The `FeedInTariffAkkudoktor` provider uses raw day-ahead market prices from
`https://api.akkudoktor.net/prices` as `feed_in_tariff_wh`. It does not add electricity import
charges or VAT. Published prices are extended to the configured prediction horizon with the same
seasonal ETS or median fallback used by the Akkudoktor electricity-price provider.
The Akkudoktor endpoint currently forwards hourly market prices from aWATTar. With a 15-minute
optimization interval, EOS holds each hourly price constant for its four quarter-hour slots. This
keeps the slot grid consistent but does not create genuine quarter-hour market prices.
Signed-off-by: Andreas Schmitz <akkudoktor.net>
Signed-off-by: Bobby Noelte <b0661n0e17e@gmail.com>
The `FeedInTariffEnergyCharts` provider uses the raw Energy-Charts day-ahead market price as the
feed-in tariff. It stores prices in `feed_in_tariff_wh` without adding electricity import charges
or VAT. The data is loaded from the Energy-Charts `/price` endpoint for the configured bidding
zone. The native Energy-Charts resolution, including quarter-hour data, is retained.
Energy-Charts usually supplies prices only for the published day-ahead period. If that data does
not cover the complete configured prediction horizon, the provider extends it as follows:
- With more than 800 hours of history, an ETS (Holt-Winters exponential smoothing) forecast with
weekly seasonality is used.
- With more than 168 hours of history, an ETS forecast with daily seasonality is used.
- With less history, the median of the available values is used as a constant fallback.
The seasonal periods are adjusted to the source resolution. For example, quarter-hour data uses
four values per hour. Values already supplied by Energy-Charts are kept unchanged; only missing
future slots after the last published price are forecast. Consequently, a 15-minute optimization
uses four forecast values per hour without converting them to hourly averages.
Signed-off-by: Andreas Schmitz <akkudoktor.net>
Signed-off-by: Bobby Noelte <b0661n0e17e@gmail.com>
When running as a Home Assistant add-on the ports shall not be changed
as this would break config.yaml that is used by Home Assistant. Prevent
the change and return an error message.
Extra fixes:
* fix: EOS configuration initialisation by cli under EOSdash.
Signed-off-by: Bobby Noelte <b0661n0e17e@gmail.com>
The akkudoktor api for PV forecast seems to be changed and does not support to
concatenate several planes into one request anymore.
Make a request for every plane and add up the power results. Do not use the
new 15 minutes slots as the returned data does not include the hourly values
for windspeed and temperature as does the hourly slots.
Signed-off-by: Bobby Noelte <b0661n0e17e@gmail.com>
Configuration for some providers was given in the sub-field `provider_settings`
combining the settings of several providers. Pydantic does not understand
this very well and the configuration became cumbersome, especially in EOSdash.
All provider settings from the `provider-settings` sub-field are now lifted
to the top level field of the configuration.
The changes are automatically migrated in the configuration.
Signed-off-by: Bobby Noelte <b0661n0e17e@gmail.com>
These fixes were taken from https://github.com/arneman/EOS/tree/refactor/economic-objective.
1. Fix compaction job registration bug in eos.py:
- compact_eos_database was registered with save_eos_database function
- Now correctly calls compact_eos_database()
- Root cause: compaction/vacuum never ran, allowing records to grow unbounded
2. Optimize db_iterate_records() from O(n) to O(log n):
- Previous: linear scan from index 0 for every key_to_array() call
- Now: uses bisect_left on _db_sorted_timestamps to skip to start position
- Critical for large datasets: 9400 measurement records → 94s/call overhead → 5 calls/optimization
3. Reduce compaction_interval_sec default from 604800s (7 days) to 3600s (1 hour):
- With 7-day interval: 65000 records accumulate before first cleanup
- Bridge pushes ~1 record/9s (grid_export_emr)
- Hourly compaction + 2h data window → stable ~950 records
Signed-off-by: Bobby Noelte <b0661n0e17e@gmail.com>
Rename the German field names of the genetic optimization API to
English with full backward compatibility:
- English names are canonical and documented in the OpenAPI schema;
the German names are still accepted on input via validation aliases
and re-emitted in responses as deprecated computed fields
- fix visualization receiving the raw German-keyed simulation dict
(KeyError: load_wh_per_hour)
- rename internal German identifiers (optimize_ems, total_balance,
battery_residual_value, self_consumption, extra_data keys)
- use amount instead of currency/euro in chart labels and schema
descriptions; document currency handling (whole currency units,
never cents) in the API description
- regenerate openapi.json and generated docs
Co-authored-by: Tobias Welz <tobias.wizneteu@gmail.com>
This PR adds three native PV power forecast providers, giving operators more
cloud forecast sources to choose from via pvforecast.provider, alongside the
existing PVForecastAkkudoktor, PVForecastVrm and PVForecastImport:
PVForecastPVNode — native 15-minute forecasts from the pvnode.com
V2 API. Saved-site mode (GET /v2/forecast/{site_id}) where the operator enters their API key +
site id, or inline mode (POST /v2/forecast/inline) using the configured planes.
PVForecastForecastSolar — the free Forecast.Solar API (no key
required for the public endpoint). Multi-plane systems issue one request per plane and the
instantaneous powers are summed per timestamp.
PVForecastSolcast — the Solcast rooftop-site API (API key + resource id).
Implementation notes
All three populate the existing pvforecast_ac_power (and mirror pvforecast_dc_power)
prediction keys, so they slot into the optimizer unchanged.
Timezone handling: pvnode and Forecast.Solar return site-local wall-clock timestamps with an
IANA timezone field, which are resolved to absolute instants before resampling; Solcast returns
UTC period_end and is normalised to the period start.
Each provider follows the existing provider pattern (provider_id(), _request_forecast() with
@cache_in_file, _update_data()), is registered in pvforecast.py and prediction.py, and is
upstream-neutral.
Validation
27 unit tests (timezone resolution, null/zero handling, kW→W and period-start conversion,
azimuth conversion, multi-plane summation, request URL/auth, HTTP-error handling).
ruff check (F/D/S/bandit) and ruff format clean.
Each provider was additionally validated against its live API with a real plant, confirming
the response shapes (pvnode: 288 native 15-min slots; Forecast.Solar: instantaneous watts;
Solcast: kW estimates with period_end/PT30M).
Documentation
Provider descriptions and configuration examples added to docs/akkudoktoreos/prediction.md.
CHANGELOG.md entry under Unreleased.
Regenerated docs/_generated/configpvforecast.md and configexample.md.
Notes for reviewers
Forecast.Solar's free endpoint is rate-limited (12 req/hour) and Solcast's free tier limits daily
calls; both providers rely on the standard 1-hour cache_in_file TTL to stay within budget.
Authors:
The code is created by Christin. Only minor adaptions by Bobby.
Signed-off-by: Christin <info@bikinibottom.capital>
Signed-off-by: Bobby Noelte <b0661n0e17e@gmail.com>
Co-authored-by: Christin <info@bikinibottom.capital>
FAstAPI is an async framework. Data may be imported and exported, load and save, set and get
asynchronously. Prevent interleaving data operations to corrupt the data. In the previous design
sync and async data access was intermixed leading to data corruption.
The basic data classes DataSequence and DataContainer and the derived classes like Provider and
Measurement now are async. Data access is protected by several async locks.
To support the async design of the data classes the database interface became async.
The energy management is also adapted to the new async design. Optimization is still off-loaded
to another thread, but the prepration for the optimization and the post optimization actions now
follow the async design.
Adapter operations are now also protected by async locks.
Tests were adapted to the async design and new tests were created.
Besides this major fix several other improvements and fixes are included in this PR.
* fix: key_to_dict/list/array only regard data records with key value set.
Before the exclusion of no value data records was only done if the dropna flag was set.
* fix: test for visual result pdf generation
Due to updates in the library the generated charts text was a little bit different.
Adapt the test to create the comaprison pdf in the test data durectory and
update the reference pdf.
* chore: Remove MutableMapping from DataSequence and DataContainer.
Mutable Mapping does not fit to the now async design.
* chore: Add NoDB database backend
This backend implements the full database backend interface but performs
no actual persistence. It is intended for configurations where database
persistence is disabled (`provider=None`).
* chore: Improve measurement data import testing with real world scenarios.
Added two new endpoints to support testing.
* chore: Add mermaid to supported documentation tools
* chore: Add documentation about async design
* chore: Add documentation about generic data handling
Covers the basics of measurement and prediction time series data handling.
* chore: Add empty lines around markdown lists.
* chore: sync pre-commit config to updated package versions
Signed-off-by: Bobby Noelte <b0661n0e17e@gmail.com>