#include #include #include "maple/maple.hpp" #include "maple/maple_bus_commands.hpp" #include "maple/maple_bus_bits.hpp" #include "maple/maple_host_command_writer.hpp" #include "maple/maple_port.hpp" #include "align.hpp" #include "sh7091/serial.hpp" #include "holly/video_output.hpp" extern uint32_t _binary_wink_data_start __asm("_binary_texture_wink_wink_data_start"); constexpr uint32_t width = 48; constexpr uint32_t height = 32; constexpr uint32_t pixels_per_byte = 8; constexpr uint32_t wink_size = width * height / pixels_per_byte; uint32_t wink_buf[wink_size / 4]; void make_wink(uint32_t * buf) { const uint8_t * src = reinterpret_cast(&_binary_wink_data_start); uint8_t * dst = reinterpret_cast(buf); uint32_t ix = 0; dst[ix] = 0; for (int i = 0; i < 48 * 32; i++) { dst[ix] |= ((src[i] & 1) << (7 - (i % 8))); if (i % 8 == 7) { ix++; dst[ix] = 0; } } } template inline void copy(T * dst, const T * src, const int32_t n) noexcept { int32_t n_t = n / (sizeof (T)); while (n_t > 0) { *dst++ = *src++; n_t--; } } void send_wink(uint8_t port, uint8_t lm) { uint32_t send_buf[1024] __attribute__((aligned(32))); uint32_t recv_buf[1024] __attribute__((aligned(32))); using command_type = maple::block_write; using response_type = maple::device_reply; auto writer = maple::host_command_writer(send_buf, recv_buf); uint32_t host_port_select = host_instruction_port_select(port); uint32_t destination_ap = ap_port_select(port) | ap::de::expansion_device | lm; auto [host_command, host_response] = writer.append_command(host_port_select, destination_ap, true, // end_flag wink_size, // send_trailing 0 // recv_trailing ); auto& data_fields = host_command->bus_data.data_fields; data_fields.function_type = std::byteswap(function_type::bw_lcd); data_fields.pt = 0; data_fields.phase = 0; data_fields.block_number = std::byteswap(0x0000); copy(data_fields.written_data, reinterpret_cast(wink_buf), wink_size); maple::dma_start(send_buf, writer.send_offset, recv_buf, writer.recv_offset); maple::dma_wait_complete(); serial::integer(host_response->bus_data.command_code); serial::integer(host_response->bus_data.destination_ap); serial::integer(host_response->bus_data.source_ap); serial::integer(host_response->bus_data.data_size); } void do_lm_request(uint8_t port, uint8_t lm) { uint32_t send_buf[1024] __attribute__((aligned(32))); uint32_t recv_buf[1024] __attribute__((aligned(32))); auto writer = maple::host_command_writer(send_buf, recv_buf); uint32_t host_port_select = host_instruction_port_select(port); uint32_t destination_ap = ap_port_select(port) | ap::de::expansion_device | lm; using command_type = maple::device_request; using response_type = maple::device_status; auto [host_command, host_response] = writer.append_command(host_port_select, destination_ap, true); // end_flag maple::dma_start(send_buf, writer.send_offset, recv_buf, writer.recv_offset); maple::dma_wait_complete(); auto& bus_data = host_response->bus_data; auto& data_fields = bus_data.data_fields; if (bus_data.command_code != maple::device_status::command_code) { serial::string("lm did not reply: "); serial::integer(port, ' '); serial::integer(lm); } else { serial::string(" lm: "); serial::integer(lm); serial::string(" ft: "); serial::integer(std::byteswap(data_fields.device_id.ft)); serial::string(" fd[0]: "); serial::integer(std::byteswap(data_fields.device_id.fd[0])); serial::string(" fd[1]: "); serial::integer(std::byteswap(data_fields.device_id.fd[1])); serial::string(" fd[2]: "); serial::integer(std::byteswap(data_fields.device_id.fd[2])); serial::string(" source_ap.lm_bus: "); serial::integer(bus_data.source_ap & ap::lm_bus::bit_mask); if (std::byteswap(data_fields.device_id.ft) & function_type::bw_lcd) { serial::string("send wink\n"); send_wink(port, lm); } } } void do_lm_requests(uint8_t port, uint8_t lm) { if (lm & ap::lm_bus::_0) do_lm_request(port, lm & ap::lm_bus::_0); if (lm & ap::lm_bus::_1) do_lm_request(port, lm & ap::lm_bus::_1); if (lm & ap::lm_bus::_2) do_lm_request(port, lm & ap::lm_bus::_2); if (lm & ap::lm_bus::_3) do_lm_request(port, lm & ap::lm_bus::_3); if (lm & ap::lm_bus::_4) do_lm_request(port, lm & ap::lm_bus::_4); } void do_device_request() { uint32_t send_buf[1024] __attribute__((aligned(32))); uint32_t recv_buf[1024] __attribute__((aligned(32))); auto writer = maple::host_command_writer(send_buf, recv_buf); using command_type = maple::device_request; using response_type = maple::device_status; auto [host_command, host_response] = writer.append_command_all_ports(); maple::dma_start(send_buf, writer.send_offset, recv_buf, writer.recv_offset); maple::dma_wait_complete(); for (uint8_t port = 0; port < 4; port++) { auto& bus_data = host_response[port].bus_data; auto& data_fields = bus_data.data_fields; if (bus_data.command_code != response_type::command_code) { serial::string("port: "); serial::integer(port); serial::string(" disconnected\n"); } else { serial::string("port: "); serial::integer(port); serial::string(" ft: "); serial::integer(std::byteswap(data_fields.device_id.ft)); serial::string(" fd[0]: "); serial::integer(std::byteswap(data_fields.device_id.fd[0])); serial::string(" fd[1]: "); serial::integer(std::byteswap(data_fields.device_id.fd[1])); serial::string(" fd[2]: "); serial::integer(std::byteswap(data_fields.device_id.fd[2])); serial::string(" source_ap.lm_bus: "); serial::integer(bus_data.source_ap & ap::lm_bus::bit_mask); do_lm_requests(port, bus_data.source_ap & ap::lm_bus::bit_mask); } } } void main() { serial::init(4); make_wink(wink_buf); do_device_request(); while (1); }