Authors :
Dnyaneshwari V. Gophane; Suraj S. Gele; Ashish S. Shinde
Volume/Issue :
Volume 10 - 2025, Issue 8 - August
Google Scholar :
https://tinyurl.com/26w7jv53
Scribd :
https://tinyurl.com/mrxkje2t
DOI :
https://doi.org/10.38124/ijisrt/25aug261
Note : A published paper may take 4-5 working days from the publication date to appear in PlumX Metrics, Semantic Scholar, and ResearchGate.
Note : Google Scholar may take 30 to 40 days to display the article.
Abstract :
This paper presents the design and development of a compact motorized vegetable slicer machine tailored for
household and small-scale commercial use. The device addresses common challenges in conventional vegetable cutting
methods, such as inconsistent slicing, time consumption, and hygiene issues. The system incorporates a 12V DC gear
motor, a blade arrangement, and a safe feeding mechanism that efficiently slices a variety of vegetables, including carrots,
radishes, onions, potatoes, and bananas. Built using readily available, cost-effective materials like mild steel, plywood, and
rubber supports, the machine ensures durability, simplicity, and affordability. The slicer minimizes manual effort, reduces
waste, and delivers uniform slice thickness with improved safety and efficiency. This work emphasizes practical kitchen
innovation through low-power consumption and compact structural design, making it a valuable contribution to food
processing automation. Future improvements are also discussed to enhance the slicer's performance and versatility.
Keywords :
Vegetable Slicer Machine; DC Gear Motor; Compact Design; Food Processing; Low-Cost Automation; Domestic Application.
References :
- Romeo, et al. Vegetable Cutting Device. US Patent No. US2009/0193953 A1, 2009.
- Romeo, et al. Actuation Mechanism in Vegetable Cutters. Patent No. WO2008/011671A1, 2008.
- Javier Hidalgo Garcia, Aitor Aguirrezabalaga Zubizarreta, Aitor Gogorza Segurota. Vegetable Cutting Grid Mechanism. US Patent No. US20120125172, 2012.
- Thomas, Tony A., et al. Drawbacks in Manual Vegetable Cutting and the Need for Automation. International Food Processing Review, 2014.
- Johnson, M., & Brown, R. Evaluation of Manual vs. Electric Vegetable Slicers. Journal of Kitchen Technology, 2020.
- Lee, S., & Kim, H. Design Parameters in Blade-Based Food Processors. Journal of Consumer Appliances, 2018.
- Patel, K., Shah, R., & Joshi, A. Performance Analysis of Domestic Food Slicers. International Journal of Engineering Research, 2021.
- Garcia, J., et al. Safety Enhancements in Food Cutting Equipment. Food Equipment Safety Journal, 2020.
- Nguyen, L., et al. Development and Performance Evaluation of a Slicing Machine for Selected Vegetables. ResearchGate, 2020.
- Wang, L., & Li, Y. Development of a Motorized Leafy Vegetable Slicing Machine. International Journal of Agricultural Innovations, 2023.
- Chen, R., et al. Vegetable Slicer for Domestic Use: A Design Study. Academia.edu, 2017.
This paper presents the design and development of a compact motorized vegetable slicer machine tailored for
household and small-scale commercial use. The device addresses common challenges in conventional vegetable cutting
methods, such as inconsistent slicing, time consumption, and hygiene issues. The system incorporates a 12V DC gear
motor, a blade arrangement, and a safe feeding mechanism that efficiently slices a variety of vegetables, including carrots,
radishes, onions, potatoes, and bananas. Built using readily available, cost-effective materials like mild steel, plywood, and
rubber supports, the machine ensures durability, simplicity, and affordability. The slicer minimizes manual effort, reduces
waste, and delivers uniform slice thickness with improved safety and efficiency. This work emphasizes practical kitchen
innovation through low-power consumption and compact structural design, making it a valuable contribution to food
processing automation. Future improvements are also discussed to enhance the slicer's performance and versatility.
Keywords :
Vegetable Slicer Machine; DC Gear Motor; Compact Design; Food Processing; Low-Cost Automation; Domestic Application.