Res. Agr. Eng., 2022, 68(1):41-46 | DOI: 10.17221/16/2021-RAE

Drawbar performance of a power tiller on a sandy loam soil of the Nadia district of West BengalOriginal Paper

Sujit Hensh ORCID...*,1, Partha Sarathi Chattopadhyay2, Khokan Das3
1 College of Agriculture, Extended Campus of Bidhan Chandra Krishi Viswavidyalaya, Burdwan, West Bengal, India
2 Farm Machinery and Power Department, Faculty of Agricultural Engineering, Bidhan Chandra Krishi Viswavidyalaya, Mohanpur, West Bengal, India
3 John Deere India Private Limited Unit, John Deere Technology Centre Cyber City, Pune, India

A 9.69 kW power tiller's drawbar performance was tested by using a drawbar loading vehicle consisting of a power tiller with a mould board (MB) plough. A spring-loaded dynamometer was attached between the tested power tiller and the loading vehicle to measure the drawbar pull. The drawbar pull was changed from 0.905 kN to 2.232 kN by varying the operating depth of the MB plough. Empirical equations were developed to correlate the drawbar pull to the wheel slip, drawbar power, fuel consumption, and drawbar specific fuel consumption (DBSFC), and one was developed to correlate the drawbar power to the wheel slip. The wheel slip increased exponentially with an increase in the drawbar pull and drawbar power. A maximum wheel slippage of 48.94% was observed at a 2.232 kN drawbar pull and 0.763 kW drawbar power. A second-degree polynomial equation was found to correlate the drawbar pull to the drawbar power, fuel consumption, and DBSFC. The maximum drawbar power was found as 0.763 kW at a 2.02 kN drawbar pull, which was 7.87% of the rated engine power. The fuel consumption increased by 66.93%, and the DBSFC reduced by 10.56% due to the increase of the drawbar pull from 0.905 kN to 2.232 kN. The lowest DBSFC of 2.01 kg.kWh-1 was found at a 2.232 kN drawbar pull.

Keywords: drawbar power; drawbar pull; dynamometer; specific fuel consumption; wheel slip

Published: January 15, 2022  Show citation

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Hensh S, Chattopadhyay PS, Das K. Drawbar performance of a power tiller on a sandy loam soil of the Nadia district of West Bengal. Res. Agr. Eng. 2022;68(1):41-46. doi: 10.17221/16/2021-RAE.
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References

  1. Abrahám R., Majdan R., Drlička R. (2015): Possibilities of improving the wheel tractor drive force transmission to soil. Research in Agricultural Engineering, 61: 37-42. Go to original source...
  2. Alvi S.A.A., Pandya A.C. (1968): Testing of walking type tractor. The Harvester, 10: 51-61.
  3. Hensh S., Tewari V.K., Upadhyay G. (2021): A novel wireless instrumentation system for measurement of PTO (power take-off) torque requirement during rotary tillage. Biosystems Engineering, 212: 241-251. Go to original source...
  4. Kathirvel K., Balasubramanian M., Manian R. (2000): Development and evaluation of loading car for assessment of drawbar performance of power tiller. Agricultural Mechanization in Asia, Africa and Latin America (Japan), 31: 9-14.
  5. Kumar S., Kumar P. (2018): Different attachments of a power tiller: A review. International Journal of Science, Environment and Technology, 7: 1024-1035.
  6. Mandal S.K., Maity A., Prasad A.K. (2016): Performance evaluation of a lightweight power tiller. Agriculture for Sustainable Development, 3: 126-129.
  7. Ministry of Agriculture (2015): Farm Mechanization Thematic Report [Dataset]. Available at http://content.icicidirect.com/mailimages/IDirect_FarmMechanisation_ThematicReport.pdf (accessed May 20, 2020).
  8. Narang S., Varshney A.C. (1995): Evaluation of a 6.71 kW power tiller for draft and drawbar power on tar roads. Journal of Terramechanics, 32: 91-97. Go to original source...
  9. Narang S., Varshney A.C. (2006): Draftability of a 8.95 kW walking tractor on tilled land. Journal of Terramechanics, 43: 395-409. Go to original source...
  10. Paman U., Inaba S., Uchida S. (2015): Working performance and economic comparison of three power tiller types for small-scale rice farming in the Kampar region of Indonesia. Journal of the Japanese Society of Agricultural Machinery and Food Engineers, 77: 363-370.
  11. Pradhan P., Verma A., Naik R., Guru P. (2015): Traction and drawbar performance characteristics of power tiller attached cage wheel. Bibechana, 13: 38-49. Go to original source...
  12. Rasool S., Raheman H. (2018): Improving the tractive performance of walking tractors using rubber tracks. Biosystems Engineering, 167: 51-62. Go to original source...
  13. Schreiber M., Kutzbach H. (2008): Influence of soil and tire parameters on traction. Research in Agricultural Engineering, 54: 43-49. Go to original source...
  14. Simikic M., Tomic M., Savin L., Micic R., Ivanisevic I., Ivanisevic M. (2018): Influence of biodiesel on the performances of farm tractors: Experimental testing in stationary and non-stationary conditions. Renewable Energy, 121: 677-687. Go to original source...
  15. Tewari V.K., Dewangan K.N., Karmakar S. (2004): Operator's fatigue in field operation of hand Tractors. Biosystems Engineering, 89: 1-11. Go to original source...
  16. Tiwari P.S., Varshney A.C. (2002): Effect of forward speed on field performance of power tiller with and without operator's seat. Indian Journal of Agricultural Sciences, 72: 151-155.

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