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Condensation Control in Polyhouse using Embedded System
| International Journal of Computer Applications |
| Foundation of Computer Science (FCS), NY, USA |
| Volume 108 - Number 18 |
| Year of Publication: 2014 |
| Authors: A. J. Hake, A. J. Patil |
10.5120/19008-0494
|
A. J. Hake, A. J. Patil . Condensation Control in Polyhouse using Embedded System. International Journal of Computer Applications. 108, 18 ( December 2014), 1-4. DOI=10.5120/19008-0494
Abstract
The development of the crop grown in the greenhouse depends on the internal environment such as air movement, temperature, humidity, C02 and light. The monitoring and control of this parameter play a vital role in the overall development of the plant, its production and management. Commercially available greenhouse monitoring systems are quite expensive. The Indian poor farmers are unable to deploy this commercial systems. This paper presents a low cost system developed to monitor and control the greenhouse environment. The system is developed using ATMEGA 168 controller Arduino Uno board which is low cost, effective and simple. Various sensors are integrated to this board which monitor and control various parameters. Condensation occurs if temperature and humidity is not maintained properly. This affects the overall growth of plant. Experimental results demonstrates the monitoring and controlling capabilities of the developed system.
References
- J. A. Businger, The glasshouse climate, physics of plant environment, North Publ. Co. , Amsterdam, 1963.
- G. Straten, What can systems and control theory do for agriculture?, in: Proceedings of 2nd IFAC International Conference Agricontrol, Osijek, Croatia, 2007.
- I. Farkas, Modelling and control in agricultural processes, Comput. Electron. Agric. 49 (8) (2001) 315–316.
- N. Sigrimis, P. Antsaklis, P. Groumpos, Special issue on control advances in agriculture and the environment, IEEE Control Syst. Mag. 21 (2001) 78–85.
- N. Sigrimis, R. King, Special issue on advances in greenhouse environment control, Comput. Electron. Agric. 26 (1999) 217–374.
- T. Burnett, The effect of temperature of an insect hostparasite population, Ecology, (1949) 113–133.
- K. L. Robb, M. P. Parrella, Towards understanding the thysanoptera, General Technical Report NE147, US (1991) 343–358.
- F. Rodriguez, Modeling and hierarchical control of greenhouse crop production, PhD thesis, University of Almera, Spain.
- F. Rodrguez, J. L. Guzmn, Adaptive hierarchical control of greenhouse crop production, Int. J. Adap. Cont. Signal Process 22 (2008) 180–197.
- N. Wang, N. Zang, Wireless sensors in agriculture industryrecent development and future perspective, Computers and Electronics in Agriculture 50 (2006) 1–14.
- S. Shanmugantah, A. Ghobakhlou, P. Sallis, Sensor data acquisition for climate change modelling, WSEAS Transactions on Circuits and Systems 7 (2008) 942–958.
- J. Burrell, T. Brooke, R. Beckwith, Vineyard computing: Sensor networks in agricultural production, Sensor and Actuator Network 7 (2004) 38–45.
- R. Morais, M. Fernandes, S. M. et. al. , A zigbee multipowered wireless acquisition device for remote sensing applications in precision viticulture, Computers and Electronics in Agriculture 62 (2008) 94–106.
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