From 6ae25ce33972f42b2cc31914f04471aa90bde117 Mon Sep 17 00:00:00 2001 From: Tallagrand Thierry Date: Sat, 5 Sep 2026 18:54:57 +0200 Subject: [PATCH] Le nombre de modules se lit, il ne se code plus La courbe energie/SOC a ete mesuree sur sept modules. Retirer un module divise la capacite sans changer la forme de la courbe : les pentes sont donc mises a l'echelle du nombre reellement en service, lu dans input_number.evcs_balance_modules_en_service. Le controleur EVCS lit le meme helper pour sa capacite utile - les deux decrivent forcement le meme parc. Helper absent, illisible ou hors bornes => sept, la valeur de la mesure. Les 44 scenarios du bilan et les 80 golden passent donc sans qu'un seul attendu ait ete touche : la bascule ne change rien tant que personne ne l'ecrit. Deux scenarios couvrent la bascule elle-meme, l'un avec quatre modules (SOC exige 30,5 -> 35,2 %), l'autre avec une valeur aberrante qui doit retomber sur sept. Preuve par mutation : ignorer l'echelle fait tomber le premier et lui seul. Le genou a 33 % est conserve par PRUDENCE et non par mesure : l'hypothese est qu'il vient des cellules faibles du pack retire, donc qu'il disparait avec lui. Le garder revient a sous-estimer la reserve, c'est-a-dire a se tromper du bon cote. Co-Authored-By: Claude Opus 5 Claude-Session: https://claude.ai/code/session_01KKzkkVTG6KXnGXFFC7X9XJ --- src/energy-balance/BALANCE.js | 26 +++++++++- .../HA_SNAPSHOT_TEMPLATE.json.tpl | 1 + src/energy-balance/PREPARE_BALANCE.js | 1 + src/nodes/HA_SNAPSHOT_TEMPLATE.json.tpl | 1 + src/nodes/INPUT_PARSE.js | 10 +++- tests/energy-balance/scenarios-balance.mjs | 50 +++++++++++++++++++ workflows/evcs-energy-balance-v1.json | 6 +-- workflows/evcs-surplus-controller-v2.6.json | 4 +- 8 files changed, 91 insertions(+), 8 deletions(-) diff --git a/src/energy-balance/BALANCE.js b/src/energy-balance/BALANCE.js index cf9c0dc..1f160df 100644 --- a/src/energy-balance/BALANCE.js +++ b/src/energy-balance/BALANCE.js @@ -161,12 +161,34 @@ function buildSlots(consumption) { // ⚠️ A RE-MESURER apres toute evolution du parc (extension prevue cet hiver) : // `node tools/mesure-courbe-batterie.mjs 8`, puis mettre a jour ces trois // nombres. Ce ne sont pas des reglages, ce sont des resultats de mesure. +// +// ⚠️ CES PENTES ONT ETE MESUREES SUR SEPT MODULES. Retirer ou ajouter un module +// divise ou multiplie la capacite sans changer la FORME de la courbe : on les +// exprime donc par module, et on les multiplie par le nombre reellement en +// service. Ce nombre se lit dans un helper — `input_number +// .evcs_balance_modules_en_service` — et non dans le code : le parc a change +// deux fois en une semaine et changera encore cet hiver. Helper absent ou +// illisible => 7, la valeur sur laquelle la mesure a ete faite, donc aucun +// changement de comportement tant que personne ne l'ecrit. +const MODULES_MESURE = 7; +const modulesEnService = (() => { + const n = num(input.modules_en_service, MODULES_MESURE); + return Number.isFinite(n) && n >= 1 && n <= 16 ? n : MODULES_MESURE; +})(); +const echelleParc = modulesEnService / MODULES_MESURE; + const BATTERY_CURVE = { kneePct: 33, - kwhPerPointAbove: 0.169, - kwhPerPointBelow: 0.097, + kwhPerPointAbove: 0.169 * echelleParc, + kwhPerPointBelow: 0.097 * echelleParc, }; +// ⚠️ LE GENOU EST CONSERVE PAR PRUDENCE, PAS PAR MESURE. L'hypothese la mieux +// etayee est qu'il vient des cellules faibles du pack ancien, donc qu'il +// disparait avec lui — auquel cas la pente reste plate et la reserve reelle est +// MEILLEURE qu'annoncee ici. Le garder revient a se tromper du bon cote. +// A trancher en remesurant : `node tools/mesure-courbe-batterie.mjs 8`. + // Energie que la batterie peut delivrer en descendant de socHi a socLo. function energyBetweenSoc(socLo, socHi) { if (!Number.isFinite(socLo) || !Number.isFinite(socHi) || socHi <= socLo) return 0; diff --git a/src/energy-balance/HA_SNAPSHOT_TEMPLATE.json.tpl b/src/energy-balance/HA_SNAPSHOT_TEMPLATE.json.tpl index b79341c..b4917eb 100644 --- a/src/energy-balance/HA_SNAPSHOT_TEMPLATE.json.tpl +++ b/src/energy-balance/HA_SNAPSHOT_TEMPLATE.json.tpl @@ -4,6 +4,7 @@ "balance_enabled": states("input_boolean.evcs_balance_enabled"), "usable_capacity_kwh": states("input_number.evcs_balance_usable_capacity_kwh"), + "modules_en_service": states("input_number.evcs_balance_modules_en_service"), "consumption_p50_csv": states("input_text.evcs_balance_consumption_p50"), "consumption_p80_csv": states("input_text.evcs_balance_consumption_p80"), diff --git a/src/energy-balance/PREPARE_BALANCE.js b/src/energy-balance/PREPARE_BALANCE.js index fe2a220..57eaa67 100644 --- a/src/energy-balance/PREPARE_BALANCE.js +++ b/src/energy-balance/PREPARE_BALANCE.js @@ -40,6 +40,7 @@ return [{ soc_percent: snapshot.soc_percent, usable_capacity_kwh: snapshot.usable_capacity_kwh, + modules_en_service: snapshot.modules_en_service, // Plancher dur : même valeur de repli que INPUT_PARSE.js // (evcs_night_battery_hard_floor_pct n'est aujourd'hui exposé par AUCUN // helper — la valeur « 22 % » documentée partout est en réalité un défaut diff --git a/src/nodes/HA_SNAPSHOT_TEMPLATE.json.tpl b/src/nodes/HA_SNAPSHOT_TEMPLATE.json.tpl index 15e8e0d..a664d18 100644 --- a/src/nodes/HA_SNAPSHOT_TEMPLATE.json.tpl +++ b/src/nodes/HA_SNAPSHOT_TEMPLATE.json.tpl @@ -61,6 +61,7 @@ "battery_reserve_up_a": states("input_number.victron_evcs_battery_reserve_up_a"), "battery_neutral_band_a": states("input_number.victron_evcs_battery_neutral_band_a"), "soc_start_min": states("input_number.victron_evcs_soc_start_min"), + "modules_en_service": states("input_number.evcs_balance_modules_en_service"), "soc_stop_min": states("input_number.victron_evcs_soc_stop_min"), "current_min_a": states("input_number.victron_evcs_current_min_a"), "current_max_auto_a": states("input_number.victron_evcs_current_max_auto_a"), diff --git a/src/nodes/INPUT_PARSE.js b/src/nodes/INPUT_PARSE.js index 1f46eb1..6153592 100644 --- a/src/nodes/INPUT_PARSE.js +++ b/src/nodes/INPUT_PARSE.js @@ -220,7 +220,15 @@ const CFG = { // ici qu'a des ecarts SOC -> cible, tous deux au-dessus du genou. Si un calcul // devait un jour traverser le genou, il faut la COURBE (src/energy-balance/ // BALANCE.js) et non cette constante. - batteryUsableCapacityKwh: 16.9, + // 16,9 kWh mesures sur SEPT modules (§41), soit 2,414 kWh par module. Le parc + // ayant change deux fois en une semaine, le nombre de modules se LIT au lieu + // d'etre code : `input_number.evcs_balance_modules_en_service`, le meme helper + // que le bilan energetique — les deux decrivent forcement le meme parc. + // Absent ou illisible => 7, donc aucun changement tant que personne ne l'ecrit. + batteryUsableCapacityKwh: 2.414 * (() => { + const n = Number(input.modules_en_service); + return Number.isFinite(n) && n >= 1 && n <= 16 ? n : 7; + })(), nominalAcVoltageV: 230, evcsDedicatedMaxW: 4900, systemReserveW: 300, diff --git a/tests/energy-balance/scenarios-balance.mjs b/tests/energy-balance/scenarios-balance.mjs index 517dde2..bbd031b 100644 --- a/tests/energy-balance/scenarios-balance.mjs +++ b/tests/energy-balance/scenarios-balance.mjs @@ -36,6 +36,56 @@ function horizonFrom(startIso, hours, production) { } export const balanceScenarios = [ + { + // Le parc a change deux fois en une semaine et rechangera cet hiver : le + // nombre de modules se lit dans un helper au lieu d'etre code. Ce scenario + // rejoue exactement la matinee du 24/08 avec quatre modules au lieu de + // sept. Meme energie a couvrir, meme creneau — seule la capacite change, + // donc le SOC exige monte de 30,5 a 35,2 %. Son jumeau ci-dessous, sans le + // champ, prouve que l'absence du helper ne change rien. + node: 'BALANCE', + id: 'bilan-parc-reduit-a-quatre-modules', + label: 'Pack ancien isole : quatre modules au lieu de sept, meme matinee du 24/08 → le SOC exige passe de 30,5 a 35,2 %', + snapshot: { + nowMs: Date.parse('2026-08-24T06:43:00+02:00'), + consumption_p50: P50, + consumption_p80: P80, + horizon: horizonFrom('2026-08-24T06:43:00+02:00', 18, PROD_24_08), + soc_percent: 21, + usable_capacity_kwh: 15, + soc_floor_percent: 22, + modules_en_service: 4, + }, + expect: { + usable: true, + crossingHour: 8, + energyToCoverKwh: 0.82, + requiredSocPct: 35.2, + gridNeeded: true, + prudentRequiredSocPct: 51.7, + deficitTrustworthy: true, + }, + }, + { + node: 'BALANCE', + id: 'bilan-modules-valeur-aberrante-retombe-sur-sept', + label: 'Helper illisible (0 module) : on retombe sur les sept de la mesure plutot que de diviser par zero', + snapshot: { + nowMs: Date.parse('2026-08-24T06:43:00+02:00'), + consumption_p50: P50, + consumption_p80: P80, + horizon: horizonFrom('2026-08-24T06:43:00+02:00', 18, PROD_24_08), + soc_percent: 21, + usable_capacity_kwh: 15, + soc_floor_percent: 22, + modules_en_service: 0, + }, + expect: { + usable: true, + requiredSocPct: 30.5, + prudentRequiredSocPct: 41, + }, + }, { node: 'BALANCE', id: 'bilan-rejeu-24-08-matin', diff --git a/workflows/evcs-energy-balance-v1.json b/workflows/evcs-energy-balance-v1.json index db5b6d6..5e8ce4f 100644 --- a/workflows/evcs-energy-balance-v1.json +++ b/workflows/evcs-energy-balance-v1.json @@ -51,7 +51,7 @@ "parameters": [ { "name": "template", - "value": "{{ {\n \"ts\": now().isoformat(),\n \"nowMs\": as_timestamp(now()) * 1000,\n\n \"balance_enabled\": states(\"input_boolean.evcs_balance_enabled\"),\n \"usable_capacity_kwh\": states(\"input_number.evcs_balance_usable_capacity_kwh\"),\n\n \"consumption_p50_csv\": states(\"input_text.evcs_balance_consumption_p50\"),\n \"consumption_p80_csv\": states(\"input_text.evcs_balance_consumption_p80\"),\n \"envelope_csv\": states(\"input_text.evcs_balance_envelope\"),\n \"censorship_rate_csv\": states(\"input_text.evcs_balance_censorship_rate\"),\n\n \"forecast_today_csv\": states(\"input_text.evcs_balance_forecast_today\"),\n \"forecast_tomorrow_csv\": states(\"input_text.evcs_balance_forecast_tomorrow\"),\n \"forecast_updated\": states(\"input_text.evcs_balance_forecast_updated\"),\n \"grid_soc_off\": states(\"input_number.victron_grid_soc_off\"),\n\n \"pv_power_w\": states(\"sensor.victron_pv_power_system\"),\n\n \"house_ac_power_w\": states(\"sensor.victron_consumption_power_l1\"),\n \"vebus_ac_out_l1_power_w\": states(\"sensor.victron_ve_bus_ac_out_l1_power\"),\n \"evcs_ac_power_w\": states(\"sensor.victron_evcs_ac_power\"),\n\n \"soc_percent\": states(\"sensor.victron_battery_soc\"),\n \"battery_current_a\": states(\"sensor.victron_battery_current\"),\n \"battery_voltage_v\": states(\"sensor.victron_battery_voltage\"),\n \"vebus_dc_power_w\": states(\"sensor.victron_ve_bus_dc_power_system\"),\n\n \"grid_switch\": states(\"switch.edf_general_ok_switch\"),\n \"acin1_available\": states(\"sensor.victron_ac_in1_available\"),\n \"grid_power_l1_w\": states(\"sensor.victron_grid_power_l1\"),\n\n \"multiplus_state\": states(\"sensor.airtria_mpii_v1_state\"),\n \"multiplus_overload_alarm\": states(\"sensor.airtria_mpii_v1_overload_alarm\"),\n \"system_state\": states(\"sensor.gx_device_system_state\"),\n \"ess_batterylife_state\": states(\"sensor.gx_device_ess_batterylife_state\"),\n \"dc_battery_state\": states(\"sensor.gx_device_dc_battery_state\"),\n\n \"mppt_1_state\": states(\"sensor.airtria_mppt1_state\"),\n \"mppt_2_state\": states(\"sensor.mppt_450_200_hq2449yr9pt_state\"),\n \"mppt_3_state\": states(\"sensor.v1_state\"),\n\n \"evcs_native_status\": states(\"sensor.evcs_hq2239dnt7p_status\"),\n\n \"forecast_today_remaining_kwh\": states(\"sensor.energy_production_today_remaining\"),\n \"forecast_today_kwh\": states(\"sensor.energy_production_today\"),\n \"forecast_tomorrow_kwh\": states(\"sensor.energy_production_tomorrow\"),\n \"forecast_next_hour_w\": states(\"sensor.power_production_next_hour\"),\n\n \"sun_elevation\": state_attr(\"sun.sun\", \"elevation\"),\n\n \"storm_alert_level\": (states.sensor\n | selectattr('entity_id', 'search', '_weather_alert')\n | map(attribute='state') | list | first) | default('indisponible', true),\n \"storm_alert_detail\": (states.sensor\n | selectattr('entity_id', 'search', '_weather_alert')\n | map(attribute='attributes') | list | first) | default({}, true)\n} | tojson }}\n" + "value": "{{ {\n \"ts\": now().isoformat(),\n \"nowMs\": as_timestamp(now()) * 1000,\n\n \"balance_enabled\": states(\"input_boolean.evcs_balance_enabled\"),\n \"usable_capacity_kwh\": states(\"input_number.evcs_balance_usable_capacity_kwh\"),\n \"modules_en_service\": states(\"input_number.evcs_balance_modules_en_service\"),\n\n \"consumption_p50_csv\": states(\"input_text.evcs_balance_consumption_p50\"),\n \"consumption_p80_csv\": states(\"input_text.evcs_balance_consumption_p80\"),\n \"envelope_csv\": states(\"input_text.evcs_balance_envelope\"),\n \"censorship_rate_csv\": states(\"input_text.evcs_balance_censorship_rate\"),\n\n \"forecast_today_csv\": states(\"input_text.evcs_balance_forecast_today\"),\n \"forecast_tomorrow_csv\": states(\"input_text.evcs_balance_forecast_tomorrow\"),\n \"forecast_updated\": states(\"input_text.evcs_balance_forecast_updated\"),\n \"grid_soc_off\": states(\"input_number.victron_grid_soc_off\"),\n\n \"pv_power_w\": states(\"sensor.victron_pv_power_system\"),\n\n \"house_ac_power_w\": states(\"sensor.victron_consumption_power_l1\"),\n \"vebus_ac_out_l1_power_w\": states(\"sensor.victron_ve_bus_ac_out_l1_power\"),\n \"evcs_ac_power_w\": states(\"sensor.victron_evcs_ac_power\"),\n\n \"soc_percent\": states(\"sensor.victron_battery_soc\"),\n \"battery_current_a\": states(\"sensor.victron_battery_current\"),\n \"battery_voltage_v\": states(\"sensor.victron_battery_voltage\"),\n \"vebus_dc_power_w\": states(\"sensor.victron_ve_bus_dc_power_system\"),\n\n \"grid_switch\": states(\"switch.edf_general_ok_switch\"),\n \"acin1_available\": states(\"sensor.victron_ac_in1_available\"),\n \"grid_power_l1_w\": states(\"sensor.victron_grid_power_l1\"),\n\n \"multiplus_state\": states(\"sensor.airtria_mpii_v1_state\"),\n \"multiplus_overload_alarm\": states(\"sensor.airtria_mpii_v1_overload_alarm\"),\n \"system_state\": states(\"sensor.gx_device_system_state\"),\n \"ess_batterylife_state\": states(\"sensor.gx_device_ess_batterylife_state\"),\n \"dc_battery_state\": states(\"sensor.gx_device_dc_battery_state\"),\n\n \"mppt_1_state\": states(\"sensor.airtria_mppt1_state\"),\n \"mppt_2_state\": states(\"sensor.mppt_450_200_hq2449yr9pt_state\"),\n \"mppt_3_state\": states(\"sensor.v1_state\"),\n\n \"evcs_native_status\": states(\"sensor.evcs_hq2239dnt7p_status\"),\n\n \"forecast_today_remaining_kwh\": states(\"sensor.energy_production_today_remaining\"),\n \"forecast_today_kwh\": states(\"sensor.energy_production_today\"),\n \"forecast_tomorrow_kwh\": states(\"sensor.energy_production_tomorrow\"),\n \"forecast_next_hour_w\": states(\"sensor.power_production_next_hour\"),\n\n \"sun_elevation\": state_attr(\"sun.sun\", \"elevation\"),\n\n \"storm_alert_level\": (states.sensor\n | selectattr('entity_id', 'search', '_weather_alert')\n | map(attribute='state') | list | first) | default('indisponible', true),\n \"storm_alert_detail\": (states.sensor\n | selectattr('entity_id', 'search', '_weather_alert')\n | map(attribute='attributes') | list | first) | default({}, true)\n} | tojson }}\n" } ] }, @@ -99,7 +99,7 @@ 120 ], "parameters": { - "jsCode": "// EVCS Energy Balance — PREPARE_BALANCE\n// =====================================================================\n// Colle de câblage n8n, et rien d'autre. Les nœuds de calcul (CENSORSHIP,\n// RESOURCE_ESTIMATE, BALANCE) sont volontairement écrits pour ne lire que\n// `$input`, afin de rester testables hors de n8n. Ce nœud rassemble donc ce\n// que BALANCE attend, en puisant dans les nœuds précédents.\n//\n// Il fait aussi la seule conversion nécessaire : les profils horaires vivent\n// dans des helpers `input_text` sous forme de CSV compact (24 valeurs, moins\n// de 255 caractères), il faut les redonner sous forme de tableaux.\n// =====================================================================\n\nfunction parseCsv24(raw) {\n if (typeof raw !== 'string') return null;\n const parts = raw.split(',').map(v => Number.parseFloat(v.trim()));\n if (parts.length !== 24 || parts.some(v => !Number.isFinite(v))) return null;\n return parts;\n}\n\n// Le nœud HTTP de n8n renvoie le corps du template dans `data`, sous forme de\n// chaîne. Hors n8n (tests), l'objet arrive déjà décodé — on accepte les deux.\nfunction unwrapSnapshot(raw) {\n if (raw && typeof raw.data === 'string') {\n try { return JSON.parse(raw.data); } catch { return raw; }\n }\n return (raw && raw.data) || raw;\n}\n\nconst snapshot = unwrapSnapshot($('HA Snapshot Balance').first().json);\nconst resource = $input.first().json;\n\nreturn [{\n json: {\n nowMs: Number.parseFloat(snapshot.nowMs),\n\n consumption_p50: parseCsv24(snapshot.consumption_p50_csv),\n consumption_p80: parseCsv24(snapshot.consumption_p80_csv),\n\n horizon: resource.horizon || [],\n\n soc_percent: snapshot.soc_percent,\n usable_capacity_kwh: snapshot.usable_capacity_kwh,\n // Plancher dur : même valeur de repli que INPUT_PARSE.js\n // (evcs_night_battery_hard_floor_pct n'est aujourd'hui exposé par AUCUN\n // helper — la valeur « 22 % » documentée partout est en réalité un défaut\n // de code, cf. backlog du chantier).\n soc_floor_percent: 22,\n\n // Vigilance Météo-France, lue sans connaître la commune (l'entité\n // s'appelle sensor._weather_alert). Absente tant que\n // l'intégration n'est pas installée : le bilan publie alors\n // 'indisponible' et ne change rien.\n storm_alert_level: snapshot.storm_alert_level,\n storm_alert_detail: snapshot.storm_alert_detail,\n\n // Repris pour l'écriture des helpers, sans influencer le calcul.\n resourceUsable: resource.usable,\n shapeConfidence: resource.source ? resource.source.shapeConfidence : null,\n },\n}];\n" + "jsCode": "// EVCS Energy Balance — PREPARE_BALANCE\n// =====================================================================\n// Colle de câblage n8n, et rien d'autre. Les nœuds de calcul (CENSORSHIP,\n// RESOURCE_ESTIMATE, BALANCE) sont volontairement écrits pour ne lire que\n// `$input`, afin de rester testables hors de n8n. Ce nœud rassemble donc ce\n// que BALANCE attend, en puisant dans les nœuds précédents.\n//\n// Il fait aussi la seule conversion nécessaire : les profils horaires vivent\n// dans des helpers `input_text` sous forme de CSV compact (24 valeurs, moins\n// de 255 caractères), il faut les redonner sous forme de tableaux.\n// =====================================================================\n\nfunction parseCsv24(raw) {\n if (typeof raw !== 'string') return null;\n const parts = raw.split(',').map(v => Number.parseFloat(v.trim()));\n if (parts.length !== 24 || parts.some(v => !Number.isFinite(v))) return null;\n return parts;\n}\n\n// Le nœud HTTP de n8n renvoie le corps du template dans `data`, sous forme de\n// chaîne. Hors n8n (tests), l'objet arrive déjà décodé — on accepte les deux.\nfunction unwrapSnapshot(raw) {\n if (raw && typeof raw.data === 'string') {\n try { return JSON.parse(raw.data); } catch { return raw; }\n }\n return (raw && raw.data) || raw;\n}\n\nconst snapshot = unwrapSnapshot($('HA Snapshot Balance').first().json);\nconst resource = $input.first().json;\n\nreturn [{\n json: {\n nowMs: Number.parseFloat(snapshot.nowMs),\n\n consumption_p50: parseCsv24(snapshot.consumption_p50_csv),\n consumption_p80: parseCsv24(snapshot.consumption_p80_csv),\n\n horizon: resource.horizon || [],\n\n soc_percent: snapshot.soc_percent,\n usable_capacity_kwh: snapshot.usable_capacity_kwh,\n modules_en_service: snapshot.modules_en_service,\n // Plancher dur : même valeur de repli que INPUT_PARSE.js\n // (evcs_night_battery_hard_floor_pct n'est aujourd'hui exposé par AUCUN\n // helper — la valeur « 22 % » documentée partout est en réalité un défaut\n // de code, cf. backlog du chantier).\n soc_floor_percent: 22,\n\n // Vigilance Météo-France, lue sans connaître la commune (l'entité\n // s'appelle sensor._weather_alert). Absente tant que\n // l'intégration n'est pas installée : le bilan publie alors\n // 'indisponible' et ne change rien.\n storm_alert_level: snapshot.storm_alert_level,\n storm_alert_detail: snapshot.storm_alert_detail,\n\n // Repris pour l'écriture des helpers, sans influencer le calcul.\n resourceUsable: resource.usable,\n shapeConfidence: resource.source ? resource.source.shapeConfidence : null,\n },\n}];\n" } }, { @@ -111,7 +111,7 @@ 120 ], "parameters": { - "jsCode": "// EVCS Energy Balance — BALANCE\n// =====================================================================\n// Rôle : produire les FAITS qui remplacent les seuils fixes. Rien d'autre.\n// Ce nœud ne pilote ni EDF, ni la borne : il publie des grandeurs que les deux\n// contrôleurs liront à la place de leurs constantes.\n//\n// La question à laquelle il répond n'est pas « le SOC est-il au-dessus de\n// 30 % ? » mais « la batterie contient-elle de quoi tenir jusqu'à ce que le\n// solaire prenne le relais ? ». Le 24/08/2026 à 06:43, la réponse du seuil fixe\n// et celle du bilan diffèrent : la production ne couvrait la maison qu'à partir\n// de 09 h, il fallait donc environ 0,8 kWh de réserve, soit ~5 points de SOC —\n// et non un palier arbitraire à 30 %.\n//\n// Entrées (toutes fournies, aucune constante physique en dur) :\n// consumption_p50[24] profil horaire mesuré, valeur typique (CONSUMPTION_PROFILE)\n// consumption_p80[24] idem, valeur prudente\n// horizon[] production attendue heure par heure (RESOURCE_ESTIMATE)\n// soc_percent SOC lissé pour le pilotage\n// usable_capacity_kwh capacité réellement disponible du parc batterie\n// soc_floor_percent plancher dur de sécurité\n//\n// Sorties : heure de croisement · énergie à couvrir · SOC requis · marge\n// disponible pour le véhicule · niveau de confiance.\n// =====================================================================\n\nfunction num(v, fallback = NaN) {\n const n = Number.parseFloat(v);\n return Number.isFinite(n) ? n : fallback;\n}\n\nfunction round1(v) {\n return Number.isFinite(v) ? Math.round(v * 10) / 10 : null;\n}\n\nfunction round2(v) {\n return Number.isFinite(v) ? Math.round(v * 100) / 100 : null;\n}\n\nconst input = $input.first().json;\n\nconst CFG = {\n TIMEZONE: 'Europe/Paris',\n // Au-delà de cet horizon sans croisement trouvé, on cesse de chercher : la\n // réponse n'aurait plus de sens opérationnel.\n SEARCH_HOURS: 40,\n // PAS de marge de sécurité supplémentaire. La prudence est déjà portée,\n // entièrement, par le choix du percentile du profil de consommation (p80),\n // qui est mesuré. Vérifié le 24/08/2026 : sur toutes les fenêtres testées,\n // p80(somme des heures) est égal a somme(p80 par heure) — les heures de\n // consommation sont fortement corrélées, une matinée chargée l'étant sur\n // plusieurs heures d'affilée. Sommer les p80 ne cumule donc PAS deux\n // pessimismes, et ajouter un coefficient par-dessus ne serait qu'une\n // constante arbitraire de plus.\n};\n\nfunction profileOf(key) {\n const a = input[key];\n return Array.isArray(a) && a.length === 24 ? a.map(v => Math.max(0, num(v, 0))) : null;\n}\nconst consumptionP50 = profileOf('consumption_p50');\nconst consumptionP80 = profileOf('consumption_p80');\n\nconst horizon = Array.isArray(input.horizon) ? input.horizon : null;\n\nconst socPct = num(input.soc_percent, NaN);\nconst usableCapacityKwh = num(input.usable_capacity_kwh, NaN);\nconst socFloorPct = num(input.soc_floor_percent, 22);\n\n// Sans l'une de ces entrées, le bilan ne peut rien affirmer. Il le dit, et les\n// contrôleurs retombent sur leurs règles historiques.\nconst missing = [];\nif (!consumptionP50) missing.push('consumption_p50');\nif (!consumptionP80) missing.push('consumption_p80');\nif (!horizon || !horizon.length) missing.push('horizon');\nif (!Number.isFinite(socPct)) missing.push('soc_percent');\nif (!Number.isFinite(usableCapacityKwh) || usableCapacityKwh <= 0) missing.push('usable_capacity_kwh');\n\nif (missing.length) {\n return [{\n json: {\n usable: false,\n missing,\n reason: `Bilan indisponible : ${missing.join(', ')}. Les contrôleurs doivent conserver leurs règles.`,\n cfg: CFG,\n },\n }];\n}\n\n// ---------------------------------------------------------------------\n// Bilan heure par heure, calculé DEUX FOIS.\n//\n// Pourquoi deux niveaux de prudence et pas un seul : la décision « faut-il du\n// réseau maintenant ? » est réévaluée à chaque cycle et reste réversible. Se\n// tromper par optimisme ne coûte qu'un démarrage réseau une heure plus tard,\n// le plancher dur garantissant la batterie ; se tromper par excès de prudence\n// coûte un import réseau bien réel, immédiatement.\n//\n// Vérifié sur la matinée du 24/08/2026 : avec le profil prudent, le bilan\n// exigerait 48 % de SOC pour franchir la matinée, alors que la consommation\n// réelle de ce jour-là n'a demandé que 0,8 kWh — le seuil fixe de 30 % aurait\n// été MOINS coûteux. Un bilan « intelligent » plus gourmand que le seuil bête\n// qu'il remplace n'a aucun intérêt.\n//\n// - profil TYPIQUE (p50) → décision réseau immédiate, réévaluée en continu.\n// - profil PRUDENT (p80) → planification : cible de nuit, dimensionnement\n// du stockage, choix qui engagent plusieurs heures.\n// ---------------------------------------------------------------------\nfunction buildSlots(consumption) {\n return horizon.slice(0, CFG.SEARCH_HOURS).map(slot => {\n const hour = num(slot.hour, 0);\n const productionKwh = Math.max(0, num(slot.expectedKwh, 0));\n const consumptionKwh = consumption[hour] ?? 0;\n return {\n startMs: slot.startMs,\n hour,\n productionKwh: round2(productionKwh),\n consumptionKwh: round2(consumptionKwh),\n netKwh: round2(productionKwh - consumptionKwh),\n shapeQuality: slot.shapeQuality || 'inconnue',\n };\n });\n}\n\n// =====================================================================\n// COURBE D'ENERGIE DE LA BATTERIE — MESUREE, PAS SUPPOSEE (03/09/2026)\n// =====================================================================\n// La conversion energie <-> points de SOC etait une CONSTANTE\n// (`usable_capacity_kwh`, 15 kWh) la ou la realite est une COURBE.\n//\n// Mesure : 576 paliers de SOC sur 8 jours (`tools/mesure-courbe-batterie.mjs`).\n// Pour chaque palier ou le SOC reste a une valeur puis DESCEND d'un point, on\n// integre la puissance batterie — en ecartant les paliers ou la batterie a\n// charge ou ou le reseau a apporte quoi que ce soit.\n//\n// tranche paliers kWh/point\n// 21-31 88 0,097 <- effondrement pres du genou\n// 35-44 78 0,171\n// 45-54 76 0,169\n// 55-64 85 0,163\n// 65-74 80 0,171\n// 75-84 81 0,170\n// 85-94 62 0,169\n//\n// Plate a 0,169 de 33 a 93, genou net a 32-33, puis 0,097 : sous le genou, un\n// point de SOC vaut 57 % de ce qu'il vaut au-dessus. Coherent avec §0 (un\n// module en panne sur huit, un autre qui faiblit) et avec l'effondrement de la\n// jauge deja signale au §28 — ceci lui donne sa courbe.\n//\n// CE QUE LA CONSTANTE FAISAIT : 15 kWh se situe ENTRE les deux pentes, donc\n// l'erreur CHANGE DE SIGNE selon l'energie a couvrir —\n// 1 kWh a couvrir : SOC requis 28,7 % annonce contre 32,3 % reel (-3,6)\n// 4,3 kWh : 50,7 contre 52,1 (-1,4)\n// 8 kWh : 75,3 contre 74,0 (+1,3)\n// 11,7 kWh : 99,7 contre 95,7 (+4,1)\n// Trop BAS en fin de nuit (la direction dangereuse), trop HAUT en debut.\n//\n// Energie utile totale de 100 a 22 % : 12,39 kWh mesures, contre 11,70 vus par\n// le bilan et 13,65 par INPUT_PARSE. Les deux constantes existantes etaient\n// fausses, dans des sens opposes.\n//\n// ⚠️ A RE-MESURER apres toute evolution du parc (extension prevue cet hiver) :\n// `node tools/mesure-courbe-batterie.mjs 8`, puis mettre a jour ces trois\n// nombres. Ce ne sont pas des reglages, ce sont des resultats de mesure.\nconst BATTERY_CURVE = {\n kneePct: 33,\n kwhPerPointAbove: 0.169,\n kwhPerPointBelow: 0.097,\n};\n\n// Energie que la batterie peut delivrer en descendant de socHi a socLo.\nfunction energyBetweenSoc(socLo, socHi) {\n if (!Number.isFinite(socLo) || !Number.isFinite(socHi) || socHi <= socLo) return 0;\n const knee = BATTERY_CURVE.kneePct;\n const lowSpan = Math.max(0, Math.min(socHi, knee) - Math.min(socLo, knee));\n const highSpan = Math.max(0, Math.max(socHi, knee) - Math.max(socLo, knee));\n return lowSpan * BATTERY_CURVE.kwhPerPointBelow\n + highSpan * BATTERY_CURVE.kwhPerPointAbove;\n}\n\n// SOC necessaire pour delivrer energyKwh en descendant jusqu'a floorPct.\n// NON ecrete : au-dela de 100 la valeur reste le signal de sous-dimensionnement\n// (cf. §26). L'extrapolation au-dessus de 100 utilise la pente haute.\nfunction socForEnergy(energyKwh, floorPct) {\n if (!Number.isFinite(energyKwh) || energyKwh <= 0) return floorPct;\n const knee = Math.max(floorPct, BATTERY_CURVE.kneePct);\n const belowKwh = (knee - floorPct) * BATTERY_CURVE.kwhPerPointBelow;\n if (energyKwh <= belowKwh) {\n return floorPct + energyKwh / BATTERY_CURVE.kwhPerPointBelow;\n }\n return knee + (energyKwh - belowKwh) / BATTERY_CURVE.kwhPerPointAbove;\n}\n\n// SOC atteint en ajoutant addKwh a partir de socPct.\nfunction socAfterEnergy(socPct, addKwh) {\n if (!Number.isFinite(addKwh) || addKwh <= 0) return socPct;\n return socForEnergy(energyBetweenSoc(0, socPct) + addKwh, 0);\n}\n\nfunction coverage(slots) {\n const crossingIndex = slots.findIndex(s => s.netKwh > 0);\n const found = crossingIndex >= 0;\n const deficitSlots = found ? slots.slice(0, crossingIndex) : slots;\n const energyToCoverKwh = deficitSlots.reduce((sum, s) => sum + Math.max(0, -s.netKwh), 0);\n const requiredSocRawPct = socForEnergy(energyToCoverKwh, socFloorPct);\n const socNeededPct = requiredSocRawPct - socFloorPct;\n const requiredSocPct = Math.min(100, requiredSocRawPct);\n const socMarginPct = socPct - requiredSocPct;\n return {\n crossingIndex, found, deficitSlots, slots,\n energyToCoverKwh, socNeededPct, requiredSocPct, socMarginPct,\n gridNeeded: socMarginPct < 0,\n gridEnergyNeededKwh: socMarginPct < 0 ? energyBetweenSoc(socPct, requiredSocPct) : 0,\n };\n}\n\nconst typical = coverage(buildSlots(consumptionP50));\nconst prudent = coverage(buildSlots(consumptionP80));\n\n// ---------------------------------------------------------------------\n// PROCHAINE FENÊTRE DE DÉFICIT (ajout du 24/08/2026)\n//\n// Le calcul ci-dessus répond à « combien d'énergie jusqu'à ce que le solaire\n// prenne le relais ». À 15 h, le solaire a déjà pris le relais : la réponse est\n// zéro et le SOC requis retombe sur le plancher. C'est exact mais inutile à\n// cette heure-là, car le déficit qui approche est celui de la nuit.\n//\n// On cherche donc AUSSI la prochaine fenêtre de déficit après le surplus en\n// cours : son heure de début, son énergie, et le SOC qu'il faudra avoir atteint\n// à ce moment-là. C'est cette grandeur qui remplace la cible de nuit fixe, et\n// qui dit combien de surplus il faut avoir stocké avant le coucher du soleil.\n//\n// Profil PRUDENT : contrairement à la décision réseau immédiate, cette\n// projection engage plusieurs heures et n'est pas révisable à volonté — la nuit\n// tombée, il n'y a plus de solaire pour rattraper une sous-estimation.\n// ---------------------------------------------------------------------\nfunction nextDeficitWindow(slots) {\n const firstSurplus = slots.findIndex(s => s.netKwh > 0);\n if (firstSurplus < 0) return { found: false, reason: 'deficit_en_cours' };\n\n const start = slots.findIndex((s, i) => i > firstSurplus && s.netKwh < 0);\n if (start < 0) return { found: false, reason: 'aucun_deficit_sur_horizon' };\n\n let end = slots.findIndex((s, i) => i > start && s.netKwh > 0);\n if (end < 0) end = slots.length;\n\n const energyKwh = slots.slice(start, end)\n .reduce((sum, s) => sum + Math.max(0, -s.netKwh), 0);\n\n // Surplus encore récupérable d'ici là : de quoi remplir, ou pas.\n const surplusBeforeKwh = slots.slice(0, start)\n .reduce((sum, s) => sum + Math.max(0, s.netKwh), 0);\n\n return {\n found: true,\n startHour: slots[start].hour,\n startMs: slots[start].startMs,\n hoursFromNow: start,\n endHour: end < slots.length ? slots[end].hour : null,\n complete: end < slots.length,\n energyKwh,\n // NON écrêté à 100 volontairement : une valeur au-dessus de 100 signifie\n // que même une batterie pleine ne suffit pas à traverser la fenêtre. C'est\n // exactement le signal de sous-dimensionnement du stockage — l'écrêter le\n // masquerait.\n requiredSocAtStartPct: socForEnergy(energyKwh, socFloorPct),\n surplusBeforeKwh,\n };\n}\n\nconst nextDeficit = nextDeficitWindow(prudent.slots);\n\n// ---------------------------------------------------------------------\n// RÉSERVE D'ORAGE (27/08/2026)\n//\n// Les coupures réseau sont fréquentes ici lors des orages. Point de départ\n// souvent mal posé : une coupure n'arrête PAS l'installation. Le solaire et\n// la batterie continuent de fonctionner, seul le filet de secours disparaît.\n// La question n'est donc pas « combien stocker pour survivre » mais « la\n// batterie traverse-t-elle la prochaine fenêtre de déficit SANS le réseau ».\n//\n// C'est exactement la couverture PRUDENTE (p80) déjà calculée plus haut :\n// rien à inventer, aucune constante de plus. Le profil prudent est le bon\n// choix ici parce qu'une coupure retire précisément la possibilité de\n// rattraper une sous-estimation.\n//\n// Le niveau vient de la vigilance Météo-France, dont l'échelle officielle est\n// vert/jaune/orange/rouge. « Actif » à partir d'orange : c'est le seuil de\n// l'émetteur, pas un nombre choisi ici.\n// ---------------------------------------------------------------------\nconst STORM_SCALE = ['vert', 'jaune', 'orange', 'rouge'];\nconst STORM_ACTIVE_FROM = STORM_SCALE.indexOf('orange');\n\nconst stormRaw = typeof input.storm_alert_level === 'string'\n ? input.storm_alert_level.trim().toLowerCase()\n : '';\nconst stormIndex = STORM_SCALE.indexOf(stormRaw);\nconst stormKnown = stormIndex >= 0;\nconst stormActive = stormIndex >= STORM_ACTIVE_FROM;\n\n// Phénomènes atteignant le niveau d'alerte, s'ils sont exposés en attributs\n// (« Orages », « Vent violent »…). Purement informatif.\nconst stormDetail = (input.storm_alert_detail && typeof input.storm_alert_detail === 'object')\n ? input.storm_alert_detail\n : {};\nconst stormPhenomena = Object.keys(stormDetail)\n .filter(k => typeof stormDetail[k] === 'string'\n && STORM_SCALE.indexOf(stormDetail[k].trim().toLowerCase()) >= STORM_ACTIVE_FROM)\n .sort();\n\n// En surplus, la fenêtre qui compte est la prochaine (la nuit qui vient) ;\n// en déficit, c'est celle qu'on est en train de traverser.\nconst inSurplusNow = prudent.found && prudent.crossingIndex === 0;\nconst stormWindow = (inSurplusNow && nextDeficit.found)\n ? {\n kwh: nextDeficit.energyKwh,\n socPct: nextDeficit.requiredSocAtStartPct,\n startHour: nextDeficit.startHour,\n }\n : {\n kwh: prudent.energyToCoverKwh,\n socPct: prudent.requiredSocPct,\n startHour: null,\n };\nconst stormMarginPct = socPct - stormWindow.socPct;\n\nconst slots = typical.slots;\nconst crossingFound = typical.found;\nconst crossingIndex = typical.crossingIndex;\nconst crossing = crossingFound ? slots[crossingIndex] : null;\nconst deficitSlots = typical.deficitSlots;\n\n// ---------------------------------------------------------------------\n// Marge disponible pour le véhicule : surplus attendu après le croisement,\n// une fois la maison servie. C'est ce qui peut être chargé sans toucher au\n// réseau ni entamer la réserve.\n// ---------------------------------------------------------------------\nconst surplusAfterCrossingKwh = crossingFound\n ? slots.slice(crossingIndex).reduce((sum, s) => sum + Math.max(0, s.netKwh), 0)\n : 0;\n\n// ---------------------------------------------------------------------\n// Confiance : la part du calcul qui repose sur une forme de production minorée\n// (après-midi censuré). Elle ne dégrade PAS la réponse « faut-il du réseau »,\n// qui se joue sur les heures de déficit — celles-ci ne sont jamais censurées,\n// une heure censurée étant par construction une heure de surplus.\n// ---------------------------------------------------------------------\nconst deficitOnWeakShape = deficitSlots.filter(s => s.shapeQuality === 'minoree').length;\nconst confidence = {\n deficitHoursOnWeakShape: deficitOnWeakShape,\n deficitTrustworthy: deficitOnWeakShape === 0,\n surplusTrustworthy: !slots.slice(crossingFound ? crossingIndex : 0)\n .some(s => s.shapeQuality === 'minoree'),\n};\n\nreturn [{\n json: {\n usable: true,\n generatedAt: new Date(num(input.nowMs, Date.now())).toISOString(),\n\n crossing: {\n found: crossingFound,\n hour: crossing ? crossing.hour : null,\n startMs: crossing ? crossing.startMs : null,\n hoursFromNow: crossingFound ? crossingIndex : null,\n },\n\n coverage: {\n // Décision réseau immédiate — remplace input_number.victron_grid_soc_off.\n energyToCoverKwh: round2(typical.energyToCoverKwh),\n requiredSocPct: round1(typical.requiredSocPct),\n currentSocPct: round1(socPct),\n socMarginPct: round1(typical.socMarginPct),\n gridNeeded: typical.gridNeeded,\n gridEnergyNeededKwh: round2(typical.gridEnergyNeededKwh),\n\n // Planification (cible de nuit, dimensionnement) — ne pilote PAS le réseau.\n prudent: {\n energyToCoverKwh: round2(prudent.energyToCoverKwh),\n requiredSocPct: round1(prudent.requiredSocPct),\n socMarginPct: round1(prudent.socMarginPct),\n crossingHour: prudent.found ? prudent.slots[prudent.crossingIndex].hour : null,\n },\n },\n\n // Ce qu'il faudra avoir stocké avant la prochaine traversée déficitaire.\n nextDeficit: nextDeficit.found ? {\n found: true,\n startHour: nextDeficit.startHour,\n hoursFromNow: nextDeficit.hoursFromNow,\n endHour: nextDeficit.endHour,\n complete: nextDeficit.complete,\n energyKwh: round2(nextDeficit.energyKwh),\n requiredSocAtStartPct: round1(nextDeficit.requiredSocAtStartPct),\n surplusBeforeKwh: round2(nextDeficit.surplusBeforeKwh),\n // Franchissable avec le stockage actuel, batterie pleine ?\n feasibleWithCurrentStorage: nextDeficit.requiredSocAtStartPct <= 100,\n // Si non : capacité utile manquante. C'est le chiffre du dimensionnement.\n storageShortfallKwh: energyBetweenSoc(100, nextDeficit.requiredSocAtStartPct),\n reachable: nextDeficit.surplusBeforeKwh >= 0\n && socAfterEnergy(socPct, nextDeficit.surplusBeforeKwh)\n >= nextDeficit.requiredSocAtStartPct,\n } : { found: false, reason: nextDeficit.reason },\n\n vehicle: {\n surplusAvailableKwh: round2(surplusAfterCrossingKwh),\n },\n\n // Réserve à tenir pour traverser SANS réseau la fenêtre de déficit qui\n // compte. Publiée en permanence — elle documente le risque même par temps\n // calme ; `active` dit seulement si la vigilance la rend d'actualité.\n storm: {\n level: stormKnown ? stormRaw : 'indisponible',\n known: stormKnown,\n active: stormActive,\n phenomena: stormPhenomena,\n windowStartHour: stormWindow.startHour,\n reserveKwh: round2(stormWindow.kwh),\n reserveSocPct: round1(stormWindow.socPct),\n socMarginPct: round1(stormMarginPct),\n covered: stormMarginPct >= 0,\n shortfallKwh: stormMarginPct < 0\n ? round2(energyBetweenSoc(socPct, stormWindow.socPct))\n : 0,\n },\n\n confidence,\n slots,\n\n inputs: {\n usableCapacityKwh: round2(usableCapacityKwh),\n socFloorPct: round1(socFloorPct),\n },\n\n cfg: CFG,\n },\n}];\n" + "jsCode": "// EVCS Energy Balance — BALANCE\n// =====================================================================\n// Rôle : produire les FAITS qui remplacent les seuils fixes. Rien d'autre.\n// Ce nœud ne pilote ni EDF, ni la borne : il publie des grandeurs que les deux\n// contrôleurs liront à la place de leurs constantes.\n//\n// La question à laquelle il répond n'est pas « le SOC est-il au-dessus de\n// 30 % ? » mais « la batterie contient-elle de quoi tenir jusqu'à ce que le\n// solaire prenne le relais ? ». Le 24/08/2026 à 06:43, la réponse du seuil fixe\n// et celle du bilan diffèrent : la production ne couvrait la maison qu'à partir\n// de 09 h, il fallait donc environ 0,8 kWh de réserve, soit ~5 points de SOC —\n// et non un palier arbitraire à 30 %.\n//\n// Entrées (toutes fournies, aucune constante physique en dur) :\n// consumption_p50[24] profil horaire mesuré, valeur typique (CONSUMPTION_PROFILE)\n// consumption_p80[24] idem, valeur prudente\n// horizon[] production attendue heure par heure (RESOURCE_ESTIMATE)\n// soc_percent SOC lissé pour le pilotage\n// usable_capacity_kwh capacité réellement disponible du parc batterie\n// soc_floor_percent plancher dur de sécurité\n//\n// Sorties : heure de croisement · énergie à couvrir · SOC requis · marge\n// disponible pour le véhicule · niveau de confiance.\n// =====================================================================\n\nfunction num(v, fallback = NaN) {\n const n = Number.parseFloat(v);\n return Number.isFinite(n) ? n : fallback;\n}\n\nfunction round1(v) {\n return Number.isFinite(v) ? Math.round(v * 10) / 10 : null;\n}\n\nfunction round2(v) {\n return Number.isFinite(v) ? Math.round(v * 100) / 100 : null;\n}\n\nconst input = $input.first().json;\n\nconst CFG = {\n TIMEZONE: 'Europe/Paris',\n // Au-delà de cet horizon sans croisement trouvé, on cesse de chercher : la\n // réponse n'aurait plus de sens opérationnel.\n SEARCH_HOURS: 40,\n // PAS de marge de sécurité supplémentaire. La prudence est déjà portée,\n // entièrement, par le choix du percentile du profil de consommation (p80),\n // qui est mesuré. Vérifié le 24/08/2026 : sur toutes les fenêtres testées,\n // p80(somme des heures) est égal a somme(p80 par heure) — les heures de\n // consommation sont fortement corrélées, une matinée chargée l'étant sur\n // plusieurs heures d'affilée. Sommer les p80 ne cumule donc PAS deux\n // pessimismes, et ajouter un coefficient par-dessus ne serait qu'une\n // constante arbitraire de plus.\n};\n\nfunction profileOf(key) {\n const a = input[key];\n return Array.isArray(a) && a.length === 24 ? a.map(v => Math.max(0, num(v, 0))) : null;\n}\nconst consumptionP50 = profileOf('consumption_p50');\nconst consumptionP80 = profileOf('consumption_p80');\n\nconst horizon = Array.isArray(input.horizon) ? input.horizon : null;\n\nconst socPct = num(input.soc_percent, NaN);\nconst usableCapacityKwh = num(input.usable_capacity_kwh, NaN);\nconst socFloorPct = num(input.soc_floor_percent, 22);\n\n// Sans l'une de ces entrées, le bilan ne peut rien affirmer. Il le dit, et les\n// contrôleurs retombent sur leurs règles historiques.\nconst missing = [];\nif (!consumptionP50) missing.push('consumption_p50');\nif (!consumptionP80) missing.push('consumption_p80');\nif (!horizon || !horizon.length) missing.push('horizon');\nif (!Number.isFinite(socPct)) missing.push('soc_percent');\nif (!Number.isFinite(usableCapacityKwh) || usableCapacityKwh <= 0) missing.push('usable_capacity_kwh');\n\nif (missing.length) {\n return [{\n json: {\n usable: false,\n missing,\n reason: `Bilan indisponible : ${missing.join(', ')}. Les contrôleurs doivent conserver leurs règles.`,\n cfg: CFG,\n },\n }];\n}\n\n// ---------------------------------------------------------------------\n// Bilan heure par heure, calculé DEUX FOIS.\n//\n// Pourquoi deux niveaux de prudence et pas un seul : la décision « faut-il du\n// réseau maintenant ? » est réévaluée à chaque cycle et reste réversible. Se\n// tromper par optimisme ne coûte qu'un démarrage réseau une heure plus tard,\n// le plancher dur garantissant la batterie ; se tromper par excès de prudence\n// coûte un import réseau bien réel, immédiatement.\n//\n// Vérifié sur la matinée du 24/08/2026 : avec le profil prudent, le bilan\n// exigerait 48 % de SOC pour franchir la matinée, alors que la consommation\n// réelle de ce jour-là n'a demandé que 0,8 kWh — le seuil fixe de 30 % aurait\n// été MOINS coûteux. Un bilan « intelligent » plus gourmand que le seuil bête\n// qu'il remplace n'a aucun intérêt.\n//\n// - profil TYPIQUE (p50) → décision réseau immédiate, réévaluée en continu.\n// - profil PRUDENT (p80) → planification : cible de nuit, dimensionnement\n// du stockage, choix qui engagent plusieurs heures.\n// ---------------------------------------------------------------------\nfunction buildSlots(consumption) {\n return horizon.slice(0, CFG.SEARCH_HOURS).map(slot => {\n const hour = num(slot.hour, 0);\n const productionKwh = Math.max(0, num(slot.expectedKwh, 0));\n const consumptionKwh = consumption[hour] ?? 0;\n return {\n startMs: slot.startMs,\n hour,\n productionKwh: round2(productionKwh),\n consumptionKwh: round2(consumptionKwh),\n netKwh: round2(productionKwh - consumptionKwh),\n shapeQuality: slot.shapeQuality || 'inconnue',\n };\n });\n}\n\n// =====================================================================\n// COURBE D'ENERGIE DE LA BATTERIE — MESUREE, PAS SUPPOSEE (03/09/2026)\n// =====================================================================\n// La conversion energie <-> points de SOC etait une CONSTANTE\n// (`usable_capacity_kwh`, 15 kWh) la ou la realite est une COURBE.\n//\n// Mesure : 576 paliers de SOC sur 8 jours (`tools/mesure-courbe-batterie.mjs`).\n// Pour chaque palier ou le SOC reste a une valeur puis DESCEND d'un point, on\n// integre la puissance batterie — en ecartant les paliers ou la batterie a\n// charge ou ou le reseau a apporte quoi que ce soit.\n//\n// tranche paliers kWh/point\n// 21-31 88 0,097 <- effondrement pres du genou\n// 35-44 78 0,171\n// 45-54 76 0,169\n// 55-64 85 0,163\n// 65-74 80 0,171\n// 75-84 81 0,170\n// 85-94 62 0,169\n//\n// Plate a 0,169 de 33 a 93, genou net a 32-33, puis 0,097 : sous le genou, un\n// point de SOC vaut 57 % de ce qu'il vaut au-dessus. Coherent avec §0 (un\n// module en panne sur huit, un autre qui faiblit) et avec l'effondrement de la\n// jauge deja signale au §28 — ceci lui donne sa courbe.\n//\n// CE QUE LA CONSTANTE FAISAIT : 15 kWh se situe ENTRE les deux pentes, donc\n// l'erreur CHANGE DE SIGNE selon l'energie a couvrir —\n// 1 kWh a couvrir : SOC requis 28,7 % annonce contre 32,3 % reel (-3,6)\n// 4,3 kWh : 50,7 contre 52,1 (-1,4)\n// 8 kWh : 75,3 contre 74,0 (+1,3)\n// 11,7 kWh : 99,7 contre 95,7 (+4,1)\n// Trop BAS en fin de nuit (la direction dangereuse), trop HAUT en debut.\n//\n// Energie utile totale de 100 a 22 % : 12,39 kWh mesures, contre 11,70 vus par\n// le bilan et 13,65 par INPUT_PARSE. Les deux constantes existantes etaient\n// fausses, dans des sens opposes.\n//\n// ⚠️ A RE-MESURER apres toute evolution du parc (extension prevue cet hiver) :\n// `node tools/mesure-courbe-batterie.mjs 8`, puis mettre a jour ces trois\n// nombres. Ce ne sont pas des reglages, ce sont des resultats de mesure.\n//\n// ⚠️ CES PENTES ONT ETE MESUREES SUR SEPT MODULES. Retirer ou ajouter un module\n// divise ou multiplie la capacite sans changer la FORME de la courbe : on les\n// exprime donc par module, et on les multiplie par le nombre reellement en\n// service. Ce nombre se lit dans un helper — `input_number\n// .evcs_balance_modules_en_service` — et non dans le code : le parc a change\n// deux fois en une semaine et changera encore cet hiver. Helper absent ou\n// illisible => 7, la valeur sur laquelle la mesure a ete faite, donc aucun\n// changement de comportement tant que personne ne l'ecrit.\nconst MODULES_MESURE = 7;\nconst modulesEnService = (() => {\n const n = num(input.modules_en_service, MODULES_MESURE);\n return Number.isFinite(n) && n >= 1 && n <= 16 ? n : MODULES_MESURE;\n})();\nconst echelleParc = modulesEnService / MODULES_MESURE;\n\nconst BATTERY_CURVE = {\n kneePct: 33,\n kwhPerPointAbove: 0.169 * echelleParc,\n kwhPerPointBelow: 0.097 * echelleParc,\n};\n\n// ⚠️ LE GENOU EST CONSERVE PAR PRUDENCE, PAS PAR MESURE. L'hypothese la mieux\n// etayee est qu'il vient des cellules faibles du pack ancien, donc qu'il\n// disparait avec lui — auquel cas la pente reste plate et la reserve reelle est\n// MEILLEURE qu'annoncee ici. Le garder revient a se tromper du bon cote.\n// A trancher en remesurant : `node tools/mesure-courbe-batterie.mjs 8`.\n\n// Energie que la batterie peut delivrer en descendant de socHi a socLo.\nfunction energyBetweenSoc(socLo, socHi) {\n if (!Number.isFinite(socLo) || !Number.isFinite(socHi) || socHi <= socLo) return 0;\n const knee = BATTERY_CURVE.kneePct;\n const lowSpan = Math.max(0, Math.min(socHi, knee) - Math.min(socLo, knee));\n const highSpan = Math.max(0, Math.max(socHi, knee) - Math.max(socLo, knee));\n return lowSpan * BATTERY_CURVE.kwhPerPointBelow\n + highSpan * BATTERY_CURVE.kwhPerPointAbove;\n}\n\n// SOC necessaire pour delivrer energyKwh en descendant jusqu'a floorPct.\n// NON ecrete : au-dela de 100 la valeur reste le signal de sous-dimensionnement\n// (cf. §26). L'extrapolation au-dessus de 100 utilise la pente haute.\nfunction socForEnergy(energyKwh, floorPct) {\n if (!Number.isFinite(energyKwh) || energyKwh <= 0) return floorPct;\n const knee = Math.max(floorPct, BATTERY_CURVE.kneePct);\n const belowKwh = (knee - floorPct) * BATTERY_CURVE.kwhPerPointBelow;\n if (energyKwh <= belowKwh) {\n return floorPct + energyKwh / BATTERY_CURVE.kwhPerPointBelow;\n }\n return knee + (energyKwh - belowKwh) / BATTERY_CURVE.kwhPerPointAbove;\n}\n\n// SOC atteint en ajoutant addKwh a partir de socPct.\nfunction socAfterEnergy(socPct, addKwh) {\n if (!Number.isFinite(addKwh) || addKwh <= 0) return socPct;\n return socForEnergy(energyBetweenSoc(0, socPct) + addKwh, 0);\n}\n\nfunction coverage(slots) {\n const crossingIndex = slots.findIndex(s => s.netKwh > 0);\n const found = crossingIndex >= 0;\n const deficitSlots = found ? slots.slice(0, crossingIndex) : slots;\n const energyToCoverKwh = deficitSlots.reduce((sum, s) => sum + Math.max(0, -s.netKwh), 0);\n const requiredSocRawPct = socForEnergy(energyToCoverKwh, socFloorPct);\n const socNeededPct = requiredSocRawPct - socFloorPct;\n const requiredSocPct = Math.min(100, requiredSocRawPct);\n const socMarginPct = socPct - requiredSocPct;\n return {\n crossingIndex, found, deficitSlots, slots,\n energyToCoverKwh, socNeededPct, requiredSocPct, socMarginPct,\n gridNeeded: socMarginPct < 0,\n gridEnergyNeededKwh: socMarginPct < 0 ? energyBetweenSoc(socPct, requiredSocPct) : 0,\n };\n}\n\nconst typical = coverage(buildSlots(consumptionP50));\nconst prudent = coverage(buildSlots(consumptionP80));\n\n// ---------------------------------------------------------------------\n// PROCHAINE FENÊTRE DE DÉFICIT (ajout du 24/08/2026)\n//\n// Le calcul ci-dessus répond à « combien d'énergie jusqu'à ce que le solaire\n// prenne le relais ». À 15 h, le solaire a déjà pris le relais : la réponse est\n// zéro et le SOC requis retombe sur le plancher. C'est exact mais inutile à\n// cette heure-là, car le déficit qui approche est celui de la nuit.\n//\n// On cherche donc AUSSI la prochaine fenêtre de déficit après le surplus en\n// cours : son heure de début, son énergie, et le SOC qu'il faudra avoir atteint\n// à ce moment-là. C'est cette grandeur qui remplace la cible de nuit fixe, et\n// qui dit combien de surplus il faut avoir stocké avant le coucher du soleil.\n//\n// Profil PRUDENT : contrairement à la décision réseau immédiate, cette\n// projection engage plusieurs heures et n'est pas révisable à volonté — la nuit\n// tombée, il n'y a plus de solaire pour rattraper une sous-estimation.\n// ---------------------------------------------------------------------\nfunction nextDeficitWindow(slots) {\n const firstSurplus = slots.findIndex(s => s.netKwh > 0);\n if (firstSurplus < 0) return { found: false, reason: 'deficit_en_cours' };\n\n const start = slots.findIndex((s, i) => i > firstSurplus && s.netKwh < 0);\n if (start < 0) return { found: false, reason: 'aucun_deficit_sur_horizon' };\n\n let end = slots.findIndex((s, i) => i > start && s.netKwh > 0);\n if (end < 0) end = slots.length;\n\n const energyKwh = slots.slice(start, end)\n .reduce((sum, s) => sum + Math.max(0, -s.netKwh), 0);\n\n // Surplus encore récupérable d'ici là : de quoi remplir, ou pas.\n const surplusBeforeKwh = slots.slice(0, start)\n .reduce((sum, s) => sum + Math.max(0, s.netKwh), 0);\n\n return {\n found: true,\n startHour: slots[start].hour,\n startMs: slots[start].startMs,\n hoursFromNow: start,\n endHour: end < slots.length ? slots[end].hour : null,\n complete: end < slots.length,\n energyKwh,\n // NON écrêté à 100 volontairement : une valeur au-dessus de 100 signifie\n // que même une batterie pleine ne suffit pas à traverser la fenêtre. C'est\n // exactement le signal de sous-dimensionnement du stockage — l'écrêter le\n // masquerait.\n requiredSocAtStartPct: socForEnergy(energyKwh, socFloorPct),\n surplusBeforeKwh,\n };\n}\n\nconst nextDeficit = nextDeficitWindow(prudent.slots);\n\n// ---------------------------------------------------------------------\n// RÉSERVE D'ORAGE (27/08/2026)\n//\n// Les coupures réseau sont fréquentes ici lors des orages. Point de départ\n// souvent mal posé : une coupure n'arrête PAS l'installation. Le solaire et\n// la batterie continuent de fonctionner, seul le filet de secours disparaît.\n// La question n'est donc pas « combien stocker pour survivre » mais « la\n// batterie traverse-t-elle la prochaine fenêtre de déficit SANS le réseau ».\n//\n// C'est exactement la couverture PRUDENTE (p80) déjà calculée plus haut :\n// rien à inventer, aucune constante de plus. Le profil prudent est le bon\n// choix ici parce qu'une coupure retire précisément la possibilité de\n// rattraper une sous-estimation.\n//\n// Le niveau vient de la vigilance Météo-France, dont l'échelle officielle est\n// vert/jaune/orange/rouge. « Actif » à partir d'orange : c'est le seuil de\n// l'émetteur, pas un nombre choisi ici.\n// ---------------------------------------------------------------------\nconst STORM_SCALE = ['vert', 'jaune', 'orange', 'rouge'];\nconst STORM_ACTIVE_FROM = STORM_SCALE.indexOf('orange');\n\nconst stormRaw = typeof input.storm_alert_level === 'string'\n ? input.storm_alert_level.trim().toLowerCase()\n : '';\nconst stormIndex = STORM_SCALE.indexOf(stormRaw);\nconst stormKnown = stormIndex >= 0;\nconst stormActive = stormIndex >= STORM_ACTIVE_FROM;\n\n// Phénomènes atteignant le niveau d'alerte, s'ils sont exposés en attributs\n// (« Orages », « Vent violent »…). Purement informatif.\nconst stormDetail = (input.storm_alert_detail && typeof input.storm_alert_detail === 'object')\n ? input.storm_alert_detail\n : {};\nconst stormPhenomena = Object.keys(stormDetail)\n .filter(k => typeof stormDetail[k] === 'string'\n && STORM_SCALE.indexOf(stormDetail[k].trim().toLowerCase()) >= STORM_ACTIVE_FROM)\n .sort();\n\n// En surplus, la fenêtre qui compte est la prochaine (la nuit qui vient) ;\n// en déficit, c'est celle qu'on est en train de traverser.\nconst inSurplusNow = prudent.found && prudent.crossingIndex === 0;\nconst stormWindow = (inSurplusNow && nextDeficit.found)\n ? {\n kwh: nextDeficit.energyKwh,\n socPct: nextDeficit.requiredSocAtStartPct,\n startHour: nextDeficit.startHour,\n }\n : {\n kwh: prudent.energyToCoverKwh,\n socPct: prudent.requiredSocPct,\n startHour: null,\n };\nconst stormMarginPct = socPct - stormWindow.socPct;\n\nconst slots = typical.slots;\nconst crossingFound = typical.found;\nconst crossingIndex = typical.crossingIndex;\nconst crossing = crossingFound ? slots[crossingIndex] : null;\nconst deficitSlots = typical.deficitSlots;\n\n// ---------------------------------------------------------------------\n// Marge disponible pour le véhicule : surplus attendu après le croisement,\n// une fois la maison servie. C'est ce qui peut être chargé sans toucher au\n// réseau ni entamer la réserve.\n// ---------------------------------------------------------------------\nconst surplusAfterCrossingKwh = crossingFound\n ? slots.slice(crossingIndex).reduce((sum, s) => sum + Math.max(0, s.netKwh), 0)\n : 0;\n\n// ---------------------------------------------------------------------\n// Confiance : la part du calcul qui repose sur une forme de production minorée\n// (après-midi censuré). Elle ne dégrade PAS la réponse « faut-il du réseau »,\n// qui se joue sur les heures de déficit — celles-ci ne sont jamais censurées,\n// une heure censurée étant par construction une heure de surplus.\n// ---------------------------------------------------------------------\nconst deficitOnWeakShape = deficitSlots.filter(s => s.shapeQuality === 'minoree').length;\nconst confidence = {\n deficitHoursOnWeakShape: deficitOnWeakShape,\n deficitTrustworthy: deficitOnWeakShape === 0,\n surplusTrustworthy: !slots.slice(crossingFound ? crossingIndex : 0)\n .some(s => s.shapeQuality === 'minoree'),\n};\n\nreturn [{\n json: {\n usable: true,\n generatedAt: new Date(num(input.nowMs, Date.now())).toISOString(),\n\n crossing: {\n found: crossingFound,\n hour: crossing ? crossing.hour : null,\n startMs: crossing ? crossing.startMs : null,\n hoursFromNow: crossingFound ? crossingIndex : null,\n },\n\n coverage: {\n // Décision réseau immédiate — remplace input_number.victron_grid_soc_off.\n energyToCoverKwh: round2(typical.energyToCoverKwh),\n requiredSocPct: round1(typical.requiredSocPct),\n currentSocPct: round1(socPct),\n socMarginPct: round1(typical.socMarginPct),\n gridNeeded: typical.gridNeeded,\n gridEnergyNeededKwh: round2(typical.gridEnergyNeededKwh),\n\n // Planification (cible de nuit, dimensionnement) — ne pilote PAS le réseau.\n prudent: {\n energyToCoverKwh: round2(prudent.energyToCoverKwh),\n requiredSocPct: round1(prudent.requiredSocPct),\n socMarginPct: round1(prudent.socMarginPct),\n crossingHour: prudent.found ? prudent.slots[prudent.crossingIndex].hour : null,\n },\n },\n\n // Ce qu'il faudra avoir stocké avant la prochaine traversée déficitaire.\n nextDeficit: nextDeficit.found ? {\n found: true,\n startHour: nextDeficit.startHour,\n hoursFromNow: nextDeficit.hoursFromNow,\n endHour: nextDeficit.endHour,\n complete: nextDeficit.complete,\n energyKwh: round2(nextDeficit.energyKwh),\n requiredSocAtStartPct: round1(nextDeficit.requiredSocAtStartPct),\n surplusBeforeKwh: round2(nextDeficit.surplusBeforeKwh),\n // Franchissable avec le stockage actuel, batterie pleine ?\n feasibleWithCurrentStorage: nextDeficit.requiredSocAtStartPct <= 100,\n // Si non : capacité utile manquante. C'est le chiffre du dimensionnement.\n storageShortfallKwh: energyBetweenSoc(100, nextDeficit.requiredSocAtStartPct),\n reachable: nextDeficit.surplusBeforeKwh >= 0\n && socAfterEnergy(socPct, nextDeficit.surplusBeforeKwh)\n >= nextDeficit.requiredSocAtStartPct,\n } : { found: false, reason: nextDeficit.reason },\n\n vehicle: {\n surplusAvailableKwh: round2(surplusAfterCrossingKwh),\n },\n\n // Réserve à tenir pour traverser SANS réseau la fenêtre de déficit qui\n // compte. Publiée en permanence — elle documente le risque même par temps\n // calme ; `active` dit seulement si la vigilance la rend d'actualité.\n storm: {\n level: stormKnown ? stormRaw : 'indisponible',\n known: stormKnown,\n active: stormActive,\n phenomena: stormPhenomena,\n windowStartHour: stormWindow.startHour,\n reserveKwh: round2(stormWindow.kwh),\n reserveSocPct: round1(stormWindow.socPct),\n socMarginPct: round1(stormMarginPct),\n covered: stormMarginPct >= 0,\n shortfallKwh: stormMarginPct < 0\n ? round2(energyBetweenSoc(socPct, stormWindow.socPct))\n : 0,\n },\n\n confidence,\n slots,\n\n inputs: {\n usableCapacityKwh: round2(usableCapacityKwh),\n socFloorPct: round1(socFloorPct),\n },\n\n cfg: CFG,\n },\n}];\n" } }, { diff --git a/workflows/evcs-surplus-controller-v2.6.json b/workflows/evcs-surplus-controller-v2.6.json index 3dc9b87..3b7fdb2 100644 --- a/workflows/evcs-surplus-controller-v2.6.json +++ b/workflows/evcs-surplus-controller-v2.6.json @@ -94,7 +94,7 @@ }, { "parameters": { - "jsCode": "function num(v, fallback = NaN) {\n const n = Number.parseFloat(v);\n return Number.isFinite(n) ? n : fallback;\n}\n\nfunction low(v) {\n return (v ?? '').toString().trim().toLowerCase();\n}\n\nfunction clamp(v, min, max) {\n return Math.min(Math.max(v, min), max);\n}\n\nfunction round1(v) {\n return Math.round(v * 10) / 10;\n}\n\nfunction round2(v) {\n return Math.round(v * 100) / 100;\n}\n\nfunction to2(n) {\n return String(n).padStart(2, '0');\n}\n\nfunction parseMaybeJson(v) {\n if (typeof v !== 'string') return v;\n try {\n return JSON.parse(v);\n } catch {\n return v;\n }\n}\n\nfunction extractSnapshot(input) {\n if (typeof input === 'string') return parseMaybeJson(input);\n if (input?.data && typeof input.data === 'string') return parseMaybeJson(input.data);\n if (input?.body && typeof input.body === 'string') return parseMaybeJson(input.body);\n if (input?.data && typeof input.data === 'object') return input.data;\n if (input?.body && typeof input.body === 'object') return input.body;\n return input;\n}\n\nfunction parseTimeToMinutes(v, fallback = null) {\n const s = (v ?? '').toString().trim();\n const m = s.match(/^(\\d{1,2}):(\\d{2})(?::(\\d{2}))?$/);\n if (!m) return fallback;\n\n const hh = Number(m[1]);\n const mm = Number(m[2]);\n\n if (!Number.isFinite(hh) || !Number.isFinite(mm)) return fallback;\n return (hh % 24) * 60 + mm;\n}\n\nfunction getParisParts(ms = Date.now()) {\n const fmt = new Intl.DateTimeFormat('fr-FR', {\n timeZone: 'Europe/Paris',\n year: 'numeric',\n month: '2-digit',\n day: '2-digit',\n hour: '2-digit',\n minute: '2-digit',\n second: '2-digit',\n hour12: false,\n });\n\n const parts = Object.fromEntries(\n fmt.formatToParts(new Date(ms))\n .filter(p => p.type !== 'literal')\n .map(p => [p.type, p.value])\n );\n\n const hour = Number(parts.hour) === 24 ? 0 : Number(parts.hour);\n const date = `${parts.year}-${parts.month}-${parts.day}`;\n const stamp = `${date} ${to2(hour)}:${parts.minute}:${parts.second}`;\n\n return {\n year: Number(parts.year),\n month: Number(parts.month),\n day: Number(parts.day),\n hour,\n minute: Number(parts.minute),\n second: Number(parts.second),\n date,\n stamp,\n minNow: hour * 60 + Number(parts.minute),\n };\n}\n\nfunction getTzOffsetMs(utcTs, timeZone = 'Europe/Paris') {\n const dtf = new Intl.DateTimeFormat('en-US', {\n timeZone,\n year: 'numeric',\n month: '2-digit',\n day: '2-digit',\n hour: '2-digit',\n minute: '2-digit',\n second: '2-digit',\n hour12: false,\n });\n\n const parts = Object.fromEntries(\n dtf.formatToParts(new Date(utcTs))\n .filter(p => p.type !== 'literal')\n .map(p => [p.type, p.value])\n );\n\n const asIfUtc = Date.UTC(\n Number(parts.year),\n Number(parts.month) - 1,\n Number(parts.day),\n Number(parts.hour) === 24 ? 0 : Number(parts.hour),\n Number(parts.minute),\n Number(parts.second)\n );\n\n const d = new Date(utcTs);\n const actualUtc = Date.UTC(\n d.getUTCFullYear(),\n d.getUTCMonth(),\n d.getUTCDate(),\n d.getUTCHours(),\n d.getUTCMinutes(),\n d.getUTCSeconds()\n );\n\n return asIfUtc - actualUtc;\n}\n\nfunction parseParisStampToMs(s) {\n const text = (s ?? '').toString().trim();\n const m = text.match(/^(\\d{4})-(\\d{2})-(\\d{2}) (\\d{2}):(\\d{2}):(\\d{2})$/);\n if (!m) return null;\n\n const y = Number(m[1]);\n const mo = Number(m[2]);\n const d = Number(m[3]);\n const h = Number(m[4]);\n const mi = Number(m[5]);\n const se = Number(m[6]);\n\n if (![y, mo, d, h, mi, se].every(Number.isFinite)) return null;\n\n const guessUtc = Date.UTC(y, mo - 1, d, h, mi, se);\n const off1 = getTzOffsetMs(guessUtc, 'Europe/Paris');\n let ts = guessUtc - off1;\n const off2 = getTzOffsetMs(ts, 'Europe/Paris');\n\n if (off2 !== off1) ts = guessUtc - off2;\n return ts;\n}\n\nfunction cleanText(v, fallback = '') {\n const s = (v ?? '').toString().trim();\n const x = s.toLowerCase();\n if (['unknown', 'unavailable', 'none', 'null', 'undefined'].includes(x)) return fallback;\n return s;\n}\n\n// P11 (12/08/2026) : durée de charge EVCS \"1h 49m 53s\" / \"8m 27s\" / \"0s\"\n// → secondes. Repart de 0 à chaque NOUVELLE connexion physique d'un véhicule\n// (débranchement JEEP → branchement VW) → signal de reset du collant \"plein\".\nfunction parseChargingTimeToSec(s) {\n const t = (s ?? '').toString().toLowerCase();\n if (!t) return null;\n let sec = 0;\n let matched = false;\n const h = t.match(/(\\d+)\\s*h/); if (h) { sec += Number(h[1]) * 3600; matched = true; }\n const m = t.match(/(\\d+)\\s*m/); if (m) { sec += Number(m[1]) * 60; matched = true; }\n const s2 = t.match(/(\\d+)\\s*s/); if (s2){ sec += Number(s2[1]); matched = true; }\n return matched ? sec : null;\n}\n\n// Advisor IA : input_text.evcs_advisor_last_run au format \"DD/MM HH:mm\"\n// (pas d'année). On suppose l'année courante ; si le résultat est dans le\n// futur (> 1 jour), c'est un passage d'année → on retire un an.\nfunction parseAdvisorRunToMs(s) {\n const m = (s ?? '').toString().trim().match(/^(\\d{2})\\/(\\d{2}) (\\d{2}):(\\d{2})$/);\n if (!m) return null;\n\n const nowMsLocal = Date.now();\n const year = Number(\n new Intl.DateTimeFormat('fr-FR', { timeZone: 'Europe/Paris', year: 'numeric' })\n .format(new Date(nowMsLocal))\n );\n\n const build = (y) => {\n const guessUtc = Date.UTC(y, Number(m[2]) - 1, Number(m[1]), Number(m[3]), Number(m[4]), 0);\n const off1 = getTzOffsetMs(guessUtc, 'Europe/Paris');\n let ts = guessUtc - off1;\n const off2 = getTzOffsetMs(ts, 'Europe/Paris');\n if (off2 !== off1) ts = guessUtc - off2;\n return ts;\n };\n\n let ts = build(year);\n if (ts - nowMsLocal > 24 * 3600 * 1000) ts = build(year - 1);\n return ts;\n}\n\nfunction finiteOrNull(v) {\n return Number.isFinite(v) ? v : null;\n}\n\nconst raw = $input.first().json;\nconst input = extractSnapshot(raw);\n\nconst nowMs = Date.now();\nconst now = getParisParts(nowMs);\n\nconst CFG = {\n mobileNotifyDomain: 'notify',\n mobileNotifyService: 'mobile_app_iphone_16_de_tt',\n\n // 03/09/2026 — valeur MESUREE (576 paliers de SOC sur 8 jours,\n // tools/mesure-courbe-batterie.mjs) : 0,169 kWh par point au-dessus de 33 %,\n // soit 16,9 kWh. Le 17,5 precedent etait une valeur de plaque.\n // NB : sous 33 % un point ne vaut plus que 0,097 kWh. Cette constante ne sert\n // ici qu'a des ecarts SOC -> cible, tous deux au-dessus du genou. Si un calcul\n // devait un jour traverser le genou, il faut la COURBE (src/energy-balance/\n // BALANCE.js) et non cette constante.\n batteryUsableCapacityKwh: 16.9,\n nominalAcVoltageV: 230,\n evcsDedicatedMaxW: 4900,\n systemReserveW: 300,\n\n vebusDcVoltageSoftFloorV: 49.0,\n vebusDcVoltageHardFloorV: 48.6,\n\n departurePriorityWindowMinutes: 240,\n sampleSeconds: 30,\n\n cloudDebtRecoveryThresholdKwh: 0.05,\n cloudDebtMeaningfulThresholdKwh: 0.01,\n};\n\n// =====================================================\n// PARSED SNAPSHOT\n// =====================================================\nconst parsed = {\n soc: clamp(num(input.soc_percent, 0), 0, 100),\n batteryCurrentA: num(input.battery_current_a, 0),\n\n pvPowerW: Math.max(0, num(input.pv_power_w, 0)),\n\n // MODE DE FONCTIONNEMENT DES CHARGEURS SOLAIRES (03/09/2026)\n // Chaque tracker declare lui-meme s'il est a son point de puissance maximale\n // ('mppt_active' : il donne tout ce qu'il a) ou s'il se retient\n // ('voltage_current_limited', 'off' : il y a de la ressource REFUSEE).\n // Lectures inexploitables (integration muette) => listes vides => les gardes\n // aval retombent sur le comportement anterieur. On ne devine pas un etat.\n ...(() => {\n const modes = String(input.mppt_operation_modes || '')\n .split(',')\n .map(s => s.trim().toLowerCase())\n .filter(s => s !== '' && s !== 'unavailable' && s !== 'unknown');\n const atMaxPower = modes.filter(s => s === 'mppt_active').length;\n return {\n mpptReadableCount: modes.length,\n mpptAtMaxPowerCount: atMaxPower,\n mpptHoldingBackCount: modes.length - atMaxPower,\n };\n })(),\n pvPowerAvg10mW: Math.max(0, num(input.pv_power_10m_avg_w, num(input.pv_power_w, 0))),\n pvTrendW: num(input.pv_trend_w, 0),\n\n houseAcPowerW: Math.max(0, num(input.house_ac_power_w, 0)),\n houseAcPowerPrevW: Math.max(0, num(input.house_ac_power_prev_w, num(input.house_ac_power_w, 0))),\n gridPowerW: num(input.grid_power_w, 0),\n\n gridIsOn: low(input.grid_state || 'off') === 'on',\n acInAvailable: num(input.victron_acin1_available ?? input.ac_in1_available, 0) === 1,\n\n // Consigne de puissance réseau de l'ESS, lue telle qu'elle est appliquée.\n // C'est ELLE qui décide si un contacteur fermé sert à quelque chose : au-dessus\n // du SOC minimal, l'ESS en autoconsommation ne prélève que cette puissance et\n // laisse la batterie porter le reste. Nuit du 01/09 : contacteur fermé,\n // consigne 50 W, batterie à -803 W pour 761 W de maison.\n gridSetpointW: num(input.grid_setpoint_w, NaN),\n gridAvailable:\n (low(input.grid_state || 'off') === 'on') ||\n (num(input.victron_acin1_available ?? input.ac_in1_available, 0) === 1),\n\n // FENETRE D'ETABLISSEMENT (31/08/2026) — age, en secondes, de la derniere\n // transition du reseau. On retient la plus RECENTE des deux sources : la\n // presence physique AC-IN (celle qui declenche reellement le transitoire) et\n // le contacteur (qui peut bouger sans qu'AC-IN suive, disjoncteur ouvert).\n // Horodatage absent ou nul => age tres grand => aucune fenetre, comportement\n // historique. On ne devine jamais une transition qu'on n'a pas observee.\n gridTransitionAgeSec: (() => {\n const ts = Math.max(\n num(input.acin1_last_changed_ts, 0),\n num(input.grid_switch_last_changed_ts, 0)\n );\n if (!(ts > 0)) return Number.POSITIVE_INFINITY;\n return Math.max(0, (nowMs / 1000) - ts);\n })(),\n\n todayRemainingKwh: Math.max(0, num(input.today_remaining_kwh, 0)),\n tomorrowKwh: Math.max(0, num(input.tomorrow_kwh, 0)),\n\n evcsDeviceConnected: low(input.evcs_device_connected || 'off') === 'on',\n evcsVehicleConnected: low(input.evcs_vehicle_connected || 'off') === 'on',\n evcsStatusRaw: cleanText(input.evcs_status_raw),\n evcsModeRaw: [\n input.evcs_mode_sensor,\n input.evcs_mode_fallback,\n input.evcs_mode\n ]\n .map(v => cleanText(v))\n .find(v => v) || 'unknown',\n\n evcsSetCurrentA: num(input.evcs_set_current_a, NaN),\n evcsCommandCurrentA: num(input.evcs_command_current_a, NaN),\n\n // Mesure réelle côté borne\n evcsCurrentA: Math.max(0, num(input.evcs_current_a, 0)),\n evcsCurrentRealA: Math.max(0, num(input.evcs_current_a, 0)),\n\n evcsAcPowerW: Math.max(0, num(input.evcs_ac_power_w, 0)),\n evcsChargingTimeSec: parseChargingTimeToSec(input.evcs_charging_time),\n evcsChargingSwitchOn: low(input.evcs_charging_switch || 'off') === 'on',\n evcsAutoStartSwitchOn: low(input.evcs_auto_start_switch || 'off') === 'on',\n\n controllerEnabled: low(input.controller_enabled || 'off') === 'on',\n notificationsEnabled: low(input.notifications_enabled || 'off') === 'on',\n hardStopEnabledLegacy: low(input.hard_stop_enabled || 'off') === 'on',\n chargePermissionNow: low(input.charge_permission_now || 'off') === 'on',\n controlLatch: low(input.control_latch || 'off') === 'on',\n departurePriorityEnabled: low(input.departure_priority_enabled || 'off') === 'on',\n forecastModeEnabled: low(input.forecast_mode_enabled || 'off') === 'on',\n\n evcsPriorityManualOverride: low(input.evcs_priority_manual_override || 'off') === 'on',\n evcsPriorityManualMode: cleanText(input.evcs_priority_manual_mode || 'normal', 'normal').toLowerCase(),\n evcsPriorityManualReason: cleanText(input.evcs_priority_manual_reason),\n\n vebusOverload: low(input.vebus_overload || 'off') === 'on',\n vebusL1Overload: low(input.vebus_l1_overload || 'off') === 'on',\n vebusLowBattery: low(input.vebus_low_battery || 'off') === 'on',\n vebusL1LowBattery: low(input.vebus_l1_low_battery || 'off') === 'on',\n\n vebusAcOutPowerW: Math.max(0, num(input.vebus_ac_out_l1_power_w, 0)),\n vebusAcOutCurrentA: Math.max(0, num(input.vebus_ac_out_l1_current_a, 0)),\n vebusAcOutVoltageV: num(input.vebus_ac_out_l1_voltage_v, CFG.nominalAcVoltageV),\n\n vebusDcVoltageV: num(input.vebus_dc_voltage_v, NaN),\n vebusDcCurrentA: num(input.vebus_dc_current_a, NaN),\n vebusDcPowerW: num(input.vebus_dc_power_w, NaN),\n\n vebusState: num(input.vebus_state, NaN),\n vebusMainState: num(input.vebus_main_state, NaN),\n};\n\nparsed.evcsModeIsAuto = low(parsed.evcsModeRaw).includes('auto');\n\n// =====================================================\n// PARAMETERS\n// =====================================================\nconst params = {\n userStrategyRaw: input.victron_evcs_strategy || 'auto_solar',\n\n targetCurrentAutoA: clamp(num(input.target_current_auto_a, 6), 0, 32),\n pvStartMinW: Math.max(0, num(input.pv_start_min_w, 1800)),\n pvHoldMinW: Math.max(0, num(input.pv_hold_min_w, 1200)),\n houseAcHeadroomW: Math.max(0, num(input.house_ac_headroom_w, 1200)),\n\n batteryDischargeSoftA: num(input.battery_discharge_soft_a, -5),\n batteryDischargeHardA: num(input.battery_discharge_hard_a, -15),\n batteryReserveUpA: Math.max(0, num(input.battery_reserve_up_a, 8)),\n batteryNeutralBandA: Math.max(0, num(input.battery_neutral_band_a, 3)),\n\n socStartMin: clamp(num(input.soc_start_min, 60), 0, 100),\n socStopMin: clamp(num(input.soc_stop_min, 35), 0, 100),\n\n currentMinA: clamp(num(input.current_min_a, 6), 6, 32),\n currentMaxAutoA: clamp(\n num(input.current_max_auto_a, 16),\n clamp(num(input.current_min_a, 6), 6, 32),\n 32\n ),\n gridCurrentMaxA: clamp(num(input.grid_current_max_a, 20), 6, 32),\n currentStepUpA: clamp(num(input.current_step_up_a, 1), 1, 5),\n currentStepDownA: clamp(num(input.current_step_down_a, 2), 1, 8),\n\n currentChangeCooldownSeconds: Math.max(5, num(input.current_change_cooldown_seconds, 60)),\n minRunMinutes: Math.max(0, num(input.min_run_minutes, 3)),\n minStopMinutes: Math.max(0, num(input.min_stop_minutes, 10)),\n\n requiredEnergyKwh: Math.max(0, num(input.required_energy_kwh, 0)),\n socComfortTarget: clamp(num(input.soc_comfort_target, 85), 0, 100),\n endOfDaySocGuard: clamp(num(input.end_of_day_soc_guard, 85), 0, 100),\n baseLoadRemainingKwh: Math.max(0, num(input.base_load_remaining_kwh, 0)),\n flexibleSafetyMarginKwh: Math.max(0, num(input.flexible_safety_margin_kwh, 0)),\n endOfDaySocTarget: clamp(num(input.end_of_day_soc_target, 85), 0, 100),\n\n acLoadsMaxSafeW: Math.max(0, num(input.ac_loads_max_safe_w, 8500)),\n batteryFullSoc: clamp(num(input.battery_full_soc, 90), 0, 100),\n batteryFullForecastMinKwh: Math.max(0, num(input.battery_full_forecast_min_kwh, 8)),\n forecastCommitSocFloor: clamp(num(input.forecast_commit_soc_floor, 35), 0, 100),\n forecastCommitMinKwh: Math.max(0, num(input.forecast_commit_min_kwh, 25)),\n\n cloudDebtPrevKwh: Math.max(0, num(input.cloud_debt_kwh, 0)),\n cloudDebtMaxKwh: Math.max(0.05, num(input.cloud_debt_max_kwh, 1.2)),\n cloudToleranceMinutes: Math.max(1, num(input.cloud_tolerance_minutes, 20)),\n\n // P9 (09/08/2026) : deux véhicules alternent sur la borne.\n // Le sélecteur input_select.victron_evcs_vehicle choisit l'heure de départ\n // effective : VW = victron_evcs_departure_time (~08:50),\n // JEEP = victron_evcs_departure_time_jeep (~06:30).\n selectedVehicle: cleanText(input.evcs_vehicle, 'VW'),\n departureTimeMin:\n low(input.evcs_vehicle || 'vw') === 'jeep'\n ? parseTimeToMinutes(\n input.departure_time_jeep,\n parseTimeToMinutes(input.departure_time, null)\n )\n : parseTimeToMinutes(input.departure_time, null),\n allowGridDepartureUrgent: low(input.allow_grid_departure_urgent || 'off') === 'on',\n dayStartTimeMin: parseTimeToMinutes(input.day_start_time, 7 * 60 + 30),\n dayStopTimeMin: parseTimeToMinutes(input.day_stop_time, 20 * 60 + 30),\n\n hcNightStartMin: parseTimeToMinutes(input.hc_night_start_time, 23 * 60),\n hcNightStopMin: parseTimeToMinutes(input.hc_night_stop_time, 6 * 60),\n morningStartMin: parseTimeToMinutes(\n input.morning_start_time,\n parseTimeToMinutes(input.day_start_time, 7 * 60 + 30)\n ),\n morningStopMin: parseTimeToMinutes(input.morning_stop_time, 11 * 60),\n hcMiddayStartMin: parseTimeToMinutes(input.hc_midday_start_time, 12 * 60 + 21),\n hcMiddayStopMin: parseTimeToMinutes(input.hc_midday_stop_time, 14 * 60 + 21),\n eveningStartMin: parseTimeToMinutes(input.evening_start_time, 17 * 60),\n eveningStopMin: parseTimeToMinutes(\n input.evening_stop_time,\n parseTimeToMinutes(input.day_stop_time, 20 * 60 + 30)\n ),\n\n allowGridHcNight: low(input.allow_grid_hc_night || 'off') === 'on',\n allowGridHcMidday: low(input.allow_grid_hc_midday || 'off') === 'on',\n\n // Advisor IA — premier câblage réel (09/08/2026, HANDOFF §20) :\n // cible SOC matin recommandée, appliquée UNIQUEMENT si le toggle est ON.\n // Garde-fous consommés dans WINDOWS_SOURCEV2 (statut ok + fraîcheur + bornes).\n advisorApplyNightTarget: low(input.advisor_apply_night_target || 'off') === 'on',\n advisorNightTargetSocPct: num(input.advisor_night_target_soc, NaN),\n advisorStatusOk: cleanText(input.advisor_status).toLowerCase() === 'ok',\n advisorLastRunMs: parseAdvisorRunToMs(cleanText(input.advisor_last_run)),\n\n // BILAN ENERGETIQUE (03/09/2026). Meme format d'horodatage que l'advisor\n // (\"DD/MM HH:mm\"), d'ou la reutilisation du parseur.\n balanceRequiredSocPct: num(input.balance_required_soc, NaN),\n balanceEnergyToCoverKwh: num(input.balance_energy_to_cover_kwh, NaN),\n balanceStatusOk: cleanText(input.balance_status).toLowerCase() === 'ok',\n balanceLastRunMs: parseAdvisorRunToMs(cleanText(input.balance_last_run)),\n\n // Duree de la fenetre d'etablissement. Valeur mesuree le 31/08/2026 : le\n // transitoire de fermeture dure ~150 s (import 1985 -> 25 W et 2600 -> 52 W,\n // deux campagnes), on prend 180 s de marge. Reglable sans redeploiement via\n // input_number.evcs_grid_settle_seconds ; absent => 180.\n gridSettleSeconds: clamp(num(input.grid_settle_seconds, 180), 0, 900),\n\n // Consigne réseau au repos. 50 W est le défaut Victron (légèrement positif\n // pour ne jamais injecter), pas une valeur choisie ici.\n // CONSIGNE DE REPOS : 200 W et non plus 50 (04/09/2026).\n // 50 W etait le defaut Victron. Mesure sur la nuit du 03-04/09, 12 074\n // echantillons du point de raccordement : 17 % sont NEGATIFS, mediane -18 W,\n // excursions jusqu'a -356 W, episodes de 35 s au plus. Ce n'est pas de\n // l'injection — la batterie se dechargeait a 744 W au meme moment — c'est le\n // regulateur qui chasse autour d'une cible trop proche de zero. A 200 W le\n // point de fonctionnement reste positif sur l'essentiel des excursions.\n // ⚠️ Ne supprime pas les pointes les plus fortes : une excursion de -356 W\n // passerait encore sous zero. Reduit leur nombre, ne les annule pas.\n gridSetpointIdleW: clamp(num(input.grid_setpoint_idle_w, 200), 0, 500),\n\n probeEnabled: low(input.probe_enabled || 'off') === 'on',\n probeMinutes: Math.max(1, num(input.probe_minutes, 3)),\n probeRetryMinutes: Math.max(5, num(input.probe_retry_minutes, 45)),\n probeCurrentA: clamp(\n num(input.probe_current_a, clamp(num(input.current_min_a, 10), 6, 32)),\n clamp(num(input.current_min_a, 10), 6, 32),\n clamp(num(input.current_max_auto_a, 16), clamp(num(input.current_min_a, 10), 6, 32), 32)\n ),\n\n gridBatterySoftA: num(input.grid_battery_soft_a, -3),\n gridBatteryHardA: num(input.grid_battery_hard_a, -6),\n\n morningProbePvAvgMinW: Math.max(0, num(input.morning_probe_pv_avg_min_w, 1500)),\n morningProbePvTrendMinW: num(input.morning_probe_pv_trend_min_w, 0),\n middayProbePvAvgMinW: Math.max(0, num(input.midday_probe_pv_avg_min_w, 1200)),\n\n morningSocMin: clamp(num(input.morning_soc_min, 35), 0, 100),\n middaySocMin: clamp(num(input.midday_soc_min, 75), 0, 100),\n eveningSocStartMin: clamp(num(input.evening_soc_start_min, 85), 0, 100),\n eveningSocStopMin: clamp(num(input.evening_soc_stop_min, 80), 0, 100),\n\n morningBatteryMaxDischargeA: num(input.morning_battery_max_discharge_a, -20),\n middayBatteryMaxDischargeA: num(input.midday_battery_max_discharge_a, -40),\n eveningBatteryMaxDischargeA: num(input.evening_battery_max_discharge_a, -30),\n\n // =====================================================\n // EVCS NIGHT ENGINE — NEW PARAMETERS\n // =====================================================\n evcsNightBatteryHardFloorPct: clamp(\n num(input.evcs_night_battery_hard_floor_pct, 22),\n 0,\n 100\n ),\n\n evcsNightStrongForecastKwh: Math.max(\n 0,\n num(input.evcs_night_strong_forecast_kwh, 18)\n ),\n\n evcsNightMediumForecastKwh: Math.max(\n 0,\n num(input.evcs_night_medium_forecast_kwh, 10)\n ),\n\n evcsNightTargetStrongForecastPct: clamp(\n num(input.evcs_night_target_strong_forecast_pct, 35),\n 0,\n 100\n ),\n\n evcsNightTargetMediumForecastPct: clamp(\n num(input.evcs_night_target_medium_forecast_pct, 55),\n 0,\n 100\n ),\n\n evcsNightTargetWeakForecastPct: clamp(\n num(input.evcs_night_target_weak_forecast_pct, 85),\n 0,\n 100\n ),\n\n evcsNightBatteryRecoveryPowerKw: Math.max(\n 0.1,\n num(input.evcs_night_battery_recovery_power_kw, 2.5)\n ),\n\n evcsNightDepartureSafetyMin: Math.max(\n 0,\n num(input.evcs_night_departure_safety_min, 30)\n ),\n};\n\n// =====================================================\n// HISTORY / PERSISTED HELPERS\n// =====================================================\nconst nightSessionStartSocRaw = num(\n input.evcs_night_session_start_soc ?? input.night_session_start_soc,\n NaN\n);\n\nconst nightSessionStartAtRaw = cleanText(\n input.evcs_night_session_start_at ?? input.night_session_start_at\n);\n\n// =====================================================\n// VEHICLE DEMAND FILTER HISTORY RAW INPUTS\n// =====================================================\nconst evcsNoDemandSinceAtRaw = cleanText(input.evcs_no_demand_since_at);\nconst evcsNoDemandFilterEvalAtRaw = cleanText(input.evcs_no_demand_filter_eval_at);\n\nconst history = {\n lastBlockReason: cleanText(input.last_block_reason, 'none') || 'none',\n blockedUntilAt: cleanText(input.blocked_until),\n probeStartedAt: cleanText(input.probe_started_at),\n lastStartAt: cleanText(input.last_start_at),\n lastStopAt: cleanText(input.last_stop_at),\n lastCurrentChangeAt: cleanText(input.last_current_change_at),\n lastSignature: cleanText(input.last_signature),\n cloudDebtStartedAt: cleanText(input.cloud_debt_started_at),\n evcsPriorityManualUntilAt: cleanText(input.evcs_priority_manual_until),\n\n blockedUntilMs: parseParisStampToMs(cleanText(input.blocked_until)),\n probeStartedMs: parseParisStampToMs(cleanText(input.probe_started_at)),\n lastStartMs: parseParisStampToMs(cleanText(input.last_start_at)),\n lastStopMs: parseParisStampToMs(cleanText(input.last_stop_at)),\n lastCurrentChangeMs: parseParisStampToMs(cleanText(input.last_current_change_at)),\n cloudDebtStartedMsPrev: parseParisStampToMs(cleanText(input.cloud_debt_started_at)),\n\n // DEPASSEMENT SOUPLE BATTERIE (01/09/2026) : horodatage du debut du\n // depassement en cours, ecrit par HA_SERVICE_CALLS_OUTPUT. Vide/illisible\n // => null => aucun depassement en cours, comportement de repli sur.\n nightGridSessionCommittedPrev:\n (input.night_grid_session_committed_prev ?? 'off').toString().trim().toLowerCase() === 'on',\n batterySoftBreachAt: cleanText(input.battery_soft_breach_at),\n batterySoftBreachMsPrev: parseParisStampToMs(cleanText(input.battery_soft_breach_at)),\n evcsPriorityManualUntilMs: parseParisStampToMs(cleanText(input.evcs_priority_manual_until)),\n\n // =====================================================\n // EVCS NIGHT SESSION MEMORY\n // =====================================================\n nightSessionStartSocPct: Number.isFinite(nightSessionStartSocRaw)\n ? clamp(nightSessionStartSocRaw, 0, 100)\n : null,\n\n nightSessionStartAt: nightSessionStartAtRaw || '',\n nightSessionStartMs: parseParisStampToMs(nightSessionStartAtRaw),\n\n // =====================================================\n // VEHICLE DEMAND FILTER PERSISTENCE\n // =====================================================\n evcsDeliveryRatioEma: num(input.evcs_delivery_ratio_ema, NaN),\n evcsDeliveryNoiseEma: num(input.evcs_delivery_noise_ema, NaN),\n evcsNoDemandScoreEma: num(input.evcs_no_demand_score_ema, NaN),\n evcsNoDemandSemanticActive: low(input.evcs_no_demand_semantic_active || 'off') === 'on',\n\n evcsNoDemandSinceAt: evcsNoDemandSinceAtRaw || '',\n evcsNoDemandSinceMs: parseParisStampToMs(evcsNoDemandSinceAtRaw),\n\n evcsNoDemandFilterEvalAt: evcsNoDemandFilterEvalAtRaw || '',\n evcsNoDemandFilterEvalMs: parseParisStampToMs(evcsNoDemandFilterEvalAtRaw),\n};\n\n// =====================================================\n// BATTERY TUNING\n// =====================================================\nconst batteryTune = {\n global: {\n houseSpikeGraceMinutes: Math.max(0, num(input.house_spike_grace_minutes, 10)),\n solarPotentialGraceMinutes: Math.max(0, num(input.solar_potential_grace_minutes, 12)),\n stepUpCooldownSeconds: Math.max(5, num(input.step_up_cooldown_seconds, params.currentChangeCooldownSeconds)),\n stepDownCooldownSeconds: Math.max(5, num(input.step_down_cooldown_seconds, params.currentChangeCooldownSeconds)),\n forceModeAutoRevertMinutes: Math.max(0, num(input.force_mode_auto_revert_minutes, 120)),\n overloadStepDownA: Math.max(1, num(input.overload_step_down_a, 2)),\n overloadHoldSeconds: Math.max(5, num(input.overload_hold_seconds, 30)),\n overloadStopAfterSeconds: Math.max(10, num(input.overload_stop_after_seconds, 120)),\n },\n\n bands: {\n gt90: {\n dischargeSoftA: num(input.batt_discharge_soft_gt90_a, -50),\n dischargeHardA: num(input.batt_discharge_hard_gt90_a, -100),\n chargeReserveA: Math.max(0, num(input.batt_charge_reserve_gt90_a, 5)),\n softToleranceMin: Math.max(0, num(input.batt_soft_tol_gt90_min, 12)),\n hardToleranceSec: Math.max(0, num(input.batt_hard_tol_gt90_sec, 20)),\n recoveryMin: Math.max(0, num(input.batt_recovery_gt90_min, 6)),\n },\n\n '80_90': {\n dischargeSoftA: num(input.batt_discharge_soft_80_90_a, -40),\n dischargeHardA: num(input.batt_discharge_hard_80_90_a, -80),\n chargeReserveA: Math.max(0, num(input.batt_charge_reserve_80_90_a, 10)),\n softToleranceMin: Math.max(0, num(input.batt_soft_tol_80_90_min, 10)),\n hardToleranceSec: Math.max(0, num(input.batt_hard_tol_80_90_sec, 20)),\n recoveryMin: Math.max(0, num(input.batt_recovery_80_90_min, 6)),\n },\n\n '60_80': {\n dischargeSoftA: num(input.batt_discharge_soft_60_80_a, -20),\n dischargeHardA: num(input.batt_discharge_hard_60_80_a, -50),\n chargeReserveA: Math.max(0, num(input.batt_charge_reserve_60_80_a, 40)),\n softToleranceMin: Math.max(0, num(input.batt_soft_tol_60_80_min, 6)),\n hardToleranceSec: Math.max(0, num(input.batt_hard_tol_60_80_sec, 15)),\n recoveryMin: Math.max(0, num(input.batt_recovery_60_80_min, 8)),\n },\n\n '40_60': {\n dischargeSoftA: num(input.batt_discharge_soft_40_60_a, -12),\n dischargeHardA: num(input.batt_discharge_hard_40_60_a, -30),\n chargeReserveA: Math.max(0, num(input.batt_charge_reserve_40_60_a, 70)),\n softToleranceMin: Math.max(0, num(input.batt_soft_tol_40_60_min, 4)),\n hardToleranceSec: Math.max(0, num(input.batt_hard_tol_40_60_sec, 10)),\n recoveryMin: Math.max(0, num(input.batt_recovery_40_60_min, 10)),\n },\n\n '25_40': {\n dischargeSoftA: num(input.batt_discharge_soft_25_40_a, -5),\n dischargeHardA: num(input.batt_discharge_hard_25_40_a, -15),\n chargeReserveA: Math.max(0, num(input.batt_charge_reserve_25_40_a, 110)),\n softToleranceMin: Math.max(0, num(input.batt_soft_tol_25_40_min, 2)),\n hardToleranceSec: Math.max(0, num(input.batt_hard_tol_25_40_sec, 5)),\n recoveryMin: Math.max(0, num(input.batt_recovery_25_40_min, 12)),\n },\n\n lt25: {\n dischargeSoftA: num(input.batt_discharge_soft_lt25_a, -3),\n dischargeHardA: num(input.batt_discharge_hard_lt25_a, -8),\n chargeReserveA: Math.max(0, num(input.batt_charge_reserve_lt25_a, 150)),\n softToleranceMin: Math.max(0, num(input.batt_soft_tol_lt25_min, 1)),\n hardToleranceSec: Math.max(0, num(input.batt_hard_tol_lt25_sec, 2)),\n recoveryMin: Math.max(0, num(input.batt_recovery_lt25_min, 15)),\n },\n },\n};\n\n// =====================================================\n// OPTIONAL DEBUG / SUMMARY\n// =====================================================\nconst evcsNightConfig = {\n batteryHardFloorPct: params.evcsNightBatteryHardFloorPct,\n strongForecastKwh: params.evcsNightStrongForecastKwh,\n mediumForecastKwh: params.evcsNightMediumForecastKwh,\n targetStrongForecastPct: params.evcsNightTargetStrongForecastPct,\n targetMediumForecastPct: params.evcsNightTargetMediumForecastPct,\n targetWeakForecastPct: params.evcsNightTargetWeakForecastPct,\n batteryRecoveryPowerKw: params.evcsNightBatteryRecoveryPowerKw,\n departureSafetyMin: params.evcsNightDepartureSafetyMin,\n sessionStartSocPct: history.nightSessionStartSocPct,\n sessionStartAt: history.nightSessionStartAt || null,\n};\n\nconst vehicleDemandHistoryDebug = {\n evcsDeliveryRatioEma: finiteOrNull(history.evcsDeliveryRatioEma),\n evcsDeliveryNoiseEma: finiteOrNull(history.evcsDeliveryNoiseEma),\n evcsNoDemandScoreEma: finiteOrNull(history.evcsNoDemandScoreEma),\n evcsNoDemandSemanticActive: history.evcsNoDemandSemanticActive,\n evcsNoDemandSinceAt: history.evcsNoDemandSinceAt || null,\n evcsNoDemandSinceMs: finiteOrNull(history.evcsNoDemandSinceMs),\n evcsNoDemandFilterEvalAt: history.evcsNoDemandFilterEvalAt || null,\n evcsNoDemandFilterEvalMs: finiteOrNull(history.evcsNoDemandFilterEvalMs),\n};\n\n// =====================================================\n// OUTPUT\n// =====================================================\nreturn [{\n json: {\n raw,\n input,\n nowMs,\n now,\n cfg: CFG,\n parsed,\n params,\n history,\n batteryTune,\n evcsNightConfig,\n vehicleDemandHistoryDebug,\n }\n}];\n" + "jsCode": "function num(v, fallback = NaN) {\n const n = Number.parseFloat(v);\n return Number.isFinite(n) ? n : fallback;\n}\n\nfunction low(v) {\n return (v ?? '').toString().trim().toLowerCase();\n}\n\nfunction clamp(v, min, max) {\n return Math.min(Math.max(v, min), max);\n}\n\nfunction round1(v) {\n return Math.round(v * 10) / 10;\n}\n\nfunction round2(v) {\n return Math.round(v * 100) / 100;\n}\n\nfunction to2(n) {\n return String(n).padStart(2, '0');\n}\n\nfunction parseMaybeJson(v) {\n if (typeof v !== 'string') return v;\n try {\n return JSON.parse(v);\n } catch {\n return v;\n }\n}\n\nfunction extractSnapshot(input) {\n if (typeof input === 'string') return parseMaybeJson(input);\n if (input?.data && typeof input.data === 'string') return parseMaybeJson(input.data);\n if (input?.body && typeof input.body === 'string') return parseMaybeJson(input.body);\n if (input?.data && typeof input.data === 'object') return input.data;\n if (input?.body && typeof input.body === 'object') return input.body;\n return input;\n}\n\nfunction parseTimeToMinutes(v, fallback = null) {\n const s = (v ?? '').toString().trim();\n const m = s.match(/^(\\d{1,2}):(\\d{2})(?::(\\d{2}))?$/);\n if (!m) return fallback;\n\n const hh = Number(m[1]);\n const mm = Number(m[2]);\n\n if (!Number.isFinite(hh) || !Number.isFinite(mm)) return fallback;\n return (hh % 24) * 60 + mm;\n}\n\nfunction getParisParts(ms = Date.now()) {\n const fmt = new Intl.DateTimeFormat('fr-FR', {\n timeZone: 'Europe/Paris',\n year: 'numeric',\n month: '2-digit',\n day: '2-digit',\n hour: '2-digit',\n minute: '2-digit',\n second: '2-digit',\n hour12: false,\n });\n\n const parts = Object.fromEntries(\n fmt.formatToParts(new Date(ms))\n .filter(p => p.type !== 'literal')\n .map(p => [p.type, p.value])\n );\n\n const hour = Number(parts.hour) === 24 ? 0 : Number(parts.hour);\n const date = `${parts.year}-${parts.month}-${parts.day}`;\n const stamp = `${date} ${to2(hour)}:${parts.minute}:${parts.second}`;\n\n return {\n year: Number(parts.year),\n month: Number(parts.month),\n day: Number(parts.day),\n hour,\n minute: Number(parts.minute),\n second: Number(parts.second),\n date,\n stamp,\n minNow: hour * 60 + Number(parts.minute),\n };\n}\n\nfunction getTzOffsetMs(utcTs, timeZone = 'Europe/Paris') {\n const dtf = new Intl.DateTimeFormat('en-US', {\n timeZone,\n year: 'numeric',\n month: '2-digit',\n day: '2-digit',\n hour: '2-digit',\n minute: '2-digit',\n second: '2-digit',\n hour12: false,\n });\n\n const parts = Object.fromEntries(\n dtf.formatToParts(new Date(utcTs))\n .filter(p => p.type !== 'literal')\n .map(p => [p.type, p.value])\n );\n\n const asIfUtc = Date.UTC(\n Number(parts.year),\n Number(parts.month) - 1,\n Number(parts.day),\n Number(parts.hour) === 24 ? 0 : Number(parts.hour),\n Number(parts.minute),\n Number(parts.second)\n );\n\n const d = new Date(utcTs);\n const actualUtc = Date.UTC(\n d.getUTCFullYear(),\n d.getUTCMonth(),\n d.getUTCDate(),\n d.getUTCHours(),\n d.getUTCMinutes(),\n d.getUTCSeconds()\n );\n\n return asIfUtc - actualUtc;\n}\n\nfunction parseParisStampToMs(s) {\n const text = (s ?? '').toString().trim();\n const m = text.match(/^(\\d{4})-(\\d{2})-(\\d{2}) (\\d{2}):(\\d{2}):(\\d{2})$/);\n if (!m) return null;\n\n const y = Number(m[1]);\n const mo = Number(m[2]);\n const d = Number(m[3]);\n const h = Number(m[4]);\n const mi = Number(m[5]);\n const se = Number(m[6]);\n\n if (![y, mo, d, h, mi, se].every(Number.isFinite)) return null;\n\n const guessUtc = Date.UTC(y, mo - 1, d, h, mi, se);\n const off1 = getTzOffsetMs(guessUtc, 'Europe/Paris');\n let ts = guessUtc - off1;\n const off2 = getTzOffsetMs(ts, 'Europe/Paris');\n\n if (off2 !== off1) ts = guessUtc - off2;\n return ts;\n}\n\nfunction cleanText(v, fallback = '') {\n const s = (v ?? '').toString().trim();\n const x = s.toLowerCase();\n if (['unknown', 'unavailable', 'none', 'null', 'undefined'].includes(x)) return fallback;\n return s;\n}\n\n// P11 (12/08/2026) : durée de charge EVCS \"1h 49m 53s\" / \"8m 27s\" / \"0s\"\n// → secondes. Repart de 0 à chaque NOUVELLE connexion physique d'un véhicule\n// (débranchement JEEP → branchement VW) → signal de reset du collant \"plein\".\nfunction parseChargingTimeToSec(s) {\n const t = (s ?? '').toString().toLowerCase();\n if (!t) return null;\n let sec = 0;\n let matched = false;\n const h = t.match(/(\\d+)\\s*h/); if (h) { sec += Number(h[1]) * 3600; matched = true; }\n const m = t.match(/(\\d+)\\s*m/); if (m) { sec += Number(m[1]) * 60; matched = true; }\n const s2 = t.match(/(\\d+)\\s*s/); if (s2){ sec += Number(s2[1]); matched = true; }\n return matched ? sec : null;\n}\n\n// Advisor IA : input_text.evcs_advisor_last_run au format \"DD/MM HH:mm\"\n// (pas d'année). On suppose l'année courante ; si le résultat est dans le\n// futur (> 1 jour), c'est un passage d'année → on retire un an.\nfunction parseAdvisorRunToMs(s) {\n const m = (s ?? '').toString().trim().match(/^(\\d{2})\\/(\\d{2}) (\\d{2}):(\\d{2})$/);\n if (!m) return null;\n\n const nowMsLocal = Date.now();\n const year = Number(\n new Intl.DateTimeFormat('fr-FR', { timeZone: 'Europe/Paris', year: 'numeric' })\n .format(new Date(nowMsLocal))\n );\n\n const build = (y) => {\n const guessUtc = Date.UTC(y, Number(m[2]) - 1, Number(m[1]), Number(m[3]), Number(m[4]), 0);\n const off1 = getTzOffsetMs(guessUtc, 'Europe/Paris');\n let ts = guessUtc - off1;\n const off2 = getTzOffsetMs(ts, 'Europe/Paris');\n if (off2 !== off1) ts = guessUtc - off2;\n return ts;\n };\n\n let ts = build(year);\n if (ts - nowMsLocal > 24 * 3600 * 1000) ts = build(year - 1);\n return ts;\n}\n\nfunction finiteOrNull(v) {\n return Number.isFinite(v) ? v : null;\n}\n\nconst raw = $input.first().json;\nconst input = extractSnapshot(raw);\n\nconst nowMs = Date.now();\nconst now = getParisParts(nowMs);\n\nconst CFG = {\n mobileNotifyDomain: 'notify',\n mobileNotifyService: 'mobile_app_iphone_16_de_tt',\n\n // 03/09/2026 — valeur MESUREE (576 paliers de SOC sur 8 jours,\n // tools/mesure-courbe-batterie.mjs) : 0,169 kWh par point au-dessus de 33 %,\n // soit 16,9 kWh. Le 17,5 precedent etait une valeur de plaque.\n // NB : sous 33 % un point ne vaut plus que 0,097 kWh. Cette constante ne sert\n // ici qu'a des ecarts SOC -> cible, tous deux au-dessus du genou. Si un calcul\n // devait un jour traverser le genou, il faut la COURBE (src/energy-balance/\n // BALANCE.js) et non cette constante.\n // 16,9 kWh mesures sur SEPT modules (§41), soit 2,414 kWh par module. Le parc\n // ayant change deux fois en une semaine, le nombre de modules se LIT au lieu\n // d'etre code : `input_number.evcs_balance_modules_en_service`, le meme helper\n // que le bilan energetique — les deux decrivent forcement le meme parc.\n // Absent ou illisible => 7, donc aucun changement tant que personne ne l'ecrit.\n batteryUsableCapacityKwh: 2.414 * (() => {\n const n = Number(input.modules_en_service);\n return Number.isFinite(n) && n >= 1 && n <= 16 ? n : 7;\n })(),\n nominalAcVoltageV: 230,\n evcsDedicatedMaxW: 4900,\n systemReserveW: 300,\n\n vebusDcVoltageSoftFloorV: 49.0,\n vebusDcVoltageHardFloorV: 48.6,\n\n departurePriorityWindowMinutes: 240,\n sampleSeconds: 30,\n\n cloudDebtRecoveryThresholdKwh: 0.05,\n cloudDebtMeaningfulThresholdKwh: 0.01,\n};\n\n// =====================================================\n// PARSED SNAPSHOT\n// =====================================================\nconst parsed = {\n soc: clamp(num(input.soc_percent, 0), 0, 100),\n batteryCurrentA: num(input.battery_current_a, 0),\n\n pvPowerW: Math.max(0, num(input.pv_power_w, 0)),\n\n // MODE DE FONCTIONNEMENT DES CHARGEURS SOLAIRES (03/09/2026)\n // Chaque tracker declare lui-meme s'il est a son point de puissance maximale\n // ('mppt_active' : il donne tout ce qu'il a) ou s'il se retient\n // ('voltage_current_limited', 'off' : il y a de la ressource REFUSEE).\n // Lectures inexploitables (integration muette) => listes vides => les gardes\n // aval retombent sur le comportement anterieur. On ne devine pas un etat.\n ...(() => {\n const modes = String(input.mppt_operation_modes || '')\n .split(',')\n .map(s => s.trim().toLowerCase())\n .filter(s => s !== '' && s !== 'unavailable' && s !== 'unknown');\n const atMaxPower = modes.filter(s => s === 'mppt_active').length;\n return {\n mpptReadableCount: modes.length,\n mpptAtMaxPowerCount: atMaxPower,\n mpptHoldingBackCount: modes.length - atMaxPower,\n };\n })(),\n pvPowerAvg10mW: Math.max(0, num(input.pv_power_10m_avg_w, num(input.pv_power_w, 0))),\n pvTrendW: num(input.pv_trend_w, 0),\n\n houseAcPowerW: Math.max(0, num(input.house_ac_power_w, 0)),\n houseAcPowerPrevW: Math.max(0, num(input.house_ac_power_prev_w, num(input.house_ac_power_w, 0))),\n gridPowerW: num(input.grid_power_w, 0),\n\n gridIsOn: low(input.grid_state || 'off') === 'on',\n acInAvailable: num(input.victron_acin1_available ?? input.ac_in1_available, 0) === 1,\n\n // Consigne de puissance réseau de l'ESS, lue telle qu'elle est appliquée.\n // C'est ELLE qui décide si un contacteur fermé sert à quelque chose : au-dessus\n // du SOC minimal, l'ESS en autoconsommation ne prélève que cette puissance et\n // laisse la batterie porter le reste. Nuit du 01/09 : contacteur fermé,\n // consigne 50 W, batterie à -803 W pour 761 W de maison.\n gridSetpointW: num(input.grid_setpoint_w, NaN),\n gridAvailable:\n (low(input.grid_state || 'off') === 'on') ||\n (num(input.victron_acin1_available ?? input.ac_in1_available, 0) === 1),\n\n // FENETRE D'ETABLISSEMENT (31/08/2026) — age, en secondes, de la derniere\n // transition du reseau. On retient la plus RECENTE des deux sources : la\n // presence physique AC-IN (celle qui declenche reellement le transitoire) et\n // le contacteur (qui peut bouger sans qu'AC-IN suive, disjoncteur ouvert).\n // Horodatage absent ou nul => age tres grand => aucune fenetre, comportement\n // historique. On ne devine jamais une transition qu'on n'a pas observee.\n gridTransitionAgeSec: (() => {\n const ts = Math.max(\n num(input.acin1_last_changed_ts, 0),\n num(input.grid_switch_last_changed_ts, 0)\n );\n if (!(ts > 0)) return Number.POSITIVE_INFINITY;\n return Math.max(0, (nowMs / 1000) - ts);\n })(),\n\n todayRemainingKwh: Math.max(0, num(input.today_remaining_kwh, 0)),\n tomorrowKwh: Math.max(0, num(input.tomorrow_kwh, 0)),\n\n evcsDeviceConnected: low(input.evcs_device_connected || 'off') === 'on',\n evcsVehicleConnected: low(input.evcs_vehicle_connected || 'off') === 'on',\n evcsStatusRaw: cleanText(input.evcs_status_raw),\n evcsModeRaw: [\n input.evcs_mode_sensor,\n input.evcs_mode_fallback,\n input.evcs_mode\n ]\n .map(v => cleanText(v))\n .find(v => v) || 'unknown',\n\n evcsSetCurrentA: num(input.evcs_set_current_a, NaN),\n evcsCommandCurrentA: num(input.evcs_command_current_a, NaN),\n\n // Mesure réelle côté borne\n evcsCurrentA: Math.max(0, num(input.evcs_current_a, 0)),\n evcsCurrentRealA: Math.max(0, num(input.evcs_current_a, 0)),\n\n evcsAcPowerW: Math.max(0, num(input.evcs_ac_power_w, 0)),\n evcsChargingTimeSec: parseChargingTimeToSec(input.evcs_charging_time),\n evcsChargingSwitchOn: low(input.evcs_charging_switch || 'off') === 'on',\n evcsAutoStartSwitchOn: low(input.evcs_auto_start_switch || 'off') === 'on',\n\n controllerEnabled: low(input.controller_enabled || 'off') === 'on',\n notificationsEnabled: low(input.notifications_enabled || 'off') === 'on',\n hardStopEnabledLegacy: low(input.hard_stop_enabled || 'off') === 'on',\n chargePermissionNow: low(input.charge_permission_now || 'off') === 'on',\n controlLatch: low(input.control_latch || 'off') === 'on',\n departurePriorityEnabled: low(input.departure_priority_enabled || 'off') === 'on',\n forecastModeEnabled: low(input.forecast_mode_enabled || 'off') === 'on',\n\n evcsPriorityManualOverride: low(input.evcs_priority_manual_override || 'off') === 'on',\n evcsPriorityManualMode: cleanText(input.evcs_priority_manual_mode || 'normal', 'normal').toLowerCase(),\n evcsPriorityManualReason: cleanText(input.evcs_priority_manual_reason),\n\n vebusOverload: low(input.vebus_overload || 'off') === 'on',\n vebusL1Overload: low(input.vebus_l1_overload || 'off') === 'on',\n vebusLowBattery: low(input.vebus_low_battery || 'off') === 'on',\n vebusL1LowBattery: low(input.vebus_l1_low_battery || 'off') === 'on',\n\n vebusAcOutPowerW: Math.max(0, num(input.vebus_ac_out_l1_power_w, 0)),\n vebusAcOutCurrentA: Math.max(0, num(input.vebus_ac_out_l1_current_a, 0)),\n vebusAcOutVoltageV: num(input.vebus_ac_out_l1_voltage_v, CFG.nominalAcVoltageV),\n\n vebusDcVoltageV: num(input.vebus_dc_voltage_v, NaN),\n vebusDcCurrentA: num(input.vebus_dc_current_a, NaN),\n vebusDcPowerW: num(input.vebus_dc_power_w, NaN),\n\n vebusState: num(input.vebus_state, NaN),\n vebusMainState: num(input.vebus_main_state, NaN),\n};\n\nparsed.evcsModeIsAuto = low(parsed.evcsModeRaw).includes('auto');\n\n// =====================================================\n// PARAMETERS\n// =====================================================\nconst params = {\n userStrategyRaw: input.victron_evcs_strategy || 'auto_solar',\n\n targetCurrentAutoA: clamp(num(input.target_current_auto_a, 6), 0, 32),\n pvStartMinW: Math.max(0, num(input.pv_start_min_w, 1800)),\n pvHoldMinW: Math.max(0, num(input.pv_hold_min_w, 1200)),\n houseAcHeadroomW: Math.max(0, num(input.house_ac_headroom_w, 1200)),\n\n batteryDischargeSoftA: num(input.battery_discharge_soft_a, -5),\n batteryDischargeHardA: num(input.battery_discharge_hard_a, -15),\n batteryReserveUpA: Math.max(0, num(input.battery_reserve_up_a, 8)),\n batteryNeutralBandA: Math.max(0, num(input.battery_neutral_band_a, 3)),\n\n socStartMin: clamp(num(input.soc_start_min, 60), 0, 100),\n socStopMin: clamp(num(input.soc_stop_min, 35), 0, 100),\n\n currentMinA: clamp(num(input.current_min_a, 6), 6, 32),\n currentMaxAutoA: clamp(\n num(input.current_max_auto_a, 16),\n clamp(num(input.current_min_a, 6), 6, 32),\n 32\n ),\n gridCurrentMaxA: clamp(num(input.grid_current_max_a, 20), 6, 32),\n currentStepUpA: clamp(num(input.current_step_up_a, 1), 1, 5),\n currentStepDownA: clamp(num(input.current_step_down_a, 2), 1, 8),\n\n currentChangeCooldownSeconds: Math.max(5, num(input.current_change_cooldown_seconds, 60)),\n minRunMinutes: Math.max(0, num(input.min_run_minutes, 3)),\n minStopMinutes: Math.max(0, num(input.min_stop_minutes, 10)),\n\n requiredEnergyKwh: Math.max(0, num(input.required_energy_kwh, 0)),\n socComfortTarget: clamp(num(input.soc_comfort_target, 85), 0, 100),\n endOfDaySocGuard: clamp(num(input.end_of_day_soc_guard, 85), 0, 100),\n baseLoadRemainingKwh: Math.max(0, num(input.base_load_remaining_kwh, 0)),\n flexibleSafetyMarginKwh: Math.max(0, num(input.flexible_safety_margin_kwh, 0)),\n endOfDaySocTarget: clamp(num(input.end_of_day_soc_target, 85), 0, 100),\n\n acLoadsMaxSafeW: Math.max(0, num(input.ac_loads_max_safe_w, 8500)),\n batteryFullSoc: clamp(num(input.battery_full_soc, 90), 0, 100),\n batteryFullForecastMinKwh: Math.max(0, num(input.battery_full_forecast_min_kwh, 8)),\n forecastCommitSocFloor: clamp(num(input.forecast_commit_soc_floor, 35), 0, 100),\n forecastCommitMinKwh: Math.max(0, num(input.forecast_commit_min_kwh, 25)),\n\n cloudDebtPrevKwh: Math.max(0, num(input.cloud_debt_kwh, 0)),\n cloudDebtMaxKwh: Math.max(0.05, num(input.cloud_debt_max_kwh, 1.2)),\n cloudToleranceMinutes: Math.max(1, num(input.cloud_tolerance_minutes, 20)),\n\n // P9 (09/08/2026) : deux véhicules alternent sur la borne.\n // Le sélecteur input_select.victron_evcs_vehicle choisit l'heure de départ\n // effective : VW = victron_evcs_departure_time (~08:50),\n // JEEP = victron_evcs_departure_time_jeep (~06:30).\n selectedVehicle: cleanText(input.evcs_vehicle, 'VW'),\n departureTimeMin:\n low(input.evcs_vehicle || 'vw') === 'jeep'\n ? parseTimeToMinutes(\n input.departure_time_jeep,\n parseTimeToMinutes(input.departure_time, null)\n )\n : parseTimeToMinutes(input.departure_time, null),\n allowGridDepartureUrgent: low(input.allow_grid_departure_urgent || 'off') === 'on',\n dayStartTimeMin: parseTimeToMinutes(input.day_start_time, 7 * 60 + 30),\n dayStopTimeMin: parseTimeToMinutes(input.day_stop_time, 20 * 60 + 30),\n\n hcNightStartMin: parseTimeToMinutes(input.hc_night_start_time, 23 * 60),\n hcNightStopMin: parseTimeToMinutes(input.hc_night_stop_time, 6 * 60),\n morningStartMin: parseTimeToMinutes(\n input.morning_start_time,\n parseTimeToMinutes(input.day_start_time, 7 * 60 + 30)\n ),\n morningStopMin: parseTimeToMinutes(input.morning_stop_time, 11 * 60),\n hcMiddayStartMin: parseTimeToMinutes(input.hc_midday_start_time, 12 * 60 + 21),\n hcMiddayStopMin: parseTimeToMinutes(input.hc_midday_stop_time, 14 * 60 + 21),\n eveningStartMin: parseTimeToMinutes(input.evening_start_time, 17 * 60),\n eveningStopMin: parseTimeToMinutes(\n input.evening_stop_time,\n parseTimeToMinutes(input.day_stop_time, 20 * 60 + 30)\n ),\n\n allowGridHcNight: low(input.allow_grid_hc_night || 'off') === 'on',\n allowGridHcMidday: low(input.allow_grid_hc_midday || 'off') === 'on',\n\n // Advisor IA — premier câblage réel (09/08/2026, HANDOFF §20) :\n // cible SOC matin recommandée, appliquée UNIQUEMENT si le toggle est ON.\n // Garde-fous consommés dans WINDOWS_SOURCEV2 (statut ok + fraîcheur + bornes).\n advisorApplyNightTarget: low(input.advisor_apply_night_target || 'off') === 'on',\n advisorNightTargetSocPct: num(input.advisor_night_target_soc, NaN),\n advisorStatusOk: cleanText(input.advisor_status).toLowerCase() === 'ok',\n advisorLastRunMs: parseAdvisorRunToMs(cleanText(input.advisor_last_run)),\n\n // BILAN ENERGETIQUE (03/09/2026). Meme format d'horodatage que l'advisor\n // (\"DD/MM HH:mm\"), d'ou la reutilisation du parseur.\n balanceRequiredSocPct: num(input.balance_required_soc, NaN),\n balanceEnergyToCoverKwh: num(input.balance_energy_to_cover_kwh, NaN),\n balanceStatusOk: cleanText(input.balance_status).toLowerCase() === 'ok',\n balanceLastRunMs: parseAdvisorRunToMs(cleanText(input.balance_last_run)),\n\n // Duree de la fenetre d'etablissement. Valeur mesuree le 31/08/2026 : le\n // transitoire de fermeture dure ~150 s (import 1985 -> 25 W et 2600 -> 52 W,\n // deux campagnes), on prend 180 s de marge. Reglable sans redeploiement via\n // input_number.evcs_grid_settle_seconds ; absent => 180.\n gridSettleSeconds: clamp(num(input.grid_settle_seconds, 180), 0, 900),\n\n // Consigne réseau au repos. 50 W est le défaut Victron (légèrement positif\n // pour ne jamais injecter), pas une valeur choisie ici.\n // CONSIGNE DE REPOS : 200 W et non plus 50 (04/09/2026).\n // 50 W etait le defaut Victron. Mesure sur la nuit du 03-04/09, 12 074\n // echantillons du point de raccordement : 17 % sont NEGATIFS, mediane -18 W,\n // excursions jusqu'a -356 W, episodes de 35 s au plus. Ce n'est pas de\n // l'injection — la batterie se dechargeait a 744 W au meme moment — c'est le\n // regulateur qui chasse autour d'une cible trop proche de zero. A 200 W le\n // point de fonctionnement reste positif sur l'essentiel des excursions.\n // ⚠️ Ne supprime pas les pointes les plus fortes : une excursion de -356 W\n // passerait encore sous zero. Reduit leur nombre, ne les annule pas.\n gridSetpointIdleW: clamp(num(input.grid_setpoint_idle_w, 200), 0, 500),\n\n probeEnabled: low(input.probe_enabled || 'off') === 'on',\n probeMinutes: Math.max(1, num(input.probe_minutes, 3)),\n probeRetryMinutes: Math.max(5, num(input.probe_retry_minutes, 45)),\n probeCurrentA: clamp(\n num(input.probe_current_a, clamp(num(input.current_min_a, 10), 6, 32)),\n clamp(num(input.current_min_a, 10), 6, 32),\n clamp(num(input.current_max_auto_a, 16), clamp(num(input.current_min_a, 10), 6, 32), 32)\n ),\n\n gridBatterySoftA: num(input.grid_battery_soft_a, -3),\n gridBatteryHardA: num(input.grid_battery_hard_a, -6),\n\n morningProbePvAvgMinW: Math.max(0, num(input.morning_probe_pv_avg_min_w, 1500)),\n morningProbePvTrendMinW: num(input.morning_probe_pv_trend_min_w, 0),\n middayProbePvAvgMinW: Math.max(0, num(input.midday_probe_pv_avg_min_w, 1200)),\n\n morningSocMin: clamp(num(input.morning_soc_min, 35), 0, 100),\n middaySocMin: clamp(num(input.midday_soc_min, 75), 0, 100),\n eveningSocStartMin: clamp(num(input.evening_soc_start_min, 85), 0, 100),\n eveningSocStopMin: clamp(num(input.evening_soc_stop_min, 80), 0, 100),\n\n morningBatteryMaxDischargeA: num(input.morning_battery_max_discharge_a, -20),\n middayBatteryMaxDischargeA: num(input.midday_battery_max_discharge_a, -40),\n eveningBatteryMaxDischargeA: num(input.evening_battery_max_discharge_a, -30),\n\n // =====================================================\n // EVCS NIGHT ENGINE — NEW PARAMETERS\n // =====================================================\n evcsNightBatteryHardFloorPct: clamp(\n num(input.evcs_night_battery_hard_floor_pct, 22),\n 0,\n 100\n ),\n\n evcsNightStrongForecastKwh: Math.max(\n 0,\n num(input.evcs_night_strong_forecast_kwh, 18)\n ),\n\n evcsNightMediumForecastKwh: Math.max(\n 0,\n num(input.evcs_night_medium_forecast_kwh, 10)\n ),\n\n evcsNightTargetStrongForecastPct: clamp(\n num(input.evcs_night_target_strong_forecast_pct, 35),\n 0,\n 100\n ),\n\n evcsNightTargetMediumForecastPct: clamp(\n num(input.evcs_night_target_medium_forecast_pct, 55),\n 0,\n 100\n ),\n\n evcsNightTargetWeakForecastPct: clamp(\n num(input.evcs_night_target_weak_forecast_pct, 85),\n 0,\n 100\n ),\n\n evcsNightBatteryRecoveryPowerKw: Math.max(\n 0.1,\n num(input.evcs_night_battery_recovery_power_kw, 2.5)\n ),\n\n evcsNightDepartureSafetyMin: Math.max(\n 0,\n num(input.evcs_night_departure_safety_min, 30)\n ),\n};\n\n// =====================================================\n// HISTORY / PERSISTED HELPERS\n// =====================================================\nconst nightSessionStartSocRaw = num(\n input.evcs_night_session_start_soc ?? input.night_session_start_soc,\n NaN\n);\n\nconst nightSessionStartAtRaw = cleanText(\n input.evcs_night_session_start_at ?? input.night_session_start_at\n);\n\n// =====================================================\n// VEHICLE DEMAND FILTER HISTORY RAW INPUTS\n// =====================================================\nconst evcsNoDemandSinceAtRaw = cleanText(input.evcs_no_demand_since_at);\nconst evcsNoDemandFilterEvalAtRaw = cleanText(input.evcs_no_demand_filter_eval_at);\n\nconst history = {\n lastBlockReason: cleanText(input.last_block_reason, 'none') || 'none',\n blockedUntilAt: cleanText(input.blocked_until),\n probeStartedAt: cleanText(input.probe_started_at),\n lastStartAt: cleanText(input.last_start_at),\n lastStopAt: cleanText(input.last_stop_at),\n lastCurrentChangeAt: cleanText(input.last_current_change_at),\n lastSignature: cleanText(input.last_signature),\n cloudDebtStartedAt: cleanText(input.cloud_debt_started_at),\n evcsPriorityManualUntilAt: cleanText(input.evcs_priority_manual_until),\n\n blockedUntilMs: parseParisStampToMs(cleanText(input.blocked_until)),\n probeStartedMs: parseParisStampToMs(cleanText(input.probe_started_at)),\n lastStartMs: parseParisStampToMs(cleanText(input.last_start_at)),\n lastStopMs: parseParisStampToMs(cleanText(input.last_stop_at)),\n lastCurrentChangeMs: parseParisStampToMs(cleanText(input.last_current_change_at)),\n cloudDebtStartedMsPrev: parseParisStampToMs(cleanText(input.cloud_debt_started_at)),\n\n // DEPASSEMENT SOUPLE BATTERIE (01/09/2026) : horodatage du debut du\n // depassement en cours, ecrit par HA_SERVICE_CALLS_OUTPUT. Vide/illisible\n // => null => aucun depassement en cours, comportement de repli sur.\n nightGridSessionCommittedPrev:\n (input.night_grid_session_committed_prev ?? 'off').toString().trim().toLowerCase() === 'on',\n batterySoftBreachAt: cleanText(input.battery_soft_breach_at),\n batterySoftBreachMsPrev: parseParisStampToMs(cleanText(input.battery_soft_breach_at)),\n evcsPriorityManualUntilMs: parseParisStampToMs(cleanText(input.evcs_priority_manual_until)),\n\n // =====================================================\n // EVCS NIGHT SESSION MEMORY\n // =====================================================\n nightSessionStartSocPct: Number.isFinite(nightSessionStartSocRaw)\n ? clamp(nightSessionStartSocRaw, 0, 100)\n : null,\n\n nightSessionStartAt: nightSessionStartAtRaw || '',\n nightSessionStartMs: parseParisStampToMs(nightSessionStartAtRaw),\n\n // =====================================================\n // VEHICLE DEMAND FILTER PERSISTENCE\n // =====================================================\n evcsDeliveryRatioEma: num(input.evcs_delivery_ratio_ema, NaN),\n evcsDeliveryNoiseEma: num(input.evcs_delivery_noise_ema, NaN),\n evcsNoDemandScoreEma: num(input.evcs_no_demand_score_ema, NaN),\n evcsNoDemandSemanticActive: low(input.evcs_no_demand_semantic_active || 'off') === 'on',\n\n evcsNoDemandSinceAt: evcsNoDemandSinceAtRaw || '',\n evcsNoDemandSinceMs: parseParisStampToMs(evcsNoDemandSinceAtRaw),\n\n evcsNoDemandFilterEvalAt: evcsNoDemandFilterEvalAtRaw || '',\n evcsNoDemandFilterEvalMs: parseParisStampToMs(evcsNoDemandFilterEvalAtRaw),\n};\n\n// =====================================================\n// BATTERY TUNING\n// =====================================================\nconst batteryTune = {\n global: {\n houseSpikeGraceMinutes: Math.max(0, num(input.house_spike_grace_minutes, 10)),\n solarPotentialGraceMinutes: Math.max(0, num(input.solar_potential_grace_minutes, 12)),\n stepUpCooldownSeconds: Math.max(5, num(input.step_up_cooldown_seconds, params.currentChangeCooldownSeconds)),\n stepDownCooldownSeconds: Math.max(5, num(input.step_down_cooldown_seconds, params.currentChangeCooldownSeconds)),\n forceModeAutoRevertMinutes: Math.max(0, num(input.force_mode_auto_revert_minutes, 120)),\n overloadStepDownA: Math.max(1, num(input.overload_step_down_a, 2)),\n overloadHoldSeconds: Math.max(5, num(input.overload_hold_seconds, 30)),\n overloadStopAfterSeconds: Math.max(10, num(input.overload_stop_after_seconds, 120)),\n },\n\n bands: {\n gt90: {\n dischargeSoftA: num(input.batt_discharge_soft_gt90_a, -50),\n dischargeHardA: num(input.batt_discharge_hard_gt90_a, -100),\n chargeReserveA: Math.max(0, num(input.batt_charge_reserve_gt90_a, 5)),\n softToleranceMin: Math.max(0, num(input.batt_soft_tol_gt90_min, 12)),\n hardToleranceSec: Math.max(0, num(input.batt_hard_tol_gt90_sec, 20)),\n recoveryMin: Math.max(0, num(input.batt_recovery_gt90_min, 6)),\n },\n\n '80_90': {\n dischargeSoftA: num(input.batt_discharge_soft_80_90_a, -40),\n dischargeHardA: num(input.batt_discharge_hard_80_90_a, -80),\n chargeReserveA: Math.max(0, num(input.batt_charge_reserve_80_90_a, 10)),\n softToleranceMin: Math.max(0, num(input.batt_soft_tol_80_90_min, 10)),\n hardToleranceSec: Math.max(0, num(input.batt_hard_tol_80_90_sec, 20)),\n recoveryMin: Math.max(0, num(input.batt_recovery_80_90_min, 6)),\n },\n\n '60_80': {\n dischargeSoftA: num(input.batt_discharge_soft_60_80_a, -20),\n dischargeHardA: num(input.batt_discharge_hard_60_80_a, -50),\n chargeReserveA: Math.max(0, num(input.batt_charge_reserve_60_80_a, 40)),\n softToleranceMin: Math.max(0, num(input.batt_soft_tol_60_80_min, 6)),\n hardToleranceSec: Math.max(0, num(input.batt_hard_tol_60_80_sec, 15)),\n recoveryMin: Math.max(0, num(input.batt_recovery_60_80_min, 8)),\n },\n\n '40_60': {\n dischargeSoftA: num(input.batt_discharge_soft_40_60_a, -12),\n dischargeHardA: num(input.batt_discharge_hard_40_60_a, -30),\n chargeReserveA: Math.max(0, num(input.batt_charge_reserve_40_60_a, 70)),\n softToleranceMin: Math.max(0, num(input.batt_soft_tol_40_60_min, 4)),\n hardToleranceSec: Math.max(0, num(input.batt_hard_tol_40_60_sec, 10)),\n recoveryMin: Math.max(0, num(input.batt_recovery_40_60_min, 10)),\n },\n\n '25_40': {\n dischargeSoftA: num(input.batt_discharge_soft_25_40_a, -5),\n dischargeHardA: num(input.batt_discharge_hard_25_40_a, -15),\n chargeReserveA: Math.max(0, num(input.batt_charge_reserve_25_40_a, 110)),\n softToleranceMin: Math.max(0, num(input.batt_soft_tol_25_40_min, 2)),\n hardToleranceSec: Math.max(0, num(input.batt_hard_tol_25_40_sec, 5)),\n recoveryMin: Math.max(0, num(input.batt_recovery_25_40_min, 12)),\n },\n\n lt25: {\n dischargeSoftA: num(input.batt_discharge_soft_lt25_a, -3),\n dischargeHardA: num(input.batt_discharge_hard_lt25_a, -8),\n chargeReserveA: Math.max(0, num(input.batt_charge_reserve_lt25_a, 150)),\n softToleranceMin: Math.max(0, num(input.batt_soft_tol_lt25_min, 1)),\n hardToleranceSec: Math.max(0, num(input.batt_hard_tol_lt25_sec, 2)),\n recoveryMin: Math.max(0, num(input.batt_recovery_lt25_min, 15)),\n },\n },\n};\n\n// =====================================================\n// OPTIONAL DEBUG / SUMMARY\n// =====================================================\nconst evcsNightConfig = {\n batteryHardFloorPct: params.evcsNightBatteryHardFloorPct,\n strongForecastKwh: params.evcsNightStrongForecastKwh,\n mediumForecastKwh: params.evcsNightMediumForecastKwh,\n targetStrongForecastPct: params.evcsNightTargetStrongForecastPct,\n targetMediumForecastPct: params.evcsNightTargetMediumForecastPct,\n targetWeakForecastPct: params.evcsNightTargetWeakForecastPct,\n batteryRecoveryPowerKw: params.evcsNightBatteryRecoveryPowerKw,\n departureSafetyMin: params.evcsNightDepartureSafetyMin,\n sessionStartSocPct: history.nightSessionStartSocPct,\n sessionStartAt: history.nightSessionStartAt || null,\n};\n\nconst vehicleDemandHistoryDebug = {\n evcsDeliveryRatioEma: finiteOrNull(history.evcsDeliveryRatioEma),\n evcsDeliveryNoiseEma: finiteOrNull(history.evcsDeliveryNoiseEma),\n evcsNoDemandScoreEma: finiteOrNull(history.evcsNoDemandScoreEma),\n evcsNoDemandSemanticActive: history.evcsNoDemandSemanticActive,\n evcsNoDemandSinceAt: history.evcsNoDemandSinceAt || null,\n evcsNoDemandSinceMs: finiteOrNull(history.evcsNoDemandSinceMs),\n evcsNoDemandFilterEvalAt: history.evcsNoDemandFilterEvalAt || null,\n evcsNoDemandFilterEvalMs: finiteOrNull(history.evcsNoDemandFilterEvalMs),\n};\n\n// =====================================================\n// OUTPUT\n// =====================================================\nreturn [{\n json: {\n raw,\n input,\n nowMs,\n now,\n cfg: CFG,\n parsed,\n params,\n history,\n batteryTune,\n evcsNightConfig,\n vehicleDemandHistoryDebug,\n }\n}];\n" }, "type": "n8n-nodes-base.code", "typeVersion": 2, @@ -142,7 +142,7 @@ "parameters": [ { "name": "template", - "value": "{{ {\n \"soc_percent\": states(\"sensor.victron_battery_soc\"),\n \"battery_current_a\": states(\"sensor.victron_battery_current\"),\n\n \"pv_power_w\": states(\"sensor.victron_pv_power_system\"),\n \"pv_power_10m_avg_w\": states(\"sensor.victron_pv_power_10m_avg\"),\n \"pv_trend_w\": states(\"sensor.victron_pv_power_trend_w\"),\n\n \"mppt_operation_modes\": states.sensor\n | selectattr('entity_id','search','mppt')\n | selectattr('entity_id','search','operation_mode')\n | map(attribute='state') | join(','),\n\n \"house_ac_power_w\": states(\"sensor.victron_consumption_power_l1\"),\n \"house_ac_power_prev_w\": states(\"sensor.victron_consumption_power_l1\"),\n\n \"grid_power_w\": states(\"sensor.victron_grid_power_l1\"),\n \"grid_state\": states(\"switch.edf_general_ok_switch\"),\n \"victron_acin1_available\": states(\"sensor.victron_ac_in1_available\"),\n\n \n \"acin1_last_changed_ts\": as_timestamp(states.sensor.victron_ac_in1_available.last_changed, 0) if states.sensor.victron_ac_in1_available is not none else 0,\n \"grid_switch_last_changed_ts\": as_timestamp(states.switch.edf_general_ok_switch.last_changed, 0) if states.switch.edf_general_ok_switch is not none else 0,\n \"grid_settle_seconds\": states(\"input_number.evcs_grid_settle_seconds\"),\n \"grid_setpoint_w\": states(\"number.gx_device_ac_power_setpoint\"),\n \"grid_setpoint_idle_w\": states(\"input_number.evcs_grid_setpoint_idle_w\"),\n\n \"today_remaining_kwh\": states(\"sensor.energy_production_today_remaining\"),\n \"tomorrow_kwh\": states(\"sensor.energy_production_tomorrow\"),\n\n \"evcs_device_connected\": states(\"binary_sensor.victron_evcs_device_connected\"),\n \"evcs_vehicle_connected\": states(\"binary_sensor.victron_evcs_vehicle_connected\"),\n \"evcs_status_raw\": states(\"sensor.victron_evcs_status_raw\"),\n \"evcs_mode_sensor\": states(\"sensor.victron_evcs_mode\"),\n \"evcs_mode_fallback\": states(\"input_text.sensor_victron_evcs_mode\"),\n \"evcs_set_current_a\": states(\"sensor.victron_evcs_set_current\"),\n \"evcs_command_current_a\": states(\"number.victron_evcs_set_current_command\"),\n \"evcs_current_a\": states(\"sensor.victron_evcs_current\"),\n \"evcs_ac_power_w\": states(\"sensor.victron_evcs_ac_power\"),\n \"evcs_charging_time\": states(\"sensor.victron_evcs_charging_time\"),\n \"evcs_charging_switch\": states(\"switch.victron_evcs_charging\"),\n \"evcs_auto_start_switch\": states(\"switch.victron_evcs_auto_start\"),\n\n \"controller_enabled\": states(\"input_boolean.victron_evcs_surplus_auto_enabled\"),\n \"notifications_enabled\": states(\"input_boolean.victron_evcs_surplus_notifications\"),\n \"hard_stop_enabled\": states(\"input_boolean.victron_evcs_hard_stop_enabled\"),\n \"charge_permission_now\": states(\"input_boolean.victron_evcs_charge_permission_now\"),\n \"control_latch\": states(\"input_boolean.victron_evcs_control_latch\"),\n \"departure_priority_enabled\": states(\"input_boolean.victron_evcs_departure_priority_enabled\"),\n \"forecast_mode_enabled\": states(\"input_boolean.victron_evcs_forecast_mode_enabled\"),\n\n \"target_current_auto_a\": states(\"input_number.victron_evcs_target_current_auto\"),\n \"budget_remaining_kwh\": states(\"input_number.victron_evcs_budget_remaining_kwh\"),\n \"projected_end_soc_after_charge\": states(\"input_number.victron_evcs_projected_end_soc_after_charge\"),\n\n \"pv_start_min_w\": states(\"input_number.victron_evcs_pv_start_min_w\"),\n \"pv_hold_min_w\": states(\"input_number.victron_evcs_pv_hold_min_w\"),\n \"house_ac_headroom_w\": states(\"input_number.victron_evcs_house_ac_headroom_w\"),\n \"battery_discharge_soft_a\": states(\"input_number.victron_evcs_battery_discharge_soft_a\"),\n \"battery_discharge_hard_a\": states(\"input_number.victron_evcs_battery_discharge_hard_a\"),\n \"battery_reserve_up_a\": states(\"input_number.victron_evcs_battery_reserve_up_a\"),\n \"battery_neutral_band_a\": states(\"input_number.victron_evcs_battery_neutral_band_a\"),\n \"soc_start_min\": states(\"input_number.victron_evcs_soc_start_min\"),\n \"soc_stop_min\": states(\"input_number.victron_evcs_soc_stop_min\"),\n \"current_min_a\": states(\"input_number.victron_evcs_current_min_a\"),\n \"current_max_auto_a\": states(\"input_number.victron_evcs_current_max_auto_a\"),\n \"grid_current_max_a\": states(\"input_number.evcs_plafond_courant_edf_on\"),\n \"current_step_up_a\": states(\"input_number.victron_evcs_current_step_up_a\"),\n \"current_step_down_a\": states(\"input_number.victron_evcs_current_step_down_a\"),\n \"current_change_cooldown_seconds\": states(\"input_number.victron_evcs_current_change_cooldown_seconds\"),\n \"min_run_minutes\": states(\"input_number.victron_evcs_min_run_minutes\"),\n \"min_stop_minutes\": states(\"input_number.victron_evcs_min_stop_minutes\"),\n\n \"required_energy_kwh\": states(\"input_number.victron_evcs_required_energy_kwh\"),\n \"soc_comfort_target\": states(\"input_number.victron_evcs_soc_comfort_target\"),\n \"end_of_day_soc_guard\": states(\"input_number.victron_evcs_end_of_day_soc_guard\"),\n\n \"base_load_remaining_kwh\": states(\"input_number.victron_base_load_remaining_kwh\"),\n \"flexible_safety_margin_kwh\": states(\"input_number.victron_flexible_safety_margin_kwh\"),\n \"end_of_day_soc_target\": states(\"input_number.victron_end_of_day_soc_target\"),\n \"ac_loads_max_safe_w\": states(\"input_number.victron_ac_loads_max_safe_w\"),\n\n \"battery_full_soc\": states(\"input_number.victron_evcs_battery_full_soc\"),\n \"battery_full_forecast_min_kwh\": states(\"input_number.victron_evcs_battery_full_forecast_min_kwh\"),\n \"forecast_commit_soc_floor\": states(\"input_number.victron_evcs_forecast_commit_soc_floor\"),\n \"forecast_commit_min_kwh\": states(\"input_number.victron_evcs_forecast_commit_min_kwh\"),\n\n \"cloud_debt_kwh\": states(\"input_number.victron_evcs_cloud_debt_kwh\"),\n \"cloud_debt_max_kwh\": states(\"input_number.victron_evcs_cloud_debt_max_kwh\"),\n \"cloud_tolerance_minutes\": states(\"input_number.victron_evcs_cloud_tolerance_minutes\"),\n \"cloud_debt_started_at\": states(\"input_datetime.victron_evcs_cloud_debt_started_at\"),\n \"battery_soft_breach_at\": states(\"input_text.victron_evcs_battery_soft_breach_at\"),\n \"operating_mode_helper\": states(\"input_text.victron_evcs_operating_mode\"),\n\n \"departure_time\": states(\"input_datetime.victron_evcs_departure_time\"),\n \"departure_time_jeep\": states(\"input_datetime.victron_evcs_departure_time_jeep\"),\n \"evcs_vehicle\": states(\"input_select.victron_evcs_vehicle\"),\n \"allow_grid_departure_urgent\": states(\"input_boolean.victron_evcs_allow_grid_departure_urgent\"),\n \"last_start_at\": states(\"input_datetime.victron_evcs_last_start_at\"),\n \"last_stop_at\": states(\"input_datetime.victron_evcs_last_stop_at\"),\n \"last_current_change_at\": states(\"input_datetime.victron_evcs_last_current_change_at\"),\n\n \"day_start_time\": states(\"input_datetime.victron_flexible_day_start_time\"),\n \"day_stop_time\": states(\"input_datetime.victron_flexible_day_stop_time\"),\n\n \"vebus_overload\": states(\"binary_sensor.victron_ve_bus_overload\"),\n \"vebus_l1_overload\": states(\"binary_sensor.victron_ve_bus_l1_overload\"),\n \"vebus_low_battery\": states(\"binary_sensor.victron_ve_bus_low_battery\"),\n \"vebus_l1_low_battery\": states(\"binary_sensor.victron_ve_bus_l1_low_battery\"),\n\n \"vebus_ac_out_l1_power_w\": states(\"sensor.victron_ve_bus_ac_out_l1_power\"),\n \"vebus_ac_out_l1_current_a\": states(\"sensor.victron_ve_bus_ac_out_l1_current\"),\n \"vebus_ac_out_l1_voltage_v\": states(\"sensor.victron_ve_bus_ac_out_l1_voltage\"),\n\n \"vebus_dc_voltage_v\": states(\"sensor.victron_ve_bus_dc_voltage\"),\n \"vebus_dc_current_a\": states(\"sensor.victron_ve_bus_dc_current\"),\n \"vebus_dc_power_w\": states(\"sensor.victron_ve_bus_dc_power_system\"),\n\n \"vebus_state\": states(\"sensor.victron_ve_bus_state\"),\n \"vebus_main_state\": states(\"sensor.victron_ve_bus_main_state\"),\n\n \"last_signature\": states(\"input_text.victron_evcs_control_last_signature\"),\n\n \"hc_night_start_time\": states(\"input_datetime.victron_evcs_hc_night_start\"),\n \"hc_night_stop_time\": states(\"input_datetime.victron_evcs_hc_night_stop\"),\n \"morning_start_time\": states(\"input_datetime.victron_evcs_morning_start\"),\n \"morning_stop_time\": states(\"input_datetime.victron_evcs_morning_stop\"),\n \"hc_midday_start_time\": states(\"input_datetime.victron_evcs_hc_midday_start\"),\n \"hc_midday_stop_time\": states(\"input_datetime.victron_evcs_hc_midday_stop\"),\n \"evening_start_time\": states(\"input_datetime.victron_evcs_evening_start\"),\n \"evening_stop_time\": states(\"input_datetime.victron_evcs_evening_stop\"),\n\n \"allow_grid_hc_night\": states(\"input_boolean.victron_evcs_allow_grid_hc_night\"),\n \"night_takeover_prev\": states(\"input_boolean.victron_evcs_night_grid_takeover_needed\"),\n \"night_grid_session_committed_prev\": states(\"input_boolean.victron_evcs_night_grid_session_committed\"),\n \"prev_surplus_state\": states(\"input_text.victron_evcs_surplus_state\"),\n \"evcs_night_session_start_soc\": states(\"input_text.victron_evcs_night_session_start_soc\"),\n \"evcs_night_session_start_at\": states(\"input_text.victron_evcs_night_session_start_at\"),\n \"advisor_apply_night_target\": states(\"input_boolean.evcs_advisor_apply_night_target\"),\n \"advisor_night_target_soc\": states(\"input_number.evcs_advisor_night_target_soc\"),\n \"advisor_status\": states(\"input_text.evcs_advisor_status\"),\n \"advisor_last_run\": states(\"input_text.evcs_advisor_last_run\"),\n\n \"balance_required_soc\": states(\"input_number.evcs_balance_required_soc\"),\n \"balance_energy_to_cover_kwh\": states(\"input_number.evcs_balance_energy_to_cover_kwh\"),\n \"balance_status\": states(\"input_text.evcs_balance_status\"),\n \"balance_last_run\": states(\"input_text.evcs_balance_last_run\"),\n \"allow_grid_hc_midday\": states(\"input_boolean.victron_evcs_allow_grid_hc_midday\"),\n \"probe_enabled\": states(\"input_boolean.victron_evcs_probe_enabled\"),\n\n \"probe_minutes\": states(\"input_number.victron_evcs_probe_minutes\"),\n \"probe_retry_minutes\": states(\"input_number.victron_evcs_probe_retry_minutes\"),\n \"probe_current_a\": states(\"input_number.victron_evcs_probe_current_a\"),\n\n \"grid_battery_soft_a\": states(\"input_number.victron_evcs_grid_battery_soft_a\"),\n \"grid_battery_hard_a\": states(\"input_number.victron_evcs_grid_battery_hard_a\"),\n\n \"morning_probe_pv_avg_min_w\": states(\"input_number.victron_evcs_morning_probe_pv_avg_min_w\"),\n \"morning_probe_pv_trend_min_w\": states(\"input_number.victron_evcs_morning_probe_pv_trend_min_w\"),\n \"midday_probe_pv_avg_min_w\": states(\"input_number.victron_evcs_midday_probe_pv_avg_min_w\"),\n \"afternoon_probe_pv_avg_min_w\": states(\"input_number.victron_evcs_afternoon_probe_pv_avg_min_w\"),\n \"afternoon_probe_soc_min\": states(\"input_number.victron_evcs_afternoon_probe_soc_min\"),\n \"afternoon_battery_max_discharge_a\": states(\"input_number.victron_evcs_afternoon_battery_max_discharge_a\"),\n \"morning_soc_min\": states(\"input_number.victron_evcs_morning_soc_min\"),\n \"midday_soc_min\": states(\"input_number.victron_evcs_midday_soc_min\"),\n \"evening_soc_start_min\": states(\"input_number.victron_evcs_evening_soc_start_min\"),\n \"evening_soc_stop_min\": states(\"input_number.victron_evcs_evening_soc_stop_min\"),\n\n \"morning_battery_max_discharge_a\": states(\"input_number.victron_evcs_morning_battery_max_discharge_a\"),\n \"midday_battery_max_discharge_a\": states(\"input_number.victron_evcs_midday_battery_max_discharge_a\"),\n \"evening_battery_max_discharge_a\": states(\"input_number.victron_evcs_evening_battery_max_discharge_a\"),\n\n \"last_block_reason\": states(\"input_text.victron_evcs_last_block_reason\"),\n \"blocked_until\": states(\"input_datetime.victron_evcs_blocked_until\"),\n \"probe_started_at\": states(\"input_datetime.victron_evcs_probe_started_at\"),\n\n \"victron_evcs_strategy\": states(\"input_select.victron_evcs_strategy\"),\n \"evcs_priority_manual_override\": states(\"input_boolean.victron_evcs_priority_manual_override\"),\n \"evcs_priority_manual_mode\": states(\"input_select.victron_evcs_priority_manual_mode\"),\n \"evcs_priority_manual_reason\": states(\"input_text.victron_evcs_priority_manual_reason\"),\n \"evcs_priority_manual_until\": states(\"input_datetime.victron_evcs_priority_manual_until\"),\n\n \"house_spike_grace_minutes\": states(\"input_number.victron_evcs_house_spike_grace_minutes\"),\n \"solar_potential_grace_minutes\": states(\"input_number.victron_evcs_solar_potential_grace_minutes\"),\n \"step_up_cooldown_seconds\": states(\"input_number.victron_evcs_step_up_cooldown_seconds\"),\n \"step_down_cooldown_seconds\": states(\"input_number.victron_evcs_step_down_cooldown_seconds\"),\n \"force_mode_auto_revert_minutes\": states(\"input_number.victron_evcs_force_mode_auto_revert_minutes\"),\n\n \"overload_step_down_a\": states(\"input_number.victron_evcs_overload_step_down_a\"),\n \"overload_hold_seconds\": states(\"input_number.victron_evcs_overload_hold_seconds\"),\n \"overload_stop_after_seconds\": states(\"input_number.victron_evcs_overload_stop_after_seconds\"),\n\n \"batt_discharge_soft_gt90_a\": states(\"input_number.victron_evcs_batt_discharge_soft_gt90_a\"),\n \"batt_discharge_hard_gt90_a\": states(\"input_number.victron_evcs_batt_discharge_hard_gt90_a\"),\n \"batt_charge_reserve_gt90_a\": states(\"input_number.victron_evcs_batt_charge_reserve_gt90_a\"),\n \"batt_soft_tol_gt90_min\": states(\"input_number.victron_evcs_batt_soft_tol_gt90_min\"),\n \"batt_hard_tol_gt90_sec\": states(\"input_number.victron_evcs_batt_hard_tol_gt90_sec\"),\n \"batt_recovery_gt90_min\": states(\"input_number.victron_evcs_batt_recovery_gt90_min\"),\n\n \"batt_discharge_soft_80_90_a\": states(\"input_number.victron_evcs_batt_discharge_soft_80_90_a\"),\n \"batt_discharge_hard_80_90_a\": states(\"input_number.victron_evcs_batt_discharge_hard_80_90_a\"),\n \"batt_charge_reserve_80_90_a\": states(\"input_number.victron_evcs_batt_charge_reserve_80_90_a\"),\n \"batt_soft_tol_80_90_min\": states(\"input_number.victron_evcs_batt_soft_tol_80_90_min\"),\n \"batt_hard_tol_80_90_sec\": states(\"input_number.victron_evcs_batt_hard_tol_80_90_sec\"),\n \"batt_recovery_80_90_min\": states(\"input_number.victron_evcs_batt_recovery_80_90_min\"),\n\n \"batt_discharge_soft_60_80_a\": states(\"input_number.victron_evcs_batt_discharge_soft_60_80_a\"),\n \"batt_discharge_hard_60_80_a\": states(\"input_number.victron_evcs_batt_discharge_hard_60_80_a\"),\n \"batt_charge_reserve_60_80_a\": states(\"input_number.victron_evcs_batt_charge_reserve_60_80_a\"),\n \"batt_soft_tol_60_80_min\": states(\"input_number.victron_evcs_batt_soft_tol_60_80_min\"),\n \"batt_hard_tol_60_80_sec\": states(\"input_number.victron_evcs_batt_hard_tol_60_80_sec\"),\n \"batt_recovery_60_80_min\": states(\"input_number.victron_evcs_batt_recovery_60_80_min\"),\n\n \"batt_discharge_soft_40_60_a\": states(\"input_number.victron_evcs_batt_discharge_soft_40_60_a\"),\n \"batt_discharge_hard_40_60_a\": states(\"input_number.victron_evcs_batt_discharge_hard_40_60_a\"),\n \"batt_charge_reserve_40_60_a\": states(\"input_number.victron_evcs_batt_charge_reserve_40_60_a\"),\n \"batt_soft_tol_40_60_min\": states(\"input_number.victron_evcs_batt_soft_tol_40_60_min\"),\n \"batt_hard_tol_40_60_sec\": states(\"input_number.victron_evcs_batt_hard_tol_40_60_sec\"),\n \"batt_recovery_40_60_min\": states(\"input_number.victron_evcs_batt_recovery_40_60_min\"),\n\n \"batt_discharge_soft_25_40_a\": states(\"input_number.victron_evcs_batt_discharge_soft_25_40_a\"),\n \"batt_discharge_hard_25_40_a\": states(\"input_number.victron_evcs_batt_discharge_hard_25_40_a\"),\n \"batt_charge_reserve_25_40_a\": states(\"input_number.victron_evcs_batt_charge_reserve_25_40_a\"),\n \"batt_soft_tol_25_40_min\": states(\"input_number.victron_evcs_batt_soft_tol_25_40_min\"),\n \"batt_hard_tol_25_40_sec\": states(\"input_number.victron_evcs_batt_hard_tol_25_40_sec\"),\n \"batt_recovery_25_40_min\": states(\"input_number.victron_evcs_batt_recovery_25_40_min\"),\n\n \"batt_discharge_soft_lt25_a\": states(\"input_number.victron_evcs_batt_discharge_soft_lt25_a\"),\n \"batt_discharge_hard_lt25_a\": states(\"input_number.victron_evcs_batt_discharge_hard_lt25_a\"),\n \"batt_charge_reserve_lt25_a\": states(\"input_number.victron_evcs_batt_charge_reserve_lt25_a\"),\n \"batt_soft_tol_lt25_min\": states(\"input_number.victron_evcs_batt_soft_tol_lt25_min\"),\n \"batt_hard_tol_lt25_sec\": states(\"input_number.victron_evcs_batt_hard_tol_lt25_sec\"),\n \"batt_recovery_lt25_min\": states(\"input_number.victron_evcs_batt_recovery_lt25_min\"),\n\n \"evcs_delivery_ratio_ema\": states(\"input_number.victron_evcs_delivery_ratio_ema\"),\n \"evcs_delivery_noise_ema\": states(\"input_number.victron_evcs_delivery_noise_ema\"),\n \"evcs_no_demand_score_ema\": states(\"input_number.victron_evcs_no_demand_score_ema\"),\n \"evcs_no_demand_semantic_active\": states(\"input_boolean.victron_evcs_no_demand_semantic_active\"),\n \"evcs_no_demand_since_at\": states(\"input_datetime.victron_evcs_no_demand_since_at\"),\n \"evcs_no_demand_filter_eval_at\": states(\"input_datetime.victron_evcs_no_demand_filter_eval_at\")\n} | tojson }}\n" + "value": "{{ {\n \"soc_percent\": states(\"sensor.victron_battery_soc\"),\n \"battery_current_a\": states(\"sensor.victron_battery_current\"),\n\n \"pv_power_w\": states(\"sensor.victron_pv_power_system\"),\n \"pv_power_10m_avg_w\": states(\"sensor.victron_pv_power_10m_avg\"),\n \"pv_trend_w\": states(\"sensor.victron_pv_power_trend_w\"),\n\n \"mppt_operation_modes\": states.sensor\n | selectattr('entity_id','search','mppt')\n | selectattr('entity_id','search','operation_mode')\n | map(attribute='state') | join(','),\n\n \"house_ac_power_w\": states(\"sensor.victron_consumption_power_l1\"),\n \"house_ac_power_prev_w\": states(\"sensor.victron_consumption_power_l1\"),\n\n \"grid_power_w\": states(\"sensor.victron_grid_power_l1\"),\n \"grid_state\": states(\"switch.edf_general_ok_switch\"),\n \"victron_acin1_available\": states(\"sensor.victron_ac_in1_available\"),\n\n \n \"acin1_last_changed_ts\": as_timestamp(states.sensor.victron_ac_in1_available.last_changed, 0) if states.sensor.victron_ac_in1_available is not none else 0,\n \"grid_switch_last_changed_ts\": as_timestamp(states.switch.edf_general_ok_switch.last_changed, 0) if states.switch.edf_general_ok_switch is not none else 0,\n \"grid_settle_seconds\": states(\"input_number.evcs_grid_settle_seconds\"),\n \"grid_setpoint_w\": states(\"number.gx_device_ac_power_setpoint\"),\n \"grid_setpoint_idle_w\": states(\"input_number.evcs_grid_setpoint_idle_w\"),\n\n \"today_remaining_kwh\": states(\"sensor.energy_production_today_remaining\"),\n \"tomorrow_kwh\": states(\"sensor.energy_production_tomorrow\"),\n\n \"evcs_device_connected\": states(\"binary_sensor.victron_evcs_device_connected\"),\n \"evcs_vehicle_connected\": states(\"binary_sensor.victron_evcs_vehicle_connected\"),\n \"evcs_status_raw\": states(\"sensor.victron_evcs_status_raw\"),\n \"evcs_mode_sensor\": states(\"sensor.victron_evcs_mode\"),\n \"evcs_mode_fallback\": states(\"input_text.sensor_victron_evcs_mode\"),\n \"evcs_set_current_a\": states(\"sensor.victron_evcs_set_current\"),\n \"evcs_command_current_a\": states(\"number.victron_evcs_set_current_command\"),\n \"evcs_current_a\": states(\"sensor.victron_evcs_current\"),\n \"evcs_ac_power_w\": states(\"sensor.victron_evcs_ac_power\"),\n \"evcs_charging_time\": states(\"sensor.victron_evcs_charging_time\"),\n \"evcs_charging_switch\": states(\"switch.victron_evcs_charging\"),\n \"evcs_auto_start_switch\": states(\"switch.victron_evcs_auto_start\"),\n\n \"controller_enabled\": states(\"input_boolean.victron_evcs_surplus_auto_enabled\"),\n \"notifications_enabled\": states(\"input_boolean.victron_evcs_surplus_notifications\"),\n \"hard_stop_enabled\": states(\"input_boolean.victron_evcs_hard_stop_enabled\"),\n \"charge_permission_now\": states(\"input_boolean.victron_evcs_charge_permission_now\"),\n \"control_latch\": states(\"input_boolean.victron_evcs_control_latch\"),\n \"departure_priority_enabled\": states(\"input_boolean.victron_evcs_departure_priority_enabled\"),\n \"forecast_mode_enabled\": states(\"input_boolean.victron_evcs_forecast_mode_enabled\"),\n\n \"target_current_auto_a\": states(\"input_number.victron_evcs_target_current_auto\"),\n \"budget_remaining_kwh\": states(\"input_number.victron_evcs_budget_remaining_kwh\"),\n \"projected_end_soc_after_charge\": states(\"input_number.victron_evcs_projected_end_soc_after_charge\"),\n\n \"pv_start_min_w\": states(\"input_number.victron_evcs_pv_start_min_w\"),\n \"pv_hold_min_w\": states(\"input_number.victron_evcs_pv_hold_min_w\"),\n \"house_ac_headroom_w\": states(\"input_number.victron_evcs_house_ac_headroom_w\"),\n \"battery_discharge_soft_a\": states(\"input_number.victron_evcs_battery_discharge_soft_a\"),\n \"battery_discharge_hard_a\": states(\"input_number.victron_evcs_battery_discharge_hard_a\"),\n \"battery_reserve_up_a\": states(\"input_number.victron_evcs_battery_reserve_up_a\"),\n \"battery_neutral_band_a\": states(\"input_number.victron_evcs_battery_neutral_band_a\"),\n \"soc_start_min\": states(\"input_number.victron_evcs_soc_start_min\"),\n \"modules_en_service\": states(\"input_number.evcs_balance_modules_en_service\"),\n \"soc_stop_min\": states(\"input_number.victron_evcs_soc_stop_min\"),\n \"current_min_a\": states(\"input_number.victron_evcs_current_min_a\"),\n \"current_max_auto_a\": states(\"input_number.victron_evcs_current_max_auto_a\"),\n \"grid_current_max_a\": states(\"input_number.evcs_plafond_courant_edf_on\"),\n \"current_step_up_a\": states(\"input_number.victron_evcs_current_step_up_a\"),\n \"current_step_down_a\": states(\"input_number.victron_evcs_current_step_down_a\"),\n \"current_change_cooldown_seconds\": states(\"input_number.victron_evcs_current_change_cooldown_seconds\"),\n \"min_run_minutes\": states(\"input_number.victron_evcs_min_run_minutes\"),\n \"min_stop_minutes\": states(\"input_number.victron_evcs_min_stop_minutes\"),\n\n \"required_energy_kwh\": states(\"input_number.victron_evcs_required_energy_kwh\"),\n \"soc_comfort_target\": states(\"input_number.victron_evcs_soc_comfort_target\"),\n \"end_of_day_soc_guard\": states(\"input_number.victron_evcs_end_of_day_soc_guard\"),\n\n \"base_load_remaining_kwh\": states(\"input_number.victron_base_load_remaining_kwh\"),\n \"flexible_safety_margin_kwh\": states(\"input_number.victron_flexible_safety_margin_kwh\"),\n \"end_of_day_soc_target\": states(\"input_number.victron_end_of_day_soc_target\"),\n \"ac_loads_max_safe_w\": states(\"input_number.victron_ac_loads_max_safe_w\"),\n\n \"battery_full_soc\": states(\"input_number.victron_evcs_battery_full_soc\"),\n \"battery_full_forecast_min_kwh\": states(\"input_number.victron_evcs_battery_full_forecast_min_kwh\"),\n \"forecast_commit_soc_floor\": states(\"input_number.victron_evcs_forecast_commit_soc_floor\"),\n \"forecast_commit_min_kwh\": states(\"input_number.victron_evcs_forecast_commit_min_kwh\"),\n\n \"cloud_debt_kwh\": states(\"input_number.victron_evcs_cloud_debt_kwh\"),\n \"cloud_debt_max_kwh\": states(\"input_number.victron_evcs_cloud_debt_max_kwh\"),\n \"cloud_tolerance_minutes\": states(\"input_number.victron_evcs_cloud_tolerance_minutes\"),\n \"cloud_debt_started_at\": states(\"input_datetime.victron_evcs_cloud_debt_started_at\"),\n \"battery_soft_breach_at\": states(\"input_text.victron_evcs_battery_soft_breach_at\"),\n \"operating_mode_helper\": states(\"input_text.victron_evcs_operating_mode\"),\n\n \"departure_time\": states(\"input_datetime.victron_evcs_departure_time\"),\n \"departure_time_jeep\": states(\"input_datetime.victron_evcs_departure_time_jeep\"),\n \"evcs_vehicle\": states(\"input_select.victron_evcs_vehicle\"),\n \"allow_grid_departure_urgent\": states(\"input_boolean.victron_evcs_allow_grid_departure_urgent\"),\n \"last_start_at\": states(\"input_datetime.victron_evcs_last_start_at\"),\n \"last_stop_at\": states(\"input_datetime.victron_evcs_last_stop_at\"),\n \"last_current_change_at\": states(\"input_datetime.victron_evcs_last_current_change_at\"),\n\n \"day_start_time\": states(\"input_datetime.victron_flexible_day_start_time\"),\n \"day_stop_time\": states(\"input_datetime.victron_flexible_day_stop_time\"),\n\n \"vebus_overload\": states(\"binary_sensor.victron_ve_bus_overload\"),\n \"vebus_l1_overload\": states(\"binary_sensor.victron_ve_bus_l1_overload\"),\n \"vebus_low_battery\": states(\"binary_sensor.victron_ve_bus_low_battery\"),\n \"vebus_l1_low_battery\": states(\"binary_sensor.victron_ve_bus_l1_low_battery\"),\n\n \"vebus_ac_out_l1_power_w\": states(\"sensor.victron_ve_bus_ac_out_l1_power\"),\n \"vebus_ac_out_l1_current_a\": states(\"sensor.victron_ve_bus_ac_out_l1_current\"),\n \"vebus_ac_out_l1_voltage_v\": states(\"sensor.victron_ve_bus_ac_out_l1_voltage\"),\n\n \"vebus_dc_voltage_v\": states(\"sensor.victron_ve_bus_dc_voltage\"),\n \"vebus_dc_current_a\": states(\"sensor.victron_ve_bus_dc_current\"),\n \"vebus_dc_power_w\": states(\"sensor.victron_ve_bus_dc_power_system\"),\n\n \"vebus_state\": states(\"sensor.victron_ve_bus_state\"),\n \"vebus_main_state\": states(\"sensor.victron_ve_bus_main_state\"),\n\n \"last_signature\": states(\"input_text.victron_evcs_control_last_signature\"),\n\n \"hc_night_start_time\": states(\"input_datetime.victron_evcs_hc_night_start\"),\n \"hc_night_stop_time\": states(\"input_datetime.victron_evcs_hc_night_stop\"),\n \"morning_start_time\": states(\"input_datetime.victron_evcs_morning_start\"),\n \"morning_stop_time\": states(\"input_datetime.victron_evcs_morning_stop\"),\n \"hc_midday_start_time\": states(\"input_datetime.victron_evcs_hc_midday_start\"),\n \"hc_midday_stop_time\": states(\"input_datetime.victron_evcs_hc_midday_stop\"),\n \"evening_start_time\": states(\"input_datetime.victron_evcs_evening_start\"),\n \"evening_stop_time\": states(\"input_datetime.victron_evcs_evening_stop\"),\n\n \"allow_grid_hc_night\": states(\"input_boolean.victron_evcs_allow_grid_hc_night\"),\n \"night_takeover_prev\": states(\"input_boolean.victron_evcs_night_grid_takeover_needed\"),\n \"night_grid_session_committed_prev\": states(\"input_boolean.victron_evcs_night_grid_session_committed\"),\n \"prev_surplus_state\": states(\"input_text.victron_evcs_surplus_state\"),\n \"evcs_night_session_start_soc\": states(\"input_text.victron_evcs_night_session_start_soc\"),\n \"evcs_night_session_start_at\": states(\"input_text.victron_evcs_night_session_start_at\"),\n \"advisor_apply_night_target\": states(\"input_boolean.evcs_advisor_apply_night_target\"),\n \"advisor_night_target_soc\": states(\"input_number.evcs_advisor_night_target_soc\"),\n \"advisor_status\": states(\"input_text.evcs_advisor_status\"),\n \"advisor_last_run\": states(\"input_text.evcs_advisor_last_run\"),\n\n \"balance_required_soc\": states(\"input_number.evcs_balance_required_soc\"),\n \"balance_energy_to_cover_kwh\": states(\"input_number.evcs_balance_energy_to_cover_kwh\"),\n \"balance_status\": states(\"input_text.evcs_balance_status\"),\n \"balance_last_run\": states(\"input_text.evcs_balance_last_run\"),\n \"allow_grid_hc_midday\": states(\"input_boolean.victron_evcs_allow_grid_hc_midday\"),\n \"probe_enabled\": states(\"input_boolean.victron_evcs_probe_enabled\"),\n\n \"probe_minutes\": states(\"input_number.victron_evcs_probe_minutes\"),\n \"probe_retry_minutes\": states(\"input_number.victron_evcs_probe_retry_minutes\"),\n \"probe_current_a\": states(\"input_number.victron_evcs_probe_current_a\"),\n\n \"grid_battery_soft_a\": states(\"input_number.victron_evcs_grid_battery_soft_a\"),\n \"grid_battery_hard_a\": states(\"input_number.victron_evcs_grid_battery_hard_a\"),\n\n \"morning_probe_pv_avg_min_w\": states(\"input_number.victron_evcs_morning_probe_pv_avg_min_w\"),\n \"morning_probe_pv_trend_min_w\": states(\"input_number.victron_evcs_morning_probe_pv_trend_min_w\"),\n \"midday_probe_pv_avg_min_w\": states(\"input_number.victron_evcs_midday_probe_pv_avg_min_w\"),\n \"afternoon_probe_pv_avg_min_w\": states(\"input_number.victron_evcs_afternoon_probe_pv_avg_min_w\"),\n \"afternoon_probe_soc_min\": states(\"input_number.victron_evcs_afternoon_probe_soc_min\"),\n \"afternoon_battery_max_discharge_a\": states(\"input_number.victron_evcs_afternoon_battery_max_discharge_a\"),\n \"morning_soc_min\": states(\"input_number.victron_evcs_morning_soc_min\"),\n \"midday_soc_min\": states(\"input_number.victron_evcs_midday_soc_min\"),\n \"evening_soc_start_min\": states(\"input_number.victron_evcs_evening_soc_start_min\"),\n \"evening_soc_stop_min\": states(\"input_number.victron_evcs_evening_soc_stop_min\"),\n\n \"morning_battery_max_discharge_a\": states(\"input_number.victron_evcs_morning_battery_max_discharge_a\"),\n \"midday_battery_max_discharge_a\": states(\"input_number.victron_evcs_midday_battery_max_discharge_a\"),\n \"evening_battery_max_discharge_a\": states(\"input_number.victron_evcs_evening_battery_max_discharge_a\"),\n\n \"last_block_reason\": states(\"input_text.victron_evcs_last_block_reason\"),\n \"blocked_until\": states(\"input_datetime.victron_evcs_blocked_until\"),\n \"probe_started_at\": states(\"input_datetime.victron_evcs_probe_started_at\"),\n\n \"victron_evcs_strategy\": states(\"input_select.victron_evcs_strategy\"),\n \"evcs_priority_manual_override\": states(\"input_boolean.victron_evcs_priority_manual_override\"),\n \"evcs_priority_manual_mode\": states(\"input_select.victron_evcs_priority_manual_mode\"),\n \"evcs_priority_manual_reason\": states(\"input_text.victron_evcs_priority_manual_reason\"),\n \"evcs_priority_manual_until\": states(\"input_datetime.victron_evcs_priority_manual_until\"),\n\n \"house_spike_grace_minutes\": states(\"input_number.victron_evcs_house_spike_grace_minutes\"),\n \"solar_potential_grace_minutes\": states(\"input_number.victron_evcs_solar_potential_grace_minutes\"),\n \"step_up_cooldown_seconds\": states(\"input_number.victron_evcs_step_up_cooldown_seconds\"),\n \"step_down_cooldown_seconds\": states(\"input_number.victron_evcs_step_down_cooldown_seconds\"),\n \"force_mode_auto_revert_minutes\": states(\"input_number.victron_evcs_force_mode_auto_revert_minutes\"),\n\n \"overload_step_down_a\": states(\"input_number.victron_evcs_overload_step_down_a\"),\n \"overload_hold_seconds\": states(\"input_number.victron_evcs_overload_hold_seconds\"),\n \"overload_stop_after_seconds\": states(\"input_number.victron_evcs_overload_stop_after_seconds\"),\n\n \"batt_discharge_soft_gt90_a\": states(\"input_number.victron_evcs_batt_discharge_soft_gt90_a\"),\n \"batt_discharge_hard_gt90_a\": states(\"input_number.victron_evcs_batt_discharge_hard_gt90_a\"),\n \"batt_charge_reserve_gt90_a\": states(\"input_number.victron_evcs_batt_charge_reserve_gt90_a\"),\n \"batt_soft_tol_gt90_min\": states(\"input_number.victron_evcs_batt_soft_tol_gt90_min\"),\n \"batt_hard_tol_gt90_sec\": states(\"input_number.victron_evcs_batt_hard_tol_gt90_sec\"),\n \"batt_recovery_gt90_min\": states(\"input_number.victron_evcs_batt_recovery_gt90_min\"),\n\n \"batt_discharge_soft_80_90_a\": states(\"input_number.victron_evcs_batt_discharge_soft_80_90_a\"),\n \"batt_discharge_hard_80_90_a\": states(\"input_number.victron_evcs_batt_discharge_hard_80_90_a\"),\n \"batt_charge_reserve_80_90_a\": states(\"input_number.victron_evcs_batt_charge_reserve_80_90_a\"),\n \"batt_soft_tol_80_90_min\": states(\"input_number.victron_evcs_batt_soft_tol_80_90_min\"),\n \"batt_hard_tol_80_90_sec\": states(\"input_number.victron_evcs_batt_hard_tol_80_90_sec\"),\n \"batt_recovery_80_90_min\": states(\"input_number.victron_evcs_batt_recovery_80_90_min\"),\n\n \"batt_discharge_soft_60_80_a\": states(\"input_number.victron_evcs_batt_discharge_soft_60_80_a\"),\n \"batt_discharge_hard_60_80_a\": states(\"input_number.victron_evcs_batt_discharge_hard_60_80_a\"),\n \"batt_charge_reserve_60_80_a\": states(\"input_number.victron_evcs_batt_charge_reserve_60_80_a\"),\n \"batt_soft_tol_60_80_min\": states(\"input_number.victron_evcs_batt_soft_tol_60_80_min\"),\n \"batt_hard_tol_60_80_sec\": states(\"input_number.victron_evcs_batt_hard_tol_60_80_sec\"),\n \"batt_recovery_60_80_min\": states(\"input_number.victron_evcs_batt_recovery_60_80_min\"),\n\n \"batt_discharge_soft_40_60_a\": states(\"input_number.victron_evcs_batt_discharge_soft_40_60_a\"),\n \"batt_discharge_hard_40_60_a\": states(\"input_number.victron_evcs_batt_discharge_hard_40_60_a\"),\n \"batt_charge_reserve_40_60_a\": states(\"input_number.victron_evcs_batt_charge_reserve_40_60_a\"),\n \"batt_soft_tol_40_60_min\": states(\"input_number.victron_evcs_batt_soft_tol_40_60_min\"),\n \"batt_hard_tol_40_60_sec\": states(\"input_number.victron_evcs_batt_hard_tol_40_60_sec\"),\n \"batt_recovery_40_60_min\": states(\"input_number.victron_evcs_batt_recovery_40_60_min\"),\n\n \"batt_discharge_soft_25_40_a\": states(\"input_number.victron_evcs_batt_discharge_soft_25_40_a\"),\n \"batt_discharge_hard_25_40_a\": states(\"input_number.victron_evcs_batt_discharge_hard_25_40_a\"),\n \"batt_charge_reserve_25_40_a\": states(\"input_number.victron_evcs_batt_charge_reserve_25_40_a\"),\n \"batt_soft_tol_25_40_min\": states(\"input_number.victron_evcs_batt_soft_tol_25_40_min\"),\n \"batt_hard_tol_25_40_sec\": states(\"input_number.victron_evcs_batt_hard_tol_25_40_sec\"),\n \"batt_recovery_25_40_min\": states(\"input_number.victron_evcs_batt_recovery_25_40_min\"),\n\n \"batt_discharge_soft_lt25_a\": states(\"input_number.victron_evcs_batt_discharge_soft_lt25_a\"),\n \"batt_discharge_hard_lt25_a\": states(\"input_number.victron_evcs_batt_discharge_hard_lt25_a\"),\n \"batt_charge_reserve_lt25_a\": states(\"input_number.victron_evcs_batt_charge_reserve_lt25_a\"),\n \"batt_soft_tol_lt25_min\": states(\"input_number.victron_evcs_batt_soft_tol_lt25_min\"),\n \"batt_hard_tol_lt25_sec\": states(\"input_number.victron_evcs_batt_hard_tol_lt25_sec\"),\n \"batt_recovery_lt25_min\": states(\"input_number.victron_evcs_batt_recovery_lt25_min\"),\n\n \"evcs_delivery_ratio_ema\": states(\"input_number.victron_evcs_delivery_ratio_ema\"),\n \"evcs_delivery_noise_ema\": states(\"input_number.victron_evcs_delivery_noise_ema\"),\n \"evcs_no_demand_score_ema\": states(\"input_number.victron_evcs_no_demand_score_ema\"),\n \"evcs_no_demand_semantic_active\": states(\"input_boolean.victron_evcs_no_demand_semantic_active\"),\n \"evcs_no_demand_since_at\": states(\"input_datetime.victron_evcs_no_demand_since_at\"),\n \"evcs_no_demand_filter_eval_at\": states(\"input_datetime.victron_evcs_no_demand_filter_eval_at\")\n} | tojson }}\n" } ] },