Feasibility Analysis of Drying Process Habanero Chili Using a Hybrid-Solar-Fluidized Bed Dryer in Yucatan, M^xico
Feasibility Analysis of Drying Process Habanero Chili Using a Hybrid-Solar-Fluidized Bed Dryer in Yucatan, M^xico
摘要
Drying processing of Habanero chili was improved, through solar energy usage. Habanero chili is a notable seasonal product being drying such important for Mexican producers; this process is expensive and wasteful of energy. A feasibility analysis was developed, to determine the market tendency and the optimal drying conditions for redesign Habanero chili drying process, through a hybrid solar-electric energy usage. The new drying process would be held in two stages: (a) an open solar dryer was used; (b) an existing pilot fluidized bed dryer was adapted with a low temperature solar collector for air heating. Habanero chili was dehydrated from 90% to 5% moisture in 10.3 h, with good quality product, available for commercialization. A reduction in the average drying time of 50% was obtained, also, in the energy usage of 77% in the fluidized bed dryer, with an energy saving of 0.52 kg of natural gas per kg of fresh Habanero chili. An innovative sustainable efficient drying process was developed, and will be strategic to expand the market for Habanero chili with low energy cost.
参考文献18
-
1A.S. Mujumdar, Handbook of Industrial Drying, Taylor & Francis, CRC Press, USA, 2007.
-
2C. Tam, Energy Technology Transitions for Industry: Strategies for the next Industrial Revolution, International Energy Agency, Paris, France, 2009.
-
3A. Brown, S. Moiler, Z. Dobrotkova, Renewable Energy: Markets and Prospects by Technology, International Energy Agency, Paris, France, 2011.
-
4A. Artnaseaw, S. Theerakulpisut, C. Benjapiyaporn, Development of a vacuum heat pump dryer for drying chili, Biosystems Engineering 105 (2010) 130-138.
-
5Y. Soysal, Z. Ayhan, O. Estiark, M.F. Arikan, Intermittent microwave-convective drying of red pepper: Drying kinetics, physical (colour and texture) and sensory quality, Engineering 103 (2009) 455-463.
-
6S. Kaleemullah, R. Kailappan, Drying Kinetics of red chilies in a rotary dryer, Biosystems Engineering 92 (1) (2005) 15-23.
-
7B.K. Bala, M.A. Morshed, M.F. Rahman, Solar drying of mushroom using solar tunnel dryer, in: International Solar Food Processing Conference, Bangladesh, 2009, pp, 1-11.
-
8J. Facao, A.C. Olivera, Analysis of a plate heat pipe solar collector, in: International Conference on Sustainable Energy Technologies, Bonn, 2004, pp. 1-5.
-
9S. Sami, N. Etesami, A. Rahimi, Energy and exergy analysis of an indirect solar cabinet dryer based on mathematical modeling results, Energy 36 (5) (2011) 2847-2855.
-
10S. Syahrul, F. Hamdullahpur, I. Dincer, Energy analysis of fluidized bed drying of most particles, Energy 2 (2) (2002) 87-98.
-
1黄福泰,李渊民.太阳能流化床干燥器的研究设计与运行[J].凉山科技,1991(3):19-21.
-
2董治堂,郭晓和.河南省能源工业市场趋势[J].河南经济,1997(10):13-15.
-
3大陆马牌推出“黑辣椒”配方轮胎[J].橡胶参考资料,2016,46(6):54-54.
-
4专利介绍[J].干燥技术与设备,2009,7(4):179-179.
-
5许凯,王伟文,陈光辉,李建隆.新型内热式流化床干燥器的设计[J].维纶通讯,2009,29(2):31-34. 被引量:2
-
6白炭黑干燥新设备研制成功[J].橡塑机械时代,2014,26(9):31-31.
-
7王丽娟,李丽,杨淑兰,杨春萍.尼鲁接触式流化床干燥器控制条件初探[J].聚氯乙烯,2005,33(7):17-18.
-
8李娟.酒糟流态化干燥压降的实验研究[J].节能,1999(1):7-8.
-
9舟丹.可再生能源已成全球能源投资热点领域[J].中外能源,2015,20(3):98-98. 被引量:7
-
10发热的太阳能产业:耀眼且灼人[J].日用电器,2009(8):17-19.