As we move into late October and early November, harvesting season is in full swing. The optimal harvesting time for soybeans is from September to November when the pods have matured and the beans have dried down (12). Different regions experience varying harvest conditions and timing, which can impact overall results. Growers play a crucial role in ensuring a successful harvest by managing resources and adapting to local challenges. How you prepare can make a huge difference in the success of your harvest, as tillage and soil management practices directly affect planting and yield (1).

Typically, harvest begins in the last week of September or the first week of October, with this year’s timing closely matching the average of recent years. The progress of the harvest season is tracked weekly, with updates highlighting advancements and any delays. Estimates from analysts and the U.S. Department of Agriculture (USDA) provide projections on expected yields and timing, helping farmers plan accordingly. The department releases official data on harvest progress, which is widely referenced in the industry.

In recent years, the average yield per acre for soybeans has steadily increased, reflecting improvements in farming practices. Compared to the past decade, this year’s harvest pace is among the fastest, demonstrating significant progress. A year ago, the soybean harvest was 67% complete, the fastest pace in over a decade (16). Dry conditions last year helped speed crops to maturity, minimizing weather delays (16).

Yield per acre remains a key metric for growers, directly impacting profitability. Labor is especially important during the busy harvest season, as a skilled workforce is essential for efficient operations and safety.

The soybean harvest is a major economic driver, as soybeans are one of America’s most valuable commodities. The harvest is vital to the domestic market, supporting food production and related industries. The U.S. continues to lead the world in soybean production, with its harvest having global significance for food security and trade.

The history of soybean harvest in America is marked by continuous growth and adaptation. Recent innovation in harvest technology and practices has further improved efficiency and sustainability (8). Intensive harvest practices, such as high-capacity equipment and optimized logistics, have boosted productivity. Fuel is a critical input, powering the machinery that drives the harvest. Safety remains a top priority, with growers implementing measures to protect workers and reduce risks during this demanding season.

Preparing for Soybeans Harvest

To get the most out of your soybean fields, consider these key steps before you start:

• Scout Your Fields: Check moisture levels, plant height, and pod maturity. As part of your assessment, scout for pests and weeds to identify any issues that could impact yield. Visual indicators of maturity, such as the yellowing of leaves and browning of pods, signal that harvest is approaching (10). 95% pod maturity indicates that the soybean crop is ready for harvest once the pods have turned their mature tan or brown color (7, 13).
• Check Your Equipment: Ensure combines, mowers, and rakes are in top shape. Inspect belts, chains, and, importantly, cutter bar components like sickles and guards. Proper maintenance also helps minimize soil compaction during harvest operations.
• Adjust Combine Settings: Proper management of combine settings, such as rotor speed and concave clearance, is crucial to minimize seed damage during soybean harvesting (6). Soybeans require different combine settings than corn. Using modern combines with flex headers or draper heads allows for close cutting to capture low-hanging pods during soybean harvesting (9). Adjusting reel speed, concave clearance, and threshing settings are effective methods to control seed loss and improve harvest efficiency (3).
• Plan Your Timing: Monitor weather conditions closely as dry, sunny days are ideal for harvesting soybeans, while rain or high humidity can increase moisture content (2). Harvest during dry conditions when beans have reached ideal moisture (generally 13–15%). Wet beans can increase drying costs and risk mold. Harvesting with higher moisture levels (15-18%) is feasible if drying will occur mechanically, but it presents challenges such as tougher threshing and increased risk of damage (11). On the other hand, harvesting overly dry soybeans, at moisture levels below 13%, can lead to increased pod shattering and reduced yield (11). Regularly checking stored soybeans for temperature and moisture helps prevent spoilage (5). Also, plan for post-harvest storage and prepare fields for next season’s planting and seeding. For long-term storage, soybeans should be aerated to a moisture level of 13% or less to prevent spoilage (15). Four to five soybeans per square foot can equate to a loss of one bushel per acre during harvest (4, 14).
• Reduce Downtime and Losses: Proper preparation leads to a reduction in downtime and harvest losses.
• Ensure Access to Resources: Make sure you have access to quality replacement parts and necessary resources for a smooth and efficient harvest.

Soil Conservation and Management

Soil conservation and management are at the heart of sustainable farming, especially during the busy harvest season. Many farmers across America are turning to conservation tillage methods—such as no-till and reduced-till farming—to help maintain soil health and boost crop production. By minimizing soil disturbance, these production practices help reduce soil erosion and nutrient runoff, while also preserving valuable soil moisture for future crops (1).

Recent trends in agriculture highlight the growing use of cover crops, which play a vital role in protecting the soil between harvests. Cover crops help to increase organic matter, improve soil structure, and create a thriving environment for beneficial organisms (1). This not only supports healthier crops but also reduces the need for synthetic inputs, making food production more sustainable. By adopting these innovative methods, farmers can maintain productive acres, create resilient soils, and ensure the long-term success of their farms.

Water Quality and Harvesting

Protecting water quality is essential for the future of agriculture, and the way crops are harvested can make a big difference. Conservation tillage and the use of cover crops are proven practices that help reduce nutrient runoff and soil erosion, both of which are major risks to water resources. By keeping more soil and nutrients in the field, farmers help maintain the quality of nearby rivers, lakes, and groundwater (1).

During major events like the corn harvest and soybean harvest, efficient water management becomes even more important. Many farmers are adopting advanced irrigation systems and water harvesting techniques to make the most of every drop, reducing waste and supporting sustainable crop production (1). By focusing on these agricultural practices, producers can maintain the health of their land and water, reduce environmental impact, and ensure that America’s farms remain productive for generations to come.

Maximize Efficiency with Wearparts

At Wearparts, we know that equipment reliability is key during the busy harvest season. That’s why we offer a full range of replacement parts to keep your machinery running smoothly. Our focus is on understanding your needs and delivering solutions that enhance efficiency and profitability. As a trusted partner for growers and dealers, we combine genuine, down-to-earth expertise with a commitment to your success.

Sickles & Sickle Sections: The sickle knife system is the cutting heart of your combine. Worn or damaged sickles can slow your harvest and reduce efficiency. Wearparts’ durable sickles and sickle sections provide precision cutting, helping you move through fields quickly and cleanly. Our premium sickle parts are primarily sourced from leading manufacturers to ensure top quality and performance.

Section Components: Wear Plates & Guards: Protect your cutter bars with our rugged section components. Wear plates and guards are built to withstand tough harvesting conditions, prolonging equipment life and ensuring smooth operation. These components are primarily sourced from trusted European manufacturers for reliability.

Disc Mower Blades & Rakes: For those using disc mower blades and rakes to handle crop residue, we carry high-quality blades and rakes designed for longevity and reliable performance. Our disc mower blades are primarily sourced from industry-leading suppliers to guarantee durability.

Conclusion

A successful soybean harvest depends on careful preparation, effective soil and water management, and reliable equipment. By adopting conservation tillage and cover crops, farmers can protect soil health, reduce nutrient runoff, and maintain water quality, ensuring sustainable crop production for the future. Efficient harvesting practices, combined with high-quality replacement parts from trusted partners like Wearparts, help maximize productivity and minimize downtime during this critical season. Together, these strategies empower growers to achieve a smooth, profitable soybean harvest while safeguarding the land for generations to come.

References:

1. U.S. Department of Agriculture. “Crop and Livestock Practices – Soil Tillage and Crop Rotation.” https://www.ers.usda.gov/topics/farm-practices-management/crop-livestock-practices/soil-tillage-and-crop-rotation.
2. Agricultural Commodities Focus. “When Soybeans Are Harvested.” https://ag.hedder.com/blog/when-are-soybeans-harvested/
3. Agronomic Crops Network Ohio State University Extension. “Is a Late Soybean Harvest in Your Future?” https://agcrops.osu.edu/newsletter/corn-newsletter/2019-34/late-soybean-harvest-your-future.
4. Alberta Pulse Growers. “Soybean – Harvesting.” https://albertapulse.com/soybean-harvesting/.
5. Kett Science of Sensing. “Managing Soybean Harvest Timing.” https://blog.kett.com/managing-soybean-harvest-timing.
6. Calmer Cornheads. “Top Sieve Settings for Soybean Harvest.” https://calmercornheads.com/combine-settings/tech-tips-for-bean-headers/top-sieve-settings-for-a-better-soybean-harvest-case-ih-or-john-deere/.
7. University of Nebraska – Lincoln Institute of Agriculture and Natural Resources. “Managing Soybean Harvest Timing, Moisture to Improve Yield.” https://cropwatch.unl.edu/managing-soybean-harvest-timing-moisture-improve-yield-0/.
8. Wikipedia. “Agriculture.” https://en.wikipedia.org/wiki/Agriculture.
9. South Dakota State University Extension. “Harvesting for Maximum Soybean Yields.” https://extension.sdstate.edu/harvesting-maximum-soybean-yields.
10. Grow Smart Live. “Soybean Harvest Guide.” https://growsmartlive.com/news/5941.
11. LG Seeds. “The Heat is On: How Early Harvest Conditions Impact Soybean Moisture.” https://lgseeds.com/agronomy/the-heat-is-on-how-early-harvest-conditions-impact-soybean-moisture.
12. Missouri Soybeans. “From Seed Selection to Harvest.” https://mosoy.org/about-soybeans/soybean-farming/modern-agriculture/about-the-growing-season/.
13. NC Soybean Producers Association. “Growing Soybeans.” https://ncsoy.org/media-resources/growing-soybeans/.
14. Syngenta Thrive. “Essential Soybean Harvest Tips to Help Maximize Yields.” https://syngentathrive.com/articles/field-insights/essential-soybean-harvest-tips/.
15. Tennessee Soybean Production Handbook. “Chapter 10: Harvesting, Drying, Handling and Storing Soybeans.” https://utia.tennessee.edu/publications/wp-content/uploads/sites/269/2023/10/PB1912J.pdf.

Successful Farming. “Analysts Estimate U.S. Soy Harvest as 58% Complete, Corn 44%.” https://www.agriculture.com/partners-analysts-estimate-u-s-soy-harvest-as-58-complete-corn-44-11829173.

The post Soybean Harvest Tips & Essential Replacement Parts for a Smooth October Harvest appeared first on Wearparts LLC.

While engine power can impact how quickly and easily you can harvest your crop, but it’s the header bar – and specifically the knife assembly – that plays a critical role in how cleanly, efficiently, and reliably your machine cuts through crop.

Whether you’re harvesting soybeans, small grains, or canola, the right knifehead can help reduce losses, improve speed, and ensure consistent cutting in all conditions.

Here’s what to consider when selecting the right sickle or knifehead for your machine – and how our new product lineup can help you get the most from every acre.

Why Knife Quality Matters

The knife is the heart of the cutter bar. A worn, dull, or ill-matched knife won’t just slow down your harvest – it can increase fuel usage, lead to ragged cuts (which leave crop behind or cause spoilage issues), and even cause downtime during the busiest days of the year.

In short, a quality sickle or knife system:

• Increases cutting efficiency
• Reduces crop loss
• Improves fuel economy
• Minimizes wear on the knifehead and guards
• Keeps your harvest on schedule

Key Considerations When Choosing A Combine Knife

Choosing the right knife system isn’t just about what fits your combine, it’s about what performs best for your specific crop, farming system and even farm topography. Different knife styles and sickle section features are better adapted to different crops and farming conditions, and can have a knock-on effect on efficiency if you don’t choose the best type for your setup. Here’s a look at some of the options available.

Single vs. Sectional Assemblies

The choice between running a single-piece sickle or a sectional knife assembly almost always comes down to practicality – but performance is a key consideration, especially for high-yield applications.

Single-piece knives

Available from Wearparts up to 40ft in length, single-piece sickles arrive assembled, ready to fit on your harvester. They’re ideal for operators seeking maximum strength, consistency, and minimal in-field vibration. They reduce the chances of misalignment or weak points during harvest, but for obvious reasons are much more challenging (and therefore expensive) to transport.

Sectional bolt-together knives

Sectional knives are pre-manufactured in short sections that are then bolted together on-site. These are easier to handle, ship, and install, especially for longer headers. They also allow for faster replacement of damaged sections – for instance, it’s more common for a sickle to wear out near the head end of the knife, and with a sectional knife you can simply remove and replace this section instead of replacing the whole knife, or the individual sickles. For long headers, a sectional knife can save significantly on shipping and handling costs compared to a one-piece knife.

Traditional sickle sections

Standard replacements for existing headers are often sold as single sickle sections – triangular sections like pizza slices that are individually bolted or riveted onto a sickle bar. The sickles are placed in an alternating pattern – one face up and the next face down – all along the bar. If a sickle blunts or breaks, it can be removed and replaced for a highly-cost effective solution. However, this is a fiddly task leading to significant downtime, especially for longer headers with hundreds of sickle sections.

Knife Format Comparison

What other things should I consider when choosing a knife system?

From OEM to aftermarket, there are lots of different knife systems on the market – and within those knife systems, there are even more options that allow you to tweak performance to your specific crop type, conditions, machinery and even farm topography. Here’s a look at some of the things you should consider, especially if you’re looking to move away from standard or OEM components to something more advanced.

Crop Type

Different crops have different stem densities, moisture levels, and cutting behaviors. Moving away from factory standard or OEM systems can help you to achieve more precise and efficient cutting operations. For example:

• Soybeans and canola have stems that can be tough and stringy, so may benefit from a knife equipped with sickle sections with more aggressive serrations for additional cutting power
• Small grains like barley and wheat have finer stalks that benefit from finer sickle serrations – producing a clean shear without shredding, for smoother cutting action with less risk of clogging the knife.

Harvest Conditions

In an ideal world, you’d have a dry summer and fall, your crops would be standing straight and tall and the ground underfoot would be dry. But an increasingly unpredictable climate means that many farmers will be dealing with suboptimal conditions – problems like weedy or damp fields and lodged areas where crops have toppled over and become tangled due to wind and rain. 

These conditions can lead to your knife getting jammed with residue, and blunt or broken sickles. Starting out with a knife that has the power and durability to cut easily even in difficult conditions is always worth the investment – you’ll save significantly on time and replacement parts, while also reducing long-term wear on your knifehead and drive system.

Speed & Efficiency

The window for harvesting crops can often be pretty short – you’re waiting for that perfect moment when optimal crop dryness and weather conditions intersect. And if you’re farming a lot of acres, that means you have even less time to bring home the gold – which means running your combine at higher speeds. 

Speed puts significant strain on the combine in general, but especially the knife – and this is where poor quality components will often let you down. We can’t stress it enough – look for quality in every aspect, from sickle sections to wear plates and rollers. 

Precision-engineering, heat treatments, self-sharpening technology and enhanced strength-to-weight ratios all make your operations more effective and efficient, reducing downtime so you can get your crop in quickly when it counts. Look for systems that are quick to inspect, easy to service, and built to last, especially when the pressure is on.

Compatibility

Sticking to OEM parts for your specific combine always feels like a safe bet – you get guaranteed compatibility, and surely the big brand names are always the best quality, right? This is often true – but not always. While some OEM manufacturers specialize in harvest machinery and parts, others are generalists – and if you’re finding their parts don’t hold up in your specific conditions, it’s worth considering a change.

At Wearparts, we bring you the best of both worlds – advanced compatibility for all major machinery brands AND specialist harvesting expertise and technology from industry leaders like Group Schumacher. As with everything we supply, these parts are designed for advanced performance and durability in the field, be engineers focusing in closely on the features farmers need to achieve optimal efficiency and yields. 

Product Spotlight: Group Schumacher EasyCut II

As one of the most respected names in cutting systems worldwide, Group Schumacher brings renowned German precision and innovation to the table. Their EasyCut II knife system is designed to answer many of the challenges farmers face in the midst of an unpredictable climate and a hugely competitive marketplace.

What is EasyCutII and what are the benefits?

EasyCut II is a modular, universal system that fits all crops and all headers. It’s a sectional system that adapts to any header length, but is easy to handle and ship, making it accessible to all farmers.

The system is designed for exceptional stability and cutting force, plus a significantly extended wear life in the field, which is why it aligns so closely with the Wearparts philosophy. Its sickle sections are hardened and galvanized for durability, with optimized tooth design to suit all crops and conditions. 

The uniquely balanced guard system has two cutting edges, with guards bolted top and bottom for exceptional smoothness and vibration resistance – choose from standard, comfort and premium assemblies with a mix of wear plates and roller guides. EasyCut II is ideal for operations looking to combine high-performance cutting with low-maintenance simplicity. It’s especially effective in lodged crops, uneven terrain, and long hours – keeping your harvest moving efficiently.

What sets EasyCut II apart?

• Modular knife design adapts to any header size, while quick-change sections simplify service and reduce downtime. All components fit in a 9ft box for easy shipping.
• Balanced guard design with optional roller guides reduces vibration, improving operator comfort and reducing wear on the header.
• ProCut teeth are hardened and galvanised for optimal cutting in any conditions – 7,11 and 14tpi versions available, plus lightweight ProCut Air variant
• Fully bolted design for easy replacement/adjustment

Parts that match your harvest goals

Choosing the right sickle or knife assembly isn’t just about what fits your combine -it’s about selecting parts that support your harvest goals. 

We’re relatively new to harvest parts at Wearparts – but we’re old hands at understanding what farmers really need on the ground, and we’ve used that knowledge and feedback to develop a harvest range that delivers more. From durability and wear life to expert customer support when you need it most, we’ve got your back – and so does our network of trusted ag dealers.

Talk to your Wearparts dealer today or speak to our team about getting the right fit for your field.

The post How to Select the Right Knife System for Your Combine Harvester appeared first on Wearparts LLC.

Scouting for issues around pest infestation and disease isn’t just a task to undertake when you see trouble brewing; it’s your first line of defense for preventing problems in the first place – and it’s important to look at the big picture.

Soil health, tillage, planting practices, and overall crop vigor all influence how pests behave and how diseases take hold, which means smarter scouting starts from the ground up. Let’s explore more about pest and disease scouting – including the relationship to soil health, what to look for, and what to do if you spot a problem.

What are the most common pests and diseases affecting US crops?

From flying insects to soil-dwelling parasites, there are many types of pests that can significantly impact on crop health and eventual yields. Left unchecked, an isolated problem can become widespread on your farm. Here are some of the most common insects and diseases that affect US crops.

Insects

Corn Rootworm

Larvae feed on roots, causing lodging and yield loss; beetles can damage silks, hampering pollination.

Wireworms and cutworms

These larvae feed on roots and underground stems, often before seedlings even emerge. Damage is usually patchy and can look like poor germination.

Nematodes

Microscopic roundworms that attack roots, leading to stunting and uneven growth. Some species, like root-knot nematodes, are soilborne and hard to spot without testing.

Soybean Aphids

Sap-sucking insect that transmits viruses and reduces yield.

Stink Bugs

Damage pods and seeds; can reduce quality and cause shriveled kernels.

Diseases

Rhizoctonia and Pythium root rot

Seedling diseases common in poorly drained soils.

Sudden Death Syndrome (SDS)

Caused by the fungus Fusarium virguliforme, resulting in root rot, seedling blight and damping off.

Tar Spot

Fast-spreading fungal disease causing black spots on leaves that reduces photosynthesis and yield.

White Mold (Sclerotinia)

Characterized by white, cottony mold on leaves and stems. Causes wilting and stem rot.

Southern Rust

Orange spores appear on leaves in warm, humid climates. Spread by wind. Can reduce yields by 50%.

Fusarium Head Blight (Scab)

Produces mycotoxins and shriveled kernels, primarily on wheat crops.

What signs should I look for when crop scouting?

At its core, pest and disease scouting is about early detection. Spotting problems early reduces your reliance on pesticides, which lowers costs and protects the environment. 

Crop scouting can be as simple as walking a transect of your field, visually observing plants and soil along the way – but more and more farmers are harnessing the power of GPS, drone-mounted cameras and smartphone apps to give them greater visibility and insight. You can also engage the services of a scouting professional to do the job for you. Whichever method you choose, all crop scouting starts with getting into the field and taking a good look at what’s happening.

Above ground, keep an eye out for:

• Leaf chewing, webbing, or skeletonization
• Frass or insect droppings
• Wilted or stunted plants in patches
• Signs of feeding on stems or ears

Make sure to check the undersides of leaves for eggs, larvae and signs of damage you might otherwise miss. Sticky traps can also be used to monitor winged insect activity.

 Problems below ground can be indicated by signs like:

• Missing plants or uneven stands
• Discolored, mushy, or poorly developed roots

Observing the soil surface and taking small samples can help you to visually detect unwanted insects, but some pests are invisible even with a magnifying lens, so it’s wise to bag some samples for lab testing, especially if you suspect an issue.

Tips for better crop scouting outcomes

Good scouting is more than just a quick walk through the field. Here are a few tips to make your efforts count:

• Scout early and often – Weekly checks during vulnerable growth stages (emergence, V3–V6, heading) can help you catch issues before they spread.
• Use a consistent pattern – Grid or zigzag patterns help ensure full coverage. GPS-tagged scouting apps can make this even easier.
• Track environmental conditions – Pest and disease pressure often follows weather patterns. Wet, warm soils? Keep an eye out for root diseases. Dry soils? Look for mites or grasshoppers.
• Record everything – Scouting notes, photos, and field maps help track trends and make better management decisions over time.

Soil health and crop resilience

Preventing pest and disease problems doesn’t start with scouting, and it certainly doesn’t start with pesticides – it begins with soil health.

Soils rich in organic matter and teeming with microbial life help plants build stronger root systems, absorb nutrients more efficiently, and tolerate stress better. A vigorous, healthy plant is less likely to succumb to insect damage or disease.

On the flip side, compacted, poorly drained, or nutrient-deficient soils create stressed crops, making them easy targets for pests and pathogens. Stressed plants give off chemical signals that actually attract certain pests. They also struggle to fend off fungal and bacterial infections.

What does that mean for your scouting program? It means if you’re seeing consistent pest or disease issues in certain areas – particularly around field boundaries and in low-lying or wet spots – it’s worth looking at what’s going on with the soil. This involves sampling and testing to understand the nutrient balance of your soil as well as the presence of harmful fungi and other pathogens.

What role do tillage and planting play in pest prevention?

Tillage and planting play a key role in soil health and successful seed germination, getting young plants off to a strong start that can protect them against pests and disease. Here’s a look at some of the ways they can support pest and disease prevention:

• Considered tillage timing can disrupt the life cycles of soilborne pests like cutworms, which pupate over winter in the soil. Earlier spring tillage is associated with fewer cutworm infestations because it exposes the pupae to cold temperatures and drying conditions that prevent them from hatching. 
• Chopping or burying trash reduces the likelihood of disease pressure from fungi like Fusarium or Anthracnose, which thrive in the warm, dark and moist conditions created by decomposing residue.
• Timing of planting is key – plant early into cold, wet soils and you risk slow or uneven emergence that increases damping off and seedling stress, giving pests an opening.
• Consistent planting depth and accurate furrow closing promotes better seed-to-soil contact for strong germination and reduced risk of root rot.
• Appropriate spacing allows good airflow between young plants that can reduce the risk of fungal problems and insect infestation.

Pest prevention demands a big picture approach

In modern agriculture, pest and disease pressure isn’t just about the bugs and spores – it’s about the conditions that let them thrive. Soil health plays a major role in helping your crop resist pressure, and respond well to treatment if an outbreak does occur.

At Wearparts, we know that strong yields start with strong foundations. Whether it’s high-wear tillage parts, precision planting tools, or expert insights, we’re proud to support farmers with the tools they need to grow healthier, bigger crops efficiently.

Contact us for help choosing the best tools for your tillage, planting and harvest operation or find your nearest dealer.

The post Crop Scouting: How Soil Health Impacts Pest & Disease Resilience appeared first on Wearparts LLC.

Late frosts in the Midwest are less common than they used to be, but can still cause problems for farmers into late April and early May – in fact for 2025, the Old Farmer’s Almanac is predicting some states (including Wyoming, Oregon and parts of eastern California) won’t have their last frost until early June.

While we can’t control the weather, there are field management and tillage strategies that can help reduce the risk and improve crop resilience. Let’s take a look at how you can manage late frost risk this spring, and give your crop the best chance at a strong, uniform start.

1. Know your local frost window

Climate scientists collect historical data about frost dates every year, and records going back more than a decade are widely available online, so this is a great starting point for understanding when the last frost date typically occurs in your location. 

Of course, this data isn’t set in stone, and climate patterns are becoming increasingly unpredictable, so some good judgement is required. You can also start your own almanac if you don’t already do this, recording the first and last frost dates every year to see if you can identify any patterns that are specific to your farm.

Soil temperature testing is also critical for knowing when to plant. You can use local ag reporting tools to guide you, or for a more accurate picture, use a soil probe in your own fields. Aim to plant when soil temps are steadily above 50°F and rising.

2. Avoid overworking the soil

Overworked soil lacks natural structure, which can lead to compaction and waterlogging. Compacted or very wet soils not only stay colder for longer, they also provide an inhospitable environment for early root development, leading to slow crop emergence and weakness that can cause problems with pests and disease later on.

Conversely, the use of conservation tillage practices and appropriate tools can help to minimize soil compaction without destroying natural structures, creating a well-drained and well-aerated seedbed that warms up more quickly and evenly. 

What tillage system is best for soil warming?

Conventional tillage

Overworked soil lacks natural structure, which can lead to compaction and waterlogging. Compacted or very wet soils not only stay colder for longer, they also provide an inhospitable environment for early root development, leading to slow crop emergence and weakness that can cause problems with pests and disease later on.

Conversely, the use of conservation tillage practices and appropriate tools can help to minimize soil compaction without destroying natural structures, creating a well-drained and well-aerated seedbed that warms up more quickly and evenly. 

Reduced tillage

Reduced tillage practices such as strip-till are commonly selected by farmers looking to achieve a balance between earlier soil warming and moisture conservation for later in the season – they’re ideal in locations where spring can be slow to arrive, but where prolonged high temperatures and low rainfall are common in summer.

No-till

No-till farming typically results in soils that are slower to warm in spring, with a higher moisture content. But these same features can be highly beneficial in hotter, drier climates even if it means planting a little later in the spring. Combining no-till with cover crops can be an ideal solution that improved drainage and aeration in the upper soil layers while preserving its structure.

3. Manage residue in a timely manner

Leaving crop residue on the soil surface over winter is a smart strategy that replenishes nutrients and reduces erosion – but leave it there too long, and you risk slowing down soil warming. 

Residue acts like an insulator that prevents the sun from directly warming the earth while also increasing moisture retention, contributing to colder soils. If you’re starting from a colder baseline, the risk of a late frost harming your newly-planted crop is greater.

Managing residue effectively is especially important in no-till systems. Chopping and uniform distribution of residue ensures the soil has enough exposure to sunlight to warm up, and prevents the formation of frost pockets.

4. Maximize planting uniformity

Uniform seed placement is your best insurance policy against frost damage because it promotes strong germination, emergence and more even crop stands. Inconsistent emergence creates shady pockets where cold air can pool in the event of a frost, increasing the risk of frost damage and losses. 

Here are some tips for promoting uniform planting and robust emergence:

Optimize your equipment

Invest the time in planter maintenance and rebuilding prior to planting season, ensuring all wear parts are still in good condition and topping up all fluids and lubricants as necessary to ensure optimal planter performance. 

Choose the highest quality planting implements your budget will allow, paying particular attention to seed openers, gauge wheels and gauge wheel arm assemblies, since these will directly influence the depth and consistency of your planting. 

Don’t overlook closing wheels, since they ensure appropriate seed-to-soil contact which helps prevent exposure of the seed to extreme temperatures. 

Resist the temptation to adjust planting depth

When frost is still a threat, shallow planting might speed up emergence, but it also places seedlings closer to surface-level temperature swings. Conversely, deeper planting can provide insulation but delay emergence. These risks can significantly outweigh any potential benefits of planting earlier – if in doubt, just wait.

Seed selection

Farming technology means you can now select seed varieties that are specifically adapted to earlier planting. If you’re farming in a location where late frost is a risk, consider choosing varieties bred for increased cold tolerance and early vigour to give young plants the best chance of surviving a cold snap.

5. Have a replant strategy

Even with the best preparation, Mother Nature sometimes wins. Make sure you’ve got a plan in place in case you need to replant – both operationally and in terms of any crop insurance claims and relevant cutoff dates. Take photos and records of your stand conditions, soil temps, and dates to help with any insurance claims, and to use for decision-making next year!

Prepare for late frost, but don’t panic

Late frost risk can’t be eliminated, but it can be managed. Strategic tillage, smart timing, and the right seedbed preparation all work together to protect your crop’s early development. 

At Wearparts, we’re committed to helping you maximize every acre, starting with strong emergence and stand uniformity. Get in touch for advice on the right tillage and planting tools to help you minimize the risks.

The post Reducing Frost Risk: 5 Planting and Tillage Tips for Farmers appeared first on Wearparts LLC.

Time and again, we hear from farmers who say they’re sick of wasting time pre-qualifying seed opener blades before they can take their planter into the field – that’s hours and hours, laid on your back, messing around with business cards to get your openers shimmed up and ready to plant.

That’s why we developed the Wearparts Guaranteed True promise – a field-ready guarantee that takes all the hassle out of prepping your planter and gives you back hours of valuable time to get the real work done.

We test 100% of our seed opener assemblies – no exceptions – to ensure they meet industry-leading tolerances on axial and radial runout. That means no wobble or lope – and no more time wasted on pre-qualifying openers, sending back faulty ones, and waiting for replacements. Let’s dig deeper into how and why we do it.

Why does seed opener precision matter?

Seed opener assemblies are comprised of two disc blades, mounted in pairs on a planter’s frame, and angled towards each other so the edges of the two blades meet at their lowest point (called the pinch point). As the blades rotate, this causes them to cut a v-shaped trench in the soil, into which a seed is dropped via the seed tube on a planter. 

Gauge wheels dictate how deep the trench is cut – and this depth is precisely calibrated according to the type of seed being planted, and its preferred germination depth. In order to achieve optimal conditions, the seed needs to drop into the bottom of the trench. For this to happen, the trench needs to be precise and clean – if the blades don’t meet precisely, a number of problems can occur:

• Their cutting action is impaired, so surface debris can get pushed down into the trench, known as hairpinning
• The trench can end up with a W-shaped profile instead of a V, impacting seed depth and increasing the risk of air pockets
• The sidewalls of the trench can be unstable and collapse, leaving some seeds too close to the surface

How do farmers check the pinch point of a seed opener?

Prior to planting, farmers typically have to check the pinch points of each pair of seed opener blades in a process called shimming. 

The most common way is to insert a cardboard gauge (normally two old business cards, which are the ideal size for the job) into the seed opener assembly and sliding them down to the point where the blades come together, and they can’t slide any more. 

The distance between the two cards at this point is the ‘pinch point’ – and this should measure between 1.5 and 2 inches in order to open a trench effectively. On new blades, the pinch point can be adjusted by adding or removing spacers to adjust the angle of the blades.

When to replace seed disc openers?

As a seed opener wears, the pinch point will get smaller – and by the time a disc shows half an inch of wear, it will no longer be able to cut a consistent trench – so it’s time to replace. 

But even on new blades, manufacturing issues can cause problems with pinch point accuracy – specifically radial runout (lope) and axial runout (wobble). These issues can vary in severity, but in all cases, they will lead to inferior trenches and potentially impacted crop yields. Let’s explore this in more detail.

What is axial runout (wobble) in a seed opener?

Axial runout refers to how much the blade wobbles from side to side as it spins. Imagine a record on a turntable that isn’t perfectly level—it moves up and down slightly as it turns.

Axial runout can be created during manufacturing if the blade itself isn’t perfectly flat or if it isn’t mounted perfectly parallel on the hub. It can be caused by uneven pressing of the seed opener assembly during production, or if the hub housing isn’t completely flat – precision manufacturing of all component parts is a must.

Too much axial runout can lead to uneven seed trench walls, inconsistent seed placement, and increased wear on the bearings and other components.

What is radial runout (lope) in a seed opener?

Where axial runout is a side-to-side movement, radial runout is a forward and back motion. It’s caused when the seed opener blade isn’t perfectly centered, so instead of spinning in a perfect circle, it ‘lopes’ forward and back, which will cause the blade to cut deeper for part of its circumference, and shallower for the other part.

Radial runout can occur if the blade’s central hole isn’t perfectly aligned during manufacturing, if the blade is slightly warped, or if the hub or bearing have inconsistencies. As well as uneven cutting depth, it can also cause vibration, leading to premature wear on both the blade and the opener assembly.

Why do Wearparts test 100% of seed openers?

Even with the best quality control processes in place during the manufacture of seed opener blades and hub assemblies, tiny variations can occur. These discrepancies may not fall outside of the acceptable tolerances for the individual components – but when the components are assembled, they can add up to more or less runout for that specific seed opener. 

Testing a representative sample of our seed openers can’t tell us whether every seed opener we make is within the acceptable runout tolerance, because the same blade mounted on two different hubs can have different runout performance, and vice versa.  This is why we test 100% of our seed openers before they leave our warehouse.

How are Wearparts seed openers tested?

We use laser technology to test our seed opener assemblies in our manufacturing center at Wearparts HQ here in Nebraska. 

Each blade is placed on a mechanical turntable that spins the blade, using precise laser beams to detect axial and radial movement while the blade is in motion. The machine head counts thousands of times per second, enabling us to calculate both wobble and lope. 

What are the runout tolerances for Wearparts seed openers?

Our tolerances are the smallest in the ag industry – our openers must achieve a MINIMUM of .050/1.27mm axial / .060/1.52mm radial tolerance, but in reality, most achieve results much lower than this. 

In real terms, this means that the wobble and lope on our openers is undetectable in the field – delivering precision V-shaped trenches and consistent depth every time, with no need for pre-qualifying your seed openers before fitting them to your planter, and a huge amount of time saved in the shimming process.

What if I have a problem with my Wearparts seed openers?

Our Guaranteed True promise means it’s extremely unlikely you will ever encounter a runout issue with a Wearparts seed opener in the first place – but it also means that if you do (and it’s a big if) we will refund or replace the blade, with no questions asked.

Need more information?

Whether you’re an existing Wearparts dealer, are interested in becoming a dealer, or you’re a farmer wanting to learn more about our precision seed opener assemblies – including specific compatibility information for your planter – we’d be happy to help. Simply contact our team for answers to any questions you may have, and to make this planting season your most successful yet!

The post How to Check Your Seed Disc Openers appeared first on Wearparts LLC.

Arguably the most important of these is seed to soil contact, since this is what allows a seed to access the moisture and warmth it needs to begin the germination process. 

In this blog, we’re going to take a closer look at how seeds germinate, why proper contact with the soil is important, and how the latest tillage and planting technology is helping farmers to optimize germination, growth and yields in a highly competitive industry.

How does a seed germinate?

Seeds are amazing – they’re tiny powerhouses, packed with everything required to create and nourish the young plant. They contain the plant embryo, a food source (called the endosperm) and a protective outer seed coat (called the testa). The only things not contained within the seed itself are water, oxygen and heat – the seed must get all these from the soil.

Moisture is what triggers a seed to germinate. When it’s in contact with the soil, the seed absorbs water through its seed coat, causing it to swell up. The seed coat gets softer and may split open. This process activates enzymes that trigger the embryo to begin growing. As it grows, the embryo uses energy from its endosperm (a type of spongy tissue packed with carbohydrates, proteins and oils) as well as oxygen contained in the water in order to grow. 

At this point, the embryonic plant bursts free of its seed coat, sending a tiny root called a radicle downwards into the soil, and a small shoot called a cotyledon up towards the surface, where a pair of tiny seed leaves will emerge – and the seed has successfully germinated. Only at this point do external factors – such as sunlight, rainfall and nutrients in the soil – begin to impact on the young plant’s growth.

Why is seed to soil contact important?

Contact with the soil allows the seed to access water (containing oxygen) and also warmth that jump starts the germination process, but it also plays an important role in the continued growth of the seed.

Eliminating air pockets from the area immediately surrounding the seed at planting is one of the most important factors for successful germination, uniform stand emergence and the overall health of the plant. Here’s a look at what can happen if adequate seed to soil contact is not achieved:

1. The seed can’t absorb enough moisture to germinate

Without consistent soil contact, the seed may take longer to germinate, or may not germinate at all. Seeds that germinate significantly later than their neighbors are likely to be out-competed for light, water and nutrients and will be more prone to disease. They will also reach maturity later, resulting in losses at harvest.

2. Air spaces can fill with water

Seeds must be moist in order to germinate, but they don’t like to be waterlogged. A seed sitting in a pool of water will struggle to access warmth in the soil and is at high risk of rotting before it can germinate. Excess water around the seed also pushes oxygen out of the soil that the emerging roots need to thrive, resulting in slow or weak growth.

3. Mold or fungus can form around the seed

Fungal pathogens in soil thrive in dark, damp and moist conditions and will feed off tender or weak plant material, so it’s vital that emerging seedlings get off to a strong start. Eliminating air pockets around the seed reduces the risk of fungal growth that can attack the seed itself or the emerging seedling.

Good soil contact promotes strong growth that reduces vulnerability to ‘damping off’ disease – symptoms include thin, mushy stems that wilt or collapse soon after emergence from the soil. As these plants wither and die, they create space for weeds to take hold.

4. Seedlings can struggle to access nutrients

Even with poor seed to soil contact, some seedlings will manage to emerge and start growing – but often later and more weakly then their counterparts. As well as causing issues around stand uniformity and yields, these weaker plants are much more vulnerable to pests and disease that can then spread to the rest of the healthy crop.

How do tillage tools promote seed to soil contact?

Tillage plays an important role in ensuring good seed to soil contact by creating a firm, well-aerated, and moist but well-drained seedbed, reducing the risk of air pockets, waterlogging and promoting uniform germination. Here are some of the ways tillage helps seeds get off to a great start:

• Breaks up clods and compacted soil, creating a fine tilth that settles readily around the seed
• Promotes better soil aeration and drainage so seeds have access to optimal oxygen and moisture levels throughout the germination and early growth stages
• Incorporates and chops crop residue, adding nutrients to the soil but also preventing issues like hairpinning that can inhibit seed to soil contact
• Reduces soil compaction so emerging roots can penetrate more deeply into the soil

How do planting tools promote seed to soil contact?

Whether you’re running no-till, strip-till or a more conventional tillage system, the work doesn’t end there – the quality of your planting tools will also directly influence how successfully your seeds germinate. Here’s a look at the ways specific planting tools promote good seed to soil contact:

Seed Openers

Seed openers are responsible for opening a clean, v-shaped furrow that allows the seed to drop in at the optimal depth. 

They need to slice through any surface residue as they open the furrow, so they must be sharp – if not, there’s a risk they will push stalks down into the furrow instead of cutting, which is known as hairpinning. Having residue pushed into the furrow like this can prevent seed to soil contact and create air pockets where mold and fungus can thrive.

If your seed openers are excessively worn, or if they don’t run true, you won’t get an optimal furrow – the profile might be w-shaped, and the walls may be unstable and prone to collapsing. This increases the risk of air pockets forming around the seed when the furrow is closed.

To avoid problems, look for seed openers that stay sharp, and ensure they run true with no wobble or lope that can contribute to a variable pinch point. With the Wearparts Guaranteed True promise, you can save many hours pre-qualifying blades and get straight into the field with openers built for extended wear life and precision planting performance.

Gauge Wheels

Although primarily concerned with seed depth, gauge wheels can also influence seed to soil contact. Gauge wheels play an important role in keeping the furrow clean and free from trash – consider a solid versus a spoked wheel if you’re worried about trash or loose soil falling into the furrow and creating unwanted air pockets. Using tires with a reduced inner diameter can also help with creating a more stable sidewall while avoiding compaction that can hinder growth as the young plants emerge.

Closing Wheels

Closing and press wheels are responsible for closing the furrow after the seed has been dropped in, and firming the soil to optimize seed to soil contact. Different types of closing wheel are suitable for different types of soil – smooth and rubber wheels work well in dry or sandy conditions where a toothed closing wheel can be better in heavier soils, crumbling the sidewall as it goes to prevent lumps and air pockets.

Need help choosing tillage or planting components?

Giving your seeds the best possible start is critical for efficient agronomics and optimal yields at harvest. Wearparts offers a wide range of tillage and planting tools suitable for all cropping systems and soil types, with superb compatibility across OEM machinery brands and a host of extra features to help farmers work smarter. Contact your Wearparts rep today for more information or to discuss a specific planting challenge!

The post Improving Seed to Soil Contact: A Guide for Farmers appeared first on Wearparts LLC.

While some states have the luxury of a relatively long planting window, others – including Iowa, Indiana, Missouri and Nebraska have shorter windows, sometimes as little as four weeks after the risk of frost has passed. This means that any unexpected downtime due to planter problems can seriously impact your ability to get seeds in the ground while conditions are optimal.

So how can you make sure your planter is ready to go as soon as the planting window opens – and how can you avoid unexpected equipment failures that slow you down once planting gets started? Let’s take a look at some essential planter checks and considerations every farmer needs to take into account as planting season rolls around.

Inspect your planter

First things first – after many months sitting in storage, it’s time to get your planter outside or into the workshop for a thorough once-over, starting with a visual inspection and cleaning if necessary. You should use compressed air to remove any dirt, dust or debris that has accumulated over the fall and winter so you can get a clear view of any worn parts or other problems that need attention. Routine checks should include:

• Overall structural soundness – check for cracked or bent components and signs of irregular wear
• Check all filters and replace as necessary
• Lubricate moving parts
• Top up oil, water and coolant levels
• Ensure firm connections on all vacuum, seed delivery and hydraulic lines
• Look for cracked or perished hydraulic hoses

Optimize planter performance

Once you’ve checked all the basics, it’s time for more focused inspection and calibration to ensure your planter is in tip-top condition before you head to the field. Here are some key checks to carry out:

Row Unit Spacing

Use a measuring tape to ensure all row units are properly spaced. A small offset can lead to big problems during field operations and harvest.

Seed Opener Adjustments

Ensure openers are sharp and within the diameter tolerance specified by the manufacturer, which is usually 1.75 to 2 inches. Check the pinch point using the credit card method, ensuring adequate contact between the disks for precise trench cutting – add spacers if necessary. See below for more information on our Guaranteed True seed openers.

Gauge Wheels 

Ensure proper contact between the gauge wheels and disk openers, making sure gauge wheels can still be turned by hand with slight pressure.

Meters and Seed Plates

Inspect the vacuum seals and brushes on the meters. Check that the correct seed disks, knockouts and double eliminators are installed for the crop being planted. Inspect finger pickup meters to ensure that the fingers spin freely and that all finders open and close properly.

Seed Placement System

Clean seed tube sensors and check the condition of the seed drop tube. For high-speed equipment, check the condition of seed belts and brushes.

Row Cleaners

Spin the cleaners to check bearings and linkages for signs of wear. On pneumatic systems, check for leaks in the airbags and airlines.

Row Unit Downforce

Check for leaks in air lines or hydraulic hoses, as well as airbags and cylinders. Be sure all gauge wheel load sensors are working and reading properly.

Closing System

Inspect the bearings in the wheels. Check the alignment of the closing wheels by setting the planter down on concrete and pulling it forward 4 to 5 feet. Make sure the closing system wheels are centered over the line that is created on the concrete by the double disk openers.

Selecting Replacement Components for your Planter

The most important components on your planter are the seed opener, the gauge wheel and the gauge wheel arm – if and when these components need to be replaced, it’s vital you select high quality parts that meet or exceed the OEM specification. 

Failing to do so will result at best in downtime while you replace worn parts midway through your planting cycle, and at worst, unexpected breakages in the field. Here’s a look at some of the reasons Wearparts planter components are better than the OEM, and trusted by farmers looking to minimize downtime:

Seed Openers

Our premium Forges de Niaux seed opener assemblies represent best-in-class quality and durability, offering on average 30% longer wear life in the field than the leading competitor. These blades feature:

• Unique heat-treatment process delivering 3 distinct zones of hardness
• Harder edge, more flexible center
• Longer bevel – stays sharper for longer
• Heavy-duty bearing & rivets
• Guaranteed True®

Our Guaranteed True promise reflects the fact that we check 100% of our seed opener assemblies before they leave our warehouse, ensuring they achieve industry-beating tolerances for wobble and lope – a minimum of .050/1.27mm axial and .060/1.52mm radial tolerance. As a result, you can be sure our openers will run true, with no time wasted pre-qualifying blades before fitting them on your planter and no hassle of returning faulty openers. We offer a wide range of options to fit all popular planter brands.

Gauge Wheels

Wearparts is proud to be a distributor of gauge wheel technology from leading French brand, Otico. The company’s famous ‘Farmflex®’ gauge wheel and tire assemblies are chosen by Wearparts and many other OEM brands because of their longevity, efficiency and soil-friendly design. A range of solid and spoked wheels are available, with semi-solid rubber tires that offer superior puncture and wear resistance while minimizing soil compaction and downtime associated with plugging.

Gauge Wheel Arm Kits

The gauge wheel arm is the part of your planter that absorbs the most force during planting applications and as such, is a common factor in planter underperformance or downtime. Our new gauge wheel arm kits have been designed based on feedback from farmers and in line with our commitment on extended wear life.

• Made from heavy duty forged 4140 steel alloy construction to eliminate flex
• Advanced fatigue resistance
• Thicker and stronger than OEM spec
• Maintenance-free sealed design – no need to grease
• Laser clad wear plate

Each kit includes a right hand or left-hand arm, right or left threaded directional studs for easy installation plus all nuts, lock washers & shims.

Need help with planter parts?

Our knowledgeable sales team is waiting to take your call – whether you need product recommendations for your own planter or you’re an ag dealer looking to solve for your customer, get in touch for tailored advice today.

The post Planting Season Prep: How to Avoid Planter Downtime This Spring appeared first on Wearparts LLC.

Looking ahead to next spring’s planting cycle, those ruts pose a problem – they are likely to accumulate even more water over winter, making spring tillage a challenge – and if not removed, they make it almost impossible to achieve precise, uniform planting, which is likely to result in uneven crop stands and reduced yields next fall.

So what’s the best way to tackle ruts – and when? Let’s take a closer look at the techniques and tools farmers can employ in order to get their fields back on an even footing before spring.

When is the best time to tackle ruts?

You might think that ruts are best repaired just before planting as part of your spring tillage cycle – but in actual fact, leaving them too long can make the problem worse, as rain, snow and crop residue gathers in the ruts, making tillage more difficult.

Instead, experts recommend waiting until the soil is either dry or frozen, since this allows heavy machinery to operate without making ruts deeper, or smearing the soil. This means that the end of fall, or very early spring, can often be the best time to tackle ruts.

What’s the best way to repair ruts?

The first step in repairing ruts is to assess the severity of the damage – how deep are they, and how widespread? Deeper ruts (> 6 inches) will typically require more aggressive tillage to repair them, but they don’t always mean there is a compaction issue – use a soil penetrometer to check before reaching for deep tillage tools.

You should select tools that match your soil type and objectives, aiming to interfere as little as possible in order to repair the ruts – especially if you plan to do a secondary tillage pass later on. If the ruts are not widespread, it’s better to repair them in isolation at this stage, than to deploy full-width tillage.

1. Wait for soil drydown

Wait as long as possible for your soil to dry out before attempting to repair ruts. For tillage operations, the soil should be 90-95% of field capacity at the depth of tillage. To check soil moisture, collect a handful of soil at or just above tool operating depth and form it into a ball. Drop the ball from about waist height – if it stays mostly intact, the soil is too wet to till.

2. Select appropriate tools

It’s vital to choose the right tools for the severity of the ruts you’re dealing with as well as the level soil compaction and also your particular tillage system. 

Shallow ruts

If you’re repairing shallow ruts, then some light disk tillage followed by a ground levelling tool may be all that’s required to get your fields back in plantable condition. There’s also an argument for simply leaving shallow ruts alone and letting crop roots do the work – you may lose some yield, but especially in no-till systems, the long-term benefits of not working the soil could outweigh any short-term losses.

Moderate ruts

For moderately rutted fields in conventional tillage systems, tillage tools with lateral soil moving action can be used to move soil into the ruts and level the ground. Tools with concave discs are ideal – but care should be taken not to overwork the soil or carry out any unnecessary passes, which runs the risk of causing more damage or compaction to the soil. 

For no-till systems with moderate ruts, choose only a true vertical tillage tool with an adjustable gang angle – avoid concave discs that can damage the soil structure by adding a tillage layer. Another option is to use a cultivator with the sweeps or points set at the soil level between ruts, and using it at an angle to the track to gently knock down the high sides of the rut without penetrating the soil.

Deep ruts

For deep ruts (> 6 inches) in conventional systems, concave disks represent the simplest way to move displaced soil back into the ruts – but resist the temptation to till more than absolutely necessary, since this will increase the chances of further ruts developing next fall.

For deep ruts in no-till systems, using a similar strategy to that for medium ruts – for example, using a field cultivator to very gently level the surface – is advisable, followed by using a subsoiler to reset the deeper soil profile while leaving upper layers as intact as possible.

3. Consider cover crops

So you’ve levelled up your ruts – what now? Tempting as it might be to leave your fields until spring planting, repaired ruts lack the same structure as the rest of your soil and as such are prone to collapsing or re-emerging during periods of bad weather over winter. 

One of the best ways to shore up your repair work and leave soils in the best possible condition and structure come spring is to consider planting a cover crop in the late fall. Crops like winter rye are extremely hardy and can germinate in low temperatures, helping to bind the soil back together with their root systems and ensure winter precipitation is more evenly absorbed across the field, reducing the risk of runoff and reappearance of ruts.

Tillage tools for repairing ruts

Which tillage tools should be your go-to when dealing with ruts? At Wearparts, we offer a wide range of durable tillage tools designed for maximum efficiency, so you can get more done in fewer passes. Here’s a look at some of the tools you might use, depending on the severity of your ruts and whether you’re running a conventional or a no-till system.

Disc blades

Light disking is regarded by many farmers as the best way to deal with ruts. Straight disc profiles on an adjustable gang angle will knock down the tops of shallow ruts, allowing soil to fall into the cavity and leaving fields level enough to plant in spring. Concave disks have a more aggressive lateral action that can be helpful for moving larger amounts of soil back into moderate ruts.

Cultivator sweeps

As mentioned above, a field cultivator fitted with sweeps can be a useful tool for repairing ruts, especially when used at soil level so penetration only occurs on the raised walls of the rut, rather than the soil itself. Wearparts offers a range of cultivator sweeps to fit a variety of different machines, with key features such as stay-wide profiles, extended nose sections and optional hardfacing to ensure durable performance in the field. Our new Raptor-Loc sweeps offer the added convenience of a quick-change sweep that’s fully compatible with JD Perma-Loc.

Coulter blades

Coulter blades can be used alongside disc blades on a disc harrow to act as soil levelers, helping to ‘chop’ the top layer after soil has been moved back into the rut for a smoother finish.

Ripper points

Ripper points are designed for soil fracturing and can be a useful tool for breaking up the compaction that occurs in the bottom of ruts. However, they are quite an aggressive tool and are not normally recommended for use in no-till systems. We offer a range of different ripper point styles – but all with a high chrome content for advanced durability and up to eight times longer wear life than the leading competitor.

Chisel plow spikes/sweeps

A chisel plow will sometimes be used to repair severe soil compaction caused by widespread ruts. Spikes or sweeps penetrate deep into the ground to effectively fracture and lift compacted soil restoring the surface profile. However, chisel plowing is regarded as an aggressive tillage method that is not suited to no-till systems, except for isolated usage where there’s no other option. Our range of chisel plow sweeps and spikes are manufactured from heavy-duty materials with hi-chrome and all-chrome options available to maximize both performance and wear life.

Planning for spring success

If you’re out in late fall or early spring repairing ruts, it’s the perfect time to evaluate overall soil health too. You may want to consider soil testing at this point – but even if you don’t go that far, this fallow period is a great time to observe conditions in your fields, looking out for areas that would benefit from extra attention or nutrient placement ahead of planting season.

Your nearest Wearparts dealer can advise on the best parts for your specific soil conditions as you move into the new season – and from tillage tools to fertilizer knives, seed openers and harvest parts, our entire range is developed with precision, agronomic efficiency and extended wear life in mind. Get in touch if you’d like to learn more.

The post Dealing with Ruts: A Quick Guide for Farmers appeared first on Wearparts LLC.

But growing a successful winter wheat crop can be challenging, especially in the face of an increasingly unpredictable climate. In order to maximize yields, it’s vital to understand the optimal conditions for growing wheat, but also to have a good grasp of the specific growing conditions on your own farm. 

At Wearparts, we’re committed to supporting farmers with durable, high-quality parts for tillage, planting, and harvesting winter wheat crops. Let’s dive into some essential tips for winter wheat success.

First of all, why grow winter wheat?

Many farmers grow winter wheat as part of a double-cropping initiative which serves two main functions – firstly, to maximize farm outputs by growing crops all year round, and secondly, for soil conservation reasons – the wheat acting as a cover crop that prevents soil loss in the winter, plus valuable organic matter to feed next year’s main crop while simultaneously reducing dependency on herbicides. Cover cropping alone is shown to increase subsequent crop yields by 2-3%, but research shows that including winter wheat in the crop rotation – even as infrequently as once every four years – could increase subsequent soybean yields by 12%.

There are financial incentives too – in 2022, prompted by grain shortages due to the war in Ukraine, the USDA announced it was expanding the availability of crop insurance into new parts of the country, to cover some potential losses. In all, 1,500 counties where corn and sorghum can be grown after winter wheat is harvested are now eligible for insurance, reducing risk for farmers at a time of increased climate uncertainty.

What are the best soil conditions for winter wheat?

Winter wheat grows best in well-drained, loamy soils with moderate levels of organic matter. Soil pH is also critical, with an ideal range between 5.5 and 7.0. 

One of the most common challenges farmers face is managing soil compaction, especially in no-till systems or after heavy machinery use. This is where proper tillage comes in. At Wearparts, we provide durable tillage tools that can help alleviate compaction, improve soil aeration, and enhance water retention, setting the stage for a successful winter wheat crop.

When is the best time to plant winter wheat?

The question of when to plant winter wheat is always a hot topic for farmers, especially in locations with hot, arid summers where spring wheat isn’t a viable option. 

The ‘fly free date’ is a key milestone for farmers, determining when it’s safe to plant wheat and avoid problems associated with hessian flies – this typically occurs in early to mid-September depending on location.

Winter wheat must be planted early enough for the young crop to reach 10-15cm in height, with mature enough roots to survive the dormant winter phase. Plant too early following a dry summer, and you risk low emergence. Plant early when conditions are wet, and there’s a chance your wheat will get too tall, too soon – leaving it vulnerable to lodging (where the stalks get flattened) during winter storms. 

Plant your winter wheat too late, however, and it won’t have a chance to grow on enough to then survive the dormant winter phase – winter wheat needs temperatures to drop to at least near freezing for the plant to enter its reproductive cycle, and won’t yield seed until it endures a prolonged period of cold conditions, below 40°F (4°C). Deep, persistent freezing can, however, kill off the young plants.

Getting it right is all about knowing your own microclimate, monitoring the weather closely and making smart decisions about when and how deep to plant winter wheat. Of course, choosing quality tillage and planting tools to get seed in the ground right first time is vital – and that’s where a manufacturer like Wearparts can make all the difference to your crop yields.

What’s the best seed variety for winter wheat?

Selecting the right variety of winter wheat is one of the most important decisions you’ll make when planning your crop. Different varieties thrive in different regions, so it’s essential to choose a variety that suits your local climate and soil conditions. Cold tolerance, disease resistance, and yield potential are key factors to consider.

For farmers in the northern U.S., cold-hardy varieties with strong winter survival rates are crucial, while those in the southern regions may focus more on disease resistance. Always consult with local agricultural extensions or seed suppliers to find varieties best suited to your region.

What’s the recommended seeding rate for winter wheat?

The best seeding rate for winter wheat depends on a whole range of factors including region, soil conditions, planting date and seed size. These days most farmers calculate seeding rates in seeds per acre, as opposed to lbs of seed per acre – and the rate can vary from 300,000 to 2,000,000, with a typical range of between 1.2 and 1.8 million seeds per acre. 

As a general rule, winter wheat that is planted earlier in the year can cope with a lower seeding density since emergence will be higher, but it’s still important to establish a good crop stand early in order to minimize competition from weeds and reduce the need for herbicides.

When you plant later, you’ll typically plant more to mitigate for failed germination – but the risk here is that warmer conditions and abundant rainfall will result in higher than expected germination rates, which can increase the risk of lodging or disease due to poor airflow.   It’s recommended to run some seed rate strips so you can learn what works best on your farm for specific planting conditions.

Managing weed populations in winter wheat

Weed pressure is a significant challenge during the fall in winter wheat production, when essential warmth and rainfall required to get young crops up out of the ground quickly tends to have the exact same effect on competitors like wild oats, foxtail, and chickweed..

Many farmers use a combination of pre-emergent and post-emergent herbicides to manage weed growth. However, crop rotation and mechanical weed control, such as using robust tillage equipment, can also reduce weed populations. Wearparts offers high-quality tillage tools that help keep fields clear before planting, giving your winter wheat the best chance to thrive.

Want to know more?

Growing winter wheat requires careful attention to soil preparation, seeding rates and weed control. By taking a strategic approach to each stage of the growing process, farmers can maximize their yields and profitability.

At Wearparts, we’re here to support you with high-quality, durable parts to assist with tillage, planting and harvesting wheat. From quality seed openers and air seeder parts to gauge wheels, cultivator sweeps and cutting components, our products deliver proven performance that saves you time and money while maximizing yields. Find your nearest Wearparts dealer here, or get in touch for advice from our customer service team.

The post Maximizing Winter Wheat Yield: A Guide for Farmers appeared first on Wearparts LLC.

Our focus on tillage and planting has meant we’ve always had a gap in our offering when it came to harvest season, and therefore we’re extremely excited to announce that for the first time in Wearparts history, we’re adding harvest parts to our portfolio – and an exciting new partnership with German-based manufacturer, Group Schumacher.

Who are Group Schumacher?

Originally founded in rural Germany in 1827, today Schumacher GmbH is a global group employing more than 600 people in seven offices and factories in Germany, USA, Brazil, Russia and China. Still family owned and operated, the company is a recognised world leader in the development of innovative cutting and drive systems for the perfect harvest.

There are a number of brands under the Schumacher umbrella, including Sch® cutting technology, EWM® drive systems, Rasspe® knotting and binding solutions and Radura® replacement cutting parts.

Why are Group Schumacher a good fit for Wearparts?

One of our biggest passions at Wearparts is empowering our dealers to give farmers more choice when purchasing replacement parts for their tillage, planting and harvesting equipment. In particular, we’re passionate about offering them an alternative to OEM parts which, in our experience, can be hit or miss in terms of their quality and durability even though they tend to be at the higher end of the market on price.

As a result, we’ve invested a lot of time and effort into sourcing premium quality aftermarket parts produced by companies that share our commitment to performance at the top end of the market, as well as producing our own Wearparts branded parts that meet or exceed typical OEM specifications. We’re very proud to bring our customers seed opener technology from Forges de Niaux in France and cutting-edge ag bearings from FKL in Serbia – and now world-leading cutting technology from Group Schumacher.

Schumacher is a perfect fit for Wearparts because they share our vision on innovation and long-lasting quality. Their product design process is meticulous and informed by real feedback from real farmers, incorporating clever engineering that solves operational problems for more efficient farming operations. From our first meeting with Schumacher, we were blown away by their attention to detail and excited about what their products could bring to the Wearparts range both in terms of variety and performance.

Which Group Schumacher products will you be offering?

We’re currently offering a wide range of products from Group Schumacher’s Sch®, and Radura® brands. Here’s a look at some of the products you’ll find in our new harvest catalog:

EasyCut II

EasyCut II is a modular, universal cutter bar system from Group Schumacher that is designed to deliver optimal cutting performance with less vibration, less wear on both components and combine, and greater fuel efficiency with less downtime.

All parts of the system are bolted for easy handling and replacement, and the modular design suits all common cutter bars, offering customized solutions, especially for extra wide headers.

Fully hardened and galvanized sections mounted in a face up/face down arrangement, with optimized teeth to suit all crops and optional top and bottom roller guides, the EasyCut II’s knife has an extremely smooth action for clean, efficient cutting and maximized yields.

Schumacher’s innovative spring steel guards are precision engineered for superior knife control and manufactured using a special tempering process that delivers a hardened surface and flexible core for superior stability and durability. A variety of options are available depending on the crop being harvested.

EasyCut II key benefits:

• Exceptional stability
• Excellent cutting force
• Smooth and quiet operation
• Universal system for all combines and crops
• Maintenance-free
• Great resistance to wear

Radura® Cutting Components

The Radura® brand specializes in replacement parts for cutting, chopping and harvesting grain, grass and soybeans.

Exposed to enormous stress and strain, parts such as knifeheads, knife sections, mower blades, rakes and guards need regular replacement and Radura® offers high-quality, perfect-fit parts every time. We’re offering a wide range of options to fit all common machinery brands, with hardened knife sections, precision engineering and superior wear resistance as standard.

Radura® key benefits:

• Bolted elements for easy replacement
• Easy exchange of sections and knife sections
• Convenient shipping in compact boxes
• Maximum resistance to breakage & wear
• Multiple options for various crops
• Multiple attachment options

What other harvest parts will you be stocking?

In addition to the Group Schumacher range of harvest parts, we’re proud to announce that we will also be supplying a wide range of aftermarket harvest parts under the Wearparts brand.

This includes a huge array of one-piece and sectional sickles, ranging in size up to 40ft, plus sectional knifeheads and a wide range of other premium quality components to fit all common harvesters, including Case, Ford, Hesston, John Deere, MacDon, New Holland and more.

You can now browse our Harvest Catalog online here, or click here to find your nearest Wearparts dealer. Alternatively, contact our sales team for further information about our harvest parts range.

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But what was once hailed as a miracle solution to invasive weeds is now being flagged as a significant threat to food security as new strains of herbicide-resistant weeds spread across the country, squeezing out crops.

But how does herbicide resistance develop? How widespread is the problem – and what can farmers do to overcome it? Let’s explore the situation in more detail.

How does herbicide resistance occur?

Herbicide resistance is the inherited ability of a plant to survive and reproduce following a dose of herbicide that would normally be lethal to that plant. It’s linked to the repetitive use of the same herbicides. In every weed population, there will be a very small number of individual plants that look the same as all their counterparts, but have very slight genetic differences that enable them to survive herbicide application and go on to self-seed. At first, it might just look like a few plants or a small patch got ‘missed’. But over time, when the same herbicide is used every year, the offspring of these plants eventually become the dominant weed species, with the majority of plants now able to withstand the herbicide.

How bad is herbicide resistance in the US?

The top four most popular agricultural herbicides used in the US are glyphosate (Roundup), Atrazine, 2,4-D and Dicamba, with glyphosate being the longest in use and also the most widely used, while current generation Dicamba is the newest, having been approved for use over GMO dicamba-resistant crops in 2016.

Research from the International Survey of Herbicide Resistant Weeds, which collects data from more than 80 countries worldwide, shows that glyphosate is losing effectiveness against 361 weed species, 180 of them prevalent in the US. Some 21 species already show resistance to Dicamba.

It’s estimated that some 60 million acres of US farmland are already infested with herbicide-resistant weed species – nearly half of all farms – and this number is growing every year. “We’re in for big problems over the next 10 years for sure,” Ian Heap, director of the International Survey of Herbicide Resistant Weeds, told news agency Reuters in 2023. “We are in for a real shake-up.”

Which herbicide-resistant weeds present the biggest threat?

Problematic weed species include pigweed and waterhemp species (amaranths) as well as kochia, ragweed, horsetail, foxtail and ryegrass.

Herbicide-resistant pigweed and kochia are arguably some of the most troublesome species, particularly pigweed, which can re-root itself after being pulled up and can grow up to three inches per day. Palmer amaranth is known to be resistant to six different types of herbicide and can suppress soybean yields by nearly 80 percent – corn yields by 90 percent.

Kochia exhibits rapid growth in late summer, reaching up to 6ft tall and producing up to 30,000 seeds per plant. It can reduce crop yields by up to 70% according to Take Action, a farmer resource program of the United Soybean Board.

What can farmers do to tackle herbicide resistance?

Experts in agriculture tell us that herbicide resistance isn’t going away, with some predicting that problematic species could become completely resistant within a decade. Many farmers live in hope that a new ‘miracle’ herbicide will come along in the same way that glyphosate did in the 1960s.

But it’s clear that weeds are evolving faster than man can produce new weedkillers. Roundup’s manufacturer spent 10 years bringing a new generation of genetically modified seeds, bred to resist both glyphosate and dicamba, to the marketplace. It took the weeds just 5 years to catch up – by 2020, scientists had confirmed the existence of dicamba-resistant pigweed.

Advice from the experts is that integrated weed management – a combination of chemical and mechanical methods – is key to slowing the proliferation of herbicide-resistant weeds because even so-called ‘zombie weeds’ can’t survive being mechanically chopped down, which means they can’t pass their herbicide-resistant genes on to future generations.

Six tips for integrated weed management:

1. Rotate herbicides
   Avoid making more than two consecutive applications of the same herbicide (or different brands with the same mode of action) in the same field.
   
2. Use tank mixtures
   Certain herbicides can be mixed together in the same tank and applied simultaneously for greater weed-killing effect. You should aim to use herbicides with differing effective modes of action (for example, some herbicides are root growth inhibitors while others stop the plant from photosynthesizing) and ALWAYS follow the manufacturer’s directions for safe usage.
   
3. Rotate crops
   Diversity is key to the prevention of herbicide resistant weeds – and weeds in general. When you switch up the crop, you switch up the environment – the amount of light and moisture, the types of pests, the soil nutrients – which means the weeds are constantly having to adapt. This prevents one weed species from becoming dominant.
   
4. Scout your fields
   Be vigilant for weed escapes that can mark the start of a resistance problem on your farm. What looks like a ‘missed patch’ is often a canary in the coal mine. Take steps to identify and eliminate any significant weed stands before they become a larger problem – which can happen from one year to the next.
   
5. Reduce residual times
   Use herbicides with short soil residual times—herbicides with long soil residual times generally favor herbicide resistance. This is because long residual times keep susceptible plant species suppressed for longer – so resistant variants have even less competition to keep them in check.
   
6. Practice good biosecurity
   Clean your equipment before moving to a different field to prevent the spread of resistant biotypes and save work in fields with suspected herbicide resistance for last.

Premium weed management tools

At Wearparts, we supply an extensive range of premium tillage tools suitable for effective weed management that leaves young crops undisturbed, including cultivator and Fallowmaster-style sweeps, trash management tools and more – check out this blog on mechanical weed management, or contact us for further information.

The post Attack of the zombie weeds: How herbicide resistance is threatening US crops (and what farmers can do about it) appeared first on Wearparts LLC.

High-speed tillage in particular puts some pretty heavy-duty axial and radial loads on your disc blades and when you combine this with difficult soil conditions – specifically dry, sandy and dusty fields – it’s a recipe for extreme wear and tear on your discs AND bearings. 

Selecting high quality bearing hubs can mitigate this by working to spread loads more evenly and stop contaminants from getting into the hub itself, prolonging lifespan. But what should you look for in high-quality agricultural bearings? Let’s take a look at the options.

What materials are quality agricultural bearings made from?

Agri bearings are typically made from steel, or sometimes a mixture of cast iron and steel. The bearings themselves are normally made from high-grade steel while the bearing housing can be made from pressed or forged steel, or cast iron. 

These materials offer an extremely high level of tensile strength and abrasion resistance, which is necessary for agricultural applications.

Quality bearing hubs will be made from high carbon or high chromium steel for improved strength, durability and wear resistance. Beware of low-grade carbon steels often used by cheaper manufacturers in the Far East – these are much more prone to excess wear and premature failure.

Should I choose cast or forged bearing housings?

Premium quality agri bearing hubs will typically have forged as opposed to cast housings. But what’s the difference?

Forged bearing housings

Forging is where the metal is heated until it becomes pliable and is then mechanically formed into a new shape – in the case of agricultural bearing housings, typically a cup-shaped housing with an exterior flange.  Forging uses less heat than casting which allows the metal to retain its full structural integrity. A forged bearing has no parting lines or joins, reducing the risk of weak points.

Cast bearing housings

Housings can also be produced by casting, which means heating the metal until it is liquid and pouring it into a mold. For bearing housings, the mold will usually have two parts that are filled separately and then joined together before the metal cools and hardens. 

Cast housings are easily identified by their ‘parting lines’ which is a visible join where the two-part mold was brought together. This is where most housing failures will occur. The extreme heat used to liquefy the metal can also cause an overall loss of strength, making cast bearing housings a less reliable choice.

What type of bearings are best for agricultural applications?

Good quality agricultural bearings will use angular contact ball bearings as opposed to simple roller bearings. 

Angular contact ball bearings are so named because of the offset contact between the inner and outer ring raceways. These are displaced relative to each other in the direction of the bearing axis, allowing the bearing to sustain significant axial loads in one direction at the same time as radial loads.

Angular ball bearings for agricultural use are typically assembled back-to-back in pairs. The double row allows the bearing assembly to sustain axial loads in both directions, which is a common requirement when working in field conditions.

What load rating do I need?

It’s important to say that any bearings you choose should be specifically designed for agricultural use and the extreme, variable loads that are placed upon disc blades as they travel through the field.

When determining the load rating you require, you need to consider the soil conditions and also the speed of travel, since loads are increased at higher speeds. 

Beyond this, you should refer to the manufacturer’s guidance for your toolbar or planter when selecting the appropriate load rating for your needs. At Wearparts, we supply bearing hubs to fit all common machinery brands, with load ratings equal to – or in many cases greater than – the OEM specification.

What other features should I look for in an agricultural bearing?

In addition to key features around the physical materials and construction of a bearing hub, there are a number of design features that can influence the efficiency and durability of agricultural bearings. These include:

Sealing

Agricultural bearings operate in highly contaminated conditions where mud, grit/sand, slurry and crop residue can contribute to wear and tear on both blades and bearings. If these contaminants get inside the hub itself, they can cause wear to the ball bearings, drive grease out, and eventually cause the bearing to seize.

For reliable performance and extended wear life, look for premium bearings with next-generation sealing technology that prevents contaminants from getting in, and grease from getting out. There are a number of options on the market designed to hermetically seal the chambers of the hub against moisture and contaminants. 

At Wearparts, we’re the exclusive US distributor of FKL hubs with their proprietary Dirtblock seal. Each chamber within the bearing is completely sealed and filled with grease – there’s no grease zerk because you never need to add more grease, the hubs are completely maintenance-free. In lab testing, we’re able to show that these hubs last up to 5 times longer in dry, dusty conditions than the conventional solutions of leading competitors.

Flanges & Fasteners

The flange is where the blade is directly connected to the hub using rivetsor bolts. This join is important because it plays a key role in the way that forces exerted on the blade are distributed across its surface and transferred to the bearing hub itself. 

A larger flange with larger rivets will offer more heavy-duty performance, with reduced risk of breakage, but will also help to even out the moment of the force being exerted on the disc blade, extending the life of both the blade and the bearing hub.

 Want to learn more?

If you’re not sure which FKL hub is compatible with your machine, or if you’d like advice on selecting the best hub for your specific soil conditions, our expert team will be happy to help. Simply get in touch for more information about any of our agricultural hub bearings.

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