substitutions: devicename: "supersensor" #Rename the device what you want. upper_devicename: ESP Radar #Rename the device what you want. entity_name_prefix: "" ignored_radar_ranges: |- { {2.20,3.30}, {2.20,2.75} } esp32: board: esp32dev framework: type: esp-idf sdkconfig_options: CONFIG_ESP32_DEFAULT_CPU_FREQ_240: "y" CONFIG_ESP32_DEFAULT_CPU_FREQ_MHZ: "240" CONFIG_ESP32_DATA_CACHE_64KB: "y" CONFIG_ESP32_DATA_CACHE_LINE_64B: "y" CONFIG_ESP32S3_DEFAULT_CPU_FREQ_240: "y" CONFIG_ESP32S3_DEFAULT_CPU_FREQ_MHZ: "240" CONFIG_ESP32S3_DATA_CACHE_64KB: "y" CONFIG_ESP32S3_DATA_CACHE_LINE_64B: "y" api: encryption: key: !secret api_encryption_key ota: password: !secret ota_password web_server: port: 80 auth: username: !secret web_auth_username password: !secret web_auth_password wifi: ssid: !secret wifi_ssid password: !secret wifi_password domain: !secret wifi_domain power_save_mode: LIGHT reboot_timeout: 5min logger: level: DEBUG baud_rate: 115200 logs: text_sensor: INFO esphome: name: supersensor name_add_mac_suffix: false on_boot: priority: 200 then: - uart.write: id: LD1125H_UART_BUS data: !lambda |- std::string mth1_mov_st = "mth1_mov=" + str_sprintf("%.0f",id(LD1125H_mth1_mov).state) +"\r\n"; return std::vector(mth1_mov_st.begin(), mth1_mov_st.end()); - uart.write: id: LD1125H_UART_BUS data: !lambda |- std::string mth2_mov_st = "mth2_mov=" + str_sprintf("%.0f",id(LD1125H_mth2_mov).state) +"\r\n"; return std::vector(mth2_mov_st.begin(), mth2_mov_st.end()); - uart.write: id: LD1125H_UART_BUS data: !lambda |- std::string mth3_mov_st = "mth3_mov=" + str_sprintf("%.0f",id(LD1125H_mth3_mov).state) +"\r\n"; return std::vector(mth3_mov_st.begin(), mth3_mov_st.end()); - uart.write: id: LD1125H_UART_BUS data: !lambda |- std::string mth1_occ_st = "mth1_occ=" + str_sprintf("%.0f",id(LD1125H_mth1_occ).state) +"\r\n"; return std::vector(mth1_occ_st.begin(), mth1_occ_st.end()); - uart.write: id: LD1125H_UART_BUS data: !lambda |- std::string mth2_occ_st = "mth2_occ=" + str_sprintf("%.0f",id(LD1125H_mth2_occ).state) +"\r\n"; return std::vector(mth2_occ_st.begin(), mth2_occ_st.end()); - uart.write: id: LD1125H_UART_BUS data: !lambda |- std::string mth3_occ_st = "mth3_occ=" + str_sprintf("%.0f",id(LD1125H_mth3_occ).state) +"\r\n"; return std::vector(mth3_occ_st.begin(), mth3_occ_st.end()); - uart.write: id: LD1125H_UART_BUS data: !lambda |- std::string rmaxst = "rmax=" + str_sprintf("%.1f",id(LD1125H_rmax).state) +"\r\n"; return std::vector(rmaxst.begin(), rmaxst.end()); external_components: - source: type: git url: https://github.com/ssieb/custom_components #Thanks for @ssieb components. components: [ serial ] uart: id: LD1125H_UART_BUS rx_pin: GPIO16 tx_pin: GPIO17 baud_rate: 115200 data_bits: 8 stop_bits: 1 parity: NONE # debug: # direction: BOTH # dummy_receiver: false # after: # delimiter: "\n" # sequence: # - lambda: UARTDebug::log_string(direction, bytes); status_led: pin: number: GPIO2 inverted: false globals: - id: LD1125H_Last_Time type: time_t restore_value: no initial_value: time(NULL) - id: LD1125H_Last_Mov_Time type: time_t restore_value: no initial_value: time(NULL) - id: LD1125H_Clearance_Status type: bool restore_value: no initial_value: "false" - id: ignored_ranges type: std::vector> restore_value: no initial_value: ${ignored_radar_ranges} interval: - interval: 1s #Clearance Scan Time setup_priority: 200 then: lambda: |- if ((time(NULL)-id(LD1125H_Last_Time))>id(LD1125H_Clearance_Time).state) { if ((id(LD1125H_Clearance_Status) == false) || (id(LD1125H_Occupancy).state != "Clear")) { id(LD1125H_Occupancy).publish_state("Clear"); id(LD1125H_Clearance_Status) = true; } if (id(LD1125H_MovOcc_Binary).state == true) { id(LD1125H_MovOcc_Binary).publish_state(false); } if (id(LD1125H_Mov_Binary).state == true) { id(LD1125H_Mov_Binary).publish_state(false); } } number: - platform: template name: ${entity_name_prefix} 0-2.8m Movement Minimum Signal id: LD1125H_mth1_mov icon: "mdi:cogs" optimistic: true restore_value: true initial_value: "80" min_value: 0 max_value: 1500 step: 1 set_action: then: - uart.write: id: LD1125H_UART_BUS data: !lambda |- std::string mth1_mov_st = "mth1_mov=" + str_sprintf("%.0f",x) +"\r\n"; return std::vector(mth1_mov_st.begin(), mth1_mov_st.end()); - platform: template name: ${entity_name_prefix} 2.8m-8m Movement Minimum Signal id: LD1125H_mth2_mov icon: "mdi:cogs" optimistic: true restore_value: true #If you don't want to store the setting at ESP, set it to false. initial_value: "50" min_value: 0 max_value: 1500 step: 1 set_action: then: - uart.write: id: LD1125H_UART_BUS data: !lambda |- std::string mth2_mov_st = "mth2_mov=" + str_sprintf("%.0f",x) +"\r\n"; return std::vector(mth2_mov_st.begin(), mth2_mov_st.end()); - platform: template name: ${entity_name_prefix} 8m-∞ Movement Minimum Signal id: LD1125H_mth3_mov icon: "mdi:cogs" optimistic: true restore_value: true #If you don't want to store the setting at ESP, set it to false. initial_value: "20" min_value: 0 max_value: 1500 step: 1 set_action: then: - uart.write: id: LD1125H_UART_BUS data: !lambda |- std::string mth3_mov_st = "mth3_mov=" + str_sprintf("%.0f",x) +"\r\n"; return std::vector(mth3_mov_st.begin(), mth3_mov_st.end()); - platform: template name: ${entity_name_prefix} 0-2.8m Occupancy Minimum Signal id: LD1125H_mth1_occ icon: "mdi:cogs" optimistic: true restore_value: true initial_value: "60" min_value: 0 max_value: 1500 step: 1 set_action: then: - uart.write: id: LD1125H_UART_BUS data: !lambda |- std::string mth1_occ_st = "mth1_occ=" + str_sprintf("%.0f",x) +"\r\n"; return std::vector(mth1_occ_st.begin(), mth1_occ_st.end()); - platform: template name: ${entity_name_prefix} 2.8m-8m Occupancy Minimum Signal id: LD1125H_mth2_occ icon: "mdi:cogs" optimistic: true restore_value: true #If you don't want to store the setting at ESP, set it to false. initial_value: "55" min_value: 0 max_value: 1500 step: 1 set_action: then: - uart.write: id: LD1125H_UART_BUS data: !lambda |- std::string mth2_occ_st = "mth2_occ=" + str_sprintf("%.0f",x) +"\r\n"; return std::vector(mth2_occ_st.begin(), mth2_occ_st.end()); - platform: template name: ${entity_name_prefix} 8m-∞ Occupancy Minimum Signal id: LD1125H_mth3_occ icon: "mdi:cogs" optimistic: true restore_value: true #If you don't want to store the setting at ESP, set it to false. initial_value: "20" min_value: 0 max_value: 1500 step: 1 set_action: then: - uart.write: id: LD1125H_UART_BUS data: !lambda |- std::string mth3_occ_st = "mth3_occ=" + str_sprintf("%.0f",x) +"\r\n"; return std::vector(mth3_occ_st.begin(), mth3_occ_st.end()); - platform: template name: ${entity_name_prefix} Max Detection Distance (m) #rmax is max detection distance. id: LD1125H_rmax icon: "mdi:cogs" optimistic: true restore_value: true #If you don't want to store the setting at ESP, set it to false. initial_value: "8" #Default rmax Setting min_value: 0.0 max_value: 60 step: 0.1 set_action: then: - uart.write: id: LD1125H_UART_BUS data: !lambda |- std::string rmaxst = "rmax=" + str_sprintf("%.1f",x) +"\r\n"; return std::vector(rmaxst.begin(), rmaxst.end()); - platform: template name: ${entity_name_prefix} Seconds to Clear Mov/Occ id: LD1125H_Clearance_Time icon: "mdi:cogs" optimistic: true restore_value: true #If you don't want to store the setting at ESP, set it to false. initial_value: "20" #LD1125H Mov/Occ > Clearance Time Here min_value: 0 max_value: 60 step: 1 - platform: template name: ${entity_name_prefix} Seconds to Detection id: LD1125H_Mov_Time icon: "mdi:cogs" optimistic: true restore_value: true #If you don't want to store the setting at ESP, set it to false. initial_value: "1" #LD1125H Mov > Occ Time Here min_value: 0.1 max_value: 10 step: 0.1 sensor: - platform: template name: ${entity_name_prefix} Objects Distance id: LD1125H_Distance icon: "mdi:signal-distance-variant" unit_of_measurement: "m" accuracy_decimals: 2 filters: # Use Filter To Debounce - sliding_window_moving_average: window_size: 200 send_every: 10 - heartbeat: 0.2s text_sensor: - platform: serial uart_id: LD1125H_UART_BUS name: ${entity_name_prefix} UART Text id: LD1125H_UART_Text icon: "mdi:format-text" internal: True on_value: lambda: |- for (const auto& row : id(ignored_ranges)) { if ( ( atof(id(LD1125H_UART_Text).state.substr(9).c_str()) > row[0] ) && ( atof(id(LD1125H_UART_Text).state.substr(9).c_str()) < row[1] ) ) { break; } else { if (id(LD1125H_UART_Text).state.substr(0,3) == "occ") { id(LD1125H_Distance).publish_state(atof(id(LD1125H_UART_Text).state.substr(9).c_str())); if ((time(NULL)-id(LD1125H_Last_Mov_Time))>id(LD1125H_Mov_Time).state) { id(LD1125H_Occupancy).publish_state("Occupied"); if (id(LD1125H_MovOcc_Binary).state == false) { id(LD1125H_MovOcc_Binary).publish_state(true); } if (id(LD1125H_Mov_Binary).state == true) { id(LD1125H_Mov_Binary).publish_state(false); } } if (id(LD1125H_MovOcc_Binary).state == false) { id(LD1125H_MovOcc_Binary).publish_state(true); } id(LD1125H_Last_Time) = time(NULL); if (id(LD1125H_Clearance_Status) == true) { id(LD1125H_Clearance_Status) = false; } } else if (id(LD1125H_UART_Text).state.substr(0,3) == "mov") { id(LD1125H_Distance).publish_state(atof(id(LD1125H_UART_Text).state.substr(9).c_str())); id(LD1125H_Occupancy).publish_state("Movement"); if (id(LD1125H_MovOcc_Binary).state == false) { id(LD1125H_MovOcc_Binary).publish_state(true); } if (id(LD1125H_Mov_Binary).state == false) { id(LD1125H_Mov_Binary).publish_state(true); } id(LD1125H_Last_Mov_Time) = time(NULL); id(LD1125H_Last_Time) = time(NULL); if (id(LD1125H_Clearance_Status) == true) { id(LD1125H_Clearance_Status) = false; } } } } - platform: template name: ${entity_name_prefix} Occupancy Status id: LD1125H_Occupancy icon: "mdi:motion-sensor" binary_sensor: - platform: template name: ${entity_name_prefix} Occupancy or Movement id: LD1125H_MovOcc_Binary device_class: occupancy - platform: template name: ${entity_name_prefix} Motion id: LD1125H_Mov_Binary device_class: motion