Category: Technology

  • UC Davis’ Kaan Kurtural Shares Advancements in Precision Viticulture

    It used to be that growers had few if any options in bring uniformity to a vineyard with so much variability in soil type among other geographical characteristics.  There have been so many recent developments and technological advances in plant and soil sensing equipment that has taken precision viticulture to a whole new level.  Watch this brief interview with UC Davis Viticulture Extension Specialist Kaan Kurtural as he discussed this at UCCE Grape Day recently at the Kearney Ag Center in Parlier.  Read more about it in American Vineyard Magazine.

    Please thank our sponsor Duarte Nursery for their industry support by visiting them at their booth at Malcolm Media’s Annual Grape Grower Expos next month.

  • Genome-Edited Bull Passes on Hornless Trait to Calves

    For the past two years, researchers at the University of California, Davis, have been studying six offspring of a dairy bull, genome-edited to prevent it from growing horns. This technology has been proposed as an alternative to dehorning, a common management practice performed to protect other cattle and human handlers from injuries.

    UC Davis scientists have just published their findings in the journal Nature Biotechnology. They report that none of the bull’s offspring developed horns, as expected, and blood work and physical exams of the calves found they were all healthy. The researchers also sequenced the genomes of the calves and their parents and analyzed these genomic sequences, looking for any unexpected changes.

    All data were shared with the U.S. Food and Drug Administration. Analysis by FDA scientists revealed a fragment of bacterial DNA, used to deliver the hornless trait to the bull, had integrated alongside one of the two hornless genetic variants, or alleles, that were generated by genome editing in the bull. UC Davis researchers further validated this finding. 

    “Our study found that two calves inherited the naturally occurring hornless allele and four calves additionally inherited a fragment of bacterial DNA, known as a plasmid,” said corresponding author Alison Van Eenennaam, with the UC Davis Department of Animal Science.

    Plasmid integration can be addressed by screening and selection, in this case, selecting the two offspring of the genome-edited hornless bull that inherited only the naturally occurring allele.  “This type of screening is routinely done in plant breeding where genome editing frequently involves a step that includes a plasmid integration,” said Van Eenennaam.

    Van Eenennaam said the plasmid does not harm the animals, but the integration technically made the genome-edited bull a GMO, because it contained foreign DNA from another species, in this case a bacterial plasmid.  “We’ve demonstrated that healthy hornless calves with only the intended edit can be produced, and we provided data to help inform the process for evaluating genome-edited animals,” she said. “Our data indicates the need to screen for plasmid integration when they’re used in the editing process.”

    Since the original work in 2013, initiated by the Minnesota-based company Recombinetics, new methods have been developed that no longer use donor template plasmid or other extraneous DNA sequence to bring about introgression of the hornless allele. 

    Scientists did not observe any other unintended genomic alterations in the calves, and all animals remained healthy during the study period. Neither the bull, nor the calves, entered the food supply as per FDA guidance for genome-edited livestock.

    Why the Need for Hornless Cows?

    Many dairy breeds naturally grow horns. But on dairy farms, the horns are typically removed, or the calves “disbudded” at a young age. Animals that don’t have horns are less likely to harm animals or dairy workers and have fewer aggressive behaviors. The dehorning process is unpleasant and has implications for animal welfare. Van Eenennaam said genome-editing offers a pain-free genetic alternative to removing horns by introducing a naturally occurring genetic variant, or allele, that is present in some breeds of beef cattle such as Angus.

    Other authors in the study include Amy Young, Tamer Mansour, Bret McNabb, and C. Titus Brown, with the UC Davis School of Veterinary Medicine; and Joseph Owen, and Josephine Trott, with the UC Davis Department of Animal Science. This work was supported by Biotechnology Risk Assessment Grant Program from the U.S. Department of Agriculture to ALV, the Gordon and Betty Moore Foundation’s Data-Driven Discovery Initiative, and the California Agricultural Experiment Station of the University of California, Davis.

    By Amy Quinton, UC Davis, Food & Agriculture

  • Blue Diamond Growers Celebrates Grand Opening of New Salida Manufacturing Facility, Unveils Industry-First Technology for New Pasteurization Line

    Blue Diamond Growers today announced the official grand opening and ribbon-cutting ceremony of its new 52,000 square-foot, energy-saving manufacturing facility in Salida, California. The event marks the completion of the facility to add new pasteurization technology and processing lines. The announcement follows the cooperative’s recent groundbreaking of its receiving warehouse on the same property in Salida, which is the largest almond receiving station in the world.

    “It’s an exciting time for Blue Diamond as we continue to invest in our facilities here in Salida and across the Central Valley to better meet the growing demand for our products worldwide,” said Mark Jansen, President and CEO for Blue Diamond Growers. “The new building design and innovative processing technology we’re deploying provides the highest quality almonds to our customers and consumers.”

    The new energy-saving and sustainable manufacturing facility spans 52,000 square feet and has been engineered to support future expansion plans as needed. Within the facility, Blue Diamond is the first in the almond industry to use Log5 technology across two of its natural pasteurization lines – one for processing whole almonds and the other for dry roasting on an integrated line. A third line uses innovative design with custom features to produce the finest flour texture in the industry.

    The new CALGreen facility features several energy-saving attributes including LED lighting, a multi-staged HVAC system, and temperature-controlled processes. To meet and exceed today’s stringent food safety standards, the new facility houses separate room enclosures with electronic-controlled entry to better control environmental conditions, along with automated pressurized air, and automated controls for all processes and packaging, including monitoring line performance, yields and downtime.

    Additionally, the integrated processing lines move finished product direct to cold storage and shipping and will greatly reduce material handling and trucking costs. Beneath the facility, buried perforated pipe will keep stormwater on- site to recharge the ground water and deliver it directly to the soil.

    Continuing its investment in the local community, the company also announced a partnership with Valley Children’s Hospital for its new Pelandale Specialty Care Center, located approximately one mile from the Blue Diamond Salida facility. A $25,000 partnership will help the hospital as it grows to support the more than 12,000 Stanislaus County pediatric outpatient visits per year.

    About Blue Diamond

    Blue Diamond Growers is the world’s leading almond marketer and processor. It led the development of California’s almond industry since it was formed as a nonprofit, grower-owned cooperative over 100 years ago. Today Blue Diamond has over 3,000 growers across California. Blue Diamond markets and sells a wide range of almond-based snacks, beverages, and ingredients, including Blue Diamond Snack Almonds®, Nut-Thins® crackers, almond flour, and the number one almond milk in the U.S., Almond Breeze®. For more information, visit www.bluediamond.com.

     

  • Specialty Crop Research Initiative (SCRI)

    The purpose of the SCRI program is to address the critical needs of the specialty crop industry by awarding grants to support research and extension that address key challenges of national, regional, and multi-state importance in sustaining all components of food and agriculture, including conventional and organic food production systems. Projects must address at least one of five focus areas:

    • Research in plant breeding, genetics, genomics, and other methods to improve crop characteristics
    • Efforts to identify and address threats from pests and diseases, including threats to specialty crop pollinators
    • Efforts to improve production efficiency, handling and processing, productivity, and profitability over the long term (including specialty crop policy and marketing)
    • New innovations and technology, including improved mechanization and technologies that delay or inhibit ripening
    • Methods to prevent, detect, monitor, control, and respond to potential food safety hazards in the production efficiency,handling and processing of specialty crops

    Who is eligible to apply:

    1862 Land-Grant Institutions, 1890 Land-Grant Institutions, 1994 Land-Grant Institutions, For-profit Organizations Other Than Small Businesses, Hispanic-Serving Institutions, Nonprofits with 501(c)(3) IRS status, other than Institutions of Higher Ed, Nonprofits without 501(c)(3) IRS status, other than Institutions of Higher Ed, Other or Additional Information (See below), Private Institutions of Higher Ed, Small Business, State Agricultural Experiment Stations, State Controlled Institutions of Higher Ed

    More on Eligibility:

    Pre-applications may only be submitted by Federal agencies, national laboratories, colleges and universities, research institutions and organizations, private organizations, foundations, or corporations, State Agricultural Experiment Stations, Cooperative Extension Services, individuals, or groups consisting of two or more of these entities.

    Request for Applications

    Posted Date: Monday, August 12, 2019
    Closing Date: Tuesday, October 15, 2019
    Funding Opportunity Number: USDA-NIFA-SCRI-006810
    Estimated Total Program Funding: $80,000,000
  • Overturning the Truth on Conservation Tillage

    Just as we blend, cut, and fold ingredients together to follow a recipe, farmers use equipment to stir together soil and crop residue (stalks and roots of previous crops) before planting. This mechanical action is called tillage.

    Similar to our kitchen cupboard with a blender, mixer, and beater, farmers have access to a variety of tillage equipment. Farmers choose the “right” piece of tillage based on many factors, including location, soil type, crop, and landscape.

    Tillage has been around for thousands of years. “It is difficult for nearly anyone to grow a crop, or even a garden, without unconsciously going through the motions of tillage,” says Aaron Daigh. “I see it as a near equivalent to muscle memory or a natural reflex.” Daigh is a researcher and professor at North Dakota State University.

    Modern conservation tillage practices protect the soil and environment. For example, they can reduce erosion from water or wind and keep nutrients in the right place.

    Farmers are showing more and more interest in adapting conservation practices on their operations. But, adopting a new tillage system can be intimidating due to many real and perceived concerns. For example, some farmers presume conservation tillage will lead to lower yields and an increased risk for seedling diseases.

    Scientists are making it easier for farmers in the Midwest to make the right tillage decisions when considering modern conservation practices. Daigh and his team compared the effects of three common conservation tillage systems to the traditional method of a chisel plow with field cultivation:

    1. Shallow vertical till
    2. Strip till using shanks
    3. Strip till using coulters

    After four years, researchers observed that yields rarely, if ever, differed among the four tillage systems at any of the farms. Still, change is never easy. The study by Daigh and his team suggests that adapting conservation tillage practices will not cause yield losses. In fact, conservation tillage practices will lower on-farm costs while preserving long-term productivity.

    “These results may ease farmers’ concerns about switching to conservation tillage,” says Daigh. “Perhaps more farmers will consider if conservation tillage practices are a good fit for their operations.”

    “I encourage farmers who are interested, but hesitant, to try conservation tillage practices on one field to get more accustomed to the new system,” he says. “Then, try it out on more fields until you get your farm designed to meet your needs and goals.”

    As always, the whole picture should be evaluated before making on-farm decisions. “It’s not just about yield,” says Daigh. “Economics and crop-residue for erosion protection should also guide farmer decisions.”

    The research team continues to investigate. “We are currently looking at the incorporation of cover crops into reduced tillage practices,” says Daigh.

    This study focused on farms with one type of tillage used per field. However, newer equipment allows for variable tillage methods at once. For example, it may be capable of vertical tillage and strip tillage at the same time. In the future, Daigh and his colleagues would like to see researchers evaluate the effects of these new technologies.

    Read more about this work in Agricultural & Environmental Letters. This research was partially funded by the North Dakota Soybean and Corn Councils, Minnesota Soybean and Corn Research and Promotion Councils, North Dakota Agricultural Experiment Station, University of Minnesota Extension, North Dakota Extension, USDA-NRCS Conservation Innovation Grant 69-3A75-17-282, and USDA-NIFA Hatch project 1005366.

  • Turlock Irrigation District Pursues Settlement Agreement with State Water Board

    As farmers well know, the actions of California Water Resources Control Board don’t often reflect the best interests of the farming community, and the recent Bay Delta Plan they are proposing is going to have a devastating impact if enacted.  Watch this brief interview with Michael Frantz from the Turlock Irrigation District as he shares what farmers can do about this in the form of a settlement agreement.

    Please thank our sponsor Duarte Nursery and attend one of their upcoming Bennett Hickman Almond Field Days in Pixley or Modesto.

  • Purdue Professor Helps Longtime Grape Growers Embrace New Technology

    California vineyard owners are carefully watching grapes mature on the vine this summer, just one in a list of responsibilities that determines their chances at a successful season.

    Years of experience working the land have been the main tool for these growers, but environmental restrictions and requirements are making the job increasingly complicated.

    David Ebert of Purdue University’s College of Engineering is focused on helping the wine industry through Discovery Park’s Big Ideas program. Ebert along with Christian Butzke, a food science professor and enologist, and other Purdue colleagues are trying to help growers in California transition to utilizing new, efficient technology for their operations without being caught in a data overload.

    “We’ve basically been looking at factors in how the growers can harness technology that allows them to become more effective and more efficient in their operations and decision making,” said Ebert, Purdue’s Silicon Valley Professor of Electrical and Computer Engineering.

    There are long-running farm owners who are only now beginning to consider the new technologies available to them.

    “Since it hasn’t been made intuitive to use and they haven’t grown up using it, they are uncomfortable blindly trusting what a computer is telling them to do, and they shouldn’t have to be,” Ebert said. “They need tools to make data understandable and useful to them in their operations.”

    Because grapes are a perennial crop, some decisions by growers can have a 20- to 25-year impact on their operations and their profitability. Ebert’s work is intended to help growers understand how to make effective decisions in adopting new technology to increase their economic and ecological sustainability. The technology is intended to improve both day-to-day and long-term operations as well as help their overall investment.

    Ebert said growers today are facing new local community constraints in addition to uncertain growing season conditions. A number of counties in California have decided vineyards need to be certified sustainably farmed and many ground water districts are setting new guidelines to preserve water resources and make sure that water is used effectively.

    “Trying to bring all of those factors together is a complex process,” Ebert said. “We’re working to bring all these limitations and data together in a understandable system so people have the policy constraints, economics, science basis, data analytics and their operations models combined into a simple dashboard to make better decisions.”

    When the project began in 2014, Ebert discovered that the rules of thumb many growers used to judge crop conditions no longer worked. Data collected from the technology can help forecast and understand multi-year impacts on the crop, including complex weather.

    “There’s an increasing trend for growers wanting these new tools, seeing real value in it and realizing that they need to move in this direction to be sustainable economically and environmentally,” Ebert said.

    However, the technology and data must be targeted to each crop and regional conditions to be trustworthy and effective. Ebert said technology that works for wheat farms in Kansas can’t be directly translated to work for a vineyard crop that has been growing for 20 years.

    “Some vineyards we work with were planted in the early 1900s,” he said. “These vines are adaptable, but the growers need the right information in these unprecedented growing conditions.

    “This is what our Purdue science-based, data-driven and grower-driven approach enables: Understandable, trustable information from all these new sensors and data sources to enable them to adapt and sustain their operations.”

  • Drones Provide Eye-in-the-Sky to Help Fight Fires

    Wildfires blackened nearly 8.8 million acres in the United States last year, highlighted in the news by California’s Camp Fire, the deadliest in that state’s history.

    One of the many things that make wildfires so difficult to contain is the effect a fire has on local winds, which can move the fire in unexpected directions with virtually no notice. But, now, technology is being tested that may help firefighters keep pace with a blaze – increasing their safety and allowing them to better position their limited resources.

    Xiaolin Hu, director of Georgia State University’s Systems Integrated Modeling and Simulation lab, is heading a project that develops drones to collect real-time data about wildfires, including fire front data and wind data in the wildfire area. USDA’s National Institute of Food and Agriculture is funding the project.

    “Fires generate heat that can have a major impact on local wind/weather conditions,” Hu said. “The constant interaction between fire and atmosphere causes dynamic and local changes in wind speed and direction that are not predicted well by standard weather models or expert judgment. The real time data collected by [drones] can help firefighters by providing fire location and fire spread information – and issue an “early warning” to firefighters if they are in danger.”

    Hu and research partners Haiyang Chao, director of the University of Kansas’ Cooperative Unmanned Systems lab, and Ming Xin, professor of mechanical and aerospace engineering at the University of Missouri, are testing their “KHawk” drone over prescribed fires, and building new drones for autonomous sensing, navigation, and control. The new aerial platform features autopilot, thermal camera, and other specialized avionics.

    The drones will perform test flights over prescribed fires ranging from 20 to 300 acres every year until 2022 to collect data on fire propagation and fire generated wind. The team is also seeking opportunities to collaborate with Kansas/Missouri Forest Service to fly over non-prescribed wildfires.

    The drones will fly autonomously, given real-time wind/fire data and predicted fire spread information, under the supervision of human pilots and control station operators on the ground.

    “The ultimate goal is to support the decision making of fire managers and improve safety for firefighters on the ground,” Hu said. “An important aspect of this project is to develop collaboration where fire managers and firefighters work together with drones in collaborative tasks.”

    NIFA invests in and advances agricultural research, education, and extension and seeks to make transformative discoveries that solve societal challenges.

  • The Difference Between Fungicide Resistance & Sprayer Coverage/Calibration Issues

    Fungicide Resistance is a real issue in the grape industry in regards to powdery mildew control.  Growers need to take this seriously and be able to recognize signs of it in their vineyards; however, sometimes what may appear to be a resistance problem may actually be an issue of poor sprayer calibration/coverage.  Watch this brief video with Research Plant Pathologist with the USDA Walt Mahaffee as he explains and read more about it in American Vineyard Magazine.  Don’t currently receive the magazine?  Subscribe for free at: https://malcolmmedia.com/american-vineyard-subscriptions/

  • Recent Study Shows All Around Benefits of Mechanized Vineyard Canopy Management

    With a shrinking and more costly labor force, grape growers are searching for new ways to mechanize their vineyard operations, and mechanized canopy management is a great opportunity for growers to look into.  Watch this brief interview with Luca Brillante from Fresno State’s Viticulture & Enology Department as he shares some very positive results of a recent study supporting greater efficiencies with vineyard mechanization.  Read more about it in American Vineyard Magazine.