III year Horticulture undertook an Exposure visit to VRS Palur on 4-10-2024. No. of students – 46
Exposure Visit-Event
Classes taken by the following staffs
- Lenin – briefed about the activities by the Research station
- K. Arivukkarasu – explained about the various vegetables and Jack fruit varieties released by the Research station and their agronomic practices
- P. Kamalakkannan – took us to the field and explained about the emasculation and dusting procedures in Brinjal, Cucurbits and also explained the students regarding various layering and grafting methods in fruit trees
Various activities are given below:
Dr. Kamalakkanan explaining about the layering and grafting aspects in fruit trees
B.Sc. Agriculture-
2023-27 Batch Exposure Visit Report ,
Farm Machinery and Power Engineering About Department
Agricultural Engineering College and Research Institute, Kumulur
The Department of Farm Machinery and Power Engineering was established in 2014 as one of the constituent Department of Agricultural Engineering College and Research Institute, Kumulur-621 712, Trichy District. The Department was formed to pursue excellence in teaching, research and development, industrial collaboration and farmer’s hands-on training. The Department mainly offers courses to the Diploma and Under graduate (UG) degree programmes in Agricultural Engineering. This department is well established with various research facilities for carrying out active research programmes in design and development in the field of Farm Power and Machinery covering the broad areas of Machinery Design, Tillage and Traction Study, Automations, Sensor Based Studies and Development of Implements and Tools for field and horticultural crops. Department has developed 14 technologies. Most of these technologies have been commercialized and are being extensively used by the farmers across the country.
Date of Visit: 03.10.2024
Location: Tiruchirappalli, Tamil Nadu, India
Dean : Dr. P. Rajkumar
Course Code : U21AAEGB302
Course Title: Farm Power and Machinery (1+1)
Number of Students: 139
Practical Session by: Dr. Thayagarajan
Course Teachers and Faculty Members
Dr. E. Manikandan
Associate Professor
Department of Mechanical Engineering SMVEC
Dr. R. Thirumalai
Assistant Professor
Department of Genetics and Plant Breeding SMVEC-CAGS
Mrs. R. Hema
Assistant Professor
Department of Soil Science and Agricultural Chemistry SMVEC-CAGS
Introduction
The exposure visit to the Agricultural Engineering College & Research Institute at TNAU offered an insightful learning experience for 139 students, who were divided into four batches. The primary goal of the visit was to broaden the students’ understanding of contemporary agricultural practices. During the visit, they were able to observe a range of agricultural machinery and techniques first-hand. The focus was on key areas such as modern farm power and machinery, innovative soil and water conservation methods, and the latest developments in food processing technologies. This hands-on experience was invaluable in helping student’s bridge theoretical knowledge with practical applications in the field of agriculture.
Overview of the Visit
The students were guided through several units, including:
1. Farm Machinery Observations
2. Soil and Water Conservation Unit
3. Food Processing Unit
- Farm Machinery Observations
During the visit to the Agricultural Engineering College & Research Institute, students had the chance to observe various farm machines, each designed to perform specific agricultural tasks. Below are detailed descriptions and the importance of each piece of machinery:
- Indigenous Plough: A traditional implement that reflects local farming practices. This tool highlights the importance of adapting agricultural equipment to suit local environmental conditions, ensuring that farming remains sustainable and cost-effective in areas where mechanization might be limited.
- Tractor-drawn Plough: This machine significantly increases productivity by reducing the manual labour and time required for ploughing. It symbolizes the shift toward agricultural mechanization, allowing farmers to prepare their fields faster and more efficiently.
- Mouldboard Plough: Known for its effectiveness in turning over the soil, the mouldboard plough helps incorporate crop residues, enriches the soil structure, and enhances aeration. This results in better water infiltration and root development for crops.
- Disc Plough: Suited for tough soil conditions, the disc plough efficiently cuts through hard or rocky soils, making it ideal for land preparation. Its rugged design allows for deeper soil penetration, which is essential for crops requiring deeper root systems.
- Rotary Tiller: A machine that combines ploughing and tilling in one operation. It creates a finely tilled seedbed, which is crucial for uniform crop growth. The rotary tiller is particularly useful in preparing the soil for planting by breaking up clods and ensuring good soil-to-seed contact.
- Chisel Plough: This implement is designed to disturb the soil minimally, helping to conserve moisture and enhance the soil structure. It loosens the soil without inverting it, which improves water infiltration and promotes root growth, particularly in conservation tillage systems.
- Sub-Soil Plough: Used to break up compacted layers of soil beneath the surface, the sub-soil plough improves root penetration and drainage. By loosening hardpan layers, it encourages deeper root growth and better water management.
- Disc Harrow: A vital tool for secondary tillage, the disc harrow is used after ploughing to break up clods, level the soil, and prepare a smooth seedbed. It enhances the soil texture and ensures a uniform planting surface.
- Cultivator: Primarily used for weed control, the cultivator also helps maintain soil health by aerating the soil and preventing weed competition. It is essential for preparing the soil for planting and maintaining optimal growing conditions.
- Rotavator: This machine is used to create a fine tilt, which is critical for proper seedbed preparation. A rotavator ensures a smooth and well-tilled surface, providing better conditions for seed germination and early plant growth.
- Harvester: Modern harvesting equipment significantly reduces post-harvest losses and labor costs. By ensuring timely and efficient harvesting, these machines play a vital role in minimizing crop damage and maintaining yield quality.
- Seed Driller: A precision tool that ensures uniform seed placement and depth. Proper seed spacing and depth lead to improved germination rates and higher crop yields, making it a valuable piece of equipment in modern farming.
- Transplanter: Designed to increase efficiency in transplanting seedlings, the transplanter reduces manual labour and ensures proper spacing between plants. This improves plant health and promotes uniform growth, leading to higher productivity.
- These machines represent a broad spectrum of modern farming technologies, each contributing to increased agriculture efficiency, sustainability, and productivity.
- Soil and Water Conservation Unit
This segment of the visit emphasized various essential soil and water conservation methods, which are vital for sustainable agriculture. The students observed the following key techniques:
- Contour Farming: A method where crops are planted along the natural contours of sloped land. This technique significantly reduces soil erosion by slowing down water runoff, promoting better water absorption, and preserving topsoil.
- Terracing: A practice that transforms steep, hilly land into a series of stepped levels. Terracing reduces water runoff, prevents soil erosion, and improves water retention, making it possible to cultivate crops on slopes.
- Check Dams: Small structures designed to slow the flow of water in streams and rivers. Check dams help water infiltrate into the soil, recharge groundwater, and reduce soil erosion by controlling the velocity of water, especially during heavy rains.
- Rainwater Harvesting: A sustainable technique that involves collecting and storing rainwater for agricultural purposes. This method enhances water availability during dry periods, reduces dependency on external water sources, and supports efficient water management in farming.
These techniques highlight the importance of integrated approaches to conserving soil and water resources, ensuring that agricultural practices remain productive and environmentally sustainable over the long term
- Food Processing Unit
The visit to the food processing unit demonstrated the crucial role that food processing plays in extending the shelf life of agricultural products and adding value to them. Key points discussed include:
- Post-Harvest Technology: These techniques are designed to minimize spoilage, reduce post-harvest losses, and maintain the quality and freshness of agricultural produce. This is especially important in reducing waste and ensuring that crops reach the market in optimal condition.
- Value Addition: By processing raw agricultural materials into finished or semi-finished products, farmers can increase the market value of their produce. This process not only enhances the shelf life of products but also provides farmers with additional income opportunities by creating higher-value products like jams, juices, or packaged foods.
- Food Safety Standards: Adhering to food safety regulations is vital to ensure that processed products are safe for consumption. Meeting these standards also opens up access to wider markets, including international ones, and helps build consumer trust, ensuring the long-term viability of food processing enterprises.
These insights underscore the importance of integrating food processing into the agricultural value chain to increase profitability and reduce food waste, all while ensuring food safety and quality.
Conclusion
The exposure visit to the Agricultural Engineering College & Research Institute proved to be a highly valuable educational experience for the students. They acquired first-hand knowledge of a wide range of agricultural machinery, soil and water conservation techniques, and food processing methods each critical to modern farming practices. These insights will deepen their understanding of sustainable agriculture and highlight the vital role of technological advancements in improving agricultural productivity. By witnessing these practices in action, the students are better equipped to appreciate the balance between tradition and innovation in farming, a key to the future of agriculture.
Recommendations
To build on the knowledge gained during the exposure visit, several follow-up initiatives can be implemented:
- Follow-up Workshops: Organizing in-depth workshops focused on specific machinery and techniques observed during the visit. These workshops would allow students to explore the functionality, maintenance, and applications of the equipment in greater detail.
- Field Training: Conducting practical field training sessions to provide hands-on experience with the machinery and technologies they observed. This will help students develop the skills needed to operate and apply these technologies effectively in real-world scenarios.
- Guest Lectures: Inviting industry experts and professionals in agricultural engineering to give lectures on the latest trends, innovations, and future challenges in the field. These sessions would provide valuable insights into how the industry is evolving and what students can expect as they enter the workforce.
The exposure visit, along with these follow-up activities, has significantly enriched the students’ academic journey, better preparing them to meet future challenges in agriculture. These experiences will equip them with both the theoretical knowledge and practical skills necessary for a successful career in modern farming practices.