Low-Cost, Energy-Efficient and Carbon-Saving Dry Ice Air Conditioning System – A Possible by-Product of a Novel And Highly Cost-Effective Carbon Capture Technology

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Dilip K. De
Dilip K. De
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Idowu B. Oduniyi
Idowu B. Oduniyi
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Oluwatosin Obaseki
Oluwatosin Obaseki

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Low-Cost, Energy-Efficient and Carbon-Saving Dry Ice Air Conditioning System – A Possible by-Product of a Novel And Highly Cost-Effective Carbon Capture Technology

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Abstract

To combat global warming and climate change, it is necessary to have technologies for the low cost capture of carbon dioxide (CO2) and the associated toxic components of the flue gas emissions from industries and for the low-cost storage and utilization of the captured CO2. This paper presents a brief description of a new technology for emission capture (NTEC) to capture nearly 100% of the CO2 from industrial emissions in the form of liquefied CO2 and dry ice, very cost effectively, at -$14 to $23 per ton of CO2 captured, depending on whether the power is generated by coal or natural gas and the CO2 concentration in the flue gas. The negative sign means the capture generates additional auxiliary energy for the industry. NTEC is patented in the USA (No. 10670334 B2 June 2, 2020). Using dry ice that could be abundantly available with NTEC, the proposed future technology of a dry ice air conditioning system is presented. Assuming that dry ice is not more than $80 per ton with NTEC, then, for air conditioning a house of area 256 sq. m. (the inside temperature maintained 24 hrs 7 days/wk at 70 F, while the outside temperature is at 102 F for 12 hrs), it would save $160 in a hot summer month.

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Funding

No external funding was declared for this work.

Conflict of Interest

The authors declare no conflict of interest.

Ethical Approval

No ethics committee approval was required for this article type.

Data Availability

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How to Cite This Article

Dilip K. De. 2026. \u201cLow-Cost, Energy-Efficient and Carbon-Saving Dry Ice Air Conditioning System – A Possible by-Product of a Novel And Highly Cost-Effective Carbon Capture Technology\u201d. Global Journal of Science Frontier Research - H: Environment & Environmental geology GJSFR-H Volume 22 (GJSFR Volume 22 Issue H3): .

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Crossref Journal DOI 10.17406/GJSFR

Print ISSN 0975-5896

e-ISSN 2249-4626

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GJSFR-H Classification: DDC Code: 628.5 LCC Code: TD885.5.C3
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May 25, 2022

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To combat global warming and climate change, it is necessary to have technologies for the low cost capture of carbon dioxide (CO2) and the associated toxic components of the flue gas emissions from industries and for the low-cost storage and utilization of the captured CO2. This paper presents a brief description of a new technology for emission capture (NTEC) to capture nearly 100% of the CO2 from industrial emissions in the form of liquefied CO2 and dry ice, very cost effectively, at -$14 to $23 per ton of CO2 captured, depending on whether the power is generated by coal or natural gas and the CO2 concentration in the flue gas. The negative sign means the capture generates additional auxiliary energy for the industry. NTEC is patented in the USA (No. 10670334 B2 June 2, 2020). Using dry ice that could be abundantly available with NTEC, the proposed future technology of a dry ice air conditioning system is presented. Assuming that dry ice is not more than $80 per ton with NTEC, then, for air conditioning a house of area 256 sq. m. (the inside temperature maintained 24 hrs 7 days/wk at 70 F, while the outside temperature is at 102 F for 12 hrs), it would save $160 in a hot summer month.

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Low-Cost, Energy-Efficient and Carbon-Saving Dry Ice Air Conditioning System – A Possible by-Product of a Novel And Highly Cost-Effective Carbon Capture Technology

Dilip K. De
Dilip K. De
Idowu B. Oduniyi
Idowu B. Oduniyi
Oluwatosin Obaseki
Oluwatosin Obaseki

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