[参 考 文 献]
1-1) 大西茂樹，田島昌樹，伊藤一秀 (2010) 中規模オフィスビルを対象とした全熱交換器の空調消費電力削減効果に関する実測研究 (第 1 報) 冬期暖房時を対象とした実測と削減効果，空気調和・衛生工学会論文集，No.162，17-24
1-2) 大西茂樹，田島昌樹，伊藤一秀 (2011) 中規模オフィスビルを対象とした全熱交換器の空調消費電力削減効果に関する実測研究 (第 2 報) 夏期冷房時を対象とした実測と削減効果，空気調和・衛生工学会論文集，No.172，9-16
1-3) 范 芸青，大西茂樹，伊藤一秀 (2012) 中規模オフィスビルを対象とした全熱交換器の空調消費電力削減効果に関する実測研究 (第 3 報) 全熱交換器モデルを介したCFD とBES の連成解析，空気調和・衛生工学会論文集，No.180，13-22
1-4) 亀石圭司，戸田悠太，小林光，伊藤一秀 (2015) CO2 デマンド制御を組み込んだ全熱交換器の性能検証 (第 1 報) 大学研究室を対象とした夏期冷房時の換気負荷削減効果，空気調和・衛生工学会論文集，No.216，1-10
1-5) 亀石圭司，戸田悠太，小林光，伊藤一秀 (2015) CO2 デマンド制御を組み込んだ全熱交換器の性能検証 (第 2 報) 大学研究室を対象とした冬期暖房時の換気負荷削減効果，空気調和・衛生工学会論文集，No.220，1-10
1-6) Yunqing Fan and Kazuhide Ito. Energy Consumption Analysis Intended for Real Office Space with Energy Recovery Ventilator by Integrating BES and CFD Approach, Building and Environment, 52 (3), pp57-67, June 2012
1-7) Yunqing Fan and Kazuhide Ito. Integrated Building Energy- Computational Fluid Dynamics simulation for estimating the energy-saving effect of energy recovery ventilator with CO2 demand-controlled ventilation system in office space, Indoor and Built Environment, 2014; 23 (6) pp 785-803
1-8) Yunqing Fan, Keiji Kameishi, Shigeki Onishi and Kazuhide Ito. Field-based Study on Energy saving effects of CO2 demand controlled ventilation in office with application of energy recovery ventilators, Energy and Buildings 68 (2014) 412-422
1-9) Mardiana-Idayu A and Riffat S B. Review on heat recovery technologies for building applications. Renew Sustain Energy Rev 2012; 16(2): 1241-1255.
1-10) O’Connor D, Calautit J K S and Hughes B R. A review of heat recovery technology for passive ventilation applications. Renew Sustain Energy Rev 2016; 54: 1481-1493.
1-11) Zhou Y P, Wu J Y and Wang R Z. Performance of energy recovery ventilator with various weathers and temperature set-points. Energ Build 2007; 39(12): 1202-1210.
1-12) Rasouli M, Simonson C J and Besant R W. Applicability and optimum control strategy of energy recovery ventilators in different climatic conditions. Energ Build 2010; 42(9): 1376-1385.
1-13) Yaïci W, Ghorab M and Entchev E. Numerical analysis of heat and energy recovery ventilators performance based on CFD for detailed design. Appl Therm Eng 2013; 51(1-2): 770-780.
1-14) Zhang J, Fung A S and Jhingan S. Analysis and feasibility study of residential integrated heat and energy recovery ventilator with built-in economizer using an excel spreadsheet program. Energ Build 2014; 75: 430- 438.
1-15) Zhang J and Fung A S. Experimental study and analysis of an energy recovery ventilator and the impacts of defrost cycle. Energ Build 2015; 87: 265-271.
1-16) Alonso M J, Liu P, Mathisen H M, Ge G and Simonson C. Review of heat/energy recovery exchangers for use in ZEBs in cold climate countries. Build Environ 2015; 84: 228-237.
1-17) Liu J, Li W, Liu J and Wang, B. Efficiency of energy recovery ventilator with various weathers and its energy saving performance in a residential apartment. Energ Build 2010; 42(1): 43-49.
1-18) Bao L, Wang J and Yang H. Investigation on the performance of a heat recovery ventilator in different climate regions in China. Energy 2016; 104: 85-98.
1-19) Qiu S, Li S, Wang F, Wen Y, Li Z and Li Z and Guo J. An energy exchange efficiency prediction approach based on multivariate polynomial regression for membrane-based air-to-air energy recovery ventilator core. Build Environ 2019; 149: 490-500.
1-20) Al-Waked R, Shakir Nasif M, Bani Mostafa D. Enhancing the performance of energy recovery ventilators. Energy Convers Manag 2018; 171: 196-210.
1-21) Aa. G M, Aursand E, Magnanelli E and Pharoah J. Performance analysis of heat and energy recovery ventilators using exergy analysis and nonequilibrium thermodynamics. Energ Build 2018; 170: 195-205.
1-22) Choi Y, Song D, Seo D and Kim J. Analysis of the variable heat exchange efficiency of heat recovery ventilators and the associated heating energy demand. Energ Build 2018; 172: 152-158.
1-23) Kim S, Lee J, Moon H and Kim S. Improvement of Indoor Living Environment by Occupants’ Preferences for Heat Recovery Ventilators in High-Rise Residential Buildings. Indoor Built Environ 2011; 21 (4): 486-502.
1-24) Wu W, Fang Z, Ji W and Wang H. Optimal operation condition division with profit and losses analysis of energy recovery ventilator. Energ Build 2016; 124: 203-209.
1-25) Zhang L. Heat and mass transfer in plate-fin enthalpy exchangers with different plate and fin materials. Int J Heat Mass Transf 2009; 52: 2704-2713.
1-26) Zhang L. Heat and mass transfer in plate-fin sinusoidal passages with vapor-permeable wall materials. Int J Heat Mass Transf 2008; 51: 618-629.
1-27) Zhang L. Total Heat Recovery: Heat and Moisture Recovery from Ventilation Air. New York: Nova Science Publishers Inc 2008.
1-28) Zhang L. Laminar flow and heat transfer in plate-fin triangular ducts in thermally developing entry region. Int J Heat Mass Transf 2007; 50: 1637-1640.
1-29) Huang S, Zhang L, Tang K and Pei L. Fluid flow and heat mass transfer in membrane parallel-plates channels used for liquid desiccant air dehumidification. Int J Heat Mass Transf 2012; 55: 2571-2580.
1-30) Zhang L. Heat and mass transfer in a cross-flow membrane-based enthalpy exchanger under naturally formed boundary conditions. Int J Heat Mass Transf 2007; 50: 151-162.
1-31) Tanaka O. An analysis of simultaneous heat and water vapor exchange through a flat paper plate crossflow total heat exchanger. Int J Heat Mass Transf 1984; 27: 259-2266.
1-32) Zhang L, Cai R and Xu J. Moisture transport through asymmetric porous membranes with finger-like holes for indoor humidity control: A lattice Boltzmann simulation approach. Indoor Built Environ 2015; 25 (1): 151-168.
1-33) Yang B, Yuan W, Gao F and Guo B. A review of membrane-based air dehumidification. Indoor Built Environ 2013; 24 (1): 11-26
[参 考 文 献]
2-1) 三菱電機：全熱交換形換気機器 技術資料，2016. 3
2-2) 相原利雄： 裳華房, 機械工学選書 伝熱工学 第 2 章 伝熱 P22-27，第 7 章 熱交換器 P216-241
2-3) 日本機械学会：伝熱工学資料(第 4 版)機械工学
2-4) W. Nusselt：McGraw-Hill, Process Heat Transfer, 1950
2-5) 坪内為雄 編：朝倉書店，熱交換器，1968
2-6) 泉亮太郎，篠崎平馬：朝倉書店，熱および物質移動，1964
2-7) J.P.ホールマン著，平田 賢 監訳，ブレイン図書出版株式会社理工学海外名著シリーズ 38 Mc Graw-Hill Book Company, 伝熱工学<下>
2-8) W. M. Kays, A. L. London, McGraw-Hill Compact Heat Exchangers
[参 考 文 献]
3-1) JIS B 8628「全熱交換器」2003
3-2) 伝熱工学資料 改訂第 4 版 第 2 章 フィンの対流熱伝達 p 202-205 日本機械学会
3-3) K.Takahashi, K.Nakajima, H.Kusakawa and O.Tanaka, Vapor permeability of porous fiber materials, 化学工学論文集 3, 510-513(1977)
3-4) H.Hausen, Z. Ver. Dt. Ing., Beih. Verfahrenstechnik 91-98(1943)
3-5) 空気調和衛生工学会便覧 第 13 版 第 1 編 基礎 第 4 章 熱および物質移動 p 173
[参 考 文 献]
4-1) Zhang L. Heat and mass transfer in plate-fin enthalpy exchangers with different plate and fin materials. Int J Heat Mass Transf 2009; 52: 2704-2713.
4-2) Zhang L. Heat and mass transfer in plate-fin sinusoidal passages with vapor-permeable wall materials. Int J Heat Mass Transf 2008; 51: 618-629.
4-3) Zhang L. Total Heat Recovery: Heat and Moisture Recovery from Ventilation Air. New York: Nova Science Publishers Inc 2008.
4-4) Zhang L. Laminar flow and heat transfer in plate-fin triangular ducts in thermally developing entry region. Int J Heat Mass Transf 2007; 50: 1637-1640.
4-5) Huang S, Zhang L, Tang K and Pei L. Fluid flow and heat mass transfer in membrane parallel-plates channels used for liquid desiccant air dehumidification. Int J Heat Mass Transf 2012; 55: 2571-2580.
4-6) Zhang L. Heat and mass transfer in a cross-flow membrane-based enthalpy exchanger under naturally formed boundary conditions. Int J Heat Mass Transf 2007; 50: 151-162.
4-7) Zhang L, Cai R and Xu J. Moisture transport through asymmetric porous membranes with finger-like holes for indoor humidity control: A lattice Boltzmann simulation approach. Indoor Built Environ 2015; 25 (1): 151-168.
4-8) Yang B, Yuan W, Gao F and Guo B. A review of membrane-based air dehumidification. Indoor Built Environ 2013; 24 (1): 11-26
4-9) 日本機械学会 管路・ダクトの流体抵抗: 37-43
4-10) JIS B 8628: 2003. 全熱交換器
4-11) AHRI 1061, Air-Conditioning, Heating, and Refrigeration Institute, USA
4-12) Air-to-Air Energy Recovery Equipment (Chapter 26). In: ASHRAE Handbook 2012. American Society of Heating, Refrigeration and Air-Conditioning Engineers Inc.
[参 考 文 献]
5-1) 新建築学大系 10 環境物理 3 章 湿気 105–133
5-2) K. Abe, T. Kondoh, Y. Nagano (1994) A new turbulence model for predicting fluid flow and heat transfer in separating and reattaching flows-I. Flow field calculations: Int. J. Heat Mass Tran, 37, 139–151.
5-3) K Ito (2013) Integrated numerical simulation with fungal spore deposition and subsequent fungal growth on bathroom wall surface: Indoor and Built Environment, 22 (6), 881-896
5-4) K. Ito, K. Inthavong, T. Kurabuchi, T. Ueda, T. Endo, T. Omori, H. Ono, S. Kato, K. Sakai, Y. Suwa, H. Matsumoto, H. Yoshino, W. Zhang, J. Tu (2015) CFD benchmark tests for indoor environmental problems: part 1 isothermal/non-isothermal flow in 2D and 3D room model: Int. J. Archit. Eng. Technol. 2, 1–22.
5-5) ANSYS/FLUENT 16, User’s Guide, 2016.
5-6) 亀石圭司，戸田悠太，小林光，伊藤一秀 (2015) CO2 デマンド制御を組み込んだ全熱交換器の性能検証 (第 1 報) 大学研究室を対象とした夏期冷房時の換気負荷削減効果，空気調和・衛生工学会論文集，No.216，1-10
5-7) 亀石圭司，戸田悠太，小林光，伊藤一秀 (2015) CO2 デマンド制御を組み込んだ全熱交換器の性能検証 (第 2 報) 大学研究室を対象とした冬期暖房時の換気負荷削減効果，空気調和・衛生工学会論文集，No.220，1-10
5-8) Y. Fan, K. Kameishi, S. Onishi and K. Ito (2014) Field-based Study on Energy saving effects of CO2 demand controlled ventilation in office with application of energy recovery ventilators: Energy and Buildings 68, 412- 422
[参 考 文 献]
6-1) Juyeon Chung, Eunsu Lim, Mats Sandberg, and Kazuhide Ito : Returning and net escape probabilities of contaminant at a local point in indoor environment, Building and Environment, 125 (2017) 67-76
6-2) Eunsu Lim, Kazuhide Ito and Mats Sandberg : Performance evaluation of contaminant removal and air quality control for local ventilation systems using the ventilation index Net Escape Velocity : Building and Environment, 79, 2014, pp78-89
6-3) Eunsu Lim, Kazuhide Ito and Mats Sandberg : New Ventilation Index for evaluating imperfect mixing condition- Analysis of Net Escape Velocity based on RANS Approach : Building and Environment, 61, pp45- 56, March 2013
6-4) 大西茂樹，田島昌樹，伊藤一秀 (2010) 中規模オフィスビルを対象とした全熱交換器の空調消費電力削減効果に関する実測研究 (第 1 報) 冬期暖房時を対象とした実測と削減効果，空気調和・衛生工学会論文集，No.162，17-24
6-5) 大西茂樹，田島昌樹，伊藤一秀 (2011) 中規模オフィスビルを対象とした全熱交換器の空調消費電力削減効果に関する実測研究 (第 2 報) 夏期冷房時を対象とした実測と削減効果，空気調和・衛生工学会論文集，No.172，9-16
6-6) 范 芸青，大西茂樹，伊藤一秀 (2012) 中規模オフィスビルを対象とした全熱交換器の空調消費電力削減効果に関する実測研究 (第 3 報) 全熱交換器モデルを介した CFD とBES の連成解析，空気調和・衛生工学会論文集，No.180，13-22
6-7) 亀石圭司，戸田悠太，小林光，伊藤一秀 (2015) CO2 デマンド制御を組み込んだ全熱交換器の性能検証 (第 1 報) 大学研究室を対象とした夏期冷房時の換気負荷削減効果，空気調和・衛生工学会論文集，No.216，1-10
6-8) 亀石圭司，戸田悠太，小林光，伊藤一秀 (2015) CO2 デマンド制御を組み込んだ全熱交換器の性能検証 (第 2 報) 大学研究室を対象とした冬期暖房時の換気負荷削減効果，空気調和・衛生工学会論文集，No.220，1-10
6-9) Yunqing Fan, Keiji Kameishi, Shigeki Onishi and Kazuhide Ito : Field-based Study on Energy saving effects of CO2 demand controlled ventilation in office with application of energy recovery ventilators : Energy and Buildings 68 (2014) 412-422
6-10) JIS B 8628「全熱交換器」2003
6-11) 橋本健治，荻野文丸 編：現代化学工学 第 4 章 p119
6-12) Anthony L. Hines and Robert N. Maddox : Mass Transfer, Fundamental an Applications, Prentice-Hall, Inc.(1985) p176
6-13) 理科年表 平成 28 年 (机上版) 第 89 冊 国立天文台偏 丸善出版 p515
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