# Equations of State for the Thermodynamic Properties of n-Perfluorobutane, n-Perfluoropentane, and n-Perfluorohexane

- Title: Equations of State for the Thermodynamic Properties of n-Perfluorobutane, n-Perfluoropentane, and n-Perfluorohexane
- Authors: Kehui Gao; Andreas Köster; Monika Thol; Jiangtao Wu; Eric W. Lemmon
- Year: 2021
- DOI: 10.1021/acs.iecr.1c02969
- arXiv ID/URL: Not yet checked
- Source URL: https://doi.org/10.1021/acs.iecr.1c02969
- Record type: journal-article
- Date searched: 2026-10-14
- Record origin: Existing project citation
- Evidence level: Metadata verified; title-based topic summary; experiments unverified
- Access status: Metadata only; full-text access not yet checked.
- Lesson mapping: Background or peripheral citation; placement unreviewed.

## Two-sentence summary

This work addresses Equations of State for the Thermodynamic Properties of n-Perfluorobutane, n-Perfluoropentane, and n-Perfluorohexane.
Experiments performed remain unverified pending methods or explicit abstract evidence.

## Provenance

Canonical metadata: https://api.crossref.org/works/10.1021%2Facs.iecr.1c02969

Venue: Industrial & Engineering Chemistry Research

Local citation locations:

- `modeling/embedded-pfc-feasibility/DERIVATION.tex:466`
- `modeling/embedded-pfc-feasibility/index.html:398`
- `modeling/embedded-pfc-feasibility/SOURCES.md:8`
- `modeling/embedded-pfc-feasibility/SOURCES.zh.md:8`
- `modeling/embedded-pfc-feasibility/scripts/reader_text.py:334`
- `reports/Cavitation_Limits_20261011/expert_resolution/PARAMETER_LEDGER.json:20`
- `reports/Cavitation_Limits_20261011/expert_resolution/PARAMETER_LEDGER.json:36`
- `reports/Cavitation_Limits_20261011/expert_resolution/PARAMETER_LEDGER.json:49`
- `reports/Cavitation_Limits_20261011/expert_resolution/PARAMETER_LEDGER.json:62`
- `reports/Cavitation_Limits_20261011/expert_resolution/PARAMETER_LEDGER.json:75`
- `reports/Cavitation_Limits_20261011/expert_resolution/PARAMETER_LEDGER.json:88`
- `reports/Cavitation_Limits_20261011/expert_resolution/PARAMETER_LEDGER.json:101`
- `reports/Cavitation_Limits_20261011/expert_resolution/PARAMETER_LEDGER.json:126`
- `reports/Cavitation_Limits_20261011/expert_resolution/PARAMETER_LEDGER.json:142`
- `reports/Cavitation_Limits_20261011/expert_resolution/PARAMETER_LEDGER.json:155`
- `reports/Cavitation_Limits_20261011/expert_resolution/PARAMETER_LEDGER.json:168`
- `reports/Cavitation_Limits_20261011/expert_resolution/PARAMETER_LEDGER.json:181`
- `reports/Cavitation_Limits_20261011/expert_resolution/PARAMETER_LEDGER.json:194`
- `reports/Cavitation_Limits_20261011/expert_resolution/PARAMETER_LEDGER.json:207`
- `reports/Cavitation_Limits_20261011/expert_resolution/READER.html:61`
- `reports/Cavitation_Limits_20261011/expert_resolution/scripts/prepare_ledgers.py:37`
- `reports/Cavitation_Limits_20261011/expert_resolution/tex/12_references.tex:27`
- `reports/Cavitation_Limits_20261011/sources/embedded-pfc-update/SOURCES.txt:8`
- `reports/PFC_Project_Report_20261011_ppt169_20261011/images/formula_manifest.json:768`
- `reports/PFC_Project_Report_20261011_ppt169_20261011/notes/25_Real_Fluid_Curved_Phase_Equilibrium.md:1`
- `reports/PFC_Project_Report_20261011_ppt169_20261011/notes/25_Real_Fluid_Curved_Phase_Equilibrium.md:3`
- `reports/PFC_Project_Report_20261011_ppt169_20261011/notes/31_Close_the_PFC_Source_to_Impact_Problem.md:61`
- `reports/PFC_Project_Report_20261011_ppt169_20261011/notes/31_Close_the_PFC_Source_to_Impact_Problem.md:63`
- `reports/PFC_Project_Report_20261011_ppt169_20261011/notes/speaker_notes.tex:1817`
- `reports/PFC_Project_Report_20261011_ppt169_20261011/notes/speaker_notes.tex:1819`
- `reports/PFC_Project_Report_20261011_ppt169_20261011/notes/speaker_notes.tex:2477`
- `reports/PFC_Project_Report_20261011_ppt169_20261011/notes/speaker_notes.tex:2479`
- `reports/PFC_Project_Report_20261011_ppt169_20261011/notes/total.md:1497`
- `reports/PFC_Project_Report_20261011_ppt169_20261011/notes/total.md:1499`
- `reports/PFC_Project_Report_20261011_ppt169_20261011/notes/total.md:2084`
- `reports/PFC_Project_Report_20261011_ppt169_20261011/notes/total.md:2086`
- `reports/PFC_Project_Report_20261011_ppt169_20261011/notes/parts/24_30.md:59`
- `reports/PFC_Project_Report_20261011_ppt169_20261011/notes/parts/24_30.md:61`
- `reports/PFC_Project_Report_20261011_ppt169_20261011/notes/parts/31.md:63`
- `reports/PFC_Project_Report_20261011_ppt169_20261011/notes/parts/31.md:65`
- `reports/PFC_Project_Report_20261011_ppt169_20261011/scripts/extend_finite_pfc_formula_manifest.py:25`
- `reports/PFC_Project_Report_20261011_ppt169_20261011/sources/embedded-pfc-feasibility/DERIVATION.tex:466`
- `reports/PFC_Project_Report_20261011_ppt169_20261011/sources/embedded-pfc-feasibility/index.html:394`
- `reports/PFC_Project_Report_20261011_ppt169_20261011/sources/embedded-pfc-feasibility/SOURCES.md:8`
- `reports/PFC_Project_Report_20261011_ppt169_20261011/sources/reference-provenance/report_references.json:261`
- `reports/PFC_Project_Report_20261011_ppt169_20261011/sources/reference-provenance/report_references.json:283`
- `reports/PFC_Project_Report_20261011_ppt169_20261011/sources/reference-provenance/report_references.json:304`
- `reports/PFC_Project_Report_20261011_ppt169_20261011/validation/theory_audit/FINITE_PFC_FORMULA_RECOMMENDATIONS.md:34`

## Applicability and gaps

Project-specific thresholds and transfer performance remain unverified.