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Design and Development of a Seed Metering Mechanism for Ginger Planter


Affiliations
1 ICAR-Central Institute of Agricultural Engineering, Bhopal, India
 

Manual ginger planting is a tedious, drudgery-prone, and time-consuming operation, due to the constant bending posture during planting. To address this issue, a seed metering mechanism was developed and evaluated at the ICAR-Central Institute of Agricultural Engineering, Bhopal. The metering mechanism consisted of a vertical rotating disc, fingers, lever and cam, seed hopper, agitator, and rhizome delivery system. The laboratory study was conducted using a sticky belt set up to determine the seed distribution pattern at different forward speeds (0.42 m/s, 0.56 m/s, 0.69 m/s, and 0.83 m/s), rhizome sizes viz. small (< 35 mm), medium (35–50 mm), and large (> 50 mm), and types of pickup fingers (P1 and P2). The factorial CRD design with three replications for each variable was used in the laboratory experiment. The performance parameters were measured, including average spacing, missing index, multiple index, quality of feed index and visible damage. The result revealed that speed of operation, seed size and finger type had statistically significant effects on the average seed spacing. As the speed of operation and seed size increased, the multiple index and Quality of Feed Index (QFI) decreased, while the missing index and damage percentage increased for both types of fingers. The main factor significantly influencing the performance indices was the speed of operation. The highest QFI of 77.14% was observed at the forward speed of 0.56 m/s for P2 fingers. The lower values of miss index, multiple index, and visible damage were observed with P2 as compared to P1. The visible damage was observed to increase at increasing speeds and seed sizes for both types of fingers. The performance of the metering system was found satisfactory with finger (P2) at the optimum speed of 0.56 m/s for medium seed sizes. The automatic seed metering mechanism holds great potential for ginger planting to improve accuracy, efficiency, yields, and cost-effectiveness.

Keywords

Damage, Ginger, Mechanization, Quality of feed, Rhizome.
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  • Kumar K M, Asish G R, Sabu M & Balachandran I, Significance of gingers in Indian system of medicine Ayurveda: An overview, Anc Sci Life, 32 (2013) 253–261, https://doi.org/10.4103/0257-7941.131989.

  • Joshi P & Khanal S, Production status, export analysis, and future prospects of ginger in Nepal, Arch Agric Environ Sci, 6(2) (2021) 202–209, https://dx.doi.org/10.26832/ 24566632.2021.0602012.

  • Anonymous, Agricultural Statistics at a Glance (Government of India, Ministry of Agriculture & Farmers Welfare Department of Agriculture, Cooperation & Farmers Welfare Directorate of Economics and Statistics) 2020.

  • Anonymous, Annual Report of National Horticulture Board Cooperation and Farmer’s Welfare (Ministry of Agriculture and Farmer’s Welfare, New Delhi) 2017.

  • Anonymous, Annual Report of National Horticulture Board Cooperation and Farmer’s Welfare (Ministry of Agriculture and Farmer’s Welfare, New Delhi) 2022.

  • Anonymous, Extension Pamphlet (ICAR-Indian Institute of Spices Research, Kozhikode, Kerala) 2015.

  • Yadav A R, Nawale R N, Korake G N & Khandekar R G, Effect of dates of planting and spacing on growth and yield characteristics of ginger (Zingiber officinale Ros.) var. IISR Mahima, J Spic Arom Crop, 22(2) (2013) 209–214.

  • Mathanker S K & Methew M, Metering mechanism for ginger planters, Agric Eng J, 11 (2002) 31–39.

  • Patel T, Dewangan K, Chhetry S, Thokchom S & Ningthoujam B, Design and development of mini ginger planter suitable for hilly region agriculture, Proc ICoRD Design for Tomorrow (Springer Singapore) 2021, 559–566, https://doi.org/10.1007/978-981-16-0084-5_45.

  • Singh T P & Gautam V, Development and performance evaluation of a gladiolus planter in field for planting corms, Int Scholarly Sci Res Innov, 9 (2015) 1243–1248.

  • Mohsenin N N, Physical Properties of the Plant and Animal Material (Academic Press, New York) 1971, 51–63.

  • Ajav E A & Ogunlade C A, Physical properties of ginger, Glob J Sci Front Res D Agric Vet, 14 (2014) 1–8.

  • Venu S A, Udaykumar N, Sharanagouda H, Abbas H, Ramachandra C T & Naik N, Engineering properties of ginger rhizomes (Zingiber officinale Roscoe) grown in Karnataka, Environ Ecol, 35 (2017) 2084–2090.

  • Sharma D N & Mukesh S, Farm Machinery Design: Principles and Problems (Jain Brothers, New Delhi, India) 2013.

  • Khan K, Moses S C & Kumar A, Design and fabrication of a manually operated single row multi-crops planter, J Agric Vet Sci, 8 (2017) 147–158, https://doi.org/10.9790/2380- 08102147158.

  • Khurmi R & Gupta J, A text book of Machine Design (Eurasia Publishing House Pvt. Ltd., New Delhi India), 2005.

  • Singh R C, Singh G & Saraswat D C, Optimization of design and operational parameters of pneumatic seed metering device for planting cotton seeds, Biosyst Eng, 92 (2005) 429– 438, https://doi.org/10.1016/j.biosystemseng.2005.07.002.

  • Kumar A, Singh T P & Chandrashekar, Development and laboratory evaluation of picker wheel type metering mechanism for tuberose and gladiolus corms, J Sci Ind Res, 81 (2022) 13–20.

  • He X, Cui T, Zhang D, Wei J, Wang M, Yu Y, Liu Q, Yan B, Zhao D & Yang L, Development of an electric-driven control system for a precision planter based on a closed-loop PID algorithm, Comput Electron Agric, 136 (2017) 184–192, https://doi.org/10.1016/j.compag.2017.01.028.

  • Chukwudi M, Agidi G & Nnaemeka N, Field performance analysis of a tractor-drawn turmeric rhizome planter, Agric Eng, 2 (2019) 33–36, https://doi.org/10.5937/ PoljTeh1902033M.

  • Karayel D, Performance of a modified precision vacuum seeder for no-till sowing of maize and soybean, Soil Tillage Res, 104 (2009) 121–125, https://doi.org/10.1016/ j.still.2009.02.001.

  • Liu W, Tollenaar M, Stewart G & Deen W, Impact of planter type planting speed and tillage on stand uniformity and yield of corn, Am Soc Agron, 96 (2004) 1668–1672, https://doi.org/10.2134/agronj2004.1668.

  • He X, Cui T, Zhang D, Wei J, Wang M, Yu Y, Liu Q, Yan B, Zhao D & Yang L, Development of an electric-driven control system for a precision planter based on a closed-loop PID algorithm, Comput Electron Agric, 136 (2017) 184–192, https://doi.org/10.1016/j.compag.2017.01.028.

  • Mustafa G, Effect of cup size, seed characteristics and angular speed on the performance of an automatic potato planter under laboratory conditions, J Agric Sci, 23 (2015) 317–327, https://doi.org/10.15832/ankutbd.447634.


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  • Design and Development of a Seed Metering Mechanism for Ginger Planter

Abstract Views: 132  |  PDF Views: 61

Authors

H. S. Pandey
ICAR-Central Institute of Agricultural Engineering, Bhopal, India
C. P. Sawant
ICAR-Central Institute of Agricultural Engineering, Bhopal, India

Abstract


Manual ginger planting is a tedious, drudgery-prone, and time-consuming operation, due to the constant bending posture during planting. To address this issue, a seed metering mechanism was developed and evaluated at the ICAR-Central Institute of Agricultural Engineering, Bhopal. The metering mechanism consisted of a vertical rotating disc, fingers, lever and cam, seed hopper, agitator, and rhizome delivery system. The laboratory study was conducted using a sticky belt set up to determine the seed distribution pattern at different forward speeds (0.42 m/s, 0.56 m/s, 0.69 m/s, and 0.83 m/s), rhizome sizes viz. small (< 35 mm), medium (35–50 mm), and large (> 50 mm), and types of pickup fingers (P1 and P2). The factorial CRD design with three replications for each variable was used in the laboratory experiment. The performance parameters were measured, including average spacing, missing index, multiple index, quality of feed index and visible damage. The result revealed that speed of operation, seed size and finger type had statistically significant effects on the average seed spacing. As the speed of operation and seed size increased, the multiple index and Quality of Feed Index (QFI) decreased, while the missing index and damage percentage increased for both types of fingers. The main factor significantly influencing the performance indices was the speed of operation. The highest QFI of 77.14% was observed at the forward speed of 0.56 m/s for P2 fingers. The lower values of miss index, multiple index, and visible damage were observed with P2 as compared to P1. The visible damage was observed to increase at increasing speeds and seed sizes for both types of fingers. The performance of the metering system was found satisfactory with finger (P2) at the optimum speed of 0.56 m/s for medium seed sizes. The automatic seed metering mechanism holds great potential for ginger planting to improve accuracy, efficiency, yields, and cost-effectiveness.

Keywords


Damage, Ginger, Mechanization, Quality of feed, Rhizome.

References