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Farm Waste Management: Best Practices for 2025

  • Gregory Cunningham
  • Mar 26
  • 8 min read

Updated: Apr 23

Farm waste isn't just a problem - it’s an opportunity. Proper management can save money, improve yields, and protect resources. Here’s a quick breakdown of the key strategies for handling farm waste effectively in 2025:


Key Takeaways:

  1. Turn Waste into Resources
    • Compost manure and crop residues to reduce fertilizer costs and improve soil health.
    • Use biogas systems to convert manure into renewable energy.
  2. Handle Plastics Responsibly
    • Recycle mulching films, greenhouse plastics, and silage wrap to minimize pollution.
    • Use tools like MEGA binders and new recycling technologies to manage plastic waste effectively.
  3. Use Technology for Precision
    • Digital monitoring systems track waste and optimize processes.
    • GPS-guided tools ensure precise manure application, boosting crop yields while protecting water sources.
  4. Comply with Regulations
    • Follow waste hierarchy principles and maintain required records.
    • Use approved disposal methods and avoid fines by meeting stricter standards.

Quick Overview:

Waste Type

Solution

Benefits

Organic Waste

Composting, biogas systems

Lower costs, better soil health

Plastic Waste

Recycling, advanced processing

Reduced pollution, reuse options

Nutrient Waste

Precision application, storage

Higher yields, less runoff

By following these methods, farms can reduce costs, meet legal requirements, and turn waste into valuable resources. Keep reading for detailed strategies and tools to implement these practices effectively.


Managing Organic Farm Waste


How Composting Cuts Farm Expenses

Composting offers a practical way to improve soil quality, retain water, and reduce farm costs. By creating compost on-site, farms can spend less on commercial fertilizers and soil amendments, which typically range from $30 to $50 per ton. This approach helps farms save money by:

  • Reducing the need for synthetic fertilizers
  • Cutting waste disposal and hauling expenses
  • Lowering irrigation demands due to improved water retention
  • Naturally controlling root diseases

A well-designed composting system is essential to achieve these savings.


Setting Up a Farm Composting System

To maximize savings, farms need an efficient composting setup. A carbon-to-nitrogen (C:N) ratio of 30:1 is ideal for proper decomposition. Here's how common farm materials contribute to this balance:

Material Type

C:N Ratio

Best Uses

Vegetable Waste

10-12:1

Nitrogen source

Horse Manure

25:1

Balanced material

Straw

40-100:1

Carbon source

Wood Chips

100-500:1

Bulking agent

Compost piles should be at least 3 feet square to maintain the heat needed for decomposition. Moisture is another critical factor - the material should feel like a wrung-out sponge, damp but not soaked.


Composting Equipment and Methods in 2025

New technology makes composting easier and more efficient. Aerated Static Pile (ASP) systems, for example, speed up decomposition and minimize odors. These systems maintain temperatures between 131°F and 160°F, which kills pathogens and weed seeds effectively.

Key features of ASP systems include: temperature sensors, forced aeration, moisture control, and digital monitoring tools.

For soil improvement, apply 5–10 tons of finished compost per acre. Even smaller amounts, like 1–2 tons, can still make a difference. Keep in mind, one ton of compost equals about 2.5 cubic yards.

Combining traditional composting methods with modern tools results in high-quality compost. Regularly check temperature, moisture, and oxygen levels. Applying compost in the fall or late winter/early spring ensures it blends well into the soil.


Managing Agricultural Plastic Waste


Common Farm Plastics and Their Effects

Plastics play a big role in modern farming, much like organic waste, and managing them effectively is crucial for farming practices in 2025. Farms rely on plastics for tasks like mulching, controlling climate conditions, and storing feed. Back in 2019, farms used a staggering 12.5 million tons of plastic in plant and animal production.

Plastic Type

Primary Use

Environmental Impact

Mulching Film

Weed control, moisture retention

Breaks down into microplastics, contaminating soil and reducing water infiltration

Greenhouse Film

Climate control

Can lead to microplastic pollution if not recycled properly

Silage Wrap

Feed storage

Poses risks to wildlife and contributes to soil contamination

When plastics aren't managed properly, they can harm soil health and disrupt ecosystems. For example, leftover mulching films break down into microplastics, which damage helpful soil organisms and reduce microbial activity. The Food and Agriculture Organization (FAO) predicts that global demand for greenhouse, mulching, and silage films will rise by about 50% by 2030.

This highlights the importance of creating efficient systems to collect and process farm plastics.


Plastic Collection and Processing Steps

Modern systems for collecting and processing plastics are improving recycling efforts. Take California's 2025 initiative, for instance - it uses equipment like the MEGA binder to compress plastics into 2,000-pound rolls for easier transport.

  • Collection and CompactionTools such as the MEGA binder compress plastics into large, manageable rolls, making transportation more efficient.
  • Cleaning ProcessContaminants are removed using dry-washing methods like cylindrical sieves, which eliminate up to 80% of impurities.
  • Processing and DistributionOnce cleaned, the materials are sorted and sent to recycling facilities for further processing.
"Without those two processes - the collecting and the processing - we couldn't be doing what we're doing".

After collection and cleaning, advanced recycling techniques help turn waste into useful products.


New Plastic Recycling Methods

Recycling farm plastics into usable products is a game-changer for creating a circular farming economy. One example is Hydrochemolytic™ Technology (HCT), which recycles up to 8,000 tons of plastic waste annually, with plans to scale up to over 50,000 tons. Another innovation, the Next Generation Process (NGP) pilot plant, is set to launch in Q3 2025. This plant is expected to increase sustainable polymer production by 5% while cutting carbon emissions from polymer production by 15%.

Additionally, the FLOAT system, developed by the Singapore University of Technology and Design, turns recycled plastic bottles into components for vertical farming. Using 3D printing, it creates durable items like irrigation channels and support frames from recycled materials.

FAO leader Lev Neretin emphasizes the importance of responsible practices:

"We need to better monitor the quantities of plastic products that are used and that leak into the environment and to promote more responsible models in agriculture, such as the sustainable and circular bioeconomy".

Manure and Nutrient Management


Safe Manure Storage Methods

Storing manure properly is key to preventing water contamination and preserving its nutrients. The main objectives are to keep clean water from being polluted by manure runoff, treat contaminated water effectively, and store manure in locations safe from flooding while ensuring easy access for handling as part of a nutrient management plan.

Here are some common manure storage methods:

Storage Method

Suitable For

Benefits

Stockpiling

Small farms

Low-cost setup and simple to manage

Dry Stacking

Small livestock or horse farms

Better containment, reduced leaching

Composting

Farms of any size

Produces a sellable product, lowers volume

Liquid Storage

Large operations

Full containment, automated handling

For stockpiles, compact and seal the base soil - clay works well - and maintain a slight slope (1–3%) for drainage. Covering the pile with a plastic tarp can help reduce odors, keep pests away, and limit nutrient loss.

Dry stacking setups should include a sloped concrete floor for drainage, walls at least 4 feet high anchored below the frost line, and easy access for equipment.

Proper storage is just the start. Turning manure into energy can add even more value to this resource.


Converting Manure to Biogas

Modern digesters can convert manure into biogas and nutrient-rich digestate. Biogas typically contains 55–65% methane.

According to the Agricultural Marketing Resource Center:

"In addition to creating renewable energy that can be used on-farm or sold as an additional revenue source, biogas digesters treat animal waste, reduce odors, and produce helpful co-products that can benefit the farming operation."

Fixed dome digesters are more affordable to build and maintain, while floating dome systems make it easier to monitor gas levels.

Once energy is recovered, careful application of the remaining nutrients ensures maximum soil benefits.


Precise Manure Application Methods

Applying manure with precision helps maximize its nutrient value while protecting the environment. Tools like GPS-guided systems and advanced sensors ensure accurate application rates and even distribution. These technologies align with broader nutrient management plans to maintain soil health and environmental safety. For example, the John Deere nutrient sensor system works with flow meters to provide real-time data on ammonium nitrogen, phosphorus, potassium, and total solids.

Injection methods can also reduce nutrient losses. Sweep injection, for instance, creates horizontal bands of manure, improving soil mixing and cutting down ammonia loss compared to traditional knife injection.

One Indiana farmer shared that manure can increase corn yields by 25 to 30 bushels per acre due to its fertility benefits.

For optimal results, farmers should create detailed application maps to identify sensitive areas and monitor application rates. This type of digital tracking not only helps with regulatory compliance but also supports long-term soil fertility planning.


Modern Waste Management Technology


Digital Waste Monitoring Systems

Farms today utilize digital systems to keep track of waste effectively. For instance, the Quanturi Compost Monitoring System uses Tango XN temperature probes to wirelessly measure compost conditions. A mobile base station sends this data to Quanturi's cloud, where the Quanturi.app analyzes it in real time and manages ventilation accordingly.

Another example is the Envira Nanoenvi FARM, which uses sensors to monitor atmospheric conditions, gas levels, noise, and brightness. These sensors are designed to endure tough farm environments, thanks to their ASA Luran polymer build and Elastosyl rubber and silicone sealing, offering IP66-rated protection.

These tools lay the groundwork for advanced automated equipment that simplifies waste processing.


Automated Waste Processing Equipment

AI-driven sorting systems are improving how materials are separated and processed. Smart containers equipped with built-in weight and identification systems make waste collection more efficient. Meanwhile, robotic sorting facilities boost material recovery rates and cut labor costs by operating continuously, regardless of external conditions.


Data-Driven Waste Management

Taking things further, advanced analytics provide live insights into waste generation and processing performance. AI algorithms analyze data from smart containers, robotic systems, and environmental sensors to predict maintenance needs, optimize collection routes, and ensure compliance with regulations. Services like Dump & Go, which specialize in waste removal and transportation for agricultural sites, play a key role in supporting this data-focused waste management strategy.


Meeting Waste Management Rules


2025 Farm Waste Rules Overview

Farms are required to manage waste responsibly to meet regulatory standards. Key requirements include:

  • Registering with authorities if hazardous waste exceeds 500 kg annually
  • Ensuring proper waste storage facilities are in place
  • Using approved providers for waste transportation
  • Adhering to designated disposal methods

Accurate and thorough documentation is the foundation for compliance.


Required Waste Management Records

Keeping detailed records is essential for meeting regulations. Farmers must complete waste transfer notes for every load of non-hazardous waste and keep these records for at least two years.

Document Type

Retention Period

Key Details

Waste Transfer Notes

At least 2 years

Date, type of waste, quantity, and handler details


Compliance Assistance

Farmers have access to several resources to help them meet these requirements. The USDA's Office of Urban Agriculture and Innovative Production (OUAIP) offers support through initiatives like the Composting and Food Waste Reduction pilot projects.

"Town of Geneva, New York (Ongoing): The Geneva Compost and Food Waste Diversion project diverted food waste and other biodegradables from the waste stream to generate nutrient-rich compost, improving soil quality, reducing reliance on fertilizers, and engaging in food recovery efforts that take 'extra' food and get it to community members in need."

Dump & Go provides agricultural businesses with specialized waste removal and transportation services tailored to meet these regulations. Their Agriculture Plan includes site removals and material transport, simplifying the compliance process.

Other resources like workshops, online guides, consulting services, and farming association networks are available to assist farmers. These, combined with technology-driven tools, can make waste management more efficient and easier to navigate.


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Conclusion: Planning for Future Waste Management

Farm waste management needs to strike a balance between being environmentally responsible and staying efficient. As the agricultural sector continues to play a major role in biogas production - currently accounting for 67% of Europe's biogas and projected to reach 82% of its potential by 2040 - the potential of waste-to-energy solutions becomes increasingly clear.

Here are some effective strategies to help manage farm waste:

  • Waste Conversion Systems: Turn manure into biogas and digestate using anaerobic digestion, converting farm waste into useful resources.
  • Soil Health Management: Maintain a 30:1 carbon-to-nitrogen ratio to reduce the use of synthetic fertilizers while boosting soil health and crop yields.
  • Technology Integration: Implement digital tools and automation to monitor waste streams, streamline operations, and ensure compliance.

Dump & Go's Agriculture Plan aligns with these strategies, providing tailored waste management solutions for modern farming. Their services include:

Service Category

Key Features

Site Removals

Expert handling of agricultural waste

Material Transport

Reliable hauling and relocation services

Fill Material

Solutions for managing resources responsibly

With 24/7 availability and insured staff, Dump & Go simplifies waste handling while ensuring compliance. By adopting these approaches, farms can turn waste challenges into opportunities for progress.


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