);
if (ret != m_params.end())
log().debug("Found parameter {1}\n", outname);
return (ret == m_params.end() ? nullptr : &ret->second.m_param);
}
devices::nld_base_proxy *setup_t::get_d_a_proxy(detail::core_terminal_t &out)
{
nl_assert(out.is_logic());
logic_output_t &out_cast = static_cast<logic_output_t &>(out);
devices::nld_base_proxy *proxy = out_cast.get_proxy();
if (proxy == nullptr)
{
// create a new one ...
pstring x = plib::pfmt("proxy_da_{1}_{2}")(out.name())(m_proxy_cnt);
auto new_proxy =
out_cast.logic_family()->create_d_a_proxy(netlist(), x, &out_cast);
m_proxy_cnt++;
//new_proxy->start_dev();
/* connect all existing terminals to new net */
for (auto & p : out.net().m_core_terms)
{
p->clear_net(); // de-link from all nets ...
if (!connect(new_proxy->proxy_term(), *p))
log().fatal(MF_2_CONNECTING_1_TO_2,
new_proxy->proxy_term().name(), (*p).name());
}
out.net().m_core_terms.clear(); // clear the list
out.net().add_terminal(new_proxy->in());
out_cast.set_proxy(proxy);
proxy = new_proxy.get();
netlist().register_dev(std::move(new_proxy));
}
return proxy;
}
devices::nld_base_proxy *setup_t::get_a_d_proxy(detail::core_terminal_t &inp)
{
nl_assert(inp.is_analog());
logic_input_t &incast = dynamic_cast<logic_input_t &>(inp);
devices::nld_base_proxy *proxy = incast.get_proxy();
if (proxy != nullptr)
return proxy;
else
{
log().debug("connect_terminal_input: connecting proxy\n");
pstring x = plib::pfmt("proxy_ad_{1}_{2}")(inp.name())(m_proxy_cnt);
auto new_proxy = incast.logic_family()->create_a_d_proxy(netlist(), x, &incast);
//auto new_proxy = plib::owned_ptr<devices::nld_a_to_d_proxy>::Create(netlist(), x, &incast);
incast.set_proxy(new_proxy.get());
m_proxy_cnt++;
auto ret = new_proxy.get();
/* connect all existing terminals to new net */
if (inp.has_net())
{
for (auto & p : inp.net().m_core_terms)
{
p->clear_net(); // de-link from all nets ...
if (!connect(ret->proxy_term(), *p))
log().fatal(MF_2_CONNECTING_1_TO_2,
ret->proxy_term().name(), (*p).name());
}
inp.net().m_core_terms.clear(); // clear the list
}
ret->out().net().add_terminal(inp);
netlist().register_dev(std::move(new_proxy));
return ret;
}
}
void setup_t::merge_nets(detail::net_t &thisnet, detail::net_t &othernet)
{
log().debug("merging nets ...\n");
if (&othernet == &thisnet)
{
log().warning(MW_1_CONNECTING_1_TO_ITSELF, thisnet.name());
return; // Nothing to do
}
if (thisnet.isRailNet() && othernet.isRailNet())
log().fatal(MF_2_MERGE_RAIL_NETS_1_AND_2,
thisnet.name(), othernet.name());
if (othernet.isRailNet())
{
log().debug("othernet is railnet\n");
merge_nets(othernet, thisnet);
}
else
{
othernet.move_connections(thisnet);
}
}
void setup_t::connect_input_output(detail::core_terminal_t &in, detail::core_terminal_t &out)
{
if (out.is_analog() && in.is_logic())
{
auto proxy = get_a_d_proxy(in);
out.net().add_terminal(proxy->proxy_term());
}
else if (out.is_logic() && in.is_analog())
{
devices::nld_base_proxy *proxy = get_d_a_proxy(out);
connect_terminals(proxy->proxy_term(), in);
//proxy->out().net().register_con(in);
}
else
{
if (in.has_net())
merge_nets(out.net(), in.net());
else
out.net().add_terminal(in);
}
}
void setup_t::connect_terminal_input(terminal_t &term, detail::core_terminal_t &inp)
{
if (inp.is_analog())
{
connect_terminals(inp, term);
}
else if (inp.is_logic())
{
log().verbose("connect terminal {1} (in, {2}) to {3}\n", inp.name(),
inp.is_analog() ? pstring("analog") : inp.is_logic() ? pstring("logic") : pstring("?"), term.name());
auto proxy = get_a_d_proxy(inp);
//out.net().register_con(proxy->proxy_term());
connect_terminals(term, proxy->proxy_term());
}
else
{
log().fatal(MF_1_OBJECT_INPUT_TYPE_1, inp.name());
}
}
void setup_t::connect_terminal_output(terminal_t &in, detail::core_terminal_t &out)
{
if (out.is_analog())
{
log().debug("connect_terminal_output: {1} {2}\n", in.name(), out.name());
/* no proxy needed, just merge existing terminal net */
if (in.has_net())
merge_nets(out.net(), in.net());
else
out.net().add_terminal(in);
}
else if (out.is_logic())
{
log().debug("connect_terminal_output: connecting proxy\n");
devices::nld_base_proxy *proxy = get_d_a_proxy(out);
connect_terminals(proxy->proxy_term(), in);
}
else
{
log().fatal(MF_1_OBJECT_OUTPUT_TYPE_1, out.name());
}
}
void setup_t::connect_terminals(detail::core_terminal_t &t1, detail::core_terminal_t &t2)
{
if (t1.has_net() && t2.has_net())
{
log().debug("T2 and T1 have net\n");
merge_nets(t1.net(), t2.net());
}
else if (t2.has_net())
{
log().debug("T2 has net\n");
t2.net().add_terminal(t1);
}
else if (t1.has_net())
{
log().debug("T1 has net\n");
t1.net().add_terminal(t2);
}
else
{
log().debug("adding analog net ...\n");
// FIXME: Nets should have a unique name
auto anet = plib::palloc<analog_net_t>(netlist(),"net." + t1.name());
netlist().m_nets.push_back(plib::owned_ptr<analog_net_t>(anet, true));
t1.set_net(anet);
anet->add_terminal(t2);
anet->add_terminal(t1);
}
}
static detail::core_terminal_t &resolve_proxy(detail::core_terminal_t &term)
{
if (term.is_logic())
{
logic_t &out = dynamic_cast<logic_t &>(term);
if (out.has_proxy())
return out.get_proxy()->proxy_term();
}
return term;
}
bool setup_t::connect_input_input(detail::core_terminal_t &t1, detail::core_terminal_t &t2)
{
bool ret = false;
if (t1.has_net())
{
if (t1.net().isRailNet())
ret = connect(t2, t1.net().railterminal());
if (!ret)
{
for (auto & t : t1.net().m_core_terms)
{
if (t->is_type(detail::terminal_type::TERMINAL))
ret = connect(t2, *t);
if (ret)
break;
}
}
}
if (!ret && t2.has_net())
{
if (t2.net().isRailNet())
ret = connect(t1, t2.net().railterminal());
if (!ret)
{
for (auto & t : t2.net().m_core_terms)
{
if (t->is_type(detail::terminal_type::TERMINAL))
ret = connect(t1, *t);
if (ret)
break;
}
}
}
return ret;
}
bool setup_t::connect(detail::core_terminal_t &t1_in, detail::core_terminal_t &t2_in)
{
log().debug("Connecting {1} to {2}\n", t1_in.name(), t2_in.name());
detail::core_terminal_t &t1 = resolve_proxy(t1_in);
detail::core_terminal_t &t2 = resolve_proxy(t2_in);
bool ret = true;
if (t1.is_type(detail::terminal_type::OUTPUT) && t2.is_type(detail::terminal_type::INPUT))
{
if (t2.has_net() && t2.net().isRailNet())
log().fatal(MF_1_INPUT_1_ALREADY_CONNECTED, t2.name());
connect_input_output(t2, t1);
}
else if (t1.is_type(detail::terminal_type::INPUT) && t2.is_type(detail::terminal_type::OUTPUT))
{
if (t1.has_net() && t1.net().isRailNet())
log().fatal(MF_1_INPUT_1_ALREADY_CONNECTED, t1.name());
connect_input_output(t1, t2);
}
else if (t1.is_type(detail::terminal_type::OUTPUT) && t2.is_type(detail::terminal_type::TERMINAL))
{
connect_terminal_output(dynamic_cast<terminal_t &>(t2), t1);
}
else if (t1.is_type(detail::terminal_type::TERMINAL) && t2.is_type(detail::terminal_type::OUTPUT))
{
connect_terminal_output(dynamic_cast<terminal_t &>(t1), t2);
}
else if (t1.is_type(detail::terminal_type::INPUT) && t2.is_type(detail::terminal_type::TERMINAL))
{
connect_terminal_input(dynamic_cast<terminal_t &>(t2), t1);
}
else if (t1.is_type(detail::terminal_type::TERMINAL) && t2.is_type(detail::terminal_type::INPUT))
{
connect_terminal_input(dynamic_cast<terminal_t &>(t1), t2);
}
else if (t1.is_type(detail::terminal_type::TERMINAL) && t2.is_type(detail::terminal_type::TERMINAL))
{
connect_terminals(dynamic_cast<terminal_t &>(t1), dynamic_cast<terminal_t &>(t2));
}
else if (t1.is_type(detail::terminal_type::INPUT) && t2.is_type(detail::terminal_type::INPUT))
{
ret = connect_input_input(t1, t2);
}
else
ret = false;
//netlist().error("Connecting {1} to {2} not supported!\n", t1.name(), t2.name());
return ret;
}
void setup_t::resolve_inputs()
{
log().verbose("Resolving inputs ...");
/* Netlist can directly connect input to input.
* We therefore first park connecting inputs and retry
* after all other terminals were connected.
*/
int tries = NL_MAX_LINK_RESOLVE_LOOPS;
while (m_links.size() > 0 && tries > 0)
{
for (auto li = m_links.begin(); li != m_links.end(); )
{
const pstring t1s = li->first;
const pstring t2s = li->second;
detail::core_terminal_t *t1 = find_terminal(t1s);
detail::core_terminal_t *t2 = find_terminal(t2s);
if (connect(*t1, *t2))
li = m_links.erase(li);
else
li++;
}
tries--;
}
if (tries == 0)
{
for (auto & link : m_links)
log().warning(MF_2_CONNECTING_1_TO_2, link.first, link.second);
log().fatal(MF_0_LINK_TRIES_EXCEEDED);
}
log().verbose("deleting empty nets ...");
// delete empty nets
netlist().m_nets.erase(
std::remove_if(netlist().m_nets.begin(), netlist().m_nets.end(),
[](plib::owned_ptr<detail::net_t> &x)
{
if (x->num_cons() == 0)
{
x->netlist().log().verbose("Deleting net {1} ...", x->name());
return true;
}
else
return false;
}), netlist().m_nets.end());
pstring errstr("");
log().verbose("looking for terminals not connected ...");
for (auto & i : m_terminals)
{
detail::core_terminal_t *term = i.second;
if (!term->has_net() && dynamic_cast< devices::NETLIB_NAME(dummy_input) *>(&term->device()) != nullptr)
log().warning(MW_1_DUMMY_1_WITHOUT_CONNECTIONS, term->name());
else if (!term->has_net())
errstr += plib::pfmt("Found terminal {1} without a net\n")(term->name());
else if (term->net().num_cons() == 0)
log().warning(MW_1_TERMINAL_1_WITHOUT_CONNECTIONS, term->name());
}
//FIXME: error string handling
if (errstr != "")
log().fatal("{1}", errstr);
}
void setup_t::start_devices()
{
pstring env = plib::util::environment("NL_LOGS", "");
if (env != "")
{
log().debug("Creating dynamic logs ...");
std::vector<pstring> loglist(plib::psplit(env, ":"));
for (pstring ll : loglist)
{
pstring name = "log_" + ll;
auto nc = factory().factory_by_name("LOG")->Create(netlist(), name);
register_link(name + ".I", ll);
log().debug(" dynamic link {1}: <{2}>\n",ll, name);
netlist().register_dev(std::move(nc));
}
}
}
plib::plog_base<NL_DEBUG> &setup_t::log()
{
return netlist().log();
}
const plib::plog_base<NL_DEBUG> &setup_t::log() const
{
return netlist().log();
}
// ----------------------------------------------------------------------------------------
// Model
// ----------------------------------------------------------------------------------------
static pstring model_string(detail::model_map_t &map)
{
pstring ret = map["COREMODEL"] + "(";
for (auto & i : map)
ret = ret + i.first + "=" + i.second + " ";
return ret + ")";
}
void setup_t::model_parse(const pstring &model_in, detail::model_map_t &map)
{
pstring model = model_in;
pstring::iterator pos(nullptr);
pstring key;
while (true)
{
pos = model.find("(");
if (pos != model.end()) break;
key = model.ucase();
auto i = m_models.find(key);
if (i == m_models.end())
log().fatal(MF_1_MODEL_NOT_FOUND, model);
model = i->second;
}
pstring xmodel = model.left(pos);
if (xmodel.equals("_"))
map["COREMODEL"] = key;
else
{
auto i = m_models.find(xmodel);
if (i != m_models.end())
model_parse(xmodel, map);
else
log().fatal(MF_1_MODEL_NOT_FOUND, model_in);
}
pstring remainder=model.substr(std::next(pos, 1)).trim();
if (!remainder.endsWith(")"))
log().fatal(MF_1_MODEL_ERROR_1, model);
// FIMXE: Not optimal
remainder = remainder.left(std::next(remainder.begin(), (remainder.len() - 1)));
std::vector<pstring> pairs(plib::psplit(remainder," ", true));
for (pstring &pe : pairs)
{
auto pose = pe.find("=");
if (pose == pe.end())
log().fatal(MF_1_MODEL_ERROR_ON_PAIR_1, model);
map[pe.left(pose).ucase()] = pe.substr(std::next(pose, 1));
}
}
const pstring setup_t::model_value_str(detail::model_map_t &map, const pstring &entity)
{
pstring ret;
if (entity != entity.ucase())
log().fatal(MF_2_MODEL_PARAMETERS_NOT_UPPERCASE_1_2, entity,
model_string(map));
if (map.find(entity) == map.end())
log().fatal(MF_2_ENTITY_1_NOT_FOUND_IN_MODEL_2, entity, model_string(map));
else
ret = map[entity];
return ret;
}
nl_double setup_t::model_value(detail::model_map_t &map, const pstring &entity)
{
pstring tmp = model_value_str(map, entity);
nl_double factor = NL_FCONST(1.0);
auto p = std::next(tmp.begin(), (tmp.len() - 1));
switch (*p)
{
case 'M': factor = 1e6; break;
case 'k': factor = 1e3; break;
case 'm': factor = 1e-3; break;
case 'u': factor = 1e-6; break;
case 'n': factor = 1e-9; break;
case 'p': factor = 1e-12; break;
case 'f': factor = 1e-15; break;
case 'a': factor = 1e-18; break;
default:
if (*p < '0' || *p > '9')
log().fatal(MF_1_UNKNOWN_NUMBER_FACTOR_IN_1, entity);
}
if (factor != NL_FCONST(1.0))
tmp = tmp.left(std::next(tmp.begin(), (tmp.len() - 1)));
return tmp.as_double() * factor;
}
class logic_family_std_proxy_t : public logic_family_desc_t
{
public:
logic_family_std_proxy_t() { }
virtual plib::owned_ptr<devices::nld_base_d_to_a_proxy> create_d_a_proxy(netlist_t &anetlist,
const pstring &name, logic_output_t *proxied) const override;
virtual plib::owned_ptr<devices::nld_base_a_to_d_proxy> create_a_d_proxy(netlist_t &anetlist, const pstring &name, logic_input_t *proxied) const override;
};
plib::owned_ptr<devices::nld_base_d_to_a_proxy> logic_family_std_proxy_t::create_d_a_proxy(netlist_t &anetlist,
const pstring &name, logic_output_t *proxied) const
{
return plib::owned_ptr<devices::nld_base_d_to_a_proxy>::Create<devices::nld_d_to_a_proxy>(anetlist, name, proxied);
}
plib::owned_ptr<devices::nld_base_a_to_d_proxy> logic_family_std_proxy_t::create_a_d_proxy(netlist_t &anetlist, const pstring &name, logic_input_t *proxied) const
{
return plib::owned_ptr<devices::nld_base_a_to_d_proxy>::Create<devices::nld_a_to_d_proxy>(anetlist, name, proxied);
}
const logic_family_desc_t *setup_t::family_from_model(const pstring &model)
{
detail::model_map_t map;
model_parse(model, map);
if (model_value_str(map, "TYPE") == "TTL")
return family_TTL();
if (model_value_str(map, "TYPE") == "CD4XXX")
return family_CD4XXX();
for (auto & e : netlist().m_family_cache)
if (e.first == model)
return e.second.get();
auto ret = plib::make_unique_base<logic_family_desc_t, logic_family_std_proxy_t>();
ret->m_fixed_V = model_value(map, "FV");
ret->m_low_thresh_PCNT = model_value(map, "IVL");
ret->m_high_thresh_PCNT = model_value(map, "IVH");
ret->m_low_VO = model_value(map, "OVL");
ret->m_high_VO = model_value(map, "OVH");
ret->m_R_low = model_value(map, "ORL");
ret->m_R_high = model_value(map, "ORH");
auto retp = ret.get();
netlist().m_family_cache.emplace_back(model, std::move(ret));
return retp;
}
void setup_t::tt_factory_create(tt_desc &desc, const pstring &sourcefile)
{
devices::tt_factory_create(*this, desc, sourcefile);
}
// ----------------------------------------------------------------------------------------
// Sources
// ----------------------------------------------------------------------------------------
void setup_t::include(const pstring &netlist_name)
{
for (auto &source : m_sources)
{
if (source->parse(netlist_name))
return;
}
log().fatal(MF_1_NOT_FOUND_IN_SOURCE_COLLECTION, netlist_name);
}
std::unique_ptr<plib::pistream> setup_t::get_data_stream(const pstring &name)
{
for (auto &source : m_sources)
{
if (source->type() == source_t::DATA)
{
auto strm = source->stream(name);
if (strm)
return strm;
}
}
log().warning(MW_1_DATA_1_NOT_FOUND, name);
return std::unique_ptr<plib::pistream>(nullptr);
}
bool setup_t::parse_stream(plib::putf8_reader &istrm, const pstring &name)
{
plib::pomemstream ostrm;
plib::putf8_writer owrt(ostrm);
plib::ppreprocessor(&m_defines).process(istrm, owrt);
plib::pimemstream istrm2(ostrm);
plib::putf8_reader reader2(istrm2);
return parser_t(reader2, *this).parse(name);
}
void setup_t::register_define(pstring defstr)
{
auto p = defstr.find("=");
if (p != defstr.end())
register_define(defstr.left(p), defstr.substr(std::next(p, 1)));
else
register_define(defstr, "1");
}
// ----------------------------------------------------------------------------------------
// base sources
// ----------------------------------------------------------------------------------------
bool source_t::parse(const pstring &name)
{
if (m_type != SOURCE)
return false;
else
{
auto rstream = stream(name);
plib::putf8_reader reader(*rstream);
return m_setup.parse_stream(reader, name);
}
}
std::unique_ptr<plib::pistream> source_string_t::stream(const pstring &name)
{
return plib::make_unique_base<plib::pistream, plib::pimemstream>(m_str.c_str(), m_str.len());
}
std::unique_ptr<plib::pistream> source_mem_t::stream(const pstring &name)
{
return plib::make_unique_base<plib::pistream, plib::pimemstream>(m_str.c_str(), m_str.len());
}
std::unique_ptr<plib::pistream> source_file_t::stream(const pstring &name)
{
return plib::make_unique_base<plib::pistream, plib::pifilestream>(m_filename);
}
bool source_proc_t::parse(const pstring &name)
{
if (name == m_setup_func_name)
{
m_setup_func(setup());
return true;
}
else
return false;
}
std::unique_ptr<plib::pistream> source_proc_t::stream(const pstring &name)
{
std::unique_ptr<plib::pistream> p(nullptr);
return p;
}
}