Electricity, net export (generation less own use)
Activity Waste incineration with energy recovery (mixed MSW, moving grate, heat-oriented CHP), RER: the inventory of 1 kilowatt hour of its reference product, attributional, cut-off.
What it is
Per 1 t of mixed municipal solid waste (wet) burnt on a moving grate in an EU plant at BAT, with a heat recovery boiler, a back-pressure turbine and 1.7 bar(a) steam to a district-heating exchanger, semi-wet lime FGC, SNCR and activated carbon. Net electricity and net heat are the products; the waste arrives burden-free. Waste composition, energy, reagents, residues and air emissions from the WI BREF (2019) ranges; N2O and CH4 from IPCC 2006 (Vol. 5 and Vol. 2).
- Reference product
- 1 kilowatt hour of Electricity, net export (generation less own use)
- CAS
- not available
- Code
- waste-incineration-1:msw-incineration-grate-chp:product:electricity
- Dataset
- msw-incineration-grate-chp version 0.1.0 · UUID 4fd62852-b8bd-52c1-8cd0-75fef52aea97
- Activity UUID
- not available (the library assigns none; use the code)
- Database
- cheme-as-code-atlas-preview-a3c52e4 (version preview-a3c52e4)
- Process
- Waste incineration with energy recovery (mixed MSW, moving grate, heat-oriented CHP)
- Geography
- RER · background inputs with a site rule link at the user's site location (default DE)
- Time period
- 2001 · valid until 2019
- Technology
- moving grate (about 90 % of European MSW installations), 40 bar steam, back-pressure CHP, semi-wet FGC with quicklime, SNCR with ammonia water, activated carbon injection, bag filter · level current
- Boundary
- gate-to-gate: waste bunker, grate furnace and boiler, turbine, flue-gas cleaning; up to the residues leaving the site, the electricity at the plant fence and the 1.7 bar(a) steam delivered to the district-heating exchanger (the exchanger and the network are outside)
- Classification
- ISIC Rev.4 3821, 3822 (taxonomy/families.yaml (ISIC Rev.4) of the process's families)
- System model
- attributional, cut-off (docs/system-model.md, methodology 1.1.0)
- Allocation
- exergy, 49.3 % of the dataset to this product (rule deviation, from mappings)Net electricity and net heat of one CHP steam cycle, not the products of one separation, so hierarchy step 2a (physical-exergy) does not name this case. docs/system-model.md section 2 allocates exported heat as a co-product by energy or exergy, documented per process, never credited. Exergy is chosen because the two leave in different thermodynamic qualities (work, and heat as condensing 1.7 bar(a) steam at 115 degC to the district-heating exchanger, the boundary), which energy content would treat as equal. The products are in kWh, so the WBCSD price-ratio rule (per kg) does not apply. Exergy per kWh is in the dataset's product properties (electricity 3600 kJ; heat the Carnot factor at the boundary temperature).
- Rights
- CC-BY-4.0
Exchanges per 1 kilowatt hour of Electricity, net export (generation less own use)
As exported: allocated and scaled to the reference product. Provenance: 6 given, 16 calculated. Pedigree scores (1 best, 5 worst): reliability, completeness, temporal correlation, geographical correlation, further technological correlation.
| Input | Amount | Unit | Provenance | Pedigree | Linked to |
|---|---|---|---|---|---|
| Natural gas (as methane) to the support burners feed:natural-gas EU JRC (2019) WI BREF, EUR 29971 EN, doi:10.2760/761437, section 3.7.2.3, p. 287, times the density of methane; start-up, shutdown and temperature support fuel, LHV 50.01 MJ/kg | 0.01651 | kilogram | given | 3 4 4 3 3 | Atlas: natural gas, per kg, as methane (Atlas unit proxy) (natural gas, by mass, GLO) |
| Quicklime (CaO) for semi-wet flue-gas cleaning feed:quicklime EU JRC (2019) WI BREF, EUR 29971 EN, doi:10.2760/761437, section 4.5.3.2, Table 4.23, p. 387; slaking and slurry water not counted (TODO) | 0.01597 | kilogram | given | 3 4 4 3 3 | Atlas (pinned): Quicklime by calcination of limestone in a natural-gas-fired parallel flow regenerative kiln (Calcium oxide, Quicklime, high-calcium, lump (counted as CaO), RER) compatible: grade the input names no chemical only; calcium-oxide (Calcium oxide, Quicklime, high-calcium, lump (counted as CaO)) is taken; unit kilogram; system model cutoff (one database); allocation mass (deviation); boundary plant gate (pinned): no distribution or losses; the consumer's dataset counts its delivery |
| Ammonia (NH3 content of 25 % ammonia water) for SNCR feed:ammonia EU JRC (2019) WI BREF, EUR 29971 EN, doi:10.2760/761437, section 3.7.2.2, p. 286, times the NH3 fraction; the dilution water is not counted (TODO) | 0.001057 | kilogram | given | 3 4 4 3 3 | Atlas (pinned): Ammonia from natural gas (1500 t/d, steam reforming with air-fed secondary reformer, Haber-Bosch loop) (Liquid ammonia product (refrigerated, to the battery limit), NL) compatible: grade the input names ammonia only; ammonia (Liquid ammonia product (refrigerated, to the battery limit)) is taken; unit kilogram; system model cutoff (one database); allocation exergy (deviation); boundary plant gate (pinned): no distribution or losses; the consumer's dataset counts its delivery |
| Activated carbon, injected (PCDD/F and mercury) feed:activated-carbon EU JRC (2019) WI BREF, EUR 29971 EN, doi:10.2760/761437, section 4.5.5.5, p. 416 | 0.003287 | kilogram | given | 3 4 4 3 3 | unlinked unlinked, no technosphere mapping: no mapping (no chemical slug or factor id); add it to lci/mappings.yaml technosphere or to the process's lca/mappings.yaml exchanges |
| Bottom ash (dry), to bottom-ash treatment output:bottom-ash by difference: mineral matter, lime and carbon in, less the acid gases, Hg and dust emitted and the boiler and FGC residues; compare 150 to 350 kg/t (EU JRC (2019) WI BREF, EUR 29971 EN, doi:10.2760/761437, Table 3.13). Its unburnt carbon and the water of the quench are not counted; no background mapped yet (gap) | 0.4352 | kilogram | calculated | 4 4 4 4 4 | unlinked unlinked, no technosphere mapping: no mapping (no chemical slug or factor id); add it to lci/mappings.yaml technosphere or to the process's lca/mappings.yaml exchanges |
| Boiler ash (dry), to disposal output:boiler-ash EU JRC (2019) WI BREF, EUR 29971 EN, doi:10.2760/761437, section 3.4.1, Table 3.13, p. 244; no background mapped yet (gap) | 0.05635 | kilogram | given | 3 4 4 3 3 | unlinked unlinked, no technosphere mapping: no mapping (no chemical slug or factor id); add it to lci/mappings.yaml technosphere or to the process's lca/mappings.yaml exchanges |
| FGC residue with fly ash, to hazardous-waste disposal output:fgc-residue EU JRC (2019) WI BREF, EUR 29971 EN, doi:10.2760/761437, section 4.5.3.2, Table 4.23, p. 387; no background mapped yet (gap) | 0.07044 | kilogram | given | 3 4 4 3 3 | unlinked unlinked, no technosphere mapping: no mapping (no chemical slug or factor id); add it to lci/mappings.yaml technosphere or to the process's lca/mappings.yaml exchanges |
Elementary flows
| Flow | Direction | Compartment | Amount | Unit | Provenance | Pedigree |
|---|---|---|---|---|---|---|
| Carbon dioxide, fossil 349b29d1-3e58-4c66-98b9-9d1a076efd2e | emission | air | 0.8255 | kilogram | calculated | 4 4 5 4 3 |
| Carbon dioxide, non-fossil eba59fd6-f37e-41dc-9ca3-c7ea22d602c7 | emission | air | 1.103 | kilogram | calculated | 4 4 5 4 3 |
| Water 075e433b-4be4-448e-9510-9a5029c1ce94 | emission | air | 9.19e-4 | cubic meter | calculated | 4 4 4 4 4 |
| Nitrogen oxides c1b91234-6f24-417b-8309-46111d09c457 | emission | air | 0.001051 | kilogram | calculated | 3 4 4 3 3 |
| Dinitrogen monoxide 20185046-64bb-4c09-a8e7-e8a9e144ca98 | emission | air | 9.392e-5 | kilogram | calculated | 4 4 5 3 3 |
| Carbon monoxide, fossil ba2f3f82-c93a-47a5-822a-37ec97495275 | emission | air | 3.154e-4 | kilogram | calculated | 3 4 4 3 3 |
| Methane, fossil 0795345f-c7ae-410c-ad25-1845784c75f5 | emission | air | 5.072e-4 | kilogram | calculated | 4 4 5 3 3 |
| NMVOC, non-methane volatile organic compounds d3260d0e-8203-4cbb-a45a-6a13131a5108 | emission | air | 7.98e-5 | kilogram | calculated | 3 4 4 3 3 |
| Ammonia 87883a4e-1e3e-4c9d-90c0-f1bea36f8014 | emission | air | 8.935e-5 | kilogram | calculated | 3 4 4 3 3 |
| Sulfur dioxide fd7aa71c-508c-480d-81a6-8052aad92646 | emission | air | 2.365e-4 | kilogram | calculated | 3 4 4 3 3 |
| Hydrochloric acid c9a8073a-8a19-5b9b-a120-7d549563b67b | emission | air | 5.256e-5 | kilogram | calculated | 3 4 4 3 3 |
| Hydrogen fluoride 24541c8c-9f11-49ae-9de5-456f238a3f5e | emission | air | 1.051e-5 | kilogram | calculated | 3 4 4 3 3 |
| Mercury II 71234253-b3a7-4dfe-b166-a484ad15bee7 | emission | air | 1.314e-7 | kilogram | calculated | 3 4 4 3 3 |
| Dioxins, measured as 2,3,7,8-tetrachlorodibenzo-p-dioxin 082903e4-45d8-4078-94cb-736b15279277 | emission | air | 3.679e-13 | kilogram | calculated | 3 4 4 3 3 |
| Particulate Matter, < 2.5 um 21e46cb8-6233-4c99-bac3-c41d2ab99498 | emission | air | 3.679e-5 | kilogram | calculated | 3 4 4 3 3 |
Where these numbers come from: each exchange names its source above; the dataset is processes/waste-incineration-1/lca/datasets/msw-incineration-grate-chp.yaml in library version a3c52e4.
Used by
No other activity of this database links to it.
How good it is
- Review
- Not reviewed: no LCI review record yet
- Data quality
- not available
- Mass and carbon closure
- Not available: a hand-written dataset: no lca/manifest.json records its balance
- Change report
- Not available: this build has no change report against an earlier release.
KPI benchmark positions
| KPI | Value | Reference range | Position |
|---|---|---|---|
| Bottom ash (dry) per t of municipal solid waste | – kg/t | 150 to 350 kg/t | not evaluated |
| CO2 (fossil and biogenic) per t of municipal solid waste | – t/t | 0.7 to 1.7 t/t | not evaluated |
| Electricity exported per t of municipal solid waste | – kWh/t | 7 to 899 kWh/t | not evaluated |
| Heat exported per t of municipal solid waste | – kWh/t | 4 to 3,267 kWh/t | not evaluated |
How to use it
Downloads
- cheme-as-code-atlas-preview-a3c52e4.xlsx · bw2io ExcelImporter workbook (bw2io 0.9 Excel layout) · the whole databasecode waste-incineration-1:msw-incineration-grate-chp:product:electricity
- cheme-as-code-atlas-preview-a3c52e4-olca-jsonld.zip · openLCA JSON-LD (olca-schema) (2) · the whole databaseprocess 4fd62852-b8bd-52c1-8cd0-75fef52aea97 (processes/4fd62852-b8bd-52c1-8cd0-75fef52aea97.json) · the dataset's unallocated multi-output process; this product's allocation factor is in it
- cheme-as-code-atlas-preview-a3c52e4-multifunctional.json · Brightway 2.5 multifunctional database (JSON, for the multifunctional package) (cheme-as-code/lci-multifunctional/v1) · the whole databasecode waste-incineration-1:msw-incineration-grate-chp · the dataset unallocated, with all its products; this product is its desired_code
- cheme_as_code_lci-0.1.0-py3-none-any.whl · the installer
A file with this activity alone is not available: each file above is the whole database, and the line under it says how to find this activity there.
import bw2data as bd
from cheme_as_code_lci import install
bd.projects.set_current("my-project") # holds your licensed background + biosphere3
install("cheme-as-code-atlas-preview-a3c52e4.xlsx", background="ecoinvent-3.11-cutoff", location="DE")
activity = bd.get_activity(("cheme-as-code-atlas-preview-a3c52e4", "waste-incineration-1:msw-incineration-grate-chp:product:electricity"))While any exchange of the database has no mapping, install() writes nothing and only lists the unlinked exchanges. So the last line finds no activity until the gaps are mapped: the download section gives the ways to use the database now.
How to cite
Electricity, net export (generation less own use), from Waste incineration with energy recovery (mixed MSW, moving grate, heat-oriented CHP) (dataset msw-incineration-grate-chp 0.1.0), ChemE-as-Code Process Atlas LCI database preview-a3c52e4, activity waste-incineration-1:msw-incineration-grate-chp:product:electricity. Cite the Process Atlas paper (in preparation, 2026), by Artur M. Schweidtmann and Jana M. Weber, and the ChemE-as-Code Process Atlas LCI database version preview-a3c52e4.
DOI: none yet (the Process Atlas paper is in preparation)
For the data, cite the Process Atlas paper; for the platform that builds and checks it, the ChemE-as-Code paper.
Schweidtmann, A. M. & Weber, J. M. (2026, in preparation). Process Atlas: an open, git-native, reproducible library and life cycle inventory of chemical processes (working title).
BibTeX
@unpublished{schweidtmann_process_atlas,
author = {Schweidtmann, Artur M. and Weber, Jana M.},
title = {{Process Atlas: an open, git-native, reproducible library and life cycle inventory of chemical processes (working title)}},
year = {2026},
url = {https://atlas.cheme-as-code.org},
note = {in preparation}
}Schweidtmann, A. M. (2026). ChemE-as-Code: An Open-Source Platform for Agentic AI in Chemical Engineering. arXiv:2611.07947. https://doi.org/10.48550/arXiv.2611.07947
BibTeX
@misc{schweidtmann_cheme_as_code,
author = {Schweidtmann, Artur M.},
title = {{ChemE-as-Code: An Open-Source Platform for Agentic AI in Chemical Engineering}},
year = {2026},
eprint = {2611.07947},
archivePrefix = {arXiv},
doi = {10.48550/arXiv.2611.07947},
url = {https://arxiv.org/abs/2611.07947}
}