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• Okamoto S., Kitora H., Yamaguchi H., Oka T., A simplified calculation method for estimating heat flux from ceiling radiant panels, Energy and Buildings, 42, 29-33, 2010.
• Koca A., Gemici Z., Topacoglu Y., Cetin G., Acet R.C., Kanbur B.B., Experimental investigation of heat transfer coefficients between hydronic radiant heated wall and room, Energy and Buildings, 82, 211-221, 2014.
• Acikgoz O., Cebi A., Celen A., Dalkilic A., Koca A., Cetin G., Gemici Z., Wongwises S., A Novel ANN-Based Approach to Estimate Heat Transfer Coefficients in Radiant Wall Heating Systems, Energy and Buildings, 144, 401- 415, 2017.
• Koca A., Gemici Z., Bedir K., Thermal comfort analysis of novel low exergy radiant heating cooling system and energy saving potential comparing to conventional systems, Progress in Exergy, Energy and Environment, Cilt 1, Editor: Ibrahim Dincer, Springer International Publishing, Switzerland, 38, 435-445, 2014.
• Erikci Çelik S.N., Zorer Gedik G., Parlakyildiz B., Koca A., Çetin M.G, Gemici Z., The performance evaluation of the modular design of hybrid wall with surface heating and cooling system, A/Z ITU Journal of the Faculty of Architecture, 13 (12), 31-37, 2016. (DOI: 10.5505/itujfa.2016.48658)
• Kanbur B.B., Atayılmaz S.O., Koca A., Gemici Z., Teke İ., Işınım ısıtma panellerinde açığa çıkan ısı akılarının sayısal olarak incelenmesi, 19. Ulusal Isı Bilimi ve Tekniği Kongresi, Samsun, 1498-1502, 9-12 Eylül, 2013.
• Koca A., Gemici Z., Topaçoğlu Y., Çetin G., Acet R.C., Kanbur B.B., Işınım ısıtma ve soğutma sistemlerinin ısıl konfor analizleri, 11. Ulusal tesisat mühendisliği kongresi, İzmir, 2025-2042, 17-20 Nisan, 2013.
• Cholewa T., Anasiewicz R., Siuta-Olcha A., Skwarczynski A., On the heat transfer coefficients between heated/cooled radiant ceiling and room, Applied Thermal Engineering, 117, 76-84, 2017.
• Imanari T., Omori T., Bogaki K., Thermal comfort and energy consumption of the radiant ceiling panel system, comparison with the conventional all-air system, Energy and Buildings, 30, 167-175, 1999.
• Catalina T., Virgone J., Kuznik F., Evaluation of thermal comfort using combined CFD and experimantation study in a test room equipped with a cooling ceiling, Building and Environment, 44, 1740-1750, 2009.
• Stetiu C., Energy and peak power savings potential of radiant cooling systems in U.S. commercial buildings, Energy and Buildings, 30, 127-138, 1999.
• Milorad B., Dragan C., Energy, cost, and CO2 emission comparison between radiant wall panel systems and radiator systems, Energy and Buildings, 54, 496-502, 2012.
• Liu J., Aizawa H., Yoshino H., CFD prediction of surface condensation on walls and its experimental validation, Building and Environment, 39, 905-911, 2004.
• Niu J.L.Z., Zhang L.Z., Zuo H.G., Energy saving potential of chilled ceiling combined with desiccant cooling in hot and humid climates, Energy and Buildings, 34, 487-495, 2002.
• Xiaoli H., Guoqiang Z., Youming C., Shenghua Z., Demetrios J.M., A combined system of chilled ceiling, displacement ventilation and desiccant dehumidification, Building and Environment, 42, 3298-3308, 2007.
• Catalina T., Virgone J., Dynamic simulation regarding the condensation risk on a cooling ceiling installed in an office room, Proceedings Building Simulation, 310-314, 2007.
• Zhang L.Z., Energy performance of independent air dehumidification systems with energy recovery measures, Energy, 31, 1228-1242, 2006
• Vangtook P., Chirarattananon S., An experimental investigation of application of radiant cooling in hot humid climate, Energy and Buildings, 38, 273-285, 2006.
• Song D.S., Kim T.Y., Song S.W., Hwang S.H.S.B., Performance evaluation of a radiant floor cooling system integrated with dehumidified ventilation, Applied Thermal Engineering, 28 (11), 1299-1311, 2008.
• Hao X., Zhang G., Chen Y., Zou S., Moschandreas D.J., A combined system of chilled ceiling, displacement ventilation and desiccant dehumidification, Building and Environment, 42, 3298-3308, 2007.
• Binghooth A.S., Zainal Z.A., Performance of desiccant dehumidification with hydronic radiant cooling system in hot humid climates, Energy and Buildings, 51, 1-5, 2012.
• Zhang L.Z., Niu J.L., Indoor humidity behaviors associated with decoupled cooling inhot and humid climates, Building and Environment, 38, 99-107, 2003.
• Niu J.L., Zhang Z.L., Zuo H.G., Energy saving potential of chilled-ceiling combined with desiccant cooling in hot and humid climate, Energy and Buildings, 34, 487-495, 2002.
• Zainal, Z.A., Binghooth A.S., Desiccant Dehumidification Integrated with Hydronic Radiant Cooling System, Cilt 1, Editor: Nóbrega C. E. L., Springer London, London, 217-247, 2013.
• Ameen A., Mahmud K., Desiccant dehumidification with hydronic radiant cooling system for air-conditioning applications in humid tropic climates, ASHARE Transactions, 111 (2), 225-237, 2005.
• Liu X.H., Chang X.M., Xia J.J., Jiang Y., Performance analysis on the internally cooled dehumidifier using liquid desiccant, Building and Environment, 44 (2), 299-308, 2009.
• Mumma S.A., Chilled ceiling condensation control, in: ASHRAE IAQ Applications, Energy and Building, 5, 22-23, 2003.
• Fauchoux M., Bansa M., Talukdar P., Simonson C.J., Torvi D., Testing and modelling of a novel ceiling panel for maintaining space relative humidity by moisture transfer, International Journal of Heat and Mass Transfer, 53, 3961-3968, 2010.
• ASTM Standard E104, Standard Practice for Maintaining Constant Relative Humidity by Means of Aqueous Solutions, ASTM, USA, 2007.
• Ge F., Guo X., Liu H., Wang J., Lu C., Energy performance of air cooling systems considering indoor temperature and relative humidity in different climate zones in China, Energy and Buildings, 64, 145-153, 2013.
• Koca A., Atayilmaz O., Agra O., Experimental investigation of heat transfer and dehumidifying performance of novel condensing panel, Energy and Building, 129, 120-137, 2016.
• Koca A., Düşey bir panel yüzeyinde doğal taşinim şartlarinda yoğuşmanin incelenmesi, Doktora tezi, Yıldız Teknik Üniversitesi, Fen Bilimleri Enstitüsü, İstanbul, 2015.
• EN 1264-5 Standard, Water based surface embedded heating and cooling systems. Part 5: heating and cooling surfaces embedded in floors, ceilings and walls - determination of the thermal output, USA, 2008.
• BS EN 14037-5 Standard, Free hanging heating and cooling surfaces for water with a temperature below 120°C. Open or closed heated ceiling surfaces. Test method for thermal output, USA, 2016.
• DIN 4102 - Part 1, B2, Reaction to fire tests - Ignitability of building products subjected to direct impingement of flame, Germany, 1998.
• ANSI/ASHRAE Standard 138-2005, Method of Testing for Rating Ceiling Panelsfor Sensible Heating and Cooling, USA, 2005.
• DIN 4108 - Part3, Wärmeschutz und Energie-Einsparung in Gebäuden - Teil 3: Klimabedingter Feuchteschutz; Anforderungen, Berechnungsverfahren und Hinweise für Planung und Ausführung, Germany, 2003.
• Fanger P.O., Thermal Comfort, Analysis and Application in Environment Engineering. Danish Technical Press, Copenhagen, 1970.
• EN ISO 7730, Ergonomics of thermal environment-Analytical determination and interpretation of thermal comfort using calculation of the PMV and PPD indices and local thermal comfort criteria. International Organization for Standardization, Geneva, 2005.
• ASHRAE Handbook-HVAC Systems and Equipment, American Society of Heating Refrigerating and Air-Conditioning Engineers. Inc., ASHRAE, Atlanta, 2008.
• ASHRAE Standart 55, Thermal environment conditions for human occupancy, ASHRAE, USA, 2003.