Category: Ag Legislation

  • The Health Benefits of Fermented Vegetables

    Dr. Ilenys Perez-Diaz (IP) is a Microbiologist with the Food Science and Market Quality and Handling Research Unit in Raleigh, NC. Her work involves research into microbes present during the fermentation and acidification of vegetables, and had some interesting things to share with the USDA-ARS in their Under the Microscope (UM) Q&A blog.

    Dr. Ilenys Perez-Diaz

    UM – As a microbiologist, how does your work connect to processed vegetables? What types of processes do these vegetables go through?

    IP – There is a variety of microbes naturally present in fresh vegetables. The uncontrolled growth of such microbes in vegetables results in their decomposition and lack of appeal to consumers. We can control the growth of microbes in vegetables through the fermentation process, popularly known as pickles in the U.S.

    I study the indigenous microorganisms in fresh vegetables and develop processes that produce fermented or acidified vegetables with prolonged shelf lives, enhanced flavor, and substantial nutritional content.

    UM – What is the difference between fermentation and pickling?

    IP – While these terms are used interchangeably in the USA, they are actually different. Technically, fermentation refers to the preservation of vegetables by converting the indigenous sugars to organic acids and increasing acidity. Pickling refers to vegetables that are acidified, primarily with vinegar, to extend their shelf-life.

    Preservation of surplus tomatoes by sodium chloride free acidification (top) and fermentation (bottom). (Photo by Fernando Montero)

    UM – Americans are usually not too familiar with fermented foods, but they are popular in other parts of the world. How safe are fermented foods? 

    IP – Fermented vegetables enjoy a strong record of safety; there are almost no outbreaks associated with them. Fermented vegetables are safe for human consumption as long as the microbial growth is controlled, and an appropriate pH level is maintained during storage.

    UM – What are the benefits of fermenting or pickling your food? 

    IP – The main benefit of fermenting or acidifying vegetables is the extension of shelf-life. In certain vegetable fermentations, depending on the microbes, there can be enhanced levels of antioxidant or vitamin content.

    However, we must not forget that the main metabolic products in a fermentation are lactic acid and acetic acid, which are building blocks of butyric acid and propionic acid. Such organic acids serve as energy sources for the gut lining, so it’s theoretically possible that fermented foods enhance human gut health. Lactic acid has also been associated with enhanced endurance in athletes who consume fermented vegetables and the juices.

    Preservation of cucumbers via acidification in a reduced acid and salt solution. (Photo by Ilenys Perez-Diaz)

    UM – Does the degree of fermentation impact the health benefits of a vegetable?

    IP – This is a very interesting question. It is unknown to what extent fermented vegetables may enhance human health. However, we do know that butyric acid, the main energy source for the gut tissue lining, can be produced in some vegetable fermentations. Thus, it is of interest to further study the impact of fermented vegetables in the human gut health.

    UM – We tend to think of pickled or fermented foods as extremely salty and briny. I understand that you and your team have worked to reduce sodium chloride in processed vegetables – please explain the process and how this can help consumers?

    IP – Traditionally, the production of fermented vegetables has depended on the use of 6 to 10% sodium chloride salt in brines to control microbial growth. Salt makes it difficult for most microbes to grow on the vegetable and spoil it. Additionally, salt promotes the growth of bacteria that produce lactic acid, which leads to the desired conversion of sugars to acids.

    Although this is a natural process, it can also result in environmental pollution if done on an industrial scale. The brining solution used to turn cucumbers into pickles is high in acidity and salt, which can harm the environment if disposed of improperly. My team and I have managed to replace most of the sodium chloride (table salt) in the brine with calcium chloride. Calcium chloride may improve soil quality and stimulate plant growth.

    This new brining solution does not alter the taste or texture of the pickle, but it contains significantly less sodium – something many consumers may appreciate for health reasons.

    UM – Recently, people have been interested in consuming probiotic or prebiotic foods like fermented vegetables. Please explain how these types of foods may promote gut health.

    IP – Fermented vegetables not only serve as an environment for potentially beneficial microbes to grow, but they also naturally harbor indigestible dietary fibers that feed the gut microbiome. In theory, there is an advantage in using beneficial microbes in fermented foods that are customized to the gut’s natural pH acidity and environment. However, it is difficult to do so due to the level of microbial diversity within each individual’s gut, and also the complexity of microbial interactions within the human body.

  • GSA Expands Farm Worker COVID-Prevention Training Program to Yuma

    Replicating another of its Salinas Valley programs, the Grower Shipper Association of Central California (GSA) has established a COVID-19 training prevention program for food facility and farm employees in the Yuma in cooperation with the Regional Center for Border Health clinic. The program brings health professionals directly to work sites to provide multi-lingual information on virus prevention practices while on the job and at home as well as answer any questions employees may have, including about the availability and safety of the new vaccines.

    “This program was very popular among both employers and employees throughout last spring and summer and we are fortunate to bring this to the Yuma growing region where many of our members have farms and operations during the winter months,” says Christopher Valadez, GSA President.

    In addition to the onsite prevention training, GSA also replicated its programs to establish a quarantined housing program as well as virus testing for farm workers in this region. GSA’s quarantined housing program became a model for California Governor Gavin Newsom’s “Housing for the Harvest” program. GSA’s housing provides daily deliveries of meals and necessities as well as health checks by nurses for those workers who have been exposed to the virus, tested positive or are symptomatic.

    “As we have learned over the last several months and while we await the availability of the vaccine, prevention training, adequate testing and effective contact tracing combined with isolation alternatives through quarantined housing are needed to target the spread of this virus” Valadez says. “Bringing these programs to the desert growing region was a priority for GSA members to protect the farm workers who are essential to our industry and provide a consistent supply of healthy foods to consumers.”

    Farmers who want more information on the prevention training, expedited testing for employees or housing should contact Christopher Valadez.

  • Root Bacteria Could Help Defeat Fatal Citrus Disease

    A UC Riverside-led team is looking at tiny underground microorganisms for a way to prevent a huge problem — Huanglongbing, a disease with no cure that has decimated citrus orchards worldwide.

    The disease, also known as HLB or citrus greening, has multiple names but the same ultimate result: bitter and worthless citrus fruits. By some estimates, the end of citrus orchards in California and Florida could amount to $14 billion in lost commercial revenue.

    Fruit affected by Huanglongbing. (UCR)

    “Often times, it is thought of as an above-ground disease of the fruits, leaves, and stems,” said Caroline Roper, plant pathology professor and director of the new research effort. “However, we have seen the roots of trees decline with infection, and we want to understand why.”

    The National Institute of Food and Agriculture has awarded the UCR-led team $10 million over the next five years to investigate the role of soil and root microbes in the disease.

    Roper said data from previous studies shows the microbiome of the infected tree — which includes bacteria and fungi as well as protozoa and viruses — plays a role in the disease.

    “We have seen a shift in the root microbiome as trees get sicker,” she said.

    The microbiomes shift to contain more potentially parasitic organisms that may act as secondary invaders to a tree that is suffering from HLB, according to Roper. The invasion of these root pathogens may be causing trees to die faster when they have HLB.

    Part of this new research effort will test whether soil amendments like manure and compost might suppress parasitic microorganisms in the roots as well as the soil, and give the trees more strength to combat diseases including HLB.

    In addition, the research team will try to determine the molecular basis of HLB resistance shown by citrus root stocks developed in Florida. They’ll then see how those rootstocks perform in California, which has different soil and climate conditions.

    The research team will examine both younger trees, because a lot of citrus growers have had to re-plant their orchards after infection, as well as older trees to see if mature groves can recover.

    It will also be important to note how well root stocks from Florida, where there has been a heavy infestation of HLB, perform in California, where much less of the disease has been detected.

    “One of the great things about this grant is that we’re able to leverage existing field trials being done by our collaborators in Florida and at the UC’s Lindcove Research and Extension Center in central California,” Roper said. “This may lead to faster results than we’d otherwise have had.”

    Collaborators on the project include UC Davis; California State University, Sacramento; the University of Florida; and the U.S. Department of Agriculture’s Agricultural Research Service in Ft. Pierce, Florida. — By Jules Bernstein, UC Riverside

  • U.S. Blueberry Growers Form New Alliance to Seek Import Remedies

    Blueberry growers across America today established a new coalition, the American Blueberry Growers Alliance, to seek relief from rising imports that are harming their businesses. The Alliance will provide information and support to an ongoing U.S. International Trade Commission (ITC) investigation into the serious injury caused by increased imports of fresh, chilled and frozen blueberries under Section 201 of the Trade Act of 1974.

    Blueberry imports are sourced from several countries in the Western Hemisphere. Imports rose by more than 60 percent between 2015 and 2019. Imports from Peru and Mexico have increased by 1,258 and 268 percent during that same period, respectively, driving blueberry prices down by double digits, which has had a devastating impact on the domestic blueberry industry.

    Alliance members are asking for bipartisan support from the U.S. government and Congress to use existing trade laws to remedy the injury to U.S. growers, support hard-working blueberry farmers, and preserve and enhance a U.S.-grown blueberry supply. The Alliance is also warning that in addition to injuring domestic businesses and livelihoods, rising imports expose American consumers to products from countries with poor food safety protocols.

    “We have been telling Washington about unfair trade practices for years,” said Jerome Crosby, CEO of Pineneedle Farms in Georgia and head of the Alliance’s steering committee. “Our family farms continue to be harmed by a flood of blueberry imports. We need relief and for our leaders to stand with American growers.”

    “Many family farms have become a casualty of rising imports and are being forced out of commercial production as other countries increase production to deliberately target the U.S. market,” said Brittany Lee, executive director of the Florida Blueberry Growers Association. “If something is not done, we will lose the blueberry industry in the United States.”

    The Alliance includes blueberry growers in Georgia, Florida, Michigan and California.

    The Alliance recently received support from a coalition of 32 members of the U.S. House of Representatives. In a letter to the U.S. International Trade Commission, the congressional members said: “The significant surge of imports of blueberries in recent years, the timing of such imports during U.S. harvest periods, the extremely low pricing of the imports, and the targeting of the U.S. blueberry market by foreign exporters has had a devastating impact on the blueberry industry…As the Commission develops the evidentiary record in this case, it will be clear that imports are a substantial cause of serious injury to farmers. We urge the Commission to promptly make an affirmative determination in this regard.”

    The ITC plans to hold hearings in early 2021 and then deliver a report on blueberry injury and remedies to the White House. Under Section 203, the President then determines what action to take. To support this investigation, Alliance members are providing data and evidence on how blueberry imports are impacting their production, pricing and marketing activities, especially during the critical U.S. spring and summer harvesting seasons.

    For more information, please visit americanblueberrygrowers.com.

  • 2021 CA Avocado Crop Estimate & Harvest Projections

    The California Avocado Commission has published the 2021 California Avocado Pre-Season Crop Estimate and weekly harvest projections for the calendar year (January 1st through December 31st). The estimate and projections are the result of handler surveys submitted in early December 2020 and represent the industry’s best information on the coming season’s crop at this time.

    Further details of the estimate and harvest projections can be found online and includes the following information:

    • Pre-season industry volume estimates, broken down by variety, based on AMRIC Handler survey responses
    • Weekly harvest forecast utilizing AMRIC Handler Survey percentages for Hass variety (4-year historical forecast used for Lamb, 2-year historical used for Gem and other)
    • Weekly harvest forecast comparison of 4-year historical forecast versus AMRIC Handler Survey

    The Commission staff will remain in contact with growers, handlers and grove managers throughout the season, via surveys and telephone conversations, to track harvest strategy and will provide updated forecasts to the industry as they become available. As we have done in the past, CAC will plan to follow up with the handlers in February to discuss crop volume and harvest plans before the season gets underway.

    In addition to handler surveys and discussions, the annual grower crop survey and acreage inventory survey will be conducted in Spring 2021, with a mid-season crop estimate update available mid-May 2021.

  • $6.3 Million to Help UC Riverside Save Avocado Orchards

    New grants totaling $6.3 million will help UC Riverside solve problems facing American avocado orchards, including a lethal fungal disease called Laurel Wilt.

    Laurel Wilt can destroy an entire avocado orchard in a couple of weeks once symptoms develop. It is already present in Florida. Without effective treatments, it will inevitably spread to California, which is the nation’s leading producer of avocados.

    Laurel Wilt is caused by a fungus, Raffaelea lauricola, that the non-native redbay ambrosia beetle introduces in trees of the Laurel family, which includes avocado.

    The non-native redbay ambrosia beetle, which carries the fungus causing deadly Laurel Wilt. (UCR)

    “When the beetle attacks, the fungus enters and colonizes the tree’s vascular system, and within weeks, the tree wilts and dies if not managed properly,” said Patricia Manosalva, director of this project as well as UCR’s Avocado Rootstock Breeding Program.

    In addition to Laurel Wilt, avocado growers face numerous production challenges including devastating diseases such as Phytophthora root rot, or, PRR, and soil salinity, which in combination cause severe reduction in fruit yield and quality. This combination can also completely destroy avocado orchards.

    Avocado roots darkened and killed by Phytophthora root rot. (David Rosen/UCR)

    Avocado is also highly sensitive to salinity. Increasing levels of salinity in water and soil due to drought and the use of reclaimed water for crop irrigation purposes threatens avocado production worldwide.

    To combat the threats, the USDA’s National Institute of Food and Agriculture Specialty Crop Research Initiative has awarded UC Riverside $4.4 million. The grant will enable the development of next-generation technological solutions to these problems over the next four years in partnership with scientists at the universities of Hawaii, Florida, Texas, and Milan.

    The same grant will enable research on both short- and long-term solutions for managing avocado PRR, the major hindrance for avocado production worldwide, Manosalva said.

    “Under this grant we will select rootstocks harboring resistance to the current pathogen population and we will register new fungicides with different modes of actions to reduce avocado losses to this destructive oomycete pathogen,” Manosalva said.

    The UCR rootstock breeding program has already identified advanced rootstock lines that are tolerant to salinity and P. cinnamomi, the pathogen that causes PRR. These rootstocks may also confer resistance or tolerance to Laurel Wilt when grafted with different varieties. Field trials of these rootstocks will be conducted in California, Florida, Texas, Hawaii and Puerto Rico and will be screened for resistance at University of Florida.

    Another approach to mitigating avocado threats will be the further development of remote field sensors that can detect and differentiate drought from high salinity and Phytophthora root rot. UCR initially developed prototypes of these sensors and tested them in greenhouses. This grant will enable researchers to improve the sensors and test them in fields.

    Manosalva notes that UC Riverside is unique in having a highly recognized avocado breeding program first developed 70 years ago.

    “We’ve been developing agricultural science for a long time,” she said. “This grant will allow us to keep moving the UCR rootstock breeding program forward and continue developing hearty avocado rootstocks.”

    Through the Office of Technology Partnerships, UCR currently has three rootstocks available for licensing in the U.S. and may have up to five new rootstocks available in the next few years. The new rootstocks could provide increased tolerance to diseases, drought, heat, and soil salinity.

    In a related grant, the USDA’s National Institute of Food and Agriculture, Organic Agriculture Research and Extension Initiative awarded $1.9 million to a team of 15 scientists from five universities and the USDA Agricultural Research Service, or USDA-ARS. The grant will allow the researchers to study whether essential oils can help suppress certain pathogens and pests.

    Researchers from the University of Florida, Clemson University, the University of Georgia, the University of Hawaii at Manoa and the USDA-ARS as well as UC Riverside will collaborate on the project.

    Producers of essential oils claim their products may be able to treat plant pathogens such as gray mold, powdery mildew, algal stem blotch and brown rot as well as insects including mites, thrips and scales. This grant will enable the team to evaluate those claims.

    Manosalva said both grants underscore the importance of funding basic research in agricultural science. “California’s produce feeds the nation, and the world,” she said. “Our science will help feed people and empower growers everywhere.” — By Jules Bernstein, UC Riverside

    About UC Riverside

    The University of California, Riverside (www.ucr.edu) is a doctoral research university, a living laboratory for groundbreaking exploration of issues critical to Inland Southern California, the state and communities around the world. Reflecting California’s diverse culture, UCR’s enrollment is more than 24,000 students. The campus opened a medical school in 2013 and has reached the heart of the Coachella Valley by way of the UCR Palm Desert Center. The campus has an annual statewide economic impact of almost $2 billion. To learn more, email news@ucr.edu.

  • California Horticulture Sales Reach $2.63 Billion in 2019

    On Tuesday, December 8, the U.S. Department of Agriculture’s National Agricultural Statistics Service (NASS) released the 2019 Census of Horticultural Specialties report, the only source of detailed production and sales data for floriculture, nursery, and specialty crops for the entire United States. The data show that horticulture operations in California sold a total of $2.63 billion in floriculture, nursery and specialty crops in 2019, down 9% from the sales in 2014. California sold 19% of the total U.S. horticulture sales of $13.8 billion in 2019, more than any other state. In addition to sales, the number of horticulture operations in California decreased 22% during this time to 1,331, and the number of operations in the United States decreased 11% during this time to 20,655.

    “The horticulture census is a vital tool that highlights the contribution horticulture growers bring to our local, state, and national economies,” said Pacific Region Director Gary R. Keough. “It shows changes and trends in the industry over the past five years and beyond.”

    Horticulture production occurred primarily in 10 states, which accounted for 66% of all U.S. horticulture sales in 2019. California ($2.63 billion), Florida ($1.93 billion) and Oregon ($1.02 billion) led the nation in sales.

    The top five commodities in California horticulture sales in 2019, and compared to 2014, were:

    ·         Nursery stock, $831 million, down 13%
    ·         Potted flowering plants, $322 million, up 7%
    ·         Transplants for Commercial Vegetable and Strawberry, $266 million, up 4%
    ·         Cut flowers & cut lei flowers, $249 million, down 26%
    ·         Annual bedding/garden plants, $232 million, up 6%
     
    Other key findings for California from the 2019 Census of Horticultural Specialties report include:

    ·         Family- or individually-owned operations made up the largest number of operations, accounting for 48%, but corporately-owned operations accounted for 80% of sales ($2.11 billion).

    ·         Total industry expenses were at $2.21 billion in 2019, with hired labor being the largest cost, accounting for 36% of total expenses.

    The Census of Horticultural Specialties is part of the larger Census of Agriculture program. It provides information on the number and types of establishments engaged in horticultural production, value of sales, varieties of products, production expenses and more. All operations that reported producing and selling $10,000 or more of horticultural crops on the 2017 Census of Agriculture were included in this special study.

    For more information and to access the full report, visit www.nass.usda.gov/AgCensus.

    CA.Census_of_Hort_press_release_12092020

  • NMSU Science Centers Provide Ag Industry with Solutions

    New Mexico’s $3.17 billion agricultural industry is as diverse as the state’s environmental conditions. With four crop production regions, 11 plant hardiness zones, five defined watersheds, and 126 distinct soil types in New Mexico, agricultural production varies from the north to the south, and the east to the west.

    As the state’s land-grant university, New Mexico State University and its College of Agricultural, Consumer and Environmental Sciences supports fundamental and applied research to meet the agricultural and natural resource management needs of communities in every part of the state.

    The Agricultural Experimental Station is a system of scientists who work in facilities on the main campus in Las Cruces and at the 12 agricultural science and research centers located at Farmington, Mora, Clayton, Tucumcari, Clovis, Alcalde, Los Lunas, Corona, Artesia and Las Cruces.

    “These science centers are located strategically throughout the state to support research in New Mexico’s varied environmental conditions, such as soil types, elevation, growing season, and water availability,” said Leslie Edgar, NMSU’s College of ACES associate dean and director of the Agricultural Experimental Station. 

    “If agricultural research was confined to the Las Cruces area, the findings would not be applicable to producers around the state.” 

    At these facilities, scientists are able to study practices and effects at basic and applied scientific levels in a real-world setting due to the crop fields, laboratories, and livestock facilities at the centers.

    Research is focused across four broad themes – plants, animals, energy and the environment as it applies to the full spectrum of agricultural operations from the small acreage farms and ranches in north and central New Mexico, to the large acreage farms and rangeland ranches throughout New Mexico.

    Don Bustos of Santa Cruz Farms in Espanola has taken the knowledge he gained from NMSU’s Sustainable Agriculture Center at Alcalde to turn the four-and-a-half acres of land his family has farmed for 400 years into a successful organic produce farm with an annual six-figure income.

    “It was the research being done at Alcalde that got me into strawberries, blackberries and asparagus, which are our big money makers,” Bustos said, adding these were the top sellers of the 72 different types of produce grown on the farm.

    Bustos implemented season extension techniques after viewing the demonstration greenhouses at Alcalde. “We produce hundreds of pounds of greens during the winter,” he said of the results of adopting these practices.

    Improving the state’s cow/calf herd is one of the goals of NMSU research. The Tucumcari Bull Feed Efficiency Test, established in 1961 at the Rex E. Kirksey Agricultural Science Center at Tucumcari, is the longest running study in the United States.

    The Heckendorn family J-C Angus Ranch in Moriarty has been involved with the program for 40 years.

    “As a result of the bull test, we have seen over the years tremendous progress in our herd, with improved weight gain and feed efficiency,” said John Heckendorn. “I’ve learned a lot about genetic selection and performance, which has helped make herd improvements.”

    Heckendorn has also learned a lot from the science center about farming different grasses for permanent pasture.

    He regularly attends Rancher Round Table meetings at the Corona Range and Livestock Research Center at Corona.

    “I’ve learned a lot of useful industry practices, including nutrition, mineral and protein supplementation and vaccination protocol,” he said. 

    Each science center consists of numerous faculty, staff, academic students, and season assistants who dedicate their research and educational efforts to the mission of the center.

    Grassroots advisory committees of agricultural industry members and residents provide input to each center regarding the issues the producers are facing. 

    “What I like most about the science centers is being a part of the Alcalde advisory group,” Bustos said. “They really listen to what the people doing the work think and say.”

    Information from these conversations drive the science centers’ missions.

    “During strategic planning for the center, the committee’s comments help guide the specific research aimed at improving agricultural productivity and its economic value-chain in their area,” Edgar said.

    While the research projects are a major part of the centers’ activities, the faculty and staff also conduct outreach activities through field days, workshops and other information sharing such as research and Cooperative Extension Service publications.

    “The mission of a land-grant university is to provide a path for ordinary citizens to gain information to advance their work, their community and the economy,” Edgar said. “These activities provide opportunities for people of all ages and skill sets to learn from the research.”

    One area that NMSU and the College of ACES is very aware of is the aging agriculture producer population.

    “With 59.8 as the average age of agriculture producers in our state, the centers’ staff also focus on engaging youth in farming and ranching career opportunities that range from actual farming or ranching to natural resource management,” Edgar said.

    Examples are the U.S. Beef Academy at the Corona Ranch and the U.S. Dairy Education and Training Consortium in Clovis.

    NMSU AGRICULTURAL SCIENCE CENTERS
    All of the 12 centers in the College of Agricultural, Consumer and Environmental Sciences system do research on the agricultural and natural resources needs for the area.Each one also has some project or features unique to that center, including:

    Alcalde Sustainable Agriculture Science Center
    First center that carried out research on certified organic land. Features research in fruit orchards, including AmeriZao jujubes. Housed at the hacienda once owned by Carol Bishop Stanley, who also later owned Ghost Ranch.

    Artesia Agricultural Science Center
    Unique soil conditions of Pecos Valley cannot be replicated elsewhere, so research in other parts of state not a reliable indicator for crops in the Pecos Valley.

    Chihuahuan Desert Rangeland Research Center
    Livestock grazing pastures have been observed and recorded for over 80 years to measure changes without livestock influence to study the long-term nature of grazing and climate impact. No other studies of this magnitude do not exist.

    Clayton Livestock Research Center
    The only feedlot research facility in the western United States with a focus on animal health of ranch cattle.

    Clovis: Agricultural Science Center
    Valencia peanut breeding. About 60 percent of the Valencia peanut acreage is dominated by varieties developed by NMSU. The Valencia peanut industry adds $4.5 million to the state economy annual.

    Corona Range and Livestock Research Center
    A 28,000-acre self-sustaining working ranch laboratory where research is conducted on a larger-scale.

    Farmington: Agricultural Science Center
    Only NMSU science center west of the Continental Divide and only 1862 land-grant to work directly on sovereign First Nations – Navajo – land. Unique research includes potatoes, hops and hemp.

    Las Cruces: Fabian Garcia Research Center and Leyendecker Plant Science Center
    NMSU main campus experimental farms where a wide range of plant breeding research is conducted, including New Mexico chile peppers. 

    Los Lunas: Agricultural Science Center
    Located 20 miles south of Albuquerque allows for unique urban programing from on-site faculty, including Urban Integrated Pest Management and Urban Horticulture specialists. Soil conditions, ranging from very sandy to very heavy clay, allows for broad applicability of research results on projects conducted on diverse planting media.

    Mora: John T. Harrington Forestry Research Center
    Only research program in the southwest United States that focuses on forest nursery technologies, tree improvement and ecophysiology of young forest trees to facilitate ecological restoration, especially forests. Largest producers of forest seedlings in the US Southwest with a current capacity of 300,000 per year, primarily used to restore forest after severe wildfires and mining operations.

    Tucumcari: Rex E. Kirksey Agricultural Science Center
    Infrastructure to conduct both crop and livestock research, including the Tucumcari Bull Feed Efficiency Test. Tucumcari Irrigation Project, in partnership with the City of Tucumcari and the New Mexico Water Trust Board, is permitted to reuse treated municipal wastewater for irrigation. – By Jane Moorman, New Mexico State University
  • Western Growers’ Jason Resnick Promoted to Senior Vice President

    Western Growers’ veteran Jason Resnick has been promoted to Senior Vice President and General Counsel.

    “Over the past 17 years, Jason has demonstrated an unrivaled commitment to Western Growers and our membership and has provided indispensable counsel to the senior leadership team throughout his tenure with the organization,” said Western Growers President & CEO Dave Puglia. “In addition to his core responsibilities as General Counsel, Jason has helped shape our work on important public policy issues, especially immigration. His strategic mind and trusted counsel are of immense importance to me and our Board of Directors.”

    Resnick joined Western Growers in 2003 as a staff attorney and most recently served as Vice President and General Counsel. The promotion is in recognition of the additional duties he has assumed, such as managing the affairs of the Board of Directors as corporate secretary, establishing Western Growers H-2A Services as a premier H-2A services agency and overseeing the Legal and Trade Practices and Commodity Services Departments.

    “It’s truly an honor, and I’m humbled and grateful for this opportunity,” said Resnick. “During my time at Western Growers, I have learned so much about this wonderful industry from extraordinary colleagues, past and present, our visionary members, and the dedicated attorneys who have been zealous advocates for the industry for many years. I am inspired every day by my colleagues who continue to raise the bar for serving our members.”

    Resnick is “AV” Peer Review Rated by Martindale-Hubbell and is a frequent speaker and contributor to Western Grower & Shipper magazine on employment law and ag labor issues. He serves as vice president on the board of directors for the Agricultural Personnel Management Association (APMA), is on the board of iFoodDecisionSciences, Inc. and is a past co-chair of the Agribusiness Committee of the State Bar of California.

    Resnick received his bachelor’s degree from the University of California, Irvine and his JD from the University of the Pacific, McGeorge School of Law.

  • Fire Blight in Pear: Getting to the Root of the Matter

    Pear producers are turning to science in order to take a bigger bite out of the fruit market. U.S. pear production is only about one-seventh that of apple production. Reasons for this shortfall include relatively limited areas with a favorable growing climate; the large size of pear trees; and susceptibility to storm damage, climate change, and disease – particularly fire blight. These conditions caused pear producers in Washington State to lose nearly 70,000 tons of their crop last year alone (not to mention the major losses in California as well).

    According to Nahla Bassil, plant geneticist, and Joseph Postman, pear curator, at the Agricultural Research Service’s (ARS) National Clonal Germplasm Repository (NCGR) in Corvallis, OR, developing superior new rootstocks is the number one research priority of the U.S. pear industry. Their research team includes postdoc Jason Zurn and crop manager Barbara Gilmore. Bassil’s research focuses on developing DNA markers that enable diagnosing host-plant resistance to the fire blight pathogen in breeding material, resulting in new cultivars that are resistant to the most devastating disease of pears worldwide.

    Overview of the interstem plot of young pear trees in 2019 (Photo by Joseph Postman)

    While there are numerous root systems, called rootstocks, available for apples that can produce trees ranging in size from super-dwarf to super-vigorous, very few rootstock options are available for pears, Bassil said. Currently, pear trees grown on vigorous rootstocks are large, must be planted far apart, and can take 5 years to come into production. In addition, large trees are more dangerous and time-consuming to prune and harvest, larger amounts of pesticides are needed to control pests, and pesticide coverage is less efficient compared to low-growing compact trees.

    Commercial apple producers primarily plant highly productive dwarf trees that are grafted onto specially designed rootstocks, developed by ARS scientists. Now, pear growers are looking to solve their production problems through genetic solutions.

    A few dwarfing rootstocks are available for pears, but they all have problems, ranging from susceptibility to disease to longer production times. That’s where the NCGR’s research comes in.

    “The USDA world pear collection in Corvallis contains many species and varieties that are potentially better rootstocks or have unique genetic characteristics that are not found in commonly grown varieties,” Bassil said. “Genetic solutions for production problems are economical and efficient in the long run, but there are challenges to identifying new genetic materials with the needed traits.”

    Postman’s search for a productive pear rootstock has taken him one step beyond the techniques used by his ARS colleagues who studied apples. Rather than grow a new pear tree by grafting the desired fruit tree atop a rootstock, as apple tree nurseries do, Postman uses a double-graft system.

    Interstem pear grafts in pots (Photo by Joseph Postman)

    “Pears do not root easily from cuttings,” he said. “We are using ‘interstems’ of potential rootstock varieties to overcome this difficulty.” An interstem is grafted onto a seedling rootstock, then a shoot of an edible cultivar is grafted onto the interstem. “We are hoping that an interstem piece will have the same dwarfing effect as commercial apple trees that are grafted onto dwarfing rootstocks.”

    As part of the RosBREED project, USDA scientists in Corvallis also identified natural resistance to fire blight that combined disease resistance with horticultural quality. “New genetic markers are being developed to identify and eliminate susceptible seedlings from a breeding program,” Bassil said. “These genetic markers can also select better parents, thus increasing the number of resistant seedlings in the next generation. This will save time, space, and dollars.” – by Scott Elliott, ARS Office of Communications.