SORPTION GAS STORAGE DEVICE

• 1. 一种吸附式天然气储存装置 [P] . 中国专利： CN215335781U . 2021-12-28
• 2. 变压吸附式气体分离方法及气体分离装置 [P] . 中国专利： CN109069980B . 2022.01.11
• 3. Gas sorption recovery element, method for manufacturing gas sorption recovery element, and gas sorption recovery device [P] . 日本专利： JP5831843B2 . 2015-12-09

  机译： 气体吸附回收元件，该气体吸附回收元件的制造方法以及气体吸附回收装置

• 4. Storage device and method for sorption and desorption of molecular gas contained by storage sites of nano-filament laded reticulated aerogel [P] . 美国专利： US7378188B2 . 2008-05-27

  机译： 纳米丝包层网状气凝胶的存储部位所包含的分子气体的吸附和解吸的存储装置和方法

• 5. Storage Device for Sorption and Desorption of Molecular gas contained by Storage Sites of Nano-filament Laded Reticulated Aerogel [P] . 美国专利： US2008011617A1 . 2008-01-17

  机译： 纳米丝层状网状气凝胶存储部位吸附和解吸分子气体的存储装置

• 1. Ultrathin 2D Metal–Organic Framework Nanosheets In situ Interpenetrated by Functional CNTs for Hybrid Energy Storage Device [J] . Feitian Ran, Xueqing Xu, Duo Pan, 纳微快报：英文版 . 2020,第004期
• 2. Gas-water-rock interactions and factors affecting gas storage capacity during natural gas storage in a low permeability aquifer [J] . TOOSEH Esmaeel Kazemi, JAFARI Arezou, TEYMOURI Ali 石油勘探与开发:英文版 . 2018,第006期
• 3. Xiangguosi Gas Storage:the First Underground Gas Storage in the Southwest [J] . 中国油气（英文版） . 2020,第005期
• 4. Investigation of a 10 kWh sorption heat storage device for effective utilization of low-grade thermal energy [J] . Zhao Y. J., Wang R. Z., Li T. X., Energy . 2016,第OCTa15期
• 5. INVESTIGATION OF SORPTION COATINGS OF PIEZOQUARTZ RESONATORS TO DEVELOP DEVICES FOR MONITORING ORGANIC IMPURITIES IN GASES [J] . T. S. Voronova, Yu. A. Lipnin, V. G. Mazur, Measurement techniques . 2019,第4期
• 6. A zeolite 13X/magnesium sulfate-water sorption thermal energy storage device for domestic heating [J] . Xu S. Z., Lemington, Wang R. Z., Energy Conversion & Management . 2018,第PTa1a1082期
• 7. Investigation on the impact of size and form variation of sorption material pellets on heat storage efficiency in an adsorption thermal energy storage system [C] . M. A. Elfadil, S. Mack, A. Lass-Seyoum, international renewable energy storage conference . 2017
• 8. Synthesis and gas sorption study of microporous metal organic frameworks for hydrogen and methane storage. [D] . Lee, Jeongyong. 2007
• 9. Metal–organic frameworks for H2 and CH4 storage: insights on the pore geometry–sorption energetics relationship [O] . Mohamed H. Alkordi, Youssef Belmabkhout, Amy Cairns, 2017
• 10. Use of triolein-semipermeable membrane devices to assess the bioconcentration and sediment sorption of hydrophobic organic contaminants in the Huaihe River, China [O] . Wang ZJ, Wang Y, Ma M, 2002
• 11. Investigation of Storage System Designs and Techniques for Optimizing Energy Conservation in Integrated Utility Systems. Volume 3: (Assessment of Technical and Cost Characteristics of Candidate IUS Energy Storage Devices) [R] . 1976

• 1. Enhanced Efficiency and Durability of Organic Electroluminescent Devices by Doping in Emitting LayerEnhanced Efficiency and Durability of Organic Electroluminescent Devices by Doping in Emitting Layer [J] . HUANGJing－song ,LIChuan－nan ,等 . 半导体光子学与技术：英文版 . 1999,第3期
• 2. Gas-water-rock interactions and factors affecting gas storage capacity during natural gas storage in a low permeability aquifer [J] . TOOSEH Esmaeel Kazemi ,JAFARI Arezou ,TEYMOURI Ali . 石油勘探与开发 . 2018,第006期
• 3. 可燃气体储存装置结构特点与火灾危险性分析 [C] . 苏明涛 . 2014消防科技与工程学术会议 . 2014
• 4. 硅胶—水吸附式制冷机研制与吸附式制冷变热源特性研究 [A] . 王德昌 . 2005