密闭式植物种苗工厂的设计及其光环境研究

摘要/Abstract

摘要： 密闭式植物苗工厂具有节能、环保、控制精度高、生产成本低等特点，发展前景广阔。利用不透光的绝热材料建设人工光型密闭式植物工厂，设计开发了高精度的环境控制系统，为植物生长提供优化的物理环境。研制了种苗繁育LED光环境调控装置、光照距离可调式荧光灯板，有效地改善植物生长所需的光环境，提高植物的光能利用率。通过对环境控制系统的试验研究以及相关的生物学试验，为密闭式植物工厂以及人工光源在育苗领域的应用研究提供了理论和试验依据。LED、荧光灯与自然光条件下黄瓜育苗对比试验表明LED光环境下植株生长速率高于其他处理，表现出一定的生长优越性。

关键词: 白血病抑制因子, 白血病抑制因子, 雌性哺乳动物, 生殖

Abstract: The closed plant factory has the advantages of energy saving, environmental protective, high precision control and low productive cost and it can be developed greatly. The closed plant factory using artificial lighting was constructed by the opaque thermal insulated materials. A real-time dynamic supervisory environmental control system was developed, controlling the environmental factors precisely; To improve the lighting for the plant to growth and the efficiency utilization of light, the LED lighting environmental control device and the lighting distance adjustable fluorescent board were designed. Experimental studies of environmental control system and biology were taken to supply information to the closed plant factory and the research on LED used in the seedling production area. The cucumber seedling compare experiments under LED, fluorescent lamp and the sunlight showed LED lighting was superior to other treatments, which has more advantages.

中图分类号:

魏灵玲,,杨其长,刘水丽. 密闭式植物种苗工厂的设计及其光环境研究[J]. 中国农学通报, 2007, 23(12): 415-415.

Wei Lingling,, Yang Qichang, Liu Shuili. Design of the Closed Plant Factory and Study on the Artificial Lighting Environment[J]. Chinese Agricultural Science Bulletin, 2007, 23(12): 415-415.

参考文献

[1] 杨其长,张成波.植物工厂概论.北京:中国农业科学技术出版社.2005:2-3.
[2] He D.X., C. Tong, Q. Yang, et al. A closed plantlet production system for applying photoautotrophic micro propagation. CIGR International Conference Beijing.2004,50-182D.
[3] Ohyama K, Fujiwara M, Kozai T. Water consumption and utilization efficiency of a closed-type transplant production system. An ASAE meeting presentation.2000,Paper No.004085.
[4] Kozai T. Environmental control and its effects in transplant production under artificial light. Kor. Soc. Hort. Cont. Sci.1996,114(2):12-16.
[5] Kozai T, Nguyen Q T, Kubota C. Environmental control and its effects in transplant production under artificial lighting. Kor. Soc. Hort. Sci.,1997,38(2):194-199.
[6] Kozai T, He D, Chun C. Commercialized closed systems with artificial lighting for high quality plant production at low cost. 2004 CIGR International Conference Beijing.2004,No.50-006A.
[7] Chun C, Kozai T. A closed-type transplant production system. In Proc. Molecular Breeding of Woody Plant, N. Morohoshi and A. Komamine, eds. The Netherlands: Elsevier Science. 2001,375-384.
[8] Ohyama K, Kozai T, Yoshinaga K. Electric energy, water and carbon dioxide utilization efficiencies of a closed-type transplant production system. Transplant production in the 21st century.2000,28-32.
[9] Ohyama K, Yoshinaga K, Kozai T. Energy and mass balance of a closed-type transplant production system (part 2) – water balance. SHITA J.,2000,12(4):217-224.
[10] Nishimura M, Kozai T, Kubota C, et al. Energy balance of a commercial scale closed transplant production system. SHITA J.,2001,13(4):255-262.
[11] Kozai T, Chun C. Closed systems using artificial light for producing quality transplants. Proc. the Korea-Japan Jion Symp. onn transplant production in horticultural Plants.1999,53-60.
[12] Nishimura M, Kozai T, Kubota C, et al. Analysis of electric energy consumption and its cost for a closed-type transplant production system. SHITA J.,2001,13(3):204-209.
[13] 贺冬仙,杨其长,马承伟.植物生产中的人工光环境调控.2002农业与生物系统工程科技教育发展战略论坛,2002:78-183.
[14] 吴文锋.LED光源照明应用及技术推广.半导体照明LED,2004,18(6):83-84.
[15] 储钟稀,童哲,冯丽洁.不同光质对黄瓜叶片光合特性的影响.植物学报,1999,41(8):867-870.