feat(v2c): remove NetworkDeviceMonitor, add poll-based connectivity + statusMessage
The Trydan ESP32 WiFi stack saturates under nymea's periodic ICMP pings
(observed: latency > 14 s, Modbus timeouts, charger drops off).
Changes:
- NetworkDeviceMonitor removed entirely from setupThing() and thingRemoved().
The charger is expected to have a DHCP-reserved IP (documented in code).
Address comes from trydanThingAddressParamTypeId param — already the correct
path after the previous setup fix.
- Connectivity now derives from Modbus poll success/failure only (reachable()
from TrydanModbusTcpMaster), NOT from network ping. A ping response does
not imply Modbus usability on this hardware.
- postSetupThing() timer (30 s): if not reachable, calls connectDevice() for
reconnect; if reachable, calls update(). The 30 s period IS the backoff —
no aggressive retry loop.
- Modbus timeout: 2 s → 5 s (tolerates residual WiFi latency spikes).
- Modbus retries per read: 1 → 0 (abort fast on first timeout; full poll
sequence already aborts at first error via doNextRead).
- k_errorLimit: 5 → 3 (3 × 5 s = 15 s before marking unreachable).
- New state "statusMessage" (QString): set on disconnect with timestamp +
cause ("timeout Modbus — vérifier signal WiFi de la borne"); cleared on
successful poll. Visible in nymea-app; helps SAV without SSH access.
- "networkdevice" removed from JSON interfaces (contract broken without monitor).
Invariants preserved: Big/Big float32 decode, no block read, PauseState+Lock
mirror, PauseDynamic conflict management, writeCompleted address filtering.
Co-Authored-By: Claude Sonnet 4.6 <noreply@anthropic.com>
This commit is contained in:
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59
v2c/PORTING_STATUS.md
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59
v2c/PORTING_STATUS.md
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## v2c / trydan — V2C Trydan (e-charger)
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**Statut : Partiel** — validé partiellement sur borne réelle, PAS encore « Supporté ».
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Ne pas promettre dans la matrice beta tant que le test « VE branché » n'est pas bouclé.
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| Champ | Valeur |
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|---|---|
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| Plugin | `powersync-plugin-v2c` (création ETM, pas un fork) |
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| Interface | `evcharger` |
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| Transport validé | **Modbus TCP** (port 502, unit id 1) |
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| Fallback / discovery | HTTP REST (`/RealTimeData`, `/write/<param>=<val>`) |
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| Borne de test | V2C Trydan, IP 192.168.1.127 |
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| Firmware testé | **2.4.6** |
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| Date | 2026-06-12 |
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### Sources de la carte registres
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- Lib officielle V2C : `github.com/V2Charge/Trydan_Modbus_TCP` (`src/v2ctrydan/modbus.py`).
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- Feuille officielle « V2C - Datamanager Modbus TCP & RTU » (gid=0).
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- Référence comportementale : evcc `charger/trydan.go` (HTTP) — logique enable/PauseDynamic.
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### Validé sur borne réelle (192.168.1.127, fw 2.4.6)
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- **Transport Modbus TCP** : répond proprement (0 timeout) une fois le lien WiFi désaturé.
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- **Décodage float Big/Big** confirmé : MaxIntensity (0x0BD2/3026) lu = 20.0.
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Vérif registre brut : 3026 = 16800 = 0x41A0 → float32 0x41A00000 = 20.0. Little-endian = garbage.
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- **Gestion conflit Dynamic** confirmée (cœur du plugin) :
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- Dynamic=1 → toute consigne Intensity est écrasée par le PID interne (consigne 10 → relue 0).
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- Écriture PauseDynamic=1 → la consigne Intensity=10 **tient** (relue 10, Dynamic=0, PauseDynamic=1).
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- Écriture PauseDynamic=0 → optimiseur interne rendu au client.
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- `Dynamic` observé basculant seul 0→1→0 pendant la session → **relecture à chaque poll obligatoire** (confirmé empiriquement, pas seulement à l'init).
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- **ChargeState** 0/1/2 = A/B/C : cohérent (0 = déconnecté observé borne au repos).
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- **SlaveError** : valait 4 le matin (VE branché), repassé à 0 borne au repos → code 4 probablement
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lié à l'état de charge, pas un défaut permanent. À confirmer.
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### RESTE À VALIDER (jalon « VE branché »)
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- **setMaxChargingCurrent régule la charge réelle** (pas seulement le registre). Sans VE, la borne
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garde Intensity=0 même consigne acceptée → test impossible borne au repos.
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- Comportement de `chargingEnabled` (PauseState/Lock en miroir) sous charge active.
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- `ChargePower` / `currentPower` non-nul à confirmer pendant une charge.
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- `sessionEnergy` (ChargeEnergy 0x0BC4) : NE PAS exposer tant que monotonie/reset non vérifiés
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(cf. evcc issue #28047, ChargeRater retiré pour fiabilité firmware).
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### LIMITATIONS MATÉRIELLES IMPORTANTES (à documenter pour l'installation client)
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1. **WiFi sature si le cloud V2C / l'app reste actif.** Latence observée : 14 000 ms et 100% perte
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avec app/cloud actifs → 0 timeout possible. Après fermeture app + déconnexion cloud : 20-143 ms,
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0% perte, exploitable. **Conséquence prod : le plugin doit être le seul maître à parler à la
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borne ; déconnecter la borne du cloud V2C en installation HEMS, ou timeouts généreux (≥2-3 s)
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et poll espacé.** Lien radio lui-même bon (5 ms au mieux) — c'est la saturation ESP32, pas le signal.
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2. **RS485 non exploitable comme transport HEMS sur ce modèle.** Le port RS485 (RJ45, pin 4=B-,
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pin 5=A+) est réservé par V2C au rôle « Modbus Feeder / lecture compteur PV » pour la fonction
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Dynamic (mode maître). Aucune réponse esclave obtenue sur le bus partagé (testé IDs 1/2/3 @ 9600
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et 19200, 100% timeout). Le mode « commande à distance » esclave passe par TCP, pas par le RS485
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physique. **→ Étape 2 (RTU) du plugin non applicable à cette borne.** Le RS485 reste pertinent
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pour d'autres bornes du catalogue, pas pour la Trydan.
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### Notes plugin
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- Clamp courant : doit lire **MaxIntensity de la borne** (= 20 ici), PAS une constante 32 en dur
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(le `qBound(6, val, 32)` actuel est à corriger — la borne plafonne à 20). [À FIXER]
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- Lectures : transactions individuelles de 2 registres, float Big/Big, pas de block read.
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- Logique enable : `chargingEnabled = (PauseState==0 ET Lock==0)`, écritures en miroir.
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@ -12,6 +12,8 @@
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#include <hardwaremanager.h>
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#include <network/networkdevicediscovery.h>
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#include <QDateTime>
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IntegrationPluginV2c::IntegrationPluginV2c()
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{}
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@ -53,65 +55,37 @@ void IntegrationPluginV2c::setupThing(ThingSetupInfo *info)
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m_tcpMasters.take(thing)->deleteLater();
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}
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// Register or reuse the network monitor (tracks IP changes when DHCP renews).
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NetworkDeviceMonitor *monitor = m_monitors.value(thing);
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if (!monitor) {
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monitor = hardwareManager()->networkDeviceDiscovery()->registerMonitor(thing);
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if (!monitor) {
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info->finish(Thing::ThingErrorInvalidParameter,
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QT_TR_NOOP("Could not register network monitor for this charger."));
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return;
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}
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m_monitors.insert(thing, monitor);
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}
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// Pre-req: the charger must have a static (DHCP-reserved) IP.
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// NetworkDeviceMonitor is intentionally absent: its periodic ICMP pings
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// saturate the Trydan ESP32 WiFi stack (observed latency > 14 s, causing
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// Modbus timeouts). Connectivity is derived from Modbus poll results only.
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const QHostAddress address(thing->paramValue(trydanThingAddressParamTypeId).toString());
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const quint16 port = static_cast<quint16>(thing->paramValue(trydanThingPortParamTypeId).toUInt());
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const quint16 slaveId = 1; // V2C Trydan always uses unit ID 1
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// Prefer the monitor's cached address (ARP/mDNS already resolved) but fall back
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// to the stored address param. The monitor has a null address at first
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// registerMonitor() when the device was added by IP (createMethod "user") or when
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// nymead restarts before the monitor's ARP scan completes — connecting to a null
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// QHostAddress would produce "device ':502'" and fail immediately.
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QHostAddress address = monitor->networkDeviceInfo().address();
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if (address.isNull())
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address = QHostAddress(thing->paramValue(trydanThingAddressParamTypeId).toString());
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TrydanModbusTcpMaster *master = new TrydanModbusTcpMaster(address, port, slaveId, thing);
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// Update target IP when DHCP renews. Guard against transient null info that
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// the monitor can emit during its own internal refresh cycles.
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connect(monitor, &NetworkDeviceMonitor::networkDeviceInfoChanged,
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master, [master](const NetworkDeviceInfo &info) {
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if (!info.address().isNull())
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master->setHostAddress(info.address());
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});
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// Abort the setup if the info object is destroyed before we finish.
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connect(info, &ThingSetupInfo::aborted, master, &TrydanModbusTcpMaster::deleteLater);
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connect(info, &ThingSetupInfo::aborted, monitor, [this, thing]() {
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if (m_monitors.contains(thing)) {
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hardwareManager()->networkDeviceDiscovery()->unregisterMonitor(m_monitors.take(thing));
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}
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});
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// Reachable → initialize; lost → disconnected state.
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// Reachable → initialize (reads MinIntensity, MaxIntensity).
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// Lost → set disconnected state with timestamp for SAV visibility.
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connect(master, &TrydanModbusMaster::reachableChanged, thing,
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[this, thing, master](bool reachable) {
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if (reachable) {
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master->initialize();
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} else {
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setDisconnectedState(thing);
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setDisconnectedState(thing, QStringLiteral("timeout Modbus — vérifier signal WiFi de la borne"));
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}
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});
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// After init, set the current-range and report setup done.
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// After init, expose the configured current range and finish setup.
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connect(master, &TrydanModbusMaster::initializationFinished, thing,
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[this, thing, master](bool success) {
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if (!success) {
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return;
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}
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thing->setStateValue(trydanConnectedStateTypeId, true);
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thing->setStateValue(trydanStatusMessageStateTypeId, QString());
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thing->setStateMinMaxValues(trydanMaxChargingCurrentStateTypeId,
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master->minIntensity(),
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master->maxIntensity());
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@ -150,7 +124,14 @@ void IntegrationPluginV2c::postSetupThing(Thing *thing)
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m_pluginTimer = hardwareManager()->pluginTimerManager()->registerTimer(30);
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connect(m_pluginTimer, &PluginTimer::timeout, this, [this]() {
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for (TrydanModbusTcpMaster *master : m_tcpMasters) {
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master->update();
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if (master->reachable()) {
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master->update();
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} else {
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// TCP connection may have dropped (charger WiFi glitch).
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// connectDevice() is idempotent on an already-connecting socket;
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// the 30s timer provides the reconnect backoff — no busy-loop.
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master->connectDevice();
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}
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}
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});
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m_pluginTimer->start();
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@ -160,10 +141,6 @@ void IntegrationPluginV2c::thingRemoved(Thing *thing)
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{
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delete m_tcpMasters.take(thing);
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if (m_monitors.contains(thing)) {
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hardwareManager()->networkDeviceDiscovery()->unregisterMonitor(m_monitors.take(thing));
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}
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if (myThings().isEmpty() && m_pluginTimer) {
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hardwareManager()->pluginTimerManager()->unregisterTimer(m_pluginTimer);
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m_pluginTimer = nullptr;
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@ -266,6 +243,9 @@ void IntegrationPluginV2c::updateThingStates(Thing *thing, TrydanModbusMaster *m
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{
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thing->setStateValue(trydanConnectedStateTypeId, master->reachable());
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// Poll succeeded → clear any previous offline message.
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thing->setStateValue(trydanStatusMessageStateTypeId, QString());
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// ChargeState: 0=A(disconnected), 1=B(connected, not charging), 2=C(charging).
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// cf. IEC 61851 and evcc trydan.go Status().
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const int cs = master->chargeState();
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@ -331,10 +311,18 @@ void IntegrationPluginV2c::handleDynamicConflict(Thing *thing, TrydanModbusMaste
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}
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}
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void IntegrationPluginV2c::setDisconnectedState(Thing *thing)
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void IntegrationPluginV2c::setDisconnectedState(Thing *thing, const QString &cause)
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{
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thing->setStateValue(trydanConnectedStateTypeId, false);
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thing->setStateValue(trydanChargingStateTypeId, false);
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thing->setStateValue(trydanPluggedInStateTypeId, false);
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thing->setStateValue(trydanCurrentPowerStateTypeId, 0.0);
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// Inform the user with a timestamp so they know when the outage started,
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// and a hint pointing to the most likely cause (WiFi signal on this charger).
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const QString ts = QDateTime::currentDateTime().toString(QStringLiteral("dd/MM HH:mm"));
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const QString msg = cause.isEmpty()
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? QStringLiteral("Hors ligne depuis ") + ts
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: QStringLiteral("Hors ligne depuis ") + ts + QStringLiteral(" — ") + cause;
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thing->setStateValue(trydanStatusMessageStateTypeId, msg);
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}
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@ -5,7 +5,6 @@
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#include <plugintimer.h>
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#include <integrations/integrationplugin.h>
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#include <network/networkdevicemonitor.h>
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#include "extern-plugininfo.h"
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#include "trydanmodbusmaster.h"
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@ -21,6 +20,10 @@
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* - chargingEnabled = (PauseState==0 AND Lock==0)
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* - Dynamic optimizer conflict management via PauseDynamic
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*
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* No NetworkDeviceMonitor: the Trydan ESP32 WiFi stack saturates under
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* periodic ICMP pings (latency > 14 s, Modbus timeouts). Connectivity is
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* derived from Modbus poll success/failure instead.
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*
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* Étape 2 (RTU) will add TrydanModbusRtuMaster on the same TrydanModbusMaster
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* interface; the logic in this file requires no changes.
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*/
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@ -57,12 +60,11 @@ private:
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*/
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void handleDynamicConflict(Thing *thing, TrydanModbusMaster *master);
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void setDisconnectedState(Thing *thing);
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void setDisconnectedState(Thing *thing, const QString &cause = QString());
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PluginTimer *m_pluginTimer = nullptr;
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QHash<Thing *, TrydanModbusTcpMaster *> m_tcpMasters;
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QHash<Thing *, NetworkDeviceMonitor *> m_monitors;
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};
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#endif // INTEGRATIONPLUGINV2C_H
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@ -15,8 +15,7 @@
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"displayName": "Trydan",
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"interfaces": [
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"evcharger",
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"connectable",
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"networkdevice"
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"connectable"
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],
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"createMethods": [
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"discovery",
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@ -177,6 +176,14 @@
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"displayName": "Internal optimizer suspended by HEMS",
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"type": "bool",
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"defaultValue": false
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},
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{
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"id": "c2d4e6f8-1a3b-4c7d-be0f-2a4b6c8d0e1f",
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"name": "statusMessage",
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"displayName": "Connection status",
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"type": "QString",
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"defaultValue": "",
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"cached": false
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}
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],
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"actionTypes": []
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@ -16,8 +16,12 @@ TrydanModbusTcpMaster::TrydanModbusTcpMaster(const QHostAddress &address,
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m_slaveId(slaveId)
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{
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m_modbusTcpMaster = new ModbusTcpMaster(address, port, this);
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m_modbusTcpMaster->setNumberOfRetries(1);
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m_modbusTcpMaster->setTimeout(2000);
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// No retry per individual read: abort fast on first timeout so the 30s poll
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// cycle is not blocked for minutes on a dropped connection.
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m_modbusTcpMaster->setNumberOfRetries(0);
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// 5 s tolerates the WiFi latency spikes observed on the Trydan ESP32
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// without waiting forever when the charger is genuinely unreachable.
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m_modbusTcpMaster->setTimeout(5000);
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connect(m_modbusTcpMaster, &ModbusTcpMaster::connectionStateChanged,
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this, &TrydanModbusTcpMaster::onConnectionStateChanged);
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@ -101,7 +101,9 @@ private:
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bool m_updating = false;
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bool m_initializing = false;
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static constexpr int k_errorLimit = 5;
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// 3 consecutive failures → mark unreachable. With a 5 s timeout and no
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// retry, 3 failed polls abort within 15 s — acceptable for HEMS decisions.
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static constexpr int k_errorLimit = 3;
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};
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#endif // TRYDANMODBUSTCPMASTER_H
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