virtual_portal.c 20 KB

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  1. #include "virtual_portal.h"
  2. #include <furi_hal.h>
  3. #include <stm32wbxx_ll_dma.h>
  4. #include "string.h"
  5. #include "wav_player_hal.h"
  6. #define TAG "VirtualPortal"
  7. #define BLOCK_SIZE 16
  8. #define PORTAL_SIDE_RING 0
  9. #define PORTAL_SIDE_RIGHT 0
  10. #define PORTAL_SIDE_TRAP 1
  11. #define PORTAL_SIDE_LEFT 2
  12. const NotificationSequence sequence_set_backlight = {
  13. &message_display_backlight_on,
  14. &message_do_not_reset,
  15. NULL,
  16. };
  17. const NotificationSequence sequence_set_leds = {
  18. &message_red_0,
  19. &message_blue_0,
  20. &message_green_0,
  21. &message_do_not_reset,
  22. NULL,
  23. };
  24. static float lerp(float start, float end, float t) {
  25. return start + (end - start) * t;
  26. }
  27. static void wav_player_dma_isr(void* ctx) {
  28. VirtualPortal* virtual_portal = (VirtualPortal*)ctx;
  29. // half of transfer
  30. if (LL_DMA_IsActiveFlag_HT1(DMA1)) {
  31. LL_DMA_ClearFlag_HT1(DMA1);
  32. if (virtual_portal->count < SAMPLES_COUNT / 2) {
  33. for (int i = 0; i < SAMPLES_COUNT / 2; i++) {
  34. virtual_portal->audio_buffer[i] = 0;
  35. }
  36. return;
  37. }
  38. // fill first half of buffer
  39. for (int i = 0; i < SAMPLES_COUNT / 2; i++) {
  40. virtual_portal->audio_buffer[i] = *virtual_portal->tail;
  41. if (++virtual_portal->tail == virtual_portal->end) {
  42. virtual_portal->tail = virtual_portal->current_audio_buffer;
  43. }
  44. virtual_portal->count--;
  45. }
  46. }
  47. // transfer complete
  48. if (LL_DMA_IsActiveFlag_TC1(DMA1)) {
  49. LL_DMA_ClearFlag_TC1(DMA1);
  50. if (virtual_portal->count < SAMPLES_COUNT / 2) {
  51. for (int i = SAMPLES_COUNT / 2; i < SAMPLES_COUNT; i++) {
  52. virtual_portal->audio_buffer[i] = 0;
  53. }
  54. return;
  55. }
  56. // fill second half of buffer
  57. for (int i = SAMPLES_COUNT / 2; i < SAMPLES_COUNT; i++) {
  58. virtual_portal->audio_buffer[i] = *virtual_portal->tail;
  59. if (++virtual_portal->tail == virtual_portal->end) {
  60. virtual_portal->tail = virtual_portal->current_audio_buffer;
  61. }
  62. virtual_portal->count--;
  63. }
  64. }
  65. }
  66. void virtual_portal_tick(void* ctx) {
  67. VirtualPortal* virtual_portal = (VirtualPortal*)ctx;
  68. (void)virtual_portal;
  69. VirtualPortalLed* led = &virtual_portal->right;
  70. if (!led->running) {
  71. return;
  72. }
  73. uint32_t elapsed = furi_get_tick() - led->start_time;
  74. if (elapsed < led->delay) {
  75. float t_phase = fminf((float)elapsed / (float)led->delay, 1);
  76. if (led->two_phase) {
  77. if (led->current_phase == 0) {
  78. // Phase 1: Increase channels that need to go up, hold others constant
  79. if (led->target_r > led->last_r) {
  80. led->r = lerp(led->last_r, led->target_r, t_phase);
  81. }
  82. if (led->target_g > led->last_g) {
  83. led->g = lerp(led->last_g, led->target_g, t_phase);
  84. }
  85. if (led->target_b > led->last_b) {
  86. led->b = lerp(led->last_b, led->target_b, t_phase);
  87. }
  88. } else {
  89. // Phase 2: Decrease channels that need to go down
  90. if (led->target_r < led->last_r) {
  91. led->r = lerp(led->last_r, led->target_r, t_phase);
  92. }
  93. if (led->target_g < led->last_g) {
  94. led->g = lerp(led->last_g, led->target_g, t_phase);
  95. }
  96. if (led->target_b < led->last_b) {
  97. led->b = lerp(led->last_b, led->target_b, t_phase);
  98. }
  99. }
  100. } else {
  101. // Simple one-phase transition: all channels change together
  102. led->r = lerp(led->last_r, led->target_r, t_phase);
  103. led->g = lerp(led->last_g, led->target_g, t_phase);
  104. led->b = lerp(led->last_b, led->target_b, t_phase);
  105. }
  106. furi_hal_light_set(LightRed, led->r);
  107. furi_hal_light_set(LightGreen, led->g);
  108. furi_hal_light_set(LightBlue, led->b);
  109. } else if (led->two_phase && led->current_phase == 0) {
  110. // Move to phase 2 - save the current state as our "last" values for phase 2
  111. led->last_r = led->r;
  112. led->last_g = led->g;
  113. led->last_b = led->b;
  114. led->start_time = furi_get_tick();
  115. led->current_phase++;
  116. } else {
  117. // Transition complete - set final values
  118. led->r = led->target_r;
  119. led->g = led->target_g;
  120. led->b = led->target_b;
  121. furi_hal_light_set(LightRed, led->r);
  122. furi_hal_light_set(LightGreen, led->g);
  123. furi_hal_light_set(LightBlue, led->b);
  124. led->running = false;
  125. }
  126. }
  127. void queue_led_command(VirtualPortal* virtual_portal, int side, uint8_t r, uint8_t g, uint8_t b, uint16_t duration) {
  128. VirtualPortalLed* led = &virtual_portal->left;
  129. switch (side) {
  130. case PORTAL_SIDE_RIGHT:
  131. led = &virtual_portal->right;
  132. break;
  133. case PORTAL_SIDE_TRAP:
  134. led = &virtual_portal->trap;
  135. break;
  136. case PORTAL_SIDE_LEFT:
  137. led = &virtual_portal->left;
  138. break;
  139. }
  140. // Store current values as last values
  141. led->last_r = led->r;
  142. led->last_g = led->g;
  143. led->last_b = led->b;
  144. // Set target values
  145. led->target_r = r;
  146. led->target_g = g;
  147. led->target_b = b;
  148. if (duration) {
  149. // Determine if we need a two-phase transition
  150. bool increasing = (r > led->last_r) || (g > led->last_g) || (b > led->last_b);
  151. bool decreasing = (r < led->last_r) || (g < led->last_g) || (b < led->last_b);
  152. led->two_phase = increasing && decreasing;
  153. // Set up transition parameters
  154. led->start_time = furi_get_tick();
  155. if (led->two_phase) {
  156. // If two-phase, each phase gets half the duration
  157. led->delay = duration / 2;
  158. } else {
  159. led->delay = duration;
  160. }
  161. // Start in phase 0
  162. led->current_phase = 0;
  163. led->running = true;
  164. } else {
  165. // Immediate change, no transition
  166. if (side == PORTAL_SIDE_RIGHT) {
  167. led->r = r;
  168. led->g = g;
  169. led->b = b;
  170. furi_hal_light_set(LightRed, r);
  171. furi_hal_light_set(LightGreen, g);
  172. furi_hal_light_set(LightBlue, b);
  173. }
  174. led->running = false;
  175. }
  176. }
  177. VirtualPortal* virtual_portal_alloc(NotificationApp* notifications) {
  178. VirtualPortal* virtual_portal = malloc(sizeof(VirtualPortal));
  179. virtual_portal->notifications = notifications;
  180. notification_message(virtual_portal->notifications, &sequence_set_backlight);
  181. notification_message(virtual_portal->notifications, &sequence_set_leds);
  182. for (int i = 0; i < POF_TOKEN_LIMIT; i++) {
  183. virtual_portal->tokens[i] = pof_token_alloc();
  184. }
  185. virtual_portal->sequence_number = 0;
  186. virtual_portal->active = false;
  187. virtual_portal->volume = 10.0f;
  188. virtual_portal->led_timer = furi_timer_alloc(virtual_portal_tick,
  189. FuriTimerTypePeriodic, virtual_portal);
  190. virtual_portal->head = virtual_portal->current_audio_buffer;
  191. virtual_portal->tail = virtual_portal->current_audio_buffer;
  192. virtual_portal->end = &virtual_portal->current_audio_buffer[SAMPLES_COUNT_BUFFERED];
  193. furi_timer_start(virtual_portal->led_timer, 10);
  194. if (furi_hal_speaker_acquire(1000)) {
  195. wav_player_speaker_init(8000);
  196. wav_player_dma_init((uint32_t)virtual_portal->audio_buffer, SAMPLES_COUNT);
  197. furi_hal_interrupt_set_isr(FuriHalInterruptIdDma1Ch1, wav_player_dma_isr, virtual_portal);
  198. wav_player_speaker_start();
  199. wav_player_dma_start();
  200. }
  201. return virtual_portal;
  202. }
  203. void virtual_portal_cleanup(VirtualPortal* virtual_portal) {
  204. notification_message(virtual_portal->notifications, &sequence_reset_rgb);
  205. notification_message(virtual_portal->notifications, &sequence_display_backlight_on);
  206. }
  207. void virtual_portal_free(VirtualPortal* virtual_portal) {
  208. for (int i = 0; i < POF_TOKEN_LIMIT; i++) {
  209. pof_token_free(virtual_portal->tokens[i]);
  210. virtual_portal->tokens[i] = NULL;
  211. }
  212. furi_timer_stop(virtual_portal->led_timer);
  213. furi_timer_free(virtual_portal->led_timer);
  214. if (furi_hal_speaker_is_mine()) {
  215. furi_hal_speaker_release();
  216. wav_player_speaker_stop();
  217. wav_player_dma_stop();
  218. }
  219. wav_player_hal_deinit();
  220. furi_hal_interrupt_set_isr(FuriHalInterruptIdDma1Ch1, NULL, NULL);
  221. free(virtual_portal);
  222. }
  223. void virtual_portal_set_leds(uint8_t r, uint8_t g, uint8_t b) {
  224. furi_hal_light_set(LightRed, r);
  225. furi_hal_light_set(LightGreen, g);
  226. furi_hal_light_set(LightBlue, b);
  227. }
  228. void virtual_portal_set_backlight(uint8_t brightness) {
  229. furi_hal_light_set(LightBacklight, brightness);
  230. }
  231. void virtual_portal_load_token(VirtualPortal* virtual_portal, PoFToken* pof_token) {
  232. furi_assert(pof_token);
  233. FURI_LOG_D(TAG, "virtual_portal_load_token");
  234. PoFToken* target = NULL;
  235. uint8_t empty[4] = {0, 0, 0, 0};
  236. // first try to "reload" to the same slot it used before based on UID
  237. for (int i = 0; i < POF_TOKEN_LIMIT; i++) {
  238. if (memcmp(virtual_portal->tokens[i]->UID, pof_token->UID, sizeof(pof_token->UID)) == 0) {
  239. // Found match
  240. if (virtual_portal->tokens[i]->loaded) {
  241. // already loaded, no-op
  242. return;
  243. } else {
  244. FURI_LOG_D(TAG, "Found matching UID at index %d", i);
  245. target = virtual_portal->tokens[i];
  246. break;
  247. }
  248. }
  249. }
  250. // otherwise load into first slot with no set UID
  251. if (target == NULL) {
  252. for (int i = 0; i < POF_TOKEN_LIMIT; i++) {
  253. if (memcmp(virtual_portal->tokens[i]->UID, empty, sizeof(empty)) == 0) {
  254. FURI_LOG_D(TAG, "Found empty UID at index %d", i);
  255. // By definition an empty UID slot would not be loaded, so I'm not checking. Fight me.
  256. target = virtual_portal->tokens[i];
  257. break;
  258. }
  259. }
  260. }
  261. // Re-use first unloaded slot
  262. if (target == NULL) {
  263. for (int i = 0; i < POF_TOKEN_LIMIT; i++) {
  264. if (virtual_portal->tokens[i]->loaded == false) {
  265. FURI_LOG_D(TAG, "Re-using previously used slot %d", i);
  266. target = virtual_portal->tokens[i];
  267. break;
  268. }
  269. }
  270. }
  271. if (target == NULL) {
  272. FURI_LOG_W(TAG, "Failed to find slot to token into");
  273. return;
  274. }
  275. furi_assert(target);
  276. // TODO: make pof_token_copy()
  277. target->change = pof_token->change;
  278. target->loaded = pof_token->loaded;
  279. memcpy(target->dev_name, pof_token->dev_name, sizeof(pof_token->dev_name));
  280. memcpy(target->UID, pof_token->UID, sizeof(pof_token->UID));
  281. furi_string_set(target->load_path, pof_token->load_path);
  282. const NfcDeviceData* data = nfc_device_get_data(pof_token->nfc_device, NfcProtocolMfClassic);
  283. nfc_device_set_data(target->nfc_device, NfcProtocolMfClassic, data);
  284. }
  285. uint8_t virtual_portal_next_sequence(VirtualPortal* virtual_portal) {
  286. if (virtual_portal->sequence_number == 0xff) {
  287. virtual_portal->sequence_number = 0;
  288. }
  289. return virtual_portal->sequence_number++;
  290. }
  291. int virtual_portal_activate(VirtualPortal* virtual_portal, uint8_t* message, uint8_t* response) {
  292. FURI_LOG_D(TAG, "process %c", message[0]);
  293. virtual_portal->active = message[1] != 0;
  294. response[0] = message[0];
  295. response[1] = message[1];
  296. response[2] = 0xFF;
  297. response[3] = 0x77;
  298. return 4;
  299. }
  300. int virtual_portal_reset(VirtualPortal* virtual_portal, uint8_t* message, uint8_t* response) {
  301. FURI_LOG_D(TAG, "process %c", message[0]);
  302. virtual_portal->active = false;
  303. // virtual_portal->sequence_number = 0;
  304. for (int i = 0; i < POF_TOKEN_LIMIT; i++) {
  305. if (virtual_portal->tokens[i]->loaded) {
  306. virtual_portal->tokens[i]->change = true;
  307. }
  308. }
  309. uint8_t index = 0;
  310. response[index++] = 'R';
  311. response[index++] = 0x02; // Trap Team Xbox One
  312. response[index++] = 0x27; // Trap Team Xbox One
  313. // response[index++] = 0x02; // Swap Force 3DS
  314. // response[index++] = 0x02; // Swap Force 3DS
  315. return index;
  316. }
  317. int virtual_portal_status(VirtualPortal* virtual_portal, uint8_t* response) {
  318. response[0] = 'S';
  319. bool update = false;
  320. for (size_t i = 0; i < POF_TOKEN_LIMIT; i++) {
  321. // Can't use bit_lib since it uses the opposite endian
  322. if (virtual_portal->tokens[i]->loaded) {
  323. response[1 + i / 4] |= 1 << ((i % 4) * 2 + 0);
  324. }
  325. if (virtual_portal->tokens[i]->change) {
  326. update = true;
  327. response[1 + i / 4] |= 1 << ((i % 4) * 2 + 1);
  328. }
  329. virtual_portal->tokens[i]->change = false;
  330. }
  331. response[5] = virtual_portal_next_sequence(virtual_portal);
  332. response[6] = 1;
  333. // Let me know when a status that actually has a change is sent
  334. if (update) {
  335. char display[33] = {0};
  336. memset(display, 0, sizeof(display));
  337. for (size_t i = 0; i < BLOCK_SIZE; i++) {
  338. snprintf(display + (i * 2), sizeof(display), "%02x", response[i]);
  339. }
  340. FURI_LOG_I(TAG, "> S %s", display);
  341. }
  342. return 7;
  343. }
  344. int virtual_portal_send_status(VirtualPortal* virtual_portal, uint8_t* response) {
  345. if (virtual_portal->active) {
  346. return virtual_portal_status(virtual_portal, response);
  347. }
  348. return 0;
  349. }
  350. // 4d01ff0000d0077d6c2a77a400000000
  351. int virtual_portal_m(VirtualPortal* virtual_portal, uint8_t* message, uint8_t* response) {
  352. virtual_portal->speaker = (message[1] == 1);
  353. /*
  354. char display[33] = {0};
  355. for(size_t i = 0; i < BLOCK_SIZE; i++) {
  356. snprintf(display + (i * 2), sizeof(display), "%02x", message[i]);
  357. }
  358. FURI_LOG_I(TAG, "M %s", display);
  359. */
  360. size_t index = 0;
  361. response[index++] = 'M';
  362. response[index++] = message[1];
  363. response[index++] = 0x00;
  364. response[index++] = 0x19;
  365. return index;
  366. }
  367. int virtual_portal_l(VirtualPortal* virtual_portal, uint8_t* message) {
  368. UNUSED(virtual_portal);
  369. /*
  370. char display[33] = {0};
  371. memset(display, 0, sizeof(display));
  372. for(size_t i = 0; i < BLOCK_SIZE; i++) {
  373. snprintf(display + (i * 2), sizeof(display), "%02x", message[i]);
  374. }
  375. FURI_LOG_I(TAG, "L %s", display);
  376. */
  377. uint8_t side = message[1]; // 0: left, 2: right
  378. uint8_t brightness = 0;
  379. switch (side) {
  380. case 0:
  381. case 2:
  382. queue_led_command(virtual_portal, side, message[2], message[3], message[4], 0);
  383. break;
  384. case 1:
  385. brightness = message[2];
  386. virtual_portal_set_backlight(brightness);
  387. break;
  388. case 3:
  389. brightness = 0xff;
  390. virtual_portal_set_backlight(brightness);
  391. break;
  392. }
  393. return 0;
  394. }
  395. int virtual_portal_j(VirtualPortal* virtual_portal, uint8_t* message, uint8_t* response) {
  396. /*
  397. char display[33] = {0};
  398. memset(display, 0, sizeof(display));
  399. for(size_t i = 0; i < BLOCK_SIZE; i++) {
  400. snprintf(display + (i * 2), sizeof(display), "%02x", message[i]);
  401. }
  402. FURI_LOG_I(TAG, "J %s", display);
  403. */
  404. uint8_t side = message[1];
  405. uint16_t delay = message[6] << 8 | message[5];
  406. queue_led_command(virtual_portal, side, message[2], message[3], message[4], delay);
  407. // Delay response
  408. // furi_delay_ms(delay); // causes issues
  409. // UNUSED(delay);
  410. // https://marijnkneppers.dev/posts/reverse-engineering-skylanders-toys-to-life-mechanics/
  411. size_t index = 0;
  412. response[index++] = 'J';
  413. return index;
  414. }
  415. int virtual_portal_query(VirtualPortal* virtual_portal, uint8_t* message, uint8_t* response) {
  416. int index = message[1];
  417. int blockNum = message[2];
  418. int arrayIndex = index & 0x0f;
  419. FURI_LOG_I(TAG, "Query %d %d", arrayIndex, blockNum);
  420. PoFToken* pof_token = virtual_portal->tokens[arrayIndex];
  421. if (!pof_token->loaded) {
  422. response[0] = 'Q';
  423. response[1] = 0x00 | arrayIndex;
  424. response[2] = blockNum;
  425. return 3;
  426. }
  427. NfcDevice* nfc_device = pof_token->nfc_device;
  428. const MfClassicData* data = nfc_device_get_data(nfc_device, NfcProtocolMfClassic);
  429. const MfClassicBlock block = data->block[blockNum];
  430. response[0] = 'Q';
  431. response[1] = 0x10 | arrayIndex;
  432. response[2] = blockNum;
  433. memcpy(response + 3, block.data, BLOCK_SIZE);
  434. return 3 + BLOCK_SIZE;
  435. }
  436. int virtual_portal_write(VirtualPortal* virtual_portal, uint8_t* message, uint8_t* response) {
  437. int index = message[1];
  438. int blockNum = message[2];
  439. int arrayIndex = index & 0x0f;
  440. char display[33] = {0};
  441. for (size_t i = 0; i < BLOCK_SIZE; i++) {
  442. snprintf(display + (i * 2), sizeof(display), "%02x", message[3 + i]);
  443. }
  444. FURI_LOG_I(TAG, "Write %d %d %s", arrayIndex, blockNum, display);
  445. PoFToken* pof_token = virtual_portal->tokens[arrayIndex];
  446. if (!pof_token->loaded) {
  447. response[0] = 'W';
  448. response[1] = 0x00 | arrayIndex;
  449. response[2] = blockNum;
  450. return 3;
  451. }
  452. NfcDevice* nfc_device = pof_token->nfc_device;
  453. MfClassicData* data = mf_classic_alloc();
  454. nfc_device_copy_data(nfc_device, NfcProtocolMfClassic, data);
  455. MfClassicBlock* block = &data->block[blockNum];
  456. memcpy(block->data, message + 3, BLOCK_SIZE);
  457. nfc_device_set_data(nfc_device, NfcProtocolMfClassic, data);
  458. mf_classic_free(data);
  459. response[0] = 'W';
  460. response[1] = 0x10 | arrayIndex;
  461. response[2] = blockNum;
  462. return 3;
  463. }
  464. void virtual_portal_process_audio(
  465. VirtualPortal* virtual_portal,
  466. uint8_t* message,
  467. uint8_t len) {
  468. for (size_t i = 0; i < len / 2; i++) {
  469. uint16_t int_16 = ((uint16_t*)message)[i];
  470. // float data = int_16;
  471. // data /= INT16_MAX; // scale -1..1
  472. // data *= virtual_portal->volume; // volume
  473. // data = tanhf(data); // hyperbolic tangent limiter
  474. // data += 1; // 0 - 2
  475. // data *= UINT8_MAX / 2; // scale 0 - 255
  476. // if (data < 0) {
  477. // data = 0;
  478. // }
  479. // if (data > 255) {
  480. // data = 255;
  481. // }
  482. *virtual_portal->head = int_16 >> 8;
  483. virtual_portal->count++;
  484. if (++virtual_portal->head == virtual_portal->end) {
  485. virtual_portal->head = virtual_portal->current_audio_buffer;
  486. }
  487. }
  488. }
  489. // 32 byte message, 32 byte response;
  490. int virtual_portal_process_message(
  491. VirtualPortal* virtual_portal,
  492. uint8_t* message,
  493. uint8_t* response) {
  494. memset(response, 0, 32);
  495. switch (message[0]) {
  496. case 'A':
  497. return virtual_portal_activate(virtual_portal, message, response);
  498. case 'C': // Ring color R G B
  499. queue_led_command(virtual_portal, PORTAL_SIDE_RING, message[1], message[2], message[3], 0);
  500. return 0;
  501. case 'J':
  502. // https://github.com/flyandi/flipper_zero_rgb_led
  503. return virtual_portal_j(virtual_portal, message, response);
  504. case 'L':
  505. return virtual_portal_l(virtual_portal, message);
  506. case 'M':
  507. return virtual_portal_m(virtual_portal, message, response);
  508. case 'Q': // Query
  509. return virtual_portal_query(virtual_portal, message, response);
  510. case 'R':
  511. return virtual_portal_reset(virtual_portal, message, response);
  512. case 'S': // Status
  513. return virtual_portal_status(virtual_portal, response);
  514. case 'V':
  515. return 0;
  516. case 'W': // Write
  517. return virtual_portal_write(virtual_portal, message, response);
  518. case 'Z':
  519. return 0;
  520. default:
  521. FURI_LOG_W(TAG, "Unhandled command %c", message[0]);
  522. return 0; // No response
  523. }
  524. return 0;
  525. }