The Not-So-Hidden Cost of Erosion

During these winter months, the AgSpire technical advisors and myself often work with farmers to help address a common issue: soil erosion.

Click here to read about the critical role that cover crops play to combat soil erosion >>>

When visiting farms in the Northern Plains and across the Midwest, it is common to see what is referred to as snirt. This is the combination of snow and dirt that accumulate in ditches during the snowy winter months in northern latitudes. Not having the soil armored during the winter allows for topsoil to be eroded from the fields and transported anywhere downwind, including ditches.

Topsoil mixed with snow in a ditch in Eastern South Dakota

These pictures are of a snow drift near my house in eastern South Dakota.  Much of the soil came off a field that had soybeans on it last year and will go to corn this spring. To prepare for the coming corn crop, it is most likely P (phosphorus) and K (potassium) were applied in the fall to give the field more nutrients before planting. Because of the fall application and the fallow soil, these nutrients have the potential to leave the field as soil erodes, ending up in the ditches instead.

Analyzing lost nutrients

To see how much fertility was being lost to erosion, I collected a soil sample from a snirt pile near my house. The soil sample analysis showed (full analysis at end of article):

> Very high range for P (31 ppm, weak bray), Mg (magnesium, 399 ppm), and Ca (calcium, 4133 ppm)

> Medium range for K, with 178 ppm

These are all nutrients that are being lost before a plant can ever utilize them. Not to mention, this lost topsoil is also the best regarding humus, organic matter, and CEC rating – making it critically important to best nurture a coming crop.

As the snow melts, what happens to these nutrients? Some will be utilized by the fauna in the ditch, while most of it will be washed into drainage systems and transported to water ways and eventually to the Gulf of Mexico.

The cost to producers

This lost fertility represents a huge loss to the farmer. Rough calculations show a yearly cost of nutrient loss per acre to be:

> Phosphorus: $196.80

> Potassium: $581.16

By simply multiplying the ppm number of P and K by two, we can calculate the lbs/acre for each of the nutrients from the soil report. We can then calculate the P and K fertilizer values with the lbs/acre lost from the soil sample. A ton of MAP (11-52-0) cash price is $820 with a ton of MOP (0-0-60) at $490 cash price. It takes 120 lbs of MAP/acre to equal 62 lbs p/acre while it will take 593 lbs mop/acre to equal 356 lbs k/acre. With these number we can calculate the field loss as $49.20 in P and $145.29 in K per acre in a three-month span.  We can quadruple these number for a per acre yearly cost of nutrient loss.

These are just rough numbers from a single soil sample – but reveal the potential cost of these nutrients being blown off fallow fields every year. Soil erosion and degradation is a sneaky and leaky drain on producers’ financial well-being and the sustainability of our food system.

By following soil health principles, producers can significantly reduce the soil erosion in their operation and keep the most productive, valuable portion of a field in the field. It doesn’t matter if you look at soil erosion from an environmental point of view or an economical one – it doesn’t pencil out in the long run.

About the Author

Derek Ver Helst | Senior Conservation Agronomist

Derek holds a bachelor’s degree in Biology from South Dakota State University and a master’s degree in Agronomy from Iowa State University. He is a Certified Crop Advisor (CCA), Technical Service Provider (TSP) for the NRCS, and is also a small business owner. Prior to joining AgSpire, Derek spent more than 15 years working with landowners and corporations to design, manage, and validate research trials to maximize short- and long-term crop outputs.

Enhancing Biodiversity: The Critical Role of Grazing 

Biodiversity is more than a buzzword. It is a critical component of shaping the future of healthy and productive working lands. At AgSpire, we believe that understanding and harnessing biodiversity is not merely about compliance; it’s about adopting a transformative approach that elevates the land’s productivity and resilience for future generations.  

In the realm of ranching, biodiversity encompasses a range of plant species, soil organisms, insects, and wildlife, each playing a vital role in nutrient cycling, soil health, and forage quality. This rich diversity is an ally in building robust grazing systems, capable of withstanding environmental stresses. More importantly, it directly contributes to improved herd health and overall productivity.  

As our team develops programs related to grazing management and advises ranchers, here are four ways we can contribute to enhanced biodiversity – and deliver positive impact for ranchers: 

> The Synergy of Grazing and Plant Growth 

For grazing management to truly be effective, it must be underpinned by a deep understanding of the plant growth patterns for all the species present in the field. By aligning grazing intensity and timing with these plant growth patterns, ranchers can see a more a more consistent supply of forage while also promoting the long-term health of plant communities.  

When visiting a ranch, our technical advisors help analyze current plant community types to understand their growth cycles and timing, and using this knowledge to make informed grazing decisions. 

AgSpire advisor works with a rancher to analyze his pasture and plan for improvements.

> Rest, Rotation, and Resilience 

While rest and rotation are commonly associated with forage management, they are equally crucial for nurturing biodiversity. Properly timed rest periods allow for the establishment of new plant communities, vital for maintaining a diverse ecosystem. Appropriate rest can be challenging, especially during extreme weather conditions, but the long-term resilience and health of biodiverse grazing acres are invaluable assets during tough times. 

> Rangeland Succession: A Strategic Approach 

Rangeland succession – or the replacement of unhealthy plant communities by another – is just like managing a herd’s genetics; it requires a hands-on, strategic approach with long term vision. This process can significantly impact your land and herd – for better or worse – and therefore, must be guided intentionally. Practices like diverse seeding, controlled burns, and managed grazing are key to fostering a variety of plant species that support a healthier ecosystem. 

> Legumes: A Natural Boost to Your Grazing Lands 

Incorporating legumes pasturelands is a game-changer. These nitrogen-fixing plants enhance soil fertility, reduce fertilizer needs, and provide high-quality forage for livestock. By incorporating legumes, a rancher is not only improving soil health but also boosting the protein intake for their cattle.

About the Author

DREW SLATTERY
Senior Sustainability Project Manager

Drew Slattery, with his extensive experience in the regenerative agriculture and corporate sustainability realm, is committed to enhancing the impact on natural resources and the climate across global supply chains.

Throughout his career, Drew has partnered with leading agricultural and food brands to evolve their supply chains for greater sustainability and reduced carbon footprints. This has given him a broad range of expertise – from remote sensing, to ag media, producer  engagement, behavior change programming, and corporate sustainability – and experience working with the beef, dairy, row crop, and specialty crop sectors.

Meeting Farmers and Ranchers Where They Are

Earlier this year, AgSpire announced our latest initiative – The SustainAg Network. Through this network, we are connecting farmers and ranchers to innovative programs and new markets that align with principles of conservation, sustainability, and regenerative agriculture.  

Read the announcement about The SustainAg Network Launch here >>> 

Since that announcement, the AgSpire team has traveled around the country to meet with producers, leading recruitment for our program portfolio. This boots-on-the-ground approach has given us the opportunity to meet with hundreds of farmers and ranchers, learning first-hand about their goals, motivations, and barriers to sustainable practice adoption.  

 These efforts have revealed several key takeaways for program design and implementation: 

> Producer interest and acceptance  

Producers want to do what is good for the land, their animals, and their businesses – and recognize the value that positive environmental outcomes bring to their operation. There is widespread interest in sustainability programs, both for private-market programs as well as public conservation programs, like EQIP or CSP.  

With a rapidly changing landscape though, many producers are seeking more clarity from these programs. Straightforward requirements, conscious data privacy policies, clear business and agronomic value, and simple incentive structures drive greater interest among farmers and ranchers. 

> Personalized assistance 

As we’ve traveled to different parts of the country, it’s evident that there isn’t – and can’t be – a one-size-fits-all approach to sustainability. Practices must be fine-tuned to an operation for successful implementation. Personalized assistance allows producers to problem-solve and find the right practices and tactics to achieve on-the-ground success.  

This reality contributes to a prevailing hesitation among producers to enroll in programs that lack human interaction. The assurance of one-on-one technical assistance has been a driving factor in program sign-ups so far, offering producers the comfort of relying on experienced individuals for guidance in deploying sustainable practices. 

> Producer-centric program design 

Overwhelmingly, producers are inclined towards voluntary, incentive-based programs that can layer into their current business operations. Rather than require entirely different production models and methods, programs and practices that can fit into and enhance current rotations and commodities have been well received.  

For example, our Grass is Greener program is a first-of-kind program that generates a premium for livestock based on regenerative practices without giving up efficiencies. The appeal lies in the fact that incentives are delivered in the form of practices, and premiums are seamlessly paid through the commodity, offering a straightforward and transparent structure.

AgSpire’s Matthew Delbar and Ryan Eichler met with producers at this year’s South Dakota Cattlemen’s Association Annual Convention.

Ryan Eichler shared about AgSpire’s work and The SustainAg Network with Agweek during the South Dakota Cattlemen’s Association convention:

> Read the article here

> Or watch his interview here

About the Author

RYAN EICHLER
Director of Producer Programs

As the Director of Producer Programs, Ryan leads AgSpire’s work to build supply shed networks of producers who are interested in participating in Scope 3 carbon programs. Ryan brings 20 years of experience in the ag industry, working directly with producers in sales roles at companies that include Cargill, Elanco, DSM, and Millborn Seeds. A 2001 graduate of South Dakota State University, Ryan holds a B.S. degree in Animal Science. He and his Family live at rural Lake Preston, SD, where they are active in a family livestock farm.

First Practices Implemented Under Partnership Programs

After the announcement of the “Grass is Greener” and “Covering America” projects last year, we’ve entered an exciting new phase of this work: implementation. Following a successful first enrollment season, the AgSpire technical assistance team is now working with farmers and ranchers enrolled in our programs to select and implement new practices like cover cropping, reduced and no-tillage, perennial seedings, holistic grazing, and nutrient management – among others. Our team works with each enrolled producer to help identify the best options and practices for his or her operation and goals. This month, we’ve seen the first cover crops planted, grazing plans implemented, and soil samples pulled.

During the winter season, cover crops are a primary focus. Cover crops are plants grown to produce living “cover” on fallow ground between subsequent cash crops. This living cover provides so many benefits: erosion is reduced, soil health indicators are increased, water availability and infiltration are enhanced, weeds are suppressed, pest and disease cycles are broken, and biodiversity is increased.

Despite these manifold benefits, matching the right cover with the right field at the correct time can seem complicated and overwhelming when first starting to use cover crops in a rotation. Timing, winter moisture, soil type, equipment needs, and need for forage can all factor into if, when, and how to use cover crops. We strive to help farmers overcome these challenges, focusing on the core goals they are attempting to achieve through the practice, while experimenting, learning, and adapting to what works the best for their farm. 

A Deep Dive into Cover Crop Benefits 

Typical fallow periods in the upper Midwest and Great Plains – where our grant programs are currently focused – tend to range from October to late May. Close to six months of the year with nothing growing!  During fallow months, soil erosion and movement is so evident and common place that there is a colloquial term for it: “Snirt,” the combination of snow and dirt. In most cases topsoil from nearby fields is blown into ditches where it mixes with snow, leaving a pile of soil in the ditch in the spring once the snow melts. The topsoil that is left in the ditch is the highest fertility, most productive soils. Some estimates indicate that the loss of major nutrients in one inch of topsoil costs farmers roughly $688.40 per acre (NDSU Extensions, Crop and Pest Report).

Cover crops play a major role in combating this erosion, helping ensure that the healthiest soils are held in place and available for spring planting. The vibrant, green, living vegetation growing in a winter field means the soil is covered and protected from the impacts of wind and water, holding the topsoil in place. 

While this above-ground benefit is easy to see, much of the benefit that a cover crop offers is found beneath the ground, not immediately visible to us: 

> Water Retention: Living vegetation and expansive root systems increase water infiltration and absorption by creating pores and channels within the soil profile, granting water the opportunity to soak in, like a sponge, and reduce runoff over the soil surface, directly into drainage ditches and waterways. When water is absorbed, it is conserved, and utilized by plants and other terrestrial organisms.

> Biodiversity: Typical ecosystems of the upper Midwest evolved with around 10-30 species of grasses, broadleaves, and woody species of vegetation covering the landscape. Countless species of insects, and various forms of wildlife co-evolved to develop natural ecosystems that were highly diverse and intricate. By grazing the high nutrient, protein packed forage provided during usually lean winter months enables producers to mimic mother nature and harness the positive effects of a healthy soil and ecosystem.

> Carbon Capture: Plants use sunlight and carbon dioxide to make carbon-based molecules through photosynthesis. Much of the exudates produced by plants are utilized by microorganisms within the soil. Over time, a buildup of carbon-based, humic materials increases and are gradually built into soil organic matter. These natural systems make agricultural soils a vast “sink” for carbon sequestration and contribute positively to Greenhouse Gas (GHG) emissions and climate change mitigation. 

About the Author

DEREK VER HELST
Senior Conservation Agronomist

Derek has over 15 years of experience working with landowners and corporations to design, manage, and validate research trials, maximizing short- and long-term crop outputs. With a continued passion for conservation and the natural ecosystem, he is focused on the natural symbiosis organisms have with one another in the environment. Always eager to learn, he is continuously expanding his knowledge of soil health, chemistry, and pest disease management.

Derek holds a bachelor’s degree in Biology from South Dakota State University and a master’s degree in Agronomy from Iowa State University. He is also a Certified Crop Advisor and Technical Service Provider through NRCS.

Understanding Carbon Intensity Scores

Carbon intensity (CI) is simply defined as carbon dioxide emissions per unit of energy. While the definition might be simple, figuring a CI score is anything but simple.

Carbon dioxide makes up the majority of greenhouse gas emissions across all industries, including the agricultural sector. Carbon Intensity Scores allow us to quantify and compare the emissions associated with producing, distributing, and consuming a product or activity. A higher score indicates a higher carbon footprint.

Ascertaining for a unit of feedstock produced and crediting the correct amount of carbon sequestered is a complex task with a high level of uncertainty. Many data points need to be measured, recorded, and verified to develop an accurate CI number. MRV platforms help assist in collecting and compiling the data necessary to calculate CI numbers efficiently and accurately.

On a farm, a CI Score accounts for all up- and downstream emissions per unit of output – including that of the practices and inputs used. In particular, scores are affected by fertilizer and chemical application types and rates, on-farm energy consumption per unit area, and yield per unit area. While each farm and system vary, the fertilizer and chemical application types and rates contribute the most to a CI score, on average.

With agriculture systems serving as the origin for so many of our products, this has huge implications for CI Scores off the farm as well. With our in-house expertise in MRV, we are helping companies better understand their carbon footprints and the right strategies to reduce or sequester emissions.

There is a growing body of evidence that shows that regenerative agriculture can have a positive impact on CI scores.

> A study published in the journal Nature found that regenerative agriculture could help to reduce global greenhouse gas emissions by up to 10 percent. Read More >>>

> Another study published in the journal Science, found that regenerative agriculture could help to improve water quality and increase biodiversity. Read More >>>

The environmental benefits of regenerative agriculture are numerous and stretch throughout the value chain.

Contact AgSpire to learn more about your Carbon Intensity Score and how to unlock the potential of regenerative agriculture, email info@agspire.com.

About the Author

DEREK VER HELST
Senior Conservation Agronomist

Derek has over 15 years of experience working with landowners and corporations to design, manage, and validate research trials, maximizing short- and long-term crop outputs. With a continued passion for conservation and the natural ecosystem, he is focused on the natural symbiosis organisms have with one another in the environment. Always eager to learn, he is continuously expanding his knowledge of soil health, chemistry, and pest disease management.

Derek holds a bachelor’s degree in Biology from South Dakota State University and a master’s degree in Agronomy from Iowa State University. He is also a Certified Crop Advisor and Technical Service Provider through NRCS.

Facilitating Landscape Change

As a trusted advisor to the ranchers we work with, my goal is to understand the ranching operation, its business goals, and the environment where it exists. With that baseline understanding, I help the ranchers find the best path to reach their goals and improve their long-term sustainability and resilience.

This spring, that work took me to a small community in the Northwest US, where I worked with several ranchers in the same geographic area. Ranging in size and approach, I worked with them to meet their goals: enhance biodiversity, improve weather resilience, conserve grazing land, and simplify operations to improve management.

Despite operations that looked and functioned very differently, each rancher was affected by a common concern around the availability of irrigation water. In this project cohort, each rancher was located within a few miles of each other, where they shared one reservoir for irrigation. The irrigation practices they used at the time were water-intensive flood tactics, contributing to the depletion of the reservoir each summer. This limited forage output – affecting the viability of their ranching operations. By coming together as a group, the ranchers were able to learn about water conservation opportunities from one another, including potential ways to upgrade their irrigation equipment.

While individual efforts make a difference, the collective impact of working in a clustered geographic area revealed the power to bring about landscape-level changes. This collaborative approach enables producers, organizations, communities, and/or governments to pool their efforts and tackle complex challenges. The cumulative effect of these endeavors leads to significant impact, especially for shared resources like water.

About the Author

MATTHEW DELBAR
Grazing and Rangeland Advisor

Matthew brings vast experience managing and restoring rangeland ecosystems and an excitement to expand his knowledge of restoration and sustainability on working landscapes. Prior to joining AgSpire, he was a rangeland management specialist at USDA-NRCS Field Office in California.

Matthew holds a bachelor’s degree in Rangeland conservation and agricultural economics from the University of Idaho. He also holds NEPA and Wildland Restoration certifications and is a certified Technical Service Provider (TSP) through NRCS in 10 states and across 6 practices.

He maintains strong ties to his family’s ranch operations in California where they raise cattle, sheep, hay, and timber.

Supporting Pollinators with Regenerative Agriculture

As crops are planted and start to emerge across the country, the critical role of pollinators are ever more evident. These beneficial insects play a critical role in our global ecosystems – and especially in our agriculture and food systems.

Regenerative practices like cover crops, diverse seedings in pastures, and insectary strips are ways that farmers and ranchers can help support pollinators, providing food and habitat for them to thrive.

AgSpire’s Dale Strickler works with farmers and ranchers around the country to find the best management practices to build resilience, conserve natural resources, and improve sustainability. In this Mini Podcast episode, Dale shares more about supporting pollinators – and some of the other benefits that these management practices offer to our agricultural lands.

YouTube >>> How Regenerative Agriculture Supports Pollinators with Dale Strickler

USDA Approves Vaccine for Honeybees

by Derek Ver Helst

Bee health is getting the buzz it deserves with a new vaccine to fight American foulbrood, a fatal bacterial disease that is decimating bee populations across the country. The first-ever USDA approved vaccine for insects, along with improved, holistic ecosystem management practices, are both showing promise for protecting and rebuilding the population of these important pollinators. 

The Critical Role of Bees 

Bees play a critical role for the health of ecosystems around the world – including the health and security of our food systems. As honeybees consume pollen and nectar, they pollinate about a third of the world’s food crops, allowing them to grow and flower. In addition to natural occurrences, beekeepers often lease their hives and colonies to farmers to assist in annual pollinations of crops like almonds, pears, cherries, and apples, among others.  

However, in recent years, bee populations have decreased at alarming rates, posing a great threat to our natural and agricultural systems. Many factors have contributed to this crisis, including parasites, habitat loss, exposure to pesticides, climate change, and disease. 

A First-Of-Its-Kind Vaccine 

One such disease is American foulbrood (AFB), a fatal bacterial disease affecting honeybee colonies around the world. Infection can severely weaken even a healthy and strong colony, leading to its complete collapse. Once many of the brood have died and the colony is collapsing, the hive will produce a foul odor, contributing to the name of the disease. 

Previously, the only way to manage AFB was to destroy infected colonies and materials – making the new USDA-approved vaccine a much-needed innovation for supporting bee health and productivity. The vaccine is feed to the queen bee in an infused sugar mixture. She then passes the immunity down to her offspring, and over time, immunity spreads throughout the entire colony. 

Ecosystem Management for Pollinator Health 

While it is a revolutionary innovation, the vaccine is not a magic bullet for protecting bees, as it addresses only one cause of bee population decline. Many other natural and anthropogenic factors have contributed to the recent decline of bee populations. Understanding these factors and addressing the interaction of species in an environment is important to overall sustainability, biodiversity, and longevity goals. 

By utilizing the principles of regenerative agriculture, farmers and ranchers are promoting bee health with nature-based solutions. For example, flowering cover crops and pollinator-friendly buffer plantings support pollinators, while also agronomically benefiting agricultural crops. Similarly, improved soil health practices can lead to reduced pesticide use, which protects these beneficial insects.  

With these improved management practices, agriculture is specially positioned to help mitigate and reverse environmental degradation, having a profound and positive impact – not just on bees, but on the ecosystem as a whole. 

Learn More and Next Steps 

Farmers, NGOs, government partners, and companies worldwide are investing in the natural solutions that agriculture offers for pollinator health. 

Certifications: Brands are working toward certifications like Bee Better Certified or Bee Friendly Farming Certified, while other companies have made significant commitments to support and source from bee-friendly farms. See how Blue Diamond and KIND are supporting pollinators.

Improved Practices: Research suggests that pollinator-friendly plantings yield agronomic, economic, and environmental benefits on farms. Learn more about agriculture’s role in pollinator conservation and ecosystem service delivery.

AgSpire works across the agriculture value chain to develop and implement sustainable agriculture projects that promote pollinator health, among other ecosystem benefits like soil health, carbon capture, and water conservation. Contact Us to visit with our landowner advisory team and learn more about supporting bee health.

About the Author

DEREK VER HELST
Senior Conservation Agronomist

Derek has over 15 years of experience working with landowners and corporations to design, manage, and validate research trials, maximizing short- and long-term crop outputs. With a continued passion for conservation and the natural ecosystem, he is focused on the natural symbiosis organisms have with one another in the environment. Always eager to learn, he is continuously expanding his knowledge of soil health, chemistry, and pest disease management.

Derek holds a bachelor’s degree in Biology from South Dakota State University and a master’s degree in Agronomy from Iowa State University. He is also a Certified Crop Advisor and Technical Service Provider through NRCS.

Designing for Drought Resilience

by Dale Strickler 

Less than 100 years ago, the Dust Bowl wreaked havoc on our nation’s farms and ranches, with drastic and lasting impacts across the land. While this prolonged time of drought underscored just how important water is – we also learned about the critical role that agriculture management plays in capturing and using rainfall when it does come for improved climate resilience.

Capturing Rainfall  

Research by Oklahoma State University Cooperative Extension Service found that, on average, only 18% of rainfall is being captured by crops and used to grow food. A staggering 59% evaporates, while 23% falls prey to run off. The year that study was conducted, Oklahoma farmers produced an average of 33 bushels of wheat on only 6.2 inches of soil moisture, after factoring in what was lost to run off and evaporation. 

These figures help us understand that practices that improve water infiltration would allow farmers and ranchers to capture and use five times as much naturally falling moisture.

Of course, better utilizing rainfall would have an incredible impact on yields – but there are also important co-benefits for our environment and society.

Improved water infiltration lessens the dependence on additional irrigation, preserving fresh water sources for needed drinking water. At the same time, we see decreased run-off and erosion, keeping rivers, lakes, and other bodies of water cleaner.

As we collectively asses water risks and their role in resilience, geographically-specific interventions to improve water infiltration are critical.

A Case Study 

For inspiration on designing for drought resilience, let’s look at one of the driest and hottest places: Al Baydha, Saudi Arabia. There, the average rainfall is just 2.5”, while temperatures can climb to 120°F in the summer.

In 2011, a project was launched to design terraces, turning the bare rock and dirt into a thriving pasture for grazing. Capitalizing on every drop of rain, the landscape was transformed in just a few short years. 

 Lessons Learned 

While terraces aren’t the solution for every farm or ranch facing drought conditions, this project inspires us as to what is possible. There are hundreds of other techniques that farmers and ranchers can deploy to capture the full benefit of their natural rainfall. Some of these techniques include:

  • Eliminate Soil Tillage: Tillage exposes the soil to the pounding effects of rainfall, which leads to compaction layers at the soil surface that impedes the further downward movement of water.
  • Leverage Crop Residue: Another major step is to leave as much residue on the soil surface as possible, to cushion the impact of falling raindrops and reduce erosion. 
  • Utilize Cover Crops: A third major action to benefit infiltration is the replacement of fallow periods with cover crops. While cover crops use more moisture during their active growth than a soil that is being fallowed, the difference is not as great as many might expect.

Especially when used together, these practices help compound rates of water infiltration over time. For example, even after termination of the cover crop, the much higher rate of infiltration from the cover crop residue will make each successive rainfall event more efficient, if the mulch is left intact and not tilled under. After they decay, cover crop roots can leave large macropores in the soil that act as easy entry points for rainwater to enter the profile.  

These solutions, along with many more in a regenerative toolbelt, help farmers and ranchers maximize the benefit of natural rainfall – which lessens the environmental impacts on aquifers, rivers, lakes, and local drinking water.

Next Steps and Learn More

To learn more about the right water-wise management solutions to reach your business and land goals, Contact Us.

For Companies: Water stewardship throughout the value chain is a key part of climate resilience and action. The practices outlined in this article provide a plethora of benefits – from improved water infiltration as mentioned, to carbon sequestration and soil health, to enhanced biodiversity. Our team helps drive results toward these commitments, finding the right solutions to meet your goals.

For Farmers: Capturing and using rainfall to its maximum benefit has lasting benefit, economically and agronomically. Our landowner advisors help assess your land and goals, creating a customized plan to optimize water availability for crops and lessen downstream water impacts.

Additional Resources:

  • https://www.ers.usda.gov/amber-waves/2017/june/farmers-employ-strategies-to-reduce-risk-of-drought-damages/
  • https://www.climatehubs.usda.gov/hubs/midwest/topic/sare-resource-cultivating-climate-resilience-farms-and-ranches

About the Author

DALE STRICKLER

Landowner Advisor

With more than 30 years of experience in agronomy, pasture management, and soil and crop advising, Dale brings an incredible depth and breadth of knowledge to AgSpire’s work.

With a keen curiosity to find innovative solutions, combined with a thorough understanding of the realities of modern production agriculture, Dale is especially adept in developing highly effective management systems in challenging climates and soil types

He has also authored three books, including The Drought Resilient Farm, Managing Pasture, and The Complete Guide to Restoring Your Soil, which was named a top ten farming book for 2021 by Modern Farmer.

Agriculture’s Environmental Solutions

by Jared Knock

News headlines tell us of rising food costs and shortages, rising global temperatures, changing weather patterns, biodiversity loss, depleted soil, and clean water shortages. 

But today, on National Ag Day, we want to share a different headline: 

Agriculture is part of the solution. 

Everyday, farmers and ranchers around the world work in the soil – hands-on with our most precious resources and the building blocks of life. Because of this shear proximity to nature, farmers and ranchers have a dynamic relationship and important impact on natural systems.  

Unlike the finite stocks of copper, lithium, or cobalt, the stocks of agriculture can replenish and grow over time. With careful management, farmers and ranchers can add practices that promote stronger ecosystem health – while also building their own business resilience. This means that those hands working in the soil have the potential to regenerate our natural resources; clean our water and air; and provide abundant, nutritious, and diverse foods for a growing population. 

Earlier this month, the AgSpire team talked with farmers from around the country at the largest farmer-led trade show in the country. Time and time again, we heard from those farmers about wanting to find nature-based solutions to care for their land and optimize its potential – not just in the near term, but for generations to come. 

Through techniques like interseeding, cover cropping, reduced and no tillage, and holistic grazing, we see farm- and ranch-level benefits like:  

  • Improved soil health and fertility, which lessens our need for synthetic, emissions-intensive fertilizers 
  • Better water retention and filtration, which leads to drought resilience in arid environments and better down-stream water quality in wetter environments 
  • Enhanced biodiversity from the soil to the sky, supporting pollinators, wildlife, and complex ecosystems 

We know that there is immense potential in our industry – and we are working across the agriculture value chain to unlock that potential and highlight the solutions that are inherent within agriculture. 

We often think that these solutions all start with a seed. But, in reality, it all starts with the farmer or rancher. On National Ag Day, we celebrate these farmers and ranchers – and will continue our work to ensure they are part of the solution. 

Learn more about our work across the ag value chain to advance agriculture’s environmental solutions.

About the Author

JARED KNOCK

VP, Business Development

Jared has 25 years of experience on the land as a part-owner of a diversified livestock and crop farm in Eastern South Dakota, raising cattle, sheep, hogs, corn, soybeans, wheat, oats, alfalfa, rye, and cover crops. Through the lessons learned on his own land, Jared is passionate about equipping fellow farmers and ranchers to enable greater resilience and functionality through positive land management and grazing practices.

Jared’s expertise has been further honed through his background in livestock genetics, seed sales, business development, and as co-host of the Roots + Ruminants Podcast. Jared has a degree in Animal Science from South Dakota State University and China Agricultural University in Beijing.