Tag: Vegetables West Magazine

  • Fooditive Group Introduces New Dairy-Free Drink Crafted from Peas, that Tastes Like Milk

    Plant-based ingredient manufacturer Fooditive Group debuts a new drink product that will be directly available for sale to consumers in 2021. GoPeasy is a pea-based drink that correlates with the mission of the Dutch company to deliver healthy and affordable products for everyone.

    “While developing our portfolio, we noticed the growing demand for plant-based products that are both healthy and taste good. We are on a mission to make the world better; we do that by crafting a drink through the combination of understanding the milk formula and using Fooditive’s innovative products,” said Moayad Abushokhedim, food scientist and founder of Fooditive.

    Exciting flavours and a nutritional boost 

    GoPeasy is crafted from peas by embracing the taste and functionality of milk. The protein-rich drink does not contain any added sugar, it is low in fat and free of lactose. It has a natural plain taste, balanced with a rich mouthfeel. Packed with high nutritional value and a thirst-quenching taste, the product provides consumers a full sensory experience while on the go.

    The drink will be available in three mouth-watering flavors: original for the real taste of milk, lemon-strawberry for a refreshing twist and cherry-chocolate for an indulgent sensation.

    Towards upcycling and circular economy 

    Committed to its sustainability values, Fooditive supports upcycling. GoPeasy is sweetened by Fooditive’s natural sweetener which is made from third grade and side streams of apples and pears. A circular economy model is implemented in its production process as well. Most importantly, the product will come at a competitive price while ensuring high nutritional quality.

    Open call to join the GoPeasy journey 

    The company invites suppliers to join this exciting journey towards expanding its horizon to business-to-consumer model and the mission to deliver what consumers deserve. Fooditive is currently raising up to €6.5M for the year of 2021 to revolutionize the plant-based food business. The Fooditive fever is catching on and inspiring others along the way to think more about what they eat. To find out more about GoPeasy, visit the product’s website here: GoPeasy – Coming Soon 

    About Fooditive : In 2018, the plant-based ingredient manufacturer Fooditive was established in Rotterdam, the Netherlands. The company is committed to making healthy food affordable for all with its 100% natural ingredients. Since its launch, Fooditive has received several awards for its innovative ideas, sustainable approaches, and contributions to a circular economy, including being nominated for the Index Award 2021.

  • Pickling Cucumbers Fused with Health Promoting Compound

    Pickling cucumber not only extends their shelf-life, but also offers health benefits.

    Researchers at the USDA’s Agricultural Research Service (ARS) and North Carolina State University (NCSU) recently found that a stable, naturally occurring, health-promoting compound called γ-aminobutyric acid (GABA), was generated through the fermentation of brined cucumbers. Previous research studies demonstrate that consumption of GABA from foods or supplements has positive health benefits like reducing blood pressure, improving decision making, reducing anxiety, and boosting immunity.

    Researchers demonstrated that low-salt fermentation enhances GABA content in pickled cucumber products prepared for direct consumption. Also, fermenting them in lower salt brines and storing them in their original fermented juices increases the GABA levels.

    “Fruits and vegetables are made up of thousands of unique molecules. These molecules rule the flavor, texture, and nutritional value, but it is difficult to study them in such complex systems.” said Suzanne Johanningsmeier, ARS Research Food Technologist. “To tackle this problem, we use advanced analytical chemistry techniques like mass spectrometry to study food molecules and figure out the best food processing methods for improved quality of fruit and vegetable products.”

    Fermentation is a process that’s been known for years as a very powerful tool toward food preservation. Some other well-known foods where GABA content has been enhanced through fermentation are sourdough bread, soy sauce and dairy products like yogurt, kefir, and certain cheeses.

    “Worldwide, people are interested in consuming fermented foods as part of a healthy lifestyle. Most often, we associate the healthfulness of fermented foods with probiotic microbes. But many fermented foods contain few to no microbes when consumed,” said Jennifer Fideler Moore, North Carolina State University Graduate Research Assistant. “Our research shows that the health-promoting potential of lactic acid fermented cucumbers reaches far beyond the world of probiotics. This opens the door to more research into health-promoting compounds made during fermentation of fruits and vegetables.”

    The research, recently published in the Journal of Food Composition and Analysis, also found that the health promoting compound GABA in pickled cucumbers did not break down during pasteurization and remained stable over at least 6-months storage time.

    The Agricultural Research Service is the U.S. Department of Agriculture’s chief scientific in-house research agency. Daily, ARS focuses on solutions to agricultural problems affecting America. Each dollar invested in agricultural research results in $17 of economic impact.

  • A Plea for Farmer Engagement and Government Support of California GSAs

    As farmers face drought conditions once again this summer, local Groundwater Sustainability Agencies are still working on the planning and implementation of their Groundwater Sustainability Plans. Watch this brief video with Patricia Poire, Executive Director of the Kern Groundwater Authority, as she shares concerns and needs for both farmer and government support to meet the Sustainable Groundwater Management Act (SGMA) requirements.

    Please thank this video’s sponsor Suterra for their industry support.

  • The Impact of Water Regulation on Ag Lending

    It is no secret that the American West is in the midst of an alarming water shortage. Data from April shows that almost 80% of the West is in at least moderate drought, while 61% is in severe drought, 42% is in extreme drought and 21% is in exceptional drought.

    This dry spell has created water stress for farmers across the region, and water stress in most cases translates to financial stress. But analyzing that financial risk is tricky given the amount of data involved and how that data is often difficult to analyze and fragmented.

    AQUAOSO uses a data-driven approach to provide water security analysis to help financial institutions incorporate water risk into their business decisions.

    Using this data, Alex Parillo, head of sales at AQUAOSO, and Cameron Buford, co-founder and product manager at AQUAOSO, recently gave a presentation on water security trends titled, “The Impact of Water Regulation on Ag Lending,” using California as a case study. Data from the Drought Mitigation Center shows that almost the entire state of California is experiencing dry conditions, with 94% of the state under at least moderate drought. In addition, 77% of the state is in severe drought, while 37% of the state is in extreme drought.

    About 2 million acres — roughly a quarter — of California’s irrigated farmland is receiving only 5% of its water supply.

    “Farmers are already bracing for severely limited water again in 2021,” Parillo said.

    In the coming years, 780,000 acres of farmland in the San Joaquin Valley are expected to come out of production, and it is likely that water once used for vegetable production will be reserved for higher-value crops such as wine grapes and nuts. Fortunately, vegetable crops, which are planted and harvested annually, are easier to take out of production than tree crops, and therefore easier to manage water requirements.

    While water stress at its most simple can be interpreted as demand outstripping supply, a number of human factors such as population growth and water management must be taken into account when determining actual water stress in a specific region.

    “It looks at all these factors in a local context to really understand what is happening on the ground,” Parillo said.

    In California for instance, one of the most significant human factors is the Sustainable Groundwater Management Act (SGMA). Because California depends on groundwater for a significant portion of its annual water supply, 41% on average and up to 58% in drought years, SGMA was enacted in order to halt overdraft and bring groundwater basins into balanced levels of pumping and recharge to provide a buffer against drought and climate change.

    SGMA requires local agencies to adopt sustainability plans for high- and medium-priority groundwater basins, and under SGMA basins must reach sustainability within 20 years.

    “Talking about water in California, everything revolves around SGMA,” Buford said.

    Out of the more than 500 basins in California, 94 have been designated medium- or high-priority water basins. But while those basins account for less than 20% of the total basins in the state, they account for 98% of groundwater pumping, 83% of the state’s population and 88% of all irrigated areas.

    “A vast amount of our reliance on groundwater is coming from high groundwater-risk areas,” Buford said.

    AQUAOSO analyzed 53 sustainability plans to do a trend analysis and found about half of the plans proposed supply augmentation, while only a third of the plans proposed any sort of groundwater pumping reductions.

    Supply augmentation entails basins bringing in water from other sources, but with limited surface water, at some point, it becomes unsustainable for every basin to plan on making up their deficit through outside sources without reducing pumping.

    “Where is this water going to come from?” Buford said.

    As a result, lenders cannot simply look at whether or not a property has access to two sources of water anymore to assess water risk. Groundwater limitations and other factors related to policy must now also be accounted for.

    “The risk that we’re seeing on the water side is rapidly changing, more than ever before,” Buford said.

    In addition to assessing water access and its impact on property valuation, the impact of water restrictions could lead to further financial hardships for farms that are forced to fallow lands because of their limited water allotment.

    The Public Policy Institute of California estimated that without flexibility to trade water or adapt crop choices and without new supply, the Central Valley alone would have to fallow 780,000 acres, with an estimated revenue loss of about $3.3 billion per year.

    “If you think about the collateral that you have supporting your loans, if that collateral was once productive farmlands or even permanent plantings, and that gets converted into fallowed lands, the value of that land goes down sharply,” Buford said.

    AQUAOSO found that open land on the east side of California’s Central Valley can sell for twice the amount as land on the west side of the valley, even with similar soils.

    There has been a trend of permanent planting acreage replacing vegetable acreage, and with water regulations in 2021, this year will be no different.

    “Permanent planting prices are more likely to cover rising water costs due to the surface water and groundwater scarcity we are seeing this year. Vegetable acreage is also under threat from farmers choosing to fallow their typical vegetable acreage to use that water on their permanent planting acreage,” Buford said.

    “It’s simply because of water security, and that’s a very clear example that water risk really is financial risk,” Parillo said.

    Although the presentation used California as an example, water security is something agricultural investors throughout the West are prioritizing when assessing a property’s value.

    “While we have thought about this as maybe, ‘This is only a California problem,’ no, this is something we are seeing through the West,” Buford said. – Article by AQUAOSO Technologies

  • Farming Tips for Enduring Historic Drought in Northern CA

    It has been heart breaking to seeing wheat and alfalfa fields dry up the last few weeks.  The recent hot temperatures caused many fields to wither, while placing greater irrigation needs on the few crops being irrigated with well water.   It’s the driest year I have experienced in my 10 years in the Klamath Basin!

    Several people asked me about strategies moving forward this summer and what yields they can expect from crops with limited irrigation.  I do not know all the answers, but I tried to highlight some of my past experiences from research and farming below.  Please keep in mind every field situation is unique and one strategy rarely works in all situations.  I want to commend the farming community for being resilient in a terrible situation.  I also want to thank all those that have spent countless hours trying to improve the water situation today and in the future.

    Irrigation tips

    Almost all fields started this year with very little residual soil moisture.  At IREC, not a drop of water flowed through our tile drains this winter and spring.  Darrin and I noticed the first irrigation on many fields did not even refill the soil profile especially when irrigating during strong winds.  This made 2021 even more difficult as winter precipitation did not refill the soil profile naturally.  As a result, many alfalfa and grain fields are starting to show unusual patterns from drought such as wind strips and tall growth under sprinkler drains.  If you can water fields with well water, it is very important to check the sprinkler heads to make sure they are the proper size, check water pressure on the ends of irrigation lines, and make sure your irrigation is providing good coverage.  Offset your wheel-lines one roll the next irrigation in fields with wind strips.    As many of us are irrigating out of drains, it is important to make sure you have adequate sprinkler pressure.  If you do not have adequate pressure, you need to reduce the size of your sprinkler heads and extend the duration of the irrigation set (16 hrs vs 12 hrs) or run less lines.

    Many alfalfa producers are in the position to harvest 1st cutting and cannot water for the next couple weeks until the hay is picked up.  In this situation, producers should consolidate limited water on their most productive fields.  Once an alfalfa field wilts from drought it will typically go dormant.  This is good as the alfalfa will likely survive until next year, but it also means the alfalfa is resistant to green-up and grow again in mid-summer.  As such, I’d recommend using limited water to irrigate healthy fields instead of trying to stretch it across all fields especially those fields that are already wilted with poor growth going into first cutting.

    Potato producers will need to apply long sets to refill the soil profile when the potatoes emerge.  Most field have very little residual soil moisture, and it is important to avoid drought stress during vegetation growth and tuber initiation to maximize tuber set and tuber quality.  I advise potato growers to check soil moisture frequently throughout the potato rooting zone to make sure water reached the bottom of the hill and is uniform throughout the field.

    Most farmers should be done irrigating winter grain, and I see a few producers irrigating spring grain.   If you decide to irrigate spring grain, I recommend irrigating the crop fully until you run out of your water allocation instead of trying to space irrigation throughout the summer.  Irrigating spring grain fully to meet the crop water demand during tillering and elongation will maximize forage yields, and once wheat and barley fields show signs of drought stress, they will start to head producing low forage and grain yields.

    Fertilization tips

    Producers that decide to irrigate grain and grass fields should make sure to apply adequate nitrogen.  The cost of the fertilizer will easily pay for itself with high forage prices and nitrogen can double grass forage yields compared to leaving fields unfertilized.  Granular nitrogen fertilizer applied as a topdress (over the top of the crop) should be watered into the soil with at least an inch of water within a few days of application to prevent volatility losses.  Don’t fertilize fields if you do not have adequate water to irrigate crop!

    Pest Management tips

    2021 is shaping up to be a very bad pest year.  We have already witnessed problems with blue aphid and weevils in alfalfa, and I am starting to see armyworms in grain and alfalfa.  We had a very high population of seedcorn maggot in onions as all the maggot flies seemed to congregate in the few irrigated fields throughout the basin.  Thrip populations are also very high.  Onion producers should start scouting for thrips earlier than normal and be ready to start insecticide applications if thrip numbers build on young plants.  Potato producers should expect higher than normal pest populations.  Aphid populations are high, and many insects will be moving into potato fields after alfalfa and grain harvest.  Mites may be more problematic than normal as fields are receiving less overhead irrigation and we have a lot of dust in the air.  I hope the dry weather will help reduce foliar crop diseases, but the hot temperatures and stagnant water sources may make my prediction incorrect.   Potato and onion farmers need to apply frequent irrigation to keep up with crop water use, so make sure to scout for foliar diseases and try to avoid keeping leaf surfaces wet for extended periods. — By Rob Wilson, UCCE Farm Advisor, ANR Intermountain Research & Extension Center

  • Mexican Tomato Industry Also Impacted by Drought

    Tomato production in Mexico is forecasted to recover slightly from last year, on more stable weather and sufficient rainfall levels in Sinaloa, the top producing state. However, ongoing drought conditions throughout the country will provide some uncertainty to final production levels. The reopening of the restaurant and hotel industry in the United States and Mexico, the certainty provided to producers by the newly renegotiated U.S.- Mexico Tomato Suspension Agreement, and good export prices has encouraged more tomato planting. Production under protected agriculture systems continues to grow as it provides for higher yields and quality.

    Production

    Tomatoes are produced in Mexico year-round, with a fall/winter cycle and a spring/summer cycle stretching over 18 months and measured by an agricultural year (AY) from October to March (plus one year). The tomato marketing year is covered from October to September. For purposes of this report, FAS Mexico will refer to the AY in production forecasts in order to capture total tomato production in the country.

    Agricultural Year 2022: October 2021- March 2023

    Agricultural Year 2021: October 2020- March 2022

    Agricultural Year 2020: October 2019- March 2021

    There is no official forecast for tomato production in crop year (CY) 2022, however, Post forecasts 3.32 million metric tons (MMT), assuming favorable weather conditions throughout the country. Post’s production estimate for CY 2021 is 3.30 million metric tons, up two percent from the previous crop year, but dependent on higher rainfall compared to the previous AY (fall/winter cycle) and ongoing technological investments in irrigation systems.

    Much of the country has experienced some level of drought conditions since September 2020. While dams in Sinaloa are currently at 10 percent capacity, levels are expected to recover upon the onset of rainy season in July. According to the Agrifood and Fisheries Information System (SIAP), production for AY 2020 reached 3.24 MMT, although data is not yet final.

    Tomato production in Mexico is highly concentrated, with six states producing 53 percent of the national total in 2020. Querétaro, Coahuila, Nuevo León, and Puebla have the highest tomato yields due to investments in protected agriculture technologies like green and shade houses, and irrigation systems. Continue reading the full report from the USDA Foreign Agricultural Service HERE.

  • NASA Funds Tiny Tomatoes for Vertical Farming on Earth and Space

    Urban agriculture offers many benefits for food production but often has higher costs relative to traditional farming and is limited to only a few crops. By 2050, there will be nine billion people on the planet, but arable land is decreasing. Global food production will need to double to meet food needs, though climate change complicates the problem more.

    Robert Jinkerson, an assistant professor of chemical and environmental engineering at UC Riverside, is working to change this by engineering the size and nutritional value of tomato plants to increase both the diversity and value of crops that can be grown in urban controlled environment agriculture, or CEA.

    Jinkerson has received a $450,000 New Innovator grant from the Foundation for Food & Agriculture Research, or FFAR, to advance this research. FFAR’s New Innovator in Food & Agriculture Research Award provides early career scientists with funding to conduct audacious food and agriculture research.

    “Urban controlled environment agriculture can offer many benefits for the production of crops and is likely to supply more food in the future as worldwide food demand increases,” Jinkerson said.

    Often these urban CEA systems are designed to have plant growth areas stacked vertically to save space. However, this also decreases the height available for plant growth, limiting the size of crops that can be cultivated in vertical farms to small leafy greens.

    “In order to overcome these size limitations and to increase the variety of crops that can be grown in vertical farms, we are engineering tomato plants to have a small stature and are optimized for this unique growing environment,” said Jinkerson, who uses CRISPR/Cas9 gene editing to modulate key genes involved in plant development and architecture.

    In addition to reducing the size of plants, this project will also increase the nutritional value of these crops by increasing their vitamin content, making urban agriculture more profitable.

    The potential applications for these tiny tomatoes don’t end on Earth.

    Jinkerson, along with Martha Orozco-Cárdenas, director of the UCR Plant Transformation Research Center, have been awarded a NASA Space Biology grant to evaluate tomatoes from their prior work on the International Space Station. These plants, also engineered with gene editing technology and dubbed Small Plants for Agriculture in Controlled Environments, or SPACE tomatoes, will be grown in the Advanced Plant Habitat onboard the ISS to determine how these plants grow in microgravity. The SPACE tomatoes will be grown ‘seed-to-seed,’ meaning seeds will be harvested and the next generation grown in space, completing an entire lifecycle. These experiments, which will happen after several years of trials on Earth, will help establish methodologies to grow food on long duration space missions.

    “We are extremely excited to receive support for these projects and hope that the results will help transform the way we produce food here on Earth and beyond,” said Jinkerson.

    About UC Riverside

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

  • Conventional Melon Weed Management in the Sacramento Valley

    Sutter County grows between 300 and 800 acres of fresh-market honeydew, mixed melon and cantaloupe each year. The fields vary between furrow and drip irrigation, with many fields in the Sutter Basin only receiving a pre-irrigation.

    Because of the rapid growth of melons, they are competitive with weeds and one cultivation may be sufficient to control weed issues. The growing habits of melons reduce the need for herbicides, which is fortunate since the availability of registered and effective herbicides is limited.

    Generally, in Sutter County, the field is tilled, pre-irrigated, worked again, and melons are planted into moisture. When weed pressure is high, a hand-hoeing crew comes in and cultivates. Since many of the conventional fields in the northern region receive little water, herbicides may not be as effective since they do not work well without water. If water is available, herbicides like Prefar and Curbit may be used.

    Bensulide (Prefar) can be applied before planting and incorporated shallowly or as a preemergent herbicide under sprinkler irrigation. It is used to control small-seeded annual grasses, pigweed and purslane. Remember to always check the label and consider plantback restrictions, especially if following with corn or sorghum. A layby application of ethalfuralin (Curbit) may also be used after thinning when melon plants are young (4-5 leaf stage) to control late germinating weeds.

    In 2017, I received a farm call about a grassy weed in a honeydew field that the pest control adviser had never seen in a melon field during his long career. He applied sethoxydim (Poast) twice and the grass (johnsongrass) kept coming back. When grasses are moisture stressed, sethoxydim can be less effective, which makes sense in a melon field receiving little irrigation. — By Amber Vinchesi-Vahl, Area Vegetable Crops Advisor, UCCE Colusa County

    References

    UC IPM, Pest Management Guidelines-Cucurbits, Integrated Weed Management.  http://ipm.ucanr.edu/PMG/r116700111.html

  • An Organic Alternative to Combatting Spotted Wing Drosophila

    Scientists from the Agricultural Research Service (ARS) are working to understand how something can be equally effective as both a government-approved food additive and as a pesticide.

    Methyl benzoate is a naturally occurring compound produced by plants. The U.S. Food and Drug Administration long ago approved methyl benzoate for human use; its fruity and floral aroma makes it a staple in perfumes and cosmetics and as a food additive. Nature employs it to attract pollinators.

    While many insects find methyl benzoate appealing, Aijun Zhang, research chemist at the ARS Invasive Insect Biocontrol and Behavior Laboratory in Beltsville, MD, is investigating why some insects and non-insect pests find it revolting.

    From left, research chemist Aijun Zhang, postdoctoral Nick Larson, and intern Lauryn Brooks demonstrated research into methyl benzoate uses as a pesticide in an ARS poster day demonstration.

    Zhang’s research has focused on methyl benzoate’s utility as a pesticide for human protection and crop protection. So far, Zhang has documented that the compound will kill or repel many insects in various stages of development, including mosquitoes, bed bugs, fire ants, ticks, flies, moths, and the brown marmorated stink bug. Perhaps most important, however, is its ability to repel and kill the spotted wing drosophila fly (SWD). “SWD is the most significant invasive insect pest of soft-skinned fruit crops in the USA,” Zhang said.

    Since SWD was first detected in California a little over a decade ago, the fly has become a key pest in blueberries, blackberries, raspberries, strawberries, and cherries. These crops have a combined annual value of over $5.8 billion, and farmers lose about $718 million annually to SWD damage.

    Farmers fight SWD with synthetic insecticides, but at prices up to $1,200 per acre, that method is expensive. It is costly in other ways, too, Zhang said; the synthetic insecticide is harmful to the environment, contributes to pesticide resistance, and may be harmful to humans.

    Because methyl benzoate is an environmentally friendly, bio-based compound, Zhang thinks it has great potential to be used by people for human protection as an alternative to synthetic pesticides. It also costs much less than synthetic pesticide treatments.

    According to Zhang, methyl benzoate shares the same “chemical skeleton” as DEET, the gold standard in arthropod repellency, a detail that is leading future research efforts.

    “Understanding the structure-activity relationship will allow researchers to modify the chemical structure of the methyl benzoate molecule to develop pesticides that are more efficient at controlling arthropod pests,” he said. — By Scott Elliott, USDA-ARS Office of Communications.

  • Numerous Health Benefits Found in Summer-Favorite Watermelon

    No summer barbecue is complete without fresh watermelon. As the nation moves towards the summer grilling season, you may want to consider how watermelon’s fruit chemistry can affect your overall health. Researchers in the USDA’s Agricultural Research Service (ARS) recently identified over 1,500 small molecules of diverse chemical characters in the fruit, known as phytochemicals. They concluded that eating watermelon is an excellent way to increase your intake of antioxidants, non-protein amino acids and lycopene. This means that every time you eat watermelon, you’ll be improving the health of your cells, organs and nervous system.

    The research specifically finds that the antioxidants in watermelon can help your body fight free radicals and slow down cell damage. The fruit’s non-protein amino acids will also help to repair your body tissue, break down food from other meals, and even regulate your blood pressure.

    “Watermelon could be part of the refreshing and healthy fruit options on your summer picnic table,” said USDA-ARS scientist Larry Parnell. “The fruit has gone through many years of evolution, domestication, and selection for desirable qualities—mainly those associated with flesh color, texture and nutrient and sugar content. But our research continues to find that the fruit contains a wide range of nutrients that improve your overall health.”

    Most Americans purchase the sweet dessert watermelon species, Citrullus lanatus, at their local grocery store or farmer’s market.  This species is among the most important vegetable crops grown and consumed throughout the world, with over 100 million tons in annual global production.  The fruit also has more lycopene than a raw tomato, which is linked to healthy eyes, overall heart health and protection against certain cancers. Other nutrients, like carotenoids, flavonoids, carbohydrates and alkaloids, are also found in the flesh, seed, and rind.

    “I worked with Dr. Parnell and the team to develop a pioneering concept of using big data and computational biology to identify and catalog all of the phytochemicals that exist in edible fruit,” said ARS researcher Amnon Levi. “The research to identify the metabolic pathways and genome sequence of genes involved in the production of beneficial phytochemicals could be highly useful for plant scientists and breeders aiming to improve nutrient content in fruits and vegetables.”

    The watermelon’s phytochemicals are human-cell-protecting compounds found in fruit, vegetables, grains and beans. All of these nutrients can contribute to your overall health in numerous ways.

    Watermelon was introduced to Europe via Moorish Spain in the 10th century. Since then, watermelon has been cultivated successfully in warmer Mediterranean regions before being brought to the Americas by European colonists during the 16th century. Today, watermelon is grown in 44 U.S. states, while major production is centered in California, Florida, Georgia and Texas.

    Fruits and vegetables are a part of a healthy, balanced diet, with the recommendation being 1.5 to 2 cups of fruit and 2 to 3 cups of vegetables per day.

    The Agricultural Research Service is the U.S. Department of Agriculture’s chief scientific in-house research agency. Daily, ARS focuses on solutions to agricultural problems affecting America. Each dollar invested in agricultural research results in $17 of economic impact.