• Interesting
  • Scholarships
  • UGC-CARE Journals

45 Research Project Ideas in Agriculture – Innovative Approaches to Sustainable Farming

Explore 45 research project ideas in agriculture for sustainable farming.

Dr. Somasundaram R

Agriculture is a vast and dynamic field that plays a critical role in feeding the world’s population. As the global population continues to grow, the demand for food production is also increasing, making agriculture one of the most important sectors for ensuring food security and sustainable development. However, the challenges facing the agriculture industry today are numerous, ranging from climate change, soil degradation, water scarcity, and pest infestation to biodiversity loss and food waste.

To tackle these issues and promote sustainable agriculture, researchers and professionals in the field are continuously exploring new and innovative ways to improve agricultural practices, increase productivity, and reduce environmental impact. In this article, we will present 45 research project ideas in agriculture that can help address some of the most pressing issues facing the industry today.

These research projects cover a wide range of topics, from soil health and crop yields to livestock farming, aquaculture, and food systems, providing a comprehensive overview of the latest trends and innovations in agricultural research.

Whether you are a student, researcher, or professional in the field, these research project ideas can help guide your work and contribute to a more sustainable and resilient agriculture industry.

  • Evaluating the effectiveness of natural pest control methods in agriculture.
  • Investigating the effects of climate change on crop yields and food security.
  • Studying the impact of soil quality on plant growth and crop yields.
  • Analyzing the potential of precision agriculture techniques to increase yields and reduce costs.
  • Assessing the feasibility of vertical farming as a sustainable solution to food production.
  • Investigating the impact of sustainable agriculture practices on soil health and ecosystem services.
  • Exploring the potential of agroforestry to improve soil fertility and crop yields.
  • Developing strategies to mitigate the effects of drought on crop production.
  • Analyzing the impact of irrigation management techniques on crop yields and water use efficiency.
  • Studying the potential of biochar as a soil amendment to improve crop productivity.
  • Investigating the effects of soil compaction on crop yields and soil health.
  • Evaluating the impact of soil erosion on agriculture and ecosystem services.
  • Developing integrated pest management strategies for organic agriculture.
  • Assessing the potential of cover crops to improve soil health and reduce erosion.
  • Studying the effects of biofertilizers on crop yields and soil health.
  • Investigating the potential of phytoremediation to mitigate soil pollution in agriculture.
  • Developing sustainable practices for livestock farming and manure management.
  • Studying the effects of climate change on animal health and productivity.
  • Analyzing the impact of animal feeding practices on meat quality and safety.
  • Investigating the potential of aquaponics to increase food production and reduce environmental impact.
  • Developing strategies to reduce food waste and loss in agriculture.
  • Studying the effects of nutrient management practices on crop yields and environmental impact.
  • Evaluating the potential of organic agriculture to improve soil health and reduce environmental impact.
  • Investigating the effects of land use change on agriculture and biodiversity.
  • Developing strategies to reduce greenhouse gas emissions from agriculture.
  • Analyzing the impact of agricultural policies on food security and sustainability.
  • Studying the potential of precision livestock farming to improve animal welfare and productivity.
  • Investigating the impact of agrochemicals on soil health and biodiversity.
  • Developing sustainable practices for fisheries and aquaculture.
  • Studying the potential of bioremediation to mitigate pollution in aquaculture.
  • Investigating the effects of climate change on fisheries and aquaculture.
  • Developing strategies to reduce water pollution from agriculture and aquaculture.
  • Studying the impact of land use change on water resources and aquatic ecosystems.
  • Evaluating the potential of agroecology to promote sustainable agriculture and food systems.
  • Investigating the impact of climate-smart agriculture practices on food security and resilience.
  • Studying the potential of agrobiodiversity to improve crop productivity and resilience.
  • Analyzing the impact of agricultural trade on food security and sustainability.
  • Investigating the effects of urbanization on agriculture and food systems.
  • Developing strategies to promote gender equity in agriculture and food systems.
  • Studying the potential of agroforestry to promote biodiversity and ecosystem services.
  • Analyzing the impact of food systems on public health and nutrition.
  • Investigating the effects of climate change on pollination and crop yields.
  • Developing strategies to promote agrotourism and rural development.
  • Studying the potential of agroforestry to promote carbon sequestration and mitigate climate change.
  • Analyzing the impact of agricultural subsidies on food security and sustainability.

I hope this article would help you to know the new project topics and research ideas in Agricultural.

  • agriculture research
  • crop yields
  • food systems
  • livestock farming
  • Project Topics
  • Research Ideas
  • soil health
  • sustainable farming

Dr. Somasundaram R

100 Cutting-Edge Research Ideas in Civil Engineering

List of research topics in environmental engineering, 10 mind-blowing ai projects transforming medical imaging, most popular, scopus indexed journals list 2024, 480 ugc care list of journals – science – 2024, what is a phd a comprehensive guide for indian scientists and aspiring researchers, the nippon foundation fellowship programme 2025, fellowships in india 2024 -comprehensive guide, agi in research: unraveling the future of artificial intelligence, working sci-hub proxy links 2024: access research papers easily, abstract template for research paper, 10 types of plagiarism – every academic writer should know – updated, best for you, 24 best online plagiarism checker free – 2024, popular posts, top 35 scopus indexed journals in english literature, popular category.

  • POSTDOC 317
  • Interesting 257
  • Journals 235
  • Fellowship 134
  • Research Methodology 102
  • All Scopus Indexed Journals 93

Mail Subscription

ilovephd_logo

iLovePhD is a research education website to know updated research-related information. It helps researchers to find top journals for publishing research articles and get an easy manual for research tools. The main aim of this website is to help Ph.D. scholars who are working in various domains to get more valuable ideas to carry out their research. Learn the current groundbreaking research activities around the world, love the process of getting a Ph.D.

Contact us: [email protected]

Google News

Copyright © 2024 iLovePhD. All rights reserved

  • Artificial intelligence

StatAnalytica

100+ Agriculture Related Project Topics for a Sustainable Future

Agriculture Related Project Topics

Agriculture, the backbone of our civilization, has evolved significantly over the years. With the increasing global population and the challenges posed by climate change, there is a growing need for innovative solutions in the agricultural sector. In this blog post, we will explore a range of agriculture related project topics that address crucial issues and pave the way for a sustainable future.

Why Do We Need To Learn Agriculture Related Projects?

Table of Contents

Learning agriculture related project topics is essential for several reasons:

  • Sustainable Food Production: Agriculture projects focus on sustainable farming practices, which are crucial for ensuring a consistent and reliable food supply. Learning about these projects helps address the challenge of feeding a growing global population while minimizing environmental impact.
  • Technological Advancements: The field of agriculture is rapidly evolving with technological innovations. By engaging in agriculture-related projects, individuals can stay updated on the latest advancements, such as precision farming, IoT applications, and artificial intelligence, contributing to increased efficiency and productivity.
  • Environmental Conservation: Agriculture has a significant impact on the environment. Learning about projects related to environmental sustainability in agriculture helps individuals understand how to minimize the environmental footprint of farming activities, promoting conservation and responsible resource management.
  • Economic Development: Agribusiness and marketing projects play a crucial role in the economic development of rural areas. By learning about these projects, individuals can contribute to the development of fair and transparent agricultural supply chains, supporting the livelihoods of farmers and fostering economic growth.
  • Addressing Global Challenges: Agriculture-related projects often tackle broader global challenges, such as climate change adaptation and food security. Learning about these projects equips individuals with the knowledge and skills needed to contribute to solutions for these pressing issues on a local and global scale.
  • Community Engagement: Projects related to rural development and agro-tourism promote community engagement and strengthen the connection between urban and rural populations. Learning about these initiatives encourages a more holistic understanding of the social aspects of agriculture and fosters community development.
  • Innovation and Problem-Solving: Agriculture-related projects provide opportunities for innovation and problem-solving. By engaging in these projects, individuals develop critical thinking skills, creativity, and the ability to address challenges faced by the agricultural sector.
  • Entrepreneurship Opportunities: Many agriculture-related projects focus on skill development and entrepreneurship in rural areas. Learning about these projects can inspire individuals to explore entrepreneurial opportunities in agriculture, contributing to the diversification and growth of the agricultural sector.

100+ Agriculture Related Project Topics

  • Automated Greenhouse System: Design a fully automated greenhouse with climate control, irrigation, and nutrient delivery systems for optimal crop growth.
  • Aquaponics Farming System: Develop a sustainable aquaponics system that integrates fish farming with hydroponic plant cultivation.
  • Smart Irrigation Controller: Create an IoT-based irrigation system that adjusts watering schedules based on real-time weather data and soil moisture levels.
  • Crop Monitoring Drone: Build a drone equipped with cameras and sensors for aerial monitoring of crop health, identifying diseases, and assessing overall field conditions.
  • Vertical Farming Tower: Design a vertical farming structure that maximizes space efficiency, incorporating hydroponics or aeroponics for soil-less cultivation.
  • Automated Pest Detection: Develop an AI-powered system for early detection of pests in crops, enabling prompt and targeted pest control measures.
  • Mobile App for Farmers: Create a comprehensive mobile application that provides farmers with real-time weather forecasts, market prices, and agricultural best practices.
  • Soil Health Monitoring Device: Design a portable device that analyzes soil health parameters, such as nutrient levels and pH, to guide farmers in soil management.
  • Agro-Waste Biogas Plant: Develop a biogas plant that utilizes agricultural waste for renewable energy production, promoting sustainability in farming practices.
  • Drip Irrigation Automation: Implement a system that automates drip irrigation, optimizing water usage and reducing water wastage in agricultural fields.
  • Blockchain-Based Supply Chain Tracking: Utilize blockchain technology to create a transparent and traceable supply chain system for agricultural products, ensuring fair trade practices.
  • Precision Livestock Farming: Implement IoT devices to monitor the health, behavior, and productivity of livestock for efficient and humane livestock management.
  • AI-driven Crop Disease Diagnosis: Develop an artificial intelligence system that analyzes images of crops to identify and diagnose diseases accurately.
  • Weather-Resilient Crop Varieties: Research and develop crop varieties that are resilient to changing weather patterns, contributing to climate change adaptation in agriculture.
  • Smart Fertilizer Dispenser: Create a device that dispenses fertilizers based on soil nutrient levels, ensuring precise and efficient fertilization.
  • Hybrid Seed Development: Explore the development of hybrid seeds with improved yield, disease resistance, and adaptability to diverse environmental conditions.
  • Remote Sensing for Precision Agriculture: Utilize satellite imagery and remote sensing technology to monitor large agricultural areas, providing valuable data for precision agriculture.
  • Edible Insect Farming: Investigate the feasibility of insect farming as a sustainable protein source for animal feed or human consumption.
  • AI-Powered Crop Yield Prediction: Develop a machine learning model that predicts crop yields based on historical data, weather patterns, and other relevant factors.
  • Solar-Powered Farm Equipment: Create solar-powered tools and equipment for use in agriculture, reducing dependence on traditional energy sources.
  • Nutrient-Rich Crop Breeding: Explore breeding techniques to enhance the nutritional content of crops, addressing global nutritional challenges.
  • Mobile Soil Testing Lab: Design a mobile laboratory that travels to different farms to provide on-the-spot soil testing and nutrient analysis services.
  • Automated Weed Control System: Develop a robotic system that identifies and removes weeds in crop fields, reducing the need for herbicides.
  • Smart Composting System: Create an intelligent composting system that optimizes the composting process, turning agricultural waste into nutrient-rich compost.
  • Biodegradable Mulching Films: Invent biodegradable mulching films to replace traditional plastic films, reducing environmental impact in agriculture.
  • Climate-Resilient Crops Database: Compile a database of crops resilient to specific climate conditions, aiding farmers in making informed planting decisions.
  • Agri-Drone Swarm Technology: Investigate the use of drone swarms for large-scale crop monitoring, enabling efficient coverage of expansive agricultural areas.
  • Community-Supported Agriculture Platform: Develop an online platform connecting local farmers directly with consumers, fostering community-supported agriculture.
  • Renewable Energy Integration in Farms: Explore ways to integrate renewable energy sources like wind or solar power into agricultural operations to reduce carbon footprint.
  • Hydrothermal Carbonization of Agricultural Residues: Investigate the conversion of agricultural residues into hydrochar through hydrothermal carbonization for energy or soil improvement.
  • Satellite-Based Crop Insurance: Design a satellite-based system for crop insurance, using satellite data to assess crop health and determine insurance payouts.
  • Agricultural Chatbot for Farmer Assistance: Develop a chatbot that provides real-time agricultural advice and answers farmers’ queries based on local conditions.
  • Blockchain for Fair Trade Certification: Implement a blockchain-based certification system to ensure fair trade practices and transparent transactions in agriculture.
  • Precision Feeding for Livestock: Utilize technology to implement precision feeding systems for livestock, optimizing nutrition and minimizing waste.
  • 3D Printing in Agriculture: Explore the use of 3D printing for creating customized agricultural tools and equipment, enhancing efficiency and reducing costs.
  • Innovative Beekeeping Solutions: Develop technologies to enhance beekeeping practices, promoting pollination and supporting biodiversity in agriculture.
  • Augmented Reality in Farm Management: Create augmented reality applications for farm management, assisting farmers in visualizing data and making informed decisions.
  • Innovative Plant Breeding Techniques: Explore novel plant breeding techniques, such as CRISPR technology, for developing crops with improved traits.
  • Smart Agro-Wearables: Design wearable devices for farmers that monitor vital signs and provide real-time health and safety alerts during agricultural activities.
  • Post-Harvest Loss Reduction: Develop strategies and technologies to minimize post-harvest losses, ensuring a more efficient and sustainable food supply chain.
  • Biofortification of Crops: Investigate methods to enhance the nutritional content of crops through biofortification, addressing nutritional deficiencies in diets.
  • Urban Agriculture Rooftop Gardens: Explore the potential of rooftop gardens for urban agriculture, promoting local food production in urban settings.
  • Agro-Educational Mobile Games: Develop interactive mobile games to educate and engage users in agricultural practices, especially targeted at younger generations.
  • Agricultural Waste Recycling Plant: Establish a recycling plant that converts agricultural waste into biofuels, organic fertilizers, and other valuable products.
  • Drone-Based Pollination Technology: Investigate the use of drones for pollination in the absence of natural pollinators, addressing concerns about declining bee populations.
  • Mobile Water Purification Unit: Design a portable water purification unit for remote agricultural areas, ensuring access to clean water for both crops and livestock.
  • Algae Cultivation for Biofuel: Research and develop efficient methods for cultivating algae as a sustainable source of biofuel in agriculture.
  • Smart Packaging for Perishable Goods: Create intelligent packaging solutions that monitor and extend the shelf life of perishable agricultural products during transportation and storage.
  • Aquaculture Integration with Agriculture: Explore integrated farming systems that combine aquaculture with traditional agriculture for improved resource utilization and sustainability.
  • Solar-Powered Desalination for Agriculture: Investigate the use of solar-powered desalination systems to provide freshwater for agricultural irrigation in arid regions.
  • Waste-to-Energy from Agricultural Byproducts: Develop technologies to convert agricultural byproducts into energy, addressing both waste management and energy needs.
  • Blockchain-Based Land Ownership Registry: Implement a blockchain-based system to secure and manage land ownership records, reducing disputes and promoting transparency.
  • Livestock Wearable Health Monitors: Create wearable devices for livestock that monitor health parameters, facilitating early disease detection and management.
  • Agricultural Risk Prediction Models: Develop predictive models that assess and predict risks in agriculture, including weather-related risks, market fluctuations, and pest outbreaks.
  • Edible Forest Gardens: Design and implement agroforestry systems that mimic natural ecosystems, combining trees, shrubs, and crops for sustainable food production.
  • Insect Farming for Animal Feed: Explore the feasibility of insect farming to produce protein-rich insect meal as an alternative and sustainable source of animal feed.
  • Precision Agriculture Training Simulators: Develop virtual reality (VR) or augmented reality (AR) simulators for training farmers in precision agriculture techniques.
  • Automated Crop Harvesting Robots: Create robots equipped with computer vision and robotics for automated harvesting of crops, reducing labor dependency.
  • Smart Cold Storage Solutions: Design intelligent cold storage facilities that optimize temperature and humidity control for preserving the quality of agricultural produce.
  • Hydroponic Urban Farming Towers: Implement vertical hydroponic farming towers in urban areas to promote local food production and reduce the environmental impact of transportation.
  • AI-Powered Soil Nutrient Recommendations: Develop an artificial intelligence system that analyzes soil data to provide personalized nutrient recommendations for different crops.
  • Biodegradable Planting Pots: Invent biodegradable planting pots made from organic materials to reduce plastic waste in nursery and planting operations.
  • Wearable UV Sensors for Crop Protection: Create wearable UV sensors for farmers to monitor and protect crops from excessive UV radiation, reducing the risk of damage.
  • Automated Nutrient Dosing Systems: Design automated systems that precisely dose and deliver nutrients to plants in hydroponic or aeroponic cultivation systems.
  • Intelligent Weed Identification System: Develop an AI-powered system for accurate and rapid identification of weeds, enabling targeted and eco-friendly weed control.
  • Smart Aquaculture Systems: Implement IoT devices and sensors in aquaculture systems to monitor water quality, fish health, and feeding practices for optimal production.
  • Blockchain-Based Carbon Credits for Farmers: Establish a blockchain system that enables farmers to earn carbon credits for implementing sustainable practices, contributing to carbon sequestration.
  • Solar-Powered Water Pumping Solutions: Develop solar-powered water pumping systems for irrigation in off-grid agricultural areas, promoting energy efficiency.
  • Automated Mushroom Cultivation: Create automated systems for mushroom cultivation, optimizing environmental conditions and harvesting for increased efficiency.
  • Drone-Based Seed Bombing: Explore the use of drones to distribute seed bombs in deforested or degraded areas, aiding reforestation and biodiversity conservation.
  • Smart Flowering Induction for Crops: Implement technology to induce flowering in crops at optimal times, enhancing yield and improving crop synchronization.
  • Data Analytics for Precision Livestock Farming: Utilize data analytics to analyze patterns in livestock behavior, health records, and environmental conditions for improved livestock management.
  • AI-Enhanced Agricultural Extension Services: Develop AI-powered chatbots or virtual assistants to provide personalized agricultural extension services and guidance to farmers.
  • Nutrient Recovery from Agricultural Runoff: Design systems that recover nutrients from agricultural runoff to prevent water pollution and promote sustainable nutrient management.
  • Smart Silos with Inventory Monitoring: Implement smart silos equipped with sensors for real-time monitoring of grain inventory levels, preventing spoilage and optimizing storage.
  • Agricultural Heritage Conservation: Create projects that document and conserve traditional agricultural practices, seeds, and breeds to preserve agricultural biodiversity.
  • Robot-Assisted Pollination: Investigate the use of robots equipped with soft robotics for delicate pollination tasks, addressing pollinator decline issues.
  • Biopesticides from Plant Extracts: Research and develop biopesticides derived from plant extracts for eco-friendly pest management in agriculture.
  • AI-Based Crop Disease Forecasting: Implement machine learning models that forecast the likelihood of crop diseases based on environmental conditions, enabling proactive disease management.
  • Automated Hydroponic Herb Garden: Design an automated hydroponic system specifically for growing herbs indoors, providing fresh and flavorful herbs year-round.
  • Precision Agriculture Apps for Small Farmers: Develop user-friendly mobile applications tailored for small-scale farmers, offering guidance on precision agriculture practices and market information.
  • Biodegradable Plant Markers: Create environmentally friendly plant markers made from biodegradable materials to replace traditional plastic markers.
  • Agricultural Heritage Tourism: Develop agro-tourism initiatives that allow visitors to experience traditional farming practices, fostering appreciation for agricultural heritage.
  • Smart Beehives for Precision Pollination: Implement smart beehives equipped with sensors to monitor bee activity and optimize pollination in crops.
  • Automated Fruit Harvesting Systems: Design robotic systems capable of identifying ripe fruits and autonomously harvesting them, reducing labor-intensive fruit picking.
  • Mobile Health Clinics for Livestock: Create mobile veterinary clinics equipped with diagnostic tools to provide healthcare services to livestock in remote areas.
  • Solar-Powered Insect Traps: Utilize solar power to run automated insect traps that use pheromones or light to attract and capture pests, reducing reliance on chemical pesticides.
  • AI-Enhanced Weed-Eating Robots: Develop robots equipped with AI to distinguish between crops and weeds, enabling targeted weed control without damaging the crops.
  • Zero-Waste Poultry Farming: Implement sustainable practices in poultry farming to minimize waste generation, maximize resource efficiency, and reduce environmental impact.
  • Urban Aquaponics Kits: Design compact and user-friendly aquaponics kits for urban dwellers, enabling them to grow both fish and vegetables in a limited space.
  • Precision Agriculture Webinars: Organize webinars and online workshops to educate farmers and agricultural enthusiasts about the latest trends and practices in precision agriculture.
  • Agricultural Mobile Testing Vans: Establish mobile testing vans equipped with essential agricultural testing equipment to provide on-the-spot services to farmers in rural areas.
  • Augmented Reality Farm Tours: Develop augmented reality applications that offer virtual farm tours, providing an immersive experience and educational insights into modern farming practices.
  • Blockchain-Based Carbon Footprint Certifications: Create a blockchain platform for certifying and verifying the carbon footprint of agricultural products, promoting sustainability and eco-conscious consumer choices.
  • AI-Powered Crop Disease Advisory: Develop an AI-driven advisory system that analyzes data to provide real-time recommendations to farmers on preventing and managing crop diseases.
  • Innovative Plant Propagation Techniques: Explore novel methods for plant propagation, such as tissue culture, micropropagation, or air layering, for efficient and rapid multiplication of plants.
  • Agricultural Podcast Series: Launch a podcast series featuring experts and practitioners discussing a wide range of agricultural topics, providing valuable insights to a global audience.
  • Smart Aquaponics Home Kits: Design compact and automated aquaponics kits for home use, allowing individuals to grow their own fish and vegetables sustainably.
  • AI-Enhanced Crop Insurance Claims: Implement AI algorithms for fast and accurate assessment of crop damage in insurance claims, streamlining the compensation process for farmers.
  • Utilizing blockchain for transparent and traceable supply chains.

Challenges and Solutions in Agriculture

Climate change adaptation.

Climate change poses a significant threat to agriculture, impacting crop yields and increasing the frequency of extreme weather events. Agriculture-related projects addressing climate change adaptation introduce resilient crop varieties and advanced weather forecasting technologies. 

These solutions enable farmers to adapt to changing climatic conditions and ensure food security.

Food Security

Ensuring food security is a global challenge. Sustainable food production practices , coupled with efficient distribution and access strategies, play a crucial role in addressing this challenge. 

Agriculture related project topics that focus on these aspects contribute to the development of a robust and resilient food system.

Innovation is the key to addressing the complex challenges faced by the agricultural sector. The agriculture related project topics outlined in this blog represent a diverse range of initiatives aimed at enhancing sustainability, efficiency, and resilience in agriculture. 

As we continue to explore and implement these innovative solutions, we move closer to a future where agriculture not only meets the needs of the present but also ensures a sustainable and thriving world for future generations.

Related Posts

best way to finance car

Step by Step Guide on The Best Way to Finance Car

how to get fund for business

The Best Way on How to Get Fund For Business to Grow it Efficiently

  • The Agriculture Dictionary
  • Agriculture & Nature
  • Business & Investment
  • Farm Animals
  • How To Start
  • Innovation & Technology
  • Pest Control
  • Uncategorized

Agriculture Project Topics | 100 Project Ideas

Are you a student passionate about agriculture and seeking compelling project topics to work on? Look no further! In this article, we will explore a diverse range of agriculture project topics that promise both academic enrichment and practical insights. From sustainable farming practices to innovative technologies shaping the future of agriculture, we’ve got you covered.

Embarking on an agriculture project can be a rewarding experience, providing students with the opportunity to apply theoretical knowledge to real-world challenges. Whether you are majoring in agronomy, agricultural economics, or agribusiness, these project topics are designed to ignite your curiosity and fuel your academic journey.

List of 100 agriculture project topics

We compiled a list of 100 new agriculture project topics you can work on, check them out

  • Sustainable Crop Rotation Strategies for Enhanced Soil Health
  • Impact of Climate Change on Crop Yields: A Regional Analysis
  • Precision Agriculture: Integrating Technology for Farm Management
  • Analyzing the Economics of Organic Farming Practices
  • Hydroponics vs. Traditional Soil Cultivation: A Comparative Study
  • The Role of Biotechnology in Crop Improvement
  • Assessing the Effectiveness of Drip Irrigation Systems
  • Exploring Vertical Farming as a Solution to Urban Food Security
  • Evaluating the Impact of Pesticides on Soil Microbial Diversity
  • Adoption of Smart Farming Technologies in Developing Countries
  • Sustainable Livestock Farming Practices: A Case Study
  • The Economics of Beekeeping for Pollination Services
  • Agroforestry Systems: Balancing Agriculture and Conservation
  • Analyzing the Role of Women in Agriculture: A Global Perspective
  • The Use of Drones in Monitoring Crop Health
  • Enhancing Water Use Efficiency in Agriculture
  • Evaluating the Potential of Permaculture in Sustainable Agriculture
  • Genetically Modified Crops: Benefits and Controversies
  • Impact of Land Fragmentation on Agricultural Productivity
  • Exploring Aquaponics: Integrating Fish Farming and Crop Cultivation
  • Assessing the Social and Economic Impacts of Farmer Cooperatives
  • The Role of Agricultural Extension Services in Rural Development
  • Utilizing Big Data Analytics for Crop Yield Prediction
  • Analyzing the Nutritional Content of Indigenous Crops
  • Comparative Analysis of Different Soil Conservation Techniques
  • The Future of Agriculture: Trends and Innovations
  • Investigating the Impact of Global Trade Policies on Agriculture
  • Organic vs. Conventional Farming: A Consumer Preference Study
  • Assessing the Viability of Rooftop Farming in Urban Areas
  • The Role of Agrochemicals in Modern Agriculture
  • Impact of Cover Crops on Weed Suppression and Soil Health
  • The Influence of Crop Diversification on Pest Control
  • Analyzing the Role of Mycorrhizal Fungi in Enhancing Plant Growth
  • Comparative Study of Different Irrigation Techniques in Arid Regions
  • Investigating the Potential of Edible Insects as a Sustainable Protein Source
  • The Effectiveness of Biological Pest Control Methods in Greenhouse Farming
  • Assessing the Ecological Footprint of Livestock Farming Practices
  • Examining the Social Dynamics of Farmers’ Markets in Urban Areas
  • Exploring the Impact of Agricultural Practices on Biodiversity
  • The Use of Blockchain Technology in Supply Chain Management for Agricultural Products
  • Analyzing the Impact of COVID-19 on Global Food Supply Chains
  • Sustainable Management of Agricultural Residue: A Case Study
  • The Adoption of Climate-Smart Agriculture Practices in Developing Countries
  • Evaluating the Role of Agroecology in Resilient Food Systems
  • The Socioeconomic Impacts of Land Degradation on Rural Communities
  • Investigating the Use of CRISPR Technology in Crop Improvement
  • Analyzing the Factors Influencing Farmers’ Adoption of Precision Livestock Farming
  • The Impact of Agricultural Policies on Smallholder Farmers
  • Exploring the Potential of In Vitro Meat Production
  • The Role of Artificial Intelligence in Farm Management Decision-Making
  • Assessing the Nutritional Quality of Fortified Crops in Addressing Micronutrient Deficiencies
  • Comparative Study of Different Fertilization Methods on Crop Productivity
  • Investigating the Relationship Between Soil Microbiota and Plant Health
  • The Role of Agricultural Cooperatives in Empowering Women Farmers
  • Evaluating the Environmental Impact of Genetically Modified Organisms (GMOs)
  • Analysis of Food Waste in the Agricultural Supply Chain
  • Exploring the Feasibility of Rooftop Aquaculture in Urban Settings
  • Assessing the Impact of Land Use Change on Ecosystem Services
  • The Use of Remote Sensing in Monitoring Rangeland Health
  • Comparative Analysis of Traditional and Modern Rice Cultivation Practices
  • Examining the Role of Agri-Tourism in Rural Economic Development
  • Analyzing the Impact of Water Scarcity on Agricultural Productivity
  • The Role of Agro-Entrepreneurship in Sustainable Agriculture
  • Investigating the Potential of Perennial Crops in Carbon Sequestration
  • Comparative Study of Different Soil Amendments for Crop Growth
  • Assessing the Socioeconomic Factors Affecting Farmers’ Adoption of Conservation Agriculture
  • Exploring the Potential of Algae Farming for Sustainable Biofuel Production
  • The Impact of Urbanization on Farmland Conversion and Agricultural Sustainability
  • Analyzing the Adoption of Smart Irrigation Systems in Precision Agriculture
  • Investigating the Use of Nanotechnology in Agriculture for Enhanced Crop Yield
  • Assessing the Impact of Land Tenure Systems on Agricultural Development
  • The Role of Agro-Meteorological Information in Crop Planning
  • Exploring the Potential of Vertical Hydroponic Farming in Urban Spaces
  • Analyzing the Impact of Livestock Grazing on Grassland Ecosystems
  • Investigating the Use of Indigenous Knowledge in Sustainable Agriculture
  • Assessing the Effectiveness of Agricultural Extension Programs in Rural Development
  • The Role of Conservation Agriculture in Mitigating Soil Erosion
  • Exploring the Impact of Trade Policies on Global Food Security
  • Analyzing the Use of CRISPR Technology in Livestock Breeding
  • The Effect of Soil Health on Crop Nutrient Content
  • Investigating the Role of Agroforestry in Carbon Sequestration
  • The Impact of Water Management Practices on Rice Cultivation
  • Analyzing the Adoption of Climate-Resilient Crop Varieties
  • The Use of Unmanned Aerial Vehicles (UAVs) in Precision Agriculture
  • Investigating the Impact of Agrochemical Runoff on Water Quality
  • Assessing the Economic Viability of Small-Scale Organic Farming
  • Exploring the Potential of Insect Farming for Animal Feed
  • The Role of Social Media in Agricultural Knowledge Dissemination
  • Analyzing the Impact of Monoculture on Crop Disease Resistance
  • The Effect of Temperature Extremes on Crop Yield Variability
  • Investigating the Role of Agro-Processing in Adding Value to Agricultural Products
  • Assessing the Impact of Urban Agriculture on Local Food Systems
  • The Use of Biochar as a Soil Amendment for Sustainable Agriculture
  • Analyzing the Impact of Agricultural Practices on Water Conservation
  • Exploring the Adoption of Mobile Technology in Agricultural Extension Services
  • The Role of Agri-Insurance in Mitigating Risks for Farmers
  • Assessing the Impact of Livestock Waste Management Practices
  • Investigating the Use of CRISPR Technology in Disease-Resistant Crops
  • Analyzing the Potential of Recycled Water in Agricultural Irrigation
  • The Role of Farmer Field Schools in Promoting Sustainable Agriculture

These diverse project topics aim to cater to students with varied interests within the field of agriculture, ensuring an engaging and intellectually stimulating experience. Whether you are fascinated by sustainable practices, cutting-edge technologies, or the socioeconomic aspects of agriculture, there’s a project topic here for you.

Leave a Reply Cancel reply

Your email address will not be published. Required fields are marked *

Save my name, email, and website in this browser for the next time I comment.

Notify me of follow-up comments by email.

Notify me of new posts by email.

Related News

research project topics in agriculture

How to Make Nutrient Solution for Hydroponics

Msavi vegetation index | application in eosda crop monitoring.

  • Paper writing help
  • Buy an Essay
  • Pay for essay
  • Buy Research Paper
  • Write My Research Paper
  • Research Paper Help
  • Custom Research Paper
  • Custom Dissertation
  • Dissertation Help
  • Buy Dissertation
  • Dissertation Writer
  • Write my Dissertation
  • How it works

130 Agriculture Research Topics To Write An Excellent Paper

The preparation of an agriculture research paper involves several nuances and complexities. The first aspect is technical requirements, such as text formatting, structure, and source list. It's also important to choose those agriculture topics that you can analyze and find expert material. Any research paper is based on theses and statements, which are supported by evidence and factual information.

This is especially important when you tend to choose agricultural controversial topics. Then you need to find studies with verified information and prepare arguments for your paper. The whole process of work requires meticulous data collection and analysis of alternative sources. Then choosing any agricultural essay topics won't seem like a heady decision.

Your academic paper may relate to environmental factors, the economic feasibility of starting a farm, or the nuances of breeding. The main plus is that you can choose any of the agricultural related topics for research preparation. Here are 130 options for you.

Fisheries And Aquaculture

Such agricultural research paper topics allow revealing the topic of fishery and agricultural procurement. Students can concentrate on many aspects of the payback of farms and fisheries. The topics are quite extensive, and you can find a lot of research on the Internet for choosing trust sources.

  • Trout breeding in freshwaters.
  • Effect of algae on oxygen levels in fish rates.
  • Seasonal spawning of oceanic fish.
  • Prohibited fishing waters in the United States.
  • Exploration of the Pacific Ocean.
  • The impact of cyclones on fishing.
  • Poisonous fish and the reasons for their breeding in North America.
  • Seasonal diseases of trout.
  • Sea horse: A case study.
  • Risk analysis of water quality in aquaculture.

Plant Science And Crop Production

Crop Production agricultural research topics and plant science are not the easiest, but they contain a ton of information on the Internet. It is not a problem to find research by leading scientists and create your own research paper based on their statistics. The plus is that you don't have to start from scratch.

  • Innovative plant breeding.
  • Reclamation as a method of increasing yields.
  • Hybrid plants of Montana.
  • Citrus growing methods.
  • Technical cannabis and plantations in the USA.
  • Analysis of the yield of leguminous crops.
  • Method for creating genetically modified plants.
  • Field analysis of wheat for pesticides.
  • New plants and methods of growing them.
  • Hybrids and cold-resistant plants.

Topics in Agricultural Science

Agriculture essay topics like this allow you to select a specific aspect to research. You can concentrate on vegetation breeding or high tech greenhouse methodology. A large amount of research is a definite plus because you can build your theses on the basis of available data, criticizing or supporting research by scientists.

  • Harvesting robots.
  • Methodology for improving agricultural performance.
  • The influence of technology on the growth of grain crops.
  • How important is the timely irrigation of fields?
  • Climatic changes and impact on yield.
  • Breeding earthworms.
  • Hydroponic gardening.
  • Genetically modified organisms and their distribution.
  • Starting a garden.
  • How can we make medicine from plants?

Topics in Agronomy

Agronomy agriculture projects for students allow you to consider the aspects of growing crops in conditions with a specific soil type and natural characteristics. You can base your claims on statistics with the ability to draw on facts from other research. For example, this is relevant for papers examining the fertility of the topsoil.

  • Choosing the type of soil for the cornfield.
  • Innovative land reclamation.
  • New branches in agronomy.
  • Phosphate-free fertilizers.
  • Hydroponics and greenhouses.
  • Hybrid yield analysis.
  • Methodology for assessing agronomic losses.
  • Stages of preparing a field for harvesting.
  • The role of GMOs in the fight against insect pests.
  • Cultivation of technical hemp and soil fertilization methods.

Topics in Animal Breeding And Genetics

Agriculture related topics are interesting because you can touch on aspects of genetics and breeding. Students can concentrate on specific aspects of species modification and animal rearing. The research paper will look more convincing when there are references to real scientific papers with statistics and experimental results.

  • Breeding new types of sheep.
  • Breeding bulls and genetic engineering.
  • The influence of selection on the growth of the animal population.
  • Proper nutrition for livestock in winter.
  • Vitamin complexes for animals.
  • Genetic changes in chickens for resistance to cold.
  • Nuances of animal genetic modifications.
  • Stages of caring for newborn kittens.
  • What is a negative selection?
  • Basic methods of genetic experiments on animals.

Topics in Animal Production And Health

Such agriculture research paper topics are especially interesting because you can write about farming aspects in the context of raising animals, vegetables, and various crops. It is broad enough, so you will not be limited by narrow boundaries and will be able to consider many aspects of your research paper.

  • Environmental threats to the oversupply of the sheep population.
  • The role of livestock in marginal areas.
  • Livestock digitalization.
  • Animal selection for meat preparation.
  • Analysis of livestock farms.
  • Animal production evaluation technique.
  • Cow health during calving.
  • The importance of animal vaccination.
  • Technical aspects of the medical treatment of animals.
  • Environmental aspects of animal husbandry.

Topics in Ecotourism And Wildlife

Ecotourism is gaining momentum all over the world. The new trend is aimed at bringing people closer to nature and exploring the beauty of different countries. This issue will be of interest to those who want to talk about wildlife and nature reserves. The topic is quite extensive, so students will not have problems with preparing a research paper.

  • Minnesota and Eco-Tourism.
  • The influence of wolves on the formation of the local ecosystem.
  • Recreational tourism in the USA.
  • Methods for preparing resorts for eco-tourism.
  • Lakes and environmental factors.
  • A technique for preserving wildlife in its original form.
  • Classic models of eco-tourism.
  • Stages of creating ecological reserves.
  • The role of tourism in the restoration of the ecological environment.
  • The main factors of wildlife conservation.
  • The legislative framework for wildlife protection.
  • The nuances of creating a farm in reserve.
  • Consolidation of resources for the development of a livestock farm.

Topics in Farm Management

Managing a farm can be a complex and multifaceted process. Many students may choose this topic to talk about aspects of breeding and breeding pets or crops. The topic is quite extensive and allows you to touch on any aspect of the farmer's activities related to the production and sale of products.

  • Farm methods to improve performance.
  • Stages of creating a livestock farm.
  • Farm success analysis forms.
  • Management of the process of planting crops.
  • The role of modern equipment in cow milking.
  • Farm reporting and profitability analysis.
  • Breeding exotic animals.
  • Rabbit population management.
  • Statistical methodology for farm control.
  • Stages of the animal population control on the farm.

Topics in Fisheries And Aquaculture

A similar topic is associated with fish farming, introductory aquaculture, and general aquaculture. Quite a few students can prepare a good research paper if they turn to other people's research and use it as a basis to prove or disprove their own claims and theories. It is also a good opportunity to select food related research topics as you can touch upon the aspect of fish farming and marketing.

  • Creation and management of a fish rate.
  • Sturgeon breeding and distribution.
  • Methods for improving the ecological state of water bodies.
  • Planting plants in reservoirs for liquid purification.
  • Fish spawning control.
  • The aquaculture aspect and social trends.
  • Methods for increasing fish resources.
  • Breeding in the fishing industry.
  • Methods for creating a fish farm.
  • River resource monitoring and digitalization.

Topics in Agric Business And Financial Management

Control of a livestock or vegetable enterprise depends on many factors, so such a topic's choice will be extremely relevant. The student's most important task is to bring only proven facts and arguments of his own judgments. These agriculture topics for students include an overview of many business processes and farm management.

  • The farm cost reduction methodology.
  • US agricultural financing sector.
  • Agricultural business practices.
  • Data analysis and farming development.
  • Financial management of small livestock farms.
  • Impact of drought on yield.
  • Cost and payback of farms.
  • Selecting a region for creating a farm.
  • A method for analyzing animal resources on a farm.
  • Management of automated farming enterprises.
  • Local farming business.
  • Key factors of farm management.
  • Farm reports and breeding work.

Topics in Agric Meteorology And Water Management

Meteorological aspects are very important for the management of a company or agricultural enterprises. Another aspect of this topic is water management, which may also be interesting for those who are going to reveal the nuances of fish farming in local waters. The topic will be especially interesting for those who want to connect their lives with agronomy and a similar field.

  • Cattle breeding methodology.
  • Pig breeding methods.
  • Water management to maximize profits.
  • The choice of a reservoir for growing fish.
  • Analysis of the ecological situation in water bodies.
  • Farm equipment management techniques.
  • Water supply for farm households.
  • Analysis and selection of a farm development methodology.
  • Finding the right methods for creating protected reservoirs.
  • Stages of development of a water farm.

Other Agric Topics

Sometimes choosing a specific topic can be difficult. This is because students are not quite sure which study to base their paper on. You can take a neutral topic that has no specific relation to breeding, meteorology, or farming aspects in such cases.

  • Innovative farming methods.
  • Choosing the right water farm management model.
  • The nuances of trout breeding.
  • Population control and livestock farm development plan.
  • Financial analytics and purchase of farm animals.
  • The self-sufficiency period of the fish farm.
  • How to create fish spawning tanks?
  • Selection of breeds of cows for farming.
  • Methodology for calculating farm risks.
  • Time management and selection of plants for the plantation.
  • Features of the legal registration of a farm household.
  • Modern agricultural drones.
  • The difference between Ayn Rand's anthem and George Orwell's animal farm.
  • Animal rights vs. animal welfare.

How to Write a Good Agriculture Research Paper?

One of the main life hacks for getting a high mark is choosing controversial agricultural topics. Choosing this option allows students to consider an interesting statement and back it up with real facts. A paper-based on real statistics with proof of student work is valued above all else.

But even when choosing a good topic, you still need to prepare the right outline for writing your research paper. The introduction should be of the highest quality as well as the final paragraph since these are the main parts that affect the assessment. Real facts and statistics must support all the statements above if you are talking about specific figures. Many colleges and universities have their own paper requirements as well as the nuances of the design of research work. You must consider each parameter in order to get the best result.

If it is difficult to find controversial topics in agriculture and write a high-quality research paper, we can help you with this issue. Our  best essay writing service has been in operation for many years and provides writing assistance for many types of essays, research papers, and theses. We will help you synchronize your preparation process and create an expert paper that gets high marks. You can switch to other tasks and get the opportunity to free up some time to study other disciplines.

An Inspiration List:

  • Agricultural Research
  • Current Agriculture Research Journal
  • Agricultural Research & Technology
  • Journal of Agriculture and Food Research
  • Advances in Plants & Agriculture Research
  • Journal of Bioscience and Agriculture Research
  • Middle East Journal of Agriculture Research

ct-logo

131 Exciting Agriscience Fair Project Ideas For Students

Agriscience Fair Project Ideas give students a chance to apply scientific principles to real-world agricultural and environmental issues. With science fairs coming up, many students are looking for unique and exciting agriscience projects to showcase. 

From testing different techniques for growing healthy plants to comparing livestock feed options, many engaging project concepts exist to explore. In this blog post, we’ll provide exciting agriscient project ideas that allow budding agriscientists to learn by doing hands-on experiments. 

From assessing pest control methods to analyzing soil samples, these projects enable students to educate and impress through their research. Whether just starting or looking to go big, check these agriscience fair project ideas to jumpstart your design process today! With a bit of creativity and passion for science, the possibilities are endless.

Get top-notch science assignment help with 100% plagiarism-free content. Our experts ensure accurate and original solutions tailored to your requirements.

What is the Agriscience Fair Project?

Table of Contents

Agriscience fair projects are science experiments done by students on some topics related to agriculture, plants, animals, and the environment. Students develop their own ideas for hands-on projects that let them test different variables and collect data. Some examples are testing different plant fertilizers, comparing livestock feeds, or analyzing soil samples. 

Through the projects, students learn research skills and explore real-world topics in agriculture and environmental science. The projects are presented at local and national competitions. Creating an original agriscience fair project idea allows students to apply science to farming, sustainability, and natural resources issues.

Here are some key features of an Agriscience Fair Project:

  • Student-led experiment: The student comes up with their own idea and designs the project.
  • Agriculture/environment topic: The project focuses on an issue related to agriculture, plants, animals, or the environment.
  • Uses scientific method: The project involves making a hypothesis, testing variables, collecting data, and presenting results.
  • Hands-on work: The project requires hands-on experimentation, engineering, or testing.
  • Competition: Projects are presented and judged at local, regional, state, and national agriscience fairs.

131 Agriscience Fair Project Ideas For Students

Here are the agriscience fair project ideas that cover various topics, allowing students to explore multiple aspects of agriculture, plant science, and environmental sustainability.

Crop Science

  • Investigate the impact of various soil types on corn yield.
  • Analyze the effects of varying fertilizer types on wheat growth.
  • Study the relationship between planting density and soybean productivity.
  • Compare the growth of tomatoes in different types of potting soils.
  • Explore the use of hydroponics for cultivating lettuce.
  • Assess the influence of cover crops on carrot production.
  • Investigate the effects of varying irrigation methods on potato yield.
  • Study the growth patterns of strawberries in different climate conditions.
  • Analyze the effect of climate change on rice cultivation.
  • Experiment with vertical farming for cultivating herbs.

Plant Physiology

  • Investigate the role of auxins in root development.
  • Study the effects of blue light on the flowering of sunflowers.
  • Analyze the effect of temperature stress on the photosynthesis of bell peppers.
  • Explore the use of ethylene in promoting fruit ripening.
  • Investigate the response of Arabidopsis plants to abscisic acid.
  • Study the effects of red light on the germination of radish seeds.
  • Analyze the role of gibberellins in promoting stem elongation.
  • Investigate the result of drought stress on the stomatal conductance of grapevines.
  • Explore the effects of different pruning techniques on apple tree growth.
  • Study the influence of cytokinins on the senescence of lettuce leaves.

Sustainable Agriculture

  • Assess the benefits of using leguminous cover crops in sustainable farming.
  • Research the effect of organic farming practices on soil microbial diversity.
  • Study the impact of farm diversification on economic resilience.
  • Analyze the role of agroecosystems in providing ecosystem services.
  • Explore the use of recycled materials for sustainable packaging in agriculture.
  • Investigate the potential of using recycled water for irrigation in agriculture.
  • Assess the impact of windbreaks on reducing soil erosion in agriculture.
  • Study the results of crop rotation on soil health and pest management.
  • Examine the use of precision agriculture for optimizing resource efficiency.
  • Explore the role of agrobiodiversity in enhancing agricultural sustainability.

Also Read:- SK Project Ideas

Pest Management

  • Investigate the effectiveness of neem oil as a natural pesticide.
  • Study the impact of companion planting on aphid populations in vegetable gardens.
  • Analyze the role of ladybugs in biological pest control in crops.
  • Explore the use of pheromones to disrupt insect mating patterns in orchards.
  • Consider the effects of different mulching materials on weed control in gardens.
  • Study the potential of using predatory nematodes to control soil-borne pests.
  • Investigate the impact of intercropping on reducing pest infestations in crops.
  • Study the results of temperature on the population dynamics of crop pests.
  • Explore the use of insect-resistant genetically modified crops for pest management.
  • Study the role of trap crops in diverting pests away from main crops.

Soil Health

  • Consider the impact of biochar on soil microbial activity and nutrient availability.
  • Explore the effects of diverse cover crops on soil erosion control.
  • Study the influence of mycorrhizal fungi on the nutrient uptake of corn plants.
  • Analyze the role of earthworms in improving soil structure and fertility.
  • Explore the use of compost tea as an organic soil amendment.
  • Investigate the impact of diverse tillage practices on soil water retention.
  • Assess the impact of saline irrigation water on soil salinity and crop growth.
  • Study the role of cover crops in improving soil organic matter content.
  • Analyze the effects of bio-based soil conditioners on soil structure.
  • Explore the use of green manure crops for nitrogen fixation in soil.

Water Management

  • Investigate the effects of drip irrigation on water-use efficiency in vegetable crops.
  • Assess the impact of rainwater harvesting on water conservation in agriculture.
  • Study the use of moisture sensors for efficient irrigation management.
  • Analyze the effects of different irrigation frequencies on crop water consumption.
  • Explore the potential of using aquaponics for water-efficient vegetable production.
  • Investigate the impact of waterlogging on crop growth and nutrient uptake.
  • Assess the effects of recycled water from fish tanks on hydroponic lettuce growth.
  • Study the role of cover crops in reducing nutrient leaching from agricultural fields.
  • Analyze the effects of varying irrigation timings on fruit quality in orchards.
  • Explore the use of soil moisture data from satellites for precision irrigation.

Animal Science

  • Investigate the effects of different diets on the growth of broiler chickens.
  • Study the impact of grazing intensity on pasture biodiversity and forage quality.
  • Assess the potential of using probiotics in livestock feed for improved digestion.
  • Analyze the effects of different bedding materials on the behavior of dairy cows.
  • Explore the use of thermal imaging for monitoring livestock health.
  • Investigate the role of rotational grazing in optimizing forage utilization by cattle.
  • Analyze environmental enrichment’s outcomes on the pigs’ welfare in confinement.
  • Assess the impact of different housing systems on egg production in laying hens.
  • Analyze the use of genetic markers for selecting traits in dairy cattle breeding.
  • Explore the effects of climate-smart livestock management practices on farm sustainability.

Also Read:- How To Use Chatgpt To Write A Scientific Research Paper

Agroecology

  • Investigate the effects of agroforestry on carbon sequestration in soil.
  • Study the role of cover crops in enhancing agroecosystem resilience.
  • Analyze the impact of agrobiodiversity on the abundance of beneficial insects.
  • Explore the use of hedgerows to promote biodiversity in agricultural landscapes.
  • Please investigate how organic farming affects the diversity of soil microorganisms.
  • Consider using native plants for erosion control in agroecosystems.
  • Study the role of agroecological principles in reducing pesticide use in agriculture.
  • Analyze the effects of landscape design on pollinator diversity in farming areas.
  • Explore the use of integrated pest management strategies in agroecosystems.
  • Investigate the impact of agroecological practices on soil carbon sequestration.

Technology in Agriculture

  • Assess the use of drones for monitoring crop health and growth.
  • Investigate the impact of sensor networks on real-time monitoring of environmental conditions in fields.
  • Study the role of robotics in automating tasks such as fruit harvesting in orchards.
  • Analyze the use of satellite imagery for crop identification and yield prediction.
  • Explore blockchain technology’s potential in tracking agricultural product supply chains.
  • Investigate the impact of smart irrigation systems on water conservation in agriculture.
  • Assess the use of artificial intelligence in predicting and preventing crop diseases.
  • Study the role of data analytics in optimizing farm management practices.
  • Analyze the effects of autonomous vehicles in precision agriculture.
  • Examine the use of 3D printing for making customized agricultural tools and equipment.

Climate Change And Agriculture

  • Investigate the effects of elevated carbon dioxide levels on the growth of staple crops.
  • Study the impact of changing temperature patterns on the phenology of fruit trees.
  • Analyze the role of agriculture in mitigating greenhouse gas emissions.
  • Explore the use of climate-resilient crop varieties for sustainable farming.
  • Analyze the effects of altered precipitation patterns on crop water requirements.
  • Assess the impact of climate change on the distribution of invasive plant species.
  • Study the potential of agroforestry in adapting to changing climate conditions.
  • Research the effects of severe weather events on crop productivity.
  • Explore the use of climate-smart agriculture practices in reducing vulnerability to climate change.
  • Investigate the role of cover crops in improving soil water retention under changing climatic conditions.

Food Safety and Quality

  • Assess the effects of post-harvest handling practices on the quality of fresh produce.
  • Study the impact of different storage conditions on the shelf life of fruits and vegetables.
  • Investigate the potential of using ozone for post-harvest sanitation of fresh produce.
  • Analyze the effects of packaging materials on the preservation of food quality.
  • Explore the use of genetic engineering for developing disease-resistant crops.
  • Investigate the impact of food processing techniques on the nutritional content of agricultural products.
  • Assess the effects of organic farming on the microbial safety of fresh produce.
  • Study the role of biofortification in addressing micronutrient deficiencies in staple crops.
  • Analyze the effects of transportation and distribution practices on the quality of agricultural products.
  • Research the use of blockchain technology for traceability and transparency in the food supply chain.

Also Read:- Agile Project Management Research Paper Topics

Environmental Impact

  • Investigate the effects of agriculture on water quality in nearby aquatic ecosystems.
  • Study the impact of agrochemical runoff on soil and water quality.
  • Analyze the role of riparian buffers in mitigating the environmental impact of agriculture.
  • Explore the effects of land use change on the biodiversity of plant and animal species.
  • Investigate the potential of using constructed wetlands for treating agricultural wastewater.
  • Assess the impact of wind energy installations on local bird populations.
  • Study the effects of pesticide drift on non-target plant species in adjacent areas.
  • Analyze the role of agroecosystems in supporting native pollinator populations.
  • Explore the use of ecological restoration techniques in degraded agricultural landscapes.
  • Investigate the effects of various irrigation practices on the salinity of nearby water bodies.
  • Assess the potential of using green roofs for urban agriculture and its impact on local ecosystems.

Waste Management

  • Assess the use of agricultural by-products for composting and soil enrichment.
  • Investigate the effects of different waste disposal methods on soil health.
  • Study the potential of vermicomposting for converting agricultural waste into nutrient-rich compost.
  • Analyze the impact of using recycled plastic materials in greenhouse construction.
  • Explore the use of bioenergy crops for converting agricultural waste into renewable energy.
  • Investigate the feasibility of using crop residues as a source of biofuel.
  • Examine the effects of anaerobic digestion on the decomposition of organic farm waste.
  • Study the potential of using recycled paper products for mulching in agriculture.
  • Analyze the impact of agricultural waste burning on air quality and soil health.
  • Explore the use of mushroom cultivation for recycling agricultural residues into edible products.

These are the agriscience fair project ideas, and I hope these ideas are helpful for your agriscience fair!

Tips For Choosing The Best Agriscience Fair Project

Here are some tips for choosing the best agriscience fair project:

  • Pick a topic you’re genuinely interested in or curious about to stay engaged.
  • Look for issues or problems in agriculture you can test or explore with an experiment.
  • Ensure you have the resources and ability to execute your selected project correctly.
  • Choose a unique project that hasn’t been done before to stand out.
  • Select a project with an appropriate scope that can be completed within the timeline.
  • Talk to farmers, agricultural scientists , or 4H/FFA advisors for ideas based on real-world issues.
  • Brainstorm projects that align with your personal experiences or background in agriculture.
  • Look for projects that solve relevant problems or have practical applications to farms or crops.
  • Find a project that allows you to showcase your skills and knowledge of agricultural science.
  • Pick a hands-on project that will enable you to design experiments creatively.

Final Remarks

In conclusion, selecting an engaging Agriscience Fair Project is an exciting opportunity for students to delve into real-world agricultural challenges. The provided 131 agriscience fair project ideas span various topics, from crop science to technology in agriculture, ensuring a diverse range of possibilities. 

Remember to select a topic that genuinely interests you, addresses a relevant agricultural issue, and aligns with your abilities and available resources. By conducting a student-led experiment following the scientific method, you can learn valuable research skills and contribute to the ever-evolving field of agriscience. Best of luck with your project, and enjoy the journey of hands-on exploration in agriscience fair project ideas!

Similar Articles

Tips To Write An Assignment

13 Best Tips To Write An Assignment

Whenever the new semester starts, you will get a lot of assignment writing tasks. Now you enter the new academic…

How To Do Homework Fast

How To Do Homework Fast – 11 Tips To Do Homework Fast

Homework is one of the most important parts that have to be done by students. It has been around for…

Leave a Comment Cancel Reply

Your email address will not be published. Required fields are marked *

This site uses Akismet to reduce spam. Learn how your comment data is processed .

U.S. flag

An official website of the United States government

Official websites use .gov A .gov website belongs to an official government organization in the United States.

Secure .gov websites use HTTPS A lock ( Lock A locked padlock ) or https:// means you’ve safely connected to the .gov website. Share sensitive information only on official, secure websites.

USDA Logo

U.S. DEPARTMENT OF AGRICULTURE

spacing

Find a Research Project

You can search for a research project by looking for a keyword in the title, approach, objective, or all of those fields. You can also search by project number.

 

As well, you can explore research projects by subject of investigation .

You can browse international research projects by country .

Or you can browse research project annual reports .

spacer

Agriculture Science Project Ideas

50 Exciting Agriculture Science Project Ideas: Unearthing Knowledge

Embarking on an exploration of Agriculture Science through engaging projects not only brings learning to life but also cultivates a deeper understanding of the vital connection between science and the agricultural world.

In this realm of Agriculture Science Project Ideas, we venture into a diverse landscape where seeds of curiosity grow into hands-on experiences. Whether you’re fascinated by crop science, agroecology, or the intersection of technology and agriculture, this guide is your gateway to a harvest of innovative and educational projects.

Let’s sow the seeds of knowledge and cultivate a passion for scientific inquiry in the vast field of agriculture. Join us as we dig into the fertile ground of Agriculture Science Project Ideas—where learning takes root and blooms into a fruitful exploration.

Table of Contents

Why Agriculture Science Projects?

Alright, let’s spice things up and talk about why Agriculture Science Projects are like the rockstars of learning, but in a field (literally):

Be the Farming Hero

Ever dreamt of being a hero in the farming world? Agriculture Science Projects let you swoop in with your cape and tackle real challenges, like making sure crops thrive and there’s plenty of food for everyone.

Get Your Hands Muddy

Say goodbye to boring lectures! These projects are all about getting hands-deep in soil. It’s like a treasure hunt, but instead of gold, you find out cool stuff about agriculture.

Nature + Science Jam

Picture this: a wild jam session of nature and science. Watch science unfold in the growth of crops and the dance of ecosystems. You’re the DJ, and it’s a party!

Farming Rockstar Status

Ready for the big stage of farming? Agriculture Science Projects let you be the rockstar, experimenting with ideas that could change the farming game.

Test-Drive Your Future Gig

Curious about a career in agriculture? These projects are like a backstage pass. Test out different roles, from plant whisperer to business guru, and see which one feels like your future gig.

Eco-Friendly Swagger

Think of it as strutting the runway, but for being eco-friendly! Agriculture Science is all about sustainability. Your projects could be the trendsetters for the green and clean farming revolution.

Local Hero, Global Vibes

Imagine being a hero in your neighborhood with fans worldwide. Your projects can transform local farming and maybe even become the next big thing on the global stage.

Neighborhood Superstar

Ready to shine in your community? These projects aim to make your neighborhood farming-friendly, ensuring everyone has access to fresh, tasty bites.

Science Mixtape

Forget about sticking to one science. Agriculture Science is like creating the ultimate mixtape, blending biology, chemistry, and environmental science. It’s a science party!

Grow Your Curiosity, Literally

Think of it as growing your curiosity. Agriculture Science Projects are like a never-ending adventure. Whether you’re a student or just a curious soul, get ready for a journey that’s as fresh as a ripe tomato.

So, if you’re up for a muddy, hands-on adventure that involves being the hero of the farming story, Agriculture Science Projects are your backstage pass to a green and exciting world.

Agriculture Science Project Ideas for Students

Check out agriscience project ideas for students:-

Crop Science and Agronomy

  • Check out how different types of soil make corn plants do a happy dance. Who knew soil could be such a party starter?
  • Let’s see if changing up the party guests (crops) keeps the wheat field rocking. It’s like a farmer’s version of musical chairs.
  • Meet the beans that can handle their water, or lack of it. Can they survive the ultimate water scarcity challenge?
  • Discover if lettuce loves a spotlight. We’re talking different light sources making lettuce the star of its own show.
  • Hang out with beans and find out if they’re the nitrogen-fixing heroes your garden needs.
  • Ever wonder if tomatoes like their personal space? Let’s test how close they can get without starting a vegetable drama.
  • Heat things up and cool them down for rice plants. Will they stay chill or get too hot to handle?
  • Uncover the love story between soybeans and hormones. Spoiler: it’s a hormonal rollercoaster!
  • It’s a genetic fiesta in the potato patch! Check out the different spuds and their unique moves.
  • Let’s see if tomatoes prefer a cozy or spacious dance floor. Can they salsa their way to a bigger yield?

Soil Health and Management

  • Take a peek at the tiny superheroes in soil – microbes! They might be small, but they’re making a big impact.
  • Join the mulch party and see who can keep the soil moisture in check. It’s like a magic show for plants.
  • Meet the earthworms and discover if they’re the composting MVPs. Can they turn kitchen scraps into black gold?
  • Dive into the rhizosphere and find out why it’s the VIP section for plant roots. The real plant party happens underground!
  • It’s a battle against soil erosion! Watch as cover crops and contour plowing fight to keep soil in its place.
  • Buckle up for the soil pH rollercoaster! Which amendments will make the soil happy or sad?
  • Witness the microbial maestros turning organic matter into compost. It’s like a symphony in the soil.
  • Roots take on soil compaction – who will emerge victorious? It’s the ultimate root rebellion!
  • Uncover the superhero powers of biochar in keeping soil fertile. Can it save the day for plant roots?
  • It’s a networking event for plants and mycorrhizal fungi. Can they strike a mutually beneficial deal?

Pest Management

  • It’s time for integrated pest management to show those pests they’re not invited! Who knew pests could be gatecrashers?
  • Neem oil steps into the ring with common pests. Will it be a knockout or just a friendly sparring match?
  • Check out if insects have a favorite plant perfume. Can we make them turn their noses up and fly away?
  • Biopesticides take on the chemical heavyweights. Who will emerge as the champion of pest control?
  • Meet the trap crops keeping pests away from the main party. Can they outsmart those sneaky insects?
  • Nematodes meet their match! Can we find a way to control these soil-dwelling ninjas?
  • Watch ladybugs take on aphids in the ultimate insect showdown. Will aphids escape or be ladybug lunch?
  • Enter the world of fungi fighting plant diseases. Can they chop down those pesky pathogens?
  • Genetically modified plants step up to defend against insects. Are they the superheroes of the plant world?
  • Join the cultural practices party and see if we can outsmart pests without using any chemicals.

Sustainable Agriculture Practices

  • Check out the skyscrapers of farming! Can vertical farms beat traditional farms in a resource-use showdown?
  • Dive into the underwater world of aquaponics. Can fish and plants be BFFs in a water dance?
  • It’s the heavyweight match of farming! Who will win – the organic or the conventional champs?
  • Design your own permaculture wonderland. Can we create a paradise where plants, animals, and humans live in harmony?
  • Explore rainwater harvesting for the win! Can we collect enough raindrops to keep our plants happy?
  • It’s a sun-powered party in the fields! Can we harness the sun’s energy to run the farm?
  • Trees meet crops for a leafy celebration. Can we create a forest-farm mashup that’s the envy of nature?
  • Let’s throw a buzzing party for the bees. Can we make our gardens the coolest spot for pollinators?
  • Join the CSA party! Can we create a farm-to-table movement that’s the talk of the town?
  • Dive into the world of zero-waste farming. Can we make every part of the farm contribute to the circle of life?

Technology in Agriculture

  • Plants demand water on their terms. Can we build a smart irrigation system that understands their needs?
  • Drones take to the skies to solve crop mysteries. Can they spot the culprits behind sickly plants?
  • Crops get their own GPS! Can precision agriculture guide them to a bumper harvest?
  • Imagine a greenhouse where plants control the show. Can we build a greenhouse that responds to plant wishes?
  • Blockchain steps into the food supply chain. Can it make our food journeys transparent and trustworthy?
  • Plants go digital with the Internet of Plants. Can we build a network where plants chat with each other?
  • Robots join the harvest party. Can they pluck, pick, and gather crops with robotic finesse?
  • Farm tools get a 3D makeover. Can we print out tools that make farming easier and more fun?
  • Satellites become crop explorers. Can they provide an aerial view that helps farmers manage their fields better?
  • AI becomes the ultimate pest predictor. Can it outsmart pests before they even think about crashing the plant party?

These projects are like hosting a science carnival for your plants – fun, informative, and a little bit wild! Let the agricultural adventures begin!

What are the 5 categories of agriscience fair projects?

Check out the 5 categories of agriscience fair projects:-

  • Dive into the world of plants and crops, exploring what makes them thrive. From soil secrets to growing good vibes, it’s all about the green gang!
  • Unearth the mysteries of soil! Get your hands dirty as we dig into the drama beneath our feet – it’s like a soil soap opera, but with more science!
  • Join the bug bash and witness the epic pranks pests play on our crops. We’re talking about bugs and the plants that outsmart them – it’s bug versus plant showdown!
  • Let’s talk green, mean, and sustainable! Explore farming that’s kind to the planet. It’s like giving Mother Earth a high-five while growing some serious crops.
  • Get your tech hats on! We’re diving into the agri-tech world, where farms meet gadgets, drones dance in the sky, and plants might just be sending tweets. It’s farming, but not as you know it!

These categories are like the different channels in the agriscience TV show – pick one, grab your popcorn, and let the agriscience adventures begin!

What are the 5 types of science project?

Check out the 5 types of science project:-

  • Ever wanted to play mad scientist? That’s experimental projects! You get to test your ideas, mix stuff, and see what happens. It’s like a science playground!
  • Imagine science as your favorite show, and you’re the star! Demonstration projects let you build cool models or show off fascinating science tricks. It’s science with a bit of magic!
  • Research projects are like detective missions. You dig deep into a topic you love, collect info, and become an expert. It’s your chance to be a scientific Sherlock!
  • Ever thought, “What if we had this?” Inventive projects let you create new stuff or improve what’s already there. It’s like being a scientist and an inventor rolled into one!
  • Investigatory projects turn you into a mystery solver. You spot a problem, propose solutions, and figure out the best way to fix it. It’s science meets detective work!

So, whether you’re cooking up crazy experiments or solving mysteries, science projects are your ticket to a world of discovery and fun!

What are some food science projects?

Check out some food science projects:-

Fluffy or Flat: The Muffin Mystery

Ever wondered why some muffins are like clouds, and others are a bit, well, flat? Let’s play kitchen scientist and figure out the secrets to the perfect muffin rise!

Sweet Science: DIY Rock Candy Magic

Ready to make your own sugary crystals? It’s like creating a candy masterpiece! Explore how sugar transforms into sparkly, delicious rock candy right in your kitchen.

Cooking Chemistry: The Browned Beauty Quest

Get ready for a flavor adventure! We’re diving into the world of cooking chemistry to uncover why our favorite dishes turn brown and tasty. Spoiler alert: it involves a little kitchen magic!

Preservation Picnic: Battle of the Food Titans

Canning, freezing, or drying – who wins the food preservation crown? Join our preservation picnic and discover which method keeps your snacks tasting top-notch for the longest time.

Cheese Time Travel: Aging Experiment Extravaganza

Cheese lovers, unite! Let’s embark on a time-travel journey to understand how different conditions affect the aging of our favorite cheeses. It’s like a flavor adventure through time!

Sourdough Symphony: Bread, Bugs, and Bubbles

Grab your apron; it’s time for a sourdough science jam! We’re exploring the magical world of wild yeast , bacteria buddies, and the science behind that perfect sourdough rise.

Colorful Kitchen: Food Coloring CSI

Become a food coloring detective! We’re using fancy science tricks to unmask the hidden colors in your favorite food dyes. It’s like a CSI episode, but in the kitchen!

Starch Showdown: Thickening Tales in the Kitchen

Who’s the superhero of thickening? Cornstarch, flour, or arrowroot? Join our starch showdown to reveal the ultimate thickening champion for your saucy adventures.

Veggie Superheroes: Nutrient Ninjas in the Kitchen

Vegetables to the rescue! Let’s discover the best way to cook them so they keep all their nutrient superpowers. It’s like a veggie superhero training camp!

Salted Sensations: The Great Salt Experiment

Ready to embark on a salt adventure? We’re playing with different salt levels to see how they dance on our taste buds. Get ready for some salty science fun in the kitchen!

Grab your apron and safety goggles – these food science projects are a delicious journey into the mysteries of the kitchen!

And there you have it, our journey through Agriculture Science Project Ideas! We’ve dug into the dirt, danced with bugs, and even taken a stroll through the high-tech side of farming. It’s been like having a backstage pass to the greatest show on Earth – the one where plants, soil, and science steal the spotlight!

As we wrap up, remember, these projects aren’t just about growing crops or staring at soil; they’re about discovering the secrets of our food, the land, and the incredible balance nature strikes every day. So, whether you’re dreaming of your future farm or just love the idea of playing mad scientist with plants, keep exploring, keep growing, and keep the spirit of curiosity alive!

Here’s to the farmers, the scientists, and everyone in between – may your seeds always sprout, your experiments always intrigue, and your journey in agriculture science be as bountiful as a sun-kissed harvest. Until next time, happy farming and happy exploring!

Frequently Asked Questions

Are these projects suitable for all age groups.

Yes, the complexity of the projects can be adjusted to match the age and skill level of the students.

Can these projects be done as part of a school curriculum?

Certainly, these projects are ideal for school curriculums and can be adapted to suit educational requirements.

Leave a Comment Cancel Reply

Your email address will not be published. Required fields are marked *

Save my name, email, and website in this browser for the next time I comment.

Thank you for visiting nature.com. You are using a browser version with limited support for CSS. To obtain the best experience, we recommend you use a more up to date browser (or turn off compatibility mode in Internet Explorer). In the meantime, to ensure continued support, we are displaying the site without styles and JavaScript.

  • View all journals
  • Explore content
  • About the journal
  • Publish with us
  • Sign up for alerts
  • Perspective
  • Published: 23 December 2021

On-Farm Experimentation to transform global agriculture

  • Myrtille Lacoste   ORCID: orcid.org/0000-0001-6557-1865 1 , 2 ,
  • Simon Cook   ORCID: orcid.org/0000-0003-0902-1476 1 , 3 ,
  • Matthew McNee 4 ,
  • Danielle Gale   ORCID: orcid.org/0000-0003-3733-025X 1 ,
  • Julie Ingram   ORCID: orcid.org/0000-0003-0712-4789 5 ,
  • Véronique Bellon-Maurel 6 , 7 ,
  • Tom MacMillan   ORCID: orcid.org/0000-0002-2893-6981 8 ,
  • Roger Sylvester-Bradley 9 ,
  • Daniel Kindred   ORCID: orcid.org/0000-0001-7910-7676 9 ,
  • Rob Bramley   ORCID: orcid.org/0000-0003-0643-7409 10 ,
  • Nicolas Tremblay   ORCID: orcid.org/0000-0003-1409-4442 11 ,
  • Louis Longchamps   ORCID: orcid.org/0000-0002-4761-6094 12 ,
  • Laura Thompson   ORCID: orcid.org/0000-0001-5751-7869 13 ,
  • Julie Ruiz   ORCID: orcid.org/0000-0001-5672-2705 14 ,
  • Fernando Oscar García   ORCID: orcid.org/0000-0001-6681-0135 15 , 16 ,
  • Bruce Maxwell 17 ,
  • Terry Griffin   ORCID: orcid.org/0000-0001-5664-484X 18 ,
  • Thomas Oberthür   ORCID: orcid.org/0000-0002-6050-9832 19 , 20 ,
  • Christian Huyghe 21 ,
  • Weifeng Zhang 22 ,
  • John McNamara 23 &
  • Andrew Hall   ORCID: orcid.org/0000-0002-8580-6569 24  

Nature Food volume  3 ,  pages 11–18 ( 2022 ) Cite this article

4095 Accesses

87 Citations

142 Altmetric

Metrics details

  • Agriculture
  • Science, technology and society
  • Scientific community
  • Sustainability

Restructuring farmer–researcher relationships and addressing complexity and uncertainty through joint exploration are at the heart of On-Farm Experimentation (OFE). OFE describes new approaches to agricultural research and innovation that are embedded in real-world farm management, and reflects new demands for decentralized and inclusive research that bridges sources of knowledge and fosters open innovation. Here we propose that OFE research could help to transform agriculture globally. We highlight the role of digitalization, which motivates and enables OFE by dramatically increasing scales and complexity when investigating agricultural challenges.

This is a preview of subscription content, access via your institution

Access options

Access Nature and 54 other Nature Portfolio journals

Get Nature+, our best-value online-access subscription

24,99 € / 30 days

cancel any time

Subscribe to this journal

Receive 12 digital issues and online access to articles

111,21 € per year

only 9,27 € per issue

Buy this article

  • Purchase on SpringerLink
  • Instant access to full article PDF

Prices may be subject to local taxes which are calculated during checkout

research project topics in agriculture

Similar content being viewed by others

research project topics in agriculture

Digital Regenerative Agriculture

research project topics in agriculture

The global divide in data-driven farming

research project topics in agriculture

Transdisciplinary participatory-action-research from questions to actionable knowledge for sustainable viticulture development

Data availability.

The authors declare that the data supporting the findings of this study are available within the paper and its Supplementary Information (sources of Figs. 1 – 3 ).

Whitfield, S., Challinor, A. J. & Rees, R. M. Frontiers in climate smart food systems: outlining the research space. Front. Sustain. Food Syst. 2 , https://doi.org/10.3389/fsufs.2018.00002 (2018).

Scoones, I. & Thompson, J. (eds) Farmer First Revisited: Innovation for Agricultural Research and Development 1st edn (Practical Action Publishing, 2009).

Stone, G. D. Towards a general theory of agricultural knowledge production: environmental, social, and didactic learning. Cult. Agric. Food Environ. 38 , 5–17 (2016).

Hansson, S. O. Farmers’ experiments and scientific methodology. Euro. J. Phil. Sci. 9 , 32 (2019).

Maat, H. & Glover, D. in Contested Agronomy: Agricultural Research in a Changing World (eds Sumberg, J. & Thompson, J.) 131–145 (Routledge, 2012).

Šūmane, S. et al. Local and farmers’ knowledge matters! How integrating informal and formal knowledge enhances sustainable and resilient agriculture. J. Rural Stud. 59 , 232–241 (2018).

Article   Google Scholar  

de Janvry, A., Sadoulet, E. & Rao, M. Adjusting Extension Models to the Way Farmers Learn Policy Brief No. 159 (FERDI, 2016).

Cross, R. & Ampt, P. Exploring agroecological sustainability: unearthing innovators and documenting a community of practice in Southeast Australia. Soc. Nat. Resour. 30 , 585–600 (2016).

Rickards, L., Alexandra, J., Jolley, C., Farhey, K. & Frewer, T. Review of Agricultural Extension (ACIAR, 2019).

MacMillan, T. & Benton, T. G. Engage farmers in research. Nature 509 , 25–27 (2014).

Article   ADS   CAS   Google Scholar  

Waters-Bayer, A. et al. Exploring the impact of farmer-led research supported by civil society organisations. Agric. Food Secur. 4 , 4 (2015).

Berthet, E. T. A., Barnaud, C., Girard, N., Labatut, J. & Martin, G. How to foster agroecological innovations? A comparison of participatory design methods. J. Environ. Plan. Manage. 59 , 280–301 (2015).

Cook, S. et al. An on-farm experimental philosophy for farmer-centric digital innovation. In 14th International Conference on Precision Agriculture (ISPA, 2018).

Cook, S. E., Cock, J., Oberthür, T. & Fisher, M. On-farm experimentation. Better Crops 97 , 17–20 (2013).

Google Scholar  

Richardson, M. et al. Farmer research networks in principle and practice. Int. J. Agric. Sustain. https://doi.org/10.1080/14735903.2021.1930954 (2021).

Thompson, L. J. et al. Farmers as researchers: in‐depth interviews to discern participant motivation and impact. Agron. J. 111 , 2670–2680 (2019).

Sewell, A. M. et al. Hatching new ideas about herb pastures: learning together in a community of New Zealand farmers and agricultural scientists. Agric. Syst. 125 , 63–73 (2014).

Bramley, R. G. V., Lawes, R. & Cook, S. in Precision Agriculture for Sustainability and Environmental Protection (eds Oliver, M. A., Bishop, T. F. A. & Marchant, B. M.) 205–218 (Routledge, 2013).

Marchant, B. et al. Establishing the precision and robustness of farmers’ crop experiments. Field Crops Res. 230 , 31–45 (2019).

Briggs, J. Indigenous knowledge: a false dawn for development theory and practice? Progr. Dev. Stud. 13 , 231–243 (2013).

Caron, P., Biénabe, E. & Hainzelin, E. Making transition towards ecological intensification of agriculture a reality: the gaps in and the role of scientific knowledge. Curr. Opin. Environ. Sustain. 8 , 44–52 (2014).

Kool, H., Andersson, J. A. & Giller, K. E. Reproducibility and external validity of on-farm experimental research in Africa. Exp. Agric . 56 , 587–607 (2020).

de Roo, N., Andersson, J. A. & Krupnik, T. J. On-farm trials for development impact? The organisation of research and the scaling of agricultural technologies. Exp. Agric. 55 , 163–184 (2019).

Möhring, N. et al. Pathways for advancing pesticide policies. Nat. Food 1 , 535–540 (2020).

Sylvester-Bradley, R. et al. Agronōmics: transforming crop science through digital technologies. Adv. Anim. Biosci. 8 , 728–733 (2017).

Ruiz, J., Dumont, A. & Zingraff, V. in Penser le Gouvernement des Ressources Naturelles (eds Busca, D. & Lew, N.) 293–330 (Presses de l’Université Laval, 2019).

Fabregas, R., Kremer, M. & Schilbach, F. Realizing the potential of digital development: the case of agricultural advice. Science https://doi.org/10.1126/science.aay3038 (2019).

Dowd, A.-M. et al. The role of networks in transforming Australian agriculture. Nat. Clim. Change 4 , 558–563 (2014).

Article   ADS   Google Scholar  

Klerkx, L., van Mierlo, B. & Leeuwis, C. in Farming Systems Research into the 21st Century: The New Dynamic (eds Darnhofer, I., Gibbon, D. & Dedieu, B.) 457–483 (Springer, 2012).

Ingram, J., Gaskell, P., Mills, J. & Dwyer, J. How do we enact co-innovation with stakeholders in agricultural research projects? Managing the complex interplay between contextual and facilitation processes. J. Rural Stud. 78 , 65–77 (2020).

Jackson, L. et al. Biodiversity and agricultural sustainagility: from assessment to adaptive management. Curr. Opin. Environ. Sustain. 2 , 80–87 (2010).

Laurent, A., Kyveryga, P., Makowski, D. & Miguez, F. A framework for visualization and analysis of agronomic field trials from on‐farm research networks. Agron. J. 111 , 2712–2723 (2019).

Kyveryga, P. M. On‐farm research: experimental approaches, analytical frameworks, case studies, and impact. Agron. J. 111 , 2633–2635 (2019).

Tremblay, N. in Precision Agriculture for Sustainability (ed. Stafford, J.) 145–168 (Burleigh Dodds Science Limited, 2019); https://doi.org/10.1201/9781351114592

Bullock, D. S. et al. The data‐intensive farm management project: changing agronomic research through on‐farm precision experimentation. Agron. J. 111 , 2736–2746 (2019).

Wyatt, J., Brown, T. & Carey, S. The next chapter in design for social innovation. Stanford Soc. Innov. Rev. 19 , 40–47 (2021).

Griffin, T. W., Fitzgerald, G. J., Lowenberg‐DeBoer, J. & Barnes, E. M. Modeling local and global spatial correlation in field‐scale experiments. Agron. J . https://doi.org/10.1002/agj2.20266 (2020).

Coudel, E., Tonneau, J.-P. & Rey-Valette, H. Diverse approaches to learning in rural and development studies: review of the literature from the perspective of action learning. Knowl. Manage. Res. Pract. 9 , 120–135 (2017).

Browning, D. M. et al. Emerging technological and cultural shifts advancing drylands research and management. Front. Ecol. Environ. 13 , 52–60 (2015).

Maxwell, B. et al. Can optimization associated with on-farm experimentation using site-specific technologies improve producer management decisions? In 14th International Conference on Precision Agriculture (2018).

Kindred, D. et al. Supporting and analysing on-farm nitrogen tramline trials so farmers, industry, agronomists and scientists can learn together. In 14th International Conference on Precision Agriculture (2018).

Oberthür, T. et al. Plantation intelligence applied oil palm operations: unlocking value by analysing commercial data. Planter 93 , 339–351 (2017).

Jin, H., Shuvo Bakar, K., Henderson, B. L., Bramley, R. G. V. & Gobbett, D. L. An efficient geostatistical analysis tool for on-farm experiments targeted at localised treatment. Biosys. Eng. 205 , 121–136 (2021).

Berthet, E. T., Hickey, G. M. & Klerkx, L. Opening design and innovation processes in agriculture: insights from design and management sciences and future directions. Agric. Syst. 165 , 111–115 (2018).

Curley, M. Twelve principles for open innovation 2.0. Nature 533 , 315–316 (2016).

Ryan, S. F. et al. The role of citizen science in addressing grand challenges in food and agriculture research. Proc. Biol. Sci . 285 , 20181977 (2018).

Herrero, M. et al. Innovation can accelerate the transition towards a sustainable food system. Nat. Food 1 , 266–272 (2020).

Fielke, S. J. et al. Conceptualising the DAIS: implications of the ‘digitalisation of agricultural innovation systems’ on technology and policy at multiple levels. NJAS 90–91 , 100296 (2019).

Cook, S., Jackson, E. L., Fisher, M. J., Baker, D. & Diepeveen, D. Embedding digital agriculture into sustainable Australian food systems: pathways and pitfalls to value creation. Int. J. Agric. Sustain. https://doi.org/10.1080/14735903.2021.1937881 (2021).

van Etten, J. et al. Crop variety management for climate adaptation supported by citizen science. Proc. Natl Acad. Sci. USA 116 , 4194–4199 (2019).

Ingram, J. & Maye, D. What are the implications of digitalisation for agricultural knowledge? Front. Sustain. Food Syst. 4 , https://doi.org/10.3389/fsufs.2020.00066 (2020).

McNee, M. Government Support for Farmer-Based Research in the Falkland Islands AAC Agenda 07.11.2019, Item 10 (Agricultural Advisory Committee, Falkland Islands Government, 2019).

Zhang, W. et al. Closing yield gaps in China by empowering smallholder farmers. Nature 537 , 671–674 (2016).

Lechenet, M., Dessaint, F., Py, G., Makowski, D. & Munier-Jolain, N. Reducing pesticide use while preserving crop productivity and profitability on arable farms. Nat. Plants 3 , 17008 (2017).

García, F. et al. La Red de Nutrición de la Región Crea Sur de Santa Fe: Resultados y Conclusiones de los Primeros Diez Años 2000-2009 (AACREA, 2010).

Posner, S. M., McKenzie, E. & Ricketts, T. H. Policy impacts of ecosystem services knowledge. Proc. Natl. Acad Sci. USA 113 , 1760–1765 (2016).

Moore, M.-L., Riddell, D. & Vocisano, D. Scaling out, scaling up, scaling deep. Strategies of non-profits in advancing systemic social innovation. J. Corp. Citizenship 58 , 67–84 (2015).

Payan, J.‐C. & Pichon, L. ApeX‐Vigne, Version 2020: Une Application Mobile Gratuite pour Faciliter le Suivi de la Croissance des Vignes et Estimer la Contrainte Hydrique (Institut Français de la Vigne et du Vin and Institut Agro, Montpellier SupAgro, 2020).

Samberg, L. H. A collaboration worth its weight in grain. Nature 537 , 624–625 (2016).

Download references

Acknowledgements

This study was funded by the Premier’s Agriculture and Food Fellowship Program of Western Australia. This Fellowship is a collaboration between Curtin and Murdoch Universities and the State Government. The Fellowship is the centrepiece of the Science and Agribusiness Connect initiative, made possible by the State Government’s Royalties for Regions program. Additional support was provided by the MAK’IT-FIAS Fellowship programme (Montpellier Advanced Knowledge Institute on Transitions – French Institutes for Advanced Study) co-funded by the University of Montpellier and the European Union’s Horizon 2020 Marie Skłodowska-Curie Actions (co-fund grant agreement no. 945408), the Digital Agriculture Convergence Lab #DigitAg (grant no. ANR-16-CONV-0004) supported by ANR/PIA, and the Elizabeth Creak Charitable Trust. Contributions toward enabling workshops were made by the USDA (USDA AFRI FACT Los Angeles 2017), the International Society for Precision Agriculture (ICPA Montreal 2018 OFE-C, On-Farm Experimentation Community), the National Key Research and Development Program of China (2016YFD0201303) and ADAS (Cambridge 2018), the European Conference for Precision Agriculture (ECPA Montpellier 2019) and the OECD Co-operative Research Program for ‘Biological resource management for sustainable agricultural systems – Transformational technologies and innovation’ towards ‘#OFE2021, the first Conference on farmer-centric On-Farm Experimentation – Digital Tools for a Scalable Transformative Pathway’. L. Tresh assisted with the design and preparation of Figs. 2 and 3. Members of the #OFE2021 Working Groups also contributed their experiences and insights.

Author information

Authors and affiliations.

Centre for Digital Agriculture, Curtin University, Perth, Western Australia, Australia

Myrtille Lacoste, Simon Cook & Danielle Gale

Montpellier Advanced Knowledge Institute on Transitions (MAK’IT), University of Montpellier, Montpellier, France

Myrtille Lacoste

Centre for Digital Agriculture, Murdoch University, Perth, Western Australia, Australia

Department of Agriculture, Falkland Islands Government, Stanley, Falkland Islands

Matthew McNee

Countryside and Community Research Institute, University of Gloucestershire, Cheltenham, UK

Julie Ingram

Technologies and methods for the agricultures of tomorrow (ITAP), University of Montpellier–National Research Institute for Agriculture, Food and Environment (INRAE)–L’Institut Agro, Montpellier, France

Véronique Bellon-Maurel

Digital Agriculture Convergence Lab (#DigitAg), National Research Institute for Agriculture, Food and Environment (INRAE), Montpellier, France

Centre for Effective Innovation in Agriculture, Royal Agricultural University, Cirencester, UK

Tom MacMillan

ADAS, Cambridge, UK

Roger Sylvester-Bradley & Daniel Kindred

Commonwealth Scientific and Industrial Research Organisation (CSIRO), Adelaide, South Australia, Australia

Rob Bramley

Saint-Jean-sur-Richelieu Research and Development Centre, Agriculture and Agri-Food Canada (AAFC), St-Jean-sur-Richelieu, Quebec, Canada

Nicolas Tremblay

School of Integrative Plant Science, Cornell University, Ithaca, NY, USA

Louis Longchamps

Institute of Agriculture and Natural Resources, University of Nebraska-Lincoln, Falls City, NE, USA

Laura Thompson

Watershed and Aquatic Ecosystem Interactions Research Centre (RIVE), Université du Québec à Trois-Rivières, Trois-Rivières, Québec, Canada

Latin America Southern Cone Group, International Plant Nutrition Institute (IPNI), Buenos Aires, Argentina

Fernando Oscar García

Faculty of Agricultural Sciences, National University of Mar del Plata, Balcarce, Argentina

Montana Institute on Ecosystems, Montana State University, Bozeman, MT, USA

Bruce Maxwell

Department of Agricultural Economics, Kansas State University, Manhattan, KS, USA

Terry Griffin

Southeast Asia Group, International Plant Nutrition Institute (IPNI), Penang, Malaysia

Thomas Oberthür

Business and Partnership Development, African Plant Nutrition Institute (APNI), Benguérir, Morocco

Scientific Direction of Agriculture, National Research Institute for Agriculture, Food and Environment (INRAE), Paris, France

Christian Huyghe

College of Resources and Environmental Sciences and National Academy of Agriculture Green Development, China Agricultural University, Beijing, China

Weifeng Zhang

National Animal Nutrition Program (NANP), United States Department of Agriculture (USDA), Pullman, WA, USA

John McNamara

Commonwealth Scientific and Industrial Research Organisation (CSIRO), Canberra, Australian Capital Territory, Australia

Andrew Hall

You can also search for this author in PubMed   Google Scholar

Contributions

M.L. and S.C. developed the study concept. M.M., D.G., J.I., V.B.-M., T.M., R.S.-B. and A.H. contributed additional concept development. M.L. and D.G. obtained the data and prepared the results. M.L., M.M., L.T., D.K., F.O.G., B.M., V.B.-M., J.R., C.H. and W.Z. contributed data. M.L. wrote the manuscript with input from all other authors.

Corresponding author

Correspondence to Myrtille Lacoste .

Ethics declarations

Competing interests.

The authors declare no competing interests.

Additional information

Peer review information Nature Food thanks Carol Shennan, Petro Kyveryga, Nicolas Martin and the other, anonymous, reviewer(s) for their contribution to the peer review of this work.

Publisher’s note Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.

Supplementary information

Supplementary information.

Sources for Figs. 1–3.

Rights and permissions

Reprints and permissions

About this article

Cite this article.

Lacoste, M., Cook, S., McNee, M. et al. On-Farm Experimentation to transform global agriculture. Nat Food 3 , 11–18 (2022). https://doi.org/10.1038/s43016-021-00424-4

Download citation

Received : 13 August 2020

Accepted : 05 November 2021

Published : 23 December 2021

Issue Date : January 2022

DOI : https://doi.org/10.1038/s43016-021-00424-4

Share this article

Anyone you share the following link with will be able to read this content:

Sorry, a shareable link is not currently available for this article.

Provided by the Springer Nature SharedIt content-sharing initiative

This article is cited by

On-farm evaluation of a crop forecast-based approach for season-specific nitrogen application in winter wheat.

  • Manschadi A.M.

Precision Agriculture (2024)

Adaptation rather than adoption: a case study of cropping system change in West Africa

  • Anne Périnelle
  • Eric Scopel
  • Jean-Marc Meynard

Agronomy for Sustainable Development (2024)

Can machine learning models provide accurate fertilizer recommendations?

  • Takashi S. T. Tanaka
  • Gerard B. M. Heuvelink
  • David S. Bullock

Digital strategies for nitrogen management in grain production systems: lessons from multi-method assessment using on-farm experimentation

  • A. F. Colaço
  • B. M. Whelan
  • R. A. Lawes

Fully Bayesian economically optimal design for a spatially varying coefficient linear stochastic plateau model over multiple years

  • Davood Poursina
  • B. Wade Brorsen

Stochastic Environmental Research and Risk Assessment (2024)

Quick links

  • Explore articles by subject
  • Guide to authors
  • Editorial policies

Sign up for the Nature Briefing: Anthropocene newsletter — what matters in anthropocene research, free to your inbox weekly.

research project topics in agriculture

research project topics in agriculture

Official websites use .gov A .gov website belongs to an official government organization in the United States.

Secure .gov websites use HTTPS A lock ( ) or https:// means you've safely connected to the .gov website. Share sensitive information only on official, secure websites.

Animal Health and Welfare

Selected resources on  humane animal care (e.g.,  proper nutrition, housing, and environment, as well as, prevention of pain, suffering, disease, and disability), laws and regulations and certificate programs.

Farms and Agricultural Production Systems

Information on sustainable and organic farming, hydroponics, aquaculture,  irrigation and urban agriculture, as well as farm ownership and heirs' property.

Human Nutrition and Food Safety

Information on various nutrition and food safety topics including food security, nutrient composition, food defense, and local food systems.

Natural Resources, Conservation, and Environment

Topics relating to the environment, including, weather and climate change, conservation practices, environmental justice, invasive species and soil.

Plant Production and Gardening

Community and container gardening, raised beds, seeds and plants, specialty and cover crops, growing vegetables, medicinal herbs and more.

Rural Development and Communities

Resources on community development; environmental justice, rural funding, sustainable rural communities, and links to past and present USDA rural development collections.

Economics, Business, and Trade

Information about agricultural subsidies, funding for farms and businesses, trade policy, food waste and more with these agricultural marketing and trade resources.

  • Zoology Topics Topics: 145
  • Archaeology Topics Topics: 56
  • Charles Darwin Research Topics Topics: 51
  • Gene Essay Topics Topics: 77
  • DNA Paper Topics Topics: 113
  • Genetic Engineering Topics Topics: 58
  • Atmosphere Paper Topics Topics: 50
  • Space Exploration Paper Topics Topics: 76
  • Extinction Research Topics Topics: 55
  • Biology Topics Topics: 101
  • Epigenetics Research Topics Topics: 54
  • Microbiology Paper Topics Topics: 50
  • Anatomy Essay Topics Topics: 70
  • Cloning Essay Topics Topics: 74
  • Genetics Research Topics Topics: 213

187 Agriculture Essay Topics & Research Questions + Examples

Are you looking for the best agriculture topics to write about? You’re at the right place! StudyCorgi has prepared a list of important agriculture research topics. On this page, any student can find essay questions and project ideas on various agricultural issues, such as food safety, genetically engineered crops, and sustainable farming practices.

👨‍🌾 TOP 7 Agriculture Research Topics – 2024

🏆 best essay topics on agriculture, 🎓 most interesting agriculture topics for college students, 👍 good agriculture research topics & essay examples, 💡 cool agricultural research topics for high school students, ❓ research questions about agriculture, 🔎 current agriculture research paper topics, 📝 agriculture argumentative essay topics, 🗣️ agriculture topics for speech.

  • Agriculture and Its Role in Economic Development
  • Commercial Agriculture, Its Role and Definition
  • Agriculture: Personal Field Visit
  • Food Safety Issues in Modern Agriculture
  • Globalization Impact on Sustainable Agriculture
  • Agricultural Biotechnology and Its Pros and Cons
  • Improving Stress Resistance in Agricultural Crops
  • In Support of Robotics Use in Agriculture Robotic technologies have vast potential to be used in the agricultural sector due to the multi-dimensional nature of their applications and the possibilities for ongoing improvement.
  • Soil: The Essential Aspect of Agriculture Soil is an integral part of human life as it determines one’s quality of life. The health of the soil is reduced by erosion and degradation due to human activities.
  • Agricultural Influences on the Developing Civil Society Agriculture had a significant influence on developing societies, ranging from creating trade to bringing industrialization, education, and social classes.
  • History of Agricultural Technology Development Agricultural technologies were majorly developed during the Medieval period to ensure sufficient product yields for growing populations around the world.
  • Population Growth and Agriculture in the Future The current industrial agriculture needs to be advanced and developed in combination with sustainable agricultural practices.
  • Industry and Agriculture: Use of Technology Industry and agriculture are among the areas that have experienced a vast rise in effectiveness and performance quality due to the integration of new types of technology into them.
  • Pedagogical Content Knowledge in Secondary Level Agricultural Science Apart from internal student factors, such as the ability to generalize and absorb new knowledge, the learning process is significantly affected by the teacher.
  • Agriculture and Food in Ancient Greece The paper states that agricultural practices and goods from Greece extended to neighboring countries in the Mediterranean as the dominance increased.
  • Hunting and Gathering Versus Agricultural Society The hunting and gathering society is considered the most equitable of all seven types, while the agricultural community gives rise to the development of civilization.
  • The Agriculture Industry’s Digital Transformation This study seeks to explore the dynamics of digital technology in agriculture over the past two decades, focusing on the perspectives and perceptions of the farmers.
  • Aspects of Pesticide Use in Agriculture This paper investigates socio-environmental factors connected with pesticide use in agriculture and food production. It has a destructive impact on the environment
  • Food and Agriculture of Ancient Greece The concepts of agriculture and cuisine both have a deep connection to Greek history, culture, development, and social trends.
  • Sustainable Agriculture Against Food Insecurity The paper argues sustainable agriculture is one way to reduce food insecurity without harming the planet because the number of resources is currently decreasing.
  • Agriculture in Honduras: Existing Challenges and Possible Solutions This paper tackles the issue of existing challenges and possible solutions to the problems of agriculture in Honduras.
  • Freedom in American Countryside and Agriculture This paper portrays how freedom has been eliminated in the countryside by the state agriculture department, and whether the farmer has a moral right to do his farming practices.
  • The Impact of Pesticides’ Use on Agriculture Pesticides are mostly known for their adverse effects and, therefore, have a mostly negative connotation when discussed among general audiences.
  • Agriculture Development and Related Theories There are two main domestication models used to describe the development of agriculture: unconscious and conscious.
  • Agricultural Technology Implementation by Medieval Europeans and West Africans The paper examines how West Africans and Medieval Europeans were affected by their corresponding climates and why their methods were unique to their respective locations.
  • Agriculture: Application of Information Technology IT application in agriculture has contributed to food security in most modern communities. Farming has become easier than before as new inventions are made.
  • European Invasion and Agriculture in the Caribbean The early invasion of the Europeans in the Caribbean did not prompt the employment of the slave trade in the agricultural activities until the development of the sugar plantations.
  • Governmental Price Control in Agricultural Sector The consequences of real-life governmental price control are the evolutionary nature of transformations in the agricultural sector.
  • Trade Peculiarities in Food and Agriculture Food trading is a peculiar area, as food is the basis for surviving the population. The one who controls food production and trading routes, also controls all populations.
  • Climate Changes Impact on Agriculture and Livestock The project evaluates the influences of climate changes on agriculture and livestock in different areas in the Kingdom of Saudi Arabia.
  • Agricultural Problems in Venezuela Agriculture has been greatly underdeveloped in Venezuela, yet it is a country that has vital minerals and resources required for the global economy.
  • Market Revolution: Agriculture and Global Trade In the era of traders, the vast land area and rich natural resources created many economic opportunities. Most people lived in rural areas and were engaged in agriculture.
  • Repeasantization: Impact on Agriculture The repeasantization led to fundamental changes that created a new system of agriculture that is still relevant today.
  • Agriculture, Water, and Food Security in Tanzania This paper evaluates the strategies applicable to the development and further maintenance of agriculture, water, and food security in Tanzania.
  • The Australian Agriculture Company’s Financial Analysis The Australian Agriculture Company shows a positive sign for investment due to its financial analysis indicating company resilience and strong prospects of growth.
  • Agriculture and Food Production in the Old Kingdom
  • Agriculture and the Transition to the Market in Asia
  • Agrarian Reform and Subsistence Agriculture in Russia
  • Agriculture, Nutrition, and the Green Revolution in Bangladesh
  • Agriculture Business and Management
  • Agriculture, Horticulture, and Ancient Egypt
  • Agriculture and Food Production in the Old Kingdom of Egypt
  • Administrative and Transaction-Related Costs of Subsidising Agriculture
  • Agriculture and Economic Growth in Argentina, 1913-84
  • Agriculture and Economic Development in Brazil, 1960-1995
  • Agriculture and Greenhouse Gas Cap-And-Trade
  • Croatian Agriculture Towards World Market Liberalization
  • Adapting Credit Risk Models to Agriculture
  • Agriculture and European Union Enlargement
  • Agriculture and Food Security in Pakistan
  • Cash Flows and Financing in Texas Agriculture
  • Current Problems With Indian Agriculture
  • Agriculture and Its Drain on California
  • Agriculture and the Economic Life of India
  • Agriculture and Global Climate Stabilization
  • Achieving Regional Growth Dynamics in African Agriculture
  • Agriculture and Non-agricultural Liberalization in the Millennium Round
  • Corporate Agriculture and Modern Times
  • Agriculture and Rural Employment Agricultural in Bolivia
  • Climatic Fluctuations and the DI¤Usion of Agriculture
  • Agriculture Global Market Briefing
  • Agriculture and the Industrial Revolution of the Late 1700s
  • Agriculture and Animal Husbandry in Ecuador
  • Biofuels, Agriculture, and Climate Change
  • Aggregate Technical Efficiency and Water Use in U.S. Agriculture
  • Agriculture-Led Food Crops and Cash Crops in Tanzania This paper aims to explore the contributions of the agriculture sector in Tanzania to the country’s industrialization process by using recent data about its food and cash crops.
  • Cuisine and Agriculture of Ancient Greece There are many reasons for modern students to investigate the development of cuisine and agriculture in Ancient Greece.
  • Agriculture and Food Safety in the United States Agriculture in the United States has grown progressively centralized. The shortcomings in the 2018 U.S. farm legislation resulted in multiple challenges in the food system.
  • Sustainable Agriculture and Future Perspectives Sustainable agriculture is essential to the earth’s environment. When farmers take care of their land and crops, they are taking care of environmental sustainability.
  • Colonialism and Economic Development of Africa Through Agriculture The colonial period is characterized by the exploitation of the agricultural sector in Africa to make a profit and provide Western countries with raw materials.
  • Agricultural Adaptation to Changing Environments The paper discusses the impact of climate change on agriculture in Canada. This phenomenon is real and has affected the industry over at least the last three decades.
  • The Neolithic Era: Architecture and Agriculture The improvements to agriculture, society, architecture, and culture made during the Neolithic period had an undeniable impact on aspects of the world.
  • The Big History of Civilizations – Origins of Agriculture: Video Analysis This paper aims to analyze the origins of agriculture – what was a foraging economy and way of life like, as well as compare foragers and farmers.
  • Impacts of Climate Change on Agriculture and Food This paper will examine four aspects of climate change: variation in the rainfall pattern, water levels, drought, temperature, and heatwaves.
  • Agricultural Traditions of Canadians In Canada there is a very good agricultural education, so young people can get higher education in agriculture and use it on their own farms.
  • Sharecropping. History of Racial Agriculture Sharecropping became a variation of racialized agriculture, that which has negative impact on the capabilities of the black population to generate and pass down wealth.
  • Food Additives Use in Agriculture in the United States Food additives in agriculture become a debatable issue because their benefits do not always prevail over such shortages like health issues and environmental concerns.
  • Radio-Frequency Identification in Healthcare and Agriculture Specifically, radio-frequency identification (RFID) has gained traction due to its ability to transmit data over distance.
  • Mechanism of US Agricultural Market The fact that lower interest rates increased the number of potential customers for real estate in the 2000s shows that housing prices should have increased.
  • A Biological Terror Attack in Agriculture The United States is highly vulnerable to terror attacks of biological nature in agriculture yet such an occurrence can cripple the economy.
  • The Economics of Race, Agriculture and Environment This research paper is going to answer the question; do public policies reduce or enhance racial inequality in agricultural and environmental affairs?
  • Agriculture the Backbone of Ancient Egypt’s Economy In pre-industrial societies, agriculture was the backbone of most economies. This is true in ancient times and very much evident in ancient Egypt.
  • Impact of Bioterrorism on the U.S Agriculture System The paper describes that the term bioterrorism has several definitions depending upon the origin of the attack but in general terms, it refers to any form of terrorist attack.
  • Impacts of Genetic Engineering of Agricultural Crops In present days the importance of genetic engineering grew due to the innovations in biotechnologies and Sciences.
  • The Effects of Genetic Modification of Agricultural Products Discussion of the threat to the health of the global population of genetically modified food in the works of Such authors as Jane Brody and David Ehrenfeld.
  • Climate Change and Its Potential Impact on Agriculture and Food Supply The global food supply chain has been greatly affected by the impact of global climate change. There are, however, benefits as well as drawbacks to crop production.
  • Agriculture and Mayan Society Resilience The Yucatan peninsula had a vast landscape which was good for agriculture thus making agriculture to be the main economic base for the Mayans.
  • Homeland Security in Agriculture and Health Sectors Lack of attention to the security and protection of the agricultural sector in the U.S. economy can create a serious threat to the health and safety of the population.
  • Water Savings and Virtual Trade in Agriculture Water trade in agriculture is not a practice that is unique to the modern generation. The practice was common long before the emergence of the Egyptian Empire.
  • Virtual Water Trade and Savings in Agriculture This essay discusses the savings associated with virtual water trade in agriculture and touches on the effects of a shift to local agricultural production on global water savings.
  • Virtual Water Trade of Agricultural Products Virtual water trade is a concept associated with globalization and the global economy. Its rise was motivated by growing water scarcity in arid areas around the world.
  • Agricultural Role in African Development Diao et al. attempt to determine the role of agriculture in overcoming the challenge of poverty in rural areas of Africa compared to alternative theories of economic growth.
  • Virtual Water Savings and Trade in Agriculture The idea of virtual water was initially created as a method for assessing how water-rare nations could offer food, clothing, and other water-intensive products to their residents.
  • According to Henretta & Brody, Gang System Revolutionized Agriculture This paper analyzes America’s contribution in prevention of natural calamities, decline of soil quality, promotion of production outlay and provision of sufficient food.
  • Capital Taxes and Agriculture
  • Canadian Trade With the Chinese Agriculture Market
  • Agriculture and Its Impact on Economic Development
  • Bacteriocins From the Rhizosphere Microbiome From an Agriculture Perspective
  • Agriculture and Its Impact on Financial Institutions
  • Agriculture, Fisheries, and Food in the Irish Economy
  • Adoption and Economic Impact of Site-Specific Technologies in U.S. Agriculture
  • Cash Rents and Land Values in U.S. Agriculture
  • Crises and Structural Change in Australian Agriculture
  • Biotechnology and Its Application in Agriculture
  • Alternative Policies for Agriculture in Europe
  • Agriculture and Food Security in Asia by 2030
  • Agriculture and Coping Climate Change in Nepal
  • Agriculture and Ethiopia’s Economic Transformation
  • Culture: Agriculture and Egalitarian Social
  • Adaptation, Climate Change, Agriculture, and Water
  • Agriculture and the Literati in Colonial Bengal, 1870 to 1940
  • Agriculture and Barley Farming Taro
  • Agriculture and Agricultural Inputs Markets
  • Agriculture and Environmental Challenges
  • Challenges for Sustainable Agriculture in India
  • Agriculture and German Reunification
  • Agriculture and Tourism Relationship in Malaysia Tourism
  • 21st Century Rural America: New Horizons for U.S. Agriculture
  • Canadian Agriculture and the Canadian Agricultural Industry
  • California Agriculture Dimensions and Issues
  • Advancements and the Development of Agriculture in Ancient Greece and Rome
  • Agriculture and Early Industrial Revolution
  • Aztec: Agriculture and Habersham County
  • Agriculture and Current Deforestation Practices
  • How Has Agriculture Changed From Early Egypt, Greece, and Rome to the Present?
  • What Are the Advantages of Using Pesticides on Agriculture?
  • Are Digital Technologies for the Future of Agriculture?
  • How Did Agriculture Change Our Society?
  • Does Agriculture Help Poverty and Inequality Reduction?
  • Can Agriculture Prosper Without Increased Social Capital?
  • Are Mega-Farms the Future of Global Agriculture?
  • How Can African Agriculture Adapt to Climate Change?
  • Does Agriculture Really Matter for Economic Growth in Developing Countries?
  • Can Conservation Agriculture Save Tropical Forests?
  • How Can Sustainable Agriculture Be Better for Americans?
  • Are U.S. and European Union Agriculture Policies Becoming More Similar?
  • Should Pollution Reductions Count as Productivity Gains for Agriculture?
  • Can Market Access Help African Agriculture?
  • How Does Genetic Engineering Affect Agriculture?
  • Does Individualization Help Productivity of Transition Agriculture?
  • Can Spot and Contract Markets Co-Exist in Agriculture?
  • How Has Biotechnology Changed Agriculture Throughout the Years?
  • Does Trade Policy Impact Food and Agriculture Global Value Chain Participation of Sub-Saharan African Countries?
  • Can Sustainable Agriculture Feed Africa?
  • How Can Multifunctional Agriculture Support a Transition to a Green Economy in Africa?
  • Does Urban Agriculture Enhance Dietary Diversity?
  • How Did Government Policy, Technology, and Economic Conditions Affect Agriculture?
  • Can the Small Dairy Farm Remain Competitive in US Agriculture?
  • What Are the Main Changes in French Agriculture Since 1945 and What Challenges Does It Face Today?
  • How Can Marketing Theory Be Applied to Policy Design to Deliver Sustainable Agriculture in England?
  • Will African Agriculture Survive Climate Change?
  • How Has Agriculture Changed Civilizations?
  • Does Urban Agriculture Improve Food Security?
  • Can US and Great Plains Agriculture Compete in the World Market?
  • The effect of climate change on crop yields and food security.
  • Sustainable agricultural practices for soil health.
  • Precision agriculture techniques and applications.
  • The impact of genetically engineered organisms on crop yields and safety.
  • The benefits of agroforestry systems for the environment.
  • Current challenges in water management in agriculture.
  • The environmental impact of organic farming.
  • The potential of urban agriculture to address food insecurity.
  • Food waste in the agricultural supply chain.
  • Comparing the effectiveness of aquaponic and hydroponic systems.
  • Organic vs. conventional farming.
  • Can regenerative agriculture combat climate change?
  • Agricultural subsidies: pros and cons.
  • Should harmful pesticides be banned to protect pollinators?
  • Should arable land be used for biofuels or food production?
  • Do patent protections of seeds hinder agricultural innovation?
  • Agricultural robots: increased efficiency or displaced rural labor?
  • Should GMO labeling be mandatory?
  • Do the benefits of pesticides outweigh their potential health harms?
  • Is it unsustainable to grow water-intensive crops in arid regions?
  • The economics of organic farming.
  • The need for climate-adaptive crops.
  • The role of bees in agriculture and threats to their survival.
  • Smart agriculture: transforming farming with data and connectivity.
  • The journey of food in modern agricultural supply chains.
  • The role of agri-tech startups in agricultural innovation.
  • Youth in agriculture: inspiring the next generation of farmers.
  • Why should we shift to plant-based meat alternatives?
  • The importance of preserving indigenous agricultural practices.
  • Smart irrigation systems: optimizing water use in agriculture.

Cite this post

  • Chicago (N-B)
  • Chicago (A-D)

StudyCorgi. (2022, March 1). 187 Agriculture Essay Topics & Research Questions + Examples. https://studycorgi.com/ideas/agriculture-essay-topics/

"187 Agriculture Essay Topics & Research Questions + Examples." StudyCorgi , 1 Mar. 2022, studycorgi.com/ideas/agriculture-essay-topics/.

StudyCorgi . (2022) '187 Agriculture Essay Topics & Research Questions + Examples'. 1 March.

1. StudyCorgi . "187 Agriculture Essay Topics & Research Questions + Examples." March 1, 2022. https://studycorgi.com/ideas/agriculture-essay-topics/.

Bibliography

StudyCorgi . "187 Agriculture Essay Topics & Research Questions + Examples." March 1, 2022. https://studycorgi.com/ideas/agriculture-essay-topics/.

StudyCorgi . 2022. "187 Agriculture Essay Topics & Research Questions + Examples." March 1, 2022. https://studycorgi.com/ideas/agriculture-essay-topics/.

These essay examples and topics on Agriculture were carefully selected by the StudyCorgi editorial team. They meet our highest standards in terms of grammar, punctuation, style, and fact accuracy. Please ensure you properly reference the materials if you’re using them to write your assignment.

This essay topic collection was updated on June 20, 2024 .

logo

211+ Agriculture Research Topics For High School Students [Updated]

Agriculture is a fascinating field that combines science, technology, and nature. For high school students, researching agricultural topics can be a rewarding experience that provides insights into food production, environmental sustainability, and innovative farming practices. This blog will explore various agriculture research topics for high school students. 

Importance of Agricultural Research

Agriculture is essential for human survival as it provides food, fiber, and other products. Research in agriculture helps improve crop yields, protect the environment, and develop sustainable farming methods. For high school students, exploring agricultural research can spark interest in science, technology, and environmental stewardship.

211+ Agriculture Research Topics For High School Students: Category Wise

Sustainable farming practices.

  • Benefits of crop rotation
  • Organic vs. conventional farming
  • Impact of composting on soil health
  • Benefits of cover crops
  • Reducing chemical fertilizers through natural methods
  • Sustainable pest management
  • Benefits of no-till farming
  • Soil health improvement techniques
  • Benefits of mulching
  • Reducing water usage in farming
  • Impact of agroforestry on biodiversity
  • Organic pest control methods
  • Effects of green manure on soil fertility
  • Sustainable livestock management
  • Impact of polyculture on crop yield
  • Renewable energy use in farming
  • Benefits of integrated pest management
  • Water conservation techniques in agriculture
  • Sustainable weed control methods
  • Importance of biodiversity in sustainable farming

The Impact of Climate Change on Agriculture

  • Effects of drought on crop yield
  • Climate change adaptation strategies for farmers
  • Impact of rising temperatures on plant growth
  • Effects of extreme weather events on agriculture
  • Greenhouse gas emissions from agriculture
  • Breeding drought-resistant crops
  • Impact of changing rainfall patterns on agriculture
  • Climate change mitigation in agriculture
  • Effects of climate change on soil health
  • Role of agriculture in carbon sequestration
  • Impact of frost on crops
  • Sustainable farming practices to combat climate change
  • Effects of climate change on pest populations
  • Water management strategies in changing climates
  • Impact of sea-level rise on coastal agriculture
  • Role of cover crops in climate resilience
  • Adaptation of livestock to climate change
  • Effects of global warming on crop phenology
  • Sustainable greenhouse management
  • Role of agroecology in climate change adaptation

Innovations in Agricultural Technology

  • Use of drones in agriculture
  • Benefits of precision farming
  • Applications of biotechnology in agriculture
  • Hydroponics vs. traditional farming
  • Role of artificial intelligence in farming
  • Impact of GMOs on crop yield
  • Use of sensors in precision agriculture
  • Benefits of automated irrigation systems
  • Vertical farming techniques
  • Impact of robotics on agriculture
  • Smart farming technologies
  • Use of big data in agriculture
  • Role of mobile apps in farming
  • Advances in agricultural machinery
  • Use of remote sensing in agriculture
  • Benefits of aquaponics systems
  • Development of smart greenhouses
  • Impact of ICT on agriculture
  • Precision livestock farming
  • Innovations in pest control technologies

Soil Health and Management

  • Importance of soil pH for plant growth
  • Effects of soil erosion on agriculture
  • Benefits of soil organic matter
  • Soil nutrient management techniques
  • Role of microorganisms in soil health
  • Soil testing methods
  • Impact of soil compaction on crop yield
  • Benefits of biochar in agriculture
  • Soil conservation methods
  • Impact of heavy metals on soil health
  • Soil remediation techniques
  • Benefits of earthworms for soil health
  • Impact of salinity on soil fertility
  • Role of mycorrhizal fungi in soil health
  • Techniques for improving soil structure
  • Importance of soil moisture monitoring
  • Soil amendment practices
  • Impact of soil pollution on agriculture
  • Sustainable soil fertility management
  • Role of soil fauna in ecosystem services

Animal Agriculture and Welfare

  • Benefits of free-range farming
  • Ethical issues in factory farming
  • Impact of feed quality on livestock health
  • Animal welfare in livestock farming
  • Breeding techniques for livestock improvement
  • Sustainable livestock nutrition
  • Benefits of rotational grazing
  • Impact of antibiotics on animal health
  • Role of animal genetics in farming
  • Techniques for reducing livestock emissions
  • Sustainable poultry farming practices
  • Importance of animal health monitoring
  • Role of veterinary medicine in agriculture
  • Benefits of pasture-raised livestock
  • Impact of livestock housing on animal welfare
  • Sustainable fish farming practices
  • Benefits of integrated livestock farming
  • Role of animal welfare standards
  • Impact of climate change on livestock
  • Techniques for improving livestock productivity

Urban Agriculture

  • Benefits of community gardens
  • Vertical farming in urban areas
  • Impact of urban farming on food security
  • Role of rooftop gardens in urban agriculture
  • Benefits of hydroponics in cities
  • Urban farming techniques for small spaces
  • Role of urban agriculture in reducing food miles
  • Impact of urban farming on local ecosystems
  • Benefits of aquaponics in urban settings
  • Sustainable urban farming practices
  • Role of urban agriculture in community building
  • Impact of urban farming on mental health
  • Techniques for integrating agriculture into city planning
  • Benefits of edible landscapes
  • Role of urban beekeeping
  • Impact of urban farming on biodiversity
  • Sustainable water management in urban farming
  • Benefits of container gardening
  • Role of urban agriculture in reducing carbon footprint
  • Techniques for year-round urban farming

Crop Management and Production

  • Best practices for crop irrigation
  • Techniques for improving crop yield
  • Impact of pest control on crop production
  • Role of fertilizers in crop growth
  • Benefits of crop diversification
  • Techniques for managing crop diseases
  • Impact of planting density on crop yield
  • Best practices for crop harvesting
  • Role of genetic engineering in crop production
  • Techniques for extending the growing season
  • Impact of soil fertility on crop production
  • Benefits of intercropping
  • Techniques for reducing crop loss
  • Impact of water management on crop growth
  • Role of crop breeding in agriculture
  • Techniques for improving seed quality
  • Impact of light on plant growth
  • Benefits of greenhouse farming
  • Techniques for protecting crops from frost
  • Role of pollination in crop production

Environmental Impact of Agriculture

  • Impact of agriculture on water quality
  • Role of agriculture in deforestation
  • Techniques for reducing agricultural runoff
  • Impact of pesticide use on the environment
  • Benefits of conservation tillage
  • Role of agriculture in habitat destruction
  • Techniques for reducing greenhouse gas emissions
  • Impact of agriculture on air quality
  • Benefits of sustainable water use in farming
  • Role of agriculture in biodiversity loss
  • Techniques for improving agricultural sustainability
  • Impact of farming on soil erosion
  • Benefits of agroecology
  • Role of agriculture in wetland degradation
  • Techniques for reducing chemical use in farming
  • Impact of agriculture on ecosystem services
  • Benefits of sustainable farming practices
  • Role of agriculture in climate change mitigation
  • Techniques for enhancing soil carbon sequestration
  • Impact of livestock farming on the environment

Food Systems and Security

  • Impact of food waste on agriculture
  • Role of agriculture in food security
  • Techniques for reducing food loss in the supply chain
  • Impact of climate change on food security
  • Benefits of local food systems
  • Role of urban agriculture in food security
  • Techniques for improving food distribution
  • Impact of agricultural policies on food security
  • Benefits of sustainable food systems
  • Role of agriculture in hunger alleviation
  • Techniques for improving food storage
  • Impact of agricultural trade on food security
  • Benefits of food sovereignty
  • Role of community-supported agriculture
  • Techniques for increasing food production
  • Impact of genetic engineering on food security
  • Benefits of diversified farming systems
  • Role of agriculture in reducing poverty
  • Techniques for enhancing food resilience
  • Impact of organic farming on food security

Agricultural Economics

  • Impact of agricultural subsidies on farming
  • Role of agriculture in economic development
  • Techniques for improving farm profitability
  • Impact of global trade on agriculture
  • Benefits of agricultural cooperatives
  • Role of microfinance in agriculture
  • Techniques for reducing farming costs
  • Impact of agricultural policies on farm income
  • Benefits of agricultural entrepreneurship
  • Role of technology in agricultural economics
  • Techniques for improving market access for farmers
  • Impact of climate change on agricultural economics
  • Benefits of value-added agriculture
  • Role of agrotourism in rural development
  • Techniques for enhancing agricultural productivity
  • Impact of commodity prices on farming
  • Benefits of agricultural insurance
  • Role of contract farming in agriculture
  • Techniques for improving agricultural investment
  • Impact of agricultural research on economic growth

Miscellaneous Topics

  • Benefits of farm-to-table initiatives
  • Role of women in agriculture
  • Techniques for promoting agricultural education
  • Impact of youth involvement in farming
  • Benefits of sustainable fisheries
  • Role of indigenous knowledge in agriculture
  • Techniques for improving agricultural extension services
  • Impact of agricultural biotechnology on society
  • Benefits of organic certification
  • Role of agriculture in rural development
  • Techniques for enhancing food safety
  • Impact of biofuels on agriculture
  • Benefits of agrobiodiversity
  • Role of agriculture in disaster resilience
  • Techniques for promoting sustainable diets
  • Impact of agriculture on human health
  • Benefits of climate-smart agriculture
  • Role of agriculture in sustainable development
  • Techniques for improving rural livelihoods
  • Impact of agricultural innovation on society
  • Benefits of regenerative agriculture
  • Role of agriculture in achieving the SDGs
  • Techniques for reducing agricultural waste
  • Impact of digital agriculture on farming

Examples of Research Projects

Example 1: investigating organic farming.

  • Research Question:

How does organic farming impact soil health compared to conventional farming?

Conduct soil tests on organic and conventional farms.

Compare soil pH, nutrient levels, and microbial activity.

  • Expected Outcome:

Organic farming may show higher microbial activity and better nutrient levels, indicating healthier soil.

Example 2: Studying Drought-Resistant Crops

Which drought-resistant crops are most effective in arid regions?

Identify and plant different drought-resistant crop varieties.

Monitor growth, yield, and water usage.

Certain crop varieties will demonstrate better growth and yield under drought conditions.

Example 3: Exploring Vertical Farming

What are the advantages of vertical farming in urban areas?

Set up a small vertical farm.

Measure crop yield, space utilization, and resource efficiency.

Vertical farming will show higher yield per square foot and efficient use of resources.

Comparison of Farming Practices

Organic FarmingNo synthetic chemicals, better soil healthLower yield, higher labor costs
Conventional FarmingHigher yield, cost-effectiveUses synthetic chemicals, soil degradation
HydroponicsNo soil needed, efficient water useHigh setup costs, technical knowledge required
Vertical FarmingSpace-efficient, high yieldHigh initial investment, energy consumption

Agriculture research topics for high school students offer an opportunity to explore critical issues that impact food production and environmental sustainability. 

By investigating topics like sustainable farming, climate change, agricultural technology, soil health, animal agriculture, and urban farming, students can gain valuable insights and contribute to the future of farming.

Research in agriculture is not only about scientific discovery but also about understanding and improving the world we live in. Whether through hands-on projects, experiments, or theoretical studies, high school students can make meaningful contributions to the field of agriculture.

Leave a Comment Cancel Reply

Your email address will not be published. Required fields are marked *

Save my name, email, and website in this browser for the next time I comment.

  • Browse Works

Agriculture

Browse agriculture topics/papers by subfields, agriculture research papers/topics, farmer's shade tree species preference and evaluation of selected soil physicochemical properties under the tree canopy in coffee based agroforestry systems in deder district, east hararghe z.

ABSTRACT The study was conducted at Deder District, in East Hararghe Zone, Eastern Ethiopia. The aim of the study was to investigate farmers’ shade tree species preference and evaluate selected soil physicochemical properties under and out-side shade tree canopy. To address the objectives of this study, all necessary data were collected through key informant interview, questionnaire survey and soil sampling. A total of 15 key informants and 60 households were participated for preference ran...

ASSESSMENT OF THE PEDAGOGICAL COMPETENCY NEEDS OF AGRICULTURAL SCIENCE TEACHERS IN SENIOR HIGH SCHOOLS IN TAMALE METROPOLIS IN NORTHERN REGION

The purpose of this descriptive study was to assess pedagogical competency needs of agriculture teachers in Senior High Schools in Tamale aimed at determining their perceived level of importance, ability, and most suited training needs based on Borich’s Needs Assessment Model. To keep Senior High School agriculture teachers up-to-date of their pedagogical competency needs, the professional development needs of the agriculture teachers must be assessed regularly for efficiency. Based on the ...

LARGE-SCALE LAND ACQUISITIONS FOR AGRICULTURAL INVESTMENTS IN GHANA - IMPLICATIONS FOR LAND MARKETS AND SMALLHOLDER FARMERS

The participation of large-scale agricultural investors in African land transactions raises concerns about the impacts on a rather hitherto local and smallholder dominated land market. However, there is still limited empirical study on how large-scale agro-investments have influenced changes in land markets and smallholder participation in agricultural land markets in West Africa. Hence, this study examined how large-scale land acquisitions in Ghana have influenced land market changes and imp...

ROLES AND CHALLENGES OF AGRICULTURAL EXTENSION SERVICES FOR FOOD SECURITY IN WA WEST DISTRICT

The Agricultural Sector is important for supplying foods to the world's population. A country's resourcefulness in developing its agricultural sector is an indication of its ability to provide sufficient food for its population. In Ghana, agriculture involves crops, fisheries, livestock and all other related activities. However despite its role, food security still remains a challenge in the Wa West district. The study sought to find out the role and nature of Agricultural extension services ...

PARTICIPATION IN “PLANTING FOR FOOD AND JOBS” PROGRAMME AND COMMERCIALIZATION AMONG MAIZE FARM HOUSEHOLDS IN SAVELUGU MUNICIPALITY, GHANA

Ghana’s “Planting for Food and Job” programme aims to improve farmers’ access to farm inputs. The idea is that through improved access to quality seed varieties, fertilisers and good agronomic practices, output would increase leading to an increased market surplus. This study sought to investigate whether engagement in ‘Planting for Food and Job’ (PFJ) programme influences farm households’ maize commercialization level in Savelugu Municipality, in the Northern Region of Ghana. T...

FACTORS AFFECTING THE ADOPTION OF IMPROVED SORGHUM VARIETIES AMONG FARM HOUSEHOLDS IN NORTHWEST GHANA: A PROBIT ANALYSIS

In an attempt to boost sorghum production, the Savannah Agricultural Research Institute in Ghana, over the years, has released a number of improved sorghum varieties to farmers in northern Ghana. The purpose of this study was to estmate the level of adoption, and to identify the factors that influenced the adoption of the improved sorghum varieties, using a probit model. It was found that age, available family labour, non-farm income, farmers' perception about the varieties, farm size and far...

THE EFFECT OF CLIMATE VARIABILITY ON SMALL-SCALE IRRIGATION FARMERS IN THE SISSALA WEST DISTRICT, NORTHERN GHANA

The government of Ghana and Non-governmental Organizations have constructed a number of small scale irrigation dams and dug-outs in the Sissala West District of the Upper West Region. The purpose of the small scale irrigation dams is to give irrigation farmers access to enough water during the dry season. The variation of rainfall and high temperatures poses serious threat to dams, hence making it difficult for the reservoirs to have enough water for irrigation activities. The study investiga...

GENDER DIMENSIONS OF CLIMATE CHANGE IMPACT ON CROP PRODUCTION AND ADAPTATION STRATEGIES IN THE NADOWLI-KALEO DISTRICT, GHANA

Climate change has become a well-known global issue which has the greatest impact on agriculture which is the mainstay of the people in Nadowli-Kaleo District. Although climate change affects everyone but its impacts are differently distributed among males and females. This study analyzed the gender differentiated impacts of climate change on agricultural production and the adaptation strategies by the farmers in the Nadowli-Kaleo District. The study adopted both qualitative and quantitative ...

FARMERS’ WILLINGNESS TO PAY FOR PRIVATE IRRIGATION SUPPLY IN NANDOM DISTRICT, GHANA

This study investigated farmers willingness to pay (WTP) for private irrigation in Nandom district, Ghana. The study randomly sampled 236 farmers and analyzed data using descriptive statistics and ordered logit regression model. Results revealed that 94.5 percent of the farmers were WTP for private irrigation services with a mean of 35.83 cedis. Farmers’ WTP is determined by income, age, farm size, engagement in an off-farm occupation, labour hours invested in farm operation, yield losses e...

ADOPTION OF GREEN REVOLUTION SERVICES AND POVERTY REDUCTION IN GHANA

In Sub-Saharan Africa (SSA) the technological advances of the Green Revolution (GR) have not been very successful. However, the efforts being made to re-introduce the revolution call for more socio-economic research into the adoption and the effects of the new technologies. The paper discusses an investigation on the effects of GR technology adoption on poverty among households in Ghana. Maximum likelihood estimation of a poverty model within the framework of Heckman's two stage method of cor...

RICE IMPORTATION LIBERALIZATION IN GHANA: IMPLICATIONS FOR SMALLHOLDER RICE PRODUCTION IN NORTHERN GHANA

The case of rice import liberalization in Ghana is an interesting and highly distinctive one. One of the policies of the Ministry of Food and Agriculture (MoFA) is to support an increase in local rice production in order to reduce imports by about 30% as part of efforts to promote food sufficiency. Its strategy aims to increase mechanization, the cultivation of inland valleys, effective and efficient use of existing irrigation systems and further development of irrigation. Ironically, this po...

PROBLEMS TO STANDARDIZATION AND MARKETING OF TRADITIONAL HERBAL MEDICINE IN THE BUlLS A NORTH DISTRICT

Traditional medicine has been in practice in Ghana for several decades and the patronage is high. Several people use it and believe in it. However, traditional medicine in the Builsa North District is not standardized; hence, the research was to investigate the problems to standardization, and marketing of traditional herbal medicine in the Builsa North District in the upper east region of Ghana. Focus was on the discovery of the raw materials for the medicine, the processing and preparation ...

Determinants for rainwater harvesting adoption: a case study of smallholder farmers in Murang’a County, Kenya

Abstract Rainwater harvesting has been practiced among smallholder farmers for centuries in many parts of the world. Recently, it has gained more attention due to the reported increasing water demand and the need for sustainable water management. Drawing on data from a cross sectional survey of 384 household heads (HH), the research study explored the determinants for rainwater harvesting among smallholder farmers in Murang’a County, Kenya. Multistage random sampling technique was employed...

Soil nutrients and crop yield response to conservation-effective management practices in the sub-humid highlands agro-ecologies of Kenya

Abstract Crop productivity in most smallholder farming systems in Sub-Saharan Africa experience low use of soil amendment resources, low and erratic rainfall, frequent dry spells, and droughts. Rain-fed agriculture has a high crop yield potential if rainfall and soil nutrient input resources are utilized effectively. Thus, in 2011, we set up an on-farm experiment in Meru South (sub-humid) and Mbeere South (marginal sub-humid) sub-counties in upper Eastern Kenya to assess conservation-effecti...

The response of soil physicochemical properties to tillage and soil fertility resources in Central Highlands of Kenya

Abstract To attain agricultural sustainability, use of soil resources and tillage requires equal consideration for chemical and physical components of soil fertility. We assessed responses of selected soil physical and chemical properties to tillage and soil fertility amending resources. The study was carried out in Meru South and Kandara sub-counties located in the Central Highlands of Kenya for four cropping seasons. The experimental design was split-plot with tillage as the main factor - ...

Agriculture is the cultivation of land and breeding of animals (livestock), plants and fungi to produce food, feed, fiber and many other desired products to sustain and enhance life. The study of agriculture can lead to a variety of careers, including those associated with consulting, farming, management and research. Afribary publishes latest agriculture topics for students. Browse through Agriculture projects, agriculture project topics, Agriculture thesis, seminars, research papers etc. All papers and research works in agriculture and its sub-fields.

Privacy Policy | Refund Policy | Terms | Copyright | © 2024, Afribary Limited. All rights reserved.

CodeAvail

111 Interesting Agriscience Fair Project Ideas For Students

agriscience fair project ideas

Are you a student with a passion for agriculture and a thirst for scientific exploration? Are you eager to delve into the fascinating realm of agriscience and make a meaningful impact? Well, you’re in the right place! Agriscience is a field brimming with innovation, where students can sow the seeds of knowledge and reap the rewards of discovery.

In this blog, we’ve cultivated extraordinary agriscience fair project ideas, carefully categorized into ten diverse areas of agricultural science. These projects offer an opportunity to merge your enthusiasm for farming, environmental sustainability, food science, animal husbandry, and more with the principles of scientific inquiry.

Whether you’re driven by a desire to enhance crop yields, improve animal welfare, tackle environmental challenges, or explore the boundless possibilities of agricultural technology, agriscience fair project ideas are the perfect soil to nurture your curiosity and cultivate a passion for agriscience. Join us on this exciting journey of exploration, where learning and innovation flourish like crops in a well-tended field. Let’s dig in!

And as you explore these intriguing agriscience fair project ideas, remember that if you ever need assistance with your academic endeavors, whether it’s in agriscience or any other field, our service is here to support your educational journey. 

What is Agriscience Fair Project?

Table of Contents

An Agriscience Fair Project is a research and hands-on learning endeavor where students investigate topics related to agriculture, biology, and environmental science. These projects provide students with the opportunity to explore and experiment with various aspects of the natural world. Agriscience fair projects can cover a wide range of subjects, from studying plant growth in different soils to investigating the life cycles of animals or examining the impact of environmental factors on agriculture.

The primary purpose of Agriscience Fair Project ideas is to foster curiosity, critical thinking, and practical skills in students. These projects often lead to a deeper understanding of agricultural and environmental concepts, as well as the development of important life skills such as research, problem-solving, and presentation abilities.

Why Choose Agriscience Fair Project Ideas?

Agriscience fair project ideas are an excellent way for students to apply what they’ve learned in the classroom to real-life scenarios. These projects offer numerous benefits:

  • Encourage critical thinking and problem-solving skills.
  • Promote hands-on learning.
  • Foster an appreciation for the environment and agriculture.
  • Provide an opportunity to collaborate with peers and experts.
  • Can lead to scholarships and recognition at local and national levels.

List of Simple Agriscience Fair Project Ideas For Students

Here is a list of agriscience fair project ideas for students:

Plant Science

  • The Effects of Soil pH on Tomato Growth
  • Light Intensity and Its Impact on Plant Growth
  • Breeding Crops for Improved Disease Resistance
  • Hydroponics vs. Soil-Based Crop Growth
  • Comparing Fertilizer Types for Optimal Plant Growth
  • Companion Planting for Natural Pest Control
  • Assessing Seed Viability Over Time
  • The Influence of Music on Plant Growth
  • Watering Techniques and Their Impact on Plant Health
  • Analyzing Plant Responses to Environmental Factors
  • Investigating the Benefits of Mycorrhizal Fungi on Plant Growth

Animal Science

  • The Impact of Diet on Egg Production in Chickens
  • Behavioral Differences in Various Dog Breeds
  • The Effects of Temperature on Fish Metabolism
  • Analyzing the Benefits of Different Animal Bedding Materials
  • Dairy Cow Breeding for Increased Milk Production
  • Measuring Stress Levels in Horses
  • Studying the Behavior of Ants in Different Environments
  • The Influence of Light on Poultry Egg Laying
  • Investigating the Social Hierarchy in Honeybee Colonies
  • The Relationship Between Animal Breeding and Meat Quality
  • Examining the Impact of Noise Pollution on Animal Behavior

Environmental Sustainability

  • Soil Erosion Control Methods and Their Effectiveness
  • Evaluating the Efficiency of Solar-Powered Water Pumps in Agriculture
  • Reducing Food Waste Through Composting
  • The Benefits of Rainwater Harvesting for Irrigation
  • The Impact of Urban Agriculture on Local Ecosystems
  • Analyzing the Use of Cover Crops for Soil Health
  • Investigating the Effects of Windbreaks on Crop Yields
  • Assessing the Benefits of Organic vs. Conventional Farming
  • Examining the Role of Bees in Pollination and Crop Production
  • The Impact of Climate Change on Crop Adaptation and Yield

Food Science

  • Studying the Preservation of Fruits and Vegetables by Canning
  • The Chemistry of Baking: Effects of Ingredients on Bread Quality
  • Analyzing the Nutritional Content of Different Cooking Oils
  • Reducing Food Spoilage through Improved Food Packaging
  • Investigating the Effects of Food Additives on Shelf Life
  • The Impact of Cooking Methods on Vitamin Retention in Vegetables
  • Gluten-Free vs. Traditional Baking: A Sensory Analysis
  • Analyzing the Factors Affecting Meat Tenderness
  • Developing Low-Sugar Fruit Preserves for Health-Conscious Consumers
  • The Role of Fermentation in Food Preservation and Flavor Development
  • Assessing the Microbial Quality of Different Water Sources for Food Preparation

Agricultural Technology

  • Developing a Low-Cost Automated Irrigation System
  • Evaluating the Efficiency of Different Drone Applications in Agriculture
  • Implementing Precision Agriculture Techniques for Increased Crop Yields
  • Analyzing the Impact of GPS Technology on Farm Equipment Guidance
  • Investigating the Benefits of Vertical Farming for Urban Agriculture
  • Developing a Mobile App for Crop Disease Diagnosis
  • The Use of Machine Learning in Pest Detection on Farms
  • Assessing the Effectiveness of Biodegradable Mulch Films
  • Smart Farming: Utilizing IoT for Livestock Monitoring
  • Analyzing the Use of RFID Technology in Livestock Tracking
  • Evaluating the Role of Artificial Intelligence in Crop Yield Prediction

Soil and Water Conservation

  • Investigating Soil Erosion Prevention Methods in Hilly Areas
  • The Impact of Wetland Restoration on Water Quality
  • Studying the Effects of Riparian Buffer Zones on Stream Health
  • Analyzing Soil Nutrient Runoff in Different Farming Practices
  • Assessing the Benefits of Permeable Pavements for Reducing Urban Runoff
  • Investigating the Role of Forests in Carbon Sequestration
  • Evaluating Water Quality Improvement in Natural vs. Engineered Wetlands
  • Studying the Impact of Urbanization on Groundwater Quality
  • The Role of Vegetative Cover in Preventing Wind Erosion
  • Analyzing the Effects of Land Use Changes on Soil Health
  • Investigating the Benefits of No-Till Farming for Soil Conservation

Aquaculture

  • Analyzing Water Quality and Its Impact on Fish Growth
  • Developing Sustainable Aquaponics Systems for Food Production
  • Investigating the Effects of Different Feeding Regimens on Fish Growth
  • The Role of Aeration in Maintaining Oxygen Levels in Aquaculture Tanks
  • Assessing the Benefits of Recirculating Aquaculture Systems
  • Studying the Reproduction and Growth of Ornamental Fish Species
  • Analyzing the Effects of Water Temperature on Aquatic Plant Growth
  • Investigating Water Treatment Techniques in Closed Aquaculture Systems
  • The Role of Biosecurity in Preventing Disease Outbreaks in Aquaculture
  • Evaluating the Sustainability of Various Fish Farming Practices
  • Analyzing the Nutritional Content of Aquaculture Products

Horticulture and Landscaping

  • Designing a Drought-Tolerant Urban Landscape
  • Studying the Impact of Pruning Techniques on Tree Growth
  • Assessing the Benefits of Organic Lawn Care Methods
  • Investigating the Role of Soil Amendments in Plant Health
  • Analyzing the Effects of Different Grass Varieties on Lawn Quality
  • The Use of Native Plants in Sustainable Landscaping
  • Evaluating the Benefits of Vertical Gardens in Urban Areas
  • Developing a Garden for Pollinator Conservation
  • Investigating Plant Selection for Urban Green Roofs
  • Analyzing the Benefits of Container Gardening for Limited Spaces
  • Studying the Effects of Light Pollution on Plant Growth in Urban Areas
  • Investigating the Impact of Food Packaging on Freshness and Shelf Life
  • Studying the Effect of Different Cooking Methods on Nutrient Retention in Vegetables
  • Analyzing the Sensory Characteristics of Local vs. Imported Food Products
  • Assessing the Use of Natural Preservatives in Food Products
  • Evaluating the Impact of Food Storage Conditions on Flavor and Quality
  • Investigating the Nutritional Content of Various Rice Varieties
  • The Role of Enzymes in Cheese Making and Their Influence on Texture
  • Analyzing the Fermentation Process in Yogurt Production
  • Assessing the Effects of Different Sweeteners in Baking
  • The Impact of Packaging Materials on Reducing Food Waste
  • Comparing the Antioxidant Content of Fresh and Frozen Fruits
  • Investigating the Behavior and Social Hierarchy of Honeybees
  • Analyzing the Effects of Environmental Enrichment on Laboratory Mice
  • The Impact of Dietary Supplements on the Growth of Broiler Chickens
  • Assessing the Benefits of Different Bedding Materials for Small Mammal Health
  • Evaluating the Use of Probiotics in Livestock Feed for Improved Digestion
  • Studying the Effects of Temperature on Fish Metabolism and Growth
  • The Role of Animal-Assisted Therapy in Reducing Stress in Humans
  • Analyzing the Genetic Factors in Wool Quality of Sheep
  • Investigating the Effects of Light and Sound on Poultry Stress Levels
  • Assessing the Behavior of Different Dog Breeds in Response to Training
  • Examining the Effect of Habitat Size on Reptile Behavior
  • Evaluating the Impact of Music on Dairy Cow Milk Production

I hope you find these agriscience fair project ideas helpful for your agriscience fair!

Tips for a Successful Agriscience Fair Project

  • Choose a project that genuinely interests you.
  • Plan and execute your project meticulously.
  • Seek guidance from teachers, experts, or professionals.
  • Document your work with photographs, videos, and detailed notes.
  • Practice your presentation skills.
  • Be ready to answer questions and explain your findings.

In conclusion, agriscience fair project ideas open doors to a world where students can delve into the realms of agriculture and environmental science . Beyond the knowledge gained, these projects bestow young minds with skills that have real-world applications. As students sow the seeds of curiosity and nurture their projects, they are nurturing their own growth and development. 

However, the experiences gained from agriscience fairs are not confined to the classroom; they teach responsibility, teamwork, and problem-solving. So, don’t hesitate to roll up your sleeves, get your hands dirty, and embark on an agriscience adventure that promises not only education but also personal growth. It’s an exciting journey that leaves a lasting impact, preparing you for the challenges and opportunities that lie ahead.

Related Posts

Capstone Project Ideas For Civil Engineering

Capstone Project Ideas For Civil Engineering

Every Civil engineering student should do a capstone project. This is because it allows them to use what they’ve learned into the real-world. The Campston…

Physics Project Ideas For College Students

80+ Theoretical & Practical Physics Project Ideas For College Students In 2023

Physics is the study of the natural world and how it works. It explores the fundamental laws that regulate everything from the smallest particles in…

New Perspectives on Agricultural Economics, 2022-2026

The proposed initiative will involve four distinct research projects on different topics in agricultural economics. The topics will be selected each year on the basis of interests of ERS staff and some bearing on emerging or current policy issues. NBER research does not make policy recommendations, but provides background information and analysis that can inform policy decisions.

The proposed topic for the 2023 project is “Assessing the Distributional Impacts of Climate Change in the Agricultural Sector.” Climate change affects all aspects of the agricultural sector, from the production of food and fiber, through the choice of technology by producers, to the set of products that are available to consumers and the prices of those products. USDA is committed to understanding the consequences of climate change, as well as the impact of potential policy responses. Economic research on climate-related issues can advance this mission.

The 2023 project will focus on distributional impacts, because USDA is also committed to promoting equitable outcomes both in the impact of climate-related changes and in the design of policy responses. Doing so requires analysis and measurement of the effects of climate change in the agricultural sector on different groups in the population. These include producers and consumers, households in different income groups, racial and ethnic groups, those who live in different areas, and groups defined along other dimensions.

Investigator

Supported by the us department of agriculture grant #59-1000-2-0076, more from nber.

In addition to working papers , the NBER disseminates affiliates’ latest findings through a range of free periodicals — the NBER Reporter , the NBER Digest , the Bulletin on Retirement and Disability , the Bulletin on Health , and the Bulletin on Entrepreneurship  — as well as online conference reports , video lectures , and interviews .

2024, 16th Annual Feldstein Lecture, Cecilia E. Rouse," Lessons for Economists from the Pandemic" cover slide

  • Feldstein Lecture
  • Presenter: Cecilia E. Rouse

 2024 Methods Lecture, Susan Athey, "Analysis and Design of Multi-Armed Bandit Experiments and Policy Learning"

  • Methods Lectures
  • Presenter: Susan Athey

2024, Economics of Social Security Panel, "Earnings Inequality and Payroll Tax Revenues"

  • Panel Discussion
  • Presenters: Karen Dynan , Karen Glenn, Stephen Goss, Fatih Guvenen & James Pearce
  • Understanding Poverty
  • Agriculture and Food

The World Bank, the World Agroforestry Centre, and the Central Statistical Agency of Ethiopia have conducted an unprecedented study of soil analysis in Ethiopia. Photo: Dasan Bobo/ World Bank

Juergen Voegele

Marc Sadler

Marc Sadler

You have clicked on a link to a page that is not part of the beta version of the new worldbank.org. Before you leave, we’d love to get your feedback on your experience while you were here. Will you take two minutes to complete a brief survey that will help us to improve our website?

Feedback Survey

Thank you for agreeing to provide feedback on the new version of worldbank.org; your response will help us to improve our website.

Thank you for participating in this survey! Your feedback is very helpful to us as we work to improve the site functionality on worldbank.org.

Skip to content

Integrating research and outreach education from UMass Amherst

  • For Faculty and Staff

Refine Your Search

Completed research projects.

Agriculture

The agricultural community needs to improve nutrient use efficiency for modern cropping systems to ensure agronomic viability and environmental quality. This will require a different approach to nutrient management: the use of adaptive management concepts and processes. This project will develop technical and educational tools to encourage adaptive management.

The expansive growth of solar photovoltaics (PV) in Massachusetts has helped make the state a leader in renewable energy production, but there have been public concerns regarding the development of agricultural lands for solar PV electricity production. In response to these concerns, the Massachusetts Department of Energy Resources (DOER) included provisions in the new state solar energy program which limit conventional ground-mounted solar arrays on farmland, while encouraging innovative "dual-use" technology. Under the new Solar Massachusetts Renewable Target (SMART) program, there is a significant financial incentive for dual-use systems which limit shading and obstructions, and require continued agricultural production on the land below and around solar arrays.

People depend on vegetables to provide major portions of the nutrition for healthy diets. For several years, the mineral nutrient elemental concentrations in vegetables has declined. The decline has been associated with the development of new cultivars of vegetables that have lower concentrations of nutrients than heirloom cultivars. Breeding of crops for accumulation of nutrients has potential for developing nutrient-rich vegetables but has not received much attention in genetic improvement of vegetables.  Cultural practices may give great and practical process for enhancing nutrient concentrations in vegetables, and cultural practices concerning fertilization to enhance nutrients in vegetables will be a priority in this project. Organic fertilization of crops is required for certification of organic produce. Producing equal yields and equal nutrient contents in organically fertilized vegetables compared to vegetables fertilized with chemicals are challenges. The research in this project will evaluate cultural methods that may be employed to enrich nutrient contents in vegetables through practices of fertilization organically or conventionally.This project includes a series of related experiments to assess nutrient accumulation in vegetables, primarily lettuce, in response to selection of cultivars of crops and management of fertilization. Organic fertilization will be compared to conventional practices of fertilization to determine growth and composition of lettuce in field plot and greenhouse investigations. Investigations concerning hydroponic production and modification of soil-based or peat-based media with organic or microbial amendents will be conducted to assess the effects of these amendments on productivity and nutrient composition of produce from vegetables.

Nanoparticles (NPs) are defined as particles with at least one dimension smaller than 100 nm. As particle size decreases the reactivity of the surface atoms could increase dramatically. These unique properties make nano-sized particles valuable engineering materials because of their extraordinary strength, chemical reactivity, electrical conductivity, or other characteristics that the same material does not possess at the micro- or macro-scales. ENPs are being exposed to different environmental niches via deposition of airborne NPs, application of agrochemicals containing NPs, accidental spills, land application of sewage sludge biosolids, and landfill leachates. There the environmental risks of ENPs are attracting increasing attention from both the public and scientific communities due to their toxicity to organisms. The main pathways through which MNPs are introduced to arable soils are the application of sewage sludge (biosolids) and irrigation with treated wastewater. These agricultural practices are common in many countries including USA. Contamination of agricultural soils with ENPs is of great concern due to their uptake by crops, thus posing the problem to food safety and exposure to humans. To ensure safe application of biosolids and irrigation with treated wastewater containing ENPs, there is an urgent need to investigate the fate of ENPs in the soil-water-planMass Agricultural Experiment Stationt system and to evaluate the associated risks. Therefore, this research will determine the environmental fate and process of several types of ENPs and their plant uptake and translocation in soil-water-plant systems. Also, we will study how ENPs affect the availability and uptake of other contaminants (e.g., metals and antibiotics) by plants. The results of this study are expected to help us understand how these ENPs interact with soil and water reactive components (e.g., DOM, clays). In addition, we will better understand the retention, bioavailability, uptake and translocation, transformation and phytotoxicity of ENPs in soil-waterplant system. Also, we can provide useful data for assessing the mobility, exposure and risk of ENPs in agriculture and the environment in general.

This research continues exploration of biological (non pesticide) control of a series of invasive plant and insect species that affect crops and forests.

African trypanosomes are flagellated protozoa that cause sleeping sickness in people and Nagana in domestic animals. These diseases are fatal if left untreated. The diseases are endemic in the humid and semi-humid zones of Africa affecting a landmass of 10 million km 2 and 36 countries. Trypanosomiasis precludes cattle-based agriculture from much of this area and threatens up to 60 million people, of whom about a half million are presently infected.

It is known that legumes generally respond to existing N in the soil. When soil N is relatively high, legumes prefer to use soil N rather than to engage in symbiosis with rhizobia. However, the ecophysiological responses of legumes to existing soil-N level and the changing climate - including temperature changes and precipitation dynamics impact rhizobia nodulation - have not been studied in actual field conditions. This study seeks to understand these responses in order to improve N management, maximize the benefits of legumes, reduce off-farm inputs, and enhance soil health. Moreover, growth and N accumulation of legumes is heavily dependent upon the nitrogen-fixing performance of the microbial partner recruited by the host legume. Native rhizobia strains in the Northeast that associate with faba bean (Vicia faba) and sunn hemp (Crotalaria juncea), two multi- purpose legumes newly introduced by the current project team to the area, have not been identified. In this project, native strains will be recovered from nodules, genetically sequenced, and their performance will be compared with elite strains maintained at USDA.  

This research will examine possible affects of climate change on certain agricultural crop plants. It will include experiments that will allow prediction of how timothy and alfalfa plants will respond to future elevated CO2 and O3 levels.

This research involves modeling of cell growth, metabolite production rates, and product yields on various feedstocks using a variety of target organisms that can perform the bioprocess. These emphases need to be addressed prior to commercial implementation of generation of biofuels and industrial precursors from hydrothermal vent microbes.

The market for specialty foods targeted for Latino populations is especially strong in New England. While most of these foods are imported, many can be locally grown, offering a strong and increasing market for local farmers. We will work to evaluate germplasm of Latin American specialty crops with the objective of identifying parental materials to initiate a breeding program for these crops.

This project focuses on male equine infertility from several perspectives: 1) understanding at the molecular level the mechanisms of the causes of male infertility; 2) Methods to be developed during this project could easily be translated to standardized tests in the clinical laboratory; 3) Understanding of male infertility at the molecular level could provide rational strategies to treat infertile stallions and/or improve assisted reproductive technology.

This project will develop and diversify Crambe (an oilseed crop) and brassica (mustard green) species as dedicated bioenergy crops for biodiesel production. The proposed strategy will increase crop biomass and seed yields while growing these crops on marginal and heavy-metal-contaminated lands, thus increasing both yield and arable acreage.

This effort will develop local production and post-harvest practices to assist Massachusetts farmers to produce high quality Chinese medicinal plants with uniform levels of bioactive constituents. This will ensure the type of plant material desired by practitioners of acupuncture and Oriental medicine. This will benefit growers, practitioners, and those in need of healthcare. The establishment of Chinese medicinal herbs in Massachusetts could provide an income source for small farms and help maintain rural farmland.

This project will explore the hypothesis that development of an effective LAMP assay (loop-mediated isothermal amplification) for livestock and avian chlamydiosis will lead to significant reductions in zoonotic disease as well as morbidity, mortality and the reproductive health of farm animals.

The goals of this project are to supply apple growers with new tools that will enable them to continue towards a goal of sustainability while providing local consumers with a safe and healthful supply of fruit. As such, it will research new methods, educate growers, and engage consumers and wholesalers in Integrated Pest Management.

In this project, we will focus on key pest and water management practices for large-fruited, high-yielding cranberry hybrid cultivars. Cranberry fruitworm (CFW) is the most damaging pest insect in MA cranberry and presents a significant hurdle to maximizing yield. An understanding of pest-host dynamics is the key to managing this pest but has yet to be developed for new high-yielding cultivars, especially those most recently introduced. Weed management is critical to long-term sustainability and profitability for cranberry growers since weeds primarily compete with cranberry vines for water, nutrients, and space (Patten and Wang 1994). Herbicides are an important and critical tool needed to ensure proper colonization and vine health during establishment and for the life of the bed. However, we have very little information on the susceptibility of new hybrid cultivars to currently registered herbicides. Fruit rot, a complex disease caused by at least 15 different fungal species, is responsible for a majority of grower losses ascribed to 'poor quality' and is often especially a problem on young beds. In recent years, chlorothalonil fungicide has been the backbone of management for this disease but changes in the European Union have eliminated its use on fruit destined for that market. Most of the alternative materials have specific modes of action that present a higher risk of developing fungicide resistant pathogen populations. A potential contributing factor to poor fruit quality (rot and lack of firmness) is irrigation management both in regards to soil moisture and in its use for cooling the plants. The 2012 Farm Bill identified specialty crop production and research as priorities. This entire project addresses challenges to the production of a specialty fruit crop. USDA priorities for specialty crops research include threats from pests and diseases. Climate change and water are priorities for NIFA programs. In addition, the research proposed is aligned with grower-identified priorities (Cape Cod Cranberry Growers Association, Cranberry Institute). The primary beneficiaries of this research will be Massachusetts cranberry growers and the handlers who receive the fruit. Growers and handlers in other cranberry regions of the U. S. (Wisconsin, New Jersey, Pacific Northwest) will benefit to the extent that much of the knowledge gained in this project will be transferable to those regions.

Threats to the sustainability of cranberry production in MA and elsewhere in the U.S. come from many sources: consumer demands for sustainable but inexpensive products, commodity pricing in an industry that is currently over-supplied with juice concentrate, changes to industry fruit quality standards, rising costs for energy and pest management products, and changing standards in pesticide use to accommodate global marketing.

 Despite the fact that plants are a rich source of novel molecules, valuable to both basic and applied sciences, only a fraction of the pathways and compounds in plants have been explored. The project proposed here seeks to discover novel plant-produced natural products with unique and valuable properties, as well as the genes and pathways involved in their synthesis. At the core of this effort is an extensive living Plant Cell Culture Library (PCCL) that was recently (2014) donated to UMass by Monsanto.

This project proposes to capture DNA sequences from armored scale insects intercepted at plant quarantine stations, while carefully identifying each specimen in the traditional way by mounting on a microscope slide. The results -- DNA sequences from well-identified specimens—will help us develop a DNA-based system of identification, and also contribute to improving our understanding of the history and diversity of armored scale insects and their relationships with their host plants.

Due to the freeze on the night of May 18th, many fruits were severely injured and subsequent thinners were either not applied or, if they were, used at low rates. It was observed that many fruits had a reduced number of seeds, however fruit harvested were very large. This project is to see if a relationship between seed number and fruit size exists. At normal harvest, large fruits were selected and fruit was weighed. Fruit diameter and the number of aborted and viable seeds were recorded for each apple. There was no correlation between fruit size and seed num

This project will examine methods to control undesirable sprouting in potatoes through breeding, transgenic strategies, or environmentally friendly agents.

This study is expected to reveal differences in one or more aspects of immune components and will aid in the understanding of how chronic exposure to certain organic pesticides may alter immune responses.

This projects involves two aspects of equine operations: manure handling and a comparison of footing materials. This project will evaluate two simple low cost aerated static composting systems for typical small acreage horse and/or livestock operations. In addition, it  will evaluate various footing materials and provide the cost of operation and materials for each used material.

The diverticulated crop organ of the common house fly, which is the major insect vector of numerous human food pathogens (e.g., Escherichia coli) is the major reservoir or storage area for this, and other, important food pathogens. It has also been demonstrated that this is where horizontal transmission of antibiotic resistance to E. coli occurs. Thus, the diverticulated crop organ is an essential component in the transmission cycle between pathogens and human foods/food crops. At the same time, the salivary glands of house fly are directly involved in vectoring pathogens and, are intimately involved in pathogen transmission. Almost nothing is known about the physiological factors involved in the regulation of both crop filling and emptying of the adult house fly. Even more concerning is that we know even less about the effect of various pathogens, either food pathogens or pathogens of the house fly vector, on salivary gland regulation. What effect does the salivary gland hypertrophy virus have on normal crop organ function? A better understanding of how these two essential organ systems are regulated, will give researchers a better picture of how to use this information to explore novel, non-chemical control strategies that can be directed at interfering with the normal regulation of these two organ systems. Ultimately, non-traditional control strategies will be developed that rely on interfering with the function of these two organ systems, both of which are essential to the fly. It is the objective of this project to develop non-traditional control strategies, thus reducing fly resistance to insecticides. Thus, by compromised longevity of the vector, pathogen vectoring, and/or reproductive development of the flies can be interfered with resulting in death, abnormal flight ability, and or reduced fecundity.

Current knowledge of the molecular mechanisms governing plant iron uptake and translocation is limited, as is our knowledge of how these processes are controlled at the molecular level. During this project, we will use molecular, biochemical, and physiological approaches to better understand mechanisms of nutrient (i.e., iron) uptake, a stated goal of the National Institute for Food and Agriculture (NIFA). The focus of this proposal is on gene discovery, an engine for crop improvement in two important ways. Most obviously, understanding of the molecular mechanisms responsible for iron uptake and homeostasis is a requirement for genetic engineering approaches to crop improvement. Without knowledge of the genes involved, we cannot know what engineered approaches could be taken. However, public acceptance of engineering approaches is limited, and partly because of this, breeding approaches have been extremely important in currently used efforts to enhance the iron concentration in the edible parts of plants. Many studies have identified quantitative trait loci (QTL) that have small effects. Discovery of additional genes will be essential in identifying the genes underlying these QTL and in understanding their function. At present, limited mechanistic knowledge limits our ability to understand these genes.

Optimal food production by plants requires a sufficient supply of soil nutrients, the most limiting of which is nitrogen. Sustained agricultural productivity has historically been maintained in the rich world by copious application of synthetic nitrogen fertilizers, with high cost to the economy and the environment. Unique among crop species, legumes produce their own nitrogen nutrient through a symbiosis with nitrogen-fixing bacteria collectively known as rhizobia. In this symbiosis, the bacteria convert molecular nitrogen into ammonia in exchange for host photosynthate. Studying the nitrogen-fixing symbiosis and fully explore its potential can boost the productivity of legume crops in the short term, and may expand this ability to non-legume crops over the long run. However, the nitrogen-fixing symbiosis is a complex system, and currently we know too few of the molecular players involved. This project will optimize two methods to reduce the activity of a given gene, and use these methods to screen for legume genes required for the function of the nitrogen-fixing symbiosis. The result of such endeavors should be a comprehensive list of legume genes playing critical roles in interacting with their rhizobial symbionts, and help unveal crucial biological processes in the interaction between plants and beneficial microbes.

This project addresses, via research and Extension, two important pests affecting tree-fruit and berry production in Massachusetts, the Plum Curculio and the Spotted Wing Drosophila.  The main goal of this project is to evaluate the attractiveness of aromatic compounds to overwintered plum curculio and to other early season pests.

Current agricultural practices on available arable land will not meet the nutritional needs of a population that will reach nine billion people by the middle of this century (Ray et al. 2013). In parallel, climate change will increase extreme weather events, including drought (Dai, 2011, Trenberth et al., 2014), and continued urbanization of farmland is eliminating arable land (Song et al. 2015). There is a clear need for sustainable agricultural innovations that can increase yields and provide food security without incurring environmental degradation. Soil microbes are known to form associations with plants and affect plant health, and in recent years, interest has grown in exploiting the beneficial associations that plants establish with microbes. The plant microbiome abounds with plant growth-promoting rhizobacteria (PGPR) that can help plants acquire more nutrients from the soil and tolerate stressors like drought (Barnawal et al. 2013, Bresson et al. 2014). PGPR can also control plant pathogens (Chowdhury et al. 2013), promote beneficial mycorrhizal colonization (Labbe et al. 2014), and produce potentially valuable secondary metabolites (Raaijmakers et al. 2012). Finding ways to harness these beneficial microbes to improve crop growth and yield has the potential to ameliorate the challenges imposed by the world's growing population and environmental degradation.

Deficiencies of mineral content in human diets, a causal factor in rising rates of malnutrition worldwide, appear to derive from diminished contents of mineral nutrients in foods of plant or animal origins.This project will provide a foundation of data to help ascertain if the nutrient content of foods can be enhanced through selection of crop varieties and improved nutrition of crops and will assess how dietary habits affect mineral nutrition of humans.

Rootstocks are the most critical element in any orchard system.  It controls disease and insect susceptibility, tree vigor, treeproductivity and fruit quality and maturation.  Many new rootstocks become available annually, and our work evaluates those rootstocks under Massachusetts conditions.  Compiled with evaluations from across North america, we are able then to make very good recommendations regarding rootstock use in orchard systems.  Expected outcomes include increased orchard profitability and a general reduction in orchard canopy volume.  the latter results in lower pesticide requirements.  Further expected impacts include improved fruit quality. 

Three temperate forage grass species (Lolium perrene, Festuca arundinacea, and Dactylis glomerata) will be grown in 6x10 ft plots under field conditions over the summer at the University of Massachusetts Crop and Animal Research and Education Farm in South Deerfield, Massachusetts. Each species will be grown in 10 replicates for a total of 30 plots. Five replicates of eachs pecies will be treated as well-watered controls and their soil moisture maintained above 25%, while the other five replicates will remain under a water-reduced treatment, receiving no rain or supplemental water. Water reduction will be imposed through the use of rain-out shelters. The shelters will have sides that could roll up and down in order to maintain ambient temperature and allow maximum air flow through the plots on dry days, but will be rolled down on rainy days to keep the water out. Water-reduction conditions will last for 10 weeks, after which rain shelters will be removed and rewatering begins over a period of three weeks in order to stepwise return soil moisture content to above 25%.

Microbial community composition: Throughout the water reduction period, bacterial communities will be sampled once a week for a total of 10 samples and an additional three times during the recovery period. Several mature but not senescent leaves will be collected from each plot for DNA extraction and bacterial cell counts in order to capture a representative community of the whole plot. Samples will be prepared for 16S rRNA sequencing using the Illumina MiSeq platform in two separate pools.  Plant health measurements: To understand how bacterial communities change in relation to changes in the plant, several plant health measurements will be taken. Leaf relative water content, electrolyte leakage, chlorophyll, and soil moisture will be measured every week. Additionally, non-destructive biomass measurements will be taken periodically by measuring leaf height and plot coverage. Plot coverage will be estimated using an elevated quadrat device. At the end of the water reduction period, plots will be divided in half and destructive biomass sampling of one half will provide above ground fresh weight and dry weight measurements. Additionally, roots will be sampled in 15 cm increments to a depth of 60 cm. After soil removal roots will be dried and dry mass measured. 

Nitrogen fixation rates by leaf microbes: Samples will be collected during field studies in the summer and used to quantify potential and actualized nitrogen fixation in the phyllosphere. Additional questions will be focused on understanding how phyllosphere BNF is impacted by plant host species, temporal dynamics, drought, and recovery. To determine the rate of BNF,stable isotope probing will be conducted at 6 different time points. Three samples will be taken during the drought period (week6, 7, 10) and three each week during recovery. Rate of nitrogen fixation will be determined by measuring incorporation of thestable isotope 15N into the leaf tissue. Leaf cuts of known area will be incubated in an artificial atmosphere containing 80% 15N and 20% O2 for 48 hours under ambient light and temperature. Corresponding control samples will be incubated under normal atmosphere to determine natural 15N abundance. After incubation, samples will be dried at 70°C, weighed, finely ground, and 1-2 mg of plant powder will be weighed in tin capsules and sent to a collaborator at the University of Vienna to determine 15N incorporation using a continuous-flow isotope ratio mass spectrometer.  Nitrogen fixation rates can then be determined using the following equation where Nleaf is foliar N concentration, Mr is molecular weight of 15N, and t is incubation time:N2-Fix = Nleaf x (at%15Nsample - at%15Ncontrol)/100 x 103/Mr/tBacterial DNA samples corresponding to each timepoint will be taken to determine the absolute abundance of nitrogen fixing bacteria at each time point as well as to determine their taxonomic identity. The absolute quantity of nitrogen fixing bacteria per leaf area for each of the grass species and treatments will also be determined for the same time points using qPCR of the nifH gene. Next, the rate of nitrogen fixation per nifH copy number will be determined for each grass species under normal and water-stressed conditions. By comparing the three grass host species we will gain a better understanding of how phyllosphere BNF inputs are impacted by plant host species. By directly comparing rates under normal and stressed conditions we will understand how BNF will be influenced in the future by climate stress. Identification of nitrogen fixing members of the bacterial community will be achieved by sequencing the phylogenetic marker genes nifH using the Illumia MiSeq platform. nifH identity,diversity, and richness will be added to the models to better understand biological nitrogen fixation in the phyllosphere.

The herbal and botanical product market, estimated at more than US $60 billion in 2003, has been increasing at 6 to 8 % per year. According to the United Nations Comtrade Statistics, the estimated size of the global market for essential oils, fragrances, and flavors in 2013, was US $26 billion, growing an average rate of 8.1% in the past five years. The market for herbal dietary supplements in the United States has reached an estimated total of $6.4 billion, increasing by 6.85% in 2014 as compared with the previous year. Improvements in production of medicinal and aromatic plant products are needed to meet increased market demands.

Early studies have demonstrated that soil microorganisms associated with plant roots can improve plant growth and development through various mechanisms, including increasing available nutrients to plants, synthesizing phytohormones, inducing plant stress tolerance, and suppressing pathogens. Although the mechanisms are not fully understood, studies have demonstrated that the use of soil microorganisms (PGPRs) can promote synthesis of secondary metabolites in plants, improving the quality and value of the medicinal and aromatic plants. While commercial PGPRs and mycorrhizal fungi are available for various grain crops and vegetables in the United States, few of these products are available for medicinal and aromatic plants.

In the proposed study, PGPRs and mycorrhizal fungi will be studied for the growth and secondary metabolite synthesis in the Lamiaceae and other herbal families for their use in culinary and essential oil products. The development of PGPRs and mycorrhizal treatment that improve medicinal and aromatic plant yields and secondary metabolite production can lead to increased profits for growers and industries using natural products.

Literature on food composition demonstrates that the mineral nutrient density of vegetables has fallen in the past 50 years. This decline is associated with two factors: declines in soil fertility and with the genetics of plant cultivars that accumulate yield at higher rates than they accumulate mineral nutrients. This research is intended to help develop systems of food crop production that will supply adequate mineral nutrition to people directly through crop-derived foods.

Utilizing food systems to improve nutrition without the need for artificial fortification of food or use of dietary supplements of mineral nutrients is important in ending malnutrition. Malnutrition from deficiencies of mineral elements is reported to be on the rise worldwide, even in the United States. It is estimated that half of the world population suffers from incidences of mineral nutrient deficiencies. These deficiencies limit the physical, intellectual, and mental health activities of the affected people. The deficiencies appear to derive from diminished contents of mineral nutrients in foods of plant (vegetables, fruits) or animal (meats, milk, cheese) origins. With fruits and vegetables, the decline in nutrients is related in part to depletion of nutrients from soils without adequate replenishment with fertilization. Some of the diminished nutrient contents in fruits and vegetables may be related to genetics of new cultivated varieties of produce. Research is needed to develop systems of food crop production that will supply adequate mineral nutrition directly through crop-related foods and from meats and dairy products from livestock and poultry that are provided with adequate mineral nutrition. The research proposed under this project will provide a foundation of data obtained through field, greenhouse, and laboratory research to enable the investigators to pursue studies in planning sustainable food systems for human nutrition and crop production. The research will allow the investigators to obtain data that will help to ascertain if the nutrient content of vegetables and fruits can be enhanced through selection of crop varieties and improved nutrition of crops through fertilization and soil amendments.

This project has three components to increase sustainability in Massachusetts cranberry production:

  • development and demonstration of sustainable practices for the management of the most severe pest problems: cranberry fruitworm, fruit rot disease, and the parasitic weed dodder.
  • investigation of practices to conserve water and fuel.
  • work with growers to implement nutrient management Best Management Practices (BMPs).

This research project seeks to develop better understanding of the iron homeostasis process in corn in order to address biofortification of staple foods with iron.

During estrus, mares can behave in a manner that can make handling, riding, training, or competing these horses difficult. Current methods to suppress estrus behavior during the breeding season, when most horse competition takes place, include: pharmacological treatments; glass marbles; and negative reinforcement. This work will develop strategies to control estrus behaviour without the need for pharmacological treatments or negative reinforcement.

Laminitis is a crippling disease that affects about one-percent of the more than nine million horses in North America, at a cost of over $1 billion annually. The goals of this project are to identify the specific metalloproteinases responsible, in hope of identification of inhibitors that can protect horses at risk.

Plant diseases cause crop loss, reduce food production and threaten global food security (Savary et al., 2012). Focusing on two distinct pathosystems that cause Fusarium vascular wilts and the Basil downy mildew (BDM), respectively, we propose to establish a pipeline to dissect host-pathogen interactions and provide novel means to develop disease resistant cultivars in order to manage plant diseases that threaten food security.

The relationship between domesticated animals and humans is a close one, and has existed for at least ten thousand years. It is important to understand the immune defenses of many animals, in addition to the immune defenses of humans and mice. The goal of our project is is characterize the genetic diversity of a family of immune receptors in domesticated animals and use this information for selective breeding and the design of better vaccines.

This project, a component of a larger effort to annotate the bovine genome (define genes within the genetic code). One goal is to determine whether variations are associated with enhanced or decreased resistance to infectious diseases. We are interested in their receptors that detect the presence of infectious agents as well as the molecules these cells may produce to communicate with other cells in the immune system (known as cytokines or interleukins).

Evaluate pasture management systems with beef and other livestock.

Preventative and therapeutic reproductive management strategies...that are not drug-base will improve animal reproductive performance.  This is a key part of sustaining an agricultural production system that is highly competitive in the global economy. The research proposed here will focus on several important areas. The team continues to conduct studies to identify novel genes and cell function that might contribute to predicting oocyte quality.  The expression of factors that regulate luteal development, function, and regression are also central to improving female fertility in dairy and beef cattle. Likewise, environmental and metabolic stress negatively impact embryonic and fetal survival in cattle and sheep; and therefore, represent an additional area of research focus.

This project is intended to develop effective ways to keep fruit on trees until mature. It is also evaluating the effects of the methods on fruit quality and storage potential.

This project takes a theoretical and empirical approach to study how several aspects of the food supply chain affect the decisions of consumer and firms and their well-being. The research is examining three issues: buyer market power, the vertical structure of markets and benefits and costs associated with mandated labeling of food products.

This multidisciplinary project will promote the use of biochar and bio-oil generated from agricultural/forest organic wastes to enhance small farm sustainability through providing renewable fuel, and improving soil quality and crop productivity, and to improve the environment through sequestrating greenhouse gases and reducing the mobility and exposure of contaminants in soils.

In maize and the grass family, programmed cell death has a particular role to play in floral development. Maize flowers are initially hermaphroditic, but become either male or female through differential organ abortion. In male flowers, the female floral organs (the carpels) stop growing after they have formed, and eventually undergo programmed cell death. Programmed cell death in the carpels of the male maize floret is partially under the control of the transcription factor grassy tillers1. In gt1 mutants, the carpels in male flowers do not abort completely (Whipple et al.; Bartlett et al., 2015). However, gt1 mutant flowers are not fully hermaphroditic, indicating the existence of other genes that act with gt1 to regulate carpel abortion and programmed cell death. Which other genes are involved in carpel abortion? How do they interact with known sex determination genes in maize?

We have designed a series of genetic experiments geared at answering these questions. We will use mutant analysis to investigate whether gt1 is part of known sex determination pathways in maize. In addition, we have isolated four maize mutants where the gt1 mutant phenotype is strongly enhanced and programmed cell death in male flowers is disrupted. Using genetic and genomic tools, we will identify the genes that have been disrupted in these mutants, and work to determine their precise roles in mediating growth repression and programmed cell death.

We will develop a mathematical model that predicts how farmers (or firms) will make decisions when choosing between two markets. The markets we will study include a wholesale market, where farmer's products are no different from all other farmers, and a farm-to-school market where the farmer's products are differentiated (the farmer is known and the products are known to be locally produced). We will then design economic experiments that could be used to test the model's theoretical results. Plans for the design will focus on determining how farmers will allocate their products among the two markets given different levels of transaction costs and market power. We will also work on the design of a preliminary experiment to determine the social preferences of the "farmers." The choices of these "farmers" will then differ according to their social preferences, the transaction costs they face in marketing their products, and the amount of market power they possess and the school possesses.

This research will examine possible affects of climate change on certain agricultural crop plants. It will include experiments that will allow prediction of how alfalfa plants will respond to future elevated CO2 (800ppm) and elevated ozone (O3) (80ppb).

This project will examine the effect of natural diversity on biofuel production efficiency by using a grass energy model organism (Brachypodium distachyon) , and treatment with both biological and thermochemical conversion.

Center for Agriculture, Food, and the Environment

Civil Rights and Non-Discrimination Information

Our Covid-19 Response & Resources

College of Natural Sciences

Mass. Agricultural Experiment Station

UMass Extension

UMass Research and Education Center Farms

UMass Cranberry Station

Water Resources Research Center

Interest Areas

Commercial Horticulture

Environmental Conservation

Food Science

Youth Development & 4-H

Pesticide Education

Plant Diagnostics Laboratory

Soil and Plant Nutrient Testing Laboratory

Hot Water Seed Treatment

Water Testing / Environmental Analysis Laboratory

Conservation Assessment Prioritization System (CAPS)

Extension Risk Management/Crop Insurance Education

Mass. Envirothon

Mass. Herp Atlas

Mass. Keystone

North American Aquatic Connectivity Collaborative

UMass Design Center in Springfield

Extension Sales Portal

Agriculture & Commercial Horticulture Resources

Community & Economic Vitality

Disaster Preparedness

Food Safety

Home Lawn & Garden

Integrated Pest Management (IPM)

Land Conservation Tools

Pollinators

Tick testing

Resources for Faculty and Staff

Extension Outreach Programs

4-H Youth Development

Crops, Dairy, Livestock and Equine

Greenhouse Crops and Floriculture

Landscape, Nursery and Urban Forestry

Clean Energy

Climate Change

Nutrition Education

Value-Added Food

U.S. flag

An official website of the United States government

Official websites use .gov A .gov website belongs to an official government organization in the United States.

Secure .gov websites use HTTPS A lock ( Lock A locked padlock ) or https:// means you’ve safely connected to the .gov website. Share sensitive information only on official, secure websites.

USDA Invests Nearly $121M in Specialty Crops Research and Organic Agriculture Production

WASHINGTON, Sept. 10, 2024 – The U.S. Department of Agriculture today announced an investment of nearly $121 million to advance research and Extension activities that aim to solve key challenges facing specialty crop and organic agriculture producers. The investment includes $70.4 million to support specialty crop production research across the United States and $50.5 million to support farmers and ranchers who grow and market high-quality organic food, fiber and organic products.

Specialty crops are defined in the Farm Bill as fruits and vegetables, tree nuts, dried fruits, and horticulture and nursery crops, including floriculture. This investment is part of the National Institute of Food and Agriculture’s (NIFA) Specialty Crop Research Initiative .

“We know specialty and organic crops add nutrition to our diets and value to sustainable agriculture systems,” said Dr. Chavonda Jacobs-Young, USDA Chief Scientist and Under Secretary for Research, Education and Economics. “These crops also play a vital role preserving cultural heritage and enhancing economic opportunities across local, regional and global food systems, making them great competitive funding investments that target some of the most difficult challenges facing specialty crop and organic producers nationwide.”

NIFA's specialty crops production investment today builds on USDA’s recently announced $82.3 million in grant funding through the Agricultural Marketing Service to enhance the competitiveness of specialty crops and support the industry’s producers. The funding was awarded through USDA’s Specialty Crop Block Grant Program (SCBGP) and the Specialty Crop Multi-State Grant (SCMP) Program . From market development to consumer education to research, these programs expand markets and increase competitiveness of the specialty crop industry and increase access to specialty crops for consumers.

Examples of the 17 projects funded by NIFA’s Specialty Crop Research Initiative include:

  • North Carolina State University: Manual labor costs are significant in horticulture, including nursery crop production. A team of researchers will develop sustainable solutions for labor, efficiency, automation and production in the nursery industry. ($9.8 million)
  • Washington State University: Apple and pear crops are increasingly susceptible to devastating losses due to extreme temperatures driven by climate change. To address this challenge, researchers will develop mitigation strategies for current cultivars and knowledge to quickly assess new cultivars’ suitability for future climate conditions. ($6.7 million)

NIFA’s $50.5 million investment in 30 organic agriculture projects is part of NIFA’s Organic Agriculture Program , which includes the Organic Agriculture Research and Extension Initiative (OREI) and the Organic Transitions Program. OREI projects fund research, education and Extension projects to improve yields, quality and profitability for producers and processors who have adopted organic standards. NIFA-funded Organic Transitions Program projects focus on research, education and Extension efforts to help existing and transitioning organic livestock and crop producers adopt organic practices and improve their market competitiveness.

“Organic agriculture plays a crucial role in promoting sustainable and healthy food systems that benefit people and the planet,” said USDA NIFA Director Dr. Manjit Misra. “NIFA’s investments in organic research and Extension programs help ensure farmers can meet growing demand for organic products, which provide valuable economic opportunities for growers and more choices for consumers.”

Examples of the 23 projects funded by NIFA’s OREI grants include:

  • Pennsylvania State University: Understanding the links between integrated crop management practices and certain food- and feed-quality endpoints is necessary for identifying market constraints and opportunities for small grain sequences within reduced-tillage organic grain systems. This integrated research and Extension project aims to improve the productivity and market potential of spring- and fall-sown organic small grains to increase ecological and economic resilience of organic grain production systems within Pennsylvania and the Northeast United States. ($1.9 million)
  • The Organic Center for Education and Promotion: There is a critical lack of racial diversity across the agricultural sector and the organic industry, especially apparent in the population of organic certifiers, organic inspectors, and in organizations and universities staffs who provide much of the nation's technical assistance and educational programming in agriculture. This workforce development project focuses on jumpstarting participation and motivation for a diverse representation in future organic leadership that helps make the organic sector more inclusive, equitable and just. ($705,000)

Examples of the 7 projects funded under NIFA’s Organic Transitions Program include:

  • University of Wisconsin: Transitioning to organic farming in Wisconsin requires developing tailored soil health management practices guidelines to help organic farmers improve nutrient-use efficiency, increase crop-yield potential and mitigate climate-change impacts like drought. This research project seeks to leverage a statewide soil health dataset, enhanced by new field observations, remote sensing data and advanced machine learning models, to create a web tool offering region- and field-specific guidelines to assist organic grain farmers manage soil health and support climate-resilient farming. ($997,000)
  • Michigan State University: Organic tree fruit production east of the Mississippi river will not be sustainable without effective management of bacterial diseases including fire blight, bacterial canker and bacterial spot. Bacteriophages (phages) represent a promising tool for managing bacterial plant diseases; however, phages have not been commercially developed mainly due to reduced and inconsistent efficacy. Scientists will investigate the phage-disease dynamics on apple and cherry flowers for fire blight on apple trees and bacterial canker on cherry trees. ($1 million)

USDA touches the lives of all Americans each day in so many positive ways. In the Biden-Harris Administration, USDA is transforming America’s food system with a greater focus on more resilient local and regional food production, fairer markets for all producers, ensuring access to safe, healthy, and nutritious food in all communities, building new markets and streams of income for farmers and producers using climate smart food and forestry practices, making historic investments in infrastructure and clean energy capabilities in rural America, and committing to equity across the Department by removing systemic barriers and building a workforce more representative of America. To learn more, visit www.usda.gov .

USDA is an equal opportunity provider, employer, and lender.

U.S. flag

An official website of the United States government

Here's how you know

The .gov means it’s official. Federal government websites often end in .gov or .mil. Before sharing sensitive information, make sure you’re on a federal government site.

The site is secure. The https:// ensures that you are connecting to the official website and that any information you provide is encrypted and transmitted securely.

About Grants

The lifecycle of grants and cooperative agreements consists of four phases: Pre-Award, Award, Post-Award, and Close Out.

Access to Data

The National Institute of Food and Agriculture is committed to serving its stakeholders, Congress, and the public by using new technologies to advance greater openness.

Data Gateway

Access Data Gateway

The Data Gateway enables users to find funding data, metrics, and information about research, education, and Extension projects that have received grant awards from NIFA.

View Resources Page

This website houses a large volume of supporting materials. In this section, you can search the wide range of documents, videos, and other resources.

Man with headphones on, writing as he listens to woman on computer screen

Featured Webinar

Second annual virtual grants support technical assistance workshop.

Check out this five-day workshop in March 2024 workshop, designed to help you learn about NIFA grants and resources for grants development and management.

The National Institute of Food and Agriculture provides leadership and funding for programs that advance agriculture-related sciences.

Girl working in field with laptop, courtesy of Adobe Stock

AFRI Frequently Asked Questions (FAQ)

The answers to these questions may or may not apply to other non-AFRI NIFA grant programs. If you have any questions, contact the national program leader for the program you're inquiring about.

Please also see FAQ connected to Program Areas and Priorities , Applying to AFRI , Project and Grant Types , International Partnerships , and New Investigators .

General Questions

What kind of projects do afri grants fund.

Generally, AFRI seeks to fund agriculture and food research, education and extension projects. Each of the  AFRI Requests for Applications may contain multiple programs, each with their own descriptions, which are described in Part I, C of the RFA. The AFRI Foundational and Applied Science Program contains the most topics with numerous program area priorities in six AFRI priority areas specified in the 2018 Farm Bill, as well as some crosscutting programs that cover more than one priority area:

  • Plant health, and production and plant products
  • Animal health, and production and animal products
  • Food safety, nutrition, and health
  • Bioenergy, natural resources, and environment
  • Agriculture systems and technology
  • Agriculture economics and rural communities

Who should I contact about a particular program?

AFRI Requests for Applications (RFAs) may contain multiple programs area priorities described in Part I, C of the RFA. Each program area priority will have information on its specific funding priorities as well as provide Program Area Priority Contacts. Those contacts can answer your questions about the program area priority and its requirements. They can provide advice on general suitability of a proposed topic for the specific program area priority but cannot review your project or application.

Can I be Project Director or Co-Project Director on more than one project?

We generally give this advice on being a Project Director for more than one application:

While it is not prohibited to do so (either in a specific program priority area or for specific AFRI RFAs as a whole), AFRI programs discourage the same individual from submitting more than one application as lead/first Project Director. Because of the competitive nature of the AFRI program, it is often best to select one project and put the time into writing the strongest application that you can. However, there is similarly no prohibition against more than one grant being given to a single project director, but some program area priorities do have a limit on the number of grants an institution may receive.

For Co-PDs and collaborators, there is also no prohibition on being on more than one project.

All Co-PDs and PDs need remember to include all the pending applications in their Current & Pending form to confirm that they would have enough time to work on all of them if all the listed applications receive awards.

What can you tell me about the review process for applications?

AFRI uses a peer review process for its grants. You can find general information about peer review at NIFA in this  fact sheet and information specific to AFRI peer review guidelines is found in the AFRI Review Criteria (found in the Attachment list on  AFRI RFA Resources ).

Related Information

The links below direct you to relevant information located across NIFA's website.

Questions for Panelists

Auditorium with panelist speaking courtesy of AdobeStock

Questions for Project Directors

Room of people with their hands raised. Adobe Stock

Questions on Data Management Plans

Image of agricultural field with icon overlays, courtesy of Adobe Stock

Latest Updates

  • Latest Funding Opportunities
  • Latest Blogs
  • Latest Impacts

funding opportunity

Community food projects competitive grants program, specialty crop research initiative, air force 4-h military partnership outreach support grant program, nifa invests $1.8m in genome and phenome science, nifa invests $1.1m in higher education multicultural scholars program, nifa invests $960k in research facilities, response and readiness for hawaiian communities, nifa-funded scientists spur research in artificial intelligence with release of massive dataset, best radicchio varieties for new england farmers, your feedback is important to us..

COMMENTS

  1. 45 Research Project Ideas in Agriculture

    Explore 45 Research Project Ideas in Agriculture for Sustainable Farming. Evaluating the effectiveness of natural pest control methods in agriculture. Investigating the effects of climate change on crop yields and food security. Studying the impact of soil quality on plant growth and crop yields. Analyzing the potential of precision agriculture ...

  2. 100+ Agriculture Related Project Topics for a Sustainable Future

    100+ Agriculture Related Project Topics. Automated Greenhouse System: Design a fully automated greenhouse with climate control, irrigation, and nutrient delivery systems for optimal crop growth. Aquaponics Farming System: Develop a sustainable aquaponics system that integrates fish farming with hydroponic plant cultivation.

  3. Agriculture Project Topics

    List of 100 agriculture project topics. We compiled a list of 100 new agriculture project topics you can work on, check them out. Sustainable Crop Rotation Strategies for Enhanced Soil Health. Impact of Climate Change on Crop Yields: A Regional Analysis. Precision Agriculture: Integrating Technology for Farm Management.

  4. Final Year Project Ideas and Research Topics for Agriculture

    Agriculture is a broad research field with several sub-fields as you can see above. However we randomly picked some Project Ideas, Topics for Agriculture from our academic research library. 1. Effect of Planting Date and Variety of Cowpea [Vigna UNGUICULATA (L.)Walp.] On Green Pod Production.

  5. 130 Agriculture Research Topics To Write An Excellent Paper

    Such agricultural research paper topics allow revealing the topic of fishery and agricultural procurement. Students can concentrate on many aspects of the payback of farms and fisheries. The topics are quite extensive, and you can find a lot of research on the Internet for choosing trust sources. Trout breeding in freshwaters.

  6. 131 Exciting Agriscience Fair Project Ideas For Students

    Through the projects, students learn research skills and explore real-world topics in agriculture and environmental science. The projects are presented at local and national competitions. Creating an original agriscience fair project idea allows students to apply science to farming, sustainability, and natural resources issues.

  7. 100 essential questions for the future of agriculture

    A previous paper about the top 100 questions of importance to the future of global agriculture was published almost a decade ago, with contributors primarily comprising experts and representatives from agricultural organizations. 4 Our collection was intended for a broad community, including scientists, engineers, farmers, entrepreneurs ...

  8. Research Projects

    You can search for a research project by looking for a keyword in the title, approach, objective, or all of those fields. You can also search by project number. As well, you can explore research projects by subject of investigation. You can browse international research projects by country. Or you can browse research project annual reports.

  9. 50 Exciting Agriculture Science Project Ideas: Unearthing Knowledge

    So, if you're up for a muddy, hands-on adventure that involves being the hero of the farming story, Agriculture Science Projects are your backstage pass to a green and exciting world. Agriculture Science Project Ideas for Students. Check out agriscience project ideas for students:-Crop Science and Agronomy. Happy Plants, Happy Soil:

  10. On-Farm Experimentation to transform global agriculture

    Abstract. Restructuring farmer-researcher relationships and addressing complexity and uncertainty through joint exploration are at the heart of On-Farm Experimentation (OFE). OFE describes new ...

  11. Topics

    Food Safety Research Projects Database; Manuscript Collections Search; All Research Tools ... Information on sustainable and organic farming, hydroponics, aquaculture, irrigation and urban agriculture, as well as farm ownership and heirs' property. ... Human Nutrition and Food Safety. Information on various nutrition and food safety topics ...

  12. 187 Agriculture Essay Topics & Research Titles + Examples

    Agriculture: Personal Field Visit. Food Safety Issues in Modern Agriculture. Soil: The Essential Aspect of Agriculture. In Support of Robotics Use in Agriculture. Globalization Impact on Sustainable Agriculture. We will write a custom essay on your topic tailored to your instructions! --- experts online.

  13. 211+ Agriculture Research Topics For High School Students [Updated]

    Agriculture research topics for high school students offer an opportunity to explore critical issues that impact food production and environmental sustainability. By investigating topics like sustainable farming, climate change, agricultural technology, soil health, animal agriculture, and urban farming, students can gain valuable insights and ...

  14. Agricultural Technology Science Projects (15 results)

    The United Nations projects that by 2050 the world population will have risen to 9.7 billion people—more than 2 billion more people than today! To feed everyone, we will need a lot more food, which makes agricultural technology incredibly important. Agricultural technology is the use of science, engineering, and technology to make agriculture ...

  15. Agriculture Research Papers, Project Topics

    The study of agriculture can lead to a variety of careers, including those associated with consulting, farming, management and research. Afribary publishes latest agriculture topics for students. Browse through Agriculture projects, agriculture project topics, Agriculture thesis, seminars, research papers etc.

  16. Frontiers in Agronomy

    Nitrate from Field to Stream: Characterization and Mitigation. Yefang Jiang. Jana Levison. Keith Schilling. 1,571 views. 3 articles. This exciting journal investigates how agronomy will develop in the 21st century as we address climate change, focus on food systems and find ways to produce enough, waste less, and recycle more.

  17. Agriculture and Food: Development news, research, data

    Agricultural development is one of the most powerful tools to end extreme poverty, boost shared prosperity and feed a projected 9.7 billion people by 2050. Growth in the agriculture sector is two to four times more effective in raising incomes among the poorest than other sectors. Projects.

  18. 111 Interesting Agriscience Fair Project Ideas For Students

    The primary purpose of Agriscience Fair Project ideas is to foster curiosity, critical thinking, and practical skills in students. These projects often lead to a deeper understanding of agricultural and environmental concepts, as well as the development of important life skills such as research, problem-solving, and presentation abilities.

  19. New Perspectives on Agricultural Economics, 2022-2026

    New Perspectives on Agricultural Economics, 2022-2026. DATE: October 1, 2022 to June 30, 2026. The proposed initiative will involve four distinct research projects on different topics in agricultural economics. The topics will be selected each year on the basis of interests of ERS staff and some bearing on emerging or current policy issues.

  20. Agriculture Research

    The Impact of Personality Traits on Technology Adoption in Agriculture. February 2, 2017 — Data from 1,200 rice farmers in Ghana suggest that non-cognitive skills significantly affect simple adoption decisions and technical efficiency in rice production, and that the size of the estimated impacts exceeds that of traditional human capital ...

  21. "Boost Crop Yields with These 5 Agriculture Projects!"

    Here are some ideas for SAE agriculture projects: Aquaponics: combines fish farming with hydroponics. Agroforestry: a farming technique that combines trees with crops or livestock. Soil Health experiments: to enhance soil quality and reduce erosion. Sweet Potato Growth studies: on growing sweet potatoes.

  22. Completed Research Projects

    The 2012 Farm Bill identified specialty crop production and research as priorities. This entire project addresses challenges to the production of a specialty fruit crop. USDA priorities for specialty crops research include threats from pests and diseases. Climate change and water are priorities for NIFA programs.

  23. Growing Science: Agriculture and Plant Projects

    There are many exciting project ideas at Science Buddies for students interested in agriculture, plant, and food science. Whether students want to explore questions related to plant growth or strategies for crops and farmland, these hands-on science projects may required additional time and planning. In our guest post on the American Farm ...

  24. NCDA&CS seeks grant proposals for agricultural research programs

    RALEIGH -The N.C. Department of Agriculture plans to award up to $1.5 million in grants for research projects that aim to advance agriculture and the agricultural economy in North Carolina. With that goal in mind, the department is requesting grant proposals that fit into any of the following programs:

  25. USDA Invests Nearly $121M in Specialty Crops Research and Organic

    WASHINGTON, Sept. 10, 2024 - The U.S. Department of Agriculture today announced an investment of nearly $121 million to advance research and Extension activities that aim to solve key challenges facing specialty crop and organic agriculture producers. The investment includes $70.4 million to support specialty crop production research across the United States and $50.5 million to support ...

  26. AFRI Frequently Asked Questions (FAQ)

    Generally, AFRI seeks to fund agriculture and food research, education and extension projects. Each of the AFRI Requests for Applications may contain multiple programs, each with their own descriptions, which are described in Part I, C of the RFA. The AFRI Foundational and Applied Science Program contains the most topics with numerous program area priorities in six AFRI priority areas ...

  27. Hunger, poverty, and women: report on households earning a living from

    At the launch, David Neves, research lead at the Surplus People Project, said that in 2023, most (60%) households earning a living from agriculture lived below the food poverty line, and that poverty and hunger had increased since 2011/2012 when average incomes were only approaching the poverty line.