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Reseach Article

Automation for Agriculture

Published on June 2015 by D.d. Ahire, Swapnil Kulkarni, Amit Pimparkar, Arjun Date
National Conference on Emerging Trends in Advanced Communication Technologies
Foundation of Computer Science USA
NCETACT2015 - Number 2
June 2015
Authors: D.d. Ahire, Swapnil Kulkarni, Amit Pimparkar, Arjun Date
6fc604d3-c6de-4227-9984-71f7d8d88c62

D.d. Ahire, Swapnil Kulkarni, Amit Pimparkar, Arjun Date . Automation for Agriculture. National Conference on Emerging Trends in Advanced Communication Technologies. NCETACT2015, 2 (June 2015), 11-13.

@article{
author = { D.d. Ahire, Swapnil Kulkarni, Amit Pimparkar, Arjun Date },
title = { Automation for Agriculture },
journal = { National Conference on Emerging Trends in Advanced Communication Technologies },
issue_date = { June 2015 },
volume = { NCETACT2015 },
number = { 2 },
month = { June },
year = { 2015 },
issn = 0975-8887,
pages = { 11-13 },
numpages = 3,
url = { /proceedings/ncetact2015/number2/20986-2020/ },
publisher = {Foundation of Computer Science (FCS), NY, USA},
address = {New York, USA}
}
%0 Proceeding Article
%1 National Conference on Emerging Trends in Advanced Communication Technologies
%A D.d. Ahire
%A Swapnil Kulkarni
%A Amit Pimparkar
%A Arjun Date
%T Automation for Agriculture
%J National Conference on Emerging Trends in Advanced Communication Technologies
%@ 0975-8887
%V NCETACT2015
%N 2
%P 11-13
%D 2015
%I International Journal of Computer Applications
Abstract

It has been seen that, in the agriculture, wastage of water and valve controlling is one of the major concern. At present it is operated manually which leads to great man power requirement. Also adequate and required supply of water is needed in agriculture. Along with these concerns, fluctuations in electricity lead to damage the motor permanently. So we have made an attempt to design a system, which would control the valve action based on the sensors output through GSM. Along with this it also prevents permanent damage of motor from fluctuations in electricity. The main aim of the project is to read the sensors output and to control the valves through the GSM technology. Input signal 230v ac given to the transformer of 12vdc and 12v dc signal is send to microcontroller. Status of the field is sent through the GSM based on the output of the sensors. Depending on this status, valve controlling action is performed. After the adequate supply of water, valves are closed automatically depending on the updated status of the sensors. In this project, we have also improved on automatic action taken to control the valve action in case of GSM facility failure.

References
  1. Balendonck J, Hemming J, Van Tuijl BAJ, Pardossi A, Incrocci L, Marzialetti P (2008). Sensors and Wireless Sensor Networks for Irrigation Management under Deficit Conditions (FLOW- AID). International Conference on Agricultural Engineering (AgEng2008). Conf. Proc. p. 19.
  2. Coates RW, Delwiche M, Brown P (2005). Precision Irrigation in Orchards: Development of a Spatially Variable Micro sprinkler System. Information and Technology for Sustainable Fruit and Vegetable Production (FRUTIC). pp. 611-624.
  3. Coates RW, Delwiche MJ, Brown PH (2006a). Control of individual micro sprinklers and fault detection strategies. Precision Agric. ,7: 85-99.
  4. Damas M, Prados AM, Gomez F, Olivares G (2001). HidroBus® system: fieldbus for integrated management of extensive areas of irrigated land. Microprocessors Microsyst. 25: 177-184.
  5. Doraiswamy PC, Hatfield JL, Jackson TJ, Akhmedov B, Prueger J, Stern A (2004). Crop condition and yield simulations using Landsat and MODIS. Remote Sensing Environ. , 92: 548-559.
  6. Dursun M, Ozden S (2010). A Prototype of PC Based Remote Control of Irrigation. International Conference on Environmental Engineering and Application (ICEEA), pp. 255-258. (IEEE Catalog Number: CFP1020L-PRT)
  7. Kim Y, Evans RG (2009). Software design for wireless sensor-based site-specific irrigation. Comput. Electron. Agric. , 66: 159-165
  8. Kim Y, Evans RG, Iversen WM (2008). Remote sensing and control of an irrigation system using a distributed wireless sensor network. IEEE Trans. Instrum. Meas. , 57(7): 1379-1387
  9. Lopez RJA, Sotoa F, Suardiaza F, Sancheza P, Iborraa A, Verab JA (2009). ?Wireless Sensor Networks for precision horticulture in Southern Spain?. Comput. Electron. Agric. , 68: 25-35.
  10. Miranda FR, Yoder R, Wilkerson JB (2003). A site-specific irrigation control system. ASAE Annual International Meeting. p. 031129.
  11. Miranda FR, Yoder RE, Wilkerson JB, Odhiamboc LO (2005). An autonomous controller for site-specific management of fixed irrigation systems. Comput. Electron. Agric. , 48:183-197.
  12. Oksanen T, Ohman M, Miettinen M, Visala A (2004). Open configurable control system for precision farming. Automation Technology for Off-Road Equipment, Proceedings, 701P1004.
  13. Perry CD, Dukes MD, Harrison KA (2004). Effects of variable-rate sprinkler cycling on irrigation uniformity. ASAE Annual International Meeting, p. 041117.
  14. Sezen SM, Celikel G, Yazar A, Tekin S, Kapur B (2010). Effect of irrigation management on yield and quality of tomatoes grown in different soilless media in a glasshouse. Sci. Res. Essay, 5(1): 41-48.
  15. Thelen J, Goense D, Langendoen K (2005). Radio wave propagation in potato fields. In: First Workshop on Wireless Network Measurements (co-located with WiOpt2005), pp. 1-4.
  16. Wall RW, King BA (2004). Incorporating plug and play technology into measurement and control systems for irrigation management. ASAE Annual International Meeting. pp. 042189.
  17. Zhang Z (2004). Investigation of wireless sensor networks for precision agriculture. ASAE Annual International Meeting. p. 041154.
Index Terms

Computer Science
Information Sciences

Keywords

Gsm Farm Keil