Category: Industry News

  • EPA Registers Long-Term Use of Sulfoxaflor While Ensuring Pollinator Protection

    Today, the U.S. Environmental Protection Agency (EPA) is issuing a long-term approval for the insecticide sulfoxaflor— an effective tool to control challenging pests with fewer environmental impacts. After conducting an extensive risk analysis, including the review of one of the agency’s largest datasets on the effects of a pesticide on bees, EPA is approving the use of sulfoxaflor on alfalfa, corn, cacao, grains (millet, oats), pineapple, sorghum, teff, teosinte, tree plantations, citrus, cotton, cucurbits (squash, cucumbers, watermelons, some gourds), soybeans, and strawberries.

    “EPA is providing long-term certainty for U.S. growers to use an important tool to protect crops and avoid potentially significant economic losses, while maintaining strong protection for pollinators,” said Alexandra Dapolito Dunn, assistant administrator for EPA’s Office of Chemical Safety and Pollution Prevention. “Today’s decision shows the agency’s commitment to making decisions that are based on a sound science.”

    “Today’s action ensures reduced risk to pollinators and the environment through crop-specific label restrictions and provides farmers with a critical pest-management tool needed to protect crops from invasive sugarcane aphids, plant bugs and other pests,” said Jim Gulliford, Regional Administrator for EPA Region 7.“Here in Region 7, the registration of sulfoxaflor will help prevent significant hardship for producers of sorghum, corn, cotton and other commodities attacked by devastating insects.”

    Sulfoxaflor is an important and highly effective tool for growers that targets difficult pests such as sugarcane aphids and tarnished plant bugs, also known as lygus. These pests can damage crops and cause significant economic loss. Additionally, there are few viable alternatives for sulfoxaflor for these pests. In many cases, alternative insecticides may be effective only if applied repeatedly or in a tank mix, whereas sulfoxaflor often requires fewer applications, resulting in less risk to aquatic and terrestrial wildlife.

    EPA’s registration also includes updated requirements for product labels, which will include crop-specific restrictions and pollinator protection language.

    Background

    Sulfoxaflor is an important and highly effective tool for growers that targets difficult pests such as aphids and tarnished plant bugs (lygus). These pests can cause significant economic loss leading several states to request emergency exemptions in recent years. There are few viable alternatives for sulfoxaflor. In many cases, alternative insecticides may be effective only if applied repeatedly, whereas sulfoxaflor typically requires fewer applications resulting in less risk to non-target pests and plants.

    In 2016, following a 2015 decisionof the Ninth Circuit Court of Appeals vacating the registration of sulfoxaflor citing inadequate data on the effects on bees, EPA reevaluated the data and approved registration that did not include crops that attract bees. The 2016 registration allowed fewer uses than the initial registration and included additional interim restrictions on application while new data on bees were being obtained. Today’s action, adding new uses, restoring previous uses, and removing certain application restrictions is backed by substantial data supporting the use of sulfoxaflor.

     

  • Five Shades of Gray Mold Control in Strawberry: Evaluating Chemical, Organic Oil, Botanical, Bacterial, and Fungal Active Ingredients

    Botrytis fruit rot or gray mold, caused by Botrytis cinerea, is common fruit disease in California strawberries (Koike et al. 2018).  Botrytis cinerea has a wide host range infecting several commercially important crops including blueberry (Saito et al. 2016), grapes (Saito et al., 2019), and tomato (Breeze, 2019).  Fungal infection can cause flower or fruit rot.  Fruit can be infected directly or through a latent infection in the flowers.  Moist and cool conditions favor fungal infections and increased sugar content in the ripening fruit can also contribute to the disease development.  Initial symptoms of infection appear as brown lesions and a thick mat of gray conidia is characteristic symptom in the later stages of infection.  As chemical fungicides are primarily used for gray mold control, fungicide resistance is a common problem around the world (Panebianco et al., 2015; Liu et al., 2016; Stockwell et al., 2018; Weber and Hahn, 2019).  In strawberry, cultural control options such as removing diseased plant material or using cultivars with traits that can reduce gray mold infections may not be practical when the disease is widespread in the field or cultivar choice is made based on other factors.  Non-chemical control options are necessary to help reduce the risk of chemical fungicide resistance, prolong the life of available chemical fungicides, achieve desired disease control, and to maintain environmental health.  Although there are several botanical and microbial fungicides available for gray mold control, limited information is available on their efficacy in California strawberries.  A study was conducted in the spring of 2019 to evaluate the efficacy of several chemical, botanical, and microbial fungicides in certain combinations and rotations to help identify effective options for an integrated disease management strategy.

    Methodology

    Strawberry cultivar San Andreas was planted late November, 2018 and the study was conducted in April and May, 2019.  Each treatment had a 20′ long strawberry plot with two rows of plants replicated in a randomized complete block design.  Plots were maintained without any fungicidal applications until the study was initiated.  Table 1 contains the list of treatments, application rates and dates of application, and Table 2 contains the type of fungicide used and their mode of action.  Beauveria bassiana and Metarhizium anisopliae s.l. are California isolates of entomopathogenic fungi, isolated from an insect and a soil sample, respectively.  These fungi are pathogenic to a variety of arthropods and some strains are formulated as biopesticides for arthropod control.  However, earlier studies in California demonstrated that these fungi are also known to antagonize plant pathogens such as Fusarium oxysporum f.sp. vasinfectum Race 4 (Dara et al., 2016) and Macrophomina phaseolina (Dara et al., 2018) and reduce the disease severity.  To further evaluate their efficacy against B. cinerea, these two fungi were also included in this study alternating with two chemical fungicides.

    Treatments were applied with a CO2-pressurized backpack sprayer using 66.5 gpa spray volume.  Five days before the first spray application and 3 days after each application, all ripe fruit were harvested from each plot and incubated at the room temperature in vented plastic containers.  The level of gray mold on fruit from each plot was rated using a 0 to 4 scale (where 0=no disease, 1=1-25% fruit with fungal infection, 2=26-50% infection, 3=51-75%, and 4=76-100%) 3 and 5 days after each harvest (DAH).  Due to the rains, fruit could not be harvested after the 3rd spray application for disease rating, but was harvested and discarded after the rains to avoid cross infection for the following week’s harvest.  Data were analyzed using analysis of variance using Statistix software and significant means were separated using Least Significant Difference separation test.

    Results

    Gray mold occurred at low to moderate levels during the study period.  Along with B. cinerea, there were a few instances of minor fungal infections from Rhizopus spp. (Rhizopus fruit rot) and Mucor spp. (Mucor fruit rot).  Pre-treatment disease ratings were statistically not significant (P = 0.6197 and 0.5741) 3 and 5 DAH.  While the chemical standard treatment with the rotation of Captan, Merivon, Switch, and Pristine (treatment 2) appeared to result in the lowest disease rating throughout the observation period, treatments 3 and 5 after the 1st spray application, treatments 5 and 11 along with 3, 4 and 6 after the 2nd spray application, and treatments 3 and 5 along with 11 after the 4thspray application also had similar disease control at 3 DAH.  When disease at 5 DAH was compared, the lowest rating was seen in treatment 2 after the 1st and 2nd spray applications, and treatments 2, 3, and 11 after the 4th application.  Several other treatments also provided statistically similar control during these days.

    Discussion

    This study compared a variety of registered and developmental products along with two entomopathogenic fungi in managing B. cinerea.  Considering the fungicide resistance problem in B. cinerea in multiple crops, having multiple non-chemical control options is very important to achieve desirable control with integrated disease management strategies.  Since the active ingredients in the botanical and bacterial fungicides used in this study are not public, discuss will be limited on their modes of action and efficacy at this point.  Similarly, the active ingredient of WXF-17001 is also not known, however, an earlier study by Calvo-Garrido et al. (2014) demonstrated that a fatty acid-based natural product reduced B. cinerea conidial germination by 54% and disease severity in grapes by 96% compared to untreated control.  The product used by Calvo-Garrido et al. (2014) is thought to be fungistatic and reduce the postharvest respiratory activity and ethylene production in fruits.

    While chemical fungicides have a specific mode of action, biological and other products act in multiple manners either directly antagonizing the plant pathogen or by triggering the plant defenses.  For example, amending the potting medium with biochar resulted in induced systemic resistance in tomato and reduced B. cinerea severity by 50% (Mehari et al., 2015).  Luna et al. (2016) also showed that application of β-aminobutyric acid and jasmonic acid promoted seed germination and long-term resistance to B. cinerea in tomato.  Burkholderia phytofirmans, beneficial endophytic bacterium, offered protection against B. cinerea in grapes by mobilizing carbon resources (callose deposition), triggering plant immune system (hydrogen peroxide production and priming of defense genese), and through antifungal activity (Miotto-Vilanova et al. 2016).  Similarly, entomopathogenic fungi such as B. bassiana are also known to induce systemic resistance against plant pathogens (Griffin et al. 2006).  Compared to other options evaluated in the study, entomopathogenic fungi have an advantage of controlling both arthropod pests and diseases, while also having plant growth promoting effect (Dara et al. 2017).

    Rotating fungicides with different mode of actions reduces the risk of resistance development and using some combinations will also maintain control efficacy.  This study provided the efficacy of multiple control options and their combinations and rotations for B. cinerea.  This is also the first study demonstrating the efficacy of entomopathogenic fungi against B. cinerea in strawberry.

    By Surendra K. Dara

  • UC Riverside Scientists Decode DNA of Black-eyed Peas

    UC Riverside scientists have decoded the genome of black-eyed peas, offering hope for feeding Earth’s expanding

    Understanding the genes responsible for the peas’ drought and heat tolerance eventually could help make other crops tougher too.

    Black-eyed peas are small beans with dark midsections. They’ve been a global dietary staple for centuries due to their environmental toughness and exceptional nutritional qualities, such as high protein and low fat. In sub-Saharan Africa they remain the number one source of protein in the human diet.

    A genome is the full collection of genetic codes that determine characteristics like color, height, and predisposition to diseases. All genomes contain highly repetitive sequences of DNA that UCR Professor of Computer Science and project co-leader Stefano Lonardi likens to “hundreds of thousands of identical jigsaw puzzle pieces.”

    Lonardi described the process of figuring out how the jigsaw puzzle sequences fit together as “computationally challenging.” In order to do so, Lonardi’s team assembled the genome many times with different software tools and parameters. Then they created new software capable of merging these various genome solutions into a single, complete picture.

    With the success of this project, the black-eyed pea joins only a handful of other major crops whose genomes have been fully sequenced. The team’s work on the project was published in the June issue of The Plant Journal, where it was featured as the cover story, and Lonardi’s free software can be downloaded online.

    Research on black-eyed peas, a legume also known as cowpea, started at UC Riverside more than 40 years ago. But cowpeas’ presence in Riverside predates the university by about 200 years.

    “The cowpea has been here supporting people since early colonial times,” said project co-leader Timothy Close, a UCR professor of botany and plant sciences. ‘It’s nice that we’ve brought this plant with so much local history up to state of the art for scientific research.”

    This is the first high-quality reference genome for the cowpea. Work on it began three years ago, made possible mainly by a $1.6 million grant from the National Science Foundation, or NSF. An additional $500,000 NSF grant also supported the computational efforts.

    A clue to the complexity of the project is the size of the research team. In addition to Close and Lonardi, the many other UCR scientists on the team included María Muñoz-Amatrían, Qihua Liang, Steve Wanamaker, Sassoum Lo, Hind Alhakami, Rachid Ounit, Philip Roberts, Jansen Santos, Arsenio Ndeve, and Abid Md. Hasan. Additional team members inside the U.S. came from UC Davis, the Department of Energy’s Joint Genome Institute in California, the National Center for Genome Resources in New Mexico, and the U.S. Department of Agriculture in Iowa. International team members came from Finland, France, Brazil, and the Czech Republic.

    As with humans, there are differences between individual cowpeas. Knowing which genes are responsible for qualities in individuals such as color, size, or pathogen resistance will help breeders develop new varieties even better able to withstand external challenges.

    “Having the genome sequence helps scientists make decisions about the choice of parent plants to crossbreed in order to produce their desired progeny,” Close said.

    One of the cowpea traits that scientists are now trying to understand is its remarkable ability to recover from drought stress.

    “We’re trying to figure out why cowpeas are so resilient to harsh conditions,” said Close. “As we move into a world with less water available to agriculture, it will be important to capitalize on this ability and expand on it, taking the lead from cowpeas to guide improvements in other crops that are vulnerable to climate change.”

    By Jules Bernstein, UCR

  • Fusarium Wilt in Garbanzos

    A little over a month ago, I visited some contiguous garbanzo bean fields in southern San Joaquin County, at the request of the grower. The grower observed that plants were yellowing and dying (Fig. 1) and wondered what might be causing the problem. The grower did not figure that he would be able to do anything about the problem in this year’s crop, but he was thinking ahead for future cropping. He doesn’t have reliable water at this site, so his cropping options (i.e. rotation options) are limited. He would consider growing garbanzos in these fields again next year unless diagnostics revealed a disease problem.

    My observations of the field were that there were patches of several nearby plants with symptoms, but across the three contiguous fields, the patches were widespread. I suspected a vascular disease because of what appeared to be a progression of the disease from yellowing to necrosis to eventually plant death. I submitted samples to the plant pathology lab at UC Davis, and they diagnosed Fusarium oxysporum f. sp. ciceris, which is the Fusarium wilt pathogen for garbanzos. Fusarium wilt (also called Fusarium yellows) has the external symptoms previously described, but in addition to these symptoms, splitting the stems may reveal reddish-brown streaking in the vascular system at the center of the stem (i.e. xylem). The roots won’t show discoloration with Fusarium wilt like they will with Fusarium root rot. Fusarium wilt should not be confused with yellowing caused from virus, which will exhibit discoloration in the phloem. Fusarium wilt can reduce yield by reducing seed quantity and size.

    In general, cultural practices are the only ways to manage this disease. Luckily, the Fusarium wilt pathogens are crop-specific, so this pathogen will only infect garbanzos. The pathogen, however, can survive for a long time in the soil (upwards of 6 years or more) because it can survive under wide temperature and pH ranges. Therefore, crop rotation is an important management practice. Crop rotation will help to slow the proliferation of the disease, but it generally won’t eliminate it. Growers should plant certified disease-free seed. They should not save seed for planting because Fusarium wilt (and Ascochyta blight) can live externally on the seed. Growers should also consider planting UC-27, which has disease resistance and is adapted to the Central Valley. Disease management may also include cleaning soil from equipment when moving from an infected field to a non-infected field. In some studies, soil solarizaton has been shown to reduce Fusarium wilt in subsequent garbanzo crops, but to my knowledge, there hasn’t been any work on soil solarization in California garbanzos.

    Garbanzo beans are an important crop worldwide for human and animal nutrition. In California, they are grown during the winter months, like small grains, and provide growers with another crop choice that can be winter rain-fed. Because they are a legume, they can fix atmospheric nitrogen to fulfil some of their nitrogen needs. Garbanzos also are more tolerant of soil salinity than common beans and limas. In California, we annually grow approximately 10,000 acres of garbanzos. California garbanzos are generally a high-quality product grown for the canning industry. More information on garbanzo production in California can be found in the UC production manual.

  • New Olive Oil Commission of California Chairman

    Brady Whitlow of Corto Olive Company was elected by the OOCC Board to serve as its new Chairman. Whitlow formerly served as the OOCC’s Secretary/Treasurer and he replaces Jeff Colombini, Lodi Farming Company, who has served as Chairman since the OOCC’s inception in 2014. Colombini will continue to serve on the Board and Executive Committee as the Board’s Treasurer/Secretary. Meanwhile, Adam Englehardt, of Boundary Bend Olives/Cobram Estate, will serve as the Board’s Vice Chairman.

    Remaining open seats on the OOCC Board were also filled with Joe Kidd, Executive Vice President of Operations at California Olive Ranch appointed to serve as the District 1 Handler representative and Deborah Rogers, McEvoy Ranch, appointed as the alternate Producer member in District 2.

    Handler representatives in District 2 were also appointed with Ciriaco Chavez, Boundary Bend Olives/Cobram Estates serving as the member and Jim Etters, Seka Hills Olive Mill, as the alternate member.

  • Master Milling Certificate Course September 23-25, 2019

    The Master Milling Certificate Course has helped hundreds of olive oil processors produce better oil more efficiently. A survey of attendees’ found that 90 percent of respondents believed that the course material would boost their quality or efficiency by more than five percent, and 72 percent said that the course was “very likely” to lead to higher profitability.

    The course will be led by Leandro Ravetti, among the world’s top experts in olive oil processing, growing, and standards. As executive director of Australia’s Boundary Bend Limited, Leandro has helped guide the company to rapid growth, optimum efficiency, and top awards at international olive oil competitions. The company’s success is guided by innovation, data, and analysis to maximize oil production efficiency and quality.

    The course will also include a field trip to three olive oil processors.

    This course is a small investment that will pay off in more efficiency, better quality, and higher profits.

    What’s included

    • Three days of expert instruction

    • Field-trip transportation.

    • Breakfast pastries, lunch, and beverages featuring local and seasonal ingredients from one of the region’s best caterers.

    • Booklet with presentation slides in note-taking format.

    • Flash drive with presentation slides and supplemental materials.

    Reviews

    “Overall I found the course to be absolutely wonderful. All of the presenters were knowledgeable, shared information freely and were good presenters. Leandro was especially fantastic. His knowledge on the subject matter is staggering and he is a pleasure to listen to.”

    “Great course! I really liked the detailed look from start to finish in the processing. I also liked the hands-on look at the processing and the first-hand view of different processors during the field trip. This trip was invaluable to me – I learned so much!”

    “This was a wonderful experience, our minds are full of new ideas, tips to apply, errors not to make!”

    “One value of the course is the peer-to-peer networking!”

    Registration

    The three-day course will be held on the UC Davis campus in the Silverado Vineyard Sensory Theater at the Robert Mondavi Institute for Wine and Food Science.

    $875 until July 15, 2019

    $1,075 after July 15, 2019

    Cancellations: 100% credit for future course if cancelled prior to June 15, 2019; 50% credit if cancelled prior to July 15, 2019; no credit after July 15, 2019.

    IF YOU LIVE OUTSIDE THE USA: Please enter CA in the State Field. 95616 in the Zip Code Field and 555-555-5555 in the Telephone Field. You can enter your state/province, country, postal code and phone number in the supplemental fields provided. Once you submit the registration information  you will be redirected to a secure credit card site where you will be able to enter your credit card information with the correct address.

    Instructors

    Leandro Ravetti graduated as an Agricultural Engineer in Argentina. He worked for the National Institute of Agricultural Technology in olive production research and advised many of the country’s largest olive developments from 1995 until he moved to Australia in 2001. Leandro has also studied and worked as an invited researcher at the Olive Growing Research Institute of Perugia, Italy and at different Governmental Olive Institutes in Andalusia, Spain where he completed a postgraduate degree on olive growing. In Australia, Leandro leads the Modern Olives technical team, which provides horticultural and olive specific technical advice to most of the largest olive groves and olive oil processing plants in the country. Leandro has also been involved as adviser, researcher and invited speaker in most other new olive industries such as New Zealand, Japan, Peru, South Africa, Chile and USA. Leandro has been Executive Director of Boundary Bend Limited, Australia’s leading fully integrated olive company since 2005. As part of his role with Boundary Bend, Leandro has overseen the production of multi award winning oils for the company’s flagship brand, Cobram Estate, including a large number of gold medals, best in class and best in show trophies in national and international competitions such as New York, Los Angeles, Olive Japan, Australian Olive Association, etc.

    Dan Flynn is executive director of the UC Davis Olive Center, which he has guided to international leadership in olive research and education. Dan also oversees the production of UC Davis Olive Oil and other olive products that help support the center. He served 16 years as a legislative and policy consultant in the California State Legislature and also managed a small farm prior to coming to UC Davis. He has a M.A. in Political Science from Rutgers University. Based on his achievements with the Olive Center, Dan has received top staff awards from the College of Agricultural and Environmental Sciences and the chancellor of the university.

    Selina Wang, PhD, is an extension specialist in the Department of Food Science and Technology and research director of the UC Davis Olive Center. Dr. Wang also is the leader of the UC Davis Olive Oil Laboratory, which provides research and analysis of olive oil and table olives. As research director, Dr. Wang has developed more than 60 research projects in table olives and olive oil. Dr. Wang is pursuing additional innovative research that seeks to deliver faster, better and cheaper methods for analyzing olive oil quality and authenticity.

    Hotel Reservation

    Hyatt Place UC Davis

    173 Old Davis Rd, Davis, CA 95616

    (530) 756-9500

    Booking link: https://www.hyatt.com/en-US/hotel/california/hyatt-place-uc-davis/smfzu?corp_id=G-U271

     

    Hallmark Inn at UC Davis

    110 F Street, Davis, CA 95616

    Booking link: https://www.myhotelreservation.net/b/hasmfinn/HASMFINN/?i=WHPROMO5A&rac=*NP05$

  • GreenFruit Avocados Expands Sales Team to Keep Pace with Growing Demand

    Green Fruit Avocados, a fully integrated avocado grower and shipper, has announced the addition of produce industry veterans Lisa Cabuto and Dave Culpeper to its sales team. As senior sales representative and senior account manager respectively, the two will leverage their industry expertise and connections to help the company continue its exponential growth. The hiring, along with a recent move to a larger facility in Newport Beach, are part of Green Fruit’s aggressive expansion strategy and will enable the company to maintain the high-quality service for which it is known.

    “Lisa’s customer focus, work ethic and charismatic personality will make her a tremendous addition to our team,” said Kraig Loomis, the company’s sales manager. “The strong business relationships she has built with Mexican grower-shippers over the course of 25 years in the produce business will also provide the company with fresh insight on how to collaborate most effectively with all of our U.S. and international partners.”

    Cabuto began her career by advancing through multiple positions at the Los Angeles Wholesale Produce Market. Most recently she was a buyer for Northgate Gonzalez Markets, where she played a pivotal role in orchestrating direct programs with many grower-shipper partners.

    “We are well positioned as a vertically integrated avocado grower and packing house,” said Dan Acevedo, director of business development at Green Fruit Avocados. “But to have someone as uniquely qualified as Dave Culpeper bring his talents to our organization and assist with our continued growth is very humbling.”

    Culpeper’s roots in agriculture go back to his early days in Escondido, CA, where his father managed several citrus and avocado ranches. After serving in the United States Air Force, he was the first employee at West Pak Avocado, and spent more than 30 years at the company building its sales infrastructure and developing its international operations in Mexico and Chile.

    “As we continue to grow as a global company, we know that the people who represent Green Fruit Avocados will be instrumental in our success,” said Brian Gomez, company president and founder. “We are extremely pleased to have Lisa and Dave as part of the Green Fruit sales team.”

    About Green Fruit Avocados:

    GreenFruit Avocados is a direct supplier of Mexican Hass avocados. As a fully integrated avocado supplier, the company specializes in growing, packing, shipping and marketing avocados worldwide. Green Fruit has state-of-the-art facilities in Uruapan, Michoacán, Mexico, and Newport Beach, California. USA. Founded and operated by agriculture industry veterans, the company develops customized programs to meet each customer’s unique needs.

    For more information on Green Fruit Avocados, please email sales@greenfruitavocados.com or call 949.251.0963.

     

  • Joel Nelsen Reappointed to Senior Trade Policy GRP

    CCM’s Joel Nelsen was reappointed to the Administration’s Fruit & Vegetable Trade Advisory Committee this week as announced by USDA Secretary Sonny Perdue and Trade Ambassador Robert Lighthizer. These positions are highly coveted as they have direct engagement with Administration officials on trade policy. Nelsen has served since the George W. Bush Administration, and for the past fours, his colleagues have asked him to chair the Fruit & Vegetable Committee. There are several trade advisory committees all serving varied business sectors in the United States. Agriculture, because of its diversity, has over six committees representing the varied Ag commodity sectors.

    “To be able to continue serving in this role is both gratifying and humbling,” Nelsen states. “I had the support of Valley Congressmen McCarthy, Nunes, and Costa along with Congressional members Ken Calvert and Julia Brownly. Additionally, Senator Feinstein sent a letter on my behalf, all of which were gratefully appreciated.”

    There are upwards of two dozen seats available on each committee half of which expire every two years. The role is to initiate and/or advise the Administration on a myriad of policy and technical issues that can and do affect the produce industry. “The give and take are real, as is the opportunity for accountability,” Nelsen continues. “Certainly these past two years have been challenging, and most likely, these disputes will carry on as the Administration seeks to balance trade and initiate policies that correct deficiencies in existing agreements. I truly do appreciate the fact that our California Congressional members and the Administration continue to believe I bring value to the process. It is very rewarding.”

  • Western Growers Statement on U.S. and Mexico Trade Deal

    In response to the deal reached by the U.S. and Mexico to avert the addition of five percent tariffs on all Mexican goods, Western Growers President and CEO Tom Nassif issued the following statement:

    “We are pleased that this potential impediment to trade between our two countries has been avoided. Mexico represents one of the largest export markets for U.S. agricultural goods, and any tit-for-tat escalation of tariffs would be devastating for American farmers, in particular given the current barriers to access to Chinese markets.

    “As significant as this deal is in maintaining our regular flow of trade with Mexico, it is equally critical in clearing the pathway for passage and implementation of the U.S.-Mexico-Canada Agreement (USMCA). Like NAFTA before it, the USMCA maintains zero-tariff treatment for all produce, a provision that led to the tripling of U.S. exports to Mexico over the past 25 years. Additionally, the USMCA contains favorable terms that will advance science-based sanitary and phytosanitary measures and strengthen Mexico’s labor standards.

    “With the threat of tariffs no longer standing in the way, as well as other early obstacles that have now been removed, the onus is on Congress to pass the USMCA, which we urge with the greatest expediency.”

     About Western Growers:

    Founded in 1926, Western Growers represents local and regional family farmers growing fresh produce in Arizona, California, Colorado and New Mexico. Our members and their workers provide half the nation’s fresh fruits, vegetables and tree nuts, including half of America’s fresh organic produce. For generations we have provided variety and healthy choices to consumers. Connect with and learn more about Western Growers on our Twitter and Facebook.

     

  • Kevin Ball Joins Citrus Pest & Disease Prevention Committee

    The Citrus Pest & Disease Prevention Committee (CPDPC) announces the addition of Kevin Ball as the new grower representative for the coastal district position. Kevin Ball will advise the committee on the latest citrus grower activities occurring in the coastal area.

    The CPDPC advises the Secretary and the agricultural industry about efforts to combat serious pests and diseases, like the Asian citrus psyllid and Huanglongbing, that threaten the state’s citrus crop.

    Ball brings decades of experience in the agricultural industry, most recently as vice president of orchard operations at Agland Services for the past 15 years. At the company he supervises the daily operations of 20 ranches in the Camarillo, Somis, Moorpark and Ventura areas while consulting on ranches throughout Ventura and Southern Santa Barbara counties.

    As a former executive committee board member at the California Avocado Society, Ball is also well versed in organizing, planning and implementing grower outreach programs and managing budgets for seminars, research and grower outreach. Beginning his career as a grower, Ball is experienced in the field, running irrigations, spraying weeds, maintaining equipment and more.

    Coastal area citrus growers may contact Kevin Ball with concerns/inquiries:

    Kevin Ball
    Vice President of Orchard Operations, Partner, Agland Services
    kevin.ball@aglandca.com