/*
	Skelton for retropc emulator

	Author : Takeda.Toshiya
	Date   : 2006.08.18 -

	[ device base class ]
*/

#include "common.h"
#include "../vm.h"
#include "../..//emu.h"
#include "device.h"
#if defined(_USE_QT)
#include "../qt/gui/csp_logger.h"
extern DLL_PREFIX_I CSP_Logger *csp_logger;
#endif

DEVICE::DEVICE(VM_TEMPLATE* parent_vm, EMU* parent_emu) : vm(parent_vm), emu(parent_emu)
{
	vm = parent_vm;
	emu = parent_emu;

	osd = emu->get_osd();
#if defined(_USE_QT)
	p_logger = csp_logger;
#endif	
	memset(this_device_name, 0x00, sizeof(this_device_name));
	strncpy(this_device_name, "Base Device", 128 - 1);
	prev_device = vm->last_device;
	next_device = NULL;
	if(vm->first_device == NULL) {
		// this is the first device
		vm->first_device = this;
		this_device_id = 0;
	} else {
		// this is not the first device
		vm->last_device->next_device = this;
		this_device_id = vm->last_device->this_device_id + 1;
	}
	vm->last_device = this;
	
	// primary event manager
	event_manager = NULL;
}

//DEVICE::~DEVICE(void)
//{
//}


void DEVICE::release()
{
}

uint32_t __FASTCALL DEVICE::read_io8(uint32_t addr)
{
#ifdef IOBUS_RETURN_ADDR
		return (addr & 1 ? addr >> 8 : addr) & 0xff;
#else
		return 0xff;
#endif
}


// Sound input functions

void DEVICE::clear_sound_in_source(int bank)
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	event_manager->clear_sound_in_source(bank);
}

// this function may be before (or after) initialize().
int DEVICE::add_sound_in_source(int rate, int samples, int channels)
{
	if(event_manager == NULL) return -1;
	return event_manager->add_sound_in_source(rate, samples, channels);
}

// this function may be before (or after) initialize().
int DEVICE::release_sound_in_source(int bank)
{
	if(event_manager == NULL) return -1;
	return event_manager->release_sound_in_source(bank);
}
	
bool DEVICE::is_sound_in_source_exists(int bank)
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	return event_manager->is_sound_in_source_exists(bank);
}

int DEVICE::increment_sound_in_passed_data(int bank, double passed_usec)
{
	if(event_manager == NULL) {
		return 0;
	}
	return event_manager->increment_sound_in_passed_data(bank, passed_usec);
}

int DEVICE::get_sound_in_buffers_count()
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	return event_manager->get_sound_in_buffers_count();
}

int DEVICE::get_sound_in_samples(int bank)
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	return event_manager->get_sound_in_samples(bank);
}

int DEVICE::get_sound_in_rate(int bank)
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	return event_manager->get_sound_in_rate(bank);
}

int DEVICE::get_sound_in_channels(int bank)
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	return event_manager->get_sound_in_channels(bank);
}

// this function may be before (or after) initialize().
int16_t* DEVICE::get_sound_in_buf_ptr(int bank)
{
	if(event_manager == NULL) return NULL;
	return event_manager->get_sound_in_buf_ptr(bank);
}

int DEVICE::write_sound_in_buffer(int bank, int32_t* src, int samples)
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	return event_manager->write_sound_in_buffer(bank, src, samples);
}

// Add sampled values to sample buffer;value may be -32768 to +32767.
// this function may be before (or after) initialize().
int DEVICE::get_sound_in_latest_data(int bank, int32_t* dst, int expect_channels)
{
	if(event_manager == NULL) return 0;
	return event_manager->get_sound_in_latest_data(bank, dst, expect_channels);
}

int DEVICE::get_sound_in_data(int bank, int32_t* dst, int expect_samples, int expect_rate, int expect_channels)
{
	if(event_manager == NULL) return -1;
	return event_manager->get_sound_in_data(bank, dst, expect_samples, expect_rate, expect_channels);
}

int DEVICE::get_event_manager_id()
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	return event_manager->this_device_id;
}
bool DEVICE::is_primary_cpu(DEVICE* device)
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	return event_manager->is_primary_cpu(device);
}
void DEVICE::update_extra_event(int clock)
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	event_manager->update_extra_event(clock);
}
void DEVICE::register_event(DEVICE* device, int event_id, double usec, bool loop, int* register_id)
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	event_manager->register_event(device, event_id, usec, loop, register_id);
}

void DEVICE::register_event_by_clock(DEVICE* device, int event_id, uint64_t clock, bool loop, int* register_id)
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	event_manager->register_event_by_clock(device, event_id, clock, loop, register_id);
}

void DEVICE::cancel_event(DEVICE* device, int register_id)
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	event_manager->cancel_event(device, register_id);
}
void DEVICE::register_frame_event(DEVICE* device)
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	event_manager->register_frame_event(device);
}
void DEVICE::register_vline_event(DEVICE* device)
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	event_manager->register_vline_event(device);
}
uint32_t DEVICE::get_event_remaining_clock(int register_id)
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	return event_manager->get_event_remaining_clock(register_id);
}

double DEVICE::get_event_remaining_usec(int register_id)
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	return event_manager->get_event_remaining_usec(register_id);
}

uint32_t DEVICE::get_current_clock()
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	return event_manager->get_current_clock();
}

uint32_t DEVICE::get_passed_clock(uint32_t prev)
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	return event_manager->get_passed_clock(prev);
}

double DEVICE::get_passed_usec(uint32_t prev)
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	return event_manager->get_passed_usec(prev);
}

uint32_t DEVICE::get_passed_clock_since_vline()
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	return event_manager->get_passed_clock_since_vline();
}

double DEVICE::get_passed_usec_since_vline()
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	return event_manager->get_passed_usec_since_vline();
}

int DEVICE::get_cur_vline()
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	return event_manager->get_cur_vline();
}

int DEVICE::get_cur_vline_clocks()
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	return event_manager->get_cur_vline_clocks();
}

uint32_t DEVICE::get_cpu_pc(int index)
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	return event_manager->get_cpu_pc(index);
}

uint64_t DEVICE::get_current_clock_uint64()
{ 
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	return event_manager->get_current_clock_uint64();
}

uint32_t DEVICE::get_cpu_clock(int index)
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	return event_manager->get_cpu_clock(index);
}

void DEVICE::request_skip_frames()
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	event_manager->request_skip_frames();
}

void DEVICE::set_frames_per_sec(double frames)
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	event_manager->set_frames_per_sec(frames);
}

void DEVICE::set_lines_per_frame(int lines)
{
		if(event_manager == NULL) {
			event_manager = vm->first_device->next_device;
		}
		event_manager->set_lines_per_frame(lines);
}

int DEVICE::get_lines_per_frame()
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	return event_manager->get_lines_per_frame();
}

// Force render sound immediately when device's status has changed.
// You must call this after you changing registers (or anything).
// If has problems, try set_realtime_render.
// See mb8877.cpp and ym2203.cpp. 
// -- 20161010 K.O
void DEVICE::touch_sound(void)
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	event_manager->touch_sound();
}
// Force render per 1 sample automatically.
// See pcm1bit.cpp .
// -- 20161010 K.O
void DEVICE::set_realtime_render(DEVICE *device, bool flag)
{
	if(event_manager == NULL) {
		event_manager = vm->first_device->next_device;
	}
	if(device != event_manager) event_manager->set_realtime_render(device, flag);
}

void DEVICE::set_device_name(const _TCHAR *format, ...)
{
	if(format != NULL) {
		va_list ap;
		_TCHAR buffer[1024];
		
		va_start(ap, format);
		my_vstprintf_s(buffer, 1024, format, ap);
		va_end(ap);

		my_tcscpy_s(this_device_name, 128, buffer);
#ifdef _USE_QT
		emu->get_osd()->set_vm_node(this_device_id, buffer);
#endif
	}
}

void DEVICE::out_debug_log(const char *fmt, ...)
{
#if defined(_USE_QT)
	if(p_logger == NULL) return;
   	char strbuf[4096];
	va_list ap;
	
	va_start(ap, fmt);
	vsnprintf(strbuf, 4095, fmt, ap);
	p_logger->debug_log(CSP_LOG_DEBUG, this_device_id + CSP_LOG_TYPE_VM_DEVICE_0, "%s", strbuf);
	va_end(ap);
#else
	char strbuf[4096];
	va_list ap;

	va_start(ap, fmt);
	vsnprintf(strbuf, 4095, fmt, ap);
	emu->out_debug_log("%s", strbuf);
	va_end(ap);
#endif
}

void DEVICE::force_out_debug_log(const char *fmt, ...)
{
	char strbuf[4096];
	va_list ap;

	va_start(ap, fmt);
	vsnprintf(strbuf, 4095, fmt, ap);
	emu->force_out_debug_log("%s", strbuf);
	va_end(ap);
}

// debugger
bool DEVICE::is_cpu()
{
	return false;
}
bool DEVICE::is_debugger()
{
	return false;
}
bool DEVICE::is_debugger_available()
{
	return false;
}
void *DEVICE::get_debugger()
{
	return NULL;
}
uint32_t DEVICE::get_debug_prog_addr_mask()
{
	return 0;
}

uint32_t DEVICE::get_debug_data_addr_mask()
{
	return 0;
}

uint64_t DEVICE::get_debug_data_addr_space()
{
	// override this function when memory space is not (2 << n)
	return (uint64_t)get_debug_data_addr_mask() + 1;
}
void __FASTCALL DEVICE::write_debug_data8(uint32_t addr, uint32_t data)
{
//		write_data8(addr, data);
}
uint32_t __FASTCALL DEVICE::read_debug_data8(uint32_t addr)
{
//		return read_data8(addr);
	return 0xff;
}
void __FASTCALL DEVICE::write_debug_data16(uint32_t addr, uint32_t data)
{
	write_debug_data8(addr, data & 0xff);
	write_debug_data8(addr + 1, (data >> 8) & 0xff);
}
uint32_t __FASTCALL DEVICE::read_debug_data16(uint32_t addr)
{
	uint32_t val = read_debug_data8(addr);
	val |= read_debug_data8(addr + 1) << 8;
	return val;
}
void __FASTCALL DEVICE::write_debug_data32(uint32_t addr, uint32_t data)
{
	write_debug_data16(addr, data & 0xffff);
	write_debug_data16(addr + 2, (data >> 16) & 0xffff);
}
uint32_t __FASTCALL DEVICE::read_debug_data32(uint32_t addr)
{
	uint32_t val = read_debug_data16(addr);
	val |= read_debug_data16(addr + 2) << 16;
	return val;
}
void __FASTCALL DEVICE::write_debug_io8(uint32_t addr, uint32_t data)
{
//		write_io8(addr, data);
}
uint32_t __FASTCALL DEVICE::read_debug_io8(uint32_t addr)
{
//		return read_io8(addr);
	return 0xff;
}
void __FASTCALL DEVICE::write_debug_io16(uint32_t addr, uint32_t data)
{
	write_debug_io8(addr, data & 0xff);
	write_debug_io8(addr + 1, (data >> 8) & 0xff);
}
uint32_t __FASTCALL DEVICE::read_debug_io16(uint32_t addr)
{
	uint32_t val = read_debug_io8(addr);
	val |= read_debug_io8(addr + 1) << 8;
	return val;
}
void __FASTCALL DEVICE::write_debug_io32(uint32_t addr, uint32_t data)
{
	write_debug_io16(addr, data & 0xffff);
	write_debug_io16(addr + 2, (data >> 16) & 0xffff);
}
uint32_t __FASTCALL DEVICE::read_debug_io32(uint32_t addr)
{
	uint32_t val = read_debug_io16(addr);
	val |= read_debug_io16(addr + 2) << 16;
	return val;
}
bool DEVICE::write_debug_reg(const _TCHAR *reg, uint32_t data)
{
	return false;
}
uint32_t __FASTCALL DEVICE::read_debug_reg(const _TCHAR *reg)
{
	return 0;
}
bool DEVICE::get_debug_regs_info(_TCHAR *buffer, size_t buffer_len)
{
	return false;
}
int DEVICE::debug_dasm(uint32_t pc, _TCHAR *buffer, size_t buffer_len)
{
	return debug_dasm_with_userdata(pc, buffer, buffer_len, 0);
}

int DEVICE::debug_dasm_with_userdata(uint32_t pc, _TCHAR *buffer, size_t buffer_len, uint32_t userdata)
{
	return 0;
}
/*
	These functions are used for debugging non-cpu device
	Insert debugger between standard read/write functions and these functions for checking breakpoints

	void __FASTCALL DEVICE::write_data8(uint32_t addr, uint32_t data)
	{
		if(debugger != NULL && debugger->now_device_debugging) {
			// debugger->mem = this;
			// debugger->mem->write_via_debugger_data8(addr, data)
			debugger->write_via_debugger_data8(addr, data);
		} else {
			this->write_via_debugger_data8(addr, data);
		}
	}
	void __FASTCALL DEVICE::write_via_debugger_data8(uint32_t addr, uint32_t data)
	{
		// write memory
	}
*/

void __FASTCALL DEVICE::write_via_debugger_data8(uint32_t addr, uint32_t data)
{
}
uint32_t __FASTCALL DEVICE::read_via_debugger_data8(uint32_t addr)
{
	return 0xff;
}
void __FASTCALL DEVICE::write_via_debugger_data16(uint32_t addr, uint32_t data)
{
}
uint32_t __FASTCALL DEVICE::read_via_debugger_data16(uint32_t addr)
{
	return 0xffff;
}
void __FASTCALL DEVICE::write_via_debugger_data32(uint32_t addr, uint32_t data)
{
}
uint32_t __FASTCALL DEVICE::read_via_debugger_data32(uint32_t addr)
{
	return 0xffffffff;
}
void __FASTCALL DEVICE::write_via_debugger_data8w(uint32_t addr, uint32_t data, int* wait)
{
}
uint32_t __FASTCALL DEVICE::read_via_debugger_data8w(uint32_t addr, int* wait)
{
	return 0xff;
}
void __FASTCALL DEVICE::write_via_debugger_data16w(uint32_t addr, uint32_t data, int* wait)
{
}
uint32_t __FASTCALL DEVICE::read_via_debugger_data16w(uint32_t addr, int* wait)
{
	return 0xffff;
}
void __FASTCALL DEVICE::write_via_debugger_data32w(uint32_t addr, uint32_t data, int* wait)
{
}
uint32_t __FASTCALL DEVICE::read_via_debugger_data32w(uint32_t addr, int* wait)
{
	return 0xffffffff;
}
void __FASTCALL DEVICE::write_via_debugger_io8(uint32_t addr, uint32_t data)
{
}
uint32_t __FASTCALL DEVICE::read_via_debugger_io8(uint32_t addr)
{
	return 0xff;
}
void __FASTCALL DEVICE::write_via_debugger_io16(uint32_t addr, uint32_t data)
{
}
uint32_t __FASTCALL DEVICE::read_via_debugger_io16(uint32_t addr)
{
	return 0xffff;
}
void __FASTCALL DEVICE::write_via_debugger_io32(uint32_t addr, uint32_t data)
{
}
uint32_t __FASTCALL DEVICE::read_via_debugger_io32(uint32_t addr)
{
	return 0xffffffff;
}
void __FASTCALL DEVICE::write_via_debugger_io8w(uint32_t addr, uint32_t data, int* wait)
{
}
uint32_t __FASTCALL DEVICE::read_via_debugger_io8w(uint32_t addr, int* wait)
{
	return 0xff;
}
void __FASTCALL DEVICE::write_via_debugger_io16w(uint32_t addr, uint32_t data, int* wait)
{
}
uint32_t __FASTCALL DEVICE::read_via_debugger_io16w(uint32_t addr, int* wait)
{
	return 0xffff;
}
void __FASTCALL DEVICE::write_via_debugger_io32w(uint32_t addr, uint32_t data, int* wait)
{
}
uint32_t __FASTCALL DEVICE::read_via_debugger_io32w(uint32_t addr, int* wait)
{
	return 0xffffffff;
}


const _TCHAR *DEVICE::get_lib_common_vm_version(void)
{
#if defined(__LIBRARY_NAME)
	return (const _TCHAR *)__LIBRARY_NAME;
#else
	return (const _TCHAR *)"\0";
#endif	
}

bool DEVICE::address_translate(int space, int intention, uint64_t &taddress)
{
	return true; // If don't present address translation, translation succeed.
}
