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Author SHA1 Message Date
Thomas Harte
a942e1319b Merge pull request #363 from TomHarte/ZonX
Introduces ZonX emulation and corrects a minor ColecoVision AY timing issue.
2018-03-07 16:23:51 -05:00
Thomas Harte
9abc020818 Corrects potential ColecoVision SGM AY timing issues. 2018-03-07 16:16:58 -05:00
Thomas Harte
2dade8d353 Introduces ZonX emulation for the ZX81. 2018-03-07 16:16:29 -05:00
Thomas Harte
dfcc502a88 Merge pull request #360 from TomHarte/SDLJoystick
Introduces keyboard-as-joystick fallback for the SDL target.
2018-03-04 17:28:05 -05:00
Thomas Harte
1c6faaae88 Introduces keyboard-as-joystick fallback for the SDL target. 2018-03-04 17:26:32 -05:00
Thomas Harte
35c8a0dd8c Merge pull request #359 from TomHarte/MentionColecoVision
Adds the ColecoVision to the declared list of machines.
2018-03-03 19:05:05 -05:00
Thomas Harte
38feedaf6a Adds the ColecoVision. 2018-03-03 19:03:54 -05:00
Thomas Harte
0a2f908af4 Merge pull request #358 from TomHarte/TMSPhase
Picks a phase for the TMS empirically.
2018-03-03 13:56:10 -05:00
Thomas Harte
705d53cc21 Picks a phase for the TMS empirically. 2018-03-03 13:53:00 -05:00
Thomas Harte
35b18d58af Merge pull request #357 from TomHarte/SuperGameModule
Adds Super Game Module support for the ColecoVision.
2018-03-03 13:14:48 -05:00
Thomas Harte
3c5a8d9ff3 Adds Super Game Module support for the ColecoVision. 2018-03-03 13:08:33 -05:00
Thomas Harte
7ca02be578 Merge pull request #356 from TomHarte/Multicolour
Implements multicolour mode on the TMS.
2018-03-02 23:10:31 -05:00
Thomas Harte
ea13c7dd32 Implements multicolour mode on the TMS. 2018-03-02 23:08:01 -05:00
Thomas Harte
fdfd72a42c Merge pull request #355 from TomHarte/MegaCart
Adds MegaCart support for the ColecoVision.
2018-03-02 19:21:26 -05:00
Thomas Harte
da97bf95c0 Loosens ColecoVision cartridge size test to allow for slightly broken images. 2018-03-02 19:20:37 -05:00
Thomas Harte
bdfc36427c Implements MegaCart support. 2018-03-02 18:40:01 -05:00
Thomas Harte
74dfe56d2b Expands documentation of NMI setting.
Given that it was previously incorrect, explains logic behind request_status_ and last_request_status_ setting. Also takes the opportunity to ensure that NMI is 'sampled' at the same time as IRQ; whether the next thing should be the NMI routine now occurs one cycle before the end of any instruction. That's an assumption for now. Testing to come.
2018-03-02 11:10:02 -05:00
Thomas Harte
6cce9aa54e Merge pull request #353 from TomHarte/ColecoVision
Adds provisional emulation of the ColecoVision
2018-03-01 22:33:34 -05:00
Thomas Harte
ba68b7247b Adds latest files to SConstruct. 2018-03-01 22:19:50 -05:00
Thomas Harte
b02e4fbbf6 Corrects NMI receipt to be genuinely edge triggered.
Previously a caller that signalled NMI set multiple times would trigger multiple NMIs.
2018-03-01 22:04:56 -05:00
Thomas Harte
59b4c7314d Merge branch 'master' into ColecoVision 2018-03-01 22:01:26 -05:00
Thomas Harte
d328589bd0 Merge pull request #354 from TomHarte/MSXTiming
Corrects a counting error in the MSX.
2018-03-01 22:00:53 -05:00
Thomas Harte
b05d2b26bf Corrects a counting error in the MSX. 2018-03-01 21:59:51 -05:00
Thomas Harte
86239469e7 Allows SN76489 consumers to apply an additional divider that reduces computation. 2018-03-01 18:51:05 -05:00
Thomas Harte
7890506b16 Gives the SN76489 its proper dividers and personalities. 2018-02-28 22:36:03 -05:00
Thomas Harte
83f73c3f02 Installs additional safeguards against unsafe deconstruction. 2018-02-28 22:15:22 -05:00
Thomas Harte
87760297fc Fixes underpumping of SN76489.
Audio works now. Though I still need properly to confirm who owns dividers in practice. I think probably all division should be within the SN.
2018-02-27 22:59:29 -05:00
Thomas Harte
5b854d51e7 Corrects out-of-bounds access. 2018-02-27 22:45:45 -05:00
Thomas Harte
d4df101ab6 Makes a first attempt at implementing the SN76489. 2018-02-27 22:25:12 -05:00
Thomas Harte
0ad2676640 Adds a class for the SN76489 and wires it into the ColecoVision. 2018-02-26 22:04:34 -05:00
Thomas Harte
a074ee2071 Possibly fixes ColecoVision input mapping.
Also provides symbolic input from the Mac.
2018-02-25 22:47:47 -05:00
Thomas Harte
204d5cc964 Extends JoystickMachine protocol to cover ColecoVision use case.
Also thereby implements input on the ColecoVision, in theory at least. No input is being fed though, so...
2018-02-25 19:08:50 -05:00
Thomas Harte
23d15a4d6c The ColecoVision now accepts and loads cartridges. 2018-02-24 18:26:44 -05:00
Thomas Harte
23c47e21de Proceeds the ColecoVision to booting. 2018-02-24 18:14:38 -05:00
Thomas Harte
5530b96446 Wired up a class and analyser for a ColecoVision. 2018-02-23 22:47:15 -05:00
Thomas Harte
99d28a172b Merge pull request #352 from TomHarte/TZXCompletion
Makes an attempt at implementing all missing TZX 1.20 blocks.
2018-02-22 21:37:46 -05:00
Thomas Harte
d83178f29d Makes an attempt at implementing all missing TZX 1.20 blocks.
Towards that aim, simplifies CSW handling so that even regular RLE compression uses a static grab of file contents.
2018-02-22 21:28:12 -05:00
Thomas Harte
d9d5ffdaa2 Merge pull request #351 from TomHarte/TMSFlip
Optimises the inner TMS loops slightly.
2018-02-21 21:33:04 -05:00
Thomas Harte
cabad6fc05 Optimises the inner TMS loops slightly. 2018-02-21 21:29:17 -05:00
Thomas Harte
a4dc9c0403 Merge pull request #350 from TomHarte/MinorMSXOptimisations
Introduces modest MSX optimisations
2018-02-19 20:53:20 -05:00
Thomas Harte
270723ae72 Forces the MSX's perform_machine_cycle into the Z80. 2018-02-19 19:54:42 -05:00
Thomas Harte
b215cf83d5 Eliminates implicit update queue flush, as unnecessary. 2018-02-19 19:54:18 -05:00
Thomas Harte
f237dcf904 Avoids deadlock when one bestEffortUpdate action implies another. 2018-02-19 18:44:12 -05:00
Thomas Harte
fc81bfa59b Eliminates tape player call when tape is not playing. 2018-02-19 18:36:31 -05:00
Thomas Harte
832ac173ae Merge pull request #349 from TomHarte/CheaperTapeChecks
Reduces cost of checking for fast-tape usage
2018-02-19 16:58:03 -05:00
Thomas Harte
3673cfe9be Pulls method call for tape fast loading checks out of inner loop for the Vic, Electron and ZX80/81. 2018-02-19 16:57:24 -05:00
Thomas Harte
6aaef97158 Breaks Mac machine shutdown deadlock. 2018-02-19 16:48:03 -05:00
Thomas Harte
b0ab617393 Simplifies inner loop test for MSX fast loading. 2018-02-19 16:24:47 -05:00
Thomas Harte
6780b0bf11 Corrects error preventing fast loading preference from making it to machines on the Mac. 2018-02-19 16:24:28 -05:00
Thomas Harte
9c0a440c38 Merge pull request #347 from TomHarte/DynamicAnalysis
Introduces dynamic selection of MSX MegaROM type
2018-02-19 16:10:46 -05:00
Thomas Harte
2439f5aee5 Corrects some whitespace errors. 2018-02-19 16:06:46 -05:00
Thomas Harte
8265f289bd Improves documentation within the new parts. 2018-02-19 16:03:17 -05:00
Thomas Harte
9728bea0a7 Updates scons file and corrects missing headers; backports to C++11. 2018-02-19 05:13:41 -08:00
Thomas Harte
fc9e84c72e Eliminates unsafe optimisation.
Also likely to be unhelpful as and when multiple machines are in play.
2018-02-18 22:09:27 -05:00
Thomas Harte
7d75e864b1 Ensures thread safety of usages of bestEffortLock. 2018-02-18 22:09:03 -05:00
Thomas Harte
a005dabbe3 Corrects some minor outstanding data races. 2018-02-18 16:37:07 -05:00
Thomas Harte
c8a4432c63 Makes an attempt to transfer audio outputs during dynamic analysis. 2018-02-18 15:23:15 -05:00
Thomas Harte
7b420d56e3 Removed state mirroring in the machine-specific Mac UI classes. 2018-02-14 21:46:50 -05:00
Thomas Harte
ddf1bf3cbf Reintroduces options selection for the Mac.
For everything except the Vic-20, anyway. That has a somewhat outdated notion of what an options panel should be, corresponding to the work yet to do on its analyser.
2018-02-12 21:46:21 -05:00
Thomas Harte
7ea4ca00dc Ensures perform_parallel doesn't lock up if all machines complete prior to reaching condition.wait. 2018-02-11 21:06:51 -05:00
Thomas Harte
6b8c223804 Adds an extra termination condition for the multimachine. 2018-02-11 21:05:59 -05:00
Thomas Harte
23105956d6 Fixes spurious unrecognised miss detection for the ASCII mappers. 2018-02-11 20:51:39 -05:00
Thomas Harte
d751b7e2cb Marginally reformats for current style. 2018-02-11 20:32:59 -05:00
Thomas Harte
f02989649c Corrects effect of pc_is_outside_bios. 2018-02-11 20:32:45 -05:00
Thomas Harte
dcf313a833 Changes equivocal semantics. 2018-02-11 20:32:21 -05:00
Thomas Harte
9960121b08 Introduces an exit condition for the multi machine. 2018-02-11 20:24:08 -05:00
Thomas Harte
8eea55b51c Simplifies perform_parallel slightly. 2018-02-10 23:39:30 -05:00
Thomas Harte
e1cab52c84 Ensures thread safety of access to machines array. 2018-02-10 19:38:26 -05:00
Thomas Harte
eb39617ad0 Allows cartridges to filter based on the actor talking to them; corrects outstanding_machines access error. 2018-02-10 17:11:16 -05:00
Thomas Harte
43b682a5af Adds multiple target versions of all the DynamicMachine-vended types. 2018-02-09 16:31:05 -05:00
Thomas Harte
043fd5d404 Merge branch 'DynamicAnalysis' of github.com:TomHarte/CLK into DynamicAnalysis 2018-02-09 09:12:05 -05:00
Thomas Harte
d63a95983d Adds a couple of hard-stop conditions to the MSX, and respect for hard stops. 2018-02-09 09:10:56 -05:00
Thomas Harte
4cf258f952 Parallelises MultiMachine running, and ensures errors propagate. 2018-02-08 20:33:57 -05:00
Thomas Harte
4e720d57b2 With debugging hooks still on display, makes first attempt at dynamic analysis. 2018-02-01 07:53:52 -05:00
Thomas Harte
c12aaea747 Attempts to get as far as running the MultiMachine.
In doing so, fixes the long-standing bug that machines that output audio but don't have a listener produce a divide by zero.
2018-01-30 22:23:06 -05:00
Thomas Harte
ca48497e87 Pulls DynamicMachine out of MachineForTarget and adds MultiConfigurationTarget as a first multiplexer. 2018-01-29 21:49:49 -05:00
Thomas Harte
d493ea4bca Introduces a multimachine to handle multi-target static analyser outputs.
Non-functional as of yet.
2018-01-28 22:22:21 -05:00
Thomas Harte
e025674eb2 The MSX analyser is now smart enough not to be definitive when it's uncertain.
The cartridge type has also migrated to being a property of the cartridge, prefiguring my intention to discard the static analyser union.
2018-01-25 22:16:46 -05:00
Thomas Harte
f2519f4fd7 Decided to focus on 'confidence' over 'probability'.
Besides anything else, it individualises the measure. E.g. two targets can each have a confidence of 0.8 without each giving the wrong answer about probability.
2018-01-25 19:02:16 -05:00
Thomas Harte
db914d8c56 Removes redundant second configuration. 2018-01-25 18:50:23 -05:00
Thomas Harte
66faed4008 Gives MachineForTargets complete responsibility for initial machine state. 2018-01-25 18:28:19 -05:00
Thomas Harte
11abc99ef8 Introduces the extra level of indirection necessary to make Analyser::Static::Target polymorphic. 2018-01-24 22:35:54 -05:00
Thomas Harte
21efb32b6f Integrates the static and nascent dynamic analyser namespaces. 2018-01-24 21:48:44 -05:00
Thomas Harte
622a04aec8 Starts stripping the Mac port of its special machine knowledge.
Partly to force myself into moving that stuff into the cross-platform area, but mainly so that dynamic analysis can work equally from day one.
2018-01-24 20:14:15 -05:00
Thomas Harte
d360b2c62d Standardises the static analyser on std::vector and slightly widens passageway to a machine.
The SDL target would now be fooled by a hypothetical multi-target, the Mac not yet.
2018-01-23 22:18:16 -05:00
Thomas Harte
6a112edc18 Corrects 16kb ASCII mapper.
Also increases hit position acceptance for the 8kb ASCII.
2018-01-22 22:13:16 -05:00
Thomas Harte
8fb4409ebb Adds hasty attempt at dynamic analysis to the MSX ROM handlers.
Logging for now, for further experimentation.
2018-01-22 21:50:56 -05:00
Thomas Harte
d213341d9c Introduces the counters upon which I expect dynamic analysis to rest. 2018-01-22 21:39:23 -05:00
Thomas Harte
c2f1306d85 Updates copyright year. 2018-01-18 21:11:30 -05:00
Thomas Harte
2143ea6f12 Merge pull request #344 from TomHarte/MacICON
Introduces an icon for the Mac.
2018-01-18 18:08:44 -08:00
Thomas Harte
edb30b3c6c Introduces an icon for the Mac.
About which I have yet to decide my full feelings.
2018-01-18 21:01:30 -05:00
Thomas Harte
234e4f6f66 Merge pull request #343 from TomHarte/MSXROMs
Allows 8kb and not-quite-multiple-of-8kb MSX ROMs
2018-01-18 16:57:05 -08:00
Thomas Harte
ce2d3c6e82 Resolves implicit conversion warning. 2018-01-17 22:02:16 -05:00
Thomas Harte
46c76b9c07 Switches to using the boilerplate public.item for all macOS UTIs. 2018-01-17 22:01:38 -05:00
Thomas Harte
583c3cfe7d Allows the MSX to load ROMs that aren't quite multiples of 8kb. 2018-01-16 22:27:41 -05:00
Thomas Harte
e13312dcc5 Removed stray new line. 2018-01-16 21:46:31 -05:00
Thomas Harte
d9e49c0d5f Merge pull request #340 from TomHarte/MSXDocs
Adds the MSX to README.md.
2018-01-16 16:47:57 -08:00
Thomas Harte
8a370cc1ac Adds the MSX to README.md. 2018-01-16 19:46:29 -05:00
Thomas Harte
cdae0fa593 Merge pull request #339 from TomHarte/AcornROMs
Allows the Electron to load 8kb ROMs.
2018-01-15 18:28:19 -08:00
Thomas Harte
765c0d4ff8 Allows the Electron to load 8kb ROMs. 2018-01-15 21:27:45 -05:00
171 changed files with 4236 additions and 1643 deletions

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//
// ConfidenceCounter.cpp
// Clock Signal
//
// Created by Thomas Harte on 21/01/2018.
// Copyright © 2018 Thomas Harte. All rights reserved.
//
#include "ConfidenceCounter.hpp"
using namespace Analyser::Dynamic;
float ConfidenceCounter::get_confidence() {
return static_cast<float>(hits_) / static_cast<float>(hits_ + misses_);
}
void ConfidenceCounter::add_hit() {
hits_++;
}
void ConfidenceCounter::add_miss() {
misses_++;
}
void ConfidenceCounter::add_equivocal() {
if(hits_ > misses_) {
hits_++;
misses_++;
}
}

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//
// ConfidenceCounter.hpp
// Clock Signal
//
// Created by Thomas Harte on 21/01/2018.
// Copyright © 2018 Thomas Harte. All rights reserved.
//
#ifndef ConfidenceCounter_hpp
#define ConfidenceCounter_hpp
#include "ConfidenceSource.hpp"
namespace Analyser {
namespace Dynamic {
/*!
Provides a confidence source that calculates its probability by virtual of a history of events.
The initial value of the confidence counter is 0.5.
*/
class ConfidenceCounter: public ConfidenceSource {
public:
/*! @returns The computed probability, based on the history of events. */
float get_confidence() override;
/*! Records an event that implies this is the appropriate class — pushes probability up towards 1.0. */
void add_hit();
/*! Records an event that implies this is not the appropriate class — pushes probability down towards 0.0. */
void add_miss();
/*!
Records an event that could be correct but isn't necessarily so; which can push probability
down towards 0.5, but will never push it upwards.
*/
void add_equivocal();
private:
int hits_ = 1;
int misses_ = 1;
};
}
}
#endif /* ConfidenceCounter_hpp */

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//
// ConfidenceSource.hpp
// Clock Signal
//
// Created by Thomas Harte on 21/01/2018.
// Copyright © 2018 Thomas Harte. All rights reserved.
//
#ifndef ConfidenceSource_hpp
#define ConfidenceSource_hpp
namespace Analyser {
namespace Dynamic {
/*!
Provides an abstract interface through which objects can declare the probability
that they are the proper target for their input; e.g. if an Acorn Electron is asked
to run an Atari 2600 program then its confidence should shrink towards 0.0; if the
program is handed to an Atari 2600 then its confidence should grow towards 1.0.
*/
struct ConfidenceSource {
virtual float get_confidence() = 0;
};
}
}
#endif /* ConfidenceSource_hpp */

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//
// ConfidenceSummary.cpp
// Clock Signal
//
// Created by Thomas Harte on 21/01/2018.
// Copyright © 2018 Thomas Harte. All rights reserved.
//
#include "ConfidenceSummary.hpp"
#include <cassert>
#include <numeric>
using namespace Analyser::Dynamic;
ConfidenceSummary::ConfidenceSummary(const std::vector<ConfidenceSource *> &sources, const std::vector<float> &weights) :
sources_(sources), weights_(weights) {
assert(weights.size() == sources.size());
weight_sum_ = std::accumulate(weights.begin(), weights.end(), 0.0f);
}
float ConfidenceSummary::get_confidence() {
float result = 0.0f;
for(std::size_t index = 0; index < sources_.size(); ++index) {
result += sources_[index]->get_confidence() * weights_[index];
}
return result / weight_sum_;
}

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//
// ConfidenceSummary.hpp
// Clock Signal
//
// Created by Thomas Harte on 21/01/2018.
// Copyright © 2018 Thomas Harte. All rights reserved.
//
#ifndef ConfidenceSummary_hpp
#define ConfidenceSummary_hpp
#include "ConfidenceSource.hpp"
#include <vector>
namespace Analyser {
namespace Dynamic {
/*!
Summaries a collection of confidence sources by calculating their weighted sum.
*/
class ConfidenceSummary: public ConfidenceSource {
public:
/*!
Instantiates a summary that will produce the weighted sum of
@c sources, each using the corresponding entry of @c weights.
Requires that @c sources and @c weights are of the same length.
*/
ConfidenceSummary(
const std::vector<ConfidenceSource *> &sources,
const std::vector<float> &weights);
/*! @returns The weighted sum of all sources. */
float get_confidence() override;
private:
std::vector<ConfidenceSource *> sources_;
std::vector<float> weights_;
float weight_sum_;
};
}
}
#endif /* ConfidenceSummary_hpp */

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//
// MultiCRTMachine.cpp
// Clock Signal
//
// Created by Thomas Harte on 29/01/2018.
// Copyright © 2018 Thomas Harte. All rights reserved.
//
#include "MultiCRTMachine.hpp"
#include <condition_variable>
#include <mutex>
using namespace Analyser::Dynamic;
MultiCRTMachine::MultiCRTMachine(const std::vector<std::unique_ptr<::Machine::DynamicMachine>> &machines, std::mutex &machines_mutex) :
machines_(machines), machines_mutex_(machines_mutex), queues_(machines.size()) {
speaker_ = MultiSpeaker::create(machines);
}
void MultiCRTMachine::perform_parallel(const std::function<void(::CRTMachine::Machine *)> &function) {
// Apply a blunt force parallelisation of the machines; each run_for is dispatched
// to a separate queue and this queue will block until all are done.
volatile std::size_t outstanding_machines;
std::condition_variable condition;
std::mutex mutex;
{
std::lock_guard<std::mutex> machines_lock(machines_mutex_);
std::lock_guard<std::mutex> lock(mutex);
outstanding_machines = machines_.size();
for(std::size_t index = 0; index < machines_.size(); ++index) {
CRTMachine::Machine *crt_machine = machines_[index]->crt_machine();
queues_[index].enqueue([&mutex, &condition, crt_machine, function, &outstanding_machines]() {
if(crt_machine) function(crt_machine);
std::lock_guard<std::mutex> lock(mutex);
outstanding_machines--;
condition.notify_all();
});
}
}
std::unique_lock<std::mutex> lock(mutex);
condition.wait(lock, [&outstanding_machines] { return !outstanding_machines; });
}
void MultiCRTMachine::perform_serial(const std::function<void (::CRTMachine::Machine *)> &function) {
std::lock_guard<std::mutex> machines_lock(machines_mutex_);
for(const auto &machine: machines_) {
CRTMachine::Machine *crt_machine = machine->crt_machine();
if(crt_machine) function(crt_machine);
}
}
void MultiCRTMachine::setup_output(float aspect_ratio) {
perform_serial([=](::CRTMachine::Machine *machine) {
machine->setup_output(aspect_ratio);
});
}
void MultiCRTMachine::close_output() {
perform_serial([=](::CRTMachine::Machine *machine) {
machine->close_output();
});
}
Outputs::CRT::CRT *MultiCRTMachine::get_crt() {
std::lock_guard<std::mutex> machines_lock(machines_mutex_);
CRTMachine::Machine *crt_machine = machines_.front()->crt_machine();
return crt_machine ? crt_machine->get_crt() : nullptr;
}
Outputs::Speaker::Speaker *MultiCRTMachine::get_speaker() {
return speaker_;
}
void MultiCRTMachine::run_for(const Cycles cycles) {
perform_parallel([=](::CRTMachine::Machine *machine) {
if(machine->get_confidence() >= 0.01f) machine->run_for(cycles);
});
if(delegate_) delegate_->multi_crt_did_run_machines();
}
double MultiCRTMachine::get_clock_rate() {
// TODO: something smarter than this? Not all clock rates will necessarily be the same.
std::lock_guard<std::mutex> machines_lock(machines_mutex_);
CRTMachine::Machine *crt_machine = machines_.front()->crt_machine();
return crt_machine ? crt_machine->get_clock_rate() : 0.0;
}
bool MultiCRTMachine::get_clock_is_unlimited() {
std::lock_guard<std::mutex> machines_lock(machines_mutex_);
CRTMachine::Machine *crt_machine = machines_.front()->crt_machine();
return crt_machine ? crt_machine->get_clock_is_unlimited() : false;
}
void MultiCRTMachine::did_change_machine_order() {
if(speaker_) {
speaker_->set_new_front_machine(machines_.front().get());
}
}
void MultiCRTMachine::set_delegate(::CRTMachine::Machine::Delegate *delegate) {
// TODO:
}
void MultiCRTMachine::machine_did_change_clock_rate(Machine *machine) {
// TODO: consider passing along.
}
void MultiCRTMachine::machine_did_change_clock_is_unlimited(Machine *machine) {
// TODO: consider passing along.
}

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//
// MultiCRTMachine.hpp
// Clock Signal
//
// Created by Thomas Harte on 29/01/2018.
// Copyright © 2018 Thomas Harte. All rights reserved.
//
#ifndef MultiCRTMachine_hpp
#define MultiCRTMachine_hpp
#include "../../../../Concurrency/AsyncTaskQueue.hpp"
#include "../../../../Machines/CRTMachine.hpp"
#include "../../../../Machines/DynamicMachine.hpp"
#include "MultiSpeaker.hpp"
#include <memory>
#include <mutex>
#include <vector>
namespace Analyser {
namespace Dynamic {
/*!
Provides a class that multiplexes the CRT machine interface to multiple machines.
Keeps a reference to the original vector of machines; will access it only after
acquiring a supplied mutex. The owner should also call did_change_machine_order()
if the order of machines changes.
*/
class MultiCRTMachine: public CRTMachine::Machine, public CRTMachine::Machine::Delegate {
public:
MultiCRTMachine(const std::vector<std::unique_ptr<::Machine::DynamicMachine>> &machines, std::mutex &machines_mutex);
/*!
Informs the MultiCRTMachine that the order of machines has changed; the MultiCRTMachine
uses this as an opportunity to synthesis any CRTMachine::Machine::Delegate messages that
are necessary to bridge the gap between one machine and the next.
*/
void did_change_machine_order();
/*!
Provides a mechanism by which a delegate can be informed each time a call to run_for has
been received.
*/
struct Delegate {
virtual void multi_crt_did_run_machines() = 0;
};
/// Sets @c delegate as the receiver of delegate messages.
void set_delegate(Delegate *delegate) {
delegate_ = delegate;
}
// Below is the standard CRTMachine::Machine interface; see there for documentation.
void setup_output(float aspect_ratio) override;
void close_output() override;
Outputs::CRT::CRT *get_crt() override;
Outputs::Speaker::Speaker *get_speaker() override;
void run_for(const Cycles cycles) override;
double get_clock_rate() override;
bool get_clock_is_unlimited() override;
void set_delegate(::CRTMachine::Machine::Delegate *delegate) override;
private:
// CRTMachine::Machine::Delegate
void machine_did_change_clock_rate(Machine *machine) override;
void machine_did_change_clock_is_unlimited(Machine *machine) override;
const std::vector<std::unique_ptr<::Machine::DynamicMachine>> &machines_;
std::mutex &machines_mutex_;
std::vector<Concurrency::AsyncTaskQueue> queues_;
MultiSpeaker *speaker_ = nullptr;
Delegate *delegate_ = nullptr;
/*!
Performs a parallel for operation across all machines, performing the supplied
function on each and returning only once all applications have completed.
No guarantees are extended as to which thread operations will occur on.
*/
void perform_parallel(const std::function<void(::CRTMachine::Machine *)> &);
/*!
Performs a serial for operation across all machines, performing the supplied
function on each on the calling thread.
*/
void perform_serial(const std::function<void(::CRTMachine::Machine *)> &);
};
}
}
#endif /* MultiCRTMachine_hpp */

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@@ -0,0 +1,64 @@
//
// MultiConfigurable.cpp
// Clock Signal
//
// Created by Thomas Harte on 09/02/2018.
// Copyright © 2018 Thomas Harte. All rights reserved.
//
#include "MultiConfigurable.hpp"
#include <algorithm>
using namespace Analyser::Dynamic;
MultiConfigurable::MultiConfigurable(const std::vector<std::unique_ptr<::Machine::DynamicMachine>> &machines) {
for(const auto &machine: machines) {
Configurable::Device *device = machine->configurable_device();
if(device) devices_.push_back(device);
}
}
std::vector<std::unique_ptr<Configurable::Option>> MultiConfigurable::get_options() {
std::vector<std::unique_ptr<Configurable::Option>> options;
// Produce the list of unique options.
for(const auto &device : devices_) {
std::vector<std::unique_ptr<Configurable::Option>> device_options = device->get_options();
for(auto &option : device_options) {
if(std::find(options.begin(), options.end(), option) == options.end()) {
options.push_back(std::move(option));
}
}
}
return options;
}
void MultiConfigurable::set_selections(const Configurable::SelectionSet &selection_by_option) {
for(const auto &device : devices_) {
device->set_selections(selection_by_option);
}
}
Configurable::SelectionSet MultiConfigurable::get_accurate_selections() {
Configurable::SelectionSet set;
for(const auto &device : devices_) {
Configurable::SelectionSet device_set = device->get_accurate_selections();
for(auto &selection : device_set) {
set.insert(std::move(selection));
}
}
return set;
}
Configurable::SelectionSet MultiConfigurable::get_user_friendly_selections() {
Configurable::SelectionSet set;
for(const auto &device : devices_) {
Configurable::SelectionSet device_set = device->get_user_friendly_selections();
for(auto &selection : device_set) {
set.insert(std::move(selection));
}
}
return set;
}

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@@ -0,0 +1,43 @@
//
// MultiConfigurable.hpp
// Clock Signal
//
// Created by Thomas Harte on 09/02/2018.
// Copyright © 2018 Thomas Harte. All rights reserved.
//
#ifndef MultiConfigurable_hpp
#define MultiConfigurable_hpp
#include "../../../../Machines/DynamicMachine.hpp"
#include <memory>
#include <vector>
namespace Analyser {
namespace Dynamic {
/*!
Provides a class that multiplexes the configurable interface to multiple machines.
Makes a static internal copy of the list of machines; makes no guarantees about the
order of delivered messages.
*/
class MultiConfigurable: public Configurable::Device {
public:
MultiConfigurable(const std::vector<std::unique_ptr<::Machine::DynamicMachine>> &machines);
// Below is the standard Configurable::Device interface; see there for documentation.
std::vector<std::unique_ptr<Configurable::Option>> get_options() override;
void set_selections(const Configurable::SelectionSet &selection_by_option) override;
Configurable::SelectionSet get_accurate_selections() override;
Configurable::SelectionSet get_user_friendly_selections() override;
private:
std::vector<Configurable::Device *> devices_;
};
}
}
#endif /* MultiConfigurable_hpp */

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@@ -0,0 +1,29 @@
//
// MultiConfigurationTarget.cpp
// Clock Signal
//
// Created by Thomas Harte on 29/01/2018.
// Copyright © 2018 Thomas Harte. All rights reserved.
//
#include "MultiConfigurationTarget.hpp"
using namespace Analyser::Dynamic;
MultiConfigurationTarget::MultiConfigurationTarget(const std::vector<std::unique_ptr<::Machine::DynamicMachine>> &machines) {
for(const auto &machine: machines) {
ConfigurationTarget::Machine *configuration_target = machine->configuration_target();
if(configuration_target) targets_.push_back(configuration_target);
}
}
void MultiConfigurationTarget::configure_as_target(const Analyser::Static::Target &target) {
}
bool MultiConfigurationTarget::insert_media(const Analyser::Static::Media &media) {
bool inserted = false;
for(const auto &target : targets_) {
inserted |= target->insert_media(media);
}
return inserted;
}

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@@ -0,0 +1,42 @@
//
// MultiConfigurationTarget.hpp
// Clock Signal
//
// Created by Thomas Harte on 29/01/2018.
// Copyright © 2018 Thomas Harte. All rights reserved.
//
#ifndef MultiConfigurationTarget_hpp
#define MultiConfigurationTarget_hpp
#include "../../../../Machines/ConfigurationTarget.hpp"
#include "../../../../Machines/DynamicMachine.hpp"
#include <memory>
#include <vector>
namespace Analyser {
namespace Dynamic {
/*!
Provides a class that multiplexes the configuration target interface to multiple machines.
Makes a static internal copy of the list of machines; makes no guarantees about the
order of delivered messages.
*/
struct MultiConfigurationTarget: public ConfigurationTarget::Machine {
public:
MultiConfigurationTarget(const std::vector<std::unique_ptr<::Machine::DynamicMachine>> &machines);
// Below is the standard ConfigurationTarget::Machine interface; see there for documentation.
void configure_as_target(const Analyser::Static::Target &target) override;
bool insert_media(const Analyser::Static::Media &media) override;
private:
std::vector<ConfigurationTarget::Machine *> targets_;
};
}
}
#endif /* MultiConfigurationTarget_hpp */

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@@ -0,0 +1,22 @@
//
// MultiJoystickMachine.cpp
// Clock Signal
//
// Created by Thomas Harte on 09/02/2018.
// Copyright © 2018 Thomas Harte. All rights reserved.
//
#include "MultiJoystickMachine.hpp"
using namespace Analyser::Dynamic;
MultiJoystickMachine::MultiJoystickMachine(const std::vector<std::unique_ptr<::Machine::DynamicMachine>> &machines) {
for(const auto &machine: machines) {
JoystickMachine::Machine *joystick_machine = machine->joystick_machine();
if(joystick_machine) machines_.push_back(joystick_machine);
}
}
std::vector<std::unique_ptr<Inputs::Joystick>> &MultiJoystickMachine::get_joysticks() {
return joysticks_;
}

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@@ -0,0 +1,41 @@
//
// MultiJoystickMachine.hpp
// Clock Signal
//
// Created by Thomas Harte on 09/02/2018.
// Copyright © 2018 Thomas Harte. All rights reserved.
//
#ifndef MultiJoystickMachine_hpp
#define MultiJoystickMachine_hpp
#include "../../../../Machines/DynamicMachine.hpp"
#include <memory>
#include <vector>
namespace Analyser {
namespace Dynamic {
/*!
Provides a class that multiplexes the joystick machine interface to multiple machines.
Makes a static internal copy of the list of machines; makes no guarantees about the
order of delivered messages.
*/
class MultiJoystickMachine: public JoystickMachine::Machine {
public:
MultiJoystickMachine(const std::vector<std::unique_ptr<::Machine::DynamicMachine>> &machines);
// Below is the standard JoystickMachine::Machine interface; see there for documentation.
std::vector<std::unique_ptr<Inputs::Joystick>> &get_joysticks() override;
private:
std::vector<JoystickMachine::Machine *> machines_;
std::vector<std::unique_ptr<Inputs::Joystick>> joysticks_;
};
}
}
#endif /* MultiJoystickMachine_hpp */

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@@ -0,0 +1,43 @@
//
// MultiKeyboardMachine.cpp
// Clock Signal
//
// Created by Thomas Harte on 09/02/2018.
// Copyright © 2018 Thomas Harte. All rights reserved.
//
#include "MultiKeyboardMachine.hpp"
using namespace Analyser::Dynamic;
MultiKeyboardMachine::MultiKeyboardMachine(const std::vector<std::unique_ptr<::Machine::DynamicMachine>> &machines) {
for(const auto &machine: machines) {
KeyboardMachine::Machine *keyboard_machine = machine->keyboard_machine();
if(keyboard_machine) machines_.push_back(keyboard_machine);
}
}
void MultiKeyboardMachine::clear_all_keys() {
for(const auto &machine: machines_) {
machine->clear_all_keys();
}
}
void MultiKeyboardMachine::set_key_state(uint16_t key, bool is_pressed) {
for(const auto &machine: machines_) {
machine->set_key_state(key, is_pressed);
}
}
void MultiKeyboardMachine::type_string(const std::string &string) {
for(const auto &machine: machines_) {
machine->type_string(string);
}
}
void MultiKeyboardMachine::keyboard_did_change_key(Inputs::Keyboard *keyboard, Inputs::Keyboard::Key key, bool is_pressed) {
for(const auto &machine: machines_) {
uint16_t mapped_key = machine->get_keyboard_mapper()->mapped_key_for_key(key);
if(mapped_key != KeyNotMapped) machine->set_key_state(mapped_key, is_pressed);
}
}

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@@ -0,0 +1,44 @@
//
// MultiKeyboardMachine.hpp
// Clock Signal
//
// Created by Thomas Harte on 09/02/2018.
// Copyright © 2018 Thomas Harte. All rights reserved.
//
#ifndef MultiKeyboardMachine_hpp
#define MultiKeyboardMachine_hpp
#include "../../../../Machines/DynamicMachine.hpp"
#include "../../../../Machines/KeyboardMachine.hpp"
#include <memory>
#include <vector>
namespace Analyser {
namespace Dynamic {
/*!
Provides a class that multiplexes the keyboard machine interface to multiple machines.
Makes a static internal copy of the list of machines; makes no guarantees about the
order of delivered messages.
*/
class MultiKeyboardMachine: public KeyboardMachine::Machine {
public:
MultiKeyboardMachine(const std::vector<std::unique_ptr<::Machine::DynamicMachine>> &machines);
// Below is the standard KeyboardMachine::Machine interface; see there for documentation.
void clear_all_keys() override;
void set_key_state(uint16_t key, bool is_pressed) override;
void type_string(const std::string &) override;
void keyboard_did_change_key(Inputs::Keyboard *keyboard, Inputs::Keyboard::Key key, bool is_pressed) override;
private:
std::vector<::KeyboardMachine::Machine *> machines_;
};
}
}
#endif /* MultiKeyboardMachine_hpp */

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@@ -0,0 +1,60 @@
//
// MultiSpeaker.cpp
// Clock Signal
//
// Created by Thomas Harte on 18/02/2018.
// Copyright © 2018 Thomas Harte. All rights reserved.
//
#include "MultiSpeaker.hpp"
using namespace Analyser::Dynamic;
MultiSpeaker *MultiSpeaker::create(const std::vector<std::unique_ptr<::Machine::DynamicMachine>> &machines) {
std::vector<Outputs::Speaker::Speaker *> speakers;
for(const auto &machine: machines) {
Outputs::Speaker::Speaker *speaker = machine->crt_machine()->get_speaker();
if(speaker) speakers.push_back(speaker);
}
if(speakers.empty()) return nullptr;
return new MultiSpeaker(speakers);
}
MultiSpeaker::MultiSpeaker(const std::vector<Outputs::Speaker::Speaker *> &speakers) :
speakers_(speakers), front_speaker_(speakers.front()) {
for(const auto &speaker: speakers_) {
speaker->set_delegate(this);
}
}
float MultiSpeaker::get_ideal_clock_rate_in_range(float minimum, float maximum) {
float ideal = 0.0f;
for(const auto &speaker: speakers_) {
ideal += speaker->get_ideal_clock_rate_in_range(minimum, maximum);
}
return ideal / static_cast<float>(speakers_.size());
}
void MultiSpeaker::set_output_rate(float cycles_per_second, int buffer_size) {
for(const auto &speaker: speakers_) {
speaker->set_output_rate(cycles_per_second, buffer_size);
}
}
void MultiSpeaker::set_delegate(Outputs::Speaker::Speaker::Delegate *delegate) {
delegate_ = delegate;
}
void MultiSpeaker::speaker_did_complete_samples(Speaker *speaker, const std::vector<int16_t> &buffer) {
std::lock_guard<std::mutex> lock_guard(front_speaker_mutex_);
if(delegate_ && speaker == front_speaker_) {
delegate_->speaker_did_complete_samples(this, buffer);
}
}
void MultiSpeaker::set_new_front_machine(::Machine::DynamicMachine *machine) {
std::lock_guard<std::mutex> lock_guard(front_speaker_mutex_);
front_speaker_ = machine->crt_machine()->get_speaker();
}

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@@ -0,0 +1,58 @@
//
// MultiSpeaker.hpp
// Clock Signal
//
// Created by Thomas Harte on 18/02/2018.
// Copyright © 2018 Thomas Harte. All rights reserved.
//
#ifndef MultiSpeaker_hpp
#define MultiSpeaker_hpp
#include "../../../../Machines/DynamicMachine.hpp"
#include "../../../../Outputs/Speaker/Speaker.hpp"
#include <memory>
#include <mutex>
#include <vector>
namespace Analyser {
namespace Dynamic {
/*!
Provides a class that multiplexes calls to and from Outputs::Speaker::Speaker in order
transparently to connect a single caller to multiple destinations.
Makes a static internal copy of the list of machines; expects the owner to keep it
abreast of the current frontmost machine.
*/
class MultiSpeaker: public Outputs::Speaker::Speaker, Outputs::Speaker::Speaker::Delegate {
public:
/*!
Provides a construction mechanism that may return nullptr, in the case that all included
machines return nullptr as their speaker.
*/
static MultiSpeaker *create(const std::vector<std::unique_ptr<::Machine::DynamicMachine>> &machines);
/// This class requires the caller to nominate changes in the frontmost machine.
void set_new_front_machine(::Machine::DynamicMachine *machine);
// Below is the standard Outputs::Speaker::Speaker interface; see there for documentation.
float get_ideal_clock_rate_in_range(float minimum, float maximum);
void set_output_rate(float cycles_per_second, int buffer_size);
void set_delegate(Outputs::Speaker::Speaker::Delegate *delegate);
private:
void speaker_did_complete_samples(Speaker *speaker, const std::vector<int16_t> &buffer);
MultiSpeaker(const std::vector<Outputs::Speaker::Speaker *> &speakers);
std::vector<Outputs::Speaker::Speaker *> speakers_;
Outputs::Speaker::Speaker *front_speaker_ = nullptr;
Outputs::Speaker::Speaker::Delegate *delegate_ = nullptr;
std::mutex front_speaker_mutex_;
};
}
}
#endif /* MultiSpeaker_hpp */

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@@ -0,0 +1,104 @@
//
// MultiMachine.cpp
// Clock Signal
//
// Created by Thomas Harte on 28/01/2018.
// Copyright © 2018 Thomas Harte. All rights reserved.
//
#include "MultiMachine.hpp"
#include <algorithm>
using namespace Analyser::Dynamic;
MultiMachine::MultiMachine(std::vector<std::unique_ptr<DynamicMachine>> &&machines) :
machines_(std::move(machines)),
configurable_(machines_),
configuration_target_(machines_),
crt_machine_(machines_, machines_mutex_),
joystick_machine_(machines),
keyboard_machine_(machines_) {
crt_machine_.set_delegate(this);
}
ConfigurationTarget::Machine *MultiMachine::configuration_target() {
if(has_picked_) {
return machines_.front()->configuration_target();
} else {
return &configuration_target_;
}
}
CRTMachine::Machine *MultiMachine::crt_machine() {
if(has_picked_) {
return machines_.front()->crt_machine();
} else {
return &crt_machine_;
}
}
JoystickMachine::Machine *MultiMachine::joystick_machine() {
if(has_picked_) {
return machines_.front()->joystick_machine();
} else {
return &joystick_machine_;
}
}
KeyboardMachine::Machine *MultiMachine::keyboard_machine() {
if(has_picked_) {
return machines_.front()->keyboard_machine();
} else {
return &keyboard_machine_;
}
}
Configurable::Device *MultiMachine::configurable_device() {
if(has_picked_) {
return machines_.front()->configurable_device();
} else {
return &configurable_;
}
}
void MultiMachine::multi_crt_did_run_machines() {
std::lock_guard<std::mutex> machines_lock(machines_mutex_);
for(const auto &machine: machines_) {
CRTMachine::Machine *crt = machine->crt_machine();
printf("%0.2f ", crt->get_confidence());
crt->print_type();
printf("; ");
}
printf("\n");
DynamicMachine *front = machines_.front().get();
std::stable_sort(machines_.begin(), machines_.end(),
[] (const std::unique_ptr<DynamicMachine> &lhs, const std::unique_ptr<DynamicMachine> &rhs){
CRTMachine::Machine *lhs_crt = lhs->crt_machine();
CRTMachine::Machine *rhs_crt = rhs->crt_machine();
return lhs_crt->get_confidence() > rhs_crt->get_confidence();
});
if(machines_.front().get() != front) {
crt_machine_.did_change_machine_order();
}
if(
(machines_.front()->crt_machine()->get_confidence() > 0.9f) ||
(machines_.front()->crt_machine()->get_confidence() >= 2.0f * machines_[1]->crt_machine()->get_confidence())
) {
pick_first();
}
}
void MultiMachine::pick_first() {
has_picked_ = true;
// machines_.erase(machines_.begin() + 1, machines_.end());
// TODO: this isn't quite correct, because it may leak OpenGL/etc resources through failure to
// request a close_output while the context is active.
}
void *MultiMachine::raw_pointer() {
return nullptr;
}

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@@ -0,0 +1,71 @@
//
// MultiMachine.hpp
// Clock Signal
//
// Created by Thomas Harte on 28/01/2018.
// Copyright © 2018 Thomas Harte. All rights reserved.
//
#ifndef MultiMachine_hpp
#define MultiMachine_hpp
#include "../../../Machines/DynamicMachine.hpp"
#include "Implementation/MultiConfigurable.hpp"
#include "Implementation/MultiConfigurationTarget.hpp"
#include "Implementation/MultiCRTMachine.hpp"
#include "Implementation/MultiJoystickMachine.hpp"
#include "Implementation/MultiKeyboardMachine.hpp"
#include <memory>
#include <mutex>
#include <vector>
namespace Analyser {
namespace Dynamic {
/*!
Provides the same interface as to a single machine, while multiplexing all
underlying calls to an array of real dynamic machines.
Calls to crt_machine->get_crt will return that for the frontmost machine;
anything installed as the speaker's delegate will similarly receive
feedback only from that machine.
Following each crt_machine->run_for, reorders the supplied machines by
confidence.
If confidence for any machine becomes disproportionately low compared to
the others in the set, that machine stops running.
*/
class MultiMachine: public ::Machine::DynamicMachine, public MultiCRTMachine::Delegate {
public:
MultiMachine(std::vector<std::unique_ptr<DynamicMachine>> &&machines);
ConfigurationTarget::Machine *configuration_target() override;
CRTMachine::Machine *crt_machine() override;
JoystickMachine::Machine *joystick_machine() override;
KeyboardMachine::Machine *keyboard_machine() override;
Configurable::Device *configurable_device() override;
void *raw_pointer() override;
private:
void multi_crt_did_run_machines() override;
std::vector<std::unique_ptr<DynamicMachine>> machines_;
std::mutex machines_mutex_;
MultiConfigurable configurable_;
MultiConfigurationTarget configuration_target_;
MultiCRTMachine crt_machine_;
MultiJoystickMachine joystick_machine_;
MultiKeyboardMachine keyboard_machine_;
void pick_first();
bool has_picked_ = false;
};
}
}
#endif /* MultiMachine_hpp */

27
Analyser/Machines.hpp Normal file
View File

@@ -0,0 +1,27 @@
//
// Machines.h
// Clock Signal
//
// Created by Thomas Harte on 24/01/2018.
// Copyright © 2018 Thomas Harte. All rights reserved.
//
#ifndef Machines_h
#define Machines_h
namespace Analyser {
enum class Machine {
AmstradCPC,
Atari2600,
ColecoVision,
Electron,
MSX,
Oric,
Vic20,
ZX8081
};
}
#endif /* Machines_h */

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@@ -7,14 +7,16 @@
//
#include "Disk.hpp"
#include "../../Storage/Disk/Controller/DiskController.hpp"
#include "../../Storage/Disk/Encodings/MFM/Parser.hpp"
#include "../../NumberTheory/CRC.hpp"
#include "../../../Storage/Disk/Controller/DiskController.hpp"
#include "../../../Storage/Disk/Encodings/MFM/Parser.hpp"
#include "../../../NumberTheory/CRC.hpp"
#include <algorithm>
using namespace StaticAnalyser::Acorn;
using namespace Analyser::Static::Acorn;
std::unique_ptr<Catalogue> StaticAnalyser::Acorn::GetDFSCatalogue(const std::shared_ptr<Storage::Disk::Disk> &disk) {
std::unique_ptr<Catalogue> Analyser::Static::Acorn::GetDFSCatalogue(const std::shared_ptr<Storage::Disk::Disk> &disk) {
// c.f. http://beebwiki.mdfs.net/Acorn_DFS_disc_format
std::unique_ptr<Catalogue> catalogue(new Catalogue);
Storage::Encodings::MFM::Parser parser(false, disk);
@@ -41,9 +43,7 @@ std::unique_ptr<Catalogue> StaticAnalyser::Acorn::GetDFSCatalogue(const std::sha
case 3: catalogue->bootOption = Catalogue::BootOption::ExecBOOT; break;
}
// DFS files are stored contiguously, and listed in descending order of distance from track 0.
// So iterating backwards implies the least amount of seeking.
for(std::size_t file_offset = final_file_offset - 8; file_offset > 0; file_offset -= 8) {
for(std::size_t file_offset = 8; file_offset < final_file_offset; file_offset += 8) {
File new_file;
char name[10];
snprintf(name, 10, "%c.%.7s", names->samples[0][file_offset + 7] & 0x7f, &names->samples[0][file_offset]);
@@ -69,12 +69,12 @@ std::unique_ptr<Catalogue> StaticAnalyser::Acorn::GetDFSCatalogue(const std::sha
new_file.data.insert(new_file.data.end(), next_sector->samples[0].begin(), next_sector->samples[0].begin() + length_from_sector);
data_length -= length_from_sector;
}
if(!data_length) catalogue->files.push_front(new_file);
if(!data_length) catalogue->files.push_back(new_file);
}
return catalogue;
}
std::unique_ptr<Catalogue> StaticAnalyser::Acorn::GetADFSCatalogue(const std::shared_ptr<Storage::Disk::Disk> &disk) {
std::unique_ptr<Catalogue> Analyser::Static::Acorn::GetADFSCatalogue(const std::shared_ptr<Storage::Disk::Disk> &disk) {
std::unique_ptr<Catalogue> catalogue(new Catalogue);
Storage::Encodings::MFM::Parser parser(true, disk);

View File

@@ -10,15 +10,16 @@
#define StaticAnalyser_Acorn_Disk_hpp
#include "File.hpp"
#include "../../Storage/Disk/Disk.hpp"
#include "../../../Storage/Disk/Disk.hpp"
namespace StaticAnalyser {
namespace Analyser {
namespace Static {
namespace Acorn {
/// Describes a DFS- or ADFS-format catalogue(/directory) — the list of files available and the catalogue's boot option.
struct Catalogue {
std::string name;
std::list<File> files;
std::vector<File> files;
enum class BootOption {
None,
LoadBOOT,
@@ -30,6 +31,7 @@ struct Catalogue {
std::unique_ptr<Catalogue> GetDFSCatalogue(const std::shared_ptr<Storage::Disk::Disk> &disk);
std::unique_ptr<Catalogue> GetADFSCatalogue(const std::shared_ptr<Storage::Disk::Disk> &disk);
}
}
}

View File

@@ -9,12 +9,12 @@
#ifndef StaticAnalyser_Acorn_File_hpp
#define StaticAnalyser_Acorn_File_hpp
#include <list>
#include <memory>
#include <string>
#include <vector>
namespace StaticAnalyser {
namespace Analyser {
namespace Static {
namespace Acorn {
struct File {
@@ -38,9 +38,10 @@ struct File {
std::vector<uint8_t> data;
};
std::list<Chunk> chunks;
std::vector<Chunk> chunks;
};
}
}
}

View File

@@ -11,11 +11,11 @@
#include "Disk.hpp"
#include "Tape.hpp"
using namespace StaticAnalyser::Acorn;
using namespace Analyser::Static::Acorn;
static std::list<std::shared_ptr<Storage::Cartridge::Cartridge>>
AcornCartridgesFrom(const std::list<std::shared_ptr<Storage::Cartridge::Cartridge>> &cartridges) {
std::list<std::shared_ptr<Storage::Cartridge::Cartridge>> acorn_cartridges;
static std::vector<std::shared_ptr<Storage::Cartridge::Cartridge>>
AcornCartridgesFrom(const std::vector<std::shared_ptr<Storage::Cartridge::Cartridge>> &cartridges) {
std::vector<std::shared_ptr<Storage::Cartridge::Cartridge>> acorn_cartridges;
for(const auto &cartridge : cartridges) {
const auto &segments = cartridge->get_segments();
@@ -23,9 +23,9 @@ static std::list<std::shared_ptr<Storage::Cartridge::Cartridge>>
// only one mapped item is allowed
if(segments.size() != 1) continue;
// which must be 16 kb in size
Storage::Cartridge::Cartridge::Segment segment = segments.front();
if(segment.data.size() != 0x4000) continue;
// which must be 8 or 16 kb in size
const Storage::Cartridge::Cartridge::Segment &segment = segments.front();
if(segment.data.size() != 0x4000 && segment.data.size() != 0x2000) continue;
// is a copyright string present?
uint8_t copyright_offset = segment.data[7];
@@ -56,21 +56,21 @@ static std::list<std::shared_ptr<Storage::Cartridge::Cartridge>>
return acorn_cartridges;
}
void StaticAnalyser::Acorn::AddTargets(const Media &media, std::list<Target> &destination) {
Target target;
target.machine = Target::Electron;
target.probability = 1.0; // TODO: a proper estimation
target.acorn.has_dfs = false;
target.acorn.has_adfs = false;
target.acorn.should_shift_restart = false;
void Analyser::Static::Acorn::AddTargets(const Media &media, std::vector<std::unique_ptr<Target>> &destination) {
std::unique_ptr<Target> target(new Target);
target->machine = Machine::Electron;
target->confidence = 1.0; // TODO: a proper estimation
target->acorn.has_dfs = false;
target->acorn.has_adfs = false;
target->acorn.should_shift_restart = false;
// strip out inappropriate cartridges
target.media.cartridges = AcornCartridgesFrom(media.cartridges);
target->media.cartridges = AcornCartridgesFrom(media.cartridges);
// if there are any tapes, attempt to get data from the first
if(media.tapes.size() > 0) {
std::shared_ptr<Storage::Tape::Tape> tape = media.tapes.front();
std::list<File> files = GetFiles(tape);
std::vector<File> files = GetFiles(tape);
tape->reset();
// continue if there are any files
@@ -96,9 +96,9 @@ void StaticAnalyser::Acorn::AddTargets(const Media &media, std::list<Target> &de
// Inspect first file. If it's protected or doesn't look like BASIC
// then the loading command is *RUN. Otherwise it's CHAIN"".
target.loading_command = is_basic ? "CHAIN\"\"\n" : "*RUN\n";
target->loading_command = is_basic ? "CHAIN\"\"\n" : "*RUN\n";
target.media.tapes = media.tapes;
target->media.tapes = media.tapes;
}
}
@@ -108,18 +108,18 @@ void StaticAnalyser::Acorn::AddTargets(const Media &media, std::list<Target> &de
dfs_catalogue = GetDFSCatalogue(disk);
if(dfs_catalogue == nullptr) adfs_catalogue = GetADFSCatalogue(disk);
if(dfs_catalogue || adfs_catalogue) {
target.media.disks = media.disks;
target.acorn.has_dfs = !!dfs_catalogue;
target.acorn.has_adfs = !!adfs_catalogue;
target->media.disks = media.disks;
target->acorn.has_dfs = !!dfs_catalogue;
target->acorn.has_adfs = !!adfs_catalogue;
Catalogue::BootOption bootOption = (dfs_catalogue ?: adfs_catalogue)->bootOption;
if(bootOption != Catalogue::BootOption::None)
target.acorn.should_shift_restart = true;
target->acorn.should_shift_restart = true;
else
target.loading_command = "*CAT\n";
target->loading_command = "*CAT\n";
}
}
if(target.media.tapes.size() || target.media.disks.size() || target.media.cartridges.size())
destination.push_back(target);
if(target->media.tapes.size() || target->media.disks.size() || target->media.cartridges.size())
destination.push_back(std::move(target));
}

View File

@@ -11,11 +11,13 @@
#include "../StaticAnalyser.hpp"
namespace StaticAnalyser {
namespace Analyser {
namespace Static {
namespace Acorn {
void AddTargets(const Media &media, std::list<Target> &destination);
void AddTargets(const Media &media, std::vector<std::unique_ptr<Target>> &destination);
}
}
}

View File

@@ -9,10 +9,11 @@
#include "Tape.hpp"
#include <deque>
#include "../../NumberTheory/CRC.hpp"
#include "../../Storage/Tape/Parsers/Acorn.hpp"
using namespace StaticAnalyser::Acorn;
#include "../../../NumberTheory/CRC.hpp"
#include "../../../Storage/Tape/Parsers/Acorn.hpp"
using namespace Analyser::Static::Acorn;
static std::unique_ptr<File::Chunk> GetNextChunk(const std::shared_ptr<Storage::Tape::Tape> &tape, Storage::Tape::Acorn::Parser &parser) {
std::unique_ptr<File::Chunk> new_chunk(new File::Chunk);
@@ -118,7 +119,7 @@ static std::unique_ptr<File> GetNextFile(std::deque<File::Chunk> &chunks) {
return file;
}
std::list<File> StaticAnalyser::Acorn::GetFiles(const std::shared_ptr<Storage::Tape::Tape> &tape) {
std::vector<File> Analyser::Static::Acorn::GetFiles(const std::shared_ptr<Storage::Tape::Tape> &tape) {
Storage::Tape::Acorn::Parser parser;
// populate chunk list
@@ -131,7 +132,7 @@ std::list<File> StaticAnalyser::Acorn::GetFiles(const std::shared_ptr<Storage::T
}
// decompose into file list
std::list<File> file_list;
std::vector<File> file_list;
while(chunk_list.size()) {
std::unique_ptr<File> next_file = GetNextFile(chunk_list);

View File

@@ -12,13 +12,15 @@
#include <memory>
#include "File.hpp"
#include "../../Storage/Tape/Tape.hpp"
#include "../../../Storage/Tape/Tape.hpp"
namespace StaticAnalyser {
namespace Analyser {
namespace Static {
namespace Acorn {
std::list<File> GetFiles(const std::shared_ptr<Storage::Tape::Tape> &tape);
std::vector<File> GetFiles(const std::shared_ptr<Storage::Tape::Tape> &tape);
}
}
}

View File

@@ -11,8 +11,8 @@
#include <algorithm>
#include <cstring>
#include "../../Storage/Disk/Parsers/CPM.hpp"
#include "../../Storage/Disk/Encodings/MFM/Parser.hpp"
#include "../../../Storage/Disk/Parsers/CPM.hpp"
#include "../../../Storage/Disk/Encodings/MFM/Parser.hpp"
static bool strcmp_insensitive(const char *a, const char *b) {
if(std::strlen(a) != std::strlen(b)) return false;
@@ -58,7 +58,7 @@ static std::string RunCommandFor(const Storage::Disk::CPM::File &file) {
static void InspectCatalogue(
const Storage::Disk::CPM::Catalogue &catalogue,
StaticAnalyser::Target &target) {
const std::unique_ptr<Analyser::Static::Target> &target) {
std::vector<const Storage::Disk::CPM::File *> candidate_files;
candidate_files.reserve(catalogue.files.size());
@@ -95,7 +95,7 @@ static void InspectCatalogue(
// If there's just one file, run that.
if(candidate_files.size() == 1) {
target.loading_command = RunCommandFor(*candidate_files[0]);
target->loading_command = RunCommandFor(*candidate_files[0]);
return;
}
@@ -126,7 +126,7 @@ static void InspectCatalogue(
}
if(basic_files == 1 || implicit_suffixed_files == 1) {
std::size_t selected_file = (basic_files == 1) ? last_basic_file : last_implicit_suffixed_file;
target.loading_command = RunCommandFor(*candidate_files[selected_file]);
target->loading_command = RunCommandFor(*candidate_files[selected_file]);
return;
}
@@ -143,17 +143,17 @@ static void InspectCatalogue(
if(name_counts.size() == 2) {
for(auto &pair : name_counts) {
if(pair.second == 1) {
target.loading_command = RunCommandFor(*candidate_files[indices_by_name[pair.first]]);
target->loading_command = RunCommandFor(*candidate_files[indices_by_name[pair.first]]);
return;
}
}
}
// Desperation.
target.loading_command = "cat\n";
target->loading_command = "cat\n";
}
static bool CheckBootSector(const std::shared_ptr<Storage::Disk::Disk> &disk, StaticAnalyser::Target &target) {
static bool CheckBootSector(const std::shared_ptr<Storage::Disk::Disk> &disk, const std::unique_ptr<Analyser::Static::Target> &target) {
Storage::Encodings::MFM::Parser parser(true, disk);
Storage::Encodings::MFM::Sector *boot_sector = parser.get_sector(0, 0, 0x41);
if(boot_sector != nullptr && !boot_sector->samples.empty()) {
@@ -169,7 +169,7 @@ static bool CheckBootSector(const std::shared_ptr<Storage::Disk::Disk> &disk, St
// This is a system disk, then launch it as though it were CP/M.
if(!matched) {
target.loading_command = "|cpm\n";
target->loading_command = "|cpm\n";
return true;
}
}
@@ -177,24 +177,24 @@ static bool CheckBootSector(const std::shared_ptr<Storage::Disk::Disk> &disk, St
return false;
}
void StaticAnalyser::AmstradCPC::AddTargets(const Media &media, std::list<Target> &destination) {
Target target;
target.machine = Target::AmstradCPC;
target.probability = 1.0;
target.media.disks = media.disks;
target.media.tapes = media.tapes;
target.media.cartridges = media.cartridges;
void Analyser::Static::AmstradCPC::AddTargets(const Media &media, std::vector<std::unique_ptr<Target>> &destination) {
std::unique_ptr<Target> target(new Target);
target->machine = Machine::AmstradCPC;
target->confidence = 1.0;
target->media.disks = media.disks;
target->media.tapes = media.tapes;
target->media.cartridges = media.cartridges;
target.amstradcpc.model = AmstradCPCModel::CPC6128;
target->amstradcpc.model = AmstradCPCModel::CPC6128;
if(!target.media.tapes.empty()) {
if(!target->media.tapes.empty()) {
// Ugliness flows here: assume the CPC isn't smart enough to pause between pressing
// enter and responding to the follow-on prompt to press a key, so just type for
// a while. Yuck!
target.loading_command = "|tape\nrun\"\n1234567890";
target->loading_command = "|tape\nrun\"\n1234567890";
}
if(!target.media.disks.empty()) {
if(!target->media.disks.empty()) {
Storage::Disk::CPM::ParameterBlock data_format;
data_format.sectors_per_track = 9;
data_format.tracks = 40;
@@ -203,11 +203,11 @@ void StaticAnalyser::AmstradCPC::AddTargets(const Media &media, std::list<Target
data_format.catalogue_allocation_bitmap = 0xc000;
data_format.reserved_tracks = 0;
std::unique_ptr<Storage::Disk::CPM::Catalogue> data_catalogue = Storage::Disk::CPM::GetCatalogue(target.media.disks.front(), data_format);
std::unique_ptr<Storage::Disk::CPM::Catalogue> data_catalogue = Storage::Disk::CPM::GetCatalogue(target->media.disks.front(), data_format);
if(data_catalogue) {
InspectCatalogue(*data_catalogue, target);
} else {
if(!CheckBootSector(target.media.disks.front(), target)) {
if(!CheckBootSector(target->media.disks.front(), target)) {
Storage::Disk::CPM::ParameterBlock system_format;
system_format.sectors_per_track = 9;
system_format.tracks = 40;
@@ -216,7 +216,7 @@ void StaticAnalyser::AmstradCPC::AddTargets(const Media &media, std::list<Target
system_format.catalogue_allocation_bitmap = 0xc000;
system_format.reserved_tracks = 2;
std::unique_ptr<Storage::Disk::CPM::Catalogue> system_catalogue = Storage::Disk::CPM::GetCatalogue(target.media.disks.front(), system_format);
std::unique_ptr<Storage::Disk::CPM::Catalogue> system_catalogue = Storage::Disk::CPM::GetCatalogue(target->media.disks.front(), system_format);
if(system_catalogue) {
InspectCatalogue(*system_catalogue, target);
}
@@ -224,5 +224,5 @@ void StaticAnalyser::AmstradCPC::AddTargets(const Media &media, std::list<Target
}
}
destination.push_back(target);
destination.push_back(std::move(target));
}

View File

@@ -11,11 +11,13 @@
#include "../StaticAnalyser.hpp"
namespace StaticAnalyser {
namespace Analyser {
namespace Static {
namespace AmstradCPC {
void AddTargets(const Media &media, std::list<Target> &destination);
void AddTargets(const Media &media, std::vector<std::unique_ptr<Target>> &destination);
}
}
}

View File

@@ -10,9 +10,9 @@
#include "../Disassembler/6502.hpp"
using namespace StaticAnalyser::Atari;
using namespace Analyser::Static::Atari;
static void DeterminePagingFor2kCartridge(StaticAnalyser::Target &target, const Storage::Cartridge::Cartridge::Segment &segment) {
static void DeterminePagingFor2kCartridge(Analyser::Static::Target &target, const Storage::Cartridge::Cartridge::Segment &segment) {
// if this is a 2kb cartridge then it's definitely either unpaged or a CommaVid
uint16_t entry_address, break_address;
@@ -26,17 +26,17 @@ static void DeterminePagingFor2kCartridge(StaticAnalyser::Target &target, const
address &= 0x1fff;
return static_cast<std::size_t>(address - 0x1800);
};
StaticAnalyser::MOS6502::Disassembly high_location_disassembly =
StaticAnalyser::MOS6502::Disassemble(segment.data, high_location_mapper, {entry_address, break_address});
Analyser::Static::MOS6502::Disassembly high_location_disassembly =
Analyser::Static::MOS6502::Disassemble(segment.data, high_location_mapper, {entry_address, break_address});
// assume that any kind of store that looks likely to be intended for large amounts of memory implies
// large amounts of memory
bool has_wide_area_store = false;
for(std::map<uint16_t, StaticAnalyser::MOS6502::Instruction>::value_type &entry : high_location_disassembly.instructions_by_address) {
if(entry.second.operation == StaticAnalyser::MOS6502::Instruction::STA) {
has_wide_area_store |= entry.second.addressing_mode == StaticAnalyser::MOS6502::Instruction::Indirect;
has_wide_area_store |= entry.second.addressing_mode == StaticAnalyser::MOS6502::Instruction::IndexedIndirectX;
has_wide_area_store |= entry.second.addressing_mode == StaticAnalyser::MOS6502::Instruction::IndirectIndexedY;
for(std::map<uint16_t, Analyser::Static::MOS6502::Instruction>::value_type &entry : high_location_disassembly.instructions_by_address) {
if(entry.second.operation == Analyser::Static::MOS6502::Instruction::STA) {
has_wide_area_store |= entry.second.addressing_mode == Analyser::Static::MOS6502::Instruction::Indirect;
has_wide_area_store |= entry.second.addressing_mode == Analyser::Static::MOS6502::Instruction::IndexedIndirectX;
has_wide_area_store |= entry.second.addressing_mode == Analyser::Static::MOS6502::Instruction::IndirectIndexedY;
if(has_wide_area_store) break;
}
@@ -46,10 +46,10 @@ static void DeterminePagingFor2kCartridge(StaticAnalyser::Target &target, const
// caveat: false positives aren't likely to be problematic; a false positive is a 2KB ROM that always addresses
// itself so as to land in ROM even if mapped as a CommaVid and this code is on the fence as to whether it
// attempts to modify itself but it probably doesn't
if(has_wide_area_store) target.atari.paging_model = StaticAnalyser::Atari2600PagingModel::CommaVid;
if(has_wide_area_store) target.atari.paging_model = Analyser::Static::Atari2600PagingModel::CommaVid;
}
static void DeterminePagingFor8kCartridge(StaticAnalyser::Target &target, const Storage::Cartridge::Cartridge::Segment &segment, const StaticAnalyser::MOS6502::Disassembly &disassembly) {
static void DeterminePagingFor8kCartridge(Analyser::Static::Target &target, const Storage::Cartridge::Cartridge::Segment &segment, const Analyser::Static::MOS6502::Disassembly &disassembly) {
// Activision stack titles have their vectors at the top of the low 4k, not the top, and
// always list 0xf000 as both vectors; they do not repeat them, and, inexplicably, they all
// issue an SEI as their first instruction (maybe some sort of relic of the development environment?)
@@ -58,12 +58,12 @@ static void DeterminePagingFor8kCartridge(StaticAnalyser::Target &target, const
(segment.data[8191] != 0xf0 || segment.data[8189] != 0xf0 || segment.data[8190] != 0x00 || segment.data[8188] != 0x00) &&
segment.data[0] == 0x78
) {
target.atari.paging_model = StaticAnalyser::Atari2600PagingModel::ActivisionStack;
target.atari.paging_model = Analyser::Static::Atari2600PagingModel::ActivisionStack;
return;
}
// make an assumption that this is the Atari paging model
target.atari.paging_model = StaticAnalyser::Atari2600PagingModel::Atari8k;
target.atari.paging_model = Analyser::Static::Atari2600PagingModel::Atari8k;
std::set<uint16_t> internal_accesses;
internal_accesses.insert(disassembly.internal_stores.begin(), disassembly.internal_stores.end());
@@ -83,13 +83,13 @@ static void DeterminePagingFor8kCartridge(StaticAnalyser::Target &target, const
tigervision_access_count += masked_address == 0x3f;
}
if(parker_access_count > atari_access_count) target.atari.paging_model = StaticAnalyser::Atari2600PagingModel::ParkerBros;
else if(tigervision_access_count > atari_access_count) target.atari.paging_model = StaticAnalyser::Atari2600PagingModel::Tigervision;
if(parker_access_count > atari_access_count) target.atari.paging_model = Analyser::Static::Atari2600PagingModel::ParkerBros;
else if(tigervision_access_count > atari_access_count) target.atari.paging_model = Analyser::Static::Atari2600PagingModel::Tigervision;
}
static void DeterminePagingFor16kCartridge(StaticAnalyser::Target &target, const Storage::Cartridge::Cartridge::Segment &segment, const StaticAnalyser::MOS6502::Disassembly &disassembly) {
static void DeterminePagingFor16kCartridge(Analyser::Static::Target &target, const Storage::Cartridge::Cartridge::Segment &segment, const Analyser::Static::MOS6502::Disassembly &disassembly) {
// make an assumption that this is the Atari paging model
target.atari.paging_model = StaticAnalyser::Atari2600PagingModel::Atari16k;
target.atari.paging_model = Analyser::Static::Atari2600PagingModel::Atari16k;
std::set<uint16_t> internal_accesses;
internal_accesses.insert(disassembly.internal_stores.begin(), disassembly.internal_stores.end());
@@ -104,17 +104,17 @@ static void DeterminePagingFor16kCartridge(StaticAnalyser::Target &target, const
mnetwork_access_count += masked_address >= 0x1fe0 && masked_address < 0x1ffb;
}
if(mnetwork_access_count > atari_access_count) target.atari.paging_model = StaticAnalyser::Atari2600PagingModel::MNetwork;
if(mnetwork_access_count > atari_access_count) target.atari.paging_model = Analyser::Static::Atari2600PagingModel::MNetwork;
}
static void DeterminePagingFor64kCartridge(StaticAnalyser::Target &target, const Storage::Cartridge::Cartridge::Segment &segment, const StaticAnalyser::MOS6502::Disassembly &disassembly) {
static void DeterminePagingFor64kCartridge(Analyser::Static::Target &target, const Storage::Cartridge::Cartridge::Segment &segment, const Analyser::Static::MOS6502::Disassembly &disassembly) {
// make an assumption that this is a Tigervision if there is a write to 3F
target.atari.paging_model =
(disassembly.external_stores.find(0x3f) != disassembly.external_stores.end()) ?
StaticAnalyser::Atari2600PagingModel::Tigervision : StaticAnalyser::Atari2600PagingModel::MegaBoy;
Analyser::Static::Atari2600PagingModel::Tigervision : Analyser::Static::Atari2600PagingModel::MegaBoy;
}
static void DeterminePagingForCartridge(StaticAnalyser::Target &target, const Storage::Cartridge::Cartridge::Segment &segment) {
static void DeterminePagingForCartridge(Analyser::Static::Target &target, const Storage::Cartridge::Cartridge::Segment &segment) {
if(segment.data.size() == 2048) {
DeterminePagingFor2kCartridge(target, segment);
return;
@@ -131,23 +131,23 @@ static void DeterminePagingForCartridge(StaticAnalyser::Target &target, const St
};
std::vector<uint8_t> final_4k(segment.data.end() - 4096, segment.data.end());
StaticAnalyser::MOS6502::Disassembly disassembly = StaticAnalyser::MOS6502::Disassemble(final_4k, address_mapper, {entry_address, break_address});
Analyser::Static::MOS6502::Disassembly disassembly = Analyser::Static::MOS6502::Disassemble(final_4k, address_mapper, {entry_address, break_address});
switch(segment.data.size()) {
case 8192:
DeterminePagingFor8kCartridge(target, segment, disassembly);
break;
case 10495:
target.atari.paging_model = StaticAnalyser::Atari2600PagingModel::Pitfall2;
target.atari.paging_model = Analyser::Static::Atari2600PagingModel::Pitfall2;
break;
case 12288:
target.atari.paging_model = StaticAnalyser::Atari2600PagingModel::CBSRamPlus;
target.atari.paging_model = Analyser::Static::Atari2600PagingModel::CBSRamPlus;
break;
case 16384:
DeterminePagingFor16kCartridge(target, segment, disassembly);
break;
case 32768:
target.atari.paging_model = StaticAnalyser::Atari2600PagingModel::Atari32k;
target.atari.paging_model = Analyser::Static::Atari2600PagingModel::Atari32k;
break;
case 65536:
DeterminePagingFor64kCartridge(target, segment, disassembly);
@@ -159,8 +159,8 @@ static void DeterminePagingForCartridge(StaticAnalyser::Target &target, const St
// check for a Super Chip. Atari ROM images [almost] always have the same value stored over RAM
// regions; when they don't they at least seem to have the first 128 bytes be the same as the
// next 128 bytes. So check for that.
if( target.atari.paging_model != StaticAnalyser::Atari2600PagingModel::CBSRamPlus &&
target.atari.paging_model != StaticAnalyser::Atari2600PagingModel::MNetwork) {
if( target.atari.paging_model != Analyser::Static::Atari2600PagingModel::CBSRamPlus &&
target.atari.paging_model != Analyser::Static::Atari2600PagingModel::MNetwork) {
bool has_superchip = true;
for(std::size_t address = 0; address < 128; address++) {
if(segment.data[address] != segment.data[address+128]) {
@@ -172,20 +172,20 @@ static void DeterminePagingForCartridge(StaticAnalyser::Target &target, const St
}
// check for a Tigervision or Tigervision-esque scheme
if(target.atari.paging_model == StaticAnalyser::Atari2600PagingModel::None && segment.data.size() > 4096) {
if(target.atari.paging_model == Analyser::Static::Atari2600PagingModel::None && segment.data.size() > 4096) {
bool looks_like_tigervision = disassembly.external_stores.find(0x3f) != disassembly.external_stores.end();
if(looks_like_tigervision) target.atari.paging_model = StaticAnalyser::Atari2600PagingModel::Tigervision;
if(looks_like_tigervision) target.atari.paging_model = Analyser::Static::Atari2600PagingModel::Tigervision;
}
}
void StaticAnalyser::Atari::AddTargets(const Media &media, std::list<Target> &destination) {
void Analyser::Static::Atari::AddTargets(const Media &media, std::vector<std::unique_ptr<Target>> &destination) {
// TODO: sanity checking; is this image really for an Atari 2600.
Target target;
target.machine = Target::Atari2600;
target.probability = 1.0;
target.media.cartridges = media.cartridges;
target.atari.paging_model = Atari2600PagingModel::None;
target.atari.uses_superchip = false;
std::unique_ptr<Target> target(new Target);
target->machine = Machine::Atari2600;
target->confidence = 1.0;
target->media.cartridges = media.cartridges;
target->atari.paging_model = Atari2600PagingModel::None;
target->atari.uses_superchip = false;
// try to figure out the paging scheme
if(!media.cartridges.empty()) {
@@ -193,9 +193,9 @@ void StaticAnalyser::Atari::AddTargets(const Media &media, std::list<Target> &de
if(segments.size() == 1) {
const Storage::Cartridge::Cartridge::Segment &segment = segments.front();
DeterminePagingForCartridge(target, segment);
DeterminePagingForCartridge(*target, segment);
}
}
destination.push_back(target);
destination.push_back(std::move(target));
}

View File

@@ -11,11 +11,13 @@
#include "../StaticAnalyser.hpp"
namespace StaticAnalyser {
namespace Analyser {
namespace Static {
namespace Atari {
void AddTargets(const Media &media, std::list<Target> &destination);
void AddTargets(const Media &media, std::vector<std::unique_ptr<Target>> &destination);
}
}
}

View File

@@ -0,0 +1,62 @@
//
// StaticAnalyser.cpp
// Clock Signal
//
// Created by Thomas Harte on 23/02/2018.
// Copyright © 2018 Thomas Harte. All rights reserved.
//
#include "StaticAnalyser.hpp"
static std::vector<std::shared_ptr<Storage::Cartridge::Cartridge>>
ColecoCartridgesFrom(const std::vector<std::shared_ptr<Storage::Cartridge::Cartridge>> &cartridges) {
std::vector<std::shared_ptr<Storage::Cartridge::Cartridge>> coleco_cartridges;
for(const auto &cartridge : cartridges) {
const auto &segments = cartridge->get_segments();
// only one mapped item is allowed
if(segments.size() != 1) continue;
// which must be 8, 12, 16, 24 or 32 kb in size
const Storage::Cartridge::Cartridge::Segment &segment = segments.front();
const std::size_t data_size = segment.data.size();
const std::size_t overflow = data_size&8191;
if(overflow > 8 && overflow != 512 && (data_size != 12*1024)) continue;
if(data_size < 8192) continue;
// the two bytes that will be first must be 0xaa and 0x55, either way around
auto *start = &segment.data[0];
if((data_size & static_cast<std::size_t>(~8191)) > 32768) {
start = &segment.data[segment.data.size() - 16384];
}
if(start[0] != 0xaa && start[0] != 0x55 && start[1] != 0xaa && start[1] != 0x55) continue;
if(start[0] == start[1]) continue;
// probability of a random binary blob that isn't a Coleco ROM proceeding to here is 1 - 1/32768.
if(!overflow) {
coleco_cartridges.push_back(cartridge);
} else {
// Size down to a multiple of 8kb and apply the start address.
std::vector<Storage::Cartridge::Cartridge::Segment> output_segments;
std::vector<uint8_t> truncated_data;
std::vector<uint8_t>::difference_type truncated_size = static_cast<std::vector<uint8_t>::difference_type>(segment.data.size()) & ~8191;
truncated_data.insert(truncated_data.begin(), segment.data.begin(), segment.data.begin() + truncated_size);
output_segments.emplace_back(0x8000, truncated_data);
coleco_cartridges.emplace_back(new Storage::Cartridge::Cartridge(output_segments));
}
}
return coleco_cartridges;
}
void Analyser::Static::Coleco::AddTargets(const Media &media, std::vector<std::unique_ptr<Target>> &destination) {
std::unique_ptr<Target> target(new Target);
target->machine = Machine::ColecoVision;
target->confidence = 0.5;
target->media.cartridges = ColecoCartridgesFrom(media.cartridges);
if(!target->media.empty())
destination.push_back(std::move(target));
}

View File

@@ -0,0 +1,25 @@
//
// StaticAnalyser.hpp
// Clock Signal
//
// Created by Thomas Harte on 23/02/2018.
// Copyright © 2018 Thomas Harte. All rights reserved.
//
#ifndef StaticAnalyser_Coleco_StaticAnalyser_hpp
#define StaticAnalyser_Coleco_StaticAnalyser_hpp
#include "../StaticAnalyser.hpp"
namespace Analyser {
namespace Static {
namespace Coleco {
void AddTargets(const Media &media, std::vector<std::unique_ptr<Target>> &destination);
}
}
}
#endif /* StaticAnalyser_hpp */

View File

@@ -7,15 +7,15 @@
//
#include "Disk.hpp"
#include "../../Storage/Disk/Controller/DiskController.hpp"
#include "../../Storage/Disk/Encodings/CommodoreGCR.hpp"
#include "../../Storage/Data/Commodore.hpp"
#include "../../../Storage/Disk/Controller/DiskController.hpp"
#include "../../../Storage/Disk/Encodings/CommodoreGCR.hpp"
#include "../../../Storage/Data/Commodore.hpp"
#include <limits>
#include <vector>
#include <array>
using namespace StaticAnalyser::Commodore;
using namespace Analyser::Static::Commodore;
class CommodoreGCRParser: public Storage::Disk::Controller {
public:
@@ -165,8 +165,8 @@ class CommodoreGCRParser: public Storage::Disk::Controller {
}
};
std::list<File> StaticAnalyser::Commodore::GetFiles(const std::shared_ptr<Storage::Disk::Disk> &disk) {
std::list<File> files;
std::vector<File> Analyser::Static::Commodore::GetFiles(const std::shared_ptr<Storage::Disk::Disk> &disk) {
std::vector<File> files;
CommodoreGCRParser parser;
parser.drive->set_disk(disk);

View File

@@ -9,17 +9,19 @@
#ifndef StaticAnalyser_Commodore_Disk_hpp
#define StaticAnalyser_Commodore_Disk_hpp
#include "../../Storage/Disk/Disk.hpp"
#include "../../../Storage/Disk/Disk.hpp"
#include "File.hpp"
#include <list>
namespace StaticAnalyser {
#include <vector>
namespace Analyser {
namespace Static {
namespace Commodore {
std::list<File> GetFiles(const std::shared_ptr<Storage::Disk::Disk> &disk);
std::vector<File> GetFiles(const std::shared_ptr<Storage::Disk::Disk> &disk);
}
}
}
#endif /* Disk_hpp */

View File

@@ -8,7 +8,7 @@
#include "File.hpp"
bool StaticAnalyser::Commodore::File::is_basic() {
bool Analyser::Static::Commodore::File::is_basic() {
// BASIC files are always relocatable (?)
if(type != File::RelocatableProgram) return false;

View File

@@ -12,7 +12,8 @@
#include <string>
#include <vector>
namespace StaticAnalyser {
namespace Analyser {
namespace Static {
namespace Commodore {
struct File {
@@ -34,6 +35,7 @@ struct File {
bool is_basic();
};
}
}
}

View File

@@ -8,18 +8,18 @@
#include "StaticAnalyser.hpp"
#include "Disk.hpp"
#include "File.hpp"
#include "Tape.hpp"
#include "Disk.hpp"
#include "../../Storage/Cartridge/Encodings/CommodoreROM.hpp"
#include "../../../Storage/Cartridge/Encodings/CommodoreROM.hpp"
#include <sstream>
using namespace StaticAnalyser::Commodore;
using namespace Analyser::Static::Commodore;
static std::list<std::shared_ptr<Storage::Cartridge::Cartridge>>
Vic20CartridgesFrom(const std::list<std::shared_ptr<Storage::Cartridge::Cartridge>> &cartridges) {
std::list<std::shared_ptr<Storage::Cartridge::Cartridge>> vic20_cartridges;
static std::vector<std::shared_ptr<Storage::Cartridge::Cartridge>>
Vic20CartridgesFrom(const std::vector<std::shared_ptr<Storage::Cartridge::Cartridge>> &cartridges) {
std::vector<std::shared_ptr<Storage::Cartridge::Cartridge>> vic20_cartridges;
for(const auto &cartridge : cartridges) {
const auto &segments = cartridge->get_segments();
@@ -38,42 +38,42 @@ static std::list<std::shared_ptr<Storage::Cartridge::Cartridge>>
return vic20_cartridges;
}
void StaticAnalyser::Commodore::AddTargets(const Media &media, std::list<Target> &destination) {
Target target;
target.machine = Target::Vic20; // TODO: machine estimation
target.probability = 1.0; // TODO: a proper estimation
void Analyser::Static::Commodore::AddTargets(const Media &media, std::vector<std::unique_ptr<Target>> &destination) {
std::unique_ptr<Target> target(new Target);
target->machine = Machine::Vic20; // TODO: machine estimation
target->confidence = 1.0; // TODO: a proper estimation
int device = 0;
std::list<File> files;
std::vector<File> files;
bool is_disk = false;
// strip out inappropriate cartridges
target.media.cartridges = Vic20CartridgesFrom(media.cartridges);
target->media.cartridges = Vic20CartridgesFrom(media.cartridges);
// check disks
for(auto &disk : media.disks) {
std::list<File> disk_files = GetFiles(disk);
std::vector<File> disk_files = GetFiles(disk);
if(!disk_files.empty()) {
is_disk = true;
files.splice(files.end(), disk_files);
target.media.disks.push_back(disk);
files.insert(files.end(), disk_files.begin(), disk_files.end());
target->media.disks.push_back(disk);
if(!device) device = 8;
}
}
// check tapes
for(auto &tape : media.tapes) {
std::list<File> tape_files = GetFiles(tape);
std::vector<File> tape_files = GetFiles(tape);
tape->reset();
if(!tape_files.empty()) {
files.splice(files.end(), tape_files);
target.media.tapes.push_back(tape);
files.insert(files.end(), tape_files.begin(), tape_files.end());
target->media.tapes.push_back(tape);
if(!device) device = 1;
}
}
if(!files.empty()) {
target.vic20.memory_model = Vic20MemoryModel::Unexpanded;
target->vic20.memory_model = Vic20MemoryModel::Unexpanded;
std::ostringstream string_stream;
string_stream << "LOAD\"" << (is_disk ? "*" : "") << "\"," << device << ",";
if(files.front().is_basic()) {
@@ -82,17 +82,17 @@ void StaticAnalyser::Commodore::AddTargets(const Media &media, std::list<Target>
string_stream << "1";
}
string_stream << "\nRUN\n";
target.loading_command = string_stream.str();
target->loading_command = string_stream.str();
// make a first guess based on loading address
switch(files.front().starting_address) {
case 0x1001:
default: break;
case 0x1201:
target.vic20.memory_model = Vic20MemoryModel::ThirtyTwoKB;
target->vic20.memory_model = Vic20MemoryModel::ThirtyTwoKB;
break;
case 0x0401:
target.vic20.memory_model = Vic20MemoryModel::EightKB;
target->vic20.memory_model = Vic20MemoryModel::EightKB;
break;
}
@@ -108,9 +108,9 @@ void StaticAnalyser::Commodore::AddTargets(const Media &media, std::list<Target>
// An unexpanded machine has 3583 bytes free for BASIC;
// a 3kb expanded machine has 6655 bytes free.
if(file_size > 6655)
target.vic20.memory_model = Vic20MemoryModel::ThirtyTwoKB;
else if(target.vic20.memory_model == Vic20MemoryModel::Unexpanded && file_size > 3583)
target.vic20.memory_model = Vic20MemoryModel::EightKB;
target->vic20.memory_model = Vic20MemoryModel::ThirtyTwoKB;
else if(target->vic20.memory_model == Vic20MemoryModel::Unexpanded && file_size > 3583)
target->vic20.memory_model = Vic20MemoryModel::EightKB;
}
else
{*/
@@ -129,13 +129,13 @@ void StaticAnalyser::Commodore::AddTargets(const Media &media, std::list<Target>
// If anything above the 8kb mark is touched, mark as a 32kb machine; otherwise if the
// region 0x0400 to 0x1000 is touched and this is an unexpanded machine, mark as 3kb.
if(starting_address + file_size > 0x2000)
target.vic20.memory_model = Vic20MemoryModel::ThirtyTwoKB;
else if(target.vic20.memory_model == Vic20MemoryModel::Unexpanded && !(starting_address >= 0x1000 || starting_address+file_size < 0x0400))
target.vic20.memory_model = Vic20MemoryModel::ThirtyTwoKB;
target->vic20.memory_model = Vic20MemoryModel::ThirtyTwoKB;
else if(target->vic20.memory_model == Vic20MemoryModel::Unexpanded && !(starting_address >= 0x1000 || starting_address+file_size < 0x0400))
target->vic20.memory_model = Vic20MemoryModel::ThirtyTwoKB;
// }
}
}
if(!target.media.tapes.empty() || !target.media.cartridges.empty() || !target.media.disks.empty())
destination.push_back(target);
if(!target->media.empty())
destination.push_back(std::move(target));
}

View File

@@ -11,11 +11,13 @@
#include "../StaticAnalyser.hpp"
namespace StaticAnalyser {
namespace Analyser {
namespace Static {
namespace Commodore {
void AddTargets(const Media &media, std::list<Target> &destination);
void AddTargets(const Media &media, std::vector<std::unique_ptr<Target>> &destination);
}
}
}

View File

@@ -8,13 +8,13 @@
#include "Tape.hpp"
#include "../../Storage/Tape/Parsers/Commodore.hpp"
#include "../../../Storage/Tape/Parsers/Commodore.hpp"
using namespace StaticAnalyser::Commodore;
using namespace Analyser::Static::Commodore;
std::list<File> StaticAnalyser::Commodore::GetFiles(const std::shared_ptr<Storage::Tape::Tape> &tape) {
std::vector<File> Analyser::Static::Commodore::GetFiles(const std::shared_ptr<Storage::Tape::Tape> &tape) {
Storage::Tape::Commodore::Parser parser;
std::list<File> file_list;
std::vector<File> file_list;
std::unique_ptr<Storage::Tape::Commodore::Header> header = parser.get_next_header(tape);

View File

@@ -9,15 +9,16 @@
#ifndef StaticAnalyser_Commodore_Tape_hpp
#define StaticAnalyser_Commodore_Tape_hpp
#include "../../Storage/Tape/Tape.hpp"
#include "../../../Storage/Tape/Tape.hpp"
#include "File.hpp"
#include <list>
namespace StaticAnalyser {
namespace Analyser {
namespace Static {
namespace Commodore {
std::list<File> GetFiles(const std::shared_ptr<Storage::Tape::Tape> &tape);
std::vector<File> GetFiles(const std::shared_ptr<Storage::Tape::Tape> &tape);
}
}
}

View File

@@ -10,10 +10,10 @@
#include "Kernel.hpp"
using namespace StaticAnalyser::MOS6502;
using namespace Analyser::Static::MOS6502;
namespace {
using PartialDisassembly = StaticAnalyser::Disassembly::PartialDisassembly<Disassembly, uint16_t>;
using PartialDisassembly = Analyser::Static::Disassembly::PartialDisassembly<Disassembly, uint16_t>;
struct MOS6502Disassembler {
@@ -312,9 +312,9 @@ static void AddToDisassembly(PartialDisassembly &disassembly, const std::vector<
} // end of anonymous namespace
Disassembly StaticAnalyser::MOS6502::Disassemble(
Disassembly Analyser::Static::MOS6502::Disassemble(
const std::vector<uint8_t> &memory,
const std::function<std::size_t(uint16_t)> &address_mapper,
std::vector<uint16_t> entry_points) {
return StaticAnalyser::Disassembly::Disassemble<Disassembly, uint16_t, MOS6502Disassembler>(memory, address_mapper, entry_points);
return Analyser::Static::Disassembly::Disassemble<Disassembly, uint16_t, MOS6502Disassembler>(memory, address_mapper, entry_points);
}

View File

@@ -16,7 +16,8 @@
#include <set>
#include <vector>
namespace StaticAnalyser {
namespace Analyser {
namespace Static {
namespace MOS6502 {
/*!
@@ -95,5 +96,6 @@ Disassembly Disassemble(
}
}
}
#endif /* Disassembler6502_hpp */

View File

@@ -11,7 +11,8 @@
#include <functional>
namespace StaticAnalyser {
namespace Analyser {
namespace Static {
namespace Disassembler {
/*!
@@ -24,6 +25,7 @@ template <typename T> std::function<std::size_t(T)> OffsetMapper(T start_address
};
}
}
}
}

View File

@@ -9,7 +9,8 @@
#ifndef Kernel_hpp
#define Kernel_hpp
namespace StaticAnalyser {
namespace Analyser {
namespace Static {
namespace Disassembly {
template <typename D, typename S> struct PartialDisassembly {
@@ -44,6 +45,7 @@ template <typename D, typename S, typename Disassembler> D Disassemble(
return partial_disassembly.disassembly;
}
}
}
}

View File

@@ -10,10 +10,10 @@
#include "Kernel.hpp"
using namespace StaticAnalyser::Z80;
using namespace Analyser::Static::Z80;
namespace {
using PartialDisassembly = StaticAnalyser::Disassembly::PartialDisassembly<Disassembly, uint16_t>;
using PartialDisassembly = Analyser::Static::Disassembly::PartialDisassembly<Disassembly, uint16_t>;
class Accessor {
public:
@@ -611,9 +611,9 @@ struct Z80Disassembler {
} // end of anonymous namespace
Disassembly StaticAnalyser::Z80::Disassemble(
Disassembly Analyser::Static::Z80::Disassemble(
const std::vector<uint8_t> &memory,
const std::function<std::size_t(uint16_t)> &address_mapper,
std::vector<uint16_t> entry_points) {
return StaticAnalyser::Disassembly::Disassemble<Disassembly, uint16_t, Z80Disassembler>(memory, address_mapper, entry_points);
return Analyser::Static::Disassembly::Disassemble<Disassembly, uint16_t, Z80Disassembler>(memory, address_mapper, entry_points);
}

View File

@@ -15,7 +15,8 @@
#include <set>
#include <vector>
namespace StaticAnalyser {
namespace Analyser {
namespace Static {
namespace Z80 {
struct Instruction {
@@ -84,5 +85,6 @@ Disassembly Disassemble(
}
}
}
#endif /* StaticAnalyser_Disassembler_Z80_hpp */

View File

@@ -0,0 +1,40 @@
//
// Cartridge.hpp
// Clock Signal
//
// Created by Thomas Harte on 25/01/2018.
// Copyright © 2018 Thomas Harte. All rights reserved.
//
#ifndef Cartridge_hpp
#define Cartridge_hpp
#include "../../../Storage/Cartridge/Cartridge.hpp"
namespace Analyser {
namespace Static {
namespace MSX {
/*!
Extends the base cartridge class by adding a (guess at) the banking scheme.
*/
struct Cartridge: public ::Storage::Cartridge::Cartridge {
enum Type {
None,
Konami,
KonamiWithSCC,
ASCII8kb,
ASCII16kb,
FMPac
};
const Type type;
Cartridge(const std::vector<Segment> &segments, Type type) :
Storage::Cartridge::Cartridge(segments), type(type) {}
};
}
}
}
#endif /* Cartridge_hpp */

View File

@@ -0,0 +1,292 @@
//
// StaticAnalyser.cpp
// Clock Signal
//
// Created by Thomas Harte on 25/11/2017.
// Copyright © 2017 Thomas Harte. All rights reserved.
//
#include "StaticAnalyser.hpp"
#include "Cartridge.hpp"
#include "Tape.hpp"
#include "../Disassembler/Z80.hpp"
#include "../Disassembler/AddressMapper.hpp"
#include <algorithm>
static std::unique_ptr<Analyser::Static::Target> CartridgeTarget(
const Storage::Cartridge::Cartridge::Segment &segment,
uint16_t start_address,
Analyser::Static::MSX::Cartridge::Type type,
float confidence) {
// Size down to a multiple of 8kb in size and apply the start address.
std::vector<Storage::Cartridge::Cartridge::Segment> output_segments;
if(segment.data.size() & 0x1fff) {
std::vector<uint8_t> truncated_data;
std::vector<uint8_t>::difference_type truncated_size = static_cast<std::vector<uint8_t>::difference_type>(segment.data.size()) & ~0x1fff;
truncated_data.insert(truncated_data.begin(), segment.data.begin(), segment.data.begin() + truncated_size);
output_segments.emplace_back(start_address, truncated_data);
} else {
output_segments.emplace_back(start_address, segment.data);
}
std::unique_ptr<Analyser::Static::Target> target(new Analyser::Static::Target);
target->machine = Analyser::Machine::MSX;
target->confidence = confidence;
if(type == Analyser::Static::MSX::Cartridge::Type::None) {
target->media.cartridges.emplace_back(new Storage::Cartridge::Cartridge(output_segments));
} else {
target->media.cartridges.emplace_back(new Analyser::Static::MSX::Cartridge(output_segments, type));
}
return target;
}
/*
Expected standard cartridge format:
DEFB "AB" ; expansion ROM header
DEFW initcode ; start of the init code, 0 if no initcode
DEFW callstat; pointer to CALL statement handler, 0 if no such handler
DEFW device; pointer to expansion device handler, 0 if no such handler
DEFW basic ; pointer to the start of a tokenized basicprogram, 0 if no basicprogram
DEFS 6,0 ; room reserved for future extensions
MSX cartridges often include banking hardware; those games were marketed as MegaROMs. The file
format that the MSX community has decided upon doesn't retain the type of hardware included, so
this analyser has to guess.
(additional audio hardware is also sometimes included, but it's implied by the banking hardware)
*/
static std::vector<std::unique_ptr<Analyser::Static::Target>> CartridgeTargetsFrom(
const std::vector<std::shared_ptr<Storage::Cartridge::Cartridge>> &cartridges) {
// No cartridges implies no targets.
if(cartridges.empty()) {
return {};
}
std::vector<std::unique_ptr<Analyser::Static::Target>> targets;
for(const auto &cartridge : cartridges) {
const auto &segments = cartridge->get_segments();
// Only one mapped item is allowed.
if(segments.size() != 1) continue;
// Which must be no more than 63 bytes larger than a multiple of 8 kb in size.
Storage::Cartridge::Cartridge::Segment segment = segments.front();
const size_t data_size = segment.data.size();
if(data_size < 0x2000 || (data_size & 0x1fff) > 64) continue;
// Check for a ROM header at address 0; if it's not found then try 0x4000
// and adjust the start address;
uint16_t start_address = 0;
bool found_start = false;
if(segment.data[0] == 0x41 && segment.data[1] == 0x42) {
start_address = 0x4000;
found_start = true;
} else if(segment.data.size() >= 0x8000 && segment.data[0x4000] == 0x41 && segment.data[0x4001] == 0x42) {
start_address = 0;
found_start = true;
}
// Reject cartridge if the ROM header wasn't found.
if(!found_start) continue;
uint16_t init_address = static_cast<uint16_t>(segment.data[2] | (segment.data[3] << 8));
// TODO: check for a rational init address?
// If this ROM is less than 48kb in size then it's an ordinary ROM. Just emplace it and move on.
if(data_size <= 0xc000) {
targets.emplace_back(CartridgeTarget(segment, start_address, Analyser::Static::MSX::Cartridge::Type::None, 1.0));
continue;
}
// If this ROM is greater than 48kb in size then some sort of MegaROM scheme must
// be at play; disassemble to try to figure it out.
std::vector<uint8_t> first_8k;
first_8k.insert(first_8k.begin(), segment.data.begin(), segment.data.begin() + 8192);
Analyser::Static::Z80::Disassembly disassembly =
Analyser::Static::Z80::Disassemble(
first_8k,
Analyser::Static::Disassembler::OffsetMapper(start_address),
{ init_address }
);
// // Look for a indirect store followed by an unconditional JP or CALL into another
// // segment, that's a fairly explicit sign where found.
using Instruction = Analyser::Static::Z80::Instruction;
std::map<uint16_t, Instruction> &instructions = disassembly.instructions_by_address;
bool is_ascii = false;
// auto iterator = instructions.begin();
// while(iterator != instructions.end()) {
// auto next_iterator = iterator;
// next_iterator++;
// if(next_iterator == instructions.end()) break;
//
// if( iterator->second.operation == Instruction::Operation::LD &&
// iterator->second.destination == Instruction::Location::Operand_Indirect &&
// (
// iterator->second.operand == 0x5000 ||
// iterator->second.operand == 0x6000 ||
// iterator->second.operand == 0x6800 ||
// iterator->second.operand == 0x7000 ||
// iterator->second.operand == 0x77ff ||
// iterator->second.operand == 0x7800 ||
// iterator->second.operand == 0x8000 ||
// iterator->second.operand == 0x9000 ||
// iterator->second.operand == 0xa000
// ) &&
// (
// next_iterator->second.operation == Instruction::Operation::CALL ||
// next_iterator->second.operation == Instruction::Operation::JP
// ) &&
// ((next_iterator->second.operand >> 13) != (0x4000 >> 13))
// ) {
// const uint16_t address = static_cast<uint16_t>(next_iterator->second.operand);
// switch(iterator->second.operand) {
// case 0x6000:
// if(address >= 0x6000 && address < 0x8000) {
// target.msx.cartridge_type = Analyser::Static::MSXCartridgeType::KonamiWithSCC;
// }
// break;
// case 0x6800:
// if(address >= 0x6000 && address < 0x6800) {
// target.msx.cartridge_type = Analyser::Static::MSXCartridgeType::ASCII8kb;
// }
// break;
// case 0x7000:
// if(address >= 0x6000 && address < 0x8000) {
// target.msx.cartridge_type = Analyser::Static::MSXCartridgeType::KonamiWithSCC;
// }
// if(address >= 0x7000 && address < 0x7800) {
// is_ascii = true;
// }
// break;
// case 0x77ff:
// if(address >= 0x7000 && address < 0x7800) {
// target.msx.cartridge_type = Analyser::Static::MSXCartridgeType::ASCII16kb;
// }
// break;
// case 0x7800:
// if(address >= 0xa000 && address < 0xc000) {
// target.msx.cartridge_type = Analyser::Static::MSXCartridgeType::ASCII8kb;
// }
// break;
// case 0x8000:
// if(address >= 0x8000 && address < 0xa000) {
// target.msx.cartridge_type = Analyser::Static::MSXCartridgeType::KonamiWithSCC;
// }
// break;
// case 0x9000:
// if(address >= 0x8000 && address < 0xa000) {
// target.msx.cartridge_type = Analyser::Static::MSXCartridgeType::KonamiWithSCC;
// }
// break;
// case 0xa000:
// if(address >= 0xa000 && address < 0xc000) {
// target.msx.cartridge_type = Analyser::Static::MSXCartridgeType::Konami;
// }
// break;
// case 0xb000:
// if(address >= 0xa000 && address < 0xc000) {
// target.msx.cartridge_type = Analyser::Static::MSXCartridgeType::KonamiWithSCC;
// }
// break;
// }
// }
//
// iterator = next_iterator;
// Look for LD (nnnn), A instructions, and collate those addresses.
std::map<uint16_t, int> address_counts;
for(const auto &instruction_pair : instructions) {
if( instruction_pair.second.operation == Instruction::Operation::LD &&
instruction_pair.second.destination == Instruction::Location::Operand_Indirect &&
instruction_pair.second.source == Instruction::Location::A) {
address_counts[static_cast<uint16_t>(instruction_pair.second.operand)]++;
}
}
// Weight confidences by number of observed hits.
float total_hits =
static_cast<float>(
address_counts[0x6000] + address_counts[0x6800] +
address_counts[0x7000] + address_counts[0x7800] +
address_counts[0x77ff] + address_counts[0x8000] +
address_counts[0xa000] + address_counts[0x5000] +
address_counts[0x9000] + address_counts[0xb000]
);
targets.push_back(CartridgeTarget(
segment,
start_address,
Analyser::Static::MSX::Cartridge::ASCII8kb,
static_cast<float>( address_counts[0x6000] +
address_counts[0x6800] +
address_counts[0x7000] +
address_counts[0x7800]) / total_hits));
targets.push_back(CartridgeTarget(
segment,
start_address,
Analyser::Static::MSX::Cartridge::ASCII16kb,
static_cast<float>( address_counts[0x6000] +
address_counts[0x7000] +
address_counts[0x77ff]) / total_hits));
if(!is_ascii) {
targets.push_back(CartridgeTarget(
segment,
start_address,
Analyser::Static::MSX::Cartridge::Konami,
static_cast<float>( address_counts[0x6000] +
address_counts[0x8000] +
address_counts[0xa000]) / total_hits));
}
if(!is_ascii) {
targets.push_back(CartridgeTarget(
segment,
start_address,
Analyser::Static::MSX::Cartridge::KonamiWithSCC,
static_cast<float>( address_counts[0x5000] +
address_counts[0x7000] +
address_counts[0x9000] +
address_counts[0xb000]) / total_hits));
}
}
return targets;
}
void Analyser::Static::MSX::AddTargets(const Media &media, std::vector<std::unique_ptr<Target>> &destination) {
// Append targets for any cartridges that look correct.
std::vector<std::unique_ptr<Target>> cartridge_targets = CartridgeTargetsFrom(media.cartridges);
std::move(cartridge_targets.begin(), cartridge_targets.end(), std::back_inserter(destination));
// Consider building a target for disks and/or tapes.
std::unique_ptr<Target> target(new Target);
// Check tapes for loadable files.
for(const auto &tape : media.tapes) {
std::vector<File> files_on_tape = GetFiles(tape);
if(!files_on_tape.empty()) {
switch(files_on_tape.front().type) {
case File::Type::ASCII: target->loading_command = "RUN\"CAS:\r"; break;
case File::Type::TokenisedBASIC: target->loading_command = "CLOAD\rRUN\r"; break;
case File::Type::Binary: target->loading_command = "BLOAD\"CAS:\",R\r"; break;
default: break;
}
target->media.tapes.push_back(tape);
}
}
// Blindly accept disks for now.
target->media.disks = media.disks;
if(!target->media.empty()) {
target->machine = Machine::MSX;
target->confidence = 1.0;
destination.push_back(std::move(target));
}
}

View File

@@ -11,11 +11,13 @@
#include "../StaticAnalyser.hpp"
namespace StaticAnalyser {
namespace Analyser {
namespace Static {
namespace MSX {
void AddTargets(const Media &media, std::list<Target> &destination);
void AddTargets(const Media &media, std::vector<std::unique_ptr<Target>> &destination);
}
}
}

View File

@@ -8,9 +8,9 @@
#include "Tape.hpp"
#include "../../Storage/Tape/Parsers/MSX.hpp"
#include "../../../Storage/Tape/Parsers/MSX.hpp"
using namespace StaticAnalyser::MSX;
using namespace Analyser::Static::MSX;
File::File(File &&rhs) :
name(std::move(rhs.name)),
@@ -24,7 +24,7 @@ File::File() :
starting_address(0),
entry_address(0) {} // For the sake of initialising in a defined state.
std::vector<File> StaticAnalyser::MSX::GetFiles(const std::shared_ptr<Storage::Tape::Tape> &tape) {
std::vector<File> Analyser::Static::MSX::GetFiles(const std::shared_ptr<Storage::Tape::Tape> &tape) {
std::vector<File> files;
Storage::Tape::BinaryTapePlayer tape_player(1000000);

View File

@@ -9,12 +9,13 @@
#ifndef StaticAnalyser_MSX_Tape_hpp
#define StaticAnalyser_MSX_Tape_hpp
#include "../../Storage/Tape/Tape.hpp"
#include "../../../Storage/Tape/Tape.hpp"
#include <string>
#include <vector>
namespace StaticAnalyser {
namespace Analyser {
namespace Static {
namespace MSX {
struct File {
@@ -36,6 +37,7 @@ struct File {
std::vector<File> GetFiles(const std::shared_ptr<Storage::Tape::Tape> &tape);
}
}
}

View File

@@ -12,9 +12,9 @@
#include "../Disassembler/6502.hpp"
#include "../Disassembler/AddressMapper.hpp"
using namespace StaticAnalyser::Oric;
using namespace Analyser::Static::Oric;
static int Score(const StaticAnalyser::MOS6502::Disassembly &disassembly, const std::set<uint16_t> &rom_functions, const std::set<uint16_t> &variable_locations) {
static int Score(const Analyser::Static::MOS6502::Disassembly &disassembly, const std::set<uint16_t> &rom_functions, const std::set<uint16_t> &variable_locations) {
int score = 0;
for(auto address : disassembly.outward_calls) score += (rom_functions.find(address) != rom_functions.end()) ? 1 : -1;
@@ -24,7 +24,7 @@ static int Score(const StaticAnalyser::MOS6502::Disassembly &disassembly, const
return score;
}
static int Basic10Score(const StaticAnalyser::MOS6502::Disassembly &disassembly) {
static int Basic10Score(const Analyser::Static::MOS6502::Disassembly &disassembly) {
std::set<uint16_t> rom_functions = {
0x0228, 0x022b,
0xc3ca, 0xc3f8, 0xc448, 0xc47c, 0xc4b5, 0xc4e3, 0xc4e0, 0xc524, 0xc56f, 0xc5a2, 0xc5f8, 0xc60a, 0xc6a5, 0xc6de, 0xc719, 0xc738,
@@ -48,7 +48,7 @@ static int Basic10Score(const StaticAnalyser::MOS6502::Disassembly &disassembly)
return Score(disassembly, rom_functions, variable_locations);
}
static int Basic11Score(const StaticAnalyser::MOS6502::Disassembly &disassembly) {
static int Basic11Score(const Analyser::Static::MOS6502::Disassembly &disassembly) {
std::set<uint16_t> rom_functions = {
0x0238, 0x023b, 0x023e, 0x0241, 0x0244, 0x0247,
0xc3c6, 0xc3f4, 0xc444, 0xc47c, 0xc4a8, 0xc4d3, 0xc4e0, 0xc524, 0xc55f, 0xc592, 0xc5e8, 0xc5fa, 0xc692, 0xc6b3, 0xc6ee, 0xc70d,
@@ -73,23 +73,23 @@ static int Basic11Score(const StaticAnalyser::MOS6502::Disassembly &disassembly)
return Score(disassembly, rom_functions, variable_locations);
}
void StaticAnalyser::Oric::AddTargets(const Media &media, std::list<Target> &destination) {
Target target;
target.machine = Target::Oric;
target.probability = 1.0;
void Analyser::Static::Oric::AddTargets(const Media &media, std::vector<std::unique_ptr<Target>> &destination) {
std::unique_ptr<Target> target(new Target);
target->machine = Machine::Oric;
target->confidence = 1.0;
int basic10_votes = 0;
int basic11_votes = 0;
for(auto &tape : media.tapes) {
std::list<File> tape_files = GetFiles(tape);
std::vector<File> tape_files = GetFiles(tape);
tape->reset();
if(tape_files.size()) {
for(auto file : tape_files) {
if(file.data_type == File::MachineCode) {
std::vector<uint16_t> entry_points = {file.starting_address};
StaticAnalyser::MOS6502::Disassembly disassembly =
StaticAnalyser::MOS6502::Disassemble(file.data, StaticAnalyser::Disassembler::OffsetMapper(file.starting_address), entry_points);
Analyser::Static::MOS6502::Disassembly disassembly =
Analyser::Static::MOS6502::Disassemble(file.data, Analyser::Static::Disassembler::OffsetMapper(file.starting_address), entry_points);
int basic10_score = Basic10Score(disassembly);
int basic11_score = Basic11Score(disassembly);
@@ -97,23 +97,23 @@ void StaticAnalyser::Oric::AddTargets(const Media &media, std::list<Target> &des
}
}
target.media.tapes.push_back(tape);
target.loading_command = "CLOAD\"\"\n";
target->media.tapes.push_back(tape);
target->loading_command = "CLOAD\"\"\n";
}
}
// trust that any disk supplied can be handled by the Microdisc. TODO: check.
if(!media.disks.empty()) {
target.oric.has_microdisc = true;
target.media.disks = media.disks;
target->oric.has_microdisc = true;
target->media.disks = media.disks;
} else {
target.oric.has_microdisc = false;
target->oric.has_microdisc = false;
}
// TODO: really this should add two targets if not all votes agree
target.oric.use_atmos_rom = basic11_votes >= basic10_votes;
if(target.oric.has_microdisc) target.oric.use_atmos_rom = true;
target->oric.use_atmos_rom = basic11_votes >= basic10_votes;
if(target->oric.has_microdisc) target->oric.use_atmos_rom = true;
if(target.media.tapes.size() || target.media.disks.size() || target.media.cartridges.size())
destination.push_back(target);
if(target->media.tapes.size() || target->media.disks.size() || target->media.cartridges.size())
destination.push_back(std::move(target));
}

View File

@@ -11,13 +11,14 @@
#include "../StaticAnalyser.hpp"
namespace StaticAnalyser {
namespace Analyser {
namespace Static {
namespace Oric {
void AddTargets(const Media &media, std::list<Target> &destination);
void AddTargets(const Media &media, std::vector<std::unique_ptr<Target>> &destination);
}
}
}
#endif /* StaticAnalyser_hpp */

View File

@@ -7,12 +7,12 @@
//
#include "Tape.hpp"
#include "../../Storage/Tape/Parsers/Oric.hpp"
#include "../../../Storage/Tape/Parsers/Oric.hpp"
using namespace StaticAnalyser::Oric;
using namespace Analyser::Static::Oric;
std::list<File> StaticAnalyser::Oric::GetFiles(const std::shared_ptr<Storage::Tape::Tape> &tape) {
std::list<File> files;
std::vector<File> Analyser::Static::Oric::GetFiles(const std::shared_ptr<Storage::Tape::Tape> &tape) {
std::vector<File> files;
Storage::Tape::Oric::Parser parser;
while(!tape->is_at_end()) {

View File

@@ -9,12 +9,13 @@
#ifndef StaticAnalyser_Oric_Tape_hpp
#define StaticAnalyser_Oric_Tape_hpp
#include "../../Storage/Tape/Tape.hpp"
#include <list>
#include "../../../Storage/Tape/Tape.hpp"
#include <string>
#include <vector>
namespace StaticAnalyser {
namespace Analyser {
namespace Static {
namespace Oric {
struct File {
@@ -30,8 +31,9 @@ struct File {
std::vector<uint8_t> data;
};
std::list<File> GetFiles(const std::shared_ptr<Storage::Tape::Tape> &tape);
std::vector<File> GetFiles(const std::shared_ptr<Storage::Tape::Tape> &tape);
}
}
}

View File

@@ -8,6 +8,7 @@
#include "StaticAnalyser.hpp"
#include <algorithm>
#include <cstdlib>
#include <cstring>
@@ -15,40 +16,41 @@
#include "Acorn/StaticAnalyser.hpp"
#include "AmstradCPC/StaticAnalyser.hpp"
#include "Atari/StaticAnalyser.hpp"
#include "Coleco/StaticAnalyser.hpp"
#include "Commodore/StaticAnalyser.hpp"
#include "MSX/StaticAnalyser.hpp"
#include "Oric/StaticAnalyser.hpp"
#include "ZX8081/StaticAnalyser.hpp"
// Cartridges
#include "../Storage/Cartridge/Formats/BinaryDump.hpp"
#include "../Storage/Cartridge/Formats/PRG.hpp"
#include "../../Storage/Cartridge/Formats/BinaryDump.hpp"
#include "../../Storage/Cartridge/Formats/PRG.hpp"
// Disks
#include "../Storage/Disk/DiskImage/Formats/AcornADF.hpp"
#include "../Storage/Disk/DiskImage/Formats/CPCDSK.hpp"
#include "../Storage/Disk/DiskImage/Formats/D64.hpp"
#include "../Storage/Disk/DiskImage/Formats/G64.hpp"
#include "../Storage/Disk/DiskImage/Formats/DMK.hpp"
#include "../Storage/Disk/DiskImage/Formats/HFE.hpp"
#include "../Storage/Disk/DiskImage/Formats/MSXDSK.hpp"
#include "../Storage/Disk/DiskImage/Formats/OricMFMDSK.hpp"
#include "../Storage/Disk/DiskImage/Formats/SSD.hpp"
#include "../../Storage/Disk/DiskImage/Formats/AcornADF.hpp"
#include "../../Storage/Disk/DiskImage/Formats/CPCDSK.hpp"
#include "../../Storage/Disk/DiskImage/Formats/D64.hpp"
#include "../../Storage/Disk/DiskImage/Formats/G64.hpp"
#include "../../Storage/Disk/DiskImage/Formats/DMK.hpp"
#include "../../Storage/Disk/DiskImage/Formats/HFE.hpp"
#include "../../Storage/Disk/DiskImage/Formats/MSXDSK.hpp"
#include "../../Storage/Disk/DiskImage/Formats/OricMFMDSK.hpp"
#include "../../Storage/Disk/DiskImage/Formats/SSD.hpp"
// Tapes
#include "../Storage/Tape/Formats/CAS.hpp"
#include "../Storage/Tape/Formats/CommodoreTAP.hpp"
#include "../Storage/Tape/Formats/CSW.hpp"
#include "../Storage/Tape/Formats/OricTAP.hpp"
#include "../Storage/Tape/Formats/TapePRG.hpp"
#include "../Storage/Tape/Formats/TapeUEF.hpp"
#include "../Storage/Tape/Formats/TZX.hpp"
#include "../Storage/Tape/Formats/ZX80O81P.hpp"
#include "../../Storage/Tape/Formats/CAS.hpp"
#include "../../Storage/Tape/Formats/CommodoreTAP.hpp"
#include "../../Storage/Tape/Formats/CSW.hpp"
#include "../../Storage/Tape/Formats/OricTAP.hpp"
#include "../../Storage/Tape/Formats/TapePRG.hpp"
#include "../../Storage/Tape/Formats/TapeUEF.hpp"
#include "../../Storage/Tape/Formats/TZX.hpp"
#include "../../Storage/Tape/Formats/ZX80O81P.hpp"
// Target Platform Types
#include "../Storage/TargetPlatforms.hpp"
#include "../../Storage/TargetPlatforms.hpp"
using namespace StaticAnalyser;
using namespace Analyser::Static;
static Media GetMediaAndPlatforms(const char *file_name, TargetPlatform::IntType &potential_platforms) {
// Get the extension, if any; it will be assumed that extensions are reliable, so an extension is a broad-phase
@@ -88,8 +90,9 @@ static Media GetMediaAndPlatforms(const char *file_name, TargetPlatform::IntType
Format("adf", result.disks, Disk::DiskImageHolder<Storage::Disk::AcornADF>, TargetPlatform::Acorn) // ADF
Format("bin", result.cartridges, Cartridge::BinaryDump, TargetPlatform::Atari2600) // BIN
Format("cas", result.tapes, Tape::CAS, TargetPlatform::MSX) // CAS
Format("cdt", result.tapes, Tape::TZX, TargetPlatform::AmstradCPC) // CDT
Format("csw", result.tapes, Tape::CSW, TargetPlatform::AllTape) // CSW
Format("cdt", result.tapes, Tape::TZX, TargetPlatform::AmstradCPC) // CDT
Format("col", result.cartridges, Cartridge::BinaryDump, TargetPlatform::ColecoVision) // COL
Format("csw", result.tapes, Tape::CSW, TargetPlatform::AllTape) // CSW
Format("d64", result.disks, Disk::DiskImageHolder<Storage::Disk::D64>, TargetPlatform::Commodore) // D64
Format("dmk", result.disks, Disk::DiskImageHolder<Storage::Disk::DMK>, TargetPlatform::MSX) // DMK
Format("dsd", result.disks, Disk::DiskImageHolder<Storage::Disk::SSD>, TargetPlatform::Acorn) // DSD
@@ -114,7 +117,10 @@ static Media GetMediaAndPlatforms(const char *file_name, TargetPlatform::IntType
}
}
Format("rom", result.cartridges, Cartridge::BinaryDump, TargetPlatform::Acorn | TargetPlatform::MSX) // ROM
Format( "rom",
result.cartridges,
Cartridge::BinaryDump,
TargetPlatform::Acorn | TargetPlatform::MSX | TargetPlatform::ColecoVision) // ROM
Format("ssd", result.disks, Disk::DiskImageHolder<Storage::Disk::SSD>, TargetPlatform::Acorn) // SSD
Format("tap", result.tapes, Tape::CommodoreTAP, TargetPlatform::Commodore) // TAP (Commodore)
Format("tap", result.tapes, Tape::OricTAP, TargetPlatform::Oric) // TAP (Oric)
@@ -134,13 +140,13 @@ static Media GetMediaAndPlatforms(const char *file_name, TargetPlatform::IntType
return result;
}
Media StaticAnalyser::GetMedia(const char *file_name) {
Media Analyser::Static::GetMedia(const char *file_name) {
TargetPlatform::IntType throwaway;
return GetMediaAndPlatforms(file_name, throwaway);
}
std::list<Target> StaticAnalyser::GetTargets(const char *file_name) {
std::list<Target> targets;
std::vector<std::unique_ptr<Target>> Analyser::Static::GetTargets(const char *file_name) {
std::vector<std::unique_ptr<Target>> targets;
// Collect all disks, tapes and ROMs as can be extrapolated from this file, forming the
// union of all platforms this file might be a target for.
@@ -152,17 +158,25 @@ std::list<Target> StaticAnalyser::GetTargets(const char *file_name) {
if(potential_platforms & TargetPlatform::Acorn) Acorn::AddTargets(media, targets);
if(potential_platforms & TargetPlatform::AmstradCPC) AmstradCPC::AddTargets(media, targets);
if(potential_platforms & TargetPlatform::Atari2600) Atari::AddTargets(media, targets);
if(potential_platforms & TargetPlatform::ColecoVision) Coleco::AddTargets(media, targets);
if(potential_platforms & TargetPlatform::Commodore) Commodore::AddTargets(media, targets);
if(potential_platforms & TargetPlatform::MSX) MSX::AddTargets(media, targets);
if(potential_platforms & TargetPlatform::Oric) Oric::AddTargets(media, targets);
if(potential_platforms & TargetPlatform::ZX8081) ZX8081::AddTargets(media, targets, potential_platforms);
// Reset any tapes to their initial position
for(auto target : targets) {
for(auto tape : media.tapes) {
for(auto &target : targets) {
for(auto &tape : target->media.tapes) {
tape->reset();
}
}
// Sort by initial confidence. Use a stable sort in case any of the machine-specific analysers
// picked their insertion order carefully.
std::stable_sort(targets.begin(), targets.end(),
[] (const std::unique_ptr<Target> &a, const std::unique_ptr<Target> &b) {
return a->confidence > b->confidence;
});
return targets;
}

View File

@@ -9,15 +9,17 @@
#ifndef StaticAnalyser_hpp
#define StaticAnalyser_hpp
#include "../Storage/Tape/Tape.hpp"
#include "../Storage/Disk/Disk.hpp"
#include "../Storage/Cartridge/Cartridge.hpp"
#include "../Machines.hpp"
#include "../../Storage/Tape/Tape.hpp"
#include "../../Storage/Disk/Disk.hpp"
#include "../../Storage/Cartridge/Cartridge.hpp"
#include <string>
#include <list>
#include <vector>
namespace StaticAnalyser {
namespace Analyser {
namespace Static {
enum class Vic20MemoryModel {
Unexpanded,
@@ -40,15 +42,6 @@ enum class Atari2600PagingModel {
Pitfall2
};
enum class MSXCartridgeType {
None,
Konami,
KonamiWithSCC,
ASCII8kb,
ASCII16kb,
FMPac
};
enum class ZX8081MemoryModel {
Unexpanded,
SixteenKB,
@@ -65,9 +58,9 @@ enum class AmstradCPCModel {
A list of disks, tapes and cartridges.
*/
struct Media {
std::list<std::shared_ptr<Storage::Disk::Disk>> disks;
std::list<std::shared_ptr<Storage::Tape::Tape>> tapes;
std::list<std::shared_ptr<Storage::Cartridge::Cartridge>> cartridges;
std::vector<std::shared_ptr<Storage::Disk::Disk>> disks;
std::vector<std::shared_ptr<Storage::Tape::Tape>> tapes;
std::vector<std::shared_ptr<Storage::Cartridge::Cartridge>> cartridges;
bool empty() const {
return disks.empty() && tapes.empty() && cartridges.empty();
@@ -79,16 +72,11 @@ struct Media {
and instructions on how to launch the software attached, plus a measure of confidence in this target's correctness.
*/
struct Target {
enum Machine {
AmstradCPC,
Atari2600,
Electron,
MSX,
Oric,
Vic20,
ZX8081
} machine;
float probability;
Machine machine;
Media media;
float confidence;
std::string loading_command;
// TODO: this is too C-like a solution; make Target a base class and
// turn the following into information held by more specific subclasses.
@@ -122,14 +110,7 @@ struct Target {
struct {
AmstradCPCModel model;
} amstradcpc;
struct {
MSXCartridgeType cartridge_type;
} msx;
};
std::string loading_command;
Media media;
};
/*!
@@ -137,13 +118,14 @@ struct Target {
@returns The list of potential targets, sorted from most to least probable.
*/
std::list<Target> GetTargets(const char *file_name);
std::vector<std::unique_ptr<Target>> GetTargets(const char *file_name);
/*!
Inspects the supplied file and determines the media included.
*/
Media GetMedia(const char *file_name);
}
}
#endif /* StaticAnalyser_hpp */

View File

@@ -11,7 +11,7 @@
#include <string>
#include <vector>
#include "../../Storage/Tape/Parsers/ZX8081.hpp"
#include "../../../Storage/Tape/Parsers/ZX8081.hpp"
static std::vector<Storage::Data::ZX8081::File> GetFiles(const std::shared_ptr<Storage::Tape::Tape> &tape) {
std::vector<Storage::Data::ZX8081::File> files;
@@ -27,41 +27,41 @@ static std::vector<Storage::Data::ZX8081::File> GetFiles(const std::shared_ptr<S
return files;
}
void StaticAnalyser::ZX8081::AddTargets(const Media &media, std::list<Target> &destination, TargetPlatform::IntType potential_platforms) {
void Analyser::Static::ZX8081::AddTargets(const Media &media, std::vector<std::unique_ptr<Target>> &destination, TargetPlatform::IntType potential_platforms) {
if(!media.tapes.empty()) {
std::vector<Storage::Data::ZX8081::File> files = GetFiles(media.tapes.front());
media.tapes.front()->reset();
if(!files.empty()) {
StaticAnalyser::Target target;
target.machine = Target::ZX8081;
std::unique_ptr<Target> target(new Target);
target->machine = Machine::ZX8081;
// Guess the machine type from the file only if it isn't already known.
switch(potential_platforms & (TargetPlatform::ZX80 | TargetPlatform::ZX81)) {
default:
target.zx8081.isZX81 = files.front().isZX81;
target->zx8081.isZX81 = files.front().isZX81;
break;
case TargetPlatform::ZX80: target.zx8081.isZX81 = false; break;
case TargetPlatform::ZX81: target.zx8081.isZX81 = true; break;
case TargetPlatform::ZX80: target->zx8081.isZX81 = false; break;
case TargetPlatform::ZX81: target->zx8081.isZX81 = true; break;
}
/*if(files.front().data.size() > 16384) {
target.zx8081.memory_model = ZX8081MemoryModel::SixtyFourKB;
target->zx8081.memory_model = ZX8081MemoryModel::SixtyFourKB;
} else*/ if(files.front().data.size() > 1024) {
target.zx8081.memory_model = ZX8081MemoryModel::SixteenKB;
target->zx8081.memory_model = ZX8081MemoryModel::SixteenKB;
} else {
target.zx8081.memory_model = ZX8081MemoryModel::Unexpanded;
target->zx8081.memory_model = ZX8081MemoryModel::Unexpanded;
}
target.media.tapes = media.tapes;
target->media.tapes = media.tapes;
// TODO: how to run software once loaded? Might require a BASIC detokeniser.
if(target.zx8081.isZX81) {
target.loading_command = "J\"\"\n";
if(target->zx8081.isZX81) {
target->loading_command = "J\"\"\n";
} else {
target.loading_command = "W\n";
target->loading_command = "W\n";
}
destination.push_back(target);
destination.push_back(std::move(target));
}
}
}

View File

@@ -10,13 +10,15 @@
#define StaticAnalyser_ZX8081_StaticAnalyser_hpp
#include "../StaticAnalyser.hpp"
#include "../../Storage/TargetPlatforms.hpp"
#include "../../../Storage/TargetPlatforms.hpp"
namespace StaticAnalyser {
namespace Analyser {
namespace Static {
namespace ZX8081 {
void AddTargets(const Media &media, std::list<Target> &destination, TargetPlatform::IntType potential_platforms);
void AddTargets(const Media &media, std::vector<std::unique_ptr<Target>> &destination, TargetPlatform::IntType potential_platforms);
}
}
}

View File

@@ -53,6 +53,34 @@ const uint8_t StatusFifthSprite = 0x40;
const int StatusSpriteCollisionShift = 5;
const uint8_t StatusSpriteCollision = 0x20;
struct ReverseTable {
std::uint8_t map[256];
ReverseTable() {
for(int c = 0; c < 256; ++c) {
map[c] = static_cast<uint8_t>(
((c & 0x80) >> 7) |
((c & 0x40) >> 5) |
((c & 0x20) >> 3) |
((c & 0x10) >> 1) |
((c & 0x08) << 1) |
((c & 0x04) << 3) |
((c & 0x02) << 5) |
((c & 0x01) << 7)
);
}
}
} reverse_table;
// Bits are reversed in the internal mode value; they're stored
// in the order M1 M2 M3. Hence the definitions below.
enum ScreenMode {
Text = 4,
MultiColour = 2,
ColouredText = 0,
Graphics = 1
};
}
TMS9918Base::TMS9918Base() :
@@ -71,6 +99,12 @@ TMS9918::TMS9918(Personality p) {
crt_->set_output_device(Outputs::CRT::OutputDevice::Monitor);
crt_->set_visible_area(Outputs::CRT::Rect(0.055f, 0.025f, 0.9f, 0.9f));
crt_->set_input_gamma(2.8f);
// The TMS remains in-phase with the NTSC colour clock; this is an empirical measurement
// intended to produce the correct relationship between the hard edges between pixels and
// the colour clock. It was eyeballed rather than derived from any knowledge of the TMS
// colour burst generator because I've yet to find any.
crt_->set_immediate_default_phase(0.85f);
}
Outputs::CRT::CRT *TMS9918::get_crt() {
@@ -274,7 +308,8 @@ void TMS9918::run_for(const HalfCycles cycles) {
int row_base = pattern_name_address_;
int pattern_base = pattern_generator_table_address_;
int colour_base = colour_table_address_;
if(screen_mode_ == 1) {
if(screen_mode_ == ScreenMode::Graphics) {
// If this is high resolution mode, allow the row number to affect the pattern and colour addresses.
pattern_base &= 0x2000 | ((row_ & 0xc0) << 5);
colour_base &= 0x2000 | ((row_ & 0xc0) << 5);
}
@@ -285,7 +320,7 @@ void TMS9918::run_for(const HalfCycles cycles) {
const int pattern_names_end = (end - 27 + 3) >> 2;
std::memcpy(&pattern_names_[pattern_names_start], &ram_[row_base + pattern_names_start], static_cast<size_t>(pattern_names_end - pattern_names_start));
// Colours are collected ever fourth window starting from window 29.
// Colours are collected every fourth window starting from window 29.
const int colours_start = (access_pointer_ - 29 + 3) >> 2;
const int colours_end = (end - 29 + 3) >> 2;
if(screen_mode_ != 1) {
@@ -301,8 +336,11 @@ void TMS9918::run_for(const HalfCycles cycles) {
// Patterns are collected ever fourth window starting from window 30.
const int pattern_buffer_start = (access_pointer_ - 30 + 3) >> 2;
const int pattern_buffer_end = (end - 30 + 3) >> 2;
// Multicolour mode uss a different function of row to pick bytes
const int row = (screen_mode_ != 2) ? (row_ & 7) : ((row_ >> 2) & 7);
for(int column = pattern_buffer_start; column < pattern_buffer_end; ++column) {
pattern_buffer_[column] = ram_[pattern_base + (pattern_names_[column] << 3) + (row_ & 7)];
pattern_buffer_[column] = ram_[pattern_base + (pattern_names_[column] << 3) + row];
}
// Sprite slots occur in three quarters of ever fourth window starting from window 28.
@@ -380,21 +418,21 @@ void TMS9918::run_for(const HalfCycles cycles) {
const int shift = (output_column_ - first_pixel_column_) % 6;
int byte_column = (output_column_ - first_pixel_column_) / 6;
int pattern = pattern_buffer_[byte_column] << shift;
int pattern = reverse_table.map[pattern_buffer_[byte_column]] >> shift;
int pixels_left = pixels_end - output_column_;
int length = std::min(pixels_left, 6 - shift);
while(true) {
pixels_left -= length;
while(length--) {
*pixel_target_ = colours[(pattern >> 7)&0x01];
pixel_target_++;
pattern <<= 1;
for(int c = 0; c < length; ++c) {
pixel_target_[c] = colours[pattern&0x01];
pattern >>= 1;
}
pixel_target_ += length;
if(!pixels_left) break;
length = std::min(6, pixels_left);
byte_column++;
pattern = pattern_buffer_[byte_column];
pattern = reverse_table.map[pattern_buffer_[byte_column]];
}
output_column_ = pixels_end;
} break;
@@ -402,7 +440,7 @@ void TMS9918::run_for(const HalfCycles cycles) {
case LineMode::Character: {
// If this is the start of the visible area, seed sprite shifter positions.
SpriteSet &sprite_set = sprite_sets_[active_sprite_set_ ^ 1];
if(line_mode_ == LineMode::Character && output_column_ == first_pixel_column_) {
if(output_column_ == first_pixel_column_) {
int c = sprite_set.active_sprite_slot;
while(c--) {
SpriteSet::ActiveSprite &sprite = sprite_set.active_sprites[c];
@@ -416,36 +454,46 @@ void TMS9918::run_for(const HalfCycles cycles) {
}
// Paint the background tiles.
const int shift = (output_column_ - first_pixel_column_) & 7;
int byte_column = (output_column_ - first_pixel_column_) >> 3;
const int pixels_left = pixels_end - output_column_;
int length = std::min(pixels_left, 8 - shift);
int pattern = pattern_buffer_[byte_column] << shift;
uint8_t colour = colour_buffer_[byte_column];
uint32_t colours[2] = {
palette[(colour & 15) ? (colour & 15) : background_colour_],
palette[(colour >> 4) ? (colour >> 4) : background_colour_]
};
int background_pixels_left = pixels_left;
while(true) {
background_pixels_left -= length;
while(length--) {
*pixel_target_ = colours[(pattern >> 7)&0x01];
pixel_target_++;
pattern <<= 1;
if(screen_mode_ == ScreenMode::MultiColour) {
int pixel_location = output_column_ - first_pixel_column_;
for(int c = 0; c < pixels_left; ++c) {
pixel_target_[c] = palette[
(pattern_buffer_[(pixel_location + c) >> 3] >> (((pixel_location + c) & 4)^4)) & 15
];
}
pixel_target_ += pixels_left;
} else {
const int shift = (output_column_ - first_pixel_column_) & 7;
int byte_column = (output_column_ - first_pixel_column_) >> 3;
if(!background_pixels_left) break;
length = std::min(8, background_pixels_left);
byte_column++;
int length = std::min(pixels_left, 8 - shift);
pattern = pattern_buffer_[byte_column];
colour = colour_buffer_[byte_column];
colours[0] = palette[(colour & 15) ? (colour & 15) : background_colour_];
colours[1] = palette[(colour >> 4) ? (colour >> 4) : background_colour_];
int pattern = reverse_table.map[pattern_buffer_[byte_column]] >> shift;
uint8_t colour = colour_buffer_[byte_column];
uint32_t colours[2] = {
palette[(colour & 15) ? (colour & 15) : background_colour_],
palette[(colour >> 4) ? (colour >> 4) : background_colour_]
};
int background_pixels_left = pixels_left;
while(true) {
background_pixels_left -= length;
for(int c = 0; c < length; ++c) {
pixel_target_[c] = colours[pattern&0x01];
pattern >>= 1;
}
pixel_target_ += length;
if(!background_pixels_left) break;
length = std::min(8, background_pixels_left);
byte_column++;
pattern = reverse_table.map[pattern_buffer_[byte_column]];
colour = colour_buffer_[byte_column];
colours[0] = palette[(colour & 15) ? (colour & 15) : background_colour_];
colours[1] = palette[(colour >> 4) ? (colour >> 4) : background_colour_];
}
}
// Paint sprites and check for collisions.
@@ -535,7 +583,7 @@ void TMS9918::run_for(const HalfCycles cycles) {
screen_mode_ = next_screen_mode_;
blank_screen_ = next_blank_screen_;
switch(screen_mode_) {
case 2:
case ScreenMode::Text:
line_mode_ = LineMode::Text;
first_pixel_column_ = 69;
first_right_border_column_ = 309;
@@ -589,7 +637,7 @@ void TMS9918::set_register(int address, uint8_t value) {
case 1:
next_blank_screen_ = !(low_write_ & 0x40);
generate_interrupts_ = !!(low_write_ & 0x20);
next_screen_mode_ = (next_screen_mode_ & 1) | ((low_write_ & 0x18) >> 3);
next_screen_mode_ = (next_screen_mode_ & 1) | ((low_write_ & 0x18) >> 2);
sprites_16x16_ = !!(low_write_ & 0x02);
sprites_magnified_ = !!(low_write_ & 0x01);

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@@ -156,6 +156,11 @@ void AY38910::evaluate_output_volume() {
);
}
bool AY38910::is_zero_level() {
// Confirm that the AY is trivially at the zero level if all three volume controls are set to fixed zero.
return output_registers_[0x8] == 0 && output_registers_[0x9] == 0 && output_registers_[0xa] == 0;
}
// MARK: - Register manipulation
void AY38910::select_register(uint8_t r) {

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@@ -85,6 +85,7 @@ class AY38910: public ::Outputs::Speaker::SampleSource {
// to satisfy ::Outputs::Speaker (included via ::Outputs::Filter; not for public consumption
void get_samples(std::size_t number_of_samples, int16_t *target);
bool is_zero_level();
private:
Concurrency::DeferringAsyncTaskQueue &task_queue_;

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@@ -15,12 +15,12 @@ using namespace Konami;
SCC::SCC(Concurrency::DeferringAsyncTaskQueue &task_queue) :
task_queue_(task_queue) {}
bool SCC::is_silent() {
bool SCC::is_zero_level() {
return !(channel_enable_ & 0x1f);
}
void SCC::get_samples(std::size_t number_of_samples, std::int16_t *target) {
if(is_silent()) {
if(is_zero_level()) {
std::memset(target, 0, sizeof(std::int16_t) * number_of_samples);
return;
}

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@@ -27,7 +27,7 @@ class SCC: public ::Outputs::Speaker::SampleSource {
SCC(Concurrency::DeferringAsyncTaskQueue &task_queue);
/// As per ::SampleSource; provides a broadphase test for silence.
bool is_silent();
bool is_zero_level();
/// As per ::SampleSource; provides audio output.
void get_samples(std::size_t number_of_samples, std::int16_t *target);

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@@ -0,0 +1,157 @@
//
// SN76489.cpp
// Clock Signal
//
// Created by Thomas Harte on 26/02/2018.
// Copyright © 2018 Thomas Harte. All rights reserved.
//
#include "SN76489.hpp"
#include <cassert>
#include <cmath>
using namespace TI;
SN76489::SN76489(Personality personality, Concurrency::DeferringAsyncTaskQueue &task_queue, int additional_divider) : task_queue_(task_queue) {
// Build a volume table.
double multiplier = pow(10.0, -0.1);
double volume = 8191.0f;
for(int c = 0; c < 16; ++c) {
volumes_[c] = (int)round(volume);
volume *= multiplier;
}
volumes_[15] = 0;
evaluate_output_volume();
switch(personality) {
case Personality::SN76494:
master_divider_period_ = 2;
shifter_is_16bit_ = false;
break;
case Personality::SN76489:
master_divider_period_ = 16;
shifter_is_16bit_ = false;
break;
case Personality::SMS:
master_divider_period_ = 16;
shifter_is_16bit_ = true;
break;
}
assert((master_divider_period_ % additional_divider) == 0);
assert(additional_divider < master_divider_period_);
master_divider_period_ /= additional_divider;
}
void SN76489::set_register(uint8_t value) {
task_queue_.defer([value, this] () {
if(value & 0x80) {
active_register_ = value;
}
const int channel = (active_register_ >> 5)&3;
if(active_register_ & 0x10) {
// latch for volume
channels_[channel].volume = value & 0xf;
evaluate_output_volume();
} else {
// latch for tone/data
if(channel < 3) {
if(value & 0x80) {
channels_[channel].divider = (channels_[channel].divider & ~0xf) | (value & 0xf);
} else {
channels_[channel].divider = static_cast<uint16_t>((channels_[channel].divider & 0xf) | ((value & 0x3f) << 4));
}
} else {
// writes to the noise register always reset the shifter
noise_shifter_ = shifter_is_16bit_ ? 0x8000 : 0x4000;
if(value & 4) {
noise_mode_ = shifter_is_16bit_ ? Noise16 : Noise15;
} else {
noise_mode_ = shifter_is_16bit_ ? Periodic16 : Periodic15;
}
channels_[3].divider = static_cast<uint16_t>(0x10 << (value & 3));
// Special case: if these bits are both set, the noise channel should track channel 2,
// which is marked with a divider of 0xffff.
if(channels_[3].divider == 0x80) channels_[3].divider = 0xffff;
}
}
});
}
bool SN76489::is_zero_level() {
return channels_[0].volume == 0xf && channels_[1].volume == 0xf && channels_[2].volume == 0xf && channels_[3].volume == 0xf;
}
void SN76489::evaluate_output_volume() {
output_volume_ = static_cast<int16_t>(
channels_[0].level * volumes_[channels_[0].volume] +
channels_[1].level * volumes_[channels_[1].volume] +
channels_[2].level * volumes_[channels_[2].volume] +
channels_[3].level * volumes_[channels_[3].volume]
);
}
void SN76489::get_samples(std::size_t number_of_samples, std::int16_t *target) {
std::size_t c = 0;
while((master_divider_& (master_divider_period_ - 1)) && c < number_of_samples) {
target[c] = output_volume_;
master_divider_++;
c++;
}
while(c < number_of_samples) {
bool did_flip = false;
#define step_channel(x, s) \
if(channels_[x].counter) channels_[x].counter--;\
else {\
channels_[x].level ^= 1;\
channels_[x].counter = channels_[x].divider;\
s;\
}
step_channel(0, /**/);
step_channel(1, /**/);
step_channel(2, did_flip = true);
#undef step_channel
if(channels_[3].divider != 0xffff) {
if(channels_[3].counter) channels_[3].counter--;
else {
did_flip = true;
channels_[3].counter = channels_[3].divider;
}
}
if(did_flip) {
channels_[3].level = noise_shifter_ & 1;
int new_bit = channels_[3].level;
switch(noise_mode_) {
default: break;
case Noise15:
new_bit ^= (noise_shifter_ >> 1);
break;
case Noise16:
new_bit ^= (noise_shifter_ >> 3);
break;
}
noise_shifter_ >>= 1;
noise_shifter_ |= (new_bit & 1) << (shifter_is_16bit_ ? 15 : 14);
}
evaluate_output_volume();
for(int ic = 0; ic < master_divider_period_ && c < number_of_samples; ++ic) {
target[c] = output_volume_;
c++;
master_divider_++;
}
}
master_divider_ &= (master_divider_period_ - 1);
}

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@@ -0,0 +1,67 @@
//
// SN76489.hpp
// Clock Signal
//
// Created by Thomas Harte on 26/02/2018.
// Copyright © 2018 Thomas Harte. All rights reserved.
//
#ifndef SN76489_hpp
#define SN76489_hpp
#include "../../Outputs/Speaker/Implementation/SampleSource.hpp"
#include "../../Concurrency/AsyncTaskQueue.hpp"
namespace TI {
class SN76489: public Outputs::Speaker::SampleSource {
public:
enum class Personality {
SN76489,
SN76494,
SMS
};
/// Creates a new SN76489.
SN76489(Personality personality, Concurrency::DeferringAsyncTaskQueue &task_queue, int additional_divider = 1);
/// Writes a new value to the SN76489.
void set_register(uint8_t value);
// As per SampleSource.
void get_samples(std::size_t number_of_samples, std::int16_t *target);
bool is_zero_level();
private:
int master_divider_ = 0;
int master_divider_period_ = 16;
int16_t output_volume_ = 0;
void evaluate_output_volume();
int volumes_[16];
Concurrency::DeferringAsyncTaskQueue &task_queue_;
struct ToneChannel {
// Programmatically-set state; updated by the processor.
uint16_t divider = 0;
uint8_t volume = 0xf;
// Active state; self-evolving as a function of time.
uint16_t counter = 0;
int level = 0;
} channels_[4];
enum {
Periodic15,
Periodic16,
Noise15,
Noise16
} noise_mode_ = Periodic15;
uint16_t noise_shifter_ = 0;
int active_register_ = 0;
bool shifter_is_16bit_ = false;
};
}
#endif /* SN76489_hpp */

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@@ -80,6 +80,10 @@ void AsyncTaskQueue::flush() {
#endif
}
DeferringAsyncTaskQueue::~DeferringAsyncTaskQueue() {
perform();
}
void DeferringAsyncTaskQueue::defer(std::function<void(void)> function) {
if(!deferred_tasks_) {
deferred_tasks_.reset(new std::list<std::function<void(void)>>);

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@@ -30,7 +30,7 @@ namespace Concurrency {
class AsyncTaskQueue {
public:
AsyncTaskQueue();
~AsyncTaskQueue();
virtual ~AsyncTaskQueue();
/*!
Adds @c function to the queue.
@@ -69,6 +69,8 @@ class AsyncTaskQueue {
*/
class DeferringAsyncTaskQueue: public AsyncTaskQueue {
public:
~DeferringAsyncTaskQueue();
/*!
Adds a function to the deferral list.

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@@ -17,6 +17,11 @@ BestEffortUpdater::BestEffortUpdater() {
update_is_ongoing_.clear();
}
BestEffortUpdater::~BestEffortUpdater() {
// Don't allow further deconstruction until the task queue is stopped.
flush();
}
void BestEffortUpdater::update() {
// Perform an update only if one is not currently ongoing.
if(!update_is_ongoing_.test_and_set()) {

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@@ -26,6 +26,7 @@ namespace Concurrency {
class BestEffortUpdater {
public:
BestEffortUpdater();
~BestEffortUpdater();
/// A delegate receives timing cues.
struct Delegate {

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@@ -26,6 +26,10 @@ struct Option {
virtual ~Option() {}
Option(const std::string &long_name, const std::string &short_name) : long_name(long_name), short_name(short_name) {}
virtual bool operator==(const Option &rhs) {
return long_name == rhs.long_name && short_name == rhs.short_name;
}
};
struct BooleanOption: public Option {
@@ -35,6 +39,12 @@ struct BooleanOption: public Option {
struct ListOption: public Option {
std::vector<std::string> options;
ListOption(const std::string &long_name, const std::string &short_name, const std::vector<std::string> &options) : Option(long_name, short_name), options(options) {}
virtual bool operator==(const Option &rhs) {
const ListOption *list_rhs = dynamic_cast<const ListOption *>(&rhs);
if(!list_rhs) return false;
return long_name == rhs.long_name && short_name == rhs.short_name && options == list_rhs->options;
}
};
struct BooleanSelection;

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@@ -21,18 +21,45 @@ class Joystick {
public:
virtual ~Joystick() {}
enum class DigitalInput {
Up, Down, Left, Right, Fire
struct DigitalInput {
enum Type {
Up, Down, Left, Right, Fire,
Key
} type;
union {
struct {
int index;
} control;
struct {
wchar_t symbol;
} key;
} info;
DigitalInput(Type type, int index = 0) : type(type) {
info.control.index = index;
}
DigitalInput(wchar_t symbol) : type(Key) {
info.key.symbol = symbol;
}
bool operator == (const DigitalInput &rhs) {
if(rhs.type != type) return false;
if(rhs.type == Key) {
return rhs.info.key.symbol == info.key.symbol;
} else {
return rhs.info.control.index == info.control.index;
}
}
};
virtual std::vector<DigitalInput> get_inputs() = 0;
// Host interface.
virtual void set_digital_input(DigitalInput digital_input, bool is_active) = 0;
virtual void set_digital_input(const DigitalInput &digital_input, bool is_active) = 0;
virtual void reset_all_inputs() {
set_digital_input(DigitalInput::Up, false);
set_digital_input(DigitalInput::Down, false);
set_digital_input(DigitalInput::Left, false);
set_digital_input(DigitalInput::Right, false);
set_digital_input(DigitalInput::Fire, false);
for(const auto &input: get_inputs()) {
set_digital_input(input, false);
}
}
};

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@@ -867,19 +867,19 @@ class ConcreteMachine:
}
/// The ConfigurationTarget entry point; should configure this meachine as described by @c target.
void configure_as_target(const StaticAnalyser::Target &target) override final {
void configure_as_target(const Analyser::Static::Target &target) override final {
switch(target.amstradcpc.model) {
case StaticAnalyser::AmstradCPCModel::CPC464:
case Analyser::Static::AmstradCPCModel::CPC464:
rom_model_ = ROMType::OS464;
has_128k_ = false;
has_fdc_ = false;
break;
case StaticAnalyser::AmstradCPCModel::CPC664:
case Analyser::Static::AmstradCPCModel::CPC664:
rom_model_ = ROMType::OS664;
has_128k_ = false;
has_fdc_ = true;
break;
case StaticAnalyser::AmstradCPCModel::CPC6128:
case Analyser::Static::AmstradCPCModel::CPC6128:
rom_model_ = ROMType::OS6128;
has_128k_ = true;
has_fdc_ = true;
@@ -908,7 +908,7 @@ class ConcreteMachine:
insert_media(target.media);
}
bool insert_media(const StaticAnalyser::Media &media) override final {
bool insert_media(const Analyser::Static::Media &media) override final {
// If there are any tapes supplied, use the first of them.
if(!media.tapes.empty()) {
tape_player_.set_tape(media.tapes.front());
@@ -976,8 +976,8 @@ class ConcreteMachine:
key_state_.clear_all_keys();
}
KeyboardMapper &get_keyboard_mapper() override {
return keyboard_mapper_;
KeyboardMapper *get_keyboard_mapper() override {
return &keyboard_mapper_;
}
private:

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@@ -36,8 +36,18 @@ class Joystick: public Inputs::Joystick {
Joystick(Bus *bus, std::size_t shift, std::size_t fire_tia_input) :
bus_(bus), shift_(shift), fire_tia_input_(fire_tia_input) {}
void set_digital_input(DigitalInput digital_input, bool is_active) {
switch(digital_input) {
std::vector<DigitalInput> get_inputs() override {
return {
DigitalInput(DigitalInput::Up),
DigitalInput(DigitalInput::Down),
DigitalInput(DigitalInput::Left),
DigitalInput(DigitalInput::Right),
DigitalInput(DigitalInput::Fire)
};
}
void set_digital_input(const DigitalInput &digital_input, bool is_active) override {
switch(digital_input.type) {
case DigitalInput::Up: bus_->mos6532_.update_port_input(0, 0x10 >> shift_, is_active); break;
case DigitalInput::Down: bus_->mos6532_.update_port_input(0, 0x20 >> shift_, is_active); break;
case DigitalInput::Left: bus_->mos6532_.update_port_input(0, 0x40 >> shift_, is_active); break;
@@ -50,6 +60,8 @@ class Joystick: public Inputs::Joystick {
else
bus_->tia_input_value_[fire_tia_input_] |= 0x80;
break;
default: break;
}
}
@@ -72,34 +84,34 @@ class ConcreteMachine:
close_output();
}
void configure_as_target(const StaticAnalyser::Target &target) override {
void configure_as_target(const Analyser::Static::Target &target) override {
const std::vector<uint8_t> &rom = target.media.cartridges.front()->get_segments().front().data;
switch(target.atari.paging_model) {
case StaticAnalyser::Atari2600PagingModel::ActivisionStack: bus_.reset(new Cartridge::Cartridge<Cartridge::ActivisionStack>(rom)); break;
case StaticAnalyser::Atari2600PagingModel::CBSRamPlus: bus_.reset(new Cartridge::Cartridge<Cartridge::CBSRAMPlus>(rom)); break;
case StaticAnalyser::Atari2600PagingModel::CommaVid: bus_.reset(new Cartridge::Cartridge<Cartridge::CommaVid>(rom)); break;
case StaticAnalyser::Atari2600PagingModel::MegaBoy: bus_.reset(new Cartridge::Cartridge<Cartridge::MegaBoy>(rom)); break;
case StaticAnalyser::Atari2600PagingModel::MNetwork: bus_.reset(new Cartridge::Cartridge<Cartridge::MNetwork>(rom)); break;
case StaticAnalyser::Atari2600PagingModel::None: bus_.reset(new Cartridge::Cartridge<Cartridge::Unpaged>(rom)); break;
case StaticAnalyser::Atari2600PagingModel::ParkerBros: bus_.reset(new Cartridge::Cartridge<Cartridge::ParkerBros>(rom)); break;
case StaticAnalyser::Atari2600PagingModel::Pitfall2: bus_.reset(new Cartridge::Cartridge<Cartridge::Pitfall2>(rom)); break;
case StaticAnalyser::Atari2600PagingModel::Tigervision: bus_.reset(new Cartridge::Cartridge<Cartridge::Tigervision>(rom)); break;
case Analyser::Static::Atari2600PagingModel::ActivisionStack: bus_.reset(new Cartridge::Cartridge<Cartridge::ActivisionStack>(rom)); break;
case Analyser::Static::Atari2600PagingModel::CBSRamPlus: bus_.reset(new Cartridge::Cartridge<Cartridge::CBSRAMPlus>(rom)); break;
case Analyser::Static::Atari2600PagingModel::CommaVid: bus_.reset(new Cartridge::Cartridge<Cartridge::CommaVid>(rom)); break;
case Analyser::Static::Atari2600PagingModel::MegaBoy: bus_.reset(new Cartridge::Cartridge<Cartridge::MegaBoy>(rom)); break;
case Analyser::Static::Atari2600PagingModel::MNetwork: bus_.reset(new Cartridge::Cartridge<Cartridge::MNetwork>(rom)); break;
case Analyser::Static::Atari2600PagingModel::None: bus_.reset(new Cartridge::Cartridge<Cartridge::Unpaged>(rom)); break;
case Analyser::Static::Atari2600PagingModel::ParkerBros: bus_.reset(new Cartridge::Cartridge<Cartridge::ParkerBros>(rom)); break;
case Analyser::Static::Atari2600PagingModel::Pitfall2: bus_.reset(new Cartridge::Cartridge<Cartridge::Pitfall2>(rom)); break;
case Analyser::Static::Atari2600PagingModel::Tigervision: bus_.reset(new Cartridge::Cartridge<Cartridge::Tigervision>(rom)); break;
case StaticAnalyser::Atari2600PagingModel::Atari8k:
case Analyser::Static::Atari2600PagingModel::Atari8k:
if(target.atari.uses_superchip) {
bus_.reset(new Cartridge::Cartridge<Cartridge::Atari8kSuperChip>(rom));
} else {
bus_.reset(new Cartridge::Cartridge<Cartridge::Atari8k>(rom));
}
break;
case StaticAnalyser::Atari2600PagingModel::Atari16k:
case Analyser::Static::Atari2600PagingModel::Atari16k:
if(target.atari.uses_superchip) {
bus_.reset(new Cartridge::Cartridge<Cartridge::Atari16kSuperChip>(rom));
} else {
bus_.reset(new Cartridge::Cartridge<Cartridge::Atari16k>(rom));
}
break;
case StaticAnalyser::Atari2600PagingModel::Atari32k:
case Analyser::Static::Atari2600PagingModel::Atari32k:
if(target.atari.uses_superchip) {
bus_.reset(new Cartridge::Cartridge<Cartridge::Atari32kSuperChip>(rom));
} else {
@@ -112,7 +124,7 @@ class ConcreteMachine:
joysticks_.emplace_back(new Joystick(bus_.get(), 4, 1));
}
bool insert_media(const StaticAnalyser::Media &media) override {
bool insert_media(const Analyser::Static::Media &media) override {
return false;
}
@@ -130,6 +142,18 @@ class ConcreteMachine:
}
}
bool get_switch_is_enabled(Atari2600Switch input) override {
uint8_t port_input = bus_->mos6532_.get_port_input(1);
switch(input) {
case Atari2600SwitchReset: return !!(port_input & 0x01);
case Atari2600SwitchSelect: return !!(port_input & 0x02);
case Atari2600SwitchColour: return !!(port_input & 0x08);
case Atari2600SwitchLeftPlayerDifficulty: return !!(port_input & 0x40);
case Atari2600SwitchRightPlayerDifficulty: return !!(port_input & 0x80);
default: return false;
}
}
void set_reset_switch(bool state) override {
bus_->set_reset_line(state);
}

View File

@@ -33,6 +33,9 @@ class Machine:
/// Sets the switch @c input to @c state.
virtual void set_switch_is_enabled(Atari2600Switch input, bool state) = 0;
/// Gets the state of switch @c input.
virtual bool get_switch_is_enabled(Atari2600Switch input) = 0;
// Presses or releases the reset button.
virtual void set_reset_switch(bool state) = 0;
};

View File

@@ -44,11 +44,15 @@ class Machine: public ROMMachine::Machine {
/// Runs the machine for @c cycles.
virtual void run_for(const Cycles cycles) = 0;
/// @returns The confidence that this machine is running content it understands.
virtual float get_confidence() { return 0.5f; }
virtual void print_type() {}
// TODO: sever the clock-rate stuff.
double get_clock_rate() {
virtual double get_clock_rate() {
return clock_rate_;
}
bool get_clock_is_unlimited() {
virtual bool get_clock_is_unlimited() {
return clock_is_unlimited_;
}
class Delegate {
@@ -56,7 +60,7 @@ class Machine: public ROMMachine::Machine {
virtual void machine_did_change_clock_rate(Machine *machine) = 0;
virtual void machine_did_change_clock_is_unlimited(Machine *machine) = 0;
};
void set_delegate(Delegate *delegate) { delegate_ = delegate; }
virtual void set_delegate(Delegate *delegate) { delegate_ = delegate; }
protected:
void set_clock_rate(double clock_rate) {

View File

@@ -0,0 +1,385 @@
//
// ColecoVision.cpp
// Clock Signal
//
// Created by Thomas Harte on 23/02/2018.
// Copyright © 2018 Thomas Harte. All rights reserved.
//
#include "ColecoVision.hpp"
#include "../../Processors/Z80/Z80.hpp"
#include "../../Components/9918/9918.hpp"
#include "../../Components/AY38910/AY38910.hpp" // For the Super Game Module.
#include "../../Components/SN76489/SN76489.hpp"
#include "../ConfigurationTarget.hpp"
#include "../CRTMachine.hpp"
#include "../JoystickMachine.hpp"
#include "../../ClockReceiver/ForceInline.hpp"
#include "../../Outputs/Speaker/Implementation/CompoundSource.hpp"
#include "../../Outputs/Speaker/Implementation/LowpassSpeaker.hpp"
namespace {
const int sn76489_divider = 2;
}
namespace Coleco {
namespace Vision {
class Joystick: public Inputs::Joystick {
public:
std::vector<DigitalInput> get_inputs() override {
return {
DigitalInput(DigitalInput::Up),
DigitalInput(DigitalInput::Down),
DigitalInput(DigitalInput::Left),
DigitalInput(DigitalInput::Right),
DigitalInput(DigitalInput::Fire, 0),
DigitalInput(DigitalInput::Fire, 1),
DigitalInput('0'), DigitalInput('1'), DigitalInput('2'),
DigitalInput('3'), DigitalInput('4'), DigitalInput('5'),
DigitalInput('6'), DigitalInput('7'), DigitalInput('8'),
DigitalInput('9'), DigitalInput('*'), DigitalInput('#'),
};
}
void set_digital_input(const DigitalInput &digital_input, bool is_active) override {
switch(digital_input.type) {
default: return;
case DigitalInput::Key:
if(!is_active) keypad_ |= 0xf;
else {
uint8_t mask = 0xf;
switch(digital_input.info.key.symbol) {
case '8': mask = 0x1; break;
case '4': mask = 0x2; break;
case '5': mask = 0x3; break;
case '7': mask = 0x5; break;
case '#': mask = 0x6; break;
case '2': mask = 0x7; break;
case '*': mask = 0x9; break;
case '0': mask = 0xa; break;
case '9': mask = 0xb; break;
case '3': mask = 0xc; break;
case '1': mask = 0xd; break;
case '6': mask = 0xe; break;
default: break;
}
keypad_ = (keypad_ & 0xf0) | mask;
}
break;
case DigitalInput::Up: if(is_active) direction_ &= ~0x01; else direction_ |= 0x01; break;
case DigitalInput::Right: if(is_active) direction_ &= ~0x02; else direction_ |= 0x02; break;
case DigitalInput::Down: if(is_active) direction_ &= ~0x04; else direction_ |= 0x04; break;
case DigitalInput::Left: if(is_active) direction_ &= ~0x08; else direction_ |= 0x08; break;
case DigitalInput::Fire:
switch(digital_input.info.control.index) {
default: break;
case 0: if(is_active) direction_ &= ~0x40; else direction_ |= 0x40; break;
case 1: if(is_active) keypad_ &= ~0x40; else keypad_ |= 0x40; break;
}
break;
}
}
uint8_t get_direction_input() {
return direction_;
}
uint8_t get_keypad_input() {
return keypad_;
}
private:
uint8_t direction_ = 0xff;
uint8_t keypad_ = 0xff;
};
class ConcreteMachine:
public Machine,
public CPU::Z80::BusHandler,
public CRTMachine::Machine,
public ConfigurationTarget::Machine,
public JoystickMachine::Machine {
public:
ConcreteMachine() :
z80_(*this),
sn76489_(TI::SN76489::Personality::SN76489, audio_queue_, sn76489_divider),
ay_(audio_queue_),
mixer_(sn76489_, ay_),
speaker_(mixer_) {
speaker_.set_input_rate(3579545.0f / static_cast<float>(sn76489_divider));
set_clock_rate(3579545);
joysticks_.emplace_back(new Joystick);
joysticks_.emplace_back(new Joystick);
}
std::vector<std::unique_ptr<Inputs::Joystick>> &get_joysticks() override {
return joysticks_;
}
void setup_output(float aspect_ratio) override {
vdp_.reset(new TI::TMS9918(TI::TMS9918::TMS9918A));
get_crt()->set_output_device(Outputs::CRT::OutputDevice::Television);
}
void close_output() override {
vdp_.reset();
}
Outputs::CRT::CRT *get_crt() override {
return vdp_->get_crt();
}
Outputs::Speaker::Speaker *get_speaker() override {
return &speaker_;
}
void run_for(const Cycles cycles) override {
z80_.run_for(cycles);
}
void configure_as_target(const Analyser::Static::Target &target) override {
// Insert the media.
insert_media(target.media);
}
bool insert_media(const Analyser::Static::Media &media) override {
if(!media.cartridges.empty()) {
const auto &segment = media.cartridges.front()->get_segments().front();
cartridge_ = segment.data;
if(cartridge_.size() >= 32768)
cartridge_address_limit_ = 0xffff;
else
cartridge_address_limit_ = static_cast<uint16_t>(0x8000 + cartridge_.size() - 1);
if(cartridge_.size() > 32768) {
cartridge_pages_[0] = &cartridge_[cartridge_.size() - 16384];
cartridge_pages_[1] = cartridge_.data();
is_megacart_ = true;
} else {
cartridge_pages_[0] = cartridge_.data();
cartridge_pages_[1] = cartridge_.data() + 16384;
is_megacart_ = false;
}
}
return true;
}
// Obtains the system ROMs.
bool set_rom_fetcher(const std::function<std::vector<std::unique_ptr<std::vector<uint8_t>>>(const std::string &machine, const std::vector<std::string> &names)> &roms_with_names) override {
auto roms = roms_with_names(
"ColecoVision",
{ "coleco.rom" });
if(!roms[0]) return false;
bios_ = *roms[0];
bios_.resize(8192);
return true;
}
// MARK: Z80::BusHandler
forceinline HalfCycles perform_machine_cycle(const CPU::Z80::PartialMachineCycle &cycle) {
uint16_t address = cycle.address ? *cycle.address : 0x0000;
switch(cycle.operation) {
case CPU::Z80::PartialMachineCycle::ReadOpcode:
case CPU::Z80::PartialMachineCycle::Read:
if(address < 0x2000) {
if(super_game_module_.replace_bios) {
*cycle.value = super_game_module_.ram[address];
} else {
*cycle.value = bios_[address];
}
} else if(super_game_module_.replace_ram && address < 0x8000) {
*cycle.value = super_game_module_.ram[address];
} else if(address >= 0x6000 && address < 0x8000) {
*cycle.value = ram_[address & 1023];
} else if(address >= 0x8000 && address <= cartridge_address_limit_) {
if(is_megacart_ && address >= 0xffc0) {
page_megacart(address);
}
*cycle.value = cartridge_pages_[(address >> 14)&1][address&0x3fff];
} else {
*cycle.value = 0xff;
}
break;
case CPU::Z80::PartialMachineCycle::Write:
if(super_game_module_.replace_bios && address < 0x2000) {
super_game_module_.ram[address] = *cycle.value;
} else if(super_game_module_.replace_ram && address >= 0x2000 && address < 0x8000) {
super_game_module_.ram[address] = *cycle.value;
} else if(address >= 0x6000 && address < 0x8000) {
ram_[address & 1023] = *cycle.value;
} else if(is_megacart_ && address >= 0xffc0) {
page_megacart(address);
}
break;
case CPU::Z80::PartialMachineCycle::Input:
switch((address >> 5) & 7) {
case 5:
update_video();
*cycle.value = vdp_->get_register(address);
z80_.set_non_maskable_interrupt_line(vdp_->get_interrupt_line());
time_until_interrupt_ = vdp_->get_time_until_interrupt();
break;
case 7: {
const std::size_t joystick_id = (address&2) >> 1;
Joystick *joystick = static_cast<Joystick *>(joysticks_[joystick_id].get());
if(joysticks_in_keypad_mode_) {
*cycle.value = joystick->get_keypad_input();
} else {
*cycle.value = joystick->get_direction_input();
}
} break;
default:
switch(address&0xff) {
default: *cycle.value = 0xff; break;
case 0x52:
// Read AY data.
update_audio();
ay_.set_control_lines(GI::AY38910::ControlLines(GI::AY38910::BC2 | GI::AY38910::BC1));
*cycle.value = ay_.get_data_output();
ay_.set_control_lines(GI::AY38910::ControlLines(0));
break;
}
break;
}
break;
case CPU::Z80::PartialMachineCycle::Output: {
const int eighth = (address >> 5) & 7;
switch(eighth) {
case 4: case 6:
joysticks_in_keypad_mode_ = eighth == 4;
break;
case 5:
update_video();
vdp_->set_register(address, *cycle.value);
z80_.set_non_maskable_interrupt_line(vdp_->get_interrupt_line());
time_until_interrupt_ = vdp_->get_time_until_interrupt();
break;
case 7:
update_audio();
sn76489_.set_register(*cycle.value);
break;
default:
// Catch Super Game Module accesses; it decodes more thoroughly.
switch(address&0xff) {
default: break;
case 0x7f:
super_game_module_.replace_bios = !((*cycle.value)&0x2);
break;
case 0x50:
// Set AY address.
update_audio();
ay_.set_control_lines(GI::AY38910::BC1);
ay_.set_data_input(*cycle.value);
ay_.set_control_lines(GI::AY38910::ControlLines(0));
break;
case 0x51:
// Set AY data.
update_audio();
ay_.set_control_lines(GI::AY38910::ControlLines(GI::AY38910::BC2 | GI::AY38910::BDIR));
ay_.set_data_input(*cycle.value);
ay_.set_control_lines(GI::AY38910::ControlLines(0));
break;
case 0x53:
super_game_module_.replace_ram = !!((*cycle.value)&0x1);
break;
}
break;
}
} break;
default: break;
}
time_since_vdp_update_ += cycle.length;
time_since_sn76489_update_ += cycle.length;
if(time_until_interrupt_ > 0) {
time_until_interrupt_ -= cycle.length;
if(time_until_interrupt_ <= HalfCycles(0)) {
z80_.set_non_maskable_interrupt_line(true, time_until_interrupt_);
}
}
return HalfCycles(0);
}
void flush() {
update_video();
update_audio();
audio_queue_.perform();
}
private:
inline void page_megacart(uint16_t address) {
const std::size_t selected_start = (static_cast<std::size_t>(address&63) << 14) % cartridge_.size();
cartridge_pages_[1] = &cartridge_[selected_start];
}
inline void update_audio() {
speaker_.run_for(audio_queue_, time_since_sn76489_update_.divide_cycles(Cycles(sn76489_divider)));
}
inline void update_video() {
vdp_->run_for(time_since_vdp_update_.flush());
}
CPU::Z80::Processor<ConcreteMachine, false, false> z80_;
std::unique_ptr<TI::TMS9918> vdp_;
Concurrency::DeferringAsyncTaskQueue audio_queue_;
TI::SN76489 sn76489_;
GI::AY38910::AY38910 ay_;
Outputs::Speaker::CompoundSource<TI::SN76489, GI::AY38910::AY38910> mixer_;
Outputs::Speaker::LowpassSpeaker<Outputs::Speaker::CompoundSource<TI::SN76489, GI::AY38910::AY38910>> speaker_;
std::vector<uint8_t> bios_;
std::vector<uint8_t> cartridge_;
uint8_t *cartridge_pages_[2];
uint8_t ram_[1024];
bool is_megacart_ = false;
uint16_t cartridge_address_limit_ = 0;
struct {
bool replace_bios = false;
bool replace_ram = false;
uint8_t ram[32768];
} super_game_module_;
std::vector<std::unique_ptr<Inputs::Joystick>> joysticks_;
bool joysticks_in_keypad_mode_ = false;
HalfCycles time_since_vdp_update_;
HalfCycles time_since_sn76489_update_;
HalfCycles time_until_interrupt_;
};
}
}
using namespace Coleco::Vision;
Machine *Machine::ColecoVision() {
return new ConcreteMachine;
}
Machine::~Machine() {}

View File

@@ -0,0 +1,24 @@
//
// ColecoVision.hpp
// Clock Signal
//
// Created by Thomas Harte on 23/02/2018.
// Copyright © 2018 Thomas Harte. All rights reserved.
//
#ifndef ColecoVision_hpp
#define ColecoVision_hpp
namespace Coleco {
namespace Vision {
class Machine {
public:
virtual ~Machine();
static Machine *ColecoVision();
};
}
}
#endif /* ColecoVision_hpp */

View File

@@ -252,9 +252,19 @@ class Joystick: public Inputs::Joystick {
user_port_via_port_handler_(user_port_via_port_handler),
keyboard_via_port_handler_(keyboard_via_port_handler) {}
void set_digital_input(DigitalInput digital_input, bool is_active) override {
std::vector<DigitalInput> get_inputs() override {
return {
DigitalInput(DigitalInput::Up),
DigitalInput(DigitalInput::Down),
DigitalInput(DigitalInput::Left),
DigitalInput(DigitalInput::Right),
DigitalInput(DigitalInput::Fire)
};
}
void set_digital_input(const DigitalInput &digital_input, bool is_active) override {
JoystickInput mapped_input;
switch (digital_input) {
switch(digital_input.type) {
default: return;
case DigitalInput::Up: mapped_input = Up; break;
case DigitalInput::Down: mapped_input = Down; break;
@@ -312,9 +322,6 @@ class ConcreteMachine:
delete[] rom_;
}
void set_rom(ROMSlot slot, const std::vector<uint8_t> &data) {
}
// Obtains the system ROMs.
bool set_rom_fetcher(const std::function<std::vector<std::unique_ptr<std::vector<uint8_t>>>(const std::string &machine, const std::vector<std::string> &names)> &roms_with_names) override {
auto roms = roms_with_names(
@@ -346,19 +353,19 @@ class ConcreteMachine:
return true;
}
void configure_as_target(const StaticAnalyser::Target &target) override final {
void configure_as_target(const Analyser::Static::Target &target) override final {
if(target.loading_command.length()) {
type_string(target.loading_command);
}
switch(target.vic20.memory_model) {
case StaticAnalyser::Vic20MemoryModel::Unexpanded:
case Analyser::Static::Vic20MemoryModel::Unexpanded:
set_memory_size(Default);
break;
case StaticAnalyser::Vic20MemoryModel::EightKB:
case Analyser::Static::Vic20MemoryModel::EightKB:
set_memory_size(ThreeKB);
break;
case StaticAnalyser::Vic20MemoryModel::ThirtyTwoKB:
case Analyser::Static::Vic20MemoryModel::ThirtyTwoKB:
set_memory_size(ThirtyTwoKB);
break;
}
@@ -377,7 +384,7 @@ class ConcreteMachine:
insert_media(target.media);
}
bool insert_media(const StaticAnalyser::Media &media) override final {
bool insert_media(const Analyser::Static::Media &media) override final {
if(!media.tapes.empty()) {
tape_->set_tape(media.tapes.front());
}
@@ -396,6 +403,8 @@ class ConcreteMachine:
write_to_map(processor_read_memory_map_, rom_, rom_address_, 0x2000);
}
set_use_fast_tape();
return !media.tapes.empty() || (!media.disks.empty() && c1540_ != nullptr) || !media.cartridges.empty();
}
@@ -516,10 +525,6 @@ class ConcreteMachine:
}
}
void set_use_fast_tape_hack(bool activate) {
use_fast_tape_hack_ = activate;
}
// to satisfy CPU::MOS6502::Processor
forceinline Cycles perform_bus_operation(CPU::MOS6502::BusOperation operation, uint16_t address, uint8_t *value) {
// run the phase-1 part of this cycle, in which the VIC accesses memory
@@ -539,7 +544,7 @@ class ConcreteMachine:
// PC hits the start of the loop that just waits for an interesting tape interrupt to have
// occurred then skip both 6522s and the tape ahead to the next interrupt without any further
// CPU or 6560 costs.
if(use_fast_tape_hack_ && tape_->has_tape() && operation == CPU::MOS6502::BusOperation::ReadOpcode) {
if(use_fast_tape_hack_ && operation == CPU::MOS6502::BusOperation::ReadOpcode) {
if(address == 0xf7b2) {
// Address 0xf7b2 contains a JSR to 0xf8c0 that will fill the tape buffer with the next header.
// So cancel that via a double NOP and fill in the next header programmatically.
@@ -662,8 +667,8 @@ class ConcreteMachine:
keyboard_via_.set_control_line_input(MOS::MOS6522::Port::A, MOS::MOS6522::Line::One, !tape->get_input());
}
KeyboardMapper &get_keyboard_mapper() override {
return keyboard_mapper_;
KeyboardMapper *get_keyboard_mapper() override {
return &keyboard_mapper_;
}
// MARK: - Configuration options.
@@ -674,7 +679,8 @@ class ConcreteMachine:
void set_selections(const Configurable::SelectionSet &selections_by_option) override {
bool quickload;
if(Configurable::get_quick_load_tape(selections_by_option, quickload)) {
set_use_fast_tape_hack(quickload);
allow_fast_tape_hack_ = quickload;
set_use_fast_tape();
}
}
@@ -739,8 +745,12 @@ class ConcreteMachine:
// Tape
std::shared_ptr<Storage::Tape::BinaryTapePlayer> tape_;
bool use_fast_tape_hack_;
bool use_fast_tape_hack_ = false;
bool allow_fast_tape_hack_ = false;
bool is_running_at_zero_cost_ = false;
void set_use_fast_tape() {
use_fast_tape_hack_ = allow_fast_tape_hack_ && tape_->has_tape();
}
// Disk
std::shared_ptr<::Commodore::C1540::Machine> c1540_;

View File

@@ -9,7 +9,7 @@
#ifndef ConfigurationTarget_hpp
#define ConfigurationTarget_hpp
#include "../StaticAnalyser/StaticAnalyser.hpp"
#include "../Analyser/Static/StaticAnalyser.hpp"
#include "../Configurable/Configurable.hpp"
#include <string>
@@ -17,20 +17,20 @@
namespace ConfigurationTarget {
/*!
A ConfigurationTarget::Machine is anything that can accept a StaticAnalyser::Target
A ConfigurationTarget::Machine is anything that can accept a Analyser::Static::Target
and configure itself appropriately, or accept a list of media subsequently to insert.
*/
class Machine {
public:
/// Instructs the machine to configure itself as described by @c target and insert the included media.
virtual void configure_as_target(const StaticAnalyser::Target &target) = 0;
virtual void configure_as_target(const Analyser::Static::Target &target) = 0;
/*!
Requests that the machine insert @c media as a modification to current state
@returns @c true if any media was inserted; @c false otherwise.
*/
virtual bool insert_media(const StaticAnalyser::Media &media) = 0;
virtual bool insert_media(const Analyser::Static::Media &media) = 0;
};
}

View File

@@ -0,0 +1,48 @@
//
// DynamicMachine.hpp
// Clock Signal
//
// Created by Thomas Harte on 29/01/2018.
// Copyright © 2018 Thomas Harte. All rights reserved.
//
#ifndef DynamicMachine_h
#define DynamicMachine_h
#include "../Configurable/Configurable.hpp"
#include "ConfigurationTarget.hpp"
#include "CRTMachine.hpp"
#include "JoystickMachine.hpp"
#include "KeyboardMachine.hpp"
#include "Utility/Typer.hpp"
namespace Machine {
/*!
Provides the structure for owning a machine and dynamically casting it as desired without knowledge of
the machine's parent class or, therefore, the need to establish a common one.
*/
struct DynamicMachine {
virtual ~DynamicMachine() {}
virtual ConfigurationTarget::Machine *configuration_target() = 0;
virtual CRTMachine::Machine *crt_machine() = 0;
virtual JoystickMachine::Machine *joystick_machine() = 0;
virtual KeyboardMachine::Machine *keyboard_machine() = 0;
virtual Configurable::Device *configurable_device() = 0;
/*!
Provides a raw pointer to the underlying machine if and only if this dynamic machine really is
only a single machine.
Very unsafe. Very temporary.
TODO: eliminate in favour of introspection for machine-specific inputs. This is here temporarily
only to permit continuity of certain features in the Mac port that have not yet made their way
to the SDL/console port.
*/
virtual void *raw_pointer() = 0;
};
}
#endif /* DynamicMachine_h */

View File

@@ -66,7 +66,13 @@ class ConcreteMachine:
break;
}
std::memcpy(target, &data[0], std::min(static_cast<std::size_t>(16384), data.size()));
// Copy in, with mirroring.
std::size_t rom_ptr = 0;
while(rom_ptr < 16384) {
std::size_t size_to_copy = std::min(16384 - rom_ptr, data.size());
std::memcpy(&target[rom_ptr], data.data(), size_to_copy);
rom_ptr += size_to_copy;
}
}
// Obtains the system ROMs.
@@ -109,11 +115,7 @@ class ConcreteMachine:
if(is_holding_shift_) set_key_state(KeyShift, true);
}
void set_use_fast_tape_hack(bool activate) {
use_fast_tape_hack_ = activate;
}
void configure_as_target(const StaticAnalyser::Target &target) override final {
void configure_as_target(const Analyser::Static::Target &target) override final {
if(target.loading_command.length()) {
type_string(target.loading_command);
}
@@ -137,7 +139,7 @@ class ConcreteMachine:
insert_media(target.media);
}
bool insert_media(const StaticAnalyser::Media &media) override final {
bool insert_media(const Analyser::Static::Media &media) override final {
if(!media.tapes.empty()) {
tape_.set_tape(media.tapes.front());
}
@@ -152,6 +154,7 @@ class ConcreteMachine:
slot = static_cast<ROMSlot>((static_cast<int>(slot) + 1)&15);
}
set_use_fast_tape_hack();
return !media.tapes.empty() || !media.disks.empty() || !media.cartridges.empty();
}
@@ -277,7 +280,6 @@ class ConcreteMachine:
if(isReadOperation(operation)) {
if(
use_fast_tape_hack_ &&
tape_.has_tape() &&
(operation == CPU::MOS6502::BusOperation::ReadOpcode) &&
(
(address == 0xf4e5) || (address == 0xf4e6) || // double NOPs at 0xf4e5, 0xf6de, 0xf6fa and 0xfa51
@@ -419,8 +421,8 @@ class ConcreteMachine:
Utility::TypeRecipient::add_typer(string, std::move(mapper));
}
KeyboardMapper &get_keyboard_mapper() override {
return keyboard_mapper_;
KeyboardMapper *get_keyboard_mapper() override {
return &keyboard_mapper_;
}
// MARK: - Configuration options.
@@ -431,7 +433,8 @@ class ConcreteMachine:
void set_selections(const Configurable::SelectionSet &selections_by_option) override {
bool quickload;
if(Configurable::get_quick_load_tape(selections_by_option, quickload)) {
set_use_fast_tape_hack(quickload);
allow_fast_tape_hack_ = quickload;
set_use_fast_tape_hack();
}
Configurable::Display display;
@@ -520,6 +523,10 @@ class ConcreteMachine:
// Tape
Tape tape_;
bool use_fast_tape_hack_ = false;
bool allow_fast_tape_hack_ = false;
void set_use_fast_tape_hack() {
use_fast_tape_hack_ = allow_fast_tape_hack_ && tape_.has_tape();
}
bool fast_load_is_in_data_ = false;
// Disk

View File

@@ -15,7 +15,7 @@ Machine::Machine() {
}
void Machine::keyboard_did_change_key(Inputs::Keyboard *keyboard, Inputs::Keyboard::Key key, bool is_pressed) {
uint16_t mapped_key = get_keyboard_mapper().mapped_key_for_key(key);
uint16_t mapped_key = get_keyboard_mapper()->mapped_key_for_key(key);
if(mapped_key != KeyNotMapped) set_key_state(mapped_key, is_pressed);
}
@@ -30,3 +30,7 @@ Inputs::Keyboard &Machine::get_keyboard() {
void Machine::type_string(const std::string &) {
}
Machine::KeyboardMapper *Machine::get_keyboard_mapper() {
return nullptr;
}

View File

@@ -61,12 +61,11 @@ class Machine: public Inputs::Keyboard::Delegate {
*/
static const uint16_t KeyNotMapped = 0xfffe;
protected:
/*!
Allows individual machines to provide the mapping between host keys
as per Inputs::Keyboard and their native scheme.
*/
virtual KeyboardMapper &get_keyboard_mapper() = 0;
virtual KeyboardMapper *get_keyboard_mapper();
private:
void keyboard_did_change_key(Inputs::Keyboard *keyboard, Inputs::Keyboard::Key key, bool is_pressed) override;

View File

@@ -19,18 +19,31 @@ class ASCII16kbROMSlotHandler: public ROMSlotHandler {
ASCII16kbROMSlotHandler(MSX::MemoryMap &map, int slot) :
map_(map), slot_(slot) {}
void write(uint16_t address, uint8_t value) {
void write(uint16_t address, uint8_t value, bool pc_is_outside_bios) override {
// printf("A16 %04x ", address);
switch(address >> 11) {
default: break;
default:
if(pc_is_outside_bios) confidence_counter_.add_miss();
break;
case 0xc:
map_.map(slot_, value * 8192, 0x4000, 0x4000);
if(pc_is_outside_bios) {
if(address == 0x6000) confidence_counter_.add_hit(); else confidence_counter_.add_equivocal();
}
map_.map(slot_, value * 0x4000, 0x4000, 0x4000);
break;
case 0xe:
map_.map(slot_, value * 8192, 0x8000, 0x4000);
if(pc_is_outside_bios) {
if(address == 0x7000 || address == 0x77ff) confidence_counter_.add_hit(); else confidence_counter_.add_equivocal();
}
map_.map(slot_, value * 0x4000, 0x8000, 0x4000);
break;
}
}
virtual void print_type() override {
printf("A16");
}
private:
MSX::MemoryMap &map_;
int slot_;

View File

@@ -19,24 +19,43 @@ class ASCII8kbROMSlotHandler: public ROMSlotHandler {
ASCII8kbROMSlotHandler(MSX::MemoryMap &map, int slot) :
map_(map), slot_(slot) {}
void write(uint16_t address, uint8_t value) {
void write(uint16_t address, uint8_t value, bool pc_is_outside_bios) override {
// printf("A8 %04x ", address);
switch(address >> 11) {
default: break;
default:
if(pc_is_outside_bios) confidence_counter_.add_miss();
break;
case 0xc:
map_.map(slot_, value * 8192, 0x4000, 0x2000);
if(pc_is_outside_bios) {
if(address == 0x6000 || address == 0x60ff) confidence_counter_.add_hit(); else confidence_counter_.add_equivocal();
}
map_.map(slot_, value * 0x2000, 0x4000, 0x2000);
break;
case 0xd:
map_.map(slot_, value * 8192, 0x6000, 0x2000);
if(pc_is_outside_bios) {
if(address == 0x6800 || address == 0x68ff) confidence_counter_.add_hit(); else confidence_counter_.add_equivocal();
}
map_.map(slot_, value * 0x2000, 0x6000, 0x2000);
break;
case 0xe:
map_.map(slot_, value * 8192, 0x8000, 0x2000);
if(pc_is_outside_bios) {
if(address == 0x7000 || address == 0x70ff) confidence_counter_.add_hit(); else confidence_counter_.add_equivocal();
}
map_.map(slot_, value * 0x2000, 0x8000, 0x2000);
break;
case 0xf:
map_.map(slot_, value * 8192, 0xa000, 0x2000);
if(pc_is_outside_bios) {
if(address == 0x7800 || address == 0x78ff) confidence_counter_.add_hit(); else confidence_counter_.add_equivocal();
}
map_.map(slot_, value * 0x2000, 0xa000, 0x2000);
break;
}
}
virtual void print_type() override {
printf("A8");
}
private:
MSX::MemoryMap &map_;
int slot_;

View File

@@ -19,21 +19,36 @@ class KonamiROMSlotHandler: public ROMSlotHandler {
KonamiROMSlotHandler(MSX::MemoryMap &map, int slot) :
map_(map), slot_(slot) {}
void write(uint16_t address, uint8_t value) {
void write(uint16_t address, uint8_t value, bool pc_is_outside_bios) override {
// printf("K %04x[%c]\n", address, pc_is_outside_bios ? '.' : '+');
switch(address >> 13) {
default: break;
default:
if(pc_is_outside_bios) confidence_counter_.add_miss();
break;
case 3:
map_.map(slot_, value * 8192, 0x6000, 0x2000);
if(pc_is_outside_bios) {
if(address == 0x6000) confidence_counter_.add_hit(); else confidence_counter_.add_equivocal();
}
map_.map(slot_, value * 0x2000, 0x6000, 0x2000);
break;
case 4:
map_.map(slot_, value * 8192, 0x8000, 0x2000);
if(pc_is_outside_bios) {
if(address == 0x8000) confidence_counter_.add_hit(); else confidence_counter_.add_equivocal();
}
map_.map(slot_, value * 0x2000, 0x8000, 0x2000);
break;
case 5:
map_.map(slot_, value * 8192, 0xa000, 0x2000);
if(pc_is_outside_bios) {
if(address == 0xa000) confidence_counter_.add_hit(); else confidence_counter_.add_equivocal();
}
map_.map(slot_, value * 0x2000, 0xa000, 0x2000);
break;
}
}
virtual void print_type() override {
printf("K");
}
private:
MSX::MemoryMap &map_;
int slot_;

View File

@@ -20,40 +20,66 @@ class KonamiWithSCCROMSlotHandler: public ROMSlotHandler {
KonamiWithSCCROMSlotHandler(MSX::MemoryMap &map, int slot, Konami::SCC &scc) :
map_(map), slot_(slot), scc_(scc) {}
void write(uint16_t address, uint8_t value) override {
void write(uint16_t address, uint8_t value, bool pc_is_outside_bios) override {
// printf("KSCC %04x ", address);
switch(address >> 11) {
default: break;
default:
if(pc_is_outside_bios) confidence_counter_.add_miss();
break;
case 0x0a:
map_.map(slot_, value * 8192, 0x4000, 0x2000);
if(pc_is_outside_bios) {
if(address == 0x5000) confidence_counter_.add_hit(); else confidence_counter_.add_equivocal();
}
map_.map(slot_, value * 0x2000, 0x4000, 0x2000);
break;
case 0x0e:
map_.map(slot_, value * 8192, 0x6000, 0x2000);
if(pc_is_outside_bios) {
if(address == 0x7000) confidence_counter_.add_hit(); else confidence_counter_.add_equivocal();
}
map_.map(slot_, value * 0x2000, 0x6000, 0x2000);
break;
case 0x12:
if(pc_is_outside_bios) {
if(address == 0x9000) confidence_counter_.add_hit(); else confidence_counter_.add_equivocal();
}
if((value&0x3f) == 0x3f) {
scc_is_visible_ = true;
map_.unmap(slot_, 0x8000, 0x2000);
} else {
scc_is_visible_ = false;
map_.map(slot_, value * 8192, 0x8000, 0x2000);
map_.map(slot_, value * 0x2000, 0x8000, 0x2000);
}
break;
case 0x13:
if(scc_is_visible_) scc_.write(address, value);
if(scc_is_visible_) {
if(pc_is_outside_bios) confidence_counter_.add_hit();
scc_.write(address, value);
} else {
if(pc_is_outside_bios) confidence_counter_.add_miss();
}
break;
case 0x16:
map_.map(slot_, value * 8192, 0xa000, 0x2000);
if(pc_is_outside_bios) {
if(address == 0xb000) confidence_counter_.add_hit(); else confidence_counter_.add_equivocal();
}
map_.map(slot_, value * 0x2000, 0xa000, 0x2000);
break;
}
}
uint8_t read(uint16_t address) override {
if(scc_is_visible_ && address >= 0x9800 && address < 0xa000) {
confidence_counter_.add_hit();
return scc_.read(address);
}
confidence_counter_.add_miss();
return 0xff;
}
virtual void print_type() override {
printf("KSCC");
}
private:
MSX::MemoryMap &map_;
int slot_;

View File

@@ -16,7 +16,7 @@ DiskROM::DiskROM(const std::vector<uint8_t> &rom) :
set_is_double_density(true);
}
void DiskROM::write(uint16_t address, uint8_t value) {
void DiskROM::write(uint16_t address, uint8_t value, bool pc_is_outside_bios) {
switch(address) {
case 0x7ff8: case 0x7ff9: case 0x7ffa: case 0x7ffb:
set_register(address, value);

View File

@@ -22,7 +22,7 @@ class DiskROM: public ROMSlotHandler, public WD::WD1770 {
public:
DiskROM(const std::vector<uint8_t> &rom);
void write(uint16_t address, uint8_t value) override;
void write(uint16_t address, uint8_t value, bool pc_is_outside_bios) override;
uint8_t read(uint16_t address) override;
void run_for(HalfCycles half_cycles) override;

View File

@@ -12,6 +12,7 @@
#include "Keyboard.hpp"
#include "ROMSlotHandler.hpp"
#include "../../Analyser/Static/MSX/Cartridge.hpp"
#include "Cartridges/ASCII8kb.hpp"
#include "Cartridges/ASCII16kb.hpp"
#include "Cartridges/Konami.hpp"
@@ -37,6 +38,7 @@
#include "../../Outputs/Speaker/Implementation/SampleSource.hpp"
#include "../../Configurable/StandardOptions.hpp"
#include "../../ClockReceiver/ForceInline.hpp"
namespace MSX {
@@ -115,7 +117,8 @@ class ConcreteMachine:
public ConfigurationTarget::Machine,
public KeyboardMachine::Machine,
public Configurable::Device,
public MemoryMap {
public MemoryMap,
public Sleeper::SleepObserver {
public:
ConcreteMachine():
z80_(*this),
@@ -134,6 +137,7 @@ class ConcreteMachine:
ay_.set_port_handler(&ay_port_handler_);
speaker_.set_input_rate(3579545.0f / 2.0f);
tape_player_.set_sleep_observer(this);
}
void setup_output(float aspect_ratio) override {
@@ -156,7 +160,21 @@ class ConcreteMachine:
z80_.run_for(cycles);
}
void configure_as_target(const StaticAnalyser::Target &target) override {
float get_confidence() override {
if(performed_unmapped_access_ || pc_zero_accesses_ > 1) return 0.0f;
if(memory_slots_[1].handler) {
return memory_slots_[1].handler->get_confidence();
}
return 0.5f;
}
void print_type() override {
if(memory_slots_[1].handler) {
memory_slots_[1].handler->print_type();
}
}
void configure_as_target(const Analyser::Static::Target &target) override {
// Add a disk cartridge if any disks were supplied.
if(!target.media.disks.empty()) {
map(2, 0, 0x4000, 0x2000);
@@ -171,30 +189,32 @@ class ConcreteMachine:
if(target.loading_command.length()) {
type_string(target.loading_command);
}
// Attach the hardware necessary for a game cartridge, if any.
switch(target.msx.cartridge_type) {
default: break;
case StaticAnalyser::MSXCartridgeType::Konami:
memory_slots_[1].set_handler(new Cartridge::KonamiROMSlotHandler(*this, 1));
break;
case StaticAnalyser::MSXCartridgeType::KonamiWithSCC:
memory_slots_[1].set_handler(new Cartridge::KonamiWithSCCROMSlotHandler(*this, 1, scc_));
break;
case StaticAnalyser::MSXCartridgeType::ASCII8kb:
memory_slots_[1].set_handler(new Cartridge::ASCII8kbROMSlotHandler(*this, 1));
break;
case StaticAnalyser::MSXCartridgeType::ASCII16kb:
memory_slots_[1].set_handler(new Cartridge::ASCII16kbROMSlotHandler(*this, 1));
break;
}
}
bool insert_media(const StaticAnalyser::Media &media) override {
bool insert_media(const Analyser::Static::Media &media) override {
if(!media.cartridges.empty()) {
const auto &segment = media.cartridges.front()->get_segments().front();
memory_slots_[1].source = segment.data;
map(1, 0, static_cast<uint16_t>(segment.start_address), std::min(segment.data.size(), 65536 - segment.start_address));
auto msx_cartridge = dynamic_cast<Analyser::Static::MSX::Cartridge *>(media.cartridges.front().get());
if(msx_cartridge) {
switch(msx_cartridge->type) {
default: break;
case Analyser::Static::MSX::Cartridge::Konami:
memory_slots_[1].set_handler(new Cartridge::KonamiROMSlotHandler(*this, 1));
break;
case Analyser::Static::MSX::Cartridge::KonamiWithSCC:
memory_slots_[1].set_handler(new Cartridge::KonamiWithSCCROMSlotHandler(*this, 1, scc_));
break;
case Analyser::Static::MSX::Cartridge::ASCII8kb:
memory_slots_[1].set_handler(new Cartridge::ASCII8kbROMSlotHandler(*this, 1));
break;
case Analyser::Static::MSX::Cartridge::ASCII16kb:
memory_slots_[1].set_handler(new Cartridge::ASCII16kbROMSlotHandler(*this, 1));
break;
}
}
}
if(!media.tapes.empty()) {
@@ -211,6 +231,8 @@ class ConcreteMachine:
}
}
set_use_fast_tape();
return true;
}
@@ -259,18 +281,11 @@ class ConcreteMachine:
}
// MARK: Z80::BusHandler
HalfCycles perform_machine_cycle(const CPU::Z80::PartialMachineCycle &cycle) {
if(time_until_interrupt_ > 0) {
time_until_interrupt_ -= cycle.length;
if(time_until_interrupt_ <= HalfCycles(0)) {
z80_.set_interrupt_line(true, time_until_interrupt_);
}
}
forceinline HalfCycles perform_machine_cycle(const CPU::Z80::PartialMachineCycle &cycle) {
uint16_t address = cycle.address ? *cycle.address : 0x0000;
switch(cycle.operation) {
case CPU::Z80::PartialMachineCycle::ReadOpcode:
if(use_fast_tape_ && tape_player_.has_tape()) {
if(use_fast_tape_) {
if(address == 0x1a63) {
// TAPION
@@ -324,6 +339,14 @@ class ConcreteMachine:
break;
}
}
if(!address) {
pc_zero_accesses_++;
}
if(read_pointers_[address >> 13] == unpopulated_) {
performed_unmapped_access_ = true;
}
pc_address_ = address; // This is retained so as to be able to name the source of an access to cartridge handlers.
case CPU::Z80::PartialMachineCycle::Read:
if(read_pointers_[address >> 13]) {
*cycle.value = read_pointers_[address >> 13][address & 8191];
@@ -341,7 +364,7 @@ class ConcreteMachine:
if(memory_slots_[slot_hit].handler) {
update_audio();
memory_slots_[slot_hit].handler->run_for(memory_slots_[slot_hit].cycles_since_update.flush());
memory_slots_[slot_hit].handler->write(address, *cycle.value);
memory_slots_[slot_hit].handler->write(address, *cycle.value, read_pointers_[pc_address_ >> 13] != memory_slots_[0].read_pointers[pc_address_ >> 13]);
}
} break;
@@ -433,18 +456,26 @@ class ConcreteMachine:
default: break;
}
// Update the tape. (TODO: allow for sleeping)
tape_player_.run_for(cycle.length.as_int());
if(!tape_player_is_sleeping_)
tape_player_.run_for(cycle.length.as_int());
// Per the best information I currently have, the MSX inserts an extra cycle into each opcode read,
// but otherwise runs without pause.
HalfCycles addition((cycle.operation == CPU::Z80::PartialMachineCycle::ReadOpcode) ? 2 : 0);
time_since_vdp_update_ += cycle.length + addition;
time_since_ay_update_ += cycle.length + addition;
memory_slots_[0].cycles_since_update += cycle.length + addition;
memory_slots_[1].cycles_since_update += cycle.length + addition;
memory_slots_[2].cycles_since_update += cycle.length + addition;
memory_slots_[3].cycles_since_update += cycle.length + addition;
const HalfCycles addition((cycle.operation == CPU::Z80::PartialMachineCycle::ReadOpcode) ? 2 : 0);
const HalfCycles total_length = addition + cycle.length;
if(time_until_interrupt_ > 0) {
time_until_interrupt_ -= total_length;
if(time_until_interrupt_ <= HalfCycles(0)) {
z80_.set_interrupt_line(true, time_until_interrupt_);
}
}
time_since_vdp_update_ += total_length;
time_since_ay_update_ += total_length;
memory_slots_[0].cycles_since_update += total_length;
memory_slots_[1].cycles_since_update += total_length;
memory_slots_[2].cycles_since_update += total_length;
memory_slots_[3].cycles_since_update += total_length;
return addition;
}
@@ -505,8 +536,8 @@ class ConcreteMachine:
if(is_pressed) key_states_[line] &= ~mask; else key_states_[line] |= mask;
}
KeyboardMapper &get_keyboard_mapper() override {
return keyboard_mapper_;
KeyboardMapper *get_keyboard_mapper() override {
return &keyboard_mapper_;
}
// MARK: - Configuration options.
@@ -517,7 +548,8 @@ class ConcreteMachine:
void set_selections(const Configurable::SelectionSet &selections_by_option) override {
bool quickload;
if(Configurable::get_quick_load_tape(selections_by_option, quickload)) {
use_fast_tape_ = quickload;
allow_fast_tape_ = quickload;
set_use_fast_tape();
}
Configurable::Display display;
@@ -540,6 +572,12 @@ class ConcreteMachine:
return selection_set;
}
// MARK: - Sleeper
void set_component_is_sleeping(void *component, bool is_sleeping) override {
tape_player_is_sleeping_ = tape_player_.is_sleeping();
set_use_fast_tape();
}
private:
void update_audio() {
speaker_.run_for(audio_queue_, time_since_ay_update_.divide_cycles(Cycles(2)));
@@ -600,7 +638,12 @@ class ConcreteMachine:
Outputs::Speaker::LowpassSpeaker<Outputs::Speaker::CompoundSource<GI::AY38910::AY38910, AudioToggle, Konami::SCC>> speaker_;
Storage::Tape::BinaryTapePlayer tape_player_;
bool tape_player_is_sleeping_ = false;
bool allow_fast_tape_ = false;
bool use_fast_tape_ = false;
void set_use_fast_tape() {
use_fast_tape_ = !tape_player_is_sleeping_ && allow_fast_tape_ && tape_player_.has_tape();
}
i8255PortHandler i8255_port_handler_;
AYPortHandler ay_port_handler_;
@@ -637,6 +680,10 @@ class ConcreteMachine:
std::string input_text_;
MSX::KeyboardMapper keyboard_mapper_;
int pc_zero_accesses_ = 0;
bool performed_unmapped_access_ = false;
uint16_t pc_address_;
};
}

View File

@@ -10,6 +10,7 @@
#define ROMSlotHandler_hpp
#include "../../ClockReceiver/ClockReceiver.hpp"
#include "../../Analyser/Dynamic/ConfidenceCounter.hpp"
#include <cstddef>
#include <cstdint>
@@ -46,7 +47,7 @@ class ROMSlotHandler {
virtual void run_for(HalfCycles half_cycles) {}
/*! Announces an attempt to write @c value to @c address. */
virtual void write(uint16_t address, uint8_t value) = 0;
virtual void write(uint16_t address, uint8_t value, bool pc_is_outside_bios) = 0;
/*! Seeks the result of a read at @c address; this is used only if the area is unmapped. */
virtual uint8_t read(uint16_t address) { return 0xff; }
@@ -57,12 +58,22 @@ class ROMSlotHandler {
/// Empty causes all out-of-bounds accesses to read a vacant bus.
Empty
};
/*!
Returns the wrapping strategy to apply to mapping requests from this ROM slot.
*/
/*! @returns The wrapping strategy to apply to mapping requests from this ROM slot. */
virtual WrappingStrategy wrapping_strategy() const {
return WrappingStrategy::Repeat;
}
/*! @returns The probability that this handler is correct for the data it owns. */
float get_confidence() {
return confidence_counter_.get_confidence();
}
virtual void print_type() {
}
protected:
Analyser::Dynamic::ConfidenceCounter confidence_counter_;
};
}

View File

@@ -254,7 +254,7 @@ class ConcreteMachine:
}
// to satisfy ConfigurationTarget::Machine
void configure_as_target(const StaticAnalyser::Target &target) override final {
void configure_as_target(const Analyser::Static::Target &target) override final {
if(target.oric.has_microdisc) {
microdisc_is_enabled_ = true;
microdisc_did_change_paging_flags(&microdisc_);
@@ -284,7 +284,7 @@ class ConcreteMachine:
insert_media(target.media);
}
bool insert_media(const StaticAnalyser::Media &media) override final {
bool insert_media(const Analyser::Static::Media &media) override final {
if(media.tapes.size()) {
tape_player_.set_tape(media.tapes.front());
}
@@ -432,8 +432,8 @@ class ConcreteMachine:
set_interrupt_line();
}
KeyboardMapper &get_keyboard_mapper() override {
return keyboard_mapper_;
KeyboardMapper *get_keyboard_mapper() override {
return &keyboard_mapper_;
}
// MARK: - Configuration options.

View File

@@ -15,11 +15,13 @@
namespace ROMMachine {
typedef std::function<std::vector<std::unique_ptr<std::vector<uint8_t>>>(const std::string &machine, const std::vector<std::string> &names)> ROMFetcher;
struct Machine {
/*!
Provides the machine with a way to obtain such ROMs as it needs.
*/
virtual bool set_rom_fetcher(const std::function<std::vector<std::unique_ptr<std::vector<uint8_t>>>(const std::string &machine, const std::vector<std::string> &names)> &rom_with_name) { return true; }
virtual bool set_rom_fetcher(const ROMFetcher &rom_with_name) { return true; }
};
}

View File

@@ -10,51 +10,107 @@
#include "../AmstradCPC/AmstradCPC.hpp"
#include "../Atari2600/Atari2600.hpp"
#include "../ColecoVision/ColecoVision.hpp"
#include "../Commodore/Vic-20/Vic20.hpp"
#include "../Electron/Electron.hpp"
#include "../MSX/MSX.hpp"
#include "../Oric/Oric.hpp"
#include "../ZX8081/ZX8081.hpp"
#include "../../Analyser/Dynamic/MultiMachine/MultiMachine.hpp"
#include "TypedDynamicMachine.hpp"
::Machine::DynamicMachine *::Machine::MachineForTarget(const StaticAnalyser::Target &target) {
switch(target.machine) {
case StaticAnalyser::Target::AmstradCPC: return new TypedDynamicMachine<AmstradCPC::Machine>(AmstradCPC::Machine::AmstradCPC());
case StaticAnalyser::Target::Atari2600: return new TypedDynamicMachine<Atari2600::Machine>(Atari2600::Machine::Atari2600());
case StaticAnalyser::Target::Electron: return new TypedDynamicMachine<Electron::Machine>(Electron::Machine::Electron());
case StaticAnalyser::Target::MSX: return new TypedDynamicMachine<MSX::Machine>(MSX::Machine::MSX());
case StaticAnalyser::Target::Oric: return new TypedDynamicMachine<Oric::Machine>(Oric::Machine::Oric());
case StaticAnalyser::Target::Vic20: return new TypedDynamicMachine<Commodore::Vic20::Machine>(Commodore::Vic20::Machine::Vic20());
case StaticAnalyser::Target::ZX8081: return new TypedDynamicMachine<ZX8081::Machine>(ZX8081::Machine::ZX8081(target));
namespace {
default: return nullptr;
::Machine::DynamicMachine *MachineForTarget(const Analyser::Static::Target &target, const ROMMachine::ROMFetcher &rom_fetcher, Machine::Error &error) {
error = Machine::Error::None;
::Machine::DynamicMachine *machine = nullptr;
switch(target.machine) {
case Analyser::Machine::AmstradCPC: machine = new Machine::TypedDynamicMachine<AmstradCPC::Machine>(AmstradCPC::Machine::AmstradCPC()); break;
case Analyser::Machine::Atari2600: machine = new Machine::TypedDynamicMachine<Atari2600::Machine>(Atari2600::Machine::Atari2600()); break;
case Analyser::Machine::ColecoVision: machine = new Machine::TypedDynamicMachine<Coleco::Vision::Machine>(Coleco::Vision::Machine::ColecoVision()); break;
case Analyser::Machine::Electron: machine = new Machine::TypedDynamicMachine<Electron::Machine>(Electron::Machine::Electron()); break;
case Analyser::Machine::MSX: machine = new Machine::TypedDynamicMachine<MSX::Machine>(MSX::Machine::MSX()); break;
case Analyser::Machine::Oric: machine = new Machine::TypedDynamicMachine<Oric::Machine>(Oric::Machine::Oric()); break;
case Analyser::Machine::Vic20: machine = new Machine::TypedDynamicMachine<Commodore::Vic20::Machine>(Commodore::Vic20::Machine::Vic20()); break;
case Analyser::Machine::ZX8081: machine = new Machine::TypedDynamicMachine<ZX8081::Machine>(ZX8081::Machine::ZX8081(target)); break;
default:
error = Machine::Error::UnknownMachine;
return nullptr;
}
// TODO: this shouldn't depend on CRT machine's inclusion of ROM machine.
CRTMachine::Machine *crt_machine = machine->crt_machine();
if(crt_machine) {
if(!machine->crt_machine()->set_rom_fetcher(rom_fetcher)) {
delete machine;
error = Machine::Error::MissingROM;
return nullptr;
}
}
ConfigurationTarget::Machine *configuration_target = machine->configuration_target();
if(configuration_target) {
machine->configuration_target()->configure_as_target(target);
}
return machine;
}
std::string Machine::ShortNameForTargetMachine(const StaticAnalyser::Target::Machine machine) {
}
::Machine::DynamicMachine *::Machine::MachineForTargets(const std::vector<std::unique_ptr<Analyser::Static::Target>> &targets, const ROMMachine::ROMFetcher &rom_fetcher, Error &error) {
// Zero targets implies no machine.
if(targets.empty()) {
error = Error::NoTargets;
return nullptr;
}
// If there's more than one target, get all the machines and combine them into a multimachine.
if(targets.size() > 1) {
std::vector<std::unique_ptr<Machine::DynamicMachine>> machines;
for(const auto &target: targets) {
machines.emplace_back(MachineForTarget(*target, rom_fetcher, error));
// Exit early if any errors have occurred.
if(error != Error::None) {
return nullptr;
}
}
return new Analyser::Dynamic::MultiMachine(std::move(machines));
}
// There's definitely exactly one target.
return MachineForTarget(*targets.front(), rom_fetcher, error);
}
std::string Machine::ShortNameForTargetMachine(const Analyser::Machine machine) {
switch(machine) {
case StaticAnalyser::Target::AmstradCPC: return "AmstradCPC";
case StaticAnalyser::Target::Atari2600: return "Atari2600";
case StaticAnalyser::Target::Electron: return "Electron";
case StaticAnalyser::Target::MSX: return "MSX";
case StaticAnalyser::Target::Oric: return "Oric";
case StaticAnalyser::Target::Vic20: return "Vic20";
case StaticAnalyser::Target::ZX8081: return "ZX8081";
case Analyser::Machine::AmstradCPC: return "AmstradCPC";
case Analyser::Machine::Atari2600: return "Atari2600";
case Analyser::Machine::ColecoVision: return "ColecoVision";
case Analyser::Machine::Electron: return "Electron";
case Analyser::Machine::MSX: return "MSX";
case Analyser::Machine::Oric: return "Oric";
case Analyser::Machine::Vic20: return "Vic20";
case Analyser::Machine::ZX8081: return "ZX8081";
default: return "";
}
}
std::string Machine::LongNameForTargetMachine(StaticAnalyser::Target::Machine machine) {
std::string Machine::LongNameForTargetMachine(Analyser::Machine machine) {
switch(machine) {
case StaticAnalyser::Target::AmstradCPC: return "Amstrad CPC";
case StaticAnalyser::Target::Atari2600: return "Atari 2600";
case StaticAnalyser::Target::Electron: return "Acorn Electron";
case StaticAnalyser::Target::MSX: return "MSX";
case StaticAnalyser::Target::Oric: return "Oric";
case StaticAnalyser::Target::Vic20: return "Vic 20";
case StaticAnalyser::Target::ZX8081: return "ZX80/81";
case Analyser::Machine::AmstradCPC: return "Amstrad CPC";
case Analyser::Machine::Atari2600: return "Atari 2600";
case Analyser::Machine::ColecoVision: return "ColecoVision";
case Analyser::Machine::Electron: return "Acorn Electron";
case Analyser::Machine::MSX: return "MSX";
case Analyser::Machine::Oric: return "Oric";
case Analyser::Machine::Vic20: return "Vic 20";
case Analyser::Machine::ZX8081: return "ZX80/81";
default: return "";
}
@@ -63,11 +119,11 @@ std::string Machine::LongNameForTargetMachine(StaticAnalyser::Target::Machine ma
std::map<std::string, std::vector<std::unique_ptr<Configurable::Option>>> Machine::AllOptionsByMachineName() {
std::map<std::string, std::vector<std::unique_ptr<Configurable::Option>>> options;
options.emplace(std::make_pair(LongNameForTargetMachine(StaticAnalyser::Target::Electron), Electron::get_options()));
options.emplace(std::make_pair(LongNameForTargetMachine(StaticAnalyser::Target::MSX), MSX::get_options()));
options.emplace(std::make_pair(LongNameForTargetMachine(StaticAnalyser::Target::Oric), Oric::get_options()));
options.emplace(std::make_pair(LongNameForTargetMachine(StaticAnalyser::Target::Vic20), Commodore::Vic20::get_options()));
options.emplace(std::make_pair(LongNameForTargetMachine(StaticAnalyser::Target::ZX8081), ZX8081::get_options()));
options.emplace(std::make_pair(LongNameForTargetMachine(Analyser::Machine::Electron), Electron::get_options()));
options.emplace(std::make_pair(LongNameForTargetMachine(Analyser::Machine::MSX), MSX::get_options()));
options.emplace(std::make_pair(LongNameForTargetMachine(Analyser::Machine::Oric), Oric::get_options()));
options.emplace(std::make_pair(LongNameForTargetMachine(Analyser::Machine::Vic20), Commodore::Vic20::get_options()));
options.emplace(std::make_pair(LongNameForTargetMachine(Analyser::Machine::ZX8081), ZX8081::get_options()));
return options;
}

View File

@@ -9,52 +9,42 @@
#ifndef MachineForTarget_hpp
#define MachineForTarget_hpp
#include "../../StaticAnalyser/StaticAnalyser.hpp"
#include "../../Analyser/Static/StaticAnalyser.hpp"
#include "../../Configurable/Configurable.hpp"
#include "../ConfigurationTarget.hpp"
#include "../CRTMachine.hpp"
#include "../JoystickMachine.hpp"
#include "../KeyboardMachine.hpp"
#include "Typer.hpp"
#include "../DynamicMachine.hpp"
#include <map>
#include <string>
#include <vector>
namespace Machine {
/*!
Provides the structure for owning a machine and dynamically casting it as desired without knowledge of
the machine's parent class or, therefore, the need to establish a common one.
*/
struct DynamicMachine {
virtual ConfigurationTarget::Machine *configuration_target() = 0;
virtual CRTMachine::Machine *crt_machine() = 0;
virtual JoystickMachine::Machine *joystick_machine() = 0;
virtual KeyboardMachine::Machine *keyboard_machine() = 0;
virtual Configurable::Device *configurable_device() = 0;
virtual Utility::TypeRecipient *type_recipient() = 0;
enum class Error {
None,
UnknownMachine,
MissingROM,
NoTargets
};
/*!
Allocates an instance of DynamicMachine holding a machine that can
receive the supplied target. The machine has been allocated on the heap.
It is the caller's responsibility to delete the class when finished.
receive the supplied static analyser result. The machine has been allocated
on the heap. It is the caller's responsibility to delete the class when finished.
*/
DynamicMachine *MachineForTarget(const StaticAnalyser::Target &target);
DynamicMachine *MachineForTargets(const std::vector<std::unique_ptr<Analyser::Static::Target>> &targets, const ::ROMMachine::ROMFetcher &rom_fetcher, Error &error);
/*!
Returns a short string name for the machine identified by the target,
which is guaranteed not to have any spaces or other potentially
filesystem-bothering contents.
*/
std::string ShortNameForTargetMachine(const StaticAnalyser::Target::Machine target);
std::string ShortNameForTargetMachine(const Analyser::Machine target);
/*!
Returns a long string name for the machine identified by the target,
usable for presentation to a human.
*/
std::string LongNameForTargetMachine(const StaticAnalyser::Target::Machine target);
std::string LongNameForTargetMachine(const Analyser::Machine target);
/*!
Returns a map from machine name to the list of options that machine

View File

@@ -45,8 +45,8 @@ template<typename T> class TypedDynamicMachine: public ::Machine::DynamicMachine
return get<Configurable::Device>();
}
Utility::TypeRecipient *type_recipient() override {
return get<Utility::TypeRecipient>();
void *raw_pointer() override {
return get();
}
private:

View File

@@ -8,6 +8,7 @@
#include "ZX8081.hpp"
#include "../../Components/AY38910/AY38910.hpp"
#include "../../Processors/Z80/Z80.hpp"
#include "../../Storage/Tape/Tape.hpp"
#include "../../Storage/Tape/Parsers/ZX8081.hpp"
@@ -18,6 +19,8 @@
#include "../Utility/MemoryFuzzer.hpp"
#include "../Utility/Typer.hpp"
#include "../../Outputs/Speaker/Implementation/LowpassSpeaker.hpp"
#include "Keyboard.hpp"
#include "Video.hpp"
@@ -31,6 +34,11 @@ namespace {
const unsigned int ZX8081ClockRate = 3250000;
}
// TODO:
// Quiksilva sound support:
// 7FFFh.W PSG index
// 7FFEh.R/W PSG data
namespace ZX8081 {
enum ROMType: uint8_t {
@@ -50,14 +58,18 @@ template<bool is_zx81> class ConcreteMachine:
public:
ConcreteMachine() :
z80_(*this),
tape_player_(ZX8081ClockRate) {
tape_player_(ZX8081ClockRate),
ay_(audio_queue_),
speaker_(ay_) {
set_clock_rate(ZX8081ClockRate);
speaker_.set_input_rate(static_cast<float>(ZX8081ClockRate) / 2.0f);
clear_all_keys();
}
forceinline HalfCycles perform_machine_cycle(const CPU::Z80::PartialMachineCycle &cycle) {
HalfCycles previous_counter = horizontal_counter_;
const HalfCycles previous_counter = horizontal_counter_;
horizontal_counter_ += cycle.length;
time_since_ay_update_ += cycle.length;
if(previous_counter < vsync_start_ && horizontal_counter_ >= vsync_start_) {
video_->run_for(vsync_start_ - previous_counter);
@@ -94,7 +106,7 @@ template<bool is_zx81> class ConcreteMachine:
return Cycles(0);
}
uint16_t address = cycle.address ? *cycle.address : 0;
const uint16_t address = cycle.address ? *cycle.address : 0;
bool is_opcode_read = false;
switch(cycle.operation) {
case CPU::Z80::PartialMachineCycle::Output:
@@ -106,6 +118,15 @@ template<bool is_zx81> class ConcreteMachine:
if(vsync_) line_counter_ = 0;
set_vsync(false);
}
// The below emulates the ZonX AY expansion device.
if(is_zx81) {
if((address&0xef) == 0xcf) {
ay_set_register(*cycle.value);
} else if((address&0xef) == 0x0f) {
ay_set_data(*cycle.value);
}
}
break;
case CPU::Z80::PartialMachineCycle::Input: {
@@ -121,6 +142,13 @@ template<bool is_zx81> class ConcreteMachine:
value &= ~(tape_player_.get_input() ? 0x00 : 0x80);
}
// The below emulates the ZonX AY expansion device.
if(is_zx81) {
if((address&0xef) == 0x0f) {
value &= ay_read_data();
}
}
*cycle.value = value;
} break;
@@ -144,7 +172,7 @@ template<bool is_zx81> class ConcreteMachine:
}
if(has_latched_video_byte_) {
std::size_t char_address = static_cast<std::size_t>((address & 0xfe00) | ((latched_video_byte_ & 0x3f) << 3) | line_counter_);
uint8_t mask = (latched_video_byte_ & 0x80) ? 0x00 : 0xff;
const uint8_t mask = (latched_video_byte_ & 0x80) ? 0x00 : 0xff;
if(char_address < ram_base_) {
latched_video_byte_ = rom_[char_address & rom_mask_] ^ mask;
} else {
@@ -158,11 +186,11 @@ template<bool is_zx81> class ConcreteMachine:
case CPU::Z80::PartialMachineCycle::ReadOpcode:
// Check for use of the fast tape hack.
if(use_fast_tape_hack_ && address == tape_trap_address_ && tape_player_.has_tape()) {
uint64_t prior_offset = tape_player_.get_tape()->get_offset();
int next_byte = parser_.get_next_byte(tape_player_.get_tape());
if(use_fast_tape_hack_ && address == tape_trap_address_) {
const uint64_t prior_offset = tape_player_.get_tape()->get_offset();
const int next_byte = parser_.get_next_byte(tape_player_.get_tape());
if(next_byte != -1) {
uint16_t hl = z80_.get_value_of_register(CPU::Z80::Register::HL);
const uint16_t hl = z80_.get_value_of_register(CPU::Z80::Register::HL);
ram_[hl & ram_mask_] = static_cast<uint8_t>(next_byte);
*cycle.value = 0x00;
z80_.set_value_of_register(CPU::Z80::Register::ProgramCounter, tape_return_address_ - 1);
@@ -187,7 +215,7 @@ template<bool is_zx81> class ConcreteMachine:
if(address < ram_base_) {
*cycle.value = rom_[address & rom_mask_];
} else {
uint8_t value = ram_[address & ram_mask_];
const uint8_t value = ram_[address & ram_mask_];
// If this is an M1 cycle reading from above the 32kb mark and HALT is not
// currently active, latch for video output and return a NOP. Otherwise,
@@ -210,12 +238,15 @@ template<bool is_zx81> class ConcreteMachine:
}
if(typer_) typer_->run_for(cycle.length);
return HalfCycles(0);
}
forceinline void flush() {
video_->flush();
if(is_zx81) {
update_audio();
audio_queue_.perform();
}
}
void setup_output(float aspect_ratio) override final {
@@ -231,14 +262,14 @@ template<bool is_zx81> class ConcreteMachine:
}
Outputs::Speaker::Speaker *get_speaker() override final {
return nullptr;
return is_zx81 ? &speaker_ : nullptr;
}
void run_for(const Cycles cycles) override final {
z80_.run_for(cycles);
}
void configure_as_target(const StaticAnalyser::Target &target) override final {
void configure_as_target(const Analyser::Static::Target &target) override final {
is_zx81_ = target.zx8081.isZX81;
if(is_zx81_) {
rom_ = zx81_rom_;
@@ -260,17 +291,17 @@ template<bool is_zx81> class ConcreteMachine:
rom_mask_ = static_cast<uint16_t>(rom_.size() - 1);
switch(target.zx8081.memory_model) {
case StaticAnalyser::ZX8081MemoryModel::Unexpanded:
case Analyser::Static::ZX8081MemoryModel::Unexpanded:
ram_.resize(1024);
ram_base_ = 16384;
ram_mask_ = 1023;
break;
case StaticAnalyser::ZX8081MemoryModel::SixteenKB:
case Analyser::Static::ZX8081MemoryModel::SixteenKB:
ram_.resize(16384);
ram_base_ = 16384;
ram_mask_ = 16383;
break;
case StaticAnalyser::ZX8081MemoryModel::SixtyFourKB:
case Analyser::Static::ZX8081MemoryModel::SixtyFourKB:
ram_.resize(65536);
ram_base_ = 8192;
ram_mask_ = 65535;
@@ -285,11 +316,12 @@ template<bool is_zx81> class ConcreteMachine:
insert_media(target.media);
}
bool insert_media(const StaticAnalyser::Media &media) override final {
bool insert_media(const Analyser::Static::Media &media) override final {
if(!media.tapes.empty()) {
tape_player_.set_tape(media.tapes.front());
}
set_use_fast_tape();
return !media.tapes.empty();
}
@@ -300,7 +332,7 @@ template<bool is_zx81> class ConcreteMachine:
// Obtains the system ROMs.
bool set_rom_fetcher(const std::function<std::vector<std::unique_ptr<std::vector<uint8_t>>>(const std::string &machine, const std::vector<std::string> &names)> &roms_with_names) override {
auto roms = roms_with_names(
const auto roms = roms_with_names(
"ZX8081",
{
"zx80.rom", "zx81.rom",
@@ -319,8 +351,8 @@ template<bool is_zx81> class ConcreteMachine:
}
// MARK: - Keyboard
void set_key_state(uint16_t key, bool isPressed) override final {
if(isPressed)
void set_key_state(uint16_t key, bool is_pressed) override final {
if(is_pressed)
key_states_[key >> 8] &= static_cast<uint8_t>(~key);
else
key_states_[key >> 8] |= static_cast<uint8_t>(key);
@@ -331,9 +363,6 @@ template<bool is_zx81> class ConcreteMachine:
}
// MARK: - Tape control
void set_use_fast_tape_hack(bool activate) {
use_fast_tape_hack_ = activate;
}
void set_use_automatic_tape_motor_control(bool enabled) {
use_automatic_tape_motor_control_ = enabled;
@@ -341,16 +370,21 @@ template<bool is_zx81> class ConcreteMachine:
tape_player_.set_motor_control(false);
}
}
void set_tape_is_playing(bool is_playing) override final {
tape_player_.set_motor_control(is_playing);
}
bool get_tape_is_playing() override final {
return tape_player_.get_motor_control();
}
// MARK: - Typer timing
HalfCycles get_typer_delay() override final { return Cycles(7000000); }
HalfCycles get_typer_frequency() override final { return Cycles(390000); }
KeyboardMapper &get_keyboard_mapper() override {
return keyboard_mapper_;
KeyboardMapper *get_keyboard_mapper() override {
return &keyboard_mapper_;
}
// MARK: - Configuration options.
@@ -361,7 +395,8 @@ template<bool is_zx81> class ConcreteMachine:
void set_selections(const Configurable::SelectionSet &selections_by_option) override {
bool quickload;
if(Configurable::get_quick_load_tape(selections_by_option, quickload)) {
set_use_fast_tape_hack(quickload);
allow_fast_tape_hack_ = quickload;
set_use_fast_tape();
}
bool autotapemotor;
@@ -418,6 +453,10 @@ template<bool is_zx81> class ConcreteMachine:
bool has_latched_video_byte_ = false;
bool use_fast_tape_hack_ = false;
bool allow_fast_tape_hack_ = false;
void set_use_fast_tape() {
use_fast_tape_hack_ = allow_fast_tape_hack_ && tape_player_.has_tape();
}
bool use_automatic_tape_motor_control_;
HalfCycles tape_advance_delay_ = 0;
@@ -435,6 +474,34 @@ template<bool is_zx81> class ConcreteMachine:
inline void update_sync() {
video_->set_sync(vsync_ || hsync_);
}
// MARK: - Audio
Concurrency::DeferringAsyncTaskQueue audio_queue_;
GI::AY38910::AY38910 ay_;
Outputs::Speaker::LowpassSpeaker<GI::AY38910::AY38910> speaker_;
HalfCycles time_since_ay_update_;
inline void ay_set_register(uint8_t value) {
update_audio();
ay_.set_control_lines(GI::AY38910::BC1);
ay_.set_data_input(value);
ay_.set_control_lines(GI::AY38910::ControlLines(0));
}
inline void ay_set_data(uint8_t value) {
update_audio();
ay_.set_control_lines(GI::AY38910::ControlLines(GI::AY38910::BC2 | GI::AY38910::BDIR));
ay_.set_data_input(value);
ay_.set_control_lines(GI::AY38910::ControlLines(0));
}
inline uint8_t ay_read_data() {
update_audio();
ay_.set_control_lines(GI::AY38910::ControlLines(GI::AY38910::BC2 | GI::AY38910::BC1));
const uint8_t value = ay_.get_data_output();
ay_.set_control_lines(GI::AY38910::ControlLines(0));
return value;
}
inline void update_audio() {
speaker_.run_for(audio_queue_, time_since_ay_update_.divide_cycles(Cycles(2)));
}
};
}
@@ -442,7 +509,7 @@ template<bool is_zx81> class ConcreteMachine:
using namespace ZX8081;
// See header; constructs and returns an instance of the ZX80 or 81.
Machine *Machine::ZX8081(const StaticAnalyser::Target &target_hint) {
Machine *Machine::ZX8081(const Analyser::Static::Target &target_hint) {
// Instantiate the correct type of machine.
if(target_hint.zx8081.isZX81)
return new ZX8081::ConcreteMachine<true>();

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