Compressed Air Energy Storage Calculations: Difference between revisions
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Compressed air energy storage or gravity water storage costs 10x less than any other based on 100 year vs 10 year lifetime of the system. | Compressed air energy storage or gravity water storage costs 10x less than any other based on 100 year vs 10 year lifetime of the system. | ||
=About= | |||
*'Only 10% to 20% of the energy required to generate compressed air ever reaches the point of use' - [https://www.des.nh.gov/sites/g/files/ehbemt341/files/documents/2020-01/energy-efficiency-compressed-air.pdf] | |||
=Calculations= | =Calculations= | ||
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**Units of Pascals, Meters, Joules. | **Units of Pascals, Meters, Joules. | ||
**W=2E7 Pa * 0.05 cubic meters * ln(200)=5.3MJ=1.5 kWhr | **W=2E7 Pa * 0.05 cubic meters * ln(200)=5.3MJ=1.5 kWhr | ||
**Ok. | **{{check}}Ok. | ||
*Adiabatic compression - [W = P1V1 - P2V2 / (1 - γ)] [https://www.google.com/search?sxsrf=ALeKk026QG9BbsZl0rNsBS9KmerMgczY_w%3A1602863734253&source=hp&ei=dsKJX6q8DJDYsAXHkpG4Cw&q=formula+for+calculating+energy+stored+in+compressed+air+energy+storage&btnK=Google+Search&oq=how+to+configure+nvidia+geforce+gtx+1650+super+on+linux+mint&gs_lcp=CgZwc3ktYWIQAzIFCCEQoAEyBQghEKsCMgUIIRCrAjoOCAAQ6gIQtAIQmgEQ5QI6DgguELEDEMcBEKMCEJMCOggILhDHARCvAToLCC4QsQMQxwEQowI6CAgAELEDEIMBOggILhCxAxCDAToFCAAQsQM6AggAOgQIABAKOgYIABAWEB46CAghEBYQHRAeOgcIIRAKEKABUMsQWOmzAWD8tAFoBnAAeACAAeQGiAGhS5IBDTExLjQ3LjMuMi42LTGYAQCgAQGqAQdnd3Mtd2l6sAEG&sclient=psy-ab&ved=0ahUKEwiqz4DcvLnsAhUQLKwKHUdJBLcQ4dUDCAk&uact=5] | *Adiabatic compression - [W = P1V1 - P2V2 / (1 - γ)] [https://www.google.com/search?sxsrf=ALeKk026QG9BbsZl0rNsBS9KmerMgczY_w%3A1602863734253&source=hp&ei=dsKJX6q8DJDYsAXHkpG4Cw&q=formula+for+calculating+energy+stored+in+compressed+air+energy+storage&btnK=Google+Search&oq=how+to+configure+nvidia+geforce+gtx+1650+super+on+linux+mint&gs_lcp=CgZwc3ktYWIQAzIFCCEQoAEyBQghEKsCMgUIIRCrAjoOCAAQ6gIQtAIQmgEQ5QI6DgguELEDEMcBEKMCEJMCOggILhDHARCvAToLCC4QsQMQxwEQowI6CAgAELEDEIMBOggILhCxAxCDAToFCAAQsQM6AggAOgQIABAKOgYIABAWEB46CAghEBYQHRAeOgcIIRAKEKABUMsQWOmzAWD8tAFoBnAAeACAAeQGiAGhS5IBDTExLjQ3LjMuMi42LTGYAQCgAQGqAQdnd3Mtd2l6sAEG&sclient=psy-ab&ved=0ahUKEwiqz4DcvLnsAhUQLKwKHUdJBLcQ4dUDCAk&uact=5] | ||
*Let's take industrial gas cylinders with K, T, 3K, 6K standards - 300 cu ft for T [https://www.tollgas.com/gas-cylinders/]. 2200-2600 psi is the standard, but also 3000 PSI and 6000 PSI. | *Let's take industrial gas cylinders with K, T, 3K, 6K standards - 300 cu ft for T [https://www.tollgas.com/gas-cylinders/]. 2200-2600 psi is the standard, but also 3000 PSI and 6000 PSI. | ||
Revision as of 19:52, 19 May 2025
Compressed air energy storage or gravity water storage costs 10x less than any other based on 100 year vs 10 year lifetime of the system.
About
- 'Only 10% to 20% of the energy required to generate compressed air ever reaches the point of use' - [1]
Calculations
- Work to compress, thus energy stored in isothermal conditions - is W = P1V1 * ln(P2/P1) [2]
- Units of Pascals, Meters, Joules.
- W=2E7 Pa * 0.05 cubic meters * ln(200)=5.3MJ=1.5 kWhr
Ok.
- Adiabatic compression - [W = P1V1 - P2V2 / (1 - γ)] [3]
- Let's take industrial gas cylinders with K, T, 3K, 6K standards - 300 cu ft for T [4]. 2200-2600 psi is the standard, but also 3000 PSI and 6000 PSI.
- T type - 300 cf
Other
- 150 PSI, 660 gal receiver tank - $3500 [5]
Links
- Full treatment at Compressed Air Calculations