Category Archives: Agricultural Practices

Check it out: Tree Fruit Breeders’ Approaches to the Challenges of a Changing Climate

By Sonia A. Hall, Center for Sustaining Agriculture and Natural Resources, Washington State University

Part of an apple tree with bright red apples in the foreground and the green canopy behind

Future climatic conditions could be an increased area of focus for plant breeding programs. Photo: Flickr user LaraS96 under CC BY-NC-ND 2.0.

With my colleagues on the AgClimate.net team we’ve been discussing plant breeding and climate change for a while, and are actually working on some articles about that relating to our Pacific Northwest crops and growing conditions. So I was intrigued to see this article by Leslie Mertz in the Good Fruit Grower magazine titled Breeding for uncertainty. Mertz starts off by saying “Developing a new tree-fruit cultivar is a long process that begins with breeders deciding which specific traits growers will want 15, 20 or even 30 years into the future.” And close to the end she states “Of course, breeding for the future is always difficult, but it has been made much more so with the extent and effects of climate change being unknown.” In between, though, Mertz discusses existing breeding programs that have used expected future climate conditions to select traits to focus on, and are taking on the added challenge of uncertainty about future climates. Check it out.

And stay tuned for some other articles exploring how climate change intersects with plant breeding efforts underway in the Pacific Northwest.

Climate Analogs for Specialty Crops: See the Future Now

By David I. Gustafson, Adjunct Research Faculty at Washington State University

This article is part of a series, Climate Friendly Fruit & Veggies, highlighting work from the Fruit & Vegetable Supply Chains: Climate Adaptation & Mitigation Opportunities (F&V CAMO) project, a collaborative research study co-led by investigators at the University of Florida and the Agriculture & Food Systems Institute. Other collaborators include researchers at the University of Arkansas, University of Illinois, the International Food Policy Research Institute, the World Agricultural Economic and Environmental Services, and Washington State University. This project seeks to identify and test climate adaptation and mitigation strategies in fruit and vegetable supply chains.

 

Photo collage showing a prophet, a crystal ball, a ouija board and a scene from Star Trek

Figure 1. We have always longed to see the future, whether via prophets,
crystal balls, science fiction, or even through the use of Ouija boards.

“It’s tough to make predictions, especially about the future.” So said Yogi Berra, repeating a version of the apparently Danish proverb whose origins have been lost. Nevertheless, as difficult and logically impossible as it might be, humanity has an innate longing to see the future (Figure 1). Ancient kings kept prophets among their advisors. Fortune tellers make a living by gazing into crystal balls. Hasbro sells Ouija boards for $20.99. And among the most popular of today’s entertainment genres is science fiction.  Continue reading

Building Better Biochar Breakthroughs: A Roadmap for Biochar Research

By Embrey Bronstad, Center for Sustaining Agriculture and Natural Resources, Washington State University

What is the first thing you think when you hear “Black Gold”? Is it the theme song for the Beverly Hillbillies? A baritone “Texas Tea”? Well, some people think “BIOCHAR!”

Hand holding a handful of dark, soil-like substance

A climate and farming boon: Biochar! Photo: Flickr user mavnjess under CC BY-NC 2.0.

Now, if you are reading this article, you probably know what biochar is. You have probably heard about its benefits when integrated with compost or used in dairy lagoons. A clear opportunity exists for the implementation of biochar technology to mitigate climate change through its ability to sequester carbon. Indeed, a recent estimate suggests that implementation of biochar at scale in Washington State could offset between 8 and 19% of the state’s greenhouse gas emissions (Amonette 2021a). Application of biochar to agricultural soils may also help producers adapt to climate change by improving soil water-holding capacity in settings where water resources during the growing season are expected to become scarcer. Also, by enhancing formation of soil organic matter, these amendments would increase soil health and resilience, thereby helping to ensure continued high levels of agricultural production as the climate changes. In addition to these climatological and agricultural benefits, biochar has great potential to address wildfire risk, improve forest health, restore ecosystem services, and revitalize rural economies (Amonette et al., 2021b).

Despite a burgeoning library of research into biochar over the last two decades, there remain significant knowledge gaps, Continue reading

The ‘Carbon Market Bazaar’: Future Windfall for Producers or Just Hot Air?

By David I. Gustafson, Adjunct Research Faculty at Washington State University

This article is part of a series, Climate Friendly Fruit & Veggies, highlighting work from the Fruit & Vegetable Supply Chains: Climate Adaptation & Mitigation Opportunities (F&V CAMO) project, a collaborative research study co-led by investigators at the University of Florida and the Agriculture & Food Systems Institute. Other collaborators include researchers at the University of Arkansas, University of Illinois, the International Food Policy Research Institute, the World Agricultural Economic and Environmental Services, and Washington State University. This project seeks to identify and test climate adaptation and mitigation strategies in fruit and vegetable supply chains.

 

Sellers along a high-ceiling building show their wares, including rugs, bags, and many other items

Emerging carbon markets for U.S. agriculture today may be compared to a Middle Eastern bazaar: hints of danger and mystery. But there might be a genuine bargain that could be the perfect and profitable fit for your operation. Photo: Blondinrikard Froberg under CC BY 2.0.

I’m a fan of action movies, where a Middle Eastern bazaar is a popular place for high-speed chases. Even without the careening bullets and motorcycles, there are hints of danger and mystery amidst the clamor and unknown languages filling the air. You barter over the selling price of exotic objects that cannot be found anywhere else. Am I about to pay ten times what something is really worth? So it is with the emerging carbon market and U.S. agriculture today. Major companies like Bayer and upstarts like Indigo Ag and Nori are now offering to purchase carbon credits directly from producers for the adoption of new practices they agree to begin employing on their fields. But what is this worth to producers? Continue reading

Here’s the Dirt on Carbon Sequestration Potential in Cropland Soils

By Nicole Bell, Center for Sustaining Agriculture and Natural Resources, Washington State University

Aerial view of green and dry center pivot circles with the Columbia River in the background

Soils with carbon sequestration potential can include irrigated croplands in the Columbia River Basin. Photo: Doug Wilson/USDA ARS

In this era with record-setting temperatures multiple years in a row, scientists are looking for methods to sequester carbon to slow the process of climate change. Agriculture plays a key role in not just the global economy, but also the global carbon cycle: cropland soils have the potential to be either sinks or sources of greenhouse gases, notably carbon dioxide. The conversion of native ecosystems to cropland agriculture has resulted in enormous carbon losses, estimated to be between 20-70% of the original carbon stored in native soils in the US. The Pacific Northwest is an agricultural powerhouse: in 2017, Washington, Idaho, and Oregon produced $22 billion in agricultural production on over 42 million acres. That’s a lot of soil. I recently read a white paper by Georgine Yorgey and colleagues at Washington State University titled “Carbon sequestration potential in cropland soils in the inland Pacific Northwest: Knowledge and gaps,” that summarizes research on carbon sequestration in the inland Northwest. It turns out that it is not a one-size-fits-all answer: the potential of certain croplands to either release or sequester carbon depends on climate, the cropping system, the soil type, and other factors. Fortunately, though, some soils do have great carbon sequestration potential. Continue reading

Animal Alert: Heat Wave on its Way May Cause Problems for Livestock Producers and Their Animals

By Donald A. Llewellyn, Ph.D., Associate Professor/Livestock Extension Specialist, Washington State University Extension, and

Craig McConnel, DVM, Ph.D., Associated Professor/Veterinary Medicine Extension, Washington State University Extension

Cattle in the shade of two small trees surrounded by open rangeland

Providing shade, in addition to cool, clean water and avoiding stressful handling can help livestock weather heat waves. Photo provided by Don Llewellyn.

A heat wave is expected to engulf much of the Inland Northwest over the next week with daytime temperatures above 100 degrees in many areas.  These temperatures will put livestock and pet well-being at risk.  Commercial producers and youth with animal projects should prepare now for the upcoming heat and dangerous conditions.  Here are a few general suggestions to keep your animals safe, but also keep in mind each of the various species of domesticated animals with have specific needs.

  • Avoid stressful handling of livestock and if necessary only do so in the early morning hours or late in the evening.
  • If animals are in a barn or shed, ensure that they have proper ventilation and air circulation.
  • For animals outside, provide shade if possible.
  • Provide a continuous supply of cool, clean water.

Continue reading

Check it out: Some Thoughts on Plant Breeding to Adapt to Climate Change

By Sonia A. Hall

graphic showing 10 commodities, and their value in dollars

The top agricultural commodities in Washington do not include corn. Yet questions being explored in corn can be relevant to these and many other crops produced in the Pacific Northwest. Screenshot from the Washington State Department of Agriculture website, accessed March 8, 2021. https://agr.wa.gov/washington-agriculture

Maize, or corn, may not be the first thing that comes to mind when you think about agriculture in the Pacific Northwest (though 275,000 acres, of corn were harvested in 2020 in Washington, Oregon, and Idaho, according to the US Department of Agriculture QuickStats). However, I was intrigued by a recent article focused on corn in ScienceDaily titled Climate-adapted plant breeding: Improvement of crops with genes from seed banks. The research paper the article discusses is about molecular technologies that allow researchers to scan the entire genome of different corn plants, which then allows them to link the data from field trials to genes that are relevant to specific traits. But what I found more intriguing was the discussion that framed why being able to do this is important. Continue reading

Developing Biochar Markets in the Pacific Northwest

By Embrey Bronstad

This is part of a series highlighting work by Washington State University (WSU) researchers through the Waste to Fuels Technology Partnership between the Department of Ecology and WSU during the 2017-2019 biennium. This partnership advances targeted applied research and extension on emerging technologies for managing residual organic matter.

Biochar has the potential to provide a win-win for climate, soils, and forest health. Previous posts on AgClimate.net have discussed the effects of integrating biochar with composting facilities, engineering biochars for specific applications, and potential for biochar use in Washington to draw down carbon dioxide. The Pacific Northwest is particularly suited for a supporting a thriving biochar industry, both because of the ubiquity of waste woody biomass as a biochar production feedstock and the extensive agricultural acreage that could benefit from biochar application. Many researchers in the region have developed a library of evidence documenting the numerous benefits of biochar use.  So why aren’t more people producing and using it?

To increase adoption of any product, more than just the scientific benefits must be taken into consideration.  Markets have to be developed, which means knowing the minimum selling price at which biochar can be produced and the maximum purchase price potential buyers are willing to pay.  It also helps to know what the optimum application is for maximum return, for example, when are crop yields improved enough to justify the cost of putting biochar on the field?

The structure of the facility (left) and a front loader by a mound of chipped wood

Figure 1. A biomass power plant that has been modified for biochar production uses forest residues from areas of high fire hazard areas as feedstock. Photos: Josiah Hunt.

To this end, researchers from Washington State University sought to evaluate the potential market for biochar in the Pacific Northwest using techno-economic analyses that coupled both biochar production costs and agricultural returns for a number of crops. Continue reading

Managing for Washington’s Future: A Bigger Player in Veggie Production

By Fidel Maureira, Department of Biological Systems Engineering, Washington State University

Cartoon of hilly landscape with rows of vegetables.

Cartoon adapted from https://pixabay.com (free for commercial use; no attribution required).

A few months ago I wrote an article that gave a preview of the work we were conducting, to explore whether Washington State could become the new California in vegetable production as the climate warms. Results from this work are now in, and the answer is… yes, the potential is definitely there. Continue reading