EFFECT OF SOIL FORCES ON THE SURFACE OF MOLDBOARD PLOW UNDER DIFFERENT WORKING CONDITIONS

Authors

  • A. Mari Nanjing Agricultural University, Department of Agricultural Mechanization, Engineering College, Nanjing, China Author
  • C. Ji Nanjing Agricultural University, Department of Agricultural Mechanization, Engineering College, Nanjing, China Author
  • A. A. Tagar Nanjing Agricultural University, Department of Agricultural Mechanization, Engineering College, Nanjing, China Author
  • F. A. Chandio Nanjing Agricultural University, Department of Agricultural Mechanization, Engineering College, Nanjing, China Author
  • M. Hanif Khyber Pakhtunkhwa Agricultural University, Department of Agricultural Mechanization, Faculty of Crop Production Sciences, Peshawar, Pakistan Author

Keywords:

Soil force sensors, soil and tool parameters, surface of moldboard plow, paddy soil, soil bin

Abstract

The study was conducted to investigate the effect of forces on the surface of moldboard plow (model: 1LE – 435) at three
angles (65°, 75°, 90°), three depths (15cm, 20cm and 25 cm) and three moisture contents (21%, 24% and 27%) and variable on
soil bin, while the forward speed of plow was kept constant (2 km/hr). In total 11 sensors were fixed on the surface of different
parts of plow to measure draft forces applied on the surface of plow. Results revealed that the maximum force was observed
at 90° angle, which decreased with the decreasing angles. It was also observed that varying angles have considerable effect on
the width of cut. The maximum soil forces were exerted on the share of plow at all angles, while minimum force was observed
on the curvature of plow. The effect of different moisture content, working depths and rake angle were significant (P<0.01). It
was also observed that moisture content has inverse relation with soil forces while depth has direct relation with soil forces.

References

Abbaspour, Y., R. Alimardani, A. Khalilian, A. Keyhani and S. A. Hossein Sadati., 2006. Energy requirement of site-specific and conventional tillage as affected by tractor speed and soil parameters. International Journal of Agriculture & Biology, pp. 499–503.

Al-Suhaibani, S. A and A. E. Ghaly, 2010. Performance Evaluation of a Heavy Duty Chisel Plow at Various Tillage Depth and Forward Speeds. American J. of Engineering and Applied Sciences, 3 (4): 588-596.

Arvidsson, J., T. Keller and K. Gustafsson, 2004. Specific draught for mouldboard plough, chisel plough and disc harrow at different water contents. Soil Tillage Res., 79: 221-231.

Chen, Y., N. B. McLaughlin and S. Tessier, 2007. Double extended octagonal ring (DEOR) drawbar dynamometer. Soil & Tillage Research, 93: 462–471.

Chandi, F. A., C. Ji, A. A. Tagar, I. A. Mari, C. Arslan, D. M. Cuong and H. Fang, 2013. Effect of Loading Rate on Mechanical Characteristics of Wheat and Rice Straw. Bulg. J. Agric. Sci., 19: 1452-1458.

Chung, S. O., K. A. Sudduth and J. Tan, 2008. Spectral Analysis of On-the-go Soil Strength Sensor Data. J. of Biosystems Eng., 33 (5): 355-361.

Godwin, R. J., 1975. An extended octagonal ring transducer for use in tillage studies. Journal of Agricultural Engineering Research, 20: 347–352.

Godwin, R. J., A. J. Reynolds, M. J. O’Dogherty and A. A. Al-Ghazal, 1993. A triaxial dynamometer for force and management measurement on tillage implements. Journal of Agricultural Engineering Research, 55: 189–205.

Gopal, U. Shinde, Parag D. Badgujar and Shyam R. Kajale, 2011. Experimental Analysis of Tillage Tool Shovel Geometry on Soil Disruption by Speed and depth of operation. International Conference on Environmental and Agriculture Engineering, IPCBEE vol.15, ACSIT Press, Singapore.

Inchebron K., S. R. Mousavi Seyedi and R. Tabatabaekoloor, 2012. Performance evaluation of a light tractor during plowing at different levels of depth and soil moisture content. International Research Journal of Applied and Basic Sciences, 3 (3): 626-631.

Kirisci, V., B., S. Blackmore, R. J. Godwin and J. Blake, 1993. Design and calibration of three different three-point linkage dynamometers. ASAE/CSAE Paper No. 93-1009.

Manuwa, S. and O. C. Ademosun, 2007. Draught and Soil Disturbance of Model Tillage Tines under Varying Soil Parameters. Agricultural Engineering International: the CIGR Journal, IX: 6-16.

Marakoglu, T. and K. Carman, 2008. Effect of design parameter of a cultivator share on draft force and soil loosening in a soil bin. Journal of Agronomy, ISSN 1812-5379.

Naderloo, L., R. Alimadani, A. Akram, P. Javadikia and H. Zeinali Khanghah, 2009. Tillage depth and forward speed effects on draft of three primary tillage implements in clay loam soil. Journal of Food, Agriculture & Environment, 7 (3-4): 382-385.

Olatunji, O. M. and R. M. Davies, 2009. Effect of Weight and Draught on the Performance of Disc on Sandy-loam Soil. Research Journal of Applied Sciences, Engineering and Technology, 1 (1): 22–26.

Saunders, C., R. J. Godwin and M. J. O’Dogherty, 2000. Prediction of soil forces acting on mouldboard ploughs. Fourth International Conference on Soil Dynamics, Adelaide, Australia, March, 26-30.

Taniguchi, T., J. T. Makanga and K. Kishimoto, 1999. Draft and manipulation by a moldboard plow under different forward speed and body attachments. Transactions of the ASAE, 99: 1517-1521.

Zoerb, G. C., N. G. Musonda and R. L Kushwaha, 1983. A combined drawbar pins and force transducer. Canadian Agricultural Engineering, 25: 157–162.

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Published

28.04.2014

How to Cite

Mari, A., Ji, C., A. Tagar, A., A. Chandio, F., & Hanif, M. (2014). EFFECT OF SOIL FORCES ON THE SURFACE OF MOLDBOARD PLOW UNDER DIFFERENT WORKING CONDITIONS. Bulgarian Journal of Agricultural Science, 20(2), 497-501. https://agriacad.eu/ojs/index.php/bjas/article/view/6243