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Development of Alkyl-Functionalized New Polyamine Based Non-Aqueous Solvent for Energy Efficient CO2 Capture

研究課題

研究課題/領域番号 20K05596
研究種目

基盤研究(C)

配分区分基金
応募区分一般
審査区分 小区分34030:グリーンサステイナブルケミストリーおよび環境化学関連
研究機関公益財団法人地球環境産業技術研究機構

研究代表者

フィローズアラム チョウドリ  公益財団法人地球環境産業技術研究機構, その他部局等, 副主席研究員 (50727279)

研究期間 (年度) 2020-04-01 – 2025-03-31
研究課題ステータス 交付 (2023年度)
配分額 *注記
4,290千円 (直接経費: 3,300千円、間接経費: 990千円)
2022年度: 1,300千円 (直接経費: 1,000千円、間接経費: 300千円)
2021年度: 1,300千円 (直接経費: 1,000千円、間接経費: 300千円)
2020年度: 1,690千円 (直接経費: 1,300千円、間接経費: 390千円)
キーワードNon-Aqueous Solvent / Polyamine / Absorption Rate / Absorption Capacity / Heats of Reaction / Vapor Pressure / Viscosity / Noon-Aqueous Solvent / non-aqueos solvent / carbon dioxide / amine absorbent / cyclic capacity / regeneration energy
研究開始時の研究の概要

This project proposed polyamine (PA) based NAS will be made by mixing isopropyl-functionalized polyamine (IPFPA) as absorbent and commercially available alcohol/non-alcohol as solvent. The IPFPA will be synthesized by the reduction of PA’s primary amine (-NH2) site (s) with acetone. The proposed IPFPA based NAS will not form any precipitate/solid upon exposure to CO2 and must be low viscos (cP < 20) homogeneous mixture (single phase) at the whole range of CO2 loading.

研究実績の概要

Completed all planned isopropyl-functionalized polyamines synthesis. A total of 10 IPFPA(s) were synthesized with high purity (>98%) and excellent yield (>96%). At the same time a total of 10 organic solvents were selected from alcohols, pyrrolidines, and imidazoles. The ability to fine-tune the isopropyl functional moieties in polyamines and organic solvents permits promising IPFPA based NAS design. The NAS system was made by mixing IPFPA as absorbent and commercially available alcohol/non-alcohol as solvent. Last year we identified isopropyl functionalized polyamine IP-DMDPTA was the best performer when mixed with organic solvent 1-methylimidazole (1MIm). This year (IP-DMDPTA+1MIm) based best NAS solutions all relevant properties was measured. They are mainly CO2 absorption-desorption rate, heats of reaction, fresh and different CO2 loaded solutions viscosity, vapor pressure, and equilibrium CO2 solubility at different temperature and pressure. From above mentioned experiments the best composition was identified which give high CO2 absorption rate, high cyclic capacity of CO2, lower vapor pressure, lower viscosity and consume the minimal amount of heat energy compared to benchmark monoethanolamine (MEA) based NAS solution.

現在までの達成度 (区分)
現在までの達成度 (区分)

2: おおむね順調に進展している

理由

Completed all planned isopropyl-functionalized polyamines synthesis and refine the development efforts for the “optimal” IPFPA-based NAS solution, thoroughly measure or estimate all relevant properties, and identify high performance IPFPA based NAS solution. The best NAS solution (IP-DMDPTA+1MIm) was identified which shows lower viscosity (cP < 20), lower vapor pressure, high CO2 absorption-desorption rate, high cyclic capacity of CO2, and consume the minimal amount of heat energy compared to benchmark MEA based NAS solution. These findings were presented in two international conferences.

今後の研究の推進方策

The best performer (IP-DMDPTA + 1MIm)-based NAS solution was planned to run small laboratory scale Chemical Absorption Test Plant (CAT-Lab). To run CAT-Lab plant it needs minimum 5.0kg NAS solution. The outsourcing IP-DMDPTA chemical price is very higher than the remaining fund. As a result, it was planned to synthesize IP-DMDPTA in our laboratory. (IP-DMDPTA+1MIm) based NAS CO2-loaded solutions species will be identified by using 13C NMR spectroscopic technique. Finally conduct CAT-Lab test, finalize systems and economic analyses, and develop a path forward for bench-scale and pilot-plant testing.

報告書

(4件)
  • 2023 実施状況報告書
  • 2022 実施状況報告書
  • 2021 実施状況報告書
  • 2020 実施状況報告書
  • 研究成果

    (8件)

すべて 2023 2022 2021

すべて 学会発表 (7件) (うち国際学会 5件) 産業財産権 (1件)

  • [学会発表] Low-temperature regenerable novel non-aqueous absorbent for efficient CO2 capture.2023

    • 著者名/発表者名
      Firoz Alam Chowdhury
    • 学会等名
      7th Post Combustion Capture Conference (PCCC-7), 25-27 Sept. 2023, Pittsburgh, USA.
    • 関連する報告書
      2023 実施状況報告書
    • 国際学会
  • [学会発表] Development of novel non-aqueous absorbent for efficient CO2 capture.2023

    • 著者名/発表者名
      Firoz Alam Chowdhury
    • 学会等名
      12th International Conference on Separation Science and Technology (ICSST23), Nov. 15-17, 2023, Okinawa Shichoson Jichi Kaikan, Japan.
    • 関連する報告書
      2023 実施状況報告書
    • 国際学会
  • [学会発表] Structure modified polyamine based non-aqueous solvent for high CO2 solubility and low viscosity.2022

    • 著者名/発表者名
      Firoz Alam Chowdhury
    • 学会等名
      16th Greenhouse Gas Control Technologies Conference (GHGT-16)
    • 関連する報告書
      2022 実施状況報告書
    • 国際学会
  • [学会発表] Significant improvements in CO2 solubility and viscosity by structure modified polyamine-containing non-aqueous solvent.2022

    • 著者名/発表者名
      Firoz Alam Chowdhury
    • 学会等名
      7th International Conference on Advanced Materials, Structures and Mechanical Engineering (ICAMSME 2023)
    • 関連する報告書
      2022 実施状況報告書
    • 国際学会
  • [学会発表] Structure Modified Polyamine Based Non-Aqueous Solvent (NAS) for CO2 Capture.2022

    • 著者名/発表者名
      Firoz Alam Chowdhury
    • 学会等名
      The Society of Chemical Engineering (SCEJ), SCEJ 87th Annual Meeting (Online Meeting),
    • 関連する報告書
      2021 実施状況報告書
  • [学会発表] Modification of Polyamine Structure for Low Viscous Non-Aqueous CO2 Capture2021

    • 著者名/発表者名
      Firoz Alam Chowdhury
    • 学会等名
      Post Combustion Capture Conference (PCCC-6), Online,
    • 関連する報告書
      2021 実施状況報告書
    • 国際学会
  • [学会発表] Development of New Polyamine Based Non-Aqueous Solvent (NAS) for Energy Efficient CO2 Capture.2021

    • 著者名/発表者名
      Firoz Alam Chowdhury
    • 学会等名
      The Society of Chemical Engineering (SCEJ), SCEJ 86th Annual Meeting
    • 関連する報告書
      2020 実施状況報告書
  • [産業財産権] 二酸化炭素分離材、二酸化炭素を分離又は回収する方法2022

    • 発明者名
      チョウドリ・フィロツ・アラム、村岡利紀、余語克則
    • 権利者名
      チョウドリ・フィロツ・アラム、村岡利紀、余語克則
    • 産業財産権種類
      特許
    • 産業財産権番号
      2022-167063
    • 出願年月日
      2022
    • 関連する報告書
      2022 実施状況報告書

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公開日: 2020-04-28   更新日: 2024-12-25  

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