Category: Economics

  • California Avocado Growers Encouraged To Vote In CAC General Election

    California Avocado Growers Encouraged To Vote In CAC General Election

    The deadline to vote in the California Avocado Commission General Election is fast approaching — October 27, 2021. Election ballots were mailed to commercial producers and all handlers of record in late September and must be returned to the California Department of Food and Agriculture in the postage paid envelope by the deadline. The results of the election will be announced on November 18.

    The elections will be for one producer member seat and one producer alternate seat in each of the five CAC districts, as well as one handler member seat and one handler alternate seat. A complete list of candidates can be found on the CAC General Election 2021 webpage.

    The 2021 General Election ballots will again use the ranked voting method, allowing voters to rank candidates in order of their preference. The candidate who receives the highest number of first choice votes will be offered their choice of available seats while the candidate with the highest combined total of first and second choice votes will then be offered the available seat.

    California avocado growers are highly encouraged to take part in the 2021 General Election. Please contact April Aymami at aaymami@avocado.org or 949.341.1955 if you did not receive a ballot.

  • University of Florida Researchers Publish Award-Winning Findings on Grove Design to Produce Oranges Under HLB

    University of Florida Researchers Publish Award-Winning Findings on Grove Design to Produce Oranges Under HLB

    University of Florida Institute of Food & Agricultural Sciences —The American Society for Horticultural Science recently honored University of Florida scientists for new guidelines citrus growers may apply to their operations. The researchers study ‘Valencia’ orange production while trees are under the most serious citrus disease worldwide.

    “The 7-year study broke new ground on data we provide to local citrus growers who remain in business despite huanglongbing, or HLB,” said Ronald D. Cave, Director of the University of Florida Institute of Food and Agricultural Science’s Indian River Research and Education Center in Fort Pierce (UF/IFAS-IRREC).

    A few of the findings citrus growers may employ immediately from the study are:

    • High-density plantings produce more fruit—from 86% up to 300% more than trees not planted in high-density configurations under HLB.

    • The study showed that advanced management practices that included high tree density, fertigation, and drip irrigation led to higher fruit yield.

    • Additional research is needed to determine optimal fertilization rates for high-density sweet orange orchards under HLB-endemic conditions

    The award-winning publication, “Sweet Orange Orchard Architecture Design, Fertilizer, and Irrigation Management Strategies under Huanglongbing-endemic Conditions in the Indian River Citrus District,” appears in the December 2020 issue science of the scientific journal HortScience. The paper describes the scientists’ hypothesis, the entire research procedure, outcomes, and recommendations for further research.

    Members of the American Society for Horticultural Science (ASHS) Fruit Publication Selection Committee wrote about the paper’s significance. “Huanglongbing, also known as citrus greening, affects all citrus cultivars and causes serious tree decline. It is currently a major threat to the citrus industry. The results can influence the whole citrus industry to deal with HLB including orchard architecture design, fertilizer, and irrigation management strategies.”

    Rhuanito “Johnny” Ferrarezi and his colleagues conducted experiments to determine the variables that promote healthy fresh fruit harvests with the presence of HLB. Ferrarezi, along with fellow professors Mark Ritenour and Alan Wright, accepted the “Outstanding Fruit Publication Award” for papers published in 2020 at the ASHS annual meeting awards ceremony in Denver, Colorado, Aug. 6. Ferrarezi is an Assistant Professor of Citrus Horticulture; Ritenour, Professor of Postharvest Technology; Wright, Professor of Soil and Water Science.

    Others who contributed to the research and the award-winning publication are Arun D. Jani, a post-doctoral research assistant; Thomas James III, who manages citrus research groves; and Cristina Gil, an agricultural research assistant.

    “We strive to keep citrus growers in business even though HLB is reducing the profitability of infected trees over time,” said Ferrarezi. “The point is to sustain younger trees for a number of harvests to produce the healthy, delicious fruit that made the Indian River District famous.”

  • Citrus Growers Join Researchers for Field Day of Emerging Answers

    Citrus Growers Join Researchers for Field Day of Emerging Answers

    University of Florida Institute of Food & Agricultural Sciences — More than 50 citrus growers and researchers attended a field day to view 154 new citrus scion-rootstock combinations—some of which will result in the production of market-ready fruit from trees that tolerate the most serious citrus disease worldwide.

    The disease is called citrus greening. It has reduced Florida citrus production to about half of what it was when 950,000 acres were under citrus production. Most researchers and growers agree that new scion and rootstock combinations hold a lot of possibility to preserve Florida’s signature crop.

    The Millennium Block Drive-Thru Field Day 2021 took place on the morning of Thursday, Oct. 14, at the University of Florida Institute of Food and Agricultural Science’s Indian River Research and Education Center (UF/IFAS-IRREC) in Fort Pierce, Florida.

    IRREC researchers guided attendees from information tents positioned at strategic points among 20 acres of carefully managed rows of grapefruit, orange, pummelo, and mandarin trees. Each plot of a scion-rootstock combination was labeled and corresponded to a 12-page packet Ronald Cave and researchers presented to visitors upon arrival. Cave is professor and director of IRREC, and he leads the citrus research project, along with manager Tom James, graduate student Martin Zapien, and agricultural assistant Mac Hossain.

    “Our mission for the Millennium Block’s rootstock and scion trials is primarily to provide guidance to growers on the UFR rootstocks. There is also a secondary purpose to evaluate grapefruit and grapefruit-like hybrids,” said Cave. “No other trial like this is happening anywhere, but we need additional funding to continue with the trial until the trees are seven years of age.”

    University officials and staff guided visitors to specific trees where growers left their vehicles to observe trees up close.

    “The Millennium Block research project is taking the industry’s best scions and rootstocks and mixing and matching them to provide the industry with a brighter future, and some of the matches look promising,” said Doug Bournique, executive vice president of the Indian River Citrus League.

    Jeanna Mastrodicasa, UF/IFAS Associate Vice President for Operations, led the event at booth #2. She fanned through the pages of the packet Cave gave her and noted the colored rows and legends. “Here is a great map and a great key that explains how the coding works and which rootstock appears where in the grove,” said Mastrodicasa.

    In a row of grapefruit trees across from Mastrodicasa, IRREC Advisory Committee member Pete Spyke pointed to six trees of the same rootstocks. Spyke is a heritage Florida citrus grower who owns Arapaho Citrus Management in Fort Pierce, Florida. He lifted bunches of yellow grapefruit with pink blush from the 2-year-old trees. “Ray ruby grapefruit on UFR-15 rootstock shows the kind of thing we are after in the Millennium Block trials. It’s a very nice fruit—very high quality—excellent performance for a young tree,” said Spyke.  “The tree has two blooms, a regular bloom and a late bloom. We will capture data from both blooms.”

    At a second location, where white grapefruit trees grow, Chris Hernandez showed an attendee a tree that produces sweet grapefruit. Hernandez is a UF horticulture undergraduate student and an agricultural assistant at IRREC.

    “My favorite grapefruit is Seedless Surprise. The variety is super sweet, the best flavor in a grapefruit I have experienced. And the trees tolerate citrus greening well,”Hernandez said.

    At another grove position, viewers gathered around Ken Gioeli, UF/IFAS Extension St. Lucie County Natural Resources Agent, to learn about invasive, venomous, and harmless snakes that may be found in the grove. Gioeli recommends growers to be aware of four venomous snakes found in the Indian River District and how they can increase safety. He urged visitors to report Burmese pythons with a mobile application, I’veGot1.

    Several longtime citrus growers were surprised to find some varieties in a condition they did not expect.

    “There are some variations in the rootstocks,” said Matt Hamilton. He, along with his family, own Hamilton Grove Services, Inc., in St. Lucie County. “I am surprised that some of the rootstocks I expected would do well are not looking too good, but a few of the UF rootstocks look good.”

    “Our family has been in the business since the 1960s,” said Mark Hamilton. “We are grapefruit growers, and we want to stay in business.”

    Growers recall many of the Indian River District’s citrus production challenges. Freezes, insects, and diseases have caused setbacks and the scion rootstock combinations may bring a comeback.

    “We need to make sure the trends we see today are consistent as time goes on. Next year’s data should be much more enlightening,” said Spyke.

    “The approach we are taking to breeding is to find tolerant scions and rootstocks that impart tolerance to the scion. Those combinations will be less expensive to grow and will produce larger crops of good wholesome fruit and those two factors will allow growers to make a good profit in the future. The data will be applicable to any variety growing anywhere in the state, including processed fruit.”

  • Expanding Global Markets for Mexican Avocado Production

    Expanding Global Markets for Mexican Avocado Production

    Mexico avocado production for marketing year 2021/22 is forecasted eight percent lower than the record production observed the previous marketing year. While production will remain strong, growers expect trees will need to recover for a season. High international demand and attractive global prices has encouraged producers to export product for higher returns. And while Michoacán is the only state with phytosanitary certification to export to the United States, exports to other global markets are expected to increase in the coming years.

    PRODUCTION

    The Post forecast for MY 2021/22 (July/June) avocado production is 2.33 million metric tons (MMT), eight percent lower than in the previous MY on reduced tree productivity. Grower’s state that they are expecting needed tree recovery after record productivity and production (especially in Michoacán) in the MY 2020/21 season. Additionally, insufficient rainfall and high temperatures are likely to reduce production and yields in non-Michoacan producing states. Planted and harvested areas are forecasted at 227,126 hectares (ha) and 225,910 ha respectively, with a national yield of 10.30 metric tons per hectare (MT/ha). Harvest reaches peak from October to February, with average supply from March to May, and low season from June to September.

    Mexico is the largest avocado producer in the world, accounting for 30 percent of global production. Planted area is steadily increasing year over year, at an annual growth rate of three percent, mainly due to high profitability and increased international demand. Mexico produces three varieties of avocado, with Hass accounting for 97 percent of total production and Criollo and Fuerte accounting for the remaining three percent.

    Michoacán is the top producing state in Mexico, with 75 percent of national production and 81 percent of total production value. Michoacán is also the only state with phytosanitary certification to export supplies to the United States. According to the Association of Avocado Producers and Packers and Exporters of Mexico (APEAM), there are more than 29,000 registered producers in the state (with small orchards of five to ten ha) with year-round production through four harvests. The first -and most productive- harvest of MY 2021/22 is forecasted 36 percent lower than the previous MY. The main avocado-producing municipalities are Peribán, Los Reyes, Uruapan and Tancítaro. Michoacan’s production forecast for MY 2021/22 is 1.78 MMT, nine percent lower than the previous MY, with planted area forecasted at 167,401 ha, and yields forecasted at 10.64 MT/ha. Approximately 63 percent of the states orchards are rain fed, and the remaining are equipped with drip or sprinkler irrigation systems.

    Jalisco is the second largest avocado producing state with more than 250,000 tons produced year-round from 3,100 producers (medium sized production of 10 ha or more, and 50 percent of total area among 15 to 20 growers). MY 2021/22 planted area is forecasted at 21,414 ha, two percent higher than the previous MY. Jalisco has 12,000 ha that are five years old or less among its 75 growing municipalities. Eighty-five percent of orchards are irrigated with either drip or micro-sprinklers, and planting is high density and sophisticated with technological advances like drone usage to monitor crop advancement and health.

    CONSUMPTION

    Most fresh domestic consumption is supplied from the states of Mexico, Nayarit, and Morelos. Domestic consumption for MY 2021/22 is forecast at 1.1 MMT. According to SIAP, annual per capita consumption is seven kilograms (approximately 15 pounds) per person. While a staple in Mexican cuisine, avocado consumption has not grown in recent years because of high prices driven by increased international demand. 

    Avocado has a wide range of uses as an industrialized product, including as a base for spreads, and oil production for cosmetic products. Avocado oil production from Hass and Fuerte varieties has increased in recent years. Read the full report from the USDA Foreign Agricultural Service HERE.

  • Blueberries Around the Globe – Past, Present, and Future

    Blueberries Around the Globe – Past, Present, and Future

    USDA International Agricultural Trade Report — Trade and production of blueberries is expanding globally as product development boosts their profile in form and function. Hailed for their flavor, versatility, and health benefits, blueberry consumption has expanded beyond fresh, ranging from pureed to powdered forms. Blueberries are also being used as ingredients and additives in foods and beverages. These new uses and forms of blueberries are combining with increasing fresh consumption to drive up production worldwide. Global production and trade have seen the most dramatic growth between 2010 and 2019, driven ever higher by mounting consumer demand.

    Domestication of Blueberries: From Idea to Industry

    The development of cultivated blueberries began in the early 1900s through the collaboration of Elizabeth White and USDA botanist Frederick Coville. Living on a cranberry farm in New Jersey,  White started conducting her own research into wild highbush blueberry plants in the 1890s. Coville began his research on cultivating wild blueberries in 1908. After they began corresponding, White eventually invited Coville to work with her on her family farm. They become business partners in 1911, harvesting and selling their first commercial crop of blueberries in 1916.

    Since then, commercial blueberry production has expanded in the United States and to every continent except Antarctica. Enabled by advances in genetics and production practices, blueberries were grown in at least 30 countries in 2019 and in a variety of climates. The major classes of blueberry plants now grown commercially are highbush, lowbush (sometimes referred to as wild), half-high (a cross between highbush and lowbush species), Rabbiteye, and Southern highbush. Plant production can be short or long-lived, with some cultivar plants productive for as little as 1-5 years or as long as 40-60 years.

    Global Production

    Global production more than doubled between 2010 and 2019, rising from 439,000 metric tons to nearly 1.0 million. During this time, the number of countries with reportable production expanded from 26 to at least 30, with 27 countries showing growth. In 2010, only 4 countries produced more than 10,000 tons:  the United States (224,000 tons), Canada (84,000 tons), Chile (76,000 tons), and France (11,000 tons). The number of countries producing at least 10,000 tons started increasing by 2012 and has not declined since then. By 2019, at least 11 countries were above the 10,000-ton threshold. Peru had the most dramatic expansion, rising from less than 50 tons to nearly 125,000 to become the fourth-largest producer behind the United States, Canada, and Chile. Peru is now the world’s leading exporter by value.

    Southern Hemisphere countries account for nearly 40 percent of the world’s production growth during this time, reaching close to 300,000 tons in 2019. The spread of production to the Southern Hemisphere has expanded blueberries’ seasonal market presence to all 12 months of the year, boosting availability for consumers and driving worldwide demand.

    In the United States, blueberries are the second-most produced berry. Until the early 1970s, they were commercially grown mostly in three states:  New Jersey, Michigan, and North Carolina. The industry worked to develop production in other states. In the 1990s, U.S. production reached 100 million pounds or more than 45,000 tons. In 2010, Michigan was the largest producer at almost 50,000 tons, accounting for 22 percent of U.S. production. Other states were expanding output, with Washington becoming the top grower in 2015. Washington remains the leading producer averaging 58,000 tons per year and 19 percent of U.S. production, while Oregon is a close second averaging 55,000 tons. The number of states that USDA’s National Agricultural Statistics Service includes in its annual survey was reduced from 14 states to 9 states in 2018 (the other 5 states accounting for less than 5 percent of production). However, production has continued to rise, reaching a record 339,000 tons in 2019. U.S. production has averaged nearly 300,000 tons since 2015, accounting for 36 percent of global production.

    Global Exports

    The World Customs Organization (WCO) publishes the International Harmonized Commodity Description and Coding System (Harmonized System or HS), a “multipurpose international product nomenclature” that is a hierarchical framework consisting of 4- and 6-digit classification codes (referred to as headings and subheadings, respectively). Currently, blueberries do not have their own 6-digit classification code. Under the HS, they are classified and harmonized in HS-6 codes that group them with other fruits of the genus Vaccinium (including cranberries), making it difficult to get an accurate understanding of actual blueberry trade. (See section below “Working Towards Better Trade Data.”) By using data from the U.S. Census, Food and Agriculture Organization of the United Nations (FAO), and industry as a guide, leading fresh blueberry exporters include Peru, Chile, Mexico, the United States, South Africa, Poland, and Canada.

    Though the value of fresh blueberry export trade is not known for all exporting countries, looking at these countries gives a good indication of the export situation. Using U.S. Census Bureau, Trade Data Monitor, and country data provided by FAS’s overseas offices, exports for these countries totaled $2.1 billion in 2019. For these seven countries, combined growth has averaged 18 percent annually since 2016, with Peru, Mexico, Poland, and South Africa seeing continuous growth. If exports average only 5 percent growth during the next 5 years, export value for these countries alone will reach nearly $3.0 billion by 2025. According to FAO data, global export volume has not declined since at least 2010, rising on average 46,000 tons per year between 2015 and 2019. Considering the expansion in production and exports since 2010 and the continued rise in consumer demand, exports of fresh blueberries are expected to continue their upward trajectory.

    Growth has been more moderate for U.S. exports. While the export value of fresh blueberries has grown 30 percent between 2010 and 2019, exports experienced 4 straight years of decline between 2014-2017, some of which coincided with years of lower output. On either side of that timespan, exports had peaked at $147 million in 2013 and have seen continuous growth since 2017, rising from $107 million to nearly $121 million in 2020. For 2021, January-July exports are slightly ahead of last year, up $3 million to nearly $99 million. On average, more than 80 percent of U.S. shipments go to Canada, valued at more than $106 million in 2020. Among the seven leading exporters, the United States ranks fourth behind Peru, Chile, and Mexico.

    The Future of Global Production

    Research into varieties no longer relies on public institutions but is now also happening in private industry, resulting in more rapid advances in genetics and varietal development. Research is underway to improve yield, berry quality, disease and pest resistance, and cold and heat resistance. Improvements are also happening in technology to better manage, harvest, and package crops. For example, due to its range of required chill hours (from 400 to 0 hours), Southern highbush cultivars can be grown as an evergreen, a system of managing bushes to produce berries year-round or at specific points in time. Depending on the geographic area, “evergreening” can prevent or manage defoliation through timing and severity of pruning. While prevention enables year-round production, managed defoliation allows growers to control or target when berries will be ripe, and therefore when they can be harvested. For managed defoliation, depending on the cultivar, the time period between pruning and harvest ranges from 5 to 8 months. For example, if aiming for a May harvest, bushes would be trimmed in January. While evergreen production is used in some areas of the United States, it has also allowed the spread of blueberry production to areas with warmer climates such as Australia, Mexico, Peru, and Spain.

    Current blueberry varieties are all within genus Vaccinium and section Cyanococcus. However, wild varieties outside Cyanococcus are known to exist around the world, including in more isolated areas such as islands in the South Pacific. With the success of blueberries, some of these countries are starting to cultivate their wild varieties. The current level of science does not yet easily allow the combining of genetics from Cyanococcus and non-Cyanococcus varieties. Expected advances in genetic technology will likely make this possible in the coming decades, leading to the development of new varieties and further spreading blueberry production.

    Working Towards Better Trade Data

    As noted above, blueberries are included in HS-6 codes that group blueberries with other fruits of the genus Vaccinium, such as cranberries and bilberries. Under the HS, blueberries are currently classified and harmonized globally at the HS-6 level subheadings of 0810.40 (fresh), 0811.90 (frozen), and 0813.40 (dried). Monitoring blueberry trade is challenging because only some countries break out blueberries beyond the HS-6 level as the United States does for fresh, frozen, and dried.

    Due to the considerable growth in global blueberry production and trade in the past 10 years, especially trade in fresh blueberries, FAS has prepared a proposal to submit to the WCO to amend the HS by creating specific subheadings for fresh, frozen, and dried blueberries, thereby distinguishing them from other Vaccinium fruit. Proposals for amendments to the HS are typically submitted by the industry. However, due to the need for global trade data, FAS has undertaken this effort to provide clarity on trade (and thus production) and achieve a more precise understanding of how large the market is and where trade (and thus production) is happening.

    The following are the steps for submission, review, and approval for amendments to the HS:

    1. Proposal is submitted to U.S. International Trade Commission (USITC) – if approved, USITC submits the proposal to the Trade Policy Staff Committee (TPSC).
    2. TPSC approval – if approved, USITC submits the proposal to the World Customs Organization HS Review Sub-Committee (WCO HS RSC) as an agenda item for their next meeting.
      Note:  TPSC is an interagency committee that includes representatives from USITC, USDA/FAS, the Department of State, the Department of the Treasury, the Office of the U.S. Trade Representative, the Department of Commerce, and the Department of Homeland Security/Customs and Border Protection.
    3. WCO HS RSC approval – if approved, the WCO HS RSC submits the proposal to the WCO HS Committee (HSC) for review at their next meeting.
    4. WCO HSC approval – if approved, the proposal is forwarded to the WCO for adoption.
    5. WCO adoption – if adopted, the proposed coding changes will be reflected in the next iteration of the HS, which means it will also be reflected in the Harmonized Tariff Schedule of the United States.

    FAS submitted a proposal to USITC in September 2021. If it successfully proceeds through the above process, the proposed changes will be reflected in the 2027 HS. Though it will be several years before the changes are implemented, ultimately the changes will significantly improve our ability to understand and forecast blueberry trade.

  • USAID Awards UC Davis $15 Million for Global Horticulture Research Program

    USAID Awards UC Davis $15 Million for Global Horticulture Research Program

    The U.S. Agency for International Development will provide a base $15 million investment over the next five years, with up to $34.5 million total funding possible, to support a global research program led by the University of California, Davis, that advances fruit and vegetable production, handling, and consumption.

    The Feed the Future Innovation Lab for Horticulture will work with and promote local leadership in communities across the globe to advance horticultural and social innovations for nutritional and financial security. This competitive five-year program was first awarded to UC Davis in 2009 and renewed in 2014.

    “Horticulture offers big health, economic and environmental benefits,” said Elizabeth Mitcham, program director and a UC Cooperative Extension specialist in the Department of Plant Sciences. “UC Davis will be leading an outstanding global consortium that will be able to make big impacts on developing sustainable, local expertise and innovative technical and social solutions to empower horticulture producers and their communities.”

    UC Davis will be joined in a consortium with Florida A&M University, Michigan State University, Texas A&M, and World Vegetable Center, along with subject matter experts from Penn State University and Making Cents International, to help manage this program.

    The Horticulture Innovation Lab will focus their efforts in West Africa, East Africa, South/Southeast Asia and Central America. At the forefront of their research will be the development of environmentally sustainable, market-oriented production and post-harvest handling methods that provide smallholder farmers and other stakeholders in fruit and vegetable value chains more income, as well as improved access to fruits and vegetables to better nourish their families and communities.

    Locally led, globally supported

    Within the UC Davis-led consortium are partners and specialists with expertise in horticulture, agronomics, agri-sociology, agribusiness and agri-policy. The Horticulture Innovation Lab will convene these global, regional and local experts to determine research needs in each geographical area. Once these research needs are defined, the team will emphasize a holistic, locally led approach to build community resilience and to support inclusivity. 

    “We asked ourselves, ‘how do you effect change in a system now that overcomes immediate challenges and those yet to present themselves?’” said Erin McGuire, associate director of the Horticulture Innovation Lab. “We need to understand the implications of our projects and to work closely with local leaders and community members to ensure a pipeline of appropriate innovations now and in the future.”

    Building on fertile grounds

    Fruits and vegetables provide vital nutrients for healthy communities, empower women and youth, and improve overall sustainability in production systems — this was the central tenet informing all of the work that the Horticulture Innovation Lab did during its first 10 years.

    As a direct result of the Horticulture Innovation Lab’s work, more than 750 horticultural technologies are now available for transfer and scaling in communities across the globe. More than 32,000 farmers are applying or using these technologies as a result of the lab and its network’s collective work, and more than 13,000 hectares of land are under new management practices.

    The Horticulture Innovation Lab produced a number of innovative technologies, including a chimney solar dryer that more efficiently dries and preserves fruits and vegetables for long-term storage, and a simple tool called the DryCard that lets farmers know if food is safe for dry storage.

    Additionally, researchers facilitated the adoption of improved agricultural methods, such as drip irrigation in Guatemala, and conservation agriculture for vegetable production and a packinghouse in Cambodia, that led to climate and social resilience.

    The Horticulture Innovation Lab is a part of Feed the Future, the U.S. government’s initiative to combat global hunger and poverty. It brings partners together to help some of the world’s poorest countries harness the power of agriculture and entrepreneurship to jump-start their economies and create new opportunities.  — By Matt Marcure, UC Davis

  • Celebrating Prune Growers for California Farmer and Farmworker Month

    Celebrating Prune Growers for California Farmer and Farmworker Month

    October is California Farmer and Farmworker Month, and the California Prune Board is celebrating those within the industry who work so hard to produce the premium fruit that contributes to health and wellbeing.

    “California’s prune growers and orchard workers have worked tirelessly through the pandemic to keep this wholesome fruit on tables and in pantries for families, frontline workers, and food banks,” said Kiaran Locy, California Prune Board, Director of Brand & Industry Communications, and Buy California Marketing Agreement board member. “While many Americans were sheltering in place and working from home, the California Prune industry worked together with retailers and distributors to ensure a consistent and stable supply of premium fruit.”

    The California Prune industry generates more than $717 million in annual economic impact flowing into the state economy creating and sustaining more than 7,000 full-time equivalent jobs. California’s prune industry is an important economic driver that contributes to the economic health of the communities throughout the state.

    “Choosing California Prunes and other California-grown food, wine, flowers, garden and nursery plants, directly supports and stabilizes our economy,” added Locy. “California is the largest producer of agricultural products in the nation and the largest producer of prunes in the world.”

    California Prune growers steward 43,000 acres of land. Generations of growers across the Sacramento and
    San Joaquin Valleys have brought a craftsmanship to cultivating their trees with the best orchard management practices. The California Prune industry has invested millions of dollars in agriculture and sustainability research that conserves energy, reduces water use, and improves the safety and quality of prune production while ensuring longevity for the industry.

    Growing a healthy food takes dedication and California’s prune growers and orchard workers are part of the vital network of producers that provide nutritious school meals and pantry-stable wholesome fruits for the most vulnerable of our population. Each year California Prunes works with USDA to secure prune purchases for school nutrition programs and food banks which also helps support the livelihood of prune-growing communities.

    As prune growers and orchard workers are an invaluable part of California’s ag community, the California Prune Board celebrates October California Farmer and Farmworker Month by spotlighting a series of meet-the-grower profiles, sharing videos on “What Makes California a Great Place to Grow Prunes” and “How I Got Into Agriculture,” alongside heritage recipes from grower families. The California Prune Board is further sharing these stories on social media channels throughout the month of October in partnership with #CAGROWN to honor the grower and orchard workers’ contributions and dedication to ensuring a safe food supply, even under the most daunting of circumstances.

    Always in season, California Prunes are good for your gut, heart, and bones. With under 100 calories per serving this fruit has no added sugar and packs a powerful punch of important vitamins, minerals, antioxidants, and fiber that support overall health and wellbeing.

    California Prune fans can access heritage recipes from grower families by visiting:https://californiaprunes.org/california-prunes-101/our-growers/ and follow @CAPrunes on Instagram, Facebook,Pinterest, YouTube, and Twitter.

    Mitchell Family Prune Cake
    What’s a prune farmer’s favorite way to eat prunes? Well, for the Mitchell family of Yuba City, Calif., the choice is easy: this old-fashioned prune cake recipe takes the (ahem) cake. A soft, prune-studded spice cake is covered in a buttery-sweet glaze that has everyone going back for another slice (or two.)

    SERVINGS: 12 pieces PREP TIME: 20 minutes COOK TIME: 1 hour
    INGREDIENTS

    For the cake:

    1 heaping cup California Prunes, minced (28-30 prunes)

    2 cups boiling water

    1 cup neutral baking oil or olive oil

    1 1/2 cups sugar

    1 tablespoon vanilla extract

    3 eggs

    2 cups all-purpose flour (or 2 cups gluten-free flour +
    2 teaspoons xanthan gum)

    1 teaspoon baking soda

    1 teaspoon cinnamon

    1 teaspoon nutmeg

    1/2 teaspoon cardamom

    1 teaspoon coarse kosher salt

    1 cup buttermilk

    1 cup walnuts, roughly chopped

     

    For the icing:

    1/4 cup melted butter

    1 cup sugar

    1/2 cup buttermilk

    2 teaspoons molasses

    1 teaspoon vanilla extract

    1 pinch coarse kosher salt

     

    DIRECTIONS

    Place the minced prunes in a large bowl and cover with boiling water. Soak for 20 minutes, then drain thoroughly.

    Preheat the oven to 300°F and spray a 13×9 metal or glass baking pan with cooking spray. Set aside.

    In a large mixing bowl combine the oil, sugar, vanilla, and eggs. Whisk to combine.

    In a separate mixing bowl combine the flour (or gluten-free flour + xanthan gum), baking soda, cinnamon, nutmeg, cardamom, and salt. Whisk to combine.

    Add the dry ingredients to the egg mixture alternating with the buttermilk in 3 additions. Stir to combine. Fold in the drained prunes and walnuts.

    Scrape the mixture into the prepared pan and bake for 45-60 minutes until cooked through and a toothpick in the center comes out clean.

    While the prune cake is baking, make the icing:

    Combine all the ingredients into a medium-sized saucepan. It will seem like the pot is too big, but the sugar mixture needs room to swell up in the pan. Bring to a boil and cook for 4-5 minutes or just before the softball stage.

    While the cake is hot from the oven and still in the pan pour the icing over the cake. Use a fork to gently poke holes all around the top of the cake so that it can absorb the icing. Enjoy the Mitchell family’s Old-Fashioned Prune Cake at your next special occasion!

    Recipe Notes: Sugar in the cake recipe can be substituted for 1/2 cup monk fruit.

  • Half Moon Bay’s World Heavyweight Championship Of Godzilla Gourds, Oct. 11

    No weigh? Weigh! Bring it on burly, beefy, bodacious behemoths!
     
    The excitement is building in Pumpkintown as the World’s Greatest Gourd Growers and their mind-blowing, Volkswagen-sized orange orbs hope to squash the world record on Monday, October 11 at the 48th Safeway World Championship Pumpkin Weigh-Off — the “Super Bowl of Weigh-Offs” — in the World Pumpkin Capital of Half Moon Bay, California and and this year organizers, in association with title sponsor Safeway, are upping the ante big time to celebrate the world’s greatest gourd growers.
     
    The world’s biggest top prize has been increased to $9/pound (from $7/pound) for the 2021 weigh-off champion. Also at stake are thousands of dollars in super hefty prize money doled out to the top 20 plus the big carrot: a $30,000 total mega-prize for a new world record pumpkin entered at Half Moon Bay.
     
    The weighing of pumpkins will begin around 7am and anticipate ending the weighing around 11am followed by the awards presentation and luncheon.
     
    Defending champion Travis Gienger’s rhinoceros-sized 2,350-pound mega-gourd (he named it The Tiger King) handily won the 2020 Safeway World Championship Pumpkin Weigh-Off in Half Moon Bay CA. It was the heaviest pumpkin weighed in North America in 2020.
     
    Beauty will share center stage with beefy brawn — a special $1,000 prize will be awarded to the “Joe Cotchett Family Most Beautiful Pumpkin”.
     
    Additional special bonus prizes include: Biggest California Pumpkin — $1,000; Biggest Coastside Pumpkin — $1,000.
     
    Using forklifts and special harnesses, the gargantuan gourds will be carefully placed on a 5-ton capacity, industrial-strength digital scale under the watchful eye of officials from the San Mateo County Agricultural Commissioner’s Office of Weights, Sealers, and Measures. Half Moon Bay’s Weigh-Off will serve as an officially sanctioned Great Pumpkin Commonwealth (GPC) site.

    Spectators are welcome. Admission is free.
     
    WEIGH-OFF LOCATION:
    IDES Grounds, 735 Main Street, Half Moon Bay CA.
     
    COVID PANDEMIC RESTRICTIONS: 
    The event will be held in accordance with State, County and City Health and Safety guidelines at the time of the weigh-off. Health guidelines strongly recommend that attendees be fully vaccinated. If not fully vaccinated, guidelines strongly recommend that attendees obtain a negative COVID-19 test prior to attending the event and wear a face covering at the event.

    LIVESTREAM ON FACEBOOK: Follow the weigh-off Livestream on Facebook.
     
    OFFICIAL RULES:
    • This event is open to growers of giant competition-sized pumpkins only.
    • Pumpkins must be grown, cared for, and entered by the weigh-off contestant.
    • Each contestant is limited to one entry.
    • Pumpkins that have won prizes in any other weigh-off competitions are not eligible.
    • In the event of a tie, prize money will be distributed equally among the tied parties.
    • Decisions of the judges are final in all cases.
    •Pumpkins must be in healthy and undamaged condition, free of rot, holes and cracks through the cavity, chemical residue, and soft spots.
    •To be classified as pumpkin, specimen must be 75% yellow/orange in color; all others will be classified as squash.
    •The vine must be trimmed to one inch from the stem. No foreign material is permitted in the weighing.
    •All pumpkins will be weighed without the use of tarps or other carrying devices.
    •Pumpkins will be classified by division based on where the specimen is grown, not the residence of the grower.
    •The weigh-off will be conducted in accordance with GPC rules.
     
    DELIVERY OF ENTRIES:
    Growers are responsible for bringing their entries to the weigh-off by 7:00 a.m. Weigh-off staff will move using brute strength manpower, special harnesses and forklifts. ALL entries will be handled with care.
     
    WEIGHING:
    The weighing and inspection will be officiated by the GPC and San Mateo County Department of Agriculture Office of Weights and Measures. The official weighing will be conducted using a 5-ton capacity digital scale.
     
    GROWER PRE-REGISTRATION IS REQUIRED:
    This event is open to growers of giant competition-sized pumpkins only. Growers are required to pre-register online on through this Eventbrite page. This will help us manage and control the event and provide an accurate count of entries. Participating growers are allowed to have a limited number of family and assistants (max. 4 including grower). Your cooperation will help us run a well-organized event.This event is open to growers of giant competition-sized pumpkins only.

     
    GROWERS AWARDS LUNCHEON:
    There will be an awards luncheon to honor all contestants immediately following the weigh-off.
     
    GROWERS VIP WELCOME PARTY, SUNDAY EVENING (OCT. 10) AT CAMERON’S INN & PUB:
    Registered weigh-off growers and their small traveling party (4 max.) are cordially invited to a VIP (Very Important Pumpkin) Party with complementary food and beverage at Cameron’s Inn & Pub on Sunday, Oct. 10 from 5-8pm. Please bring your weigh-off pumpkins to the VIP party for news media on-site to preview the weigh-off entries.
     
    WORLD’S BIGGEST TOP PRIZE – $9/Pound
    1st place prize money will be awarded in a “pay-by-the-pound” system with the champion receiving a hefty $9 per pound.
     
    WORLD RECORD MEGA-PRIZE – $30k
    The Safeway World Championship Pumpkin Weigh-Off is offering a special $30,000 mega-prize for the world record breaking pumpkin at the prestigious Half Moon Bay event. To receive the $30,000 mega-prize, the grower must break and hold the world record at the conclusion of the Half Moon Bay weigh-off. If two or more growers happen to break the world record at Half Moon Bay, the prize money would go to the grower of the heaviest pumpkin. The current world record heavyweight champion pumpkin is 2,703 pounds held by Stefano Cutrupi of Italy just set in late September, 2021! Magnifico!! Here’s how the $30,000 breaks down: the winner receives a world’s biggest $9 per pound plus plus the difference to get to a total of $30,000.
     
    PRIZE MONEY:
    1st Place — $9 per pound
    2nd Place — $3,000
    3rd Place — $2,500
    4th Place — $2,000
    5th–10th Place — $1,000 each
    11th–20th Place — $200 each
     
    SPECIAL PRIZES:
    World Record Pumpkin — $30,000 (total)
    Biggest California Pumpkin — $1,000
    Biggest Coastside Pumpkin (Montara to Pescadero) — $1,000
    Most Beautiful Pumpkin — $1,000
    Special GPC plaques and ribbons will also be awarded.
     
    LIVESTREAM ON FACEBOOK: Follow the weigh-off Livestream on Facebook https://www.facebook.com/halfmoonbaypumpkinweighoff/
     
    CONNECT WITH US ON SOCIAL MEDIA:
    FACEBOOK https://www.facebook.com/halfmoonbaypumpkinweighoff/
    TWITTER @HMBPumpkinFest
    INSTAGRAM https://instagram.com/hmbpumpkinfest
     
    2021 PUMPKIN FESTIVAL SIDELINED AGAIN BY CITY COUNCIL VOTE 
    For the second year in a row, the world-famous Half Moon Bay Art & Pumpkin Festival will not be allowed to take place after the Half Moon Bay City Council voted unanimously to deny organizers the required special event permit for this year’s carefully planned, months-in-the-works, single day HMB Pumpkin Minifest 49.5 that had been slated to bring back the uniquely joyous, feel-good Pumpkin Fest vibe to Main Street on October 16. Heartbreak beyond words x two now for our non-profits, our local artists and musicians, our suppliers, vendors and sponsors, local businesses and the entire Coastside community and festival fans everywhere.

  • Agriculturists Jeani and John Ferrari Recognized with CA Farmland Trust’s Vance Kennedy Award

    Agriculturists Jeani and John Ferrari Recognized with CA Farmland Trust’s Vance Kennedy Award

    Local philanthropists and long-time supporters of farmland protection, Jeani and John Ferrari, were honored by California Farmland Trust (CFT) as the 2021 Vance Kennedy Award recipients.

    The Vance Kennedy Award was established in 2014 in honor of Dr. Vance Kennedy, a founding member of CFT, because of his extraordinary contributions and efforts to the organization. Recipients of this prestigious award demonstrate significant commitment and dedication to furthering the protection of farmland in our most valuable regions. The Ferraris are the third recipients to receive the Vance Kennedy Award.

    “Being recognized by California Farmland Trust, an organization we hold in the highest regard, is a meaningful recognition,” John said. “CFT does the work that our region desperately needs, protecting our most important farmland for the long-term. It’s an esteemed award, and Jeani and I are honored.”

    As second-generation growers of sweet potatoes, almonds, walnuts, and peaches, Jeani and John’s passion and dedication to agriculture and farmland protection runs deep through Stanislaus and Merced counties. In addition, the Ferraris almond orchard is home to the first agricultural conservation easement enacted by Central Valley Farmland Trust (CVFT), now CFT, and Jeani served as a founding CVFT board member.

    Jeani and John exemplify community engagement, spanning from the Farmland Working Group that Jeani spearheads to inform the public about land use policies, to the “new” Turlock and CSU Stanislaus libraries, and the arts including the Carnegie Arts Center. John served on the Emanuel Medical Center’s foundation board and fundraising committees in support of the Cancer Center and Cardiovascular Operating Suites, where his dedication throughout the planning and fundraising process was invaluable.

    “The contributions Jeani and John have made since CFT’s inception and within our communities are extremely worthy of recognition, and the Vance Kennedy Award is especially fitting,” said Charlotte Mitchell, executive director at California Farmland Trust. “We are honored and thankful to work with such amazing community supporters and farmland protection advocates.”

    The California Farmland Trust is a California nonprofit 501(c)(3). Our mission is to help farmers protect the best farmland in the world. To date, we have protected 16,934 acres of farmland on 78 farms. To learn more visit us: www.cafarmtrust.org

  • Yeast and Bacteria Together Biosynthesize Plant Hormones for Weed Control

    Yeast and Bacteria Together Biosynthesize Plant Hormones for Weed Control

    Plants regulate their growth and development using hormones, including a group called strigolactones that prevent excessive budding and branching. For the first time, scientists led by UC Riverside have synthesized strigolactones from microbes. The work is published in the open-access journal, Science Advances.

    Strigolactones also help plant roots form symbiotic relationships with microorganisms that allow the plant to absorb nutrients from the soil. These two factors have led to agricultural interest in using strigolactones to control the growth of weeds and root parasites, as well as improving nutrient uptake.

    These root-extruding compounds don’t come without risks. They also stimulate germination of witchweeds and broomrapes, which can cause entire crops of grain to fail, making thorough research essential prior to commercial development. Scientists are still learning about the physiological roles played by this diverse group of hormones in plants. Until recently, manufacturing pure strigolactones for scientific study has been difficult and too costly for agricultural use.

    Yanran Li

    “Our work provides a unique platform to investigate strigolactone biosynthesis and evolution, and it lays the foundation for developing strigolactone microbial bioproduction processes as alternative sourcing,” said corresponding author Yanran Li, a UC Riverside assistant professor of chemical and environmental engineering.

    Together with co-corresponding author Kang Zhou at National University Singapore, Li directed a group that inserted plant genes associated with strigolactone production into ordinary baker’s yeast and nonpathogenic Escherichia colibacteria that together produced a range of strigolactones.

    Producing strigolactones from yeast turned out to be very challenging. Although engineered yeast is known to modify the strigolactone precursor, called carlactone, it could not synthesize carlactone with any of the specific genes used by the researchers.

    “This project started in early 2018, yet for over 20 months there was basically no progress. The gatekeeping enzyme DWRF27 is not functional no matter how we try in yeast,” Li said. “Kang developed a microbial consortium technique to produce a Taxol precursor in 2015 and that inspired this wonderful collaboration.”

    The team turned toward E. coli, which had already been shown capable of producing carlactone. The carlactone it produced, however, was unstable and could not be further modified by engineered E. coli into any strigolactones. Li’s group managed to optimize and stabilize the carlactone precursor.

    To their delight, when the yeast and bacteria were cultured together in the same medium, the E. coli and yeast worked as a team: E. coli made carlactone, and the yeast transformed it into various final strigolactone products. The method also produced enough strigolactones to extract and study. Using this platform, the group identified the function of multiple strigolactone biosynthetic enzymes, showing that sweet orange and grape have the potential to synthesize orobanchol-type strigolactones.

    The team also engineered microbe metabolism to boost strigolactone production threefold to 47 micrograms per liter, enough for scientific study. Though commercial production of strigolactones is still a long way off, the new method for biosynthesizing them from a yeast-bacterium consortium will help scientists learn more about this important group of plant hormones, especially the enzymes involved.

    Enzymes are protein catalysts and are responsible for modification of carlactone by yeast. Because carlactone is unstable, it cannot be purchased from commercial sources. As a result, many plant scientists have difficulty studying new enzymes that may work to transform carlactone into strigolactones.

    “The new yeast-bacterium co-culture provides a convenient way for scientists to complete such works because the bacterium makes carlactone in situ,” Zhou said. “With discovery of more enzymes and optimization of the microbial consortium, we can manufacture strigolactones in quantity in the future.”

    Li and Zhou were joined in the research by Sheng Wu, Anqi Zhou, and Alex Valenzuela of UC Riverside; and Xiaoqiang Ma at the Singapore-MIT Alliance for Research and Technology. The paper, “Establishment of strigolactone-producing bacterium-yeast consortium,” is available here. — By Holly Ober, UC Riverside