Files
Shinebridge/haos-addon/src/main.py
T
retr0 0dbf0266a8 fix: _get_pv_surplus() via grid_power-Aggregat (SDM-630 fix, v1.8.11)
SDM-630 liefert grid_power (negativ=Einspeisung), wurde von active_power-
Logik nicht erfasst. Jetzt einheitlich über grid_power-Aggregat.

Co-Authored-By: Claude Sonnet 4.6 <noreply@anthropic.com>
2026-05-04 11:42:08 +02:00

756 lines
32 KiB
Python
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import json
import logging
import os
import threading
import time
import uuid
from collections import defaultdict, deque
from typing import Any, Dict, List, Optional
from flask import Flask, jsonify, request, send_from_directory
from inverters import INVERTERS
import history
from modbus_client import ModbusReader
from goodwe_client import GoodweReader
from wallbox_client import WallboxReader
from ems_controller import EmsController
from mqtt_publisher import MqttPublisher
from surplus_devices import SurplusDeviceController
logging.basicConfig(
level=logging.INFO,
format="%(asctime)s %(levelname)s %(name)s: %(message)s",
)
log = logging.getLogger(__name__)
CONFIG_PATH = "/data/config.json"
HA_OPTIONS_PATH = "/data/options.json"
WEB_DIR = os.path.join(os.path.dirname(__file__), "web")
app = Flask(__name__, static_folder=WEB_DIR)
# ── Aggregation ───────────────────────────────────────────────
# Welche Sensor-IDs fließen in welchen Aggregat-Bucket (Summe, außer AGG_AVG)
AGG_SENSOR_IDS: Dict[str, List[str]] = {
"total_pv_power": ["pv_power", "pv1_power", "pv2_power", "ppv"],
"total_ac_power": ["ac_power", "ac_power_total"],
"total_energy_today": ["energy_today", "e_day"],
"total_energy_total": ["energy_total", "e_total"],
"grid_power": ["grid_power"],
"grid_import_kwh": ["import_kwh", "e_total_imp"],
"grid_export_kwh": ["export_kwh", "e_total_exp"],
"bat_charge_power": ["bat_charge_power"],
"bat_discharge_power": ["bat_discharge_power"],
"bat_charge_total": ["bat_charge_total", "e_bat_charge_total"],
"bat_discharge_total": ["bat_discharge_total", "e_bat_discharge_total"],
"bat_soc": ["bat_soc", "battery_soc"],
}
AGG_AVG = {"bat_soc"}
# Einzelmessungen am Netzanschlusspunkt — nicht über Geräte summieren,
# sondern den besten Wert nehmen (Goodwe CT-Klemme hat Vorrang vor Proxy)
AGG_FIRST = {"grid_power"}
AGGREGATE_META: Dict[str, Dict[str, str]] = {
"total_pv_power": {"name": "PV Gesamtleistung", "unit": "W", "device_class": "power", "state_class": "measurement", "icon": "mdi:solar-power"},
"total_ac_power": {"name": "AC Gesamtleistung", "unit": "W", "device_class": "power", "state_class": "measurement", "icon": "mdi:flash"},
"total_energy_today": {"name": "Energie Heute Gesamt", "unit": "kWh", "device_class": "energy", "state_class": "total_increasing", "icon": "mdi:solar-power"},
"total_energy_total": {"name": "Energie Gesamt", "unit": "kWh", "device_class": "energy", "state_class": "total_increasing", "icon": "mdi:solar-power"},
"grid_power": {"name": "Netzleistung", "unit": "W", "device_class": "power", "state_class": "measurement", "icon": "mdi:transmission-tower"},
"grid_import_kwh": {"name": "Netzbezug Gesamt", "unit": "kWh", "device_class": "energy", "state_class": "total_increasing", "icon": "mdi:transmission-tower-import"},
"grid_export_kwh": {"name": "Einspeisung Gesamt", "unit": "kWh", "device_class": "energy", "state_class": "total_increasing", "icon": "mdi:transmission-tower-export"},
"bat_charge_power": {"name": "Batterie Ladeleistung Ges.", "unit": "W", "device_class": "power", "state_class": "measurement", "icon": "mdi:battery-plus"},
"bat_discharge_power": {"name": "Batterie Entladeleistung Ges.","unit": "W", "device_class": "power", "state_class": "measurement", "icon": "mdi:battery-minus"},
"bat_charge_total": {"name": "Batterie Ladung Gesamt", "unit": "kWh", "device_class": "energy", "state_class": "total_increasing", "icon": "mdi:battery-plus"},
"bat_discharge_total": {"name": "Batterie Entladung Gesamt", "unit": "kWh", "device_class": "energy", "state_class": "total_increasing", "icon": "mdi:battery-minus"},
"bat_soc": {"name": "Batterie Ladezustand Ø", "unit": "%", "device_class": "battery", "state_class": "measurement", "icon": "mdi:battery"},
}
# ── State ────────────────────────────────────────────────────
class State:
lock = threading.Lock()
mqtt_cfg: Dict[str, Any] = {}
inverters_cfg: List[Dict[str, Any]] = []
inv_data: Dict[str, Dict[str, Any]] = {}
surplus_devices_cfg: List[Dict[str, Any]] = []
z2m_base: str = "zigbee2mqtt"
z2m_devices: List[Dict[str, Any]] = []
_publisher: Optional[MqttPublisher] = None
_surplus_ctrl: Optional[SurplusDeviceController] = None
_surplus_stop: threading.Event = threading.Event()
_surplus_thread: Optional[threading.Thread] = None
_threads: Dict[str, threading.Thread] = {}
_stop_events: Dict[str, threading.Event] = {}
# ── Config ───────────────────────────────────────────────────
def _defaults() -> Dict[str, Any]:
return {
"mqtt_broker": "core-mosquitto",
"mqtt_port": 1883,
"mqtt_user": "",
"mqtt_pass": "",
"price_import": 0.30,
"price_export": 0.08,
"billing_day": 1,
"billing_month": 1,
"tariff_type": "fixed",
"spot_country": "de",
"spot_markup": 0.0,
"spot_chart": True,
"inverters": [],
"surplus_devices": [],
"z2m_base": "zigbee2mqtt",
}
def load_config() -> Dict[str, Any]:
cfg = _defaults()
if os.path.exists(HA_OPTIONS_PATH):
try:
with open(HA_OPTIONS_PATH) as f:
ha = json.load(f)
for k in ("mqtt_broker", "mqtt_port", "mqtt_user", "mqtt_pass"):
if k in ha:
cfg[k] = ha[k]
except Exception as e:
log.warning("HA options Fehler: %s", e)
if os.path.exists(CONFIG_PATH):
try:
with open(CONFIG_PATH) as f:
cfg.update(json.load(f))
except Exception as e:
log.warning("Config-Datei Fehler: %s", e)
return cfg
def save_config():
data = {
"mqtt_broker": State.mqtt_cfg.get("mqtt_broker", ""),
"mqtt_port": State.mqtt_cfg.get("mqtt_port", 1883),
"mqtt_user": State.mqtt_cfg.get("mqtt_user", ""),
"mqtt_pass": State.mqtt_cfg.get("mqtt_pass", ""),
"price_import": State.mqtt_cfg.get("price_import", 0.30),
"price_export": State.mqtt_cfg.get("price_export", 0.08),
"billing_day": State.mqtt_cfg.get("billing_day", 1),
"billing_month": State.mqtt_cfg.get("billing_month", 1),
"tariff_type": State.mqtt_cfg.get("tariff_type", "fixed"),
"spot_country": State.mqtt_cfg.get("spot_country", "de"),
"spot_markup": State.mqtt_cfg.get("spot_markup", 0.0),
"spot_chart": State.mqtt_cfg.get("spot_chart", True),
"inverters": State.inverters_cfg,
"surplus_devices": State.surplus_devices_cfg,
"z2m_base": State.z2m_base,
}
with open(CONFIG_PATH, "w") as f:
json.dump(data, f, indent=2)
# ── Aggregation ───────────────────────────────────────────────
def _compute_aggregates(allow_stale: bool = False) -> Dict[str, float]:
buckets: Dict[str, List[float]] = defaultdict(list)
with State.lock:
for inv_cfg in State.inverters_cfg:
inv_id = inv_cfg["id"]
d = State.inv_data.get(inv_id, {})
if not d.get("values"):
continue
if not allow_stale and not d.get("modbus_ok"):
continue
values = d["values"]
for agg_id, sensor_ids in AGG_SENSOR_IDS.items():
for sid in sensor_ids:
if sid in values:
buckets[agg_id].append(values[sid])
break
result: Dict[str, float] = {}
for agg_id, vals in buckets.items():
if vals:
if agg_id in AGG_AVG:
v = sum(vals) / len(vals)
elif agg_id in AGG_FIRST:
v = vals[0] # ersten (besten) Wert nehmen, nicht summieren
else:
v = sum(vals)
result[agg_id] = round(v, 3)
return result
# ── EMS Hilfsfunktionen ───────────────────────────────────────
def _get_pv_surplus() -> float:
"""PV-Überschuss in Watt. Nutzt grid_power-Aggregat (negativ = Einspeisung)."""
agg = _compute_aggregates(allow_stale=True)
return max(0.0, -agg.get("grid_power", 0.0))
# ── Poll Loop ─────────────────────────────────────────────────
def _poll_loop(inv_cfg: Dict[str, Any], stop: threading.Event):
inv_id = inv_cfg["id"]
model_id = inv_cfg.get("inverter_model", "MIC_1500_TL_X")
inverter = INVERTERS.get(model_id, INVERTERS["MIC_1500_TL_X"])
prefix = inv_cfg.get("mqtt_topic_prefix", f"growatt/{inv_id}")
device_id = f"growatt_{inv_id}"
try:
interval = max(5, int(inv_cfg.get("update_interval", 30)))
port = int(inv_cfg.get("modbus_port", 502))
slave = int(inv_cfg.get("modbus_address", 1))
except (ValueError, TypeError) as e:
log.error("[%s] Ungültige Konfiguration: %s", inv_id, e)
return
host = inv_cfg["modbus_ip"]
ems: Optional[EmsController] = None
if inverter.protocol == "goodwe_udp":
reader = GoodweReader(host=host, family=inverter.goodwe_family)
log.info("[%s] Poll-Loop: %s @ %s (Goodwe UDP/8899) alle %ds",
inv_id, inverter.name, host, interval)
elif inverter.protocol == "kathrein":
reader = WallboxReader(host=host, port=port)
ems = EmsController(
min_pv_power=inv_cfg.get("ems_min_pv", 1400),
pv_timeout_h=inv_cfg.get("ems_timeout", 4.0),
target_hour=inv_cfg.get("ems_target_hour", 6),
phases=inv_cfg.get("ems_phases", 3),
)
log.info("[%s] Poll-Loop: %s @ %s:%s (Kathrein EMS) alle %ds",
inv_id, inverter.name, host, port, interval)
else:
reader = ModbusReader(host=host, port=port, slave=slave)
log.info("[%s] Poll-Loop: %s @ %s:%s alle %ds",
inv_id, inverter.name, host, port, interval)
with State.lock:
if _publisher:
_publisher.register_inverter(inverter, device_id, prefix,
inv_cfg.get("name", inverter.name))
# History aus DB in die In-Memory-Deque laden
hist_data = history.load_recent(inv_id, limit=300)
with State.lock:
d = State.inv_data.setdefault(inv_id, {"poll_count": 0})
hist = d.setdefault("history", {})
for sid, points in hist_data.items():
q = hist.setdefault(sid, deque(maxlen=300))
for pt in points:
q.append(pt)
log.info("[%s] %d Sensoren aus DB geladen", inv_id, len(hist_data))
while not stop.is_set():
t0 = time.time()
values = reader.read(inverter)
# Growatt-Proxy: grid_power aus power_to_grid (nur Einspeisung bekannt)
if values and "grid_power" not in values and "power_to_grid" in values:
values["grid_power"] = -values["power_to_grid"]
# SDM-630-Proxy: total_power = Netzleistung (positiv=Bezug, negativ=Einspeisung)
if values and "grid_power" not in values and "import_kwh" in values and "total_power" in values:
values["grid_power"] = values["total_power"]
# EMS: PV-Überschuss aus anderen Geräten holen und Ladestrom regeln
if ems is not None and values is not None and inv_cfg.get("ems_enabled", True):
pv_surplus = _get_pv_surplus()
# 0x0060 manchmal nicht lesbar → 1 (EV Connected) annehmen,
# damit EMS aktiviert; Wallbox ignoriert Befehle wenn kein Auto da
charging_state = int(values.get("charging_state", 1))
wallbox_power = values.get("total_power", 0.0)
ems_status = ems.update(reader, pv_surplus, charging_state, wallbox_power)
values["ems_status_code"] = float(charging_state)
log.info("[%s] EMS: %s | PV-Überschuss: %.0fW", inv_id, ems_status, pv_surplus)
with State.lock:
d = State.inv_data.setdefault(inv_id, {"poll_count": 0})
if values is not None:
d["values"] = values
d["last_update"] = time.time()
d["modbus_ok"] = True
d["poll_count"] = d.get("poll_count", 0) + 1
hist = d.setdefault("history", {})
now = time.time()
for sid, val in values.items():
q = hist.setdefault(sid, deque(maxlen=300))
q.append((now, val))
history.write_batch(inv_id, now, values)
if _publisher:
_publisher.publish_data(values, prefix)
_publisher.publish_status("online", prefix)
else:
d["modbus_ok"] = False
if _publisher:
_publisher.publish_status("offline", prefix)
# Aggregate nach jedem erfolgreichen Poll neu berechnen und publizieren
if values is not None and _publisher:
agg = _compute_aggregates()
if agg:
_publisher.publish_aggregates(agg)
stop.wait(max(0.0, interval - (time.time() - t0)))
reader.close()
if _publisher:
_publisher.publish_status("offline", prefix)
log.info("[%s] Poll-Loop beendet", inv_id)
def _start_inverter(inv_cfg: Dict[str, Any]):
inv_id = inv_cfg["id"]
_stop_inverter(inv_id)
ev = threading.Event()
_stop_events[inv_id] = ev
t = threading.Thread(target=_poll_loop, args=(inv_cfg, ev), daemon=True, name=f"poll-{inv_id}")
_threads[inv_id] = t
t.start()
def _stop_inverter(inv_id: str):
if inv_id in _stop_events:
_stop_events[inv_id].set()
if inv_id in _threads:
_threads[inv_id].join(timeout=15)
_stop_events.pop(inv_id, None)
_threads.pop(inv_id, None)
def _surplus_loop(stop: threading.Event):
while not stop.wait(30):
ctrl = _surplus_ctrl
if ctrl is None:
continue
surplus = _get_pv_surplus()
ctrl.update(surplus)
def _start_surplus_loop():
global _surplus_stop, _surplus_thread
_surplus_stop.set()
if _surplus_thread and _surplus_thread.is_alive():
_surplus_thread.join(timeout=5)
_surplus_stop = threading.Event()
_surplus_thread = threading.Thread(
target=_surplus_loop, args=(_surplus_stop,), daemon=True, name="surplus-loop"
)
_surplus_thread.start()
def _restart_all():
global _publisher, _surplus_ctrl
for inv_id in list(_threads.keys()):
_stop_inverter(inv_id)
if _publisher:
_publisher.disconnect()
_publisher = MqttPublisher(
broker=State.mqtt_cfg.get("mqtt_broker", "core-mosquitto"),
port=int(State.mqtt_cfg.get("mqtt_port", 1883)),
user=State.mqtt_cfg.get("mqtt_user", ""),
password=State.mqtt_cfg.get("mqtt_pass", ""),
agg_meta=AGGREGATE_META,
)
_publisher.connect()
time.sleep(2)
with State.lock:
devices = State.surplus_devices_cfg
z2m_base = State.z2m_base
_surplus_ctrl = SurplusDeviceController(_publisher, z2m_base)
_surplus_ctrl.set_config(devices, z2m_base)
_start_surplus_loop()
def _on_z2m_devices(topic, payload):
try:
devices_raw = json.loads(payload)
if not isinstance(devices_raw, list):
return
parsed = [
{
"friendly_name": d.get("friendly_name", ""),
"description": (d.get("definition") or {}).get("description", ""),
"type": d.get("type", ""),
}
for d in devices_raw
if d.get("friendly_name") and d.get("friendly_name") != "Coordinator"
]
with State.lock:
State.z2m_devices = parsed
log.info("Z2M: %d Geräte empfangen", len(parsed))
except Exception as e:
log.warning("Z2M bridge/devices Fehler: %s", e)
_publisher.subscribe(f"{z2m_base}/bridge/devices", _on_z2m_devices)
for inv_cfg in State.inverters_cfg:
_start_inverter(inv_cfg)
# ── REST API ──────────────────────────────────────────────────
@app.get("/api/config")
def api_get_config():
with State.lock:
cfg = {**State.mqtt_cfg, "inverters": State.inverters_cfg}
cfg.pop("mqtt_pass", None)
cfg["mqtt_connected"] = _publisher.connected if _publisher else False
return jsonify(cfg)
@app.post("/api/config")
def api_save_config():
data = request.get_json(force=True) or {}
with State.lock:
for k in ("mqtt_broker", "mqtt_port", "mqtt_user"):
if k in data:
State.mqtt_cfg[k] = data[k]
if data.get("mqtt_pass"):
State.mqtt_cfg["mqtt_pass"] = data["mqtt_pass"]
for k in ("price_import", "price_export", "spot_markup"):
if k in data:
State.mqtt_cfg[k] = float(data[k])
for k in ("billing_day", "billing_month"):
if k in data:
State.mqtt_cfg[k] = int(data[k])
for k in ("tariff_type", "spot_country"):
if k in data:
State.mqtt_cfg[k] = str(data[k])
if "spot_chart" in data:
State.mqtt_cfg["spot_chart"] = bool(data["spot_chart"])
save_config()
threading.Thread(target=_restart_all, daemon=True).start()
return jsonify({"ok": True})
@app.get("/api/period-energy")
def api_period_energy():
import datetime
agg = _compute_aggregates(allow_stale=True)
price_import = float(State.mqtt_cfg.get("price_import", 0.30))
price_export = float(State.mqtt_cfg.get("price_export", 0.08))
billing_day = int(State.mqtt_cfg.get("billing_day", 1))
billing_month = int(State.mqtt_cfg.get("billing_month", 1))
tariff_type = str(State.mqtt_cfg.get("tariff_type", "fixed"))
spot_country = str(State.mqtt_cfg.get("spot_country", "de"))
spot_markup = float(State.mqtt_cfg.get("spot_markup", 0.0)) # ct/kWh
result = {
"price_import": price_import,
"price_export": price_export,
"tariff_type": tariff_type,
"spot_chart": bool(State.mqtt_cfg.get("spot_chart", True)),
}
MONTHS_DE = ["","Jan","Feb","Mär","Apr","Mai","Jun","Jul","Aug","Sep","Okt","Nov","Dez"]
now_ts = time.time()
for period_type in ("monthly", "yearly"):
key = history.period_key(period_type, billing_day, billing_month)
entry = {}
# Perioden-Startzeitpunkt für Spot-Preisabfrage
if period_type == "monthly":
pd = datetime.date.fromisoformat(key + "-01")
entry["label"] = f"{MONTHS_DE[pd.month]} {pd.year}"
else:
pd = datetime.date.fromisoformat(key)
end_d = datetime.date(pd.year + 1, billing_month, billing_day) if billing_month != 1 or billing_day != 1 \
else datetime.date(pd.year + 1, 1, 1)
entry["label"] = f"{pd.strftime('%d.%m.%Y')} {(end_d - datetime.timedelta(days=1)).strftime('%d.%m.%Y')}"
pd_start_ts = datetime.datetime.combine(pd, datetime.time.min).timestamp()
for agg_id in ("grid_import_kwh", "grid_export_kwh",
"bat_discharge_total", "bat_charge_total",
"total_energy_total"):
cur = agg.get(agg_id)
if cur is None:
continue
history.save_period_start_if_new(agg_id, period_type, key, cur)
val = history.get_period_consumption(agg_id, period_type, key, cur)
if val is not None:
entry[agg_id] = round(val, 2)
# Effektiver Importpreis (Festpreis oder Börsenpreis)
eff_price = price_import
if tariff_type == "spot":
avg_ct = _get_avg_spot_price(pd_start_ts, now_ts, spot_country)
if avg_ct is not None:
eff_price = (avg_ct + spot_markup) / 100
entry["spot_avg_ct"] = avg_ct
entry["spot_markup_ct"] = spot_markup
entry["effective_price"]= round(eff_price, 4)
if "grid_import_kwh" in entry:
entry["import_cost"] = round(entry["grid_import_kwh"] * eff_price, 2)
if "grid_export_kwh" in entry:
entry["export_revenue"] = round(entry["grid_export_kwh"] * price_export, 2)
# Eigenverbrauch-Ersparnis: PV_gesamt Einspeisung = alles was selbst verbraucht wurde
# (Direktverbrauch + Batterie-Umweg). Fällt PV nicht verfügbar: nur Batterie-Entladung.
pv_total = entry.get("total_energy_total")
grid_exp = entry.get("grid_export_kwh")
bat_dch = entry.get("bat_discharge_total")
if pv_total is not None and grid_exp is not None:
savings = round(max(0.0, pv_total - grid_exp), 2)
entry["savings_kwh"] = savings
entry["savings_eur"] = round(savings * eff_price, 2)
elif bat_dch is not None:
entry["savings_kwh"] = bat_dch
entry["savings_eur"] = round(bat_dch * eff_price, 2)
result[period_type] = entry
return jsonify(result)
@app.get("/api/z2m-devices")
def api_z2m_devices():
with State.lock:
return jsonify(State.z2m_devices)
@app.get("/api/surplus-devices")
def api_get_surplus_devices():
with State.lock:
devices = State.surplus_devices_cfg
z2m_base = State.z2m_base
states = _surplus_ctrl.get_states() if _surplus_ctrl else {}
surplus_w = _get_pv_surplus()
return jsonify({"devices": devices, "z2m_base": z2m_base, "states": states, "surplus_w": surplus_w})
@app.post("/api/surplus-devices")
def api_save_surplus_devices():
data = request.get_json(force=True) or {}
devices = data.get("devices", [])
z2m_base = str(data.get("z2m_base", "zigbee2mqtt")).strip() or "zigbee2mqtt"
if not isinstance(devices, list):
return jsonify({"error": "invalid"}), 400
for dev in devices:
if not isinstance(dev, dict) or not dev.get("z2m_name"):
return jsonify({"error": "z2m_name fehlt"}), 400
if "id" not in dev:
dev["id"] = uuid.uuid4().hex[:8]
with State.lock:
State.surplus_devices_cfg = devices
State.z2m_base = z2m_base
save_config()
if _surplus_ctrl:
_surplus_ctrl.set_config(devices, z2m_base)
return jsonify({"ok": True})
@app.get("/api/inverters-config")
def api_get_inverters():
with State.lock:
return jsonify(State.inverters_cfg)
@app.post("/api/inverters-config")
def api_save_inverters():
data = request.get_json(force=True) or []
if not isinstance(data, list):
return jsonify({"error": "invalid"}), 400
for inv in data:
if not isinstance(inv, dict):
return jsonify({"error": "invalid"}), 400
model_id = inv.get("inverter_model")
if model_id not in INVERTERS:
return jsonify({"error": f"unknown model: {model_id}"}), 400
inverter_def = INVERTERS[model_id]
if inverter_def.protocol == "modbus":
port = inv.get("modbus_port", 502)
if not isinstance(port, int) or not (1 <= port <= 65535):
return jsonify({"error": "invalid port"}), 400
addr = inv.get("modbus_address", 1)
if not isinstance(addr, int) or not (1 <= addr <= 247):
return jsonify({"error": "invalid modbus address (1-247)"}), 400
with State.lock:
State.inverters_cfg = data
save_config()
threading.Thread(target=_restart_all, daemon=True).start()
return jsonify({"ok": True})
@app.get("/api/data")
def api_get_data():
with State.lock:
result = {}
for inv_cfg in State.inverters_cfg:
inv_id = inv_cfg["id"]
model_id = inv_cfg.get("inverter_model", "MIC_1500_TL_X")
inverter = INVERTERS.get(model_id, INVERTERS["MIC_1500_TL_X"])
d = State.inv_data.get(inv_id, {})
cutoff = time.time() - 300
raw_hist = d.get("history", {})
history = {
sid: [v for (t, v) in q if t >= cutoff]
for sid, q in raw_hist.items()
}
result[inv_id] = {
"name": inv_cfg.get("name", inverter.name),
"inverter_name": inverter.name,
"values": d.get("values", {}),
"history": history,
"sensors": [
{"id": s.id, "name": s.name, "unit": s.unit,
"icon": s.icon, "device_class": s.device_class}
for s in inverter.sensors
],
"last_update": d.get("last_update"),
"modbus_ok": d.get("modbus_ok", False),
"poll_count": d.get("poll_count", 0),
}
mqtt_ok = _publisher.connected if _publisher else False
aggregates = _compute_aggregates()
return jsonify({"inverters": result, "mqtt_ok": mqtt_ok, "aggregates": aggregates})
@app.get("/api/history")
def api_get_history():
inv_id = request.args.get("inv_id", "")
sensor_id = request.args.get("sensor_id", "")
hours = min(float(request.args.get("hours", "24")), 24 * 7)
if not inv_id or not sensor_id:
return jsonify({"error": "inv_id and sensor_id required"}), 400
to_ts = time.time()
from_ts = to_ts - hours * 3600
rows = history.query(inv_id, sensor_id, from_ts, to_ts)
return jsonify([{"ts": t, "value": v} for t, v in rows])
@app.get("/api/inverter-models")
def api_get_models():
return jsonify({
k: {"id": v.id, "name": v.name, "sensor_count": len(v.sensors)}
for k, v in INVERTERS.items()
})
@app.post("/api/new-id")
def api_new_id():
return jsonify({"id": uuid.uuid4().hex[:8]})
@app.get("/api/export-config")
def api_export_config():
with State.lock:
data = {
"shinebridge_export": True,
"version": 1,
"exported_at": time.strftime("%Y-%m-%dT%H:%M:%SZ", time.gmtime()),
"mqtt": {
"broker": State.mqtt_cfg.get("mqtt_broker", ""),
"port": State.mqtt_cfg.get("mqtt_port", 1883),
"user": State.mqtt_cfg.get("mqtt_user", ""),
},
"inverters": State.inverters_cfg,
}
from flask import Response
filename = f"shinebridge-config-{time.strftime('%Y%m%d-%H%M%S')}.json"
return Response(
json.dumps(data, indent=2, ensure_ascii=False),
mimetype="application/json",
headers={"Content-Disposition": f'attachment; filename="{filename}"'},
)
@app.post("/api/import-config")
def api_import_config():
data = request.get_json(force=True) or {}
if not data.get("shinebridge_export"):
return jsonify({"error": "Keine gültige ShineBridge-Export-Datei"}), 400
inverters = data.get("inverters", [])
if not isinstance(inverters, list):
return jsonify({"error": "inverters ungültig"}), 400
for inv in inverters:
if not inv.get("modbus_ip"):
return jsonify({"error": f"modbus_ip fehlt in Gerät {inv.get('name', '?')}"}), 400
if inv.get("inverter_model") not in INVERTERS:
return jsonify({"error": f"Unbekanntes Modell: {inv.get('inverter_model')}"}), 400
with State.lock:
if mqtt := data.get("mqtt"):
if mqtt.get("broker"):
State.mqtt_cfg["mqtt_broker"] = mqtt["broker"]
if mqtt.get("port"):
State.mqtt_cfg["mqtt_port"] = int(mqtt["port"])
if mqtt.get("user"):
State.mqtt_cfg["mqtt_user"] = mqtt["user"]
State.inverters_cfg = inverters
save_config()
threading.Thread(target=_restart_all, daemon=True).start()
return jsonify({"ok": True, "inverters": len(inverters)})
_hist_spot_cache: Dict[str, Any] = {} # key → {"ts", "avg_ct"}
def _get_avg_spot_price(start_ts: float, end_ts: float, country: str = "de") -> Optional[float]:
"""Durchschnittlicher EPEX-SPOT-Preis (ct/kWh) für einen Zeitraum. None bei Fehler."""
import urllib.request as _ur
cache_key = f"{country}-{int(start_ts//3600)}-{int(end_ts//3600)}"
now = time.time()
cached = _hist_spot_cache.get(cache_key)
if cached and now - cached["ts"] < 3600:
return cached["avg_ct"]
try:
url = (f"https://api.awattar.{country}/v1/marketdata"
f"?start={int(start_ts*1000)}&end={int(end_ts*1000)}")
with _ur.urlopen(url, timeout=10) as r:
raw = json.loads(r.read())
prices = [d["marketprice"] / 10 for d in raw.get("data", [])]
if not prices:
return None
avg = round(sum(prices) / len(prices), 2)
_hist_spot_cache[cache_key] = {"ts": now, "avg_ct": avg}
return avg
except Exception as e:
log.warning("Historischer Spot-Preis Fehler: %s", e)
return None
_spot_cache: Dict[str, Any] = {"ts": 0.0, "data": []}
_SPOT_TTL = 900 # 15 Minuten
@app.get("/api/spot-price")
def api_spot_price():
import urllib.request as _ur
global _spot_cache
now = time.time()
if now - _spot_cache["ts"] < _SPOT_TTL and _spot_cache["data"]:
return jsonify({"ok": True, "data": _spot_cache["data"]})
try:
with _ur.urlopen("https://api.awattar.de/v1/marketdata", timeout=8) as r:
raw = json.loads(r.read())
entries = [
{"ts": int(d["start_timestamp"] // 1000), "price": round(d["marketprice"] / 10, 2)}
for d in raw.get("data", [])
]
_spot_cache = {"ts": now, "data": entries}
return jsonify({"ok": True, "data": entries})
except Exception as e:
log.warning("Spot-Price API Fehler: %s", e)
return jsonify({"ok": False, "data": _spot_cache.get("data", [])})
@app.get("/")
def index():
return send_from_directory(WEB_DIR, "index.html")
@app.get("/<path:filename>")
def static_files(filename):
return send_from_directory(WEB_DIR, filename)
# ── Startup ───────────────────────────────────────────────────
if __name__ == "__main__":
history.init_db()
cfg = load_config()
with State.lock:
State.mqtt_cfg = {k: cfg[k] for k in
("mqtt_broker", "mqtt_port", "mqtt_user", "mqtt_pass")}
State.inverters_cfg = cfg.get("inverters", [])
State.surplus_devices_cfg = cfg.get("surplus_devices", [])
State.z2m_base = cfg.get("z2m_base", "zigbee2mqtt")
if not State.inverters_cfg and cfg.get("modbus_ip"):
State.inverters_cfg = [{
"id": uuid.uuid4().hex[:8],
"name": cfg.get("inverter_model", "MIC_1500_TL_X").replace("_", " "),
"modbus_ip": cfg["modbus_ip"],
"modbus_port": cfg.get("modbus_port", 502),
"modbus_address": cfg.get("modbus_address", 1),
"inverter_model": cfg.get("inverter_model", "MIC_1500_TL_X"),
"mqtt_topic_prefix": cfg.get("mqtt_topic_prefix", "growatt/shinelanx"),
"update_interval": cfg.get("update_interval", 30),
}]
save_config()
_restart_all()
port = int(os.environ.get("INGRESS_PORT", "8099"))
log.info("Web UI startet auf Port %d", port)
app.run(host="0.0.0.0", port=port, threaded=True)