1
0
mirror of synced 2024-11-27 17:11:01 +01:00
Arduino-Aime-Reader/Aime_Reader.h

422 lines
12 KiB
C
Raw Blame History

This file contains ambiguous Unicode characters

This file contains Unicode characters that might be confused with other characters. If you think that this is intentional, you can safely ignore this warning. Use the Escape button to reveal them.

#if defined(__AVR_ATmega32U4__)
#pragma message "当前的开发板是 ATmega32U4"
#define SerialDevice SerialUSB
#define PN532_SPI_SS 10
#define LED_PIN A3
#elif defined(ESP8266)
#pragma message "当前的开发板是 ESP8266"
#define SerialDevice Serial
#define PN532_SPI_SS D4
#define LED_PIN D5
#elif defined(ESP32)
#pragma message "当前的开发板是 ESP32"
#define SerialDevice Serial
#define PN532_SPI_SS 5
#define LED_PIN 13
#else
#error "未经测试的开发板,请检查串口和针脚定义"
#endif
#if defined(PN532_SPI_SS)
#pragma message "使用 SPI 连接 PN532"
#include <PN532_SPI.h>
PN532_SPI pn532(SPI, PN532_SPI_SS);
#elif defined(PN532_HSU_Device)
#pragma message "使用 HSU 连接 PN532"
#include <PN532_HSU.h>
PN532_HSU pn532(PN532_HSU_Device);
#else
#pragma message "使用 I2C 连接 PN532"
#include <PN532_I2C.h>
PN532_I2C pn532(Wire);
#endif
#include "PN532.h"
PN532 nfc(pn532);
#ifdef high_baudrate
#pragma message "high_baudrate 已启用"
#define baudrate 115200
#define BootColor 0x0000FF
#define fw_version "\x94"
#define hw_version "837-15396"
#define led_info "000-00000\xFF\x11\x40"
#else
#define baudrate 38400
#define BootColor 0x00FF00
#define fw_version "TN32MSEC003S F/W Ver1.2"
#define hw_version "TN32MSEC003S H/W Ver3.0"
#define led_info "15084\xFF\x10\x00\x12"
#endif
#include "FastLED.h"
#define NUM_LEDS 8
CRGB leds[NUM_LEDS];
uint8_t KeyA[6], KeyB[6]; // 用于存储 MIFARE key
enum { // 命令标记
CMD_GET_FW_VERSION = 0x30,
CMD_GET_HW_VERSION = 0x32,
// Card read
CMD_START_POLLING = 0x40,
CMD_STOP_POLLING = 0x41,
CMD_CARD_DETECT = 0x42,
CMD_CARD_SELECT = 0x43,
CMD_CARD_HALT = 0x44,
// MIFARE
CMD_MIFARE_KEY_SET_A = 0x50,
CMD_MIFARE_AUTHORIZE_A = 0x51,
CMD_MIFARE_READ = 0x52,
// CMD_MIFARE_WRITE = 0x53,
CMD_MIFARE_KEY_SET_B = 0x54,
CMD_MIFARE_AUTHORIZE_B = 0x55,
// Boot,update
CMD_TO_UPDATER_MODE = 0x60,
CMD_SEND_HEX_DATA = 0x61,
CMD_TO_NORMAL_MODE = 0x62,
// CMD_SEND_BINDATA_INIT = 0x63,
// CMD_SEND_BINDATA_EXEC = 0x64,
// FeliCa
// CMD_FELICA_PUSH = 0x70,
CMD_FELICA_THROUGH = 0x71,
// LED board
CMD_EXT_BOARD_LED = 0x80,
CMD_EXT_BOARD_LED_RGB = 0x81,
CMD_EXT_BOARD_LED_RGB_UNKNOWN = 0x82, // 未知
CMD_EXT_BOARD_INFO = 0xf0,
CMD_EXT_FIRM_SUM = 0xf2,
CMD_EXT_SEND_HEX_DATA = 0xf3,
CMD_EXT_TO_BOOT_MODE = 0xf4,
CMD_EXT_TO_NORMAL_MODE = 0xf5,
};
enum { // FeliCa 专用,在 CMD_FELICA_THROUGH 命令使用
FelicaPolling = 0x00,
FelicaReqResponce = 0x04,
FelicaReadWithoutEncryptData = 0x06,
FelicaWriteWithoutEncryptData = 0x08,
FelicaReqSysCode = 0x0C,
FelicaActive2 = 0xA4,
};
enum { // 命令执行状态res 数据包专用
STATUS_OK = 0x00,
STATUS_CARD_ERROR = 0x01,
STATUS_NOT_ACCEPT = 0x02,
STATUS_INVALID_COMMAND = 0x03,
STATUS_INVALID_DATA = 0x04,
STATUS_SUM_ERROR = 0x05,
STATUS_INTERNAL_ERROR = 0x06,
STATUS_INVALID_FIRM_DATA = 0x07,
STATUS_FIRM_UPDATE_SUCCESS = 0x08,
STATUS_COMP_DUMMY_2ND = 0x10,
STATUS_COMP_DUMMY_3RD = 0x20,
};
typedef union { // 大小为 128 bytes 的联合体,用于存储收到的请求命令数据
uint8_t bytes[128];
struct {
uint8_t frame_len; // 数据包长度,不包含转义符
uint8_t addr;
uint8_t seq_no; // 数据包序号
uint8_t cmd; // 命令标记
uint8_t payload_len; // 后续数据长度
union {
uint8_t key[6]; // CMD_MIFARE_KEY_SET
uint8_t color_payload[3]; // CMD_EXT_BOARD_LED_RGB
struct { // CMD_CARD_SELECT,AUTHORIZE,READ
uint8_t uid[4];
uint8_t block_no;
};
struct { // CMD_FELICA_THROUGH
uint8_t encap_IDm[8];
uint8_t encap_len;
uint8_t encap_code;
union {
struct { // CMD_FELICA_THROUGH_POLL
uint8_t poll_systemCode[2];
uint8_t poll_requestCode;
uint8_t poll_timeout;
};
struct { // CMD_FELICA_THROUGH_READ,WRITE,NDA_A4
uint8_t RW_IDm[8];
uint8_t numService;
uint8_t serviceCodeList[2];
uint8_t numBlock;
uint8_t blockList[1][2]; // CMD_FELICA_THROUGH_READ
uint8_t blockData[16]; // CMD_FELICA_THROUGH_WRITE
};
uint8_t felica_payload[1];
};
};
};
};
} packet_request_t;
typedef union {// 大小为 128 bytes 的联合体,用于存储读卡器准备回复的数据
uint8_t bytes[128];
struct {
uint8_t frame_len; // 数据包长度,不包含转义符
uint8_t addr;
uint8_t seq_no; // 数据包序号,需要和请求包对应
uint8_t cmd;// 命令标记
uint8_t status; // 命令执行状态标记
uint8_t payload_len;// 后续数据长度
union {
uint8_t version[1]; // CMD_GET_FW_VERSION,CMD_GET_HW_VERSION,CMD_EXT_BOARD_INFO
uint8_t block[16]; // CMD_MIFARE_READ
struct { // CMD_CARD_DETECT
uint8_t count;
uint8_t type;
uint8_t id_len;
union {
uint8_t mifare_uid[7]; // 可以读取 MIFARE Ultralight但游戏不支持
struct {
uint8_t IDm[8];
uint8_t PMm[8];
};
};
};
struct { // CMD_FELICA_THROUGH
uint8_t encap_len;
uint8_t encap_code;
uint8_t encap_IDm[8];
union {
struct { // FELICA_CMD_POLL
uint8_t poll_PMm[8];
uint8_t poll_systemCode[2];
};
struct {
uint8_t RW_status[2];
uint8_t numBlock;
uint8_t blockData[4][16];
};
uint8_t felica_payload[1];
};
};
};
};
} packet_response_t;
packet_request_t req;
packet_response_t res;
// 读取数据状态,作为全局对象初始化,在 packet_read 读取超时后,下次执行可以接上进度
uint8_t len, r, checksum;
bool escape = false;
uint8_t packet_read() { // 数据包读取函数
while (SerialDevice.available()) {
r = SerialDevice.read();
if (r == 0xE0) { // 检测到包头,重置包长度
req.frame_len = 0xFF;
continue;
}
if (req.frame_len == 0xFF) { // 设置包长度
req.frame_len = r;
len = 0;
checksum = r;
continue;
}
if (r == 0xD0) { // 读取到转义符,设置转义标记
escape = true;
continue;
}
if (escape) { // 转义处理
r++;
escape = false;
}
req.bytes[++len] = r;
if (len == req.frame_len) { // 长度正确且校验通过,则返回命令标记,否则返回 STATUS_SUM_ERROR
return checksum == r ? req.cmd : STATUS_SUM_ERROR;
}
checksum += r; // 包头后每位数据(不含转义)相加,作为校验值
}
return 0; // 数据包未读取完成
}
void packet_write() {
uint8_t checksum = 0, len = 0;
if (res.cmd == 0) { // 无待发数据
return;
}
SerialDevice.write(0xE0);
while (len <= res.frame_len) {
uint8_t w;
if (len == res.frame_len) { // 包数据已写入完成,发送校验值
w = checksum;
} else {
w = res.bytes[len];
checksum += w; // 包头后每位数据(不含转义)相加,作为校验值
}
if (w == 0xE0 || w == 0xD0) { // 转义符写入
SerialDevice.write(0xD0);
SerialDevice.write(--w);
} else {
SerialDevice.write(w);
}
len++;
}
res.cmd = 0;
}
void res_init(uint8_t payload_len = 0) { // 通用回复生成,参数指定不含包头的数据长度
res.frame_len = 6 + payload_len;
res.addr = req.addr;
res.seq_no = req.seq_no;
res.cmd = req.cmd;
res.status = STATUS_OK; // 默认命令执行状态标记
res.payload_len = payload_len;
}
void sys_to_normal_mode() { // 作用未知,根据 cmd 猜测
res_init();
if (nfc.getFirmwareVersion()) {
res.status = STATUS_INVALID_COMMAND; // 在 837-15396 和 TN32MSEC003S 串口数据确认
} else {
res.status = STATUS_INTERNAL_ERROR;
FastLED.showColor(0xFF0000);
}
}
void sys_get_fw_version() { // 版本数据,通过串口数据确认,在读卡器测试界面显示
res_init(sizeof(fw_version) - 1);
memcpy(res.version, fw_version, res.payload_len);
}
void sys_get_hw_version() { // 版本数据,通过串口数据确认,在读卡器测试界面显示
res_init(sizeof(hw_version) - 1);
memcpy(res.version, hw_version, res.payload_len);
}
void sys_get_led_info() { // 版本数据,通过串口数据确认
res_init(sizeof(led_info) - 1);
memcpy(res.version, led_info, res.payload_len);
}
void nfc_start_polling() { // 作用未知,根据 cmd 猜测,开始读卡
res_init();
nfc.setRFField(0x00, 0x01);
}
void nfc_stop_polling() { // 作用未知,根据 cmd 猜测,停止读卡
res_init();
nfc.setRFField(0x00, 0x00);
}
void nfc_card_detect() { // 读取卡片类型
uint16_t SystemCode;
uint8_t bufferLength;
// MIFARE
if (nfc.readPassiveTargetID(PN532_MIFARE_ISO14443A, res.mifare_uid, &res.id_len)) {
res_init(res.id_len + 3);
res.count = 1;
res.type = 0x10;
// FeliCa
} else if (nfc.felica_Polling(0xFFFF, 0x00, res.IDm, res.PMm, &SystemCode, 200) == 1) {
res_init(0x13);
res.count = 1;
res.type = 0x20;
res.id_len = 0x10;
} else {
res_init(1);
res.count = 0;
}
}
void nfc_mifare_authorize_a() { // 对 MIFARE 使用 KeyA 认证
res_init();
if (!nfc.mifareclassic_AuthenticateBlock(req.uid, 4, req.block_no, 0, KeyA)) {
res.status = STATUS_CARD_ERROR;
}
}
void nfc_mifare_authorize_b() {// 对 MIFARE 使用 KeyB 认证
res_init();
if (!nfc.mifareclassic_AuthenticateBlock(req.uid, 4, req.block_no, 1, KeyB)) {
res.status = STATUS_CARD_ERROR;
}
}
void nfc_mifare_read() { // 认证成功后,读取 MIFARE 指定的 block
res_init(0x10);
if (!nfc.mifareclassic_ReadDataBlock(req.block_no, res.block)) {
res_init();
res.status = STATUS_CARD_ERROR;
}
}
void nfc_felica_through() { // FeliCa 处理函数
uint16_t SystemCode;
if (nfc.felica_Polling(0xFFFF, 0x01, res.encap_IDm, res.poll_PMm, &SystemCode, 200) == 1) {
SystemCode = SystemCode >> 8 | SystemCode << 8; // 大小端数据翻转
} else { // 如果读取 FeliCa 失败,则跳过后续操作
res_init();
res.status = STATUS_CARD_ERROR;
return;
}
uint8_t code = req.encap_code;
res.encap_code = code + 1;
switch (code) {
case FelicaPolling: // 作用未知,根据串口数据猜测
{
res_init(0x14);
res.poll_systemCode[0] = SystemCode;
res.poll_systemCode[1] = SystemCode >> 8;
}
break;
case FelicaReqSysCode: // 作用未知,根据串口数据猜测
{
res_init(0x0D);
res.felica_payload[0] = 0x01;
res.felica_payload[1] = SystemCode;
res.felica_payload[2] = SystemCode >> 8;
}
break;
case FelicaActive2: // 作用未知,根据串口数据猜测
{
res_init(0x0B);
res.felica_payload[0] = 0x00;
}
break;
case FelicaReadWithoutEncryptData:
{
uint16_t serviceCodeList = req.serviceCodeList[1] << 8 | req.serviceCodeList[0];
uint16_t blockList[4];
for (uint8_t i = 0; i < req.numBlock; i++) { // 大小端数据翻转
blockList[i] = (uint16_t)(req.blockList[i][0] << 8 | req.blockList[i][1]);
}
// 读取数据
nfc.felica_ReadWithoutEncryption(1, &serviceCodeList, req.numBlock, blockList, res.blockData);
res.RW_status[0] = 0;
res.RW_status[1] = 0;
res.numBlock = req.numBlock;
res_init(0x0D + req.numBlock * 16);
}
break;
case FelicaWriteWithoutEncryptData:
{
// 大小端数据翻转
uint16_t serviceCodeList = req.serviceCodeList[1] << 8 | req.serviceCodeList[0];
uint16_t blockList = (uint16_t)(req.blockList[0][0] << 8 | req.blockList[0][1]);
// 写入数据
nfc.felica_WriteWithoutEncryption(1, &serviceCodeList, 1, &blockList, &req.blockData);
res_init(0x0C);
res.RW_status[0] = 0;
res.RW_status[1] = 0;
}
break;
default: // 对于其他未知的数据默认处理方式,未确认效果
res_init();
res.status = STATUS_INVALID_COMMAND;
}
res.encap_len = res.payload_len;
}