UX-54's Forecast tab (release/1.0) re-plans tomorrow's cheap run as control will, with the gap `required`. It still added the "no weather" x1.5 always, while control (TARIFF-24, from master) drops it when a forecast is read. In the UX-54 scenarios the tab asked 0.225 where control needs 0.15. It now asks `arbitrage.weather_uncertainty(True, c.solar_fc)`, so the two agree again, as they did on release/1.0 alone. Display only; no control change. The tab's blocks in every UX-54 scenario, every 2 h, are identical to release/1.0. test_ux54.py pins it (the old line fails it). The TARIFF-24 DECISIONS note names the tab as the fourth place that reads the rule. Co-Authored-By: Claude <noreply@anthropic.com>
1493 lines
68 KiB
Python
1493 lines
68 KiB
Python
"""Runnable check for UX-54. `python3 test_ux54.py`
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The Forecast tab: today's and tomorrow's solar, the house's expected use and
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each battery's expected level, per hour. It reads the add-on and decides
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nothing. Real `Controller`s in known situations (tools/ux54_scenarios.py).
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1. The hourly shape: what each forecast integration gives, and that the tab
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spreads a state-only total over the bell and says so.
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2. The blocks are the plan's: a block is on the tab exactly where Home has
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one, with its words; tomorrow's come from the same builders; the gate
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(UX-53), modes off and every mode are followed.
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3. The level curve (`daycurve.curve()`): inside floor and ceiling, the right
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way in a charge and a give block, from spare solar and from a shortfall,
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and a fuzz against the invariants.
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4. A part that is not known yet is a note: modes off, no forecast, a lost
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forecast, learning, no tomorrow, a monthly cycle, no level, stopped,
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shadow.
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5. Measured solar (`SolarToday`), and that keeping it can never cost a cycle.
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6. The words, English and Dutch, and the page and its route. Reading it
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asks Home Assistant for nothing and moves nothing in control.
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Mutations (MUTATION.md, purged copies): listed in the pull request.
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"""
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import asyncio
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import dataclasses
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import json
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import logging
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import os
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import random
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import re
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import sys
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import time
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from datetime import datetime, timedelta, timezone
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HERE = os.path.dirname(os.path.abspath(__file__))
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sys.path.insert(0, HERE)
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sys.path.insert(0, os.path.join(HERE, "tools"))
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logging.disable(logging.WARNING)
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import ux54_scenarios as S # noqa: E402
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from app import arbitrage, dayplan, dayview, homeview, modetrade # noqa: E402
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from app import packmode, packshare, peakguard, solarfc, uitext # noqa: E402
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from app.main import pack_energy_of # noqa: E402
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from app.price import Uncertainty # noqa: E402
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from app import daycurve # noqa: E402
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from app.daycurve import Batt, SolarToday, curve # noqa: E402
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from app.peakguard import PeakDecision # noqa: E402
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fails = []
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def check(name, cond):
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print(f" {'ok ' if cond else 'FAIL'} {name}")
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if not cond:
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fails.append(name)
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UTC = timezone.utc
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DAY0 = datetime(2026, 10, 26, 23, 0, tzinfo=UTC) # Tue 27 Oct, local
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KINDS = ("grid", "give", "cycle")
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def at(h, m=0, s=5):
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return DAY0 + timedelta(hours=h, minutes=m, seconds=s)
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def home(c, now, lang="en"):
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return homeview.build(c, level="ok", checks=[], now=now, lang=lang)
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def tab(c, now, lang="en"):
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return dayview.build(c, home(c, now, lang), now, lang)
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def block_key(r):
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return (r["kind"], r["from"], r["to"], r["start_h"], r["end_h"],
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r["what"], r["why"], r["amount"])
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def tab_blocks(out, day=0):
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return [[block_key(r) for r in b["blocks"]]
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for b in out["days"][day]["batteries"]]
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def home_blocks(status, n):
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return [[block_key(r) for r in status["plan"]["runs"]
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if r["battery"] == i and r["kind"] in KINDS] for i in range(n)]
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def notes_of(out, day=0):
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return out["days"][day]["notes"]
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def say(key, lang="en", **v):
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with homeview.in_lang(lang):
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return homeview.day_note(key, **v)
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# --------------------------------------------------------------------------- #
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print("1. the hourly shape")
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# --------------------------------------------------------------------------- #
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now = at(10, 7)
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c = S.make("owner", now)
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fc = c.solar_fc
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out = tab(c, now)
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d = out["days"][0]
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fcs = [h["forecast_kwh"] for h in d["hours"]]
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print(f" owner: {len(c.fc_entities)} + {len(c.fc_tomorrow_entities)} "
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f"state-only sensors, today {fc.today.kwh:.2f} kWh left, tomorrow "
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f"{fc.tomorrow.kwh:.2f}")
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check("the owner's shape (three 'remaining' + three 'tomorrow' sensors) "
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"carries no hourly split: the add-on sums them and uses its bell",
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len(c.fc_entities) == 3 and len(c.fc_tomorrow_entities) == 3
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and fc.today.periods == () and fc.tomorrow.periods == ()
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and abs(fc.tomorrow.kwh - 16.0) < 0.01)
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check("...so the tab says it is an estimate from a daily total, and fades "
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"the bars", d["sun"]["estimate"] is True
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and say("estimate") in notes_of(out)
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and out["days"][1]["sun"]["estimate"] is True)
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check("today the hours still to come add up to what the sensors say is left "
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"(no hour before now)",
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all(f is None for f in fcs[:10])
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and abs(sum(f for f in fcs if f is not None) - fc.today.kwh) < 1e-3)
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tm = [h["forecast_kwh"] for h in out["days"][1]["hours"]]
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check("tomorrow's 24 hours add up to tomorrow's total, are 0 outside 06-20 "
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"and peak at 13:00 (the bell)",
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abs(sum(tm) - fc.tomorrow.kwh) < 0.01
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and all(v == 0 for v in tm[:6] + tm[20:])
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and tm.index(max(tm)) in (12, 13))
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# The day plan reads the same forecast hour by hour with `between(s, e)`;
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# for a state-only forecast that spreads what is left over each span's own
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# tail, so its hours add up to more than the total (a finding in the pull
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# request, not changed here: no control change).
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plan_sum = sum(fc.between(s, e) for s, e, _h in dayplan._hour_slices(
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now, solarfc._bounds(now)[1]))
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print(f" dayplan's own per-hour sum: {plan_sum:.1f} kWh for {fc.today.kwh:.1f} kWh left")
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check("the tab's hours use the span from now (`dayview.sun_kwh()`), not the "
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"plan's per-hour call, and so keep the total",
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abs(dayview.sun_kwh(fc, now, now, solarfc._bounds(now)[1])
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- fc.today.kwh) < 1e-6)
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cp = S.make("periods", now)
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dp = tab(cp, now)["days"]
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check("an hourly split (Open-Meteo's `wh_period`, Solcast's "
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"`detailedForecast`) is used as it is, and the tab does not call it an "
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"estimate",
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cp.solar_fc.today.periods and cp.solar_fc.tomorrow.periods
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and dp[0]["sun"]["estimate"] is False
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and say("estimate") not in dp[0]["notes"]
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and abs(sum(h["forecast_kwh"] for h in dp[1]["hours"])
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- cp.solar_fc.tomorrow.kwh) < 1e-3)
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# Solcast's shape: `detailedForecast` rows, kW per half hour.
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d0 = S.day0_of(now)
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rows = [{"period_start": (d0 + timedelta(minutes=30 * i)).isoformat(),
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"pv_estimate": 4.0 if 20 <= i < 36 else 0.0} for i in range(48)]
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st = {"state": "20.0", "attributes": {"unit_of_measurement": "kWh",
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"detailedForecast": rows},
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"last_updated": now.isoformat(), "last_reported": now.isoformat()}
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sc = solarfc.read_sum([("sensor.solcast", st)], [], now)[0]
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check("Solcast's `detailedForecast` gives a split too (kW per half hour)",
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sc is not None and sc.today.periods and len(sc.today.periods) >= 16)
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check("the forecast the tab reads is the one the controller holds "
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"(`Controller.solar_fc`), read by `solarfc` as the plan reads it",
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out["updated"] == homeview.hhmm(c.solar_fc.at))
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# --------------------------------------------------------------------------- #
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print("\n2. the blocks are the plan's")
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# --------------------------------------------------------------------------- #
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SCN = [("owner", 10.1), ("dynamic", 10.1), ("dynamic", 0.3),
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("dynamic", 18.5), ("sunny", 0.3), ("sunny", 18.5), ("off", 10.1),
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("off", 16.9), ("cycle", 10.1), ("nofc", 10.1), ("stale", 0.3),
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("learning", 0.3), ("periods", 18.5)]
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bad, seen = [], {"grid": 0, "give": 0, "cycle": 0}
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for name, hh in SCN:
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now = at(hh)
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c = S.make(name, now)
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st = home(c, now)
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out = tab(c, now)
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n = len(c.inverters)
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if tab_blocks(out) != home_blocks(st, n):
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bad.append((name, hh))
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for rows in tab_blocks(out):
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for r in rows:
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seen[r[0]] += 1
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print(f" {len(SCN)} scenarios, blocks seen on the tab: {seen}")
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check("today, every battery's blocks on the tab are Home's `runs` of that "
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"battery (grid, give, cycle): same times, same words, no more, no less "
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f"({bad})", not bad and all(v > 0 for v in seen.values()))
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now = at(10, 7)
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c = S.make("dynamic", now)
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d0, d1 = homeview.local_day(now)
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n0, n1 = homeview.local_day(d1 + timedelta(hours=2))
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check("Home's own price blocks for today are `homeview.runs_for()` of "
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"today: one builder, two days",
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[block_key(r) for r in homeview.runs_for(c, d0, d1, now, False)]
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== [block_key(r) for r in home(c, now)["plan"]["runs"]
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if r["kind"] in ("grid", "give")])
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tmr = tab(c, now)["days"][1]["batteries"]
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check("tomorrow's blocks are the same builder over tomorrow's window, read "
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"`ahead` (the level now does not filter a day that has not started)",
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[[block_key(r) for r in b["blocks"]] for b in tmr]
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== [[block_key(r) for r in homeview.runs_for(c, n0, n1, now, False, ahead=True)
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if r["battery"] == i] for i in range(2)])
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# Modes on: Solar first draws no price block; Leftover solar and Cheap hours do.
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c_o = S.make("owner", at(10, 7))
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o = tab(c_o, at(10, 7))
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check("modes on, both batteries Solar first, a day/night tariff (the "
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"owner's shape): no block on either battery, either day, and the "
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"battery says it follows the house",
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all(not b["blocks"] for dd in o["days"] for b in dd["batteries"])
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and all(b["line"] == homeview.run_house_what(False) + " "
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+ homeview.run_house_why(False)
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for b in o["days"][0]["batteries"]))
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c_d = S.make("dynamic", at(10, 7))
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dd = tab(c_d, at(10, 7))["days"][0]["batteries"]
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rp = c_d.mode_runs
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check("Leftover solar and Cheap hours: a give block exactly on the give run "
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"(17:00 to 21:00), on both",
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all([(r["kind"], r["from"], r["to"]) for r in b["blocks"]]
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== [("give", "17:00", "21:00")] for b in dd)
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and rp.give[0].start == at(17, 0, 0) and rp.give[0].end == at(21, 0, 0))
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c_n = S.make("dynamic", at(0, 18))
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nb = tab(c_n, at(0, 18))["days"][0]["batteries"]
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check("in the night before the cheap run both charge from the grid in it "
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"(01:00 to 02:30), then give at 17:00",
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all([r["kind"] for r in b["blocks"]] == ["grid", "give"] for b in nb)
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and all(b["blocks"][0]["from"] == "01:00"
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and b["blocks"][0]["to"] == "02:30" for b in nb))
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# UX-53: no grid block while the gate refuses.
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for why in ("peak", "not_worth"):
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c_n.mode_gate = why
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gb = tab(c_n, at(0, 18))["days"][0]["batteries"]
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check(f"the trade gate refuses ({why}): no grid block on the tab, as on "
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"Home, and the give block stays",
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all([r["kind"] for r in b["blocks"]] == ["give"] for b in gb)
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and tab_blocks(tab(c_n, at(0, 18))) == home_blocks(
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home(c_n, at(0, 18)), 2))
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c_n.mode_gate = None
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def at_h(b, h):
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"""A drawn level at hour `h` of the day, NaN where no point is drawn."""
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return dict((round(x, 3), v) for x, v in b["levels"]).get(h, float("nan"))
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check("the curve charges in a grid block: A (planned level 64 %) and B "
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"(Cheap hours, to the end of its 01:30 run) are well above where they "
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"were at 01:00, and stay put after the run",
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all(at_h(b, 2.5) - at_h(b, 1.0) > 8.0
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and abs(at_h(b, 3.0) - at_h(b, 2.5)) < 1e-6
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for b in nb) and nb[0]["levels"][0][1] == 55.0)
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# Modes off: the verdict's legs.
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c_f = S.make("off", at(10, 7))
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fb = tab(c_f, at(10, 7))
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check("modes off, arbitrage on: the verdict's blocks are Home's, today, and "
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"tomorrow's charge comes from the same builder; no level is drawn",
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[b["kind"] for x in fb["days"][0]["batteries"] for b in x["blocks"]]
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== ["give", "give"]
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and [b["kind"] for x in fb["days"][1]["batteries"]
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for b in x["blocks"]] == ["grid", "grid"]
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and not any(x["levels"] for dd in fb["days"] for x in dd["batteries"]))
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# A battery that is Off has no block and no curve.
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c_d.store.data[S.unit_key("inverter-b", packmode.USE_KEY)] = False
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off = tab(c_d, at(10, 7))["days"][0]["batteries"]
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check("a battery switched Off: no block, no curve, and it says so in the "
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"plan's words",
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off[1]["off"] is True and not off[1]["blocks"] and not off[1]["levels"]
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and off[1]["line"] == homeview.why_words("off")
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and off[0]["levels"])
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# The cycle is a block, and the curve stops where it starts.
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c_c = S.make("cycle", at(10, 7))
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cy = tab(c_c, at(10, 7))
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a0 = cy["days"][0]["batteries"][0]
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check("a monthly cycle waiting today is a block, the level is drawn only "
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"until it starts, and a note says so",
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[r["kind"] for r in a0["blocks"]] == ["give", "cycle"]
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and a0["levels"][-1][0] <= 20.0 + 1e-6
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and say("cycle", name="inverter-a") in notes_of(cy)
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and not cy["days"][1]["batteries"][0]["levels"])
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# --------------------------------------------------------------------------- #
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print("\n3. the level curve")
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# --------------------------------------------------------------------------- #
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T0 = DAY0 + timedelta(hours=9)
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T1 = T0 + timedelta(hours=24)
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def flat(kwh_per_h):
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return lambda a, z: kwh_per_h * (z - a).total_seconds() / 3600.0
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def run(b, sun, use, **kw):
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return curve([b] if isinstance(b, Batt) else b, T0, T1, sun, use,
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floor_pct=20.0, ceiling_pct=95.0, **kw)
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def lv(out, name, h):
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"""The level at `h` hours after T0 (NaN when there is no such point)."""
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return dict(out[name]).get(T0 + timedelta(hours=h), float("nan"))
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B1 = Batt("a", 10.0, 5.0, 50.0, True, False)
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o1 = run(B1, flat(3.0), flat(1.0))
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check("Solar first: 2 kWh of spare solar an hour fills it at 95 % "
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"efficiency, 19 % an hour",
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abs(lv(o1, "a", 1) - 69.0) < 1e-6 and abs(lv(o1, "a", 2) - 88.0) < 1e-6)
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check("...stops at the ceiling (95 %), and stays there", abs(lv(o1, "a", 3)
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- 95.0) < 1e-6
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and max(v for _t, v in o1["a"]) <= 95.0 + 1e-9)
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o2 = run(B1, flat(0.0), flat(1.0))
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check("a shortfall of 1 kWh an hour is given at 95 % efficiency, 10.53 % an "
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"hour", abs(lv(o2, "a", 1) - (50.0 - 100.0 / 9.5)) < 1e-6)
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check("...stops at the floor (20 %), and stays there",
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abs(lv(o2, "a", 6) - 20.0) < 1e-6
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and min(v for _t, v in o2["a"]) >= 20.0 - 1e-9)
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check("a battery already above the ceiling does not charge and one below the "
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"floor does not give",
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lv(run(Batt("a", 10.0, 5.0, 98.0, True, False), flat(3), flat(1)),
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"a", 3) == 98.0
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and lv(run(Batt("a", 10.0, 5.0, 12.0, True, False), flat(0), flat(1)),
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"a", 3) == 12.0)
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slow = run(Batt("a", 10.0, 1.0, 50.0, True, False), flat(5.0), flat(0.0))
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check("the rating caps the rate: 1 kW charges 9.5 % of 10 kWh an hour",
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abs(lv(slow, "a", 1) - 59.5) < 1e-6)
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# Where a giving battery reaches the floor, worked out by hand. 10 kWh at
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# 25 % over a 20 % floor holds 0.05 x 10 x 0.95 = 0.475 kWh to give.
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def floor_at(out, name):
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"""`(seconds after T0, level)` of the first point at the floor."""
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return next(((round((t - T0).total_seconds(), 3), v) for t, v in out[name]
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if abs(v - 20.0) < 1e-9), (None, None))
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fc1 = run(Batt("a", 10.0, 5.0, 25.0, True, False), flat(0.0), flat(2.0))
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check("one battery, 2 kW short: empty at 0.475 / 2 h = 14:15 (855 s), a point "
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f"there at the floor ({floor_at(fc1, 'a')})",
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floor_at(fc1, "a") == (855.0, 20.0))
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fc2 = run([Batt("a", 10.0, 5.0, 25.0, True, False),
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Batt("b", 20.0, 4.0, 80.0, True, False)], flat(0.0), flat(5.0))
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check("two that may give, 5 kW short: shared by what they hold (0.475 : "
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"11.4 kWh), B held to its 4 kW, so A gives 1 kW and is empty at "
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f"28:30 (1710 s) ({floor_at(fc2, 'a')})",
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floor_at(fc2, "a") == (1710.0, 20.0))
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GV1 = ((T0, T0 + timedelta(hours=2)),)
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fc3 = run([Batt("g", 20.0, 2.0, 80.0, False, True, (), GV1),
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Batt("h", 10.0, 5.0, 25.0, True, False)], flat(0.0), flat(2.95))
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check("the second group: G in a give run gives first, at its 2 kW; the 0.95 "
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"kW left goes to H (Solar first), empty at 0.475 / 0.95 h = 30:00 "
|
|
f"(1800 s) ({floor_at(fc3, 'h')})",
|
|
floor_at(fc3, "h") == (1800.0, 20.0))
|
|
fc4 = run([Batt("a", 10.0, 5.0, 25.0, True, False),
|
|
Batt("b", 20.0, 5.0, 80.0, True, False)], flat(0.0), flat(3.0))
|
|
check("shared by what they hold, not by what they can give in a step: 3 kW "
|
|
"short, A (0.475 kWh) and B (11.4 kWh) drain in step and are both "
|
|
"empty when the 11.875 kWh is gone, at 3:57:30 (14250 s) "
|
|
f"({floor_at(fc4, 'a')}, {floor_at(fc4, 'b')})",
|
|
floor_at(fc4, "a") == (14250.0, 20.0)
|
|
and floor_at(fc4, "b") == (14250.0, 20.0))
|
|
fc5 = curve([Batt("a", 10.0, 5.0, 20.0, True, False),
|
|
Batt("b", 20.0, 2.0, 80.0, True, False)], T0,
|
|
T0 + timedelta(hours=4), flat(0.0), flat(7.0), floor_pct=20.0,
|
|
ceiling_pct=95.0)
|
|
check("a battery already at the floor sets no cut: A at 20 %, B held to its "
|
|
"2 kW for 4 h (it holds 11.4 kWh): one point per hour "
|
|
f"({len(fc5['a'])} points)",
|
|
len(fc5["a"]) == 5 and len(fc5["b"]) == 5)
|
|
st_cap, real_max = {}, daycurve.MAX_FLOOR_CUTS
|
|
daycurve.MAX_FLOOR_CUTS = 0
|
|
try:
|
|
fc6 = run(Batt("a", 10.0, 5.0, 25.0, True, False), flat(0.0), flat(2.0),
|
|
stats=st_cap)
|
|
finally:
|
|
daycurve.MAX_FLOOR_CUTS = real_max
|
|
st_ok = {}
|
|
run(Batt("a", 10.0, 5.0, 25.0, True, False), flat(0.0), flat(2.0),
|
|
stats=st_ok)
|
|
check("the curve says when its bound on floor points stopped one (`stats`): "
|
|
f"{st_cap} at a bound of 0, {st_ok} as shipped",
|
|
st_cap == {"floor_cuts": 0, "capped": True}
|
|
and st_ok == {"floor_cuts": 1, "capped": False}
|
|
and floor_at(fc6, "a") == (3600.0, 20.0))
|
|
# Roles.
|
|
GV = ((T0 + timedelta(hours=3), T0 + timedelta(hours=6)),)
|
|
hold = Batt("p", 10.0, 5.0, 60.0, False, True, (), GV)
|
|
oh = run(hold, flat(0.0), flat(1.0))
|
|
check("a price-mode battery holds outside a give run (no give), and gives "
|
|
"inside it",
|
|
lv(oh, "p", 3) == 60.0
|
|
and lv(oh, "p", 6) < 60.0 - 3 * 100.0 / 9.5 + 1e-6 + 0.01
|
|
and lv(oh, "p", 24) == lv(oh, "p", 6))
|
|
oh2 = run(hold, flat(3.0), flat(1.0))
|
|
check("...and charges from spare solar while it holds",
|
|
lv(oh2, "p", 3) > 60.0)
|
|
GR = ((T0 + timedelta(hours=2), T0 + timedelta(hours=4), 80.0),)
|
|
ch = Batt("c", 10.0, 5.0, 40.0, False, True, GR, ())
|
|
oc = run(ch, flat(0.0), flat(0.0))
|
|
check("a grid block charges to its level at the rating (5 kW x 95 %: 47.5 % "
|
|
"an hour on 10 kWh, so 80 % in the first hour), and stops there",
|
|
lv(oc, "c", 2) == 40.0 and abs(lv(oc, "c", 3) - 80.0) < 1e-6
|
|
and lv(oc, "c", 5) == 80.0)
|
|
reach = T0 + timedelta(hours=2, minutes=50, seconds=31.579)
|
|
check("a battery that reaches its grid level inside a step gets a point "
|
|
"there (80 % at 02:50:31, not at the next hour), so the line and the "
|
|
"block end are exact",
|
|
any(abs((t - reach).total_seconds()) < 1.0
|
|
and abs(v - 80.0) < 1e-6 for t, v in oc["c"]))
|
|
two = [Batt("a", 10.0, 5.0, 50.0, True, False),
|
|
Batt("b", 10.0, 5.0, 50.0, False, True)]
|
|
ot = run(two, flat(3.0), flat(1.0))
|
|
check("two batteries: Solar first takes the spare solar first; the other "
|
|
"gets what is left",
|
|
lv(ot, "a", 1) > lv(ot, "b", 1) - 1e-9
|
|
and abs(lv(ot, "a", 1) - 69.0) < 1e-6 and lv(ot, "b", 1) == 50.0)
|
|
big = run(two, flat(8.0), flat(0.0))
|
|
check("...and the other charges once Solar first is at its rating or full",
|
|
lv(big, "b", 1) > 50.0)
|
|
GR2 = ((T0 + timedelta(hours=2), T0 + timedelta(hours=4), 80.0),)
|
|
mix = [Batt("a", 40.0, 5.0, 50.0, True, True, (), ()),
|
|
Batt("b", 10.0, 5.0, 40.0, False, True, GR2, ())]
|
|
om = run(mix, flat(0.0), flat(2.0))
|
|
check("while one battery charges from the grid the others do not charge "
|
|
"(they rest) and Solar first may still give",
|
|
lv(om, "b", 3) > lv(om, "b", 2) and lv(om, "a", 3) < lv(om, "a", 2))
|
|
ends = run(B1, lambda a, z: None if a >= T0 + timedelta(hours=5)
|
|
else flat(3.0)(a, z), flat(1.0))
|
|
check("an unknown sun ends the curve there", ends["a"][-1][0]
|
|
== T0 + timedelta(hours=5) and len(ends["a"]) == 6)
|
|
stop = run(Batt("a", 10.0, 5.0, 50.0, True, False, (), (),
|
|
T0 + timedelta(hours=2)), flat(3.0), flat(1.0))
|
|
check("a monthly cycle ends the battery's curve at its start",
|
|
stop["a"][-1][0] == T0 + timedelta(hours=2))
|
|
check("the curve starts at the battery's level now, at `start`",
|
|
o1["a"][0] == (T0, 50.0) and o2["a"][0] == (T0, 50.0))
|
|
|
|
# A fuzz against the invariants.
|
|
rnd = random.Random(54)
|
|
bad_f = []
|
|
for i in range(300):
|
|
n = rnd.choice((1, 2, 3))
|
|
bs = []
|
|
for k in range(n):
|
|
gs = ()
|
|
gw = ()
|
|
if rnd.random() < 0.5:
|
|
a = rnd.randint(0, 20)
|
|
gs = ((T0 + timedelta(hours=a),
|
|
T0 + timedelta(hours=a + rnd.randint(1, 4)),
|
|
rnd.uniform(40, 95)),)
|
|
if rnd.random() < 0.5:
|
|
a = rnd.randint(0, 20)
|
|
gw = ((T0 + timedelta(hours=a),
|
|
T0 + timedelta(hours=a + rnd.randint(1, 4))),)
|
|
bs.append(Batt(f"b{k}", rnd.uniform(5, 25), rnd.uniform(1, 6),
|
|
rnd.uniform(20, 95), rnd.random() < 0.5,
|
|
rnd.random() < 0.6, gs, gw))
|
|
sun = rnd.uniform(0, 5)
|
|
use = rnd.uniform(0, 3)
|
|
out = run(bs, lambda a, z, s=sun: s * (z - a).total_seconds() / 3600.0,
|
|
lambda a, z, u=use: u * (z - a).total_seconds() / 3600.0)
|
|
for b in bs:
|
|
pts = out[b.name]
|
|
vals = [v for _t, v in pts]
|
|
if min(vals) < 20.0 - 1e-6 or max(vals) > 95.0 + 1e-6:
|
|
bad_f.append(("range", i, b.name))
|
|
for (t1, v1), (t2, v2) in zip(pts, pts[1:]):
|
|
hrs = (t2 - t1).total_seconds() / 3600.0
|
|
if abs(v2 - v1) / 100.0 * b.capacity_kwh > b.rating_kw * hrs \
|
|
/ dayplan.EFF * 1.0001 + 1e-9:
|
|
bad_f.append(("rate", i, b.name))
|
|
# holds, and not in a grid block or a give run: never gives
|
|
in_give = any(s <= t1 < e for s, e in b.give)
|
|
in_grid = any(s <= t1 < e for s, e, _ in b.grid)
|
|
if b.priced and not b.solar_first and not in_give \
|
|
and not in_grid and v2 < v1 - 1e-9:
|
|
bad_f.append(("hold gave", i, b.name))
|
|
# Energy: what the batteries gain never exceeds the sun's spare (net of
|
|
# the grid blocks) at 95 %.
|
|
check(f"a fuzz of 300 days of 1-3 random batteries: every level stays inside "
|
|
f"the floor and ceiling, no step beats the rating, a holding battery "
|
|
f"never gives ({bad_f[:3]})", not bad_f)
|
|
|
|
# On the controllers: inside floor and ceiling, the right way in blocks.
|
|
rows_ok, moves_ok, n_curves = True, True, 0
|
|
for name, hh in SCN:
|
|
now = at(hh)
|
|
c = S.make(name, now)
|
|
out = tab(c, now)
|
|
fl, ce = arbitrage.soc_bounds(c.o)
|
|
for day in out["days"]:
|
|
for b in day["batteries"]:
|
|
n_curves += bool(b["levels"])
|
|
for h_, v in b["levels"]:
|
|
rows_ok &= fl - 1e-6 <= v <= ce + 1e-6
|
|
for r in b["blocks"]:
|
|
inside = [(h_, v) for h_, v in b["levels"]
|
|
if r["start_h"] - 1e-6 <= h_ <= r["end_h"] + 1e-6]
|
|
if len(inside) >= 2 and r["kind"] == "grid":
|
|
moves_ok &= inside[-1][1] >= inside[0][1] - 1e-6
|
|
if len(inside) >= 2 and r["kind"] == "give":
|
|
moves_ok &= inside[-1][1] <= inside[0][1] + 1e-6
|
|
print(f" {n_curves} battery curves checked on the controllers")
|
|
check("on the controllers: every drawn level is inside the floor and the "
|
|
"ceiling", rows_ok and n_curves >= 10)
|
|
check("...and the level rises in a grid block and does not rise in a give "
|
|
"block", moves_ok)
|
|
c_s = S.make("sunny", at(10, 7))
|
|
ls = tab(c_s, at(10, 7))["days"][0]["batteries"][0]["levels"]
|
|
check("a sunny day with Leftover solar: the level climbs by noon and "
|
|
"reaches the ceiling by evening",
|
|
ls[0][1] == c_s.inverters[0].soc and max(v for _h, v in ls) > 85.0)
|
|
|
|
# --------------------------------------------------------------------------- #
|
|
print("\n4. a part that is not known yet is a note")
|
|
# --------------------------------------------------------------------------- #
|
|
|
|
|
|
def no_charts(out):
|
|
return all(not b["levels"] for dd in out["days"]
|
|
for b in dd["batteries"])
|
|
|
|
|
|
c = S.make("off", at(10, 7))
|
|
o = tab(c, at(10, 7))
|
|
check("modes off: a note, no forecast, no house use, no curve",
|
|
say("modes_off") in notes_of(o) and no_charts(o)
|
|
and not o["days"][0]["sun"]["forecast"]
|
|
and not o["days"][0]["sun"]["house"])
|
|
o = tab(S.make("nofc", at(10, 7)), at(10, 7))
|
|
check("no forecast set up: a note, and the price blocks still show",
|
|
say("not_set") in notes_of(o) and no_charts(o)
|
|
and o["days"][0]["batteries"][0]["blocks"])
|
|
o = tab(S.make("stale", at(10, 7)), at(10, 7))
|
|
check("a forecast that is missing or too old: a note, no curve",
|
|
say("no_forecast") in notes_of(o) and no_charts(o))
|
|
o = tab(S.make("learning", at(10, 7)), at(10, 7))
|
|
check("learning (no house profile yet): a note, the sun is drawn, no house "
|
|
"use and no curve",
|
|
say("learning") in notes_of(o) and no_charts(o)
|
|
and o["days"][0]["sun"]["forecast"] and not o["days"][0]["sun"]["house"]
|
|
and all(h["house_kwh"] is None for h in o["days"][0]["hours"]))
|
|
SUN_FROM = f"{int(solarfc.BELL_FROM_H):02d}:00"
|
|
o = tab(S.make("notomorrow", at(10, 7)), at(10, 7))
|
|
tmr = o["days"][1]
|
|
check("no forecast for tomorrow: a note on that day only, naming the hour "
|
|
"the curve really stops (`solarfc.BELL_FROM_H`, the first hour of the "
|
|
"sun: its last point is there); today is whole",
|
|
say("no_tomorrow", at=SUN_FROM) in tmr["notes"]
|
|
and say("no_tomorrow", at=SUN_FROM) not in notes_of(o, 0)
|
|
and not tmr["sun"]["forecast"]
|
|
and abs(tmr["batteries"][0]["levels"][-1][0] - solarfc.BELL_FROM_H) < 1e-6
|
|
and o["days"][0]["batteries"][0]["levels"][-1][0] > 23.0)
|
|
c = S.make("owner", at(10, 7))
|
|
c.inverters[1].soc = None
|
|
o = tab(c, at(10, 7))
|
|
check("a battery with no level reading: a note naming it, no curve for it, "
|
|
"and the other still has one",
|
|
say("no_level", name="inverter-b") in notes_of(o)
|
|
and not o["days"][0]["batteries"][1]["levels"]
|
|
and o["days"][0]["batteries"][0]["levels"])
|
|
c = S.make("owner", at(10, 7))
|
|
c.auto = False
|
|
o = tab(c, at(10, 7))
|
|
check("control stopped: the plan's words, no curve, no block",
|
|
homeview.why_words("stopped") in notes_of(o) and no_charts(o)
|
|
and not o["running"])
|
|
c = S.make("owner", at(10, 7))
|
|
c.o["shadow_mode"] = "on"
|
|
o = tab(c, at(10, 7))
|
|
check("shadow mode: the plan's own shadow sentence is on the tab",
|
|
homeview.why_words("shadow") in notes_of(o))
|
|
c = S.make("owner", at(10, 7))
|
|
check("the levels count on the trust the plan counts on, and the tab says "
|
|
"so", say("trust", pct=70) in notes_of(tab(c, at(10, 7))))
|
|
c.solar_trust_pct = 100
|
|
full = tab(c, at(10, 7))["days"][0]["batteries"][0]["levels"]
|
|
c.solar_trust_pct = 30
|
|
low = tab(c, at(10, 7))["days"][0]["batteries"][0]["levels"]
|
|
check("...a higher trust fills the battery more (the curve uses it)",
|
|
max(v for _h, v in full) > max(v for _h, v in low))
|
|
|
|
# --------------------------------------------------------------------------- #
|
|
print("\n5. measured solar")
|
|
# --------------------------------------------------------------------------- #
|
|
t0 = at(0, 0, 0)
|
|
sd = SolarToday()
|
|
for i in range(0, 3600, 5): # 2 kW for the hour 10:00-11:00
|
|
sd.add(t0 + timedelta(hours=10, seconds=i), 2000.0)
|
|
sd.add(t0 + timedelta(hours=11), 2000.0)
|
|
check("2 kW read all hour is 2.0 kWh for that hour",
|
|
abs(sd.kwh(t0 + timedelta(hours=10), t0 + timedelta(hours=11),
|
|
t0 + timedelta(hours=12)) - 2.0) < 0.02)
|
|
check("the hour in progress is what was made so far (half an hour: 1 kWh)",
|
|
abs(sd.kwh(t0 + timedelta(hours=10), t0 + timedelta(hours=11),
|
|
t0 + timedelta(hours=10, minutes=30)) - 1.0) < 0.05)
|
|
check("an hour with no reading, or under half covered, is not guessed",
|
|
sd.kwh(t0 + timedelta(hours=9), t0 + timedelta(hours=10),
|
|
t0 + timedelta(hours=12)) is None)
|
|
g = SolarToday()
|
|
g.add(t0 + timedelta(hours=10), 1000.0)
|
|
g.add(t0 + timedelta(hours=10, minutes=50), 1000.0) # a gap: 60 s counted
|
|
check("a gap in the readings counts for no more than a minute, so a "
|
|
"restart does not invent energy",
|
|
g.kwh(t0 + timedelta(hours=10), t0 + timedelta(hours=11),
|
|
t0 + timedelta(hours=11)) is None)
|
|
g.add(t0 + timedelta(hours=10, minutes=51), None)
|
|
g.add(t0 + timedelta(hours=10, minutes=52), 1000.0)
|
|
check("no reading ends an interval; a negative reading counts as 0",
|
|
g._last == (t0 + timedelta(hours=10, minutes=52), 1000.0))
|
|
nxt = t0 + timedelta(days=1, hours=1)
|
|
g.add(nxt, 500.0)
|
|
check("a new local day starts again", g.day != (t0).date()
|
|
and g.first == nxt and g._hours == {})
|
|
c = S.make("owner", at(10, 7))
|
|
o = tab(c, at(10, 7))
|
|
got = [h["measured_kwh"] for h in o["days"][0]["hours"]]
|
|
check("on the page: the hours already over have measured solar, the hours "
|
|
"to come do not, tomorrow has none",
|
|
got[9] is not None and got[11] is None and got[0] is not None
|
|
and all(h["measured_kwh"] is None for h in o["days"][1]["hours"]))
|
|
c = S.make("owner", at(10, 7))
|
|
c.solar_today = SolarToday()
|
|
c.solar_today.add(at(8, 0, 0), 1000.0)
|
|
o2 = tab(c, at(10, 7))
|
|
check("the add-on that started at 08:00 says measured solar counts from "
|
|
"then", say("measured_from", at="08:00") in notes_of(o2))
|
|
|
|
|
|
class _Hass:
|
|
def __init__(self):
|
|
self.reads = 0
|
|
|
|
async def state(self, e):
|
|
self.reads += 1
|
|
return {"entity_id": e, "state": "1500",
|
|
"attributes": {"unit_of_measurement": "W"}}
|
|
|
|
|
|
async def _read_pv_with(add):
|
|
c = S.make("owner", at(10, 7))
|
|
c.hass = _Hass()
|
|
c.solar_today.add = add
|
|
await c._read_pv()
|
|
return c.pv_w
|
|
|
|
|
|
def _boom(*_a):
|
|
raise RuntimeError("no")
|
|
|
|
|
|
def _survives():
|
|
try:
|
|
return asyncio.run(_read_pv_with(_boom)) == 1500.0
|
|
except Exception: # noqa: BLE001
|
|
return False
|
|
|
|
|
|
check("a fault in keeping the measured solar never costs the control "
|
|
"cycle its reading (`_read_pv` still returns the total)", _survives())
|
|
|
|
# --------------------------------------------------------------------------- #
|
|
print("\n6. words, page, route; reading asks for nothing and moves nothing")
|
|
# --------------------------------------------------------------------------- #
|
|
en = uitext.words("en")
|
|
nl = uitext.words("nl")
|
|
check("every sentence of the tab has an English and a Dutch form, with the "
|
|
"same placeholders",
|
|
set(en["home_words"]["day"]) == set(nl["home_words"]["day"])
|
|
and all(re.findall(r"\{\w+\}", en["home_words"]["day"][k])
|
|
== re.findall(r"\{\w+\}", nl["home_words"]["day"][k])
|
|
for k in en["home_words"]["day"]))
|
|
now = at(10, 7)
|
|
c = S.make("owner", now)
|
|
oe, on = tab(c, now, "en"), tab(c, now, "nl")
|
|
check("Dutch: the notes, the totals and the blocks are in Dutch, with a "
|
|
"decimal comma",
|
|
on["days"][0]["line"].startswith("Nog verwachte zon vandaag: 14,4 kWh")
|
|
and say("estimate", "nl") in on["days"][0]["notes"]
|
|
and on["days"][1]["line"].startswith("Verwachte zon morgen: 16,0 kWh")
|
|
and oe["days"][0]["line"].startswith("Solar still to come today: 14.4"))
|
|
c = S.make("dynamic", at(0, 18))
|
|
nl_b = tab(c, at(0, 18), "nl")["days"][0]["batteries"][0]["blocks"]
|
|
check("...and so are the plan's words on a block",
|
|
nl_b[0]["what"].startswith("Laadt maximaal") and " %" in nl_b[0]["what"]
|
|
and nl_b[0]["why"].startswith("Goedkoopste uren")
|
|
and nl_b[1]["what"].startswith("Levert tot"))
|
|
check("the language goes back to English after a Dutch build",
|
|
homeview.pill("running") == en["home_words"]["pill"]["running"])
|
|
c = S.make("dynamic", at(10, 7))
|
|
sent = []
|
|
orig_state = c.hass.state
|
|
c.hass.state = lambda *a, **k: sent.append(a) or orig_state(*a, **k)
|
|
snap = lambda: repr((c.mode_tick, c.mode_runs, c._plan_targets, c.arb,
|
|
[(i.soc, i.batt, i.last_write) for i in c.inverters],
|
|
c.mode_gate, c.day_plan))
|
|
before = snap()
|
|
t_a = time.perf_counter()
|
|
for _ in range(10):
|
|
c.forecast_payload("en")
|
|
per = (time.perf_counter() - t_a) / 10 * 1000.0
|
|
print(f" forecast_payload: {per:.1f} ms per build on this machine")
|
|
check("building the tab asks Home Assistant for nothing and changes nothing "
|
|
"control holds (modes, runs, levels, decision, readings)",
|
|
not sent and snap() == before)
|
|
def _broken(c):
|
|
real = dayview.build
|
|
dayview.build = lambda *a, **k: 1 / 0
|
|
logging.disable(logging.CRITICAL)
|
|
try:
|
|
return c.forecast_payload("en")
|
|
finally:
|
|
dayview.build = real
|
|
logging.disable(logging.WARNING)
|
|
|
|
|
|
pay = c.forecast_payload("en")
|
|
check("`Controller.forecast_payload()` gives the tab's JSON, and a fault in "
|
|
"building it gives `ok: false` rather than raising",
|
|
pay.get("ok") is True and len(pay["days"]) == 2
|
|
and _broken(c) == {"ok": False})
|
|
PAGE_SRC = None
|
|
|
|
|
|
async def _serve():
|
|
from aiohttp import web as aioweb, ClientSession
|
|
from app import web
|
|
|
|
class _Sup:
|
|
async def info(self):
|
|
return {"options": {}, "schema": [], "translations": {}}
|
|
c = S.make("owner", datetime.now(UTC))
|
|
runner = aioweb.AppRunner(web.build_app(c, _Sup()))
|
|
await runner.setup()
|
|
site = aioweb.TCPSite(runner, "127.0.0.1", 0)
|
|
await site.start()
|
|
port = site._server.sockets[0].getsockname()[1]
|
|
res = {}
|
|
try:
|
|
async with ClientSession() as s:
|
|
async with s.get(f"http://127.0.0.1:{port}/forecast") as r:
|
|
res["en"] = (r.status, await r.json())
|
|
async with s.get(f"http://127.0.0.1:{port}/forecast?lang=nl-BE") as r:
|
|
res["nl"] = await r.json()
|
|
finally:
|
|
await runner.cleanup()
|
|
return res
|
|
|
|
|
|
try:
|
|
res = asyncio.run(_serve())
|
|
except Exception: # noqa: BLE001
|
|
res = None
|
|
check("GET forecast answers 200 with the tab's JSON, in English by default "
|
|
"and in Dutch with ?lang=nl",
|
|
res is not None and res["en"][0] == 200 and res["en"][1]["ok"] is True
|
|
and res["en"][1]["days"][0]["line"].startswith("Solar still to come")
|
|
and res["nl"]["days"][0]["line"].startswith("Nog verwachte zon"))
|
|
PAGE = open(os.path.join(HERE, "app", "static", "index.html"),
|
|
encoding="utf-8").read()
|
|
JS = open(os.path.join(HERE, "app", "static", "app.js"),
|
|
encoding="utf-8").read()
|
|
check("the page has the Forecast tab between Batteries and Settings, with "
|
|
"its own panel", re.findall(r'data-hash="(\w+)"', PAGE)[:4]
|
|
== ["home", "batteries", "forecast", "settings"]
|
|
and 'id="s-fc"' in PAGE and 'aria-labelledby="t-fc"' in PAGE)
|
|
check("it asks for `forecast?lang=` (relative, for ingress), only while its "
|
|
"screen shows, and sets data as text",
|
|
'fetch("forecast?lang="' in JS and "scheduleForecast" in JS
|
|
and "innerHTML" not in JS)
|
|
labels = set(re.findall(r'''\bt\("(forecast\.[\w.]+)"\)''', JS)) | set(
|
|
re.findall(r'data-t(?:-label)?="(forecast\.[\w.]+)"', PAGE))
|
|
miss = sorted(k for k in labels if not isinstance(
|
|
en["home"]["forecast"].get(k.split(".", 1)[1]), str)
|
|
or not isinstance(nl["home"]["forecast"].get(k.split(".", 1)[1]), str))
|
|
check(f"every label the screen asks for is in both languages ({len(labels)} "
|
|
f"keys; missing {miss})", len(labels) >= 12 and not miss)
|
|
CSS = open(os.path.join(HERE, "app", "static", "app.css"),
|
|
encoding="utf-8").read()
|
|
check("it is readable on a phone: columns flex to the width, the chart has "
|
|
"no fixed pixel width, and the controls are 44 px tall",
|
|
"min-width:0" in CSS and "width:100%" in CSS
|
|
and not re.search(r"\.fc[a-z]*\{[^}]*width:\s*\d{3,}px", CSS)
|
|
and "min-height:44px" in CSS)
|
|
|
|
# --------------------------------------------------------------------------- #
|
|
print("\n7. round 2: a block exists where the add-on will act (F1, F2, F3)")
|
|
# --------------------------------------------------------------------------- #
|
|
Q = timedelta(minutes=15)
|
|
|
|
|
|
def level_at(b, h):
|
|
"""The curve's level at hour `h` of the day the list is for, straight
|
|
between its points (the first level before the curve starts, the last
|
|
after it ends)."""
|
|
pts = b["levels"]
|
|
for (h0, v0), (h1, v1) in zip(pts, pts[1:]):
|
|
if h0 <= h <= h1:
|
|
return v0 if h1 <= h0 else v0 + (v1 - v0) * (h - h0) / (h1 - h0)
|
|
return pts[0][1] if h < pts[0][0] else pts[-1][1]
|
|
|
|
|
|
def night_evening(h):
|
|
"""A cheap night and a dear evening, flat between: one cheap run, one give
|
|
run, nothing the plan of tomorrow evening would add before then."""
|
|
return 0.08 if 1.0 <= h < 5.0 else 0.34 if 17.0 <= h < 21.0 else 0.20
|
|
|
|
|
|
def cut_out_at_floor(c):
|
|
"""Each pack cuts out at the add-on's floor. Home, the plan and the curve
|
|
stop giving there; control stops a pack at its own cut-out (the `pack`
|
|
claim, `packshare.envelope()`). With a lower cut-out a battery in a give
|
|
run covers the house below the floor, which none of them draws
|
|
(DECISIONS, Limits)."""
|
|
floor_, _ceil = arbitrage.soc_bounds(c.o)
|
|
for inv in c.inverters:
|
|
inv.bms_soc_floor = floor_
|
|
|
|
|
|
def may_give(inv):
|
|
"""Control's own answer: is this pack asked to discharge at all?"""
|
|
return packshare.envelope(pack_energy_of(inv)).hi > 0.0
|
|
|
|
|
|
def sweep(name, now0, soc, *, guard=None, until=48.0, sun=None):
|
|
"""Walk the real control cycle (`_mode_roles()`) every 15 minutes from
|
|
`now0` to the end of tomorrow, each battery at the level the tab's curve
|
|
has at that time, and return the tab and the role seen per battery and
|
|
quarter. A GIVE role on a pack that control's discharge envelope closes
|
|
is seen as "closed": the pack is not asked to give. The tab is built
|
|
once, at `now0`."""
|
|
c = S.make(name, now0, soc=soc)
|
|
cut_out_at_floor(c)
|
|
c.tariff_plan = S.quarters(now0, night_evening, days=3)
|
|
c.tariff_at = now0
|
|
if guard is not None:
|
|
c.peak_guard = guard
|
|
if sun is not None:
|
|
c.solar_fc = S.forecast(now0, sun[0], sun[1])
|
|
c._mode_roles(now0, None)
|
|
out = tab(c, now0)
|
|
d0, _d1 = homeview.local_day(now0)
|
|
seen = {inv.name: {} for inv in c.inverters}
|
|
t = now0
|
|
end = d0 + timedelta(hours=until)
|
|
while t < end:
|
|
h = (t - d0).total_seconds() / 3600.0
|
|
for i, inv in enumerate(c.inverters):
|
|
day = out["days"][0 if h < 24 else 1]
|
|
b = day["batteries"][i]
|
|
inv.soc = level_at(b, h if h < 24 else h - 24) if b["levels"] \
|
|
else inv.soc
|
|
c.tariff_at = t
|
|
tick = c._mode_roles(t, None)
|
|
for inv in c.inverters:
|
|
role = tick.roles.get(inv.name)
|
|
seen[inv.name][t] = "closed" if role == modetrade.GIVE \
|
|
and not may_give(inv) else role
|
|
t += Q
|
|
return c, out, seen, d0
|
|
|
|
|
|
def role_at(seen, name, d0, h):
|
|
"""The role seen in the quarter that starts at hour `h` from `d0`."""
|
|
return next((r for t, r in seen[name].items()
|
|
if 0 <= (t - d0).total_seconds() / 3600.0 - h < 0.25), None)
|
|
|
|
|
|
def tomorrow_match(out, seen, d0, role, kind):
|
|
"""Per battery, tomorrow: control has `role` in exactly the quarters the
|
|
tab has a block of `kind` (no quarter outside a block, none of a block
|
|
without it), with no tolerance."""
|
|
for i, name in enumerate(seen):
|
|
blocks = [r for r in out["days"][1]["batteries"][i]["blocks"]
|
|
if r["kind"] == kind]
|
|
quarters = [(t, (t - d0).total_seconds() / 3600.0 - 24.0)
|
|
for t in seen[name] if (t - d0).total_seconds() >= 86400]
|
|
for t, h in quarters:
|
|
acting = seen[name][t] == role
|
|
inside = any(r["start_h"] - 1e-6 <= h < r["end_h"] - 1e-6
|
|
for r in blocks)
|
|
if acting != inside:
|
|
print(" ", name, role, "quarter", round(h, 2),
|
|
"control acts" if acting else "tab has a block",
|
|
[(r["start_h"], r["end_h"]) for r in blocks])
|
|
return False
|
|
return True
|
|
|
|
|
|
t22 = at(22, 0, 5)
|
|
c1, o1, s1, d01 = sweep("dynamic", t22, (20.0, 20.0))
|
|
tm1 = o1["days"][1]["batteries"]
|
|
print(" 22:00, both batteries at 20 %: tomorrow", [[(r["kind"], r["from"], r["to"]) for r in b["blocks"]] for b in tm1])
|
|
check("F1, modes on: at 22:00 with both batteries at 20 % tomorrow's give "
|
|
"block (17:00-21:00) and the night's grid block show on both",
|
|
all([(r["kind"], r["from"]) for r in b["blocks"]]
|
|
== [("grid", "01:00"), ("give", "17:00")]
|
|
and b["blocks"][1]["to"] == "21:00" for b in tm1))
|
|
check("F2: ...and control, walked every 15 minutes through tomorrow at the "
|
|
"level the curve has, gives (role GIVE) exactly in the give block and "
|
|
"charges (role CHARGE) only in the grid block, on both batteries",
|
|
tomorrow_match(o1, s1, d01, modetrade.GIVE, "give")
|
|
and tomorrow_match(o1, s1, d01, modetrade.CHARGE, "grid"))
|
|
check("...and today's blocks are still Home's runs there",
|
|
tab_blocks(o1) == home_blocks(home(c1, t22), 2))
|
|
guard = PeakDecision(engaged=True, floor_w=1000.0, ceiling_w=3500.0,
|
|
ceiling_from="cap", projected_w=3600.0)
|
|
c2, o2, s2, d02 = sweep("dynamic", t22, (20.0, 20.0), guard=guard)
|
|
tm2 = o2["days"][1]["batteries"]
|
|
fl2 = arbitrage.soc_bounds(c2.o)[0]
|
|
print(" peak guard, 20 %: level at 17:00", [level_at(b, 17.0) for b in tm2],
|
|
"floor", fl2, "give runs", [(homeview.hhmm(g.start), homeview.hhmm(g.end))
|
|
for g in c2.mode_runs.give])
|
|
check("F2, the UX-53 gate: while the peak guard holds control never "
|
|
"charges tomorrow and the tab draws no grid block. The give run starts "
|
|
"at 17:00 with the curve at the floor on both (the 3 kWh of sun is "
|
|
"less than the house uses), so no give block, and control's GIVE role "
|
|
"there has its discharge closed",
|
|
c2.mode_gate == "peak"
|
|
and any(homeview.hhmm(g.start) == "17:00" for g in c2.mode_runs.give)
|
|
and all(level_at(b, 17.0) == fl2 for b in tm2)
|
|
and all(not b["blocks"] for b in tm2)
|
|
and all(role_at(s2, n, d02, 41.0) == "closed" for n in s2)
|
|
and tomorrow_match(o2, s2, d02, modetrade.CHARGE, "grid")
|
|
and tomorrow_match(o2, s2, d02, modetrade.GIVE, "give"))
|
|
c2b, o2b, s2b, d02b = sweep("dynamic", t22, (60.0, 60.0), guard=guard)
|
|
check("...with the batteries at 60 % the give block stays and the grid "
|
|
"block does not",
|
|
all([r["kind"] for r in b["blocks"]] == ["give"]
|
|
for b in o2b["days"][1]["batteries"])
|
|
and tomorrow_match(o2b, s2b, d02b, modetrade.CHARGE, "grid")
|
|
and tomorrow_match(o2b, s2b, d02b, modetrade.GIVE, "give"))
|
|
# Low sun, a battery at the floor when the evening give run starts (no grid
|
|
# charge, the peak guard holds): Home's rule draws no give block for it, and
|
|
# control has no energy to give from. A little sun fills it a little: a small
|
|
# block, and control gives from it.
|
|
c4, o4, s4, d04 = sweep("dynamic", t22, (20.0, 20.0), guard=guard,
|
|
sun=(0.0, 0.0))
|
|
check("F1, cloudy day, no grid charge, both batteries at the floor at the "
|
|
"evening give run: no block on either, and control has no energy to "
|
|
"give from (the sweep sees none)",
|
|
all(not b["blocks"] for b in o4["days"][1]["batteries"])
|
|
and tomorrow_match(o4, s4, d04, modetrade.GIVE, "give"))
|
|
c5, o5, s5, d05 = sweep("dynamic", t22, (20.0, 20.0), guard=guard,
|
|
sun=(14.0, 14.0))
|
|
gv5 = [[r for r in b["blocks"] if r["kind"] == "give"]
|
|
for b in o5["days"][1]["batteries"]]
|
|
check("...a bright day fills them: a give block on both, and control gives "
|
|
"in exactly that block",
|
|
all(len(g) == 1 and g[0]["from"] == "17:00" for g in gv5)
|
|
and tomorrow_match(o5, s5, d05, modetrade.GIVE, "give"))
|
|
o3 = [sweep("dynamic", t22, soc) for soc in ((55.0, 40.0), (90.0, 70.0))]
|
|
check("F2: the same with the batteries part full and nearly full at 22:00",
|
|
all(tomorrow_match(x[1], x[2], x[3], modetrade.GIVE, "give")
|
|
and tomorrow_match(x[1], x[2], x[3], modetrade.CHARGE, "grid")
|
|
for x in o3))
|
|
|
|
|
|
# Control walked with its own model of the packs, not the curve's levels:
|
|
# every 15 minutes the real `_mode_roles()`; a battery in CHARGE charges at
|
|
# its rating up to `charge_to()`; spare sun goes to the batteries whose range
|
|
# may charge, by room, up to the ceiling; a shortfall is covered by those
|
|
# whose range may give and whose own discharge envelope is open, by what
|
|
# they hold above the cut-out (at the floor), each at most its rating, what
|
|
# one cannot take passed to the others (a water fill, as the allocator's
|
|
# `_fill()`). The house is the profile the tab reads, the sun the forecast
|
|
# at 100 % trust. Per battery and quarter tomorrow, control charges (gives)
|
|
# exactly where the tab has a grid (give) block, both ways, no tolerance.
|
|
# Each tab build is also measured: the curves' floor cuts (`stats`), the
|
|
# level points per battery and day, and the fastest of five builds.
|
|
def water(amount, caps, weights):
|
|
"""`amount` shared by `weights`, none above its cap, the rest passed on."""
|
|
got = {n: 0.0 for n in caps}
|
|
live = {n for n in caps if caps[n] > 1e-12}
|
|
left = amount
|
|
while left > 1e-12 and live:
|
|
w = sum(weights[n] for n in live)
|
|
if w <= 0.0:
|
|
break
|
|
over = {n for n in live
|
|
if left * weights[n] / w >= caps[n] - got[n] - 1e-12}
|
|
if not over:
|
|
for n in live:
|
|
got[n] += left * weights[n] / w
|
|
break
|
|
for n in over:
|
|
left -= caps[n] - got[n]
|
|
got[n] = caps[n]
|
|
live.discard(n)
|
|
return got
|
|
|
|
|
|
def built(c, now):
|
|
"""The tab, with `(floor cuts, capped, fastest of 5 builds in s)`."""
|
|
stats, real = {}, dayview.curve
|
|
|
|
def counted(*a, **k):
|
|
return real(*a, stats=stats, **k)
|
|
dayview.curve = counted
|
|
try:
|
|
out = tab(c, now)
|
|
cut = (stats.get("floor_cuts", 0), stats.get("capped", False))
|
|
st = home(c, now)
|
|
fast = []
|
|
for _ in range(5):
|
|
t0_ = time.perf_counter()
|
|
dayview.build(c, st, now)
|
|
fast.append(time.perf_counter() - t0_)
|
|
finally:
|
|
dayview.curve = real
|
|
return out, cut + (min(fast),)
|
|
|
|
|
|
def own_walk(soc, *, guard=None, sun=(0.0, 0.0), evening=None, max_w=None):
|
|
now0 = t22
|
|
c = S.make("dynamic", now0, soc=soc)
|
|
cut_out_at_floor(c)
|
|
if max_w is not None:
|
|
for inv in c.inverters:
|
|
inv.max_w = max_w
|
|
if evening is not None:
|
|
c.house_profile = S.profile(now0, evening=evening)
|
|
floor_, ceil_ = arbitrage.soc_bounds(c.o)
|
|
c.tariff_plan = S.quarters(now0, night_evening, days=3)
|
|
c.tariff_at = now0
|
|
if guard is not None:
|
|
c.peak_guard = guard
|
|
c.solar_trust_pct = 100
|
|
c.solar_fc = fc = S.forecast(now0, sun[0], sun[1])
|
|
c._mode_roles(now0, None)
|
|
out, cost = built(c, now0)
|
|
house_w, base_w = c.house_profile.estimator()
|
|
d0, _d1 = homeview.local_day(now0)
|
|
seen = {inv.name: {} for inv in c.inverters}
|
|
t = now0
|
|
while t < d0 + timedelta(hours=48):
|
|
c.tariff_at = t
|
|
tick = c._mode_roles(t, None)
|
|
targets = c.plan_targets()
|
|
packs = {p.name: p for p in c._mode_packs()}
|
|
house = max(house_w(S.brussels(t).hour), base_w) / 1000.0 * 0.25
|
|
net = (dayview.sun_kwh(fc, now0, t, t + Q) or 0.0) - house
|
|
takers, givers = [], []
|
|
for inv in c.inverters:
|
|
role = tick.roles.get(inv.name)
|
|
lo, hi = tick.ranges.get(inv.name, (0.0, 0.0))
|
|
act = None
|
|
if role == modetrade.CHARGE:
|
|
to = modetrade.charge_to(packs[inv.name], ceil_, targets)
|
|
step = min(inv.max_w / 1000.0 * 0.25 * dayplan.EFF,
|
|
max(0.0, to - inv.soc) / 100.0 * inv.capacity_kwh)
|
|
act = "grid" if step > 1e-9 else None
|
|
inv.soc += step / inv.capacity_kwh * 100.0
|
|
else:
|
|
if lo < 0.0 and inv.soc < ceil_:
|
|
takers.append(inv)
|
|
if hi > 0.0 and may_give(inv):
|
|
givers.append(inv)
|
|
act = "give" if role == modetrade.GIVE else None
|
|
seen[inv.name][t] = act
|
|
if net > 0.0:
|
|
room = {i.name: (ceil_ - i.soc) / 100.0 * i.capacity_kwh
|
|
/ dayplan.EFF for i in takers}
|
|
tot = sum(room.values())
|
|
for i in takers:
|
|
part = min(net * room[i.name] / tot, room[i.name],
|
|
i.max_w / 1000.0 * 0.25) if tot > 0.0 else 0.0
|
|
i.soc += part * dayplan.EFF / i.capacity_kwh * 100.0
|
|
elif net < 0.0:
|
|
hold = {i.name: max(0.0, i.soc - floor_) / 100.0 * i.capacity_kwh
|
|
* dayplan.EFF for i in givers}
|
|
got = water(-net, {i.name: min(hold[i.name], i.max_w / 1000.0
|
|
* 0.25) for i in givers}, hold)
|
|
for i in givers:
|
|
i.soc = max(floor_, i.soc - got[i.name] / dayplan.EFF
|
|
/ i.capacity_kwh * 100.0)
|
|
t += Q
|
|
return out, seen, d0, cost
|
|
|
|
|
|
def own_match(out, seen, d0):
|
|
"""`[(name, kind, hour, who)]`: the quarters tomorrow where control and
|
|
the tab disagree (who acts there alone)."""
|
|
bad = []
|
|
for i, name in enumerate(seen):
|
|
for kind in ("grid", "give"):
|
|
blocks = [r for r in out["days"][1]["batteries"][i]["blocks"]
|
|
if r["kind"] == kind]
|
|
for t, a in seen[name].items():
|
|
h = (t - d0).total_seconds() / 3600.0 - 24.0
|
|
if h < 0.0:
|
|
continue
|
|
inside = any(r["start_h"] - 1e-6 <= h < r["end_h"] - 1e-6
|
|
for r in blocks)
|
|
if (a == kind) != inside:
|
|
bad.append((name, kind, round(h, 2),
|
|
"control" if a == kind else "tab"))
|
|
return bad
|
|
|
|
|
|
def give_span(seen, d0, name):
|
|
hs = [(t - d0).total_seconds() / 3600.0 - 24.0
|
|
for t, a in seen[name].items()
|
|
if a == "give" and (t - d0).total_seconds() >= 86400]
|
|
return (round(min(hs), 2), round(max(hs) + 0.25, 2)) if hs else None
|
|
|
|
|
|
own = {}
|
|
for key, soc, g, sun, *more in (("20/20", (20.0, 20.0), None, (0.0, 0.0)),
|
|
("55/40", (55.0, 40.0), None, (0.0, 0.0)),
|
|
("90/70", (90.0, 70.0), None, (0.0, 0.0)),
|
|
("30/80", (30.0, 80.0), None, (0.0, 0.0)),
|
|
("60/60 guard", (60.0, 60.0), guard, (0.0, 0.0)),
|
|
("20/20 guard", (20.0, 20.0), guard, (0.0, 0.0)),
|
|
("30/30 guard", (30.0, 30.0), guard, (0.0, 0.0)),
|
|
("25/45 guard", (25.0, 45.0), guard, (0.0, 0.0)),
|
|
("20/20 guard 14 kWh", (20.0, 20.0), guard,
|
|
(14.0, 14.0)),
|
|
("20/20 guard 6 kWh", (20.0, 20.0), guard,
|
|
(6.0, 6.0)),
|
|
("20/20 8 kWh", (20.0, 20.0), None, (8.0, 8.0)),
|
|
# one battery empty, the other held to its rating
|
|
("30/80 guard 7 kW house", (30.0, 80.0), guard,
|
|
(0.0, 0.0), 7000.0, None),
|
|
("30/80 guard 2 x 3 kW, 3.5 kW house", (30.0, 80.0),
|
|
guard, (0.0, 0.0), 3500.0, 3000.0)):
|
|
evening_, max_w_ = (more + [None, None])[:2]
|
|
o_w, s_w, d_w, cost = own_walk(soc, guard=g, sun=sun, evening=evening_,
|
|
max_w=max_w_)
|
|
pts = max(len(b["levels"]) for d in o_w["days"] for b in d["batteries"])
|
|
own[key] = (o_w, s_w, d_w, own_match(o_w, s_w, d_w), cost, pts)
|
|
print(f" own walk {key}: tab",
|
|
[[(r["kind"], r["from"], r["to"]) for r in b["blocks"]]
|
|
for b in o_w["days"][1]["batteries"]],
|
|
"control gives", {n: give_span(s_w, d_w, n) for n in s_w},
|
|
"mismatched", len(own[key][3]), own[key][3][:4],
|
|
f"| floor cuts {cost[0]}, capped {cost[1]}, {pts} points, "
|
|
f"{cost[2] * 1000:.0f} ms")
|
|
check("F2, control walked with its own model of the packs (not the curve's "
|
|
"levels): in all 13 cases it charges and gives in exactly the quarters "
|
|
"the tab has a block of that kind, on both batteries",
|
|
len(own) == 13 and all(not v[3] for v in own.values()))
|
|
MAX_CUTS, MAX_POINTS, MAX_S = 40, 40, 0.2
|
|
big = {k: (v[4], v[5]) for k, v in own.items() if v[4][1]
|
|
or v[4][0] > MAX_CUTS or v[5] > MAX_POINTS or v[4][2] >= MAX_S}
|
|
check(f"...and every build stays small: at most {MAX_CUTS} floor cuts over "
|
|
f"all its curves, never the curve's bound (`MAX_FLOOR_CUTS`), at most "
|
|
f"{MAX_POINTS} level points per battery and day, and under {MAX_S:g} s "
|
|
f"(the fastest of five builds on this host) {big}",
|
|
all(v[4][0] <= MAX_CUTS and not v[4][1] and v[5] <= MAX_POINTS
|
|
and v[4][2] < MAX_S for v in own.values()))
|
|
o_7, s_7, d_7 = own["30/80 guard 7 kW house"][:3]
|
|
check("...30/80 % with the guard and a 7 kW evening house (A soon empty, B "
|
|
"held to its rating): control gives A 17:00-17:45 and B 17:00-19:45, "
|
|
"and B's give block ends in control's last giving quarter, not at 20:00",
|
|
give_span(s_7, d_7, "inverter-a") == (17.0, 17.75)
|
|
and give_span(s_7, d_7, "inverter-b") == (17.0, 19.75)
|
|
and 19.5 < o_7["days"][1]["batteries"][1]["blocks"][-1]["end_h"]
|
|
<= 19.75)
|
|
o_g, s_g, d_g, _b = own["25/45 guard"][:4]
|
|
check("...25/45 % with the peak guard: control gives 17:00-20:15 on both "
|
|
"(the packs empty in the 20:00 quarter), and the tab's give block "
|
|
"starts at 17:00 and ends inside that quarter, at the curve's floor "
|
|
"point",
|
|
all(give_span(s_g, d_g, n) == (17.0, 20.25) for n in s_g)
|
|
and all([(r["kind"], r["from"]) for r in b["blocks"]] == [("give",
|
|
"17:00")]
|
|
and 20.0 < b["blocks"][0]["end_h"] <= 20.25
|
|
for b in o_g["days"][1]["batteries"]))
|
|
o_6, s_6, d_6, _b = own["20/20 guard 6 kWh"][:4]
|
|
check("...20/20 % with the guard and 6 kWh of sun: control gives 17:00-17:15, "
|
|
"and the tab's give block ends inside that quarter",
|
|
all(give_span(s_6, d_6, n) == (17.0, 17.25) for n in s_6)
|
|
and all(len(b["blocks"]) == 1 and 17.0 < b["blocks"][0]["end_h"] <= 17.25
|
|
for b in o_6["days"][1]["batteries"]))
|
|
fl_g = arbitrage.soc_bounds(S.make("dynamic", t22).o)[0]
|
|
check("...and the curve has a point exactly at the floor where the block "
|
|
"ends (no step end)",
|
|
all([v for h, v in b["levels"] if abs(h - b["blocks"][0]["end_h"])
|
|
< 1e-3] == [fl_g] for b in o_g["days"][1]["batteries"]))
|
|
|
|
|
|
def off_prices(h):
|
|
if 23.0 <= h < 24.0:
|
|
return 0.05
|
|
if 7.0 <= h < 9.0:
|
|
return 0.40
|
|
return 0.20
|
|
|
|
|
|
def off_case(soc):
|
|
now = at(20, 0, 5)
|
|
c = S.make("off", now, soc=soc)
|
|
c.tariff_plan = S.quarters(now, off_prices)
|
|
c.tariff_at = now
|
|
return c, now, tab(c, now), home(c, now)
|
|
|
|
|
|
for soc in ((20.0, 20.0), (60.0, 60.0), (95.0, 95.0)):
|
|
c, now, out, st = off_case(soc)
|
|
tz = S.brussels(now).tzinfo
|
|
v, _why = homeview.trade_verdict(c, c.fresh_tariff_plan(now), now)
|
|
t07 = at(24 + 7, 0, 5)
|
|
c.tariff_at = t07
|
|
v7, _w = homeview.trade_verdict(c, c.fresh_tariff_plan(t07), t07)
|
|
t06 = at(24 + 6, 0, 5)
|
|
c.tariff_at = t06
|
|
v6, _w6 = homeview.trade_verdict(c, c.fresh_tariff_plan(t06), t06)
|
|
check(f"F1, modes off, a charge today at 23:00 and a give tomorrow at "
|
|
f"07:00, batteries at {soc[0]:.0f} %: Home says 'Tomorrow: gives "
|
|
"power at 07:00', the tab draws that give on both batteries, and "
|
|
"the control cycle's own verdict gives at 07:00 and not at 06:00",
|
|
any("07:00" in x for x in st["plan"]["lines"])
|
|
and [[(r["kind"], r["from"]) for r in b["blocks"]]
|
|
for b in out["days"][1]["batteries"]]
|
|
== [[("give", "07:00")]] * 2
|
|
and v7 is not None and v7.dearest.start.astimezone(tz).strftime(
|
|
"%H:%M") == "07:00" and v7.dearest.start <= t07
|
|
and v6 is not None and v6.dearest.start > t06)
|
|
|
|
# Modes off: no forecast is read and no house profile kept, so there is no
|
|
# curve, and tomorrow's blocks are Home's own count (`dayview._counted()`).
|
|
# Control is walked every 15 minutes from 22:00 to the end of tomorrow on a
|
|
# cloudy day (no sun), the packs moved by what control does:
|
|
# `arbitrage.decide()` with the inputs `Controller.cycle()` gives it (the
|
|
# emptiest pack, `trade_power_w()`, the guard's headroom), and between trades
|
|
# each pack above its cut-out covers its share of the house. The tab is
|
|
# built once, at 22:00. Each price extreme is one quarter, so a leg is one
|
|
# quarter: per battery, control charges and gives in exactly the quarters
|
|
# the tab has a block of that kind, in both directions.
|
|
HOUSE_W = 400.0
|
|
|
|
|
|
def one_quarter(cheap, dear):
|
|
"""Prices with one cheap and one dear quarter a day (hours), 0.20 else."""
|
|
return lambda h: 0.12 if h == cheap else 0.45 if h == dear else 0.20
|
|
|
|
|
|
def off_sweep(price_of, now0, soc):
|
|
c = S.make("off", now0, soc=soc)
|
|
cut_out_at_floor(c)
|
|
c.tariff_plan = S.quarters(now0, price_of, days=3)
|
|
c.tariff_at = now0
|
|
# the guard has measured the quarter: 6 kW of charging headroom
|
|
c.peak_guard = dataclasses.replace(c.peak_guard, wanted_w=-6000.0)
|
|
out = tab(c, now0)
|
|
floor_, ceil_ = arbitrage.soc_bounds(c.o)
|
|
d0, _d1 = homeview.local_day(now0)
|
|
seen = {inv.name: {} for inv in c.inverters}
|
|
t = now0
|
|
while t < d0 + timedelta(hours=48):
|
|
c.tariff_at = t
|
|
charge_w, discharge_w = c.trade_power_w(floor_, ceil_)
|
|
d = arbitrage.decide(
|
|
c.fresh_tariff_plan(t), t,
|
|
peak_guard_active=arbitrage.guard_state(c.peak_guard),
|
|
charge_headroom_w=peakguard.charge_headroom_w(c.peak_guard),
|
|
soc=c.pack_floor_soc,
|
|
min_spread_eur_kwh=arbitrage.threshold_eur_kwh(c.o),
|
|
uncertainty=frozenset({Uncertainty.NO_WEATHER}),
|
|
charge_w=charge_w, discharge_w=discharge_w,
|
|
soc_floor_pct=floor_, soc_ceiling_pct=ceil_)
|
|
able = [inv for inv in c.inverters if may_give(inv)]
|
|
for inv in c.inverters:
|
|
cap, act = float(inv.capacity_kwh), None
|
|
if d.action == arbitrage.CHARGE and inv.soc < ceil_:
|
|
act = "grid"
|
|
kw = abs(d.power_w) * inv.max_w / charge_w / 1000.0
|
|
inv.soc = min(ceil_, inv.soc + kw * 0.25 * dayplan.EFF
|
|
/ cap * 100.0)
|
|
elif d.action == arbitrage.DISCHARGE and inv.soc > floor_ \
|
|
and may_give(inv):
|
|
act = "give"
|
|
inv.soc = max(floor_, inv.soc - inv.max_w / 1000.0 * 0.25
|
|
/ dayplan.EFF / cap * 100.0)
|
|
elif d.action is None and inv in able:
|
|
inv.soc = max(floor_, inv.soc - HOUSE_W / len(able) / 1000.0
|
|
* 0.25 / dayplan.EFF / cap * 100.0)
|
|
seen[inv.name][t] = act
|
|
t += Q
|
|
return c, out, seen, d0
|
|
|
|
|
|
def acts(seen, d0, kind):
|
|
"""`{name: [hour, ...]}` tomorrow where control does `kind`."""
|
|
return {name: [round((t - d0).total_seconds() / 3600.0 - 24.0, 2)
|
|
for t, a in row.items() if a == kind
|
|
and (t - d0).total_seconds() >= 86400]
|
|
for name, row in seen.items()}
|
|
|
|
|
|
def off_match(out, seen, d0):
|
|
"""Per battery, tomorrow: control does `kind` in exactly the quarters
|
|
the tab has a block of that kind."""
|
|
for kind in ("grid", "give"):
|
|
got = acts(seen, d0, kind)
|
|
for i, name in enumerate(seen):
|
|
hs = [round(r["start_h"] + 0.25 * k, 2)
|
|
for r in out["days"][1]["batteries"][i]["blocks"]
|
|
if r["kind"] == kind
|
|
for k in range(round((r["end_h"] - r["start_h"]) / 0.25))]
|
|
if hs != got[name]:
|
|
print(" ", name, kind, "tab", hs, "control", got[name])
|
|
return False
|
|
return True
|
|
|
|
|
|
def kinds(out):
|
|
return [[(r["kind"], r["from"], r["to"]) for r in b["blocks"]]
|
|
for b in out["days"][1]["batteries"]]
|
|
|
|
|
|
# A: at the floor, a cheap quarter at 05:00, a dear one at 07:00.
|
|
ca, oa, sa, da = off_sweep(one_quarter(5.0, 7.0), t22, (20.0, 20.0))
|
|
print(" modes off A, 20 %, cheap 05:00, dear 07:00, no sun: tab", kinds(oa),
|
|
"control", acts(sa, da, "grid"), acts(sa, da, "give"))
|
|
check("F2, modes off: both batteries at the floor at 22:00, a charge at "
|
|
"05:00 before the 07:00 give: both blocks on both, and control charges "
|
|
"and gives in exactly those quarters",
|
|
kinds(oa) == [[("grid", "05:00", "05:15"), ("give", "07:00", "07:15")]]
|
|
* 2 and off_match(oa, sa, da))
|
|
# B: the cloudy-day give run. Nothing charges before the give.
|
|
cb, ob, sb, db = off_sweep(one_quarter(13.0, 7.0), t22, (20.0, 20.0))
|
|
print(" modes off B, 20 %, dear 07:00, cheap 13:00, no sun: tab", kinds(ob),
|
|
"control", acts(sb, db, "grid"), acts(sb, db, "give"))
|
|
v_b, _w = homeview.trade_verdict(cb, cb.fresh_tariff_plan(t22), t22)
|
|
check("F2, modes off, cloudy day: both batteries at the floor at 22:00 and "
|
|
"nothing charges before the verdict's 07:00 give: no give block on "
|
|
"either and control never gives; the 13:00 charge block shows and "
|
|
"control charges in exactly that quarter",
|
|
v_b is not None and homeview.hhmm(v_b.dearest.start) == "07:00"
|
|
and kinds(ob) == [[("grid", "13:00", "13:15")]] * 2
|
|
and all(not v for v in acts(sb, db, "give").values())
|
|
and off_match(ob, sb, db))
|
|
check("...and each battery says the add-on plans to give, not that it only "
|
|
"follows the house",
|
|
all(b["line"] == say("give_later")
|
|
for b in ob["days"][1]["batteries"]))
|
|
# D: the same day with B at 60 %: the site gives as one, and not while its
|
|
# emptiest pack is at the floor (`arbitrage.decide()` reads the emptiest).
|
|
cd_, od, sd, dd = off_sweep(one_quarter(13.0, 7.0), t22, (20.0, 60.0))
|
|
print(" modes off D, 20 % and 60 %, dear 07:00, cheap 13:00: tab", kinds(od),
|
|
"control", acts(sd, dd, "grid"), acts(sd, dd, "give"))
|
|
check("F2, modes off: one battery at the floor and one at 60 %: no give block "
|
|
"on either (the site does not give while its emptiest pack is at the "
|
|
"floor) and control gives on neither; the charge blocks match",
|
|
all(not [r for r in b if r[0] == "give"] for b in kinds(od))
|
|
and all(not v for v in acts(sd, dd, "give").values())
|
|
and off_match(od, sd, dd))
|
|
c_dn = S.make("off", t22, soc=(20.0, 60.0))
|
|
c_dn.tariff_plan = S.quarters(t22, one_quarter(13.0, 7.0), days=3)
|
|
c_dn.tariff_at = t22
|
|
od_nl = tab(c_dn, t22, "nl")
|
|
check("...and B, which has energy, is not told it has none: the line names "
|
|
"'a battery' (the emptiest one holds the site back), EN and NL",
|
|
all(b["line"] == say("give_later") for b in od["days"][1]["batteries"])
|
|
and say("give_later").endswith(
|
|
"No block shows while a battery has no energy to give.")
|
|
and all(b["line"] == say("give_later", "nl")
|
|
for b in od_nl["days"][1]["batteries"])
|
|
and say("give_later", "nl").endswith(
|
|
"Er verschijnt geen blok zolang een batterij niets kan leveren."))
|
|
# C: full at 22:00 and a cheap quarter at 01:00: the house uses some first,
|
|
# so control charges then, and the tab has that block.
|
|
cc, oc, sc, dc = off_sweep(one_quarter(1.0, 17.0), t22, (95.0, 95.0))
|
|
print(" modes off C, 95 %, cheap 01:00, dear 17:00, no sun: tab", kinds(oc),
|
|
"control", acts(sc, dc, "grid"), acts(sc, dc, "give"))
|
|
check("F2, modes off: both batteries at the ceiling at 22:00, a cheap "
|
|
"quarter at 01:00 and a dear one at 17:00: the house uses some first, "
|
|
"so control charges at 01:00 and gives at 17:00, in exactly the "
|
|
"quarters the tab has a block",
|
|
kinds(oc) == [[("grid", "01:00", "01:15"), ("give", "17:00", "17:15")]]
|
|
* 2 and off_match(oc, sc, dc))
|
|
|
|
# `trade_runs(ahead=f)` reads each leg at `f(name, kind, start)`.
|
|
n0_, n1_ = homeview.local_day(homeview.local_day(t22)[1] + timedelta(hours=2))
|
|
fl_b, ce_b = arbitrage.soc_bounds(cb.o)
|
|
cb.tariff_at = t22
|
|
|
|
|
|
def legs_at(lv):
|
|
return sorted((r["battery"], r["kind"], r["from"]) for r in
|
|
homeview.runs_for(cb, n0_, n1_, t22, False,
|
|
ahead=lambda _n, k, _s: lv.get(k)))
|
|
|
|
|
|
check("trade_runs(ahead=f): a give leg is read at the level f gives when it "
|
|
"starts (none at the floor), a charge too (none at the ceiling); f "
|
|
"None reads a charge from the floor and a give from the ceiling",
|
|
legs_at({"give": fl_b, "grid": None}) == [(0, "grid", "13:00"),
|
|
(1, "grid", "13:00")]
|
|
and legs_at({"give": 60.0, "grid": ce_b}) == [(0, "give", "07:00"),
|
|
(1, "give", "07:00")]
|
|
and legs_at({}) == sorted([(0, "give", "07:00"), (1, "give", "07:00"),
|
|
(0, "grid", "13:00"), (1, "grid", "13:00")]))
|
|
tm90 = o3[1][1]["days"][1]["batteries"]
|
|
check("F2: a battery already at its planned level when the run starts has no "
|
|
"grid block tomorrow (A at 90 %), the one below it has (B at 70 %); "
|
|
"control charged neither A nor B outside that",
|
|
[r["kind"] for r in tm90[0]["blocks"]] == ["give"]
|
|
and [r["kind"] for r in tm90[1]["blocks"]] == ["grid", "give"])
|
|
# Today: the give run is planned and Home draws no block for an empty battery.
|
|
c_s = S.make("sunny", at(10, 7), soc=(20.0, 20.0))
|
|
st_s = home(c_s, at(10, 7))
|
|
o_s = tab(c_s, at(10, 7))
|
|
check("today: with a give run in the plan and both batteries at the floor "
|
|
"Home draws no give block, the tab equals Home, and it says the "
|
|
"add-on plans to give, never 'No charge or give blocks planned'",
|
|
not [r for r in st_s["plan"]["runs"] if r["kind"] == "give"]
|
|
and c_s.mode_runs.give
|
|
and tab_blocks(o_s) == home_blocks(st_s, 2)
|
|
and all(b["line"] == say("give_later")
|
|
for b in o_s["days"][0]["batteries"]))
|
|
bad_no_blocks = []
|
|
for name, hh in SCN + [("sunny", 10.1), ("dynamic", 22.0)]:
|
|
for soc in ((20.0, 20.0), (55.0, 40.0), (95.0, 95.0)):
|
|
c = S.make(name, at(hh), soc=soc)
|
|
if not c.modes_on:
|
|
continue
|
|
o = tab(c, at(hh))
|
|
for k in (0, 1):
|
|
for b in o["days"][k]["batteries"]:
|
|
if b["line"] == say("no_blocks"):
|
|
d0_, d1_ = homeview.local_day(at(hh))
|
|
lo, hi = (d0_, d1_) if k == 0 else homeview.local_day(
|
|
d1_ + timedelta(hours=2))
|
|
if c.mode_runs is not None and c.mode_runs.on and any(
|
|
g.end > max(at(hh), lo) and g.start < hi
|
|
for g in c.mode_runs.give):
|
|
bad_no_blocks.append((name, hh, soc, k))
|
|
check("'No charge or give blocks planned.' is never said where the run plan "
|
|
f"has a give run in that day ({bad_no_blocks})", not bad_no_blocks)
|
|
|
|
# F3: trust as the plan counts it.
|
|
cap_big = 100.0
|
|
f3 = curve([Batt("a", cap_big, 50.0, 50.0, True, False)], T0,
|
|
T0 + timedelta(hours=1), flat(10.0), flat(2.0), floor_pct=20.0,
|
|
ceiling_pct=95.0, trust=0.7)
|
|
stored = (lv(f3, "a", 1) - 50.0) / 100.0 * cap_big
|
|
plan_sun = 0.7 * dayplan.EFF * max(0.0, 10.0 - 2.0)
|
|
print(f" 10 kWh sun, 2 kWh house, 70 %: curve stores {stored:.3f} kWh, plan {plan_sun:.3f}")
|
|
check("F3: 10 kWh of sun, 2 kWh of house and 70 % trust: the curve stores "
|
|
"5.32 kWh, as the plan counts trust x EFF x (sun - house), not 4.75",
|
|
abs(stored - 5.32) < 1e-6 and abs(plan_sun - 5.32) < 1e-9)
|
|
f3b = curve([Batt("a", cap_big, 50.0, 50.0, True, False)], T0,
|
|
T0 + timedelta(hours=1), flat(1.0), flat(2.0), floor_pct=20.0,
|
|
ceiling_pct=95.0, trust=0.7)
|
|
check("...a shortfall is not scaled by trust (the house needs all of it)",
|
|
abs((50.0 - lv(f3b, "a", 1)) / 100.0 * cap_big - 1.0 / dayplan.EFF)
|
|
< 1e-6)
|
|
c_t = S.make("owner", at(10, 7))
|
|
c_t.solar_trust_pct = 70
|
|
hi_ = tab(c_t, at(10, 7))["days"][0]["batteries"][0]["levels"]
|
|
check("on a controller the curve is built with the plan's trust "
|
|
"(`solar_trust_pct`)", hi_ and max(v for _h, v in hi_) > hi_[0][1])
|
|
|
|
# TARIFF-24 (sync 0.19): the tab extends tomorrow's cheap run as control
|
|
# re-plans it, so it asks control's gap: the cycle cost with a forecast read,
|
|
# not 1.5 x it.
|
|
from app.price import required_spread, uncertainty_of # noqa: E402
|
|
gaps, _plan_real = [], dayview.priceruns.plan
|
|
|
|
|
|
def _spy(*a, **k):
|
|
gaps.append(k.get("required_eur_kwh"))
|
|
return _plan_real(*a, **k)
|
|
|
|
|
|
c_g = S.make("dynamic", at(17, 0))
|
|
dayview.priceruns.plan = _spy
|
|
try:
|
|
tab(c_g, at(17, 0))
|
|
finally:
|
|
dayview.priceruns.plan = _plan_real
|
|
_p = c_g.fresh_tariff_plan(at(17, 0))
|
|
want = required_spread(arbitrage.threshold_eur_kwh(c_g.o),
|
|
uncertainty_of(_p.read.product)
|
|
| arbitrage.weather_uncertainty(True, c_g.solar_fc))
|
|
print(f" dynamic 17:00: the tab's extension asks {gaps}, control needs {want}")
|
|
check("the tab extends tomorrow's cheap run with control's gap (with a "
|
|
"forecast: the cycle cost, not 1.5 x it)",
|
|
c_g.solar_fc is not None and bool(gaps)
|
|
and all(abs(g - want) < 1e-9 for g in gaps)
|
|
and abs(want - arbitrage.threshold_eur_kwh(c_g.o)) < 1e-9)
|
|
|
|
print()
|
|
if fails:
|
|
print(f"{len(fails)} FAILED")
|
|
sys.exit(1)
|
|
print("all passed")
|