wesandClaude Opus 4.8
6733a79390
Decode node 89 (furnace) read-only: Furnace Running (page-3 b0 bit0) and Furnace DSI Fault (b0 bit5), same type-0x1E DSI encoding as the water heater. The furnace is thermostat-controlled, not a Lippert load — it sits on the bus only to report ignition state. Captures only ever showed 0x80 (off), so the 0x81 running / 0xA0 fault bytes are inferred by parallel to node 95; confirm on the first real burn. Add Water Heater Heating (node 95 page-3 x[3] bit7 = burner actively firing) — distinct from the on/off switch, which only reflects "enabled". Carry all three through the MQTT bridge to home HA, add the furnace DSI-fault Octavia alert mirroring the water heater, and update the README node map (89 was "unknown switched load"). Campsite + home Camper dashboards updated live. Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
465 lines
22 KiB
YAML
465 lines
22 KiB
YAML
# OneControl IDS-CAN node
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#
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# ESP32 (native TWAI/CAN) + external SN65HVD230 transceiver, connected to the
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# Lippert UNITY X180T CAN bus at the monitor panel's spare CAN *data* port.
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# Listens to the modules' broadcasts and republishes them as native HA entities,
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# and issues commands using the panel's challenge/response authentication.
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#
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# IDS-CAN = 250 kbit/s. Read broadcasts are 11-bit standard frames,
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# id = (page << 8) | node. Commands and their authentication exchange use 29-bit
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# extended frames. See ../README.md for the connection procedure, the node map,
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# and the message format. Flash over USB first
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# (`esphome run onecontrol-canbus.yaml`), OTA thereafter.
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substitutions:
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name: onecontrol-canbus
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friendly_name: OneControl CAN
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# ESP32 GPIOs to the transceiver. Any free non-strapping pins work; these match
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# a common SN65HVD230 wiring. tx_pin -> transceiver D/CTX, rx_pin <- R/CRX.
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tx_pin: GPIO5
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rx_pin: GPIO4
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esphome:
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name: ${name}
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friendly_name: ${friendly_name}
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# Command authentication (REMOTE_CONTROL session, key 0xB16B00B5) provides
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# ids_can_auth::remote_control_response_bytes(); command_guard.h provides
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# onecontrol::command_blocked() — the slides/jacks-are-panel-only safety rule.
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includes:
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- ids_can_auth.h
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- command_guard.h
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esp32:
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board: esp32dev # classic WROOM-32
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framework:
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type: esp-idf
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wifi:
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ssid: !secret wifi_ssid
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password: !secret wifi_password
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ap:
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ssid: "OneControl-CAN Fallback"
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password: !secret fallback_ap_password
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captive_portal:
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logger:
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level: DEBUG # global DEBUG so entity "Sending state" publishes and
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# the command exchange (idscan) are visible during
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# bring-up. Drop the whole thing to INFO once happy.
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logs:
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canbus: INFO # the esp32_can component logs EVERY received frame at
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# DEBUG (~50/s) — that floods the 115200 serial link and
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# starves wifi/api/sensor logs. Silence it; our decode
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# is what we care about, not the raw component dump.
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api:
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encryption:
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key: !secret api_key
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ota:
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- platform: esphome
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# ---------------------------------------------------------------------------
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# CAN bus: ESP32 native TWAI controller + SN65HVD230 transceiver
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#
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# NOTE: read broadcasts are 11-bit *standard* frames; the command authentication
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# challenge is a 29-bit *extended* frame. The node must receive both. Confirm the
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# esp32_can trigger accepts both frame types (a single catch-all with
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# can_id_mask 0); if your ESPHome build filters by frame type, add a second
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# on_frame for standard IDs.
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# ---------------------------------------------------------------------------
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canbus:
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- platform: esp32_can
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id: can_bus
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tx_pin: ${tx_pin}
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rx_pin: ${rx_pin}
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bit_rate: 250kbps # IDS-CAN is 250k
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can_id: 0 # our own TX id (only matters when we send)
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use_extended_id: true # commands use 29-bit IDs
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# This ESPHome build filters on_frame by frame type, so a single trigger only
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# ever fires for one kind. We need BOTH: read broadcasts (tanks/lights/heater/
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# awning) are 11-bit *standard* frames; the command challenge + battery
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# telemetry are 29-bit *extended* frames. Two triggers, one shared lambda
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# (YAML anchor) — the lambda branches on the id itself, so it's correct for
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# either frame type.
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on_frame:
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- can_id: 0
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can_id_mask: 0 # accept every frame, dispatch in the lambda
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use_extended_id: true
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then: &decode_frame
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- lambda: |-
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// `can_id` and `x` (data bytes) are provided by the trigger.
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uint32_t id = can_id;
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// ---- command authentication: page-42 challenge reply ----
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// After send_load_command sends the page-42 request, the target
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// module returns a fresh 4-byte challenge on the 29-bit ext ID
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// (node<<18)|0x10000|0x0142, payload 00 04 CC CC CC CC. Compute the
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// REMOTE_CONTROL response, send it on page 43, then send the opcode
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// x3. This is the only place we transmit; it acts solely on
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// id(g_cmd_node), so no other node is ever touched.
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if (id(g_cmd_pending) && x.size() >= 6) {
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uint32_t chal_id = ((uint32_t) id(g_cmd_node) << 18) | 0x10000u | 0x0142u;
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if (id == chal_id) {
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// HARD SAFETY GATE (authoritative). This is the only place a
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// command is ever transmitted, so the slides/jacks-are-panel-
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// only rule is enforced here, right before TX, regardless of how
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// the command was queued. If blocked: send nothing — no
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// response, no opcode — and clear the pending command.
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uint8_t n = id(g_cmd_node);
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if (onecontrol::command_blocked(n, id(g_node_type)[n])) {
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ESP_LOGE("idscan", "SAFETY: refusing command to motor node %02X "
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"(slides/jacks are control-panel only)", n);
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id(g_cmd_pending) = false;
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return;
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}
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uint8_t resp[4];
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ids_can_auth::remote_control_response_bytes(&x[2], resp);
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// page-43 response: ext ID 0x0004<node>43, payload 00 04 RR RR RR RR
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uint32_t resp_id = 0x00040043u | ((uint32_t) id(g_cmd_node) << 8);
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std::vector<uint8_t> rframe = {0x00, 0x04, resp[0], resp[1], resp[2], resp[3]};
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id(can_bus).send_data(resp_id, true, rframe);
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// opcode x3: ext ID 0x0006<node><op>, DLC 0 (op 01=on, 00=off)
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uint32_t op_id = 0x00060000u | ((uint32_t) id(g_cmd_node) << 8) | (uint32_t) id(g_cmd_op);
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std::vector<uint8_t> opframe; // empty -> DLC 0
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for (int i = 0; i < 3; i++) id(can_bus).send_data(op_id, true, opframe);
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id(g_cmd_pending) = false;
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ESP_LOGI("idscan", "node %02X: challenge %02X%02X%02X%02X -> response %02X%02X%02X%02X, opcode %02X x3",
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id(g_cmd_node), x[2], x[3], x[4], x[5],
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resp[0], resp[1], resp[2], resp[3], id(g_cmd_op));
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return;
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}
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}
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// ---- read broadcasts: 11-bit standard frames, id = (page<<8)|node ----
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uint8_t page = (id >> 8) & 0xFF;
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uint8_t node = id & 0xFF;
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// Track each node's device class from its page-2 identity broadcast
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// (x[3] = type byte). The safety gate uses this to refuse any
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// motor-class (0x21) node that isn't the awning.
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if (page == 2 && x.size() >= 4) {
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id(g_node_type)[node] = x[3];
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}
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// Frame dump — confirmed both frame types decode (2026-06-12), now
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// silenced: at DEBUG it logs every frame (~50/s across both
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// triggers) and saturates the 115200 serial link. Uncomment to
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// re-map the bus.
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// ESP_LOGD("idscan", "page=%u node=%02X len=%u %02X %02X %02X %02X %02X %02X",
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// page, node, x.size(),
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// x.size()>0?x[0]:0, x.size()>1?x[1]:0, x.size()>2?x[2]:0,
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// x.size()>3?x[3]:0, x.size()>4?x[4]:0, x.size()>5?x[5]:0);
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// page 3 = live value. Layout depends on device class (README):
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// tanks (type 0x0A): x[0] = level in percent (0x42 = 66%).
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// switched loads (type 0x1E): x[0] bit0 = on/off.
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if (page == 3 && x.size() >= 1) {
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switch (node) {
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// tanks (node addresses from the README node map for this rig)
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case 0xE2: id(fresh_tank).publish_state(x[0]); break;
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case 0xFE: id(black_tank).publish_state(x[0]); break;
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case 0x27: id(grey_tank_1).publish_state(x[0]); break;
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case 0x7D: id(grey_tank_2).publish_state(x[0]); break;
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// switched loads
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case 0xF8: id(interior_lights).publish_state(x[0] & 0x01); break;
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case 0x2A: id(exterior_lights).publish_state(x[0] & 0x01); break;
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// water heater (node 95): b0 bit0 = on, bit5 (0x20) = DSI/gas
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// ignition fault/lockout (healthy: 0x80 off / 0x81 running;
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// fault: 0xA0). Confirmed by a forced lockout 2026-06-12.
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// x[3] bit7 = burner ACTUALLY FIRING (vs merely enabled): idle
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// reads ...00 01, a live burn reads ...00 9X with the low nibble
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// climbing as it heats (captured 2026-06-11). The switch state
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// above is "enabled"; wh_heating is "actually making heat".
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case 0x95: id(water_heater).publish_state(x[0] & 0x01);
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id(dsi_fault).publish_state(x[0] & 0x20);
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if (x.size() >= 4) id(wh_heating).publish_state(x[3] & 0x80);
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break;
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// furnace (node 89): propane forced-air, THERMOSTAT-controlled
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// (not a Lippert load) — on the bus only to report DSI state, in
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// the same type-0x1E encoding as the water heater. b0 bit0 =
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// running, bit5 (0x20) = DSI ignition lockout. A lockout also
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// trips the bus-wide page-0 fault flag (system_fault). Only idle
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// 0x80 was captured (summer bench); 0x81 running / 0xA0 fault are
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// inferred by parallel to node 95 — confirm on the first real
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// burn cycle (or a forced lockout, propane off).
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case 0x89: id(furnace_running).publish_state(x[0] & 0x01);
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id(furnace_dsi_fault).publish_state(x[0] & 0x20); break;
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// awning H-bridge (node 75): b0 C0 idle / C2 extending (opening)
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// / C3 retracting (closing). Reflect motion onto the cover so HA
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// shows open/opening/closing; assumed_state fills the resting pos.
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case 0x75:
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if (x[0] == 0xC2) id(awning).current_operation = esphome::cover::COVER_OPERATION_OPENING;
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else if (x[0] == 0xC3) id(awning).current_operation = esphome::cover::COVER_OPERATION_CLOSING;
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else id(awning).current_operation = esphome::cover::COVER_OPERATION_IDLE;
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id(awning).publish_state();
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break;
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// (water pump 61 is command-blocked — read-only, not exposed.)
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}
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}
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// page 0 b0 bit0 = a bus-wide "system fault present" flag (every
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// node mirrors it; healthy 0x02, fault 0x03). Read it from one node
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// (the heater) so we publish a single source, not 14 duplicates.
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if (page == 0 && node == 0x95 && x.size() >= 1) {
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id(system_fault).publish_state(x[0] & 0x01);
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}
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// Battery voltage rides 29-bit telemetry frames (src 7D/AE, page
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// 0x11), payload 00 2B 0D 4x <rolling>; b2..b3 (BE) / 256 = volts.
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// The low byte of the 29-bit id is the page (0x11); the "00 2B"
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// prefix gates out any other page-0x11 traffic. Match on signature
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// rather than the exact source id so either telemetry module
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// (7D->FC or AE->01) feeds the same sensor. id > 0x7FF restricts the
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// match to 29-bit frames: this lambda also runs for 11-bit broadcasts
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// (second trigger), where the low byte is a NODE address — a node
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// 0x11 would otherwise spoof the battery reading.
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if (id > 0x7FFu && (id & 0xFFu) == 0x11u && x.size() >= 4 && x[0] == 0x00 && x[1] == 0x2B) {
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float volts = ((uint16_t) x[2] << 8 | x[3]) / 256.0f;
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id(battery_voltage).publish_state(volts);
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}
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# Second trigger: 11-bit standard frames (the read broadcasts). Same lambda.
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- can_id: 0
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can_id_mask: 0
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use_extended_id: false
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then: *decode_frame
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# ---------------------------------------------------------------------------
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# Command path: authenticated "set switched load"
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#
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# State shared between send_load_command (sends the request + retries) and the
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# on_frame challenge handler (computes the response + sends the opcode). A
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# command is queued by setting g_cmd_* and g_cmd_pending; the handler clears
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# g_cmd_pending once the exchange completes, which also stops the retry loop.
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# ---------------------------------------------------------------------------
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globals:
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- id: g_cmd_node
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type: uint8_t
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initial_value: '0'
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- id: g_cmd_op
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type: uint8_t
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initial_value: '0'
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- id: g_cmd_pending
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type: bool
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initial_value: 'false'
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# Device class per node, learned from page-2 identity broadcasts (0 = not yet
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# seen). Feeds the motor-output safety gate in command_guard.h.
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- id: g_node_type
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type: 'std::array<uint8_t, 256>'
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# Name the type in the initializer: a bare '{}' is ambiguous between the
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# GlobalsComponent<T>(T) and (std::array<...>) constructors under the current
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# toolchain. zero-initialized -> every node starts as type 0 (not yet seen).
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initial_value: 'std::array<uint8_t, 256>{}'
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script:
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- id: send_load_command
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# mode: restart -> a new press supersedes an in-flight exchange.
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mode: restart
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parameters:
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node: int
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op: int
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then:
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- lambda: |-
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// SAFETY, layer 1 — motor-output gate. Slides/jacks are control-panel
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// only; refuse any motor node that isn't the awning. Same rule the
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// transmit point enforces (command_guard.h), checked here too so a
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// blocked command never even starts the exchange.
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if (onecontrol::command_blocked((uint8_t) node, id(g_node_type)[(uint8_t) node])) {
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ESP_LOGE("idscan", "SAFETY: refusing command to motor node %02X "
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"(slides/jacks are control-panel only)", (uint8_t) node);
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id(g_cmd_pending) = false;
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return;
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}
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// SAFETY, layer 2 — exposed-entity allowlist. Nodes wired to entities:
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// 2A ext lights, F8 int lights, 95 water heater, 75 awning (cover). Do
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// NOT add slide/jack/pump nodes — the gate above refuses them regardless.
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if (node != 0x2A && node != 0xF8 && node != 0x95 && node != 0x75) {
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ESP_LOGW("idscan", "refusing command to non-allowlisted node %02X", node);
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id(g_cmd_pending) = false;
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return;
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}
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id(g_cmd_node) = (uint8_t) node;
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id(g_cmd_op) = (uint8_t) op;
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id(g_cmd_pending) = true;
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# Send the page-42 request, wait ~150 ms for the challenge; retry up to 8x
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# (~1.2 s window) to ride out an occasional dropped arm on the busy bus.
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# NOTE (confirmed live 2026-06-12): the module imposes a ~2 s cooldown after
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# a SUCCESSFUL session — it won't issue a new challenge during it, so a
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# second command to the same load <~2 s later is dropped regardless of opcode
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# (this is module-side, not a bug; normal HA toggles are spaced far enough).
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# The on_frame handler clears g_cmd_pending the moment it answers, so a
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# successful exchange short-circuits the remaining iterations.
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- repeat:
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count: 8
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then:
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- if:
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condition:
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lambda: 'return id(g_cmd_pending);'
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then:
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- lambda: |-
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// page-42 request: ext ID 0x0004<node>42, payload 00 04
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uint32_t req_id = 0x00040042u | ((uint32_t) id(g_cmd_node) << 8);
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std::vector<uint8_t> req = {0x00, 0x04};
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id(can_bus).send_data(req_id, true, req);
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- delay: 150ms
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- if:
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condition:
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lambda: 'return id(g_cmd_pending);'
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then:
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- lambda: |-
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ESP_LOGW("idscan", "no page-42 challenge from node %02X after 8 tries; command dropped",
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id(g_cmd_node));
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id(g_cmd_pending) = false;
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# ---------------------------------------------------------------------------
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# Read-back sensors (published by the dispatcher above)
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# ---------------------------------------------------------------------------
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sensor:
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- platform: template
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name: "Battery Voltage"
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id: battery_voltage
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unit_of_measurement: "V"
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device_class: voltage
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state_class: measurement
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accuracy_decimals: 2
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# The raw value jitters at 1/256 V every telemetry frame; unfiltered, that's
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# constant state churn into both HA recorders + retained MQTT over the WG
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# tunnel. Pass real moves (>0.05 V) immediately, else at most one per minute.
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filters:
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- or:
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- delta: 0.05
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- throttle: 60s
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- platform: template
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name: "Fresh Water Tank"
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id: fresh_tank
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unit_of_measurement: "%"
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accuracy_decimals: 0
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- platform: template
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name: "Black Tank"
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id: black_tank
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unit_of_measurement: "%"
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accuracy_decimals: 0
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- platform: template
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name: "Grey Tank 1"
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id: grey_tank_1
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unit_of_measurement: "%"
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accuracy_decimals: 0
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- platform: template
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name: "Grey Tank 2"
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id: grey_tank_2
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unit_of_measurement: "%"
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accuracy_decimals: 0
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# ---------------------------------------------------------------------------
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# Fault indicators (published by the dispatcher above)
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# ---------------------------------------------------------------------------
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binary_sensor:
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- platform: template
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name: "Water Heater DSI Fault"
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id: dsi_fault
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device_class: problem # node 95 page-3 b0 bit5 — gas ignition lockout
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- platform: template
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name: "Water Heater Heating"
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id: wh_heating
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device_class: running # node 95 page-3 x[3] bit7 — burner actively firing
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- platform: template
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name: "Furnace Running"
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id: furnace_running
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device_class: running # node 89 page-3 b0 bit0 — thermostat-driven burn
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- platform: template
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name: "Furnace DSI Fault"
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id: furnace_dsi_fault
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device_class: problem # node 89 page-3 b0 bit5 — gas ignition lockout
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- platform: template
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name: "OneControl System Fault"
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id: system_fault
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device_class: problem # page-0 b0 bit0 — bus-wide "a fault exists"
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# ---------------------------------------------------------------------------
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# Switches — authenticated command path (see send_load_command above).
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# Each turn_on/off queues send_load_command for the load's node; the on_frame
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# handler completes the page-42/43 challenge/response and sends the opcode.
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#
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# Exposed switched loads: exterior lights (2A), interior lights (F8), water
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# heater (95). Each must be in the layer-2 allowlist in send_load_command.
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#
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# SLIDES, JACKS, and the WATER PUMP ARE PANEL/APP ONLY — never over CAN. Hard
|
|
# policy in command_guard.h, enforced both here and at the transmit point, so even
|
|
# adding a switch for one below cannot actuate it. The awning is permitted by the
|
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# gate but needs a proper cover entity + an attended first test before it's wired.
|
|
# optimistic:false: the page-3 (b0 bit0) read-back above publishes true module
|
|
# state (verified live 2026-06-12), so HA shows ground truth — a dropped command
|
|
# self-corrects within ~1 s instead of an optimistic echo falsely reporting success.
|
|
# ---------------------------------------------------------------------------
|
|
# restore_mode: DISABLED on all three is load-bearing: ESPHome's default
|
|
# restore "applies" the boot state BY EXECUTING THE SWITCH ACTION, which sent
|
|
# a real authenticated OFF to the water heater on the 2026-06-12 OTA reboot
|
|
# (send_load_command is mode:restart, so the last switch in setup order — the
|
|
# heater — won the race). Boot must send nothing: the broadcasts repopulate
|
|
# every state within ~1 s and are the only source of truth.
|
|
switch:
|
|
- platform: template
|
|
name: "Exterior Lights"
|
|
id: exterior_lights
|
|
optimistic: false
|
|
restore_mode: DISABLED
|
|
turn_on_action:
|
|
- script.execute: { id: send_load_command, node: 0x2A, op: 1 }
|
|
turn_off_action:
|
|
- script.execute: { id: send_load_command, node: 0x2A, op: 0 }
|
|
|
|
- platform: template
|
|
name: "Interior Lights"
|
|
id: interior_lights
|
|
optimistic: false
|
|
restore_mode: DISABLED
|
|
turn_on_action:
|
|
- script.execute: { id: send_load_command, node: 0xF8, op: 1 }
|
|
turn_off_action:
|
|
- script.execute: { id: send_load_command, node: 0xF8, op: 0 }
|
|
|
|
- platform: template
|
|
name: "Water Heater"
|
|
id: water_heater
|
|
optimistic: false
|
|
restore_mode: DISABLED
|
|
turn_on_action:
|
|
- script.execute: { id: send_load_command, node: 0x95, op: 1 }
|
|
turn_off_action:
|
|
- script.execute: { id: send_load_command, node: 0x95, op: 0 }
|
|
|
|
# Slides/jacks/pump are command-blocked and must never be wired here.
|
|
|
|
# ---------------------------------------------------------------------------
|
|
# Awning (node 75) — open / close / stop cover.
|
|
#
|
|
# H-bridge motor: open = extend (op 01), close = retract (op 02), stop (op 00),
|
|
# per the captures. assumed_state -> HA shows discrete open/close/stop controls
|
|
# (no position slider); current_operation is published from the page-3 motion
|
|
# byte in the dispatcher above.
|
|
#
|
|
# ⚠️ FIRST ACTUATION MUST BE ATTENDED. We haven't confirmed whether one command
|
|
# latches the motor (runs to the travel limit) or is hold-to-run (the OEM app
|
|
# streamed repeats, which hints at hold-to-run). The single-shot command here is
|
|
# the safe default: if hold-to-run, the awning just moves a little and stops on
|
|
# its own — it can't run away. If it under-travels, stream the command (repeat
|
|
# send_load_command until stop) — do that change only after watching it move.
|
|
# ---------------------------------------------------------------------------
|
|
cover:
|
|
- platform: template
|
|
name: "Awning"
|
|
id: awning
|
|
device_class: awning
|
|
assumed_state: true
|
|
open_action:
|
|
- script.execute: { id: send_load_command, node: 0x75, op: 1 }
|
|
close_action:
|
|
- script.execute: { id: send_load_command, node: 0x75, op: 2 }
|
|
stop_action:
|
|
- script.execute: { id: send_load_command, node: 0x75, op: 0 }
|