UCCE in Kings County leverages community partnerships to increase preschoolers awareness about healthy foods
Early childhood is critical to the development of lifelong healthy living. With this intent, UCCE, in partnership with the Department of Hospitality Management at West Hills Community College-Lemoore and preschools located at the college campus, embraced a collaborative approach to promote healthy eating by helping preschoolers learn about and taste Go Glow Grow foods.
Together, we can make a difference!
An innovative and collaborative integration of research and practice brought diverse stakeholders together.
- Deepa Srivastava, UCCE Advisor Nutrition, Family & Consumer Sciences from Tulare/Kings initiated the needs assessment, monitored evaluation process, and conducted focus groups.
- Susan Lafferty, Nutrition Educator of Kings County UC CalFresh nutrition education program implemented the Go Glow Grow curriculum.
- Nancy Jeffcoach, Site Supervisor of West Hills Child Development Center, Lemoore planned the timeline for preschoolers who received the curriculum.
- Christian Raia, Program Director /Coordinator Hotel Restaurant Casino Management Faculty-West Hills College planned and supported the culinary students' implementation of food demonstrations, taste tests, and recipe sharing. The reinforcement of Go Glow Grow MyPlate food group concepts was integrated into students' capstone project.
During April and May 2019, collaborative partnership efforts captivated preschoolers' attention with key MyPlate messages and taste tests. Susan Lafferty led six weeks of the Go Glow Grow curricula with 72 preschoolers. Twelve community college students from the culinary department shared recipes and conducted food demonstrations and taste tests. Nine preschool teachers consistently supported the program. Preschoolers received a graduation certificate and a chefs hat upon completing the program.
“Glow foods make my hair grow, eyes sparkle, and skin soft."
Initial success stories, lesson observations, and activities indicated increased knowledge of preschoolers about MyPlate food groups and willingness to try foods from all food groups. A majority of preschoolers responded to the importance of eating Go Glow Grow food.
Taking home key messages
It also seems the preschoolers are taking key messages home. One preschool teacher mom shared this story:
So [preschooler name] is eating her dinner and she looks up at me and says, "ya know, chicken isn't on my plate."
"Um, yes it is, it's right there..."
"No," she says,"it's not anywhere on My Plate!"
"Oh, like the healthy choices My Plate? Yes it is, it's protein. I think it's red."
"Red is fruit momma, it's a glow food!"
So at this point I pull up the graphic. She is right–that it would be purple as a protein. She informs me that I should study it. But she'll help me and show me where the vegetables are as she loudly chews a cucumber in my ear. She's been telling me which foods have which vitamins and bringing the conversation to the table at every meal.
"You guys are doing amazing things. I see it in my program and now I get to see it in my child. So thank you!"
Positive learning experiences result from meaningful interaction
Upon completion of the program, two focus groups were conducted to understand the program impact at the individual and environmental levels of the social-ecological model. It was encouraging to note the response from participating community college students about their learning experiences and the changes that they have observed for themselves and the preschoolers as a result of this program.
A majority of the students indicated that they “loved” Go Glow Grow concepts of MyPlate and the meaningful “interaction” with the preschoolers.
A sustainable foundation is established
Overall, “mutually reinforcing goals, collective impact, commitment, trust, consistency, strong partnerships and communication, curriculum, evaluation tools”- all factored in to keep the momentum for the community partners.
What began as a needs assessment to examine the nutrition practices of early childhood education settings, ended on a promising note to continue promoting the health and well-being of young children. Indeed, a strong and sustainable foundation is established to carry forward UC Agriculture and Natural Resources' strategic initiative of healthy families and communities.
Disturbance. In ecological terms, when a wildfire rages across wild lands, there is a disturbance - a change in the environmental conditions that...
Enjoying a tasty sunflower seed snack? Cooking with sunflower oil? Thank a California sunflower seed grower for producing the hybrid seed that's used for planting sunflower crops throughout the United States and the world, for confectionery and oil seed production.
California farmers grow about 70,000 acres of sunflower, mostly in the Sacramento Valley, for hybrid seed stock.
“We have perfect conditions for growing sunflowers, with hot, dry summers and plenty of good irrigation water for producing high quality seed,” says Rachael Long, UC Cooperative Extension farm advisor in Yolo, Solano and Sacramento counties. “We also have good pollination by honey bees and field isolation from wild sunflowers, needed for high yields and genetic purity of planting seed stock.”
Indeed, take a look at the lovely fields of sunflowers blooming in the summertime. Their striking show of bright yellow faces across the valley's vast agricultural landscapes elicit feelings of warmth and happiness.
“But don't stop there!” says Long. “Take a closer look at the fields and you'll see rows of plants with single large flowers alternating with rows of smaller plants with multiple flowers. Stalks with single flowers are female, smaller ones are male; cross pollination occurs by honey bees to produce the hybrid planting seed, harvested from the single female flowers.”
To assist farmers in producing hybrid sunflower seed crops, Long led a team of researchers to produce a new 2019 sunflower hybrid seed production manual for California. The manual provides information on production needs, such as irrigation and nutrient management, as well as a color guide to insect pests, diseases, and weeds of concern for hybrid sunflower seed production.
“In order to ship seed to worldwide markets, strict field certifications are in place to ensure that pests endemic to California are not spread elsewhere,” Long says. Weeds, insects and diseases growers should watch for are identified in the manual.
“Sunflower Hybrid Seed Production in California” is available for free download at https://anrcatalog.ucanr.edu/Details.aspx?itemNo=8638. In addition to Long, authors of the manual include UC Cooperative Extension farm advisors Sarah Light and Konrad Mathesius, retired USDA plant pathologist Thomas Gulya, UC Cooperative Extension irrigation specialist Khaled Bali, and emeritus UC Cooperative Extension soils specialist Roland Meyer.
“A special thanks to the sunflower seed industry and associate editor Dan Putnam, UC ANR agronomist at UC Davis, for their extensive contributions to this manual to make it a valuable resource for sunflower seed growers,” Long adds. “All of us are also grateful to UC ANR Communication Services for putting together a high quality publication!”
The technological developments were critical to the formation of California's enormous dairy industry, the largest in the nation. Today, more than 1.7 million cows produce 39.8 billion pounds of milk in California each year, according to the California Milk Advisory Board.
The march of progress continues. The state's dairy industry is now beginning to integrate robots and sophisticated computer software into cow barns to maintain the supply of wholesome and inexpensive dairy foods for Americans. UC Cooperative Extension scientists are poised to help them adapt to the new technologies.
On most California dairies, cows are led two or three times each day from the barn to the milking parlor by workers. They clean the cows' udders to remove bacteria and surface dirt, evaluate whether the cow has mastitis, attach the milking machines, and disinfect the cow's teats after milking before taking the cows back to their pens.
“Dairy production is automated, but it is still a very labor intensive activity,” said Fernanda Ferreira, UC Cooperative Extension dairy specialist based at the UC Veterinary Medicine Teaching and Research Center in Tulare. “Farmers always tell us that the most challenging thing they are facing is labor – labor availability, training and cost.”
Milking robots – a technology already being used in dairies in the Midwest and Eastern U.S., Europe, South America and Canada – promises greater automation, reduced labor needs and improved animal welfare.
View a short video clip of the milking robot in action.
The machines don't resemble a stereotypical robot character, but rather are computerized boxes large enough to fit one cow, with a robot arm programmed to reach under the cow and clamp onto the teats. Cows do not need to be led to the milking machine, but rather walk into the box voluntarily when they are ready to be milked.
The machine recognizes each individual cow by a computer tag around her neck or on the ear, and provides personalized milking service. The robots do all the work: clean the teats, attach the milking machines, and disinfect the teats after the milking is done. While milking, the robot collects data on the cow's output and health.
When it comes to California and all the West, these are very new,” Ferreira said. “We're talking herds that have 1,800 cows on average. Huge herds. Since each of the robotic units, which serve 60 to 70 cows, costs about $120,000, we're also talking about a huge investment.”
Two San Joaquin Valley dairies have already installed milking robots, and many others are interested in the new technology. Ferreira and other researchers from the VMTRC in Tulare are collaborating with one of them to study how the machine and the herd's management can be adapted to better serve large-scale dairy herds like those in California.
“Our idea is to first understand the perspective of the producers who have cows being milked by robots. We want to know what they have learned so far, the challenges they have encountered, their relationship with banks,” Ferreira said. “Relationships with banks are important because most dairies will need to borrow funds to equip their facilities with enough robots for full automation.”
Future research will review issues of milk quality, mastitis management and determine what data farmers will need from the computerized system to improve dairy profitability.
“There are a lot of options available from companies that manufacture the robots. We want to fully understand how they work for our farmers and cows to be able to inform the future of California's dairy industry,” Ferreira said.
Based on historical data, a new invertebrate species establishes itself in California about every six weeks, on average. They don't all become serious pest problems, but many evade eradication efforts, disrupt carefully balanced integrated pest management programs, hijack sensitive ecosystems, and spoil valued recreational resources and urban landscapes.
UC Agriculture and Natural Resources joins the California Department of Fish and Wildlife and the California Invasive Species Council in marking California Invasive Species Action Week, June 1-9, to raise public awareness of invasive species issues and promote public participation in the fight against California invasive species.
The UC Integrated Pest Management Program and the Center for Invasive Species Research are two UC ANR programs that monitor invasive species and coordinate responses when they become established in the state. They work closely with UC ANR advisors and specialists on eradication, management and prevention of these threats.
|Asian citrus psyllid and huanglongbing
Huanglongbing disease, which kills citrus trees, is spreading in Southern California residential areas and threatening commercial citrus production. There is currently no cure for the huanglongbing disease. It is spread by the Asian citrus psyllid. The insect, a native of Pakistan, Afghanistan and other Asian regions, was first detected in California in 2008. Currently the only way to control the disease is to reduce the psyllid population and to remove trees that are infected or located near the infected trees. Everywhere ACP is found, the pests find and spread HLB. In California, an aggressive push to keep psyllid populations low, regulations to limit the spread of psyllids when trucking the fruit, and active scouting for and removal of HLB-infected trees in residential areas could buy time for researchers to find a solution before California suffers the fate of Florida citrus growers, whose orange production has dropped 70% lower than 20 years ago. More info: ACP/HLB distribution and management
|Brown marmorated stink bug
The first reproducing population of brown marmorated stink bug was found in Los Angeles County in 2006. In 2013, a large population was detected in a midtown Sacramento. A pest of agricultural crops and a serious residential problem, it is a strong flier and also travels long distances by hitching rides in vehicles or inside furniture or other articles when they are moved, often in late summer and early fall. As a result, new infestations pop up in neighborhoods where people travel from infested areas. A native of China, Japan and Korea, BMSB was first documented in the United States in Pennsylvania in 2001. It is either established or found occasionally in about 41 states. More info: Pests in Gardens and Landscapes - Brown marmorated stink bug
South American palm weevilThe South American palm weevil is a destructive pest in its native and invaded ranges. Scientists first found it in San Diego in 2011. As the weevils feed, they drill through the heart of the palm, eventually choking off the fronds and killing the tree. UC ANR is studying the South American palm weevil's biology and life cycle, and trying to find out how they got to California. Traps for monitoring the pest have been developed and deployed. More info: South American palm weevil invasion in San Diego County
Polyphagus shot hole borerThe insect, originally from Asia, was first identified in California in 2012. Shot hole borers bore through bark carrying with them harmful fungus. The fungus attacks the tree's vascular tissue, choking off water, causing branch dieback and eventually killing the tree. Polyphagous shot hole borer and the fungus are now distributed widely in more than 110 types of trees in Los Angeles and Orange counties, and have been observed in San Bernardino, Riverside and San Diego counties. More info: Invasive shot hole borers
Sudden oak deathSudden oak death is caused by the pathogen Phytophthora ramorum, which was inadvertently introduced to California forests on nursery stock in the 1990s. The disease has killed up to 50 million trees (primarily tanoak, coast live oak, California black oak, Shreve's oak and canyon live oak) from Big Sur to southwest Oregon. More info: http://www.suddenoakdeath.org
Dyer's woadDyer's woad is an invasive weed thought to have been introduced into California in the Scott Valley of Siskiyou County, where it is locally referred to as "Marlahan mustard." Until a couple of decades ago, it was primarily confined to Scott Valley, but it has subsequently spilled over into Shasta Valley. It continues to spread throughout Siskiyou County and into Modoc, Shasta and other northern California counties. During medieval times, Dyer's woad was one of the most valuable plant commodities in Europe, cultivated as a source of blue dye as early as the 13th century. Colonists first introduced it to the eastern United States for that purpose. UC ANR researchers are developing management practices for removing Dyer's woad and using solarization to kill the seeds in the field, limiting the risk of seed being spread when dead weeds are removed for disposal. More info: UC IPM Pest Note on Dyer's Woad
Yellow starthistleYellow starthistle is native to Eurasia and was introduced to California around 1850 via South America. Recent reports indicate that yellow starthistle infests between 10 and 15 million acres in California. It is common in open areas on roadsides, rangeland, wildlands, hay fields and pastures. Disturbances created by cultivation, poorly timed mowing, road building and maintenance, or overgrazing favor this rapid colonizer. It forms dense infestations and rapidly depletes soil moisture, preventing the establishment of other species. It is also poisonous to horses, causing a nervous disorder called “chewing disease,” which is fatal once symptoms develop. Horses are the only animal known to be affected in this manner and should not be allowed to graze on yellow starthistle. More info: UC IPM Pest Note on yellow starthistle
SaltcedarSaltcedar is native to Eurasia and was introduced into California through the nursery industry. The weed is tolerant of high salinity. Saltcedar's dry branches and leaves can increase fire frequency. After fires, saltcedar sprouts rigorously, while native trees and shrubs generally do not, enabling saltcedar groves to push out native species. Research shows that saltcedar could impact the structure and dynamics of streams by trapping and stabilizing sediments, increasing overbank flooding following high flow events and creating permanent sand bars in rivers. This pest also contributes to the decline of wetland communities as habitat refuge for wildlife. More info: Center for Invasive Species Research
Arundo donaxArundo donax is native to the Mediterranean and tropical Asia. In California from the late 1700s to early 1800s, giant reed was often planted for erosion control in flood channels and as wind breaks. The bamboo-like perennial can grow to 25 feet tall with thick, well-developed rhizomes. It develops dense stands that displace native vegetation, diminish wildlife habitat, increase flooding and siltation in natural areas and create a wildfire hazard. More info: Arundo donax
Japanese dodderThere are several species of dodder native to California, but they are not as difficult to manage as Japanese dodder, which was identified in Shasta and Yuba counties in 2005. This invasive plant pest has thick stems that resemble spaghetti. It grows larger and faster than native dodders and can cover entire trees or shrubs. In California, no viable seeds have been observed following Japanese dodder flowering. Instead, most spread occurs through the dissemination of small pieces of stems distributed by birds and other animals or through pruning, composting, and the improper disposal of infested plant material. This weed is has spread to more than a dozen California counties including Alameda, Butte, Contra Costa, Fresno, Los Angeles, Merced, Sacramento, Shasta, Solano, Sutter, Tulare, Yolo, and Yuba. Contact your county agricultural commissioner to receive proper identification and help with control. More info: UC IPM
Find more information on the UC Integrated Pest Management Program Invasive and Exotic Pests website: https://www2.ipm.ucanr.edu/Invasive-and-Exotic-Pests/