Episode 20: Got Dairy?

Episode 20: Got Dairy?

(feat. Charmayne Busker of Jenamy Farms)

Milk, cheese, butter…ice cream! What’s not to love about local dairy? The Extension302 team sits down with Charmayne Busker and our own Dan Severson to explore their favorite topic.

Resources

  • Dairy research at UD – Research focusing on the general areas of dairy nutrition – with an emphasis on forage and silage production and rumen fermentation – and dairy cow health.
  • UDairy Creamery – Educating students by producing and selling premium ice cream made from the milk off the farm of the College of Agriculture and Natural Resources at the University of Delaware.

CALFeteria Menu Changes for the Winter

As the weather turns colder there’s been a more frequent addition to our daily lunch menu from the Miner cafeteria: hot soup! On those colder days I’ve seen a lot more people enjoying a cup of soup to help warm them up after being out in the cold. Similarly, as it gets colder you might observe that your older calves are eating more of their starter to help meet their energy requirements. But what about your youngest calves?

Calves less than 3 or 4 weeks of age are probably not consuming enough starter to really contribute to their energy requirements. The youngest calves on your farm are completely dependent on the nutrients consumed in their milk or milk replacer. As the temperature drops it becomes more challenging to meet nutrient requirements for not only growth but also their basic maintenance requirements.

The thermoneutral zone of a calf under 3 weeks of age is between 59 and 77°. Below this and the heat that a calf produces is equal to the amount of heat lost and the calf experiences cold stress. Therefore, to maintain body temperature, the calf must either consume more energy or the calf will be forced to use what limited body reserves it has for this purpose. This prioritization of nutrients will always go first to maintenance (thermal regulation, immune and stress responses and then toward growth.)

Capture

The requirement for maintenance in a calf is quite substantial. Depending on your feeding program the calves on your farm could easily consume enough nutrients to meet their maintenance requirements. However, if you feed 4 to 6 quarts of milk or milk replacer per day then it becomes more challenging to meet maintenance requirements for the youngest calves during cold weather. As an example, the table above estimates the amount (in quarts) of whole milk or milk replacer (20% protein; 20% fat) required to meet the maintenance requirement of an 88-pound calf.

For calves being fed whole milk, if the environmental temperature reaches 23° or below the majority of a 4 qt. allotment is mostly going toward maintenance, leaving little to no nutrients for growth. For calves fed a more conventional milk replacer, the amount required to meet maintenance requirements per day is greater relative to whole milk. Below 41°, much of a 4 qt. allotment of a 20:20 milk replacer would be used for maintenance. As the temperatures drop below 14° almost 5 qts. or more are required for maintenance alone.

Meeting the maintenance requirement becomes more challenging when temperatures fall below 0°, which it often does in the North Country and in other parts of the Northern U.S. Although there are different ranges of feeding levels and milk replacer formulations, the big takeaway is making sure you’re meeting the needs of the calf so that she can meet her maintenance requirements and also continue to grow.

How can we achieve this in cold weather?

  1. Increase amount of milk or milk replacer fed per day. This can be achieved by increasing the quantity, either through an extra feeding or more milk during normal feedings.
  2. Supplement milk replacer with added fat or additional milk solids. With increased solids it is crucial to provide free-choice water.
  3. Switch to a more energy dense milk replacer that is formulated with higher fat concentrations.
  4. Increase starter intake. Make sure you are feeding a palatable starter. It is also very important to continue to provide water during the cold because starter intake is linked with water consumption.

Increasing starter intake is most likely the most challenging task in the youngest calves, so focus on the first three methods to maximize nutrients for maintenance and additional growth. Other calf management practices to keep in mind are to provide deep and dry bedding, calf jackets, minimize drafts, and make sure milk or milk replacer is fed to the calf at or above body temperature at time of delivery.

Now the big question: how are you planning to make changes to your “calf”eteria this winter?

Fall Pasture Management Tips

Three Angus beef calves in fall pasture sceneWhile summer may be over and the main grazing season concluded, the fall is one of the best times of the year to evaluate the condition of your pasture and complete pasture management tasks that will pay dividends the next grazing season.  Spend some time now before it gets cold preparing your pastures for spring growth.

  1. Soil Test After a summer of grazing, fall is a great time to take soil samples to check and see where you stand on soil pH, nitrogen, phosphorus and potassium.  This is important information to have when making management decisions such as how much fertilizer or lime to apply and if your pasture needs to be renovated. It also allows to apply what is needed to avoid over application which can have negative environmental impacts with runoff and leaching and also result in unnecessary spending.  Testing should be done routinely every 2-3 years or prior to undertaking a partial or full pasture renovation. The University of Delaware offers soil testing as well as several private labs including Agrolab in Harrington.

 

  1. Assess- Take a walk through your pasture. Observe and inventory what desirable pasture species are present, the ratio of grass to legumes, the types of weeds present, the stage of maturity of desirable species and weeds, how much bare soil there is and possibly use a compaction meter to see what the soil compaction levels look like from hoof pressure after a wet growing season.

 

  1. Weed Control- The fall is a great time to do some weed control. Perennial weeds such as horse nettle, dogbane and thistle respond well to fall herbicide applications (as long as it hasn’t been too dry) because they are translocating energy to store in their roots in preparation for overwintering. Herbicides should be applied according to label instructions and prior to the first frost. The Mid-Atlantic Weed Management Guide is an excellent regional resource and has a chapter devoted to forage weed management: http://extension.udel.edu/ag/weed-science/weed-management-guides/

 

  1. Lime- Based on your soil test results, apply lime in quantities to increase soil pH appropriately. Over time without the application of lime, soils generally become more acidic. The addition of certain fertilizers such as ammonium sulfate can also make soil more acidic.  Acidic soils make nutrients less available for pasture species to uptake. Most pasture species prefer a soil pH between 6.0-6.5.  Raising soil pH not only makes nutrients more available to pasture grasses and legumes for uptake but can also make soil bacteria more active which helps to release nutrients.  Based on your soil test results you will apply either high calcium lime or high magnesium (high mag) lime depending on your needs. Additional recommendations for liming pastures can be found here: http://extension.udel.edu/factsheets/forage-and-hay-crops/

 

  1. FertilizeBased on your soil test results, and provided there is adequate soil moisture, apply nitrogen (N), phosphorus (P) and potassium (K) as needed. Soil test results allow you to apply the correct amounts of fertilizer needed which saves money and avoids over application. Fall is widely recognized as one of the best times to apply fertilizer.  Fall applications of fertilizer help pasture stands to be hardier, overwinter better and be more productive in the spring.  Phosphorus helps with root growth and development which in turn helps with pasture persistence and longevity of a stand.  Potassium functions much like anti-freeze in a plant and assists it in coping with hot dry or extremely cold weather.  Nitrogen provides for leaf growth and development and fall applications of nitrogen help boost pasture production the following spring.  Fall applications should be completed by early November. Remember that Delaware nutrient management laws do not permit commercial fertilizers to be applied between December 7 and February 15. Additional recommendations for fertilizing pastures can be found here: http://extension.udel.edu/factsheets/forage-and-hay-crops/

 

  1. Mow/Drag– Mowing pastures promotes more even growth after a summer of grazing and can assist in weed control by clipping weed seed heads before they are viable. Pastures should be mowed no shorter than 3-4 inches to allow enough residual plant material for pasture species to store energy reserves for the winter. Dragging a pasture spreads manure more evenly then a cow or horse will. It also offers some benefit for internal parasite control by exposing parasites and their eggs to sunlight and desiccation or drying.

 

  1. Rotationally Graze or Strip Graze- Develop a grazing plan based on your visual evaluation of your pastures to rest and rotate your pastures. Divide your pastures into smaller areas to reduce selectivity and force animals to graze more evenly if you find that forage is becoming too mature and being wasted in some areas of your field and overgrazed in others. Pastures should never be grazed less than 3-4 inches as it causes stress to the plant because they begin to use their root reserves instead of using their leaf material to produce more energy for growth.  If a pasture is continuously overgrazed eventually the desirable pasture species utilize all of their root reserves causing them to die and leave bare spots in the pasture.  Rotational grazing gives pastures a must needed rest in between episodes of grazing.  The length of time regrowth between grazing episodes is dependent on environmental growth conditions.  Strip grazing is a type of rotational grazing and is a great technique for rationing pasture during times of less growth such as winter months. Animals are offered a portion of a field to graze and then are moved on a regular basis once that area is consumed. This is generally high intensity grazing for shorter periods of time.

 

  1. Overseed/Reseed- Fall is actually the best time of the year to reseed a pasture. Seed germinates faster as soil temperatures are warmer than in the spring. Pasture seedlings get several months of a head start on spring weed growth which makes them able to compete better in the stand.  If the existing stand simply needs thickening, then overseeding is a good option.  If soil pH and fertility need dramatic adjustments, soil compaction is severe, weed pressure is heavy and desirable pasture species are thin then a full renovation with conventional tillage is probably in order.  A common mistake is grazing newly renovated pastures too soon. Plants need time for strong root development so they aren’t pulled out by grazing animals or damaged by hooves.  Full renovations require a good year of careful mowing, etc. prior to grazing animals being turned out. If you do not have the room to wait a full year, but still need a full renovation, considering breaking your pasture into sections, seeding one section per year. This way, the new section will be ready for animals as you prepare to renovate the next section the following year. This also helps with expenses, since full renovations can be costly.

 

  1. Stockpile-Tall fescue grass pastures offer the ability to stockpile or grow forage and store it in the field to be grazed in late fall or winter. Tall fescue is uniquely suited to this practice as it actually maintains nutritional content and increases in palatability to the horse after the first frost. In order to stockpile tall fescue in the field for later grazing, an early fall application of nitrogen to stimulate leaf growth is necessary. Wait to graze until late fall or winter and consider utilizing strip grazing to maximize the utilization of stockpiled tall fescue.

 

  1. Choose the Right Forage Species– This is one of the most costly inputs for pasture, yet is also the most important choice you can make for your pasture. Unfortunately, we do not share the same climate as Pennsylvania, Kentucky, or Western Virginia, which provide excellent conditions for perennial, cool season grasses. Our warm, humid environment tends to stress cool season grasses during the summer months, reducing the longevity of some species such as orchardgrass, timothy, and perennial ryegrass. There is an exception-tall fescue, particularly varieties containing the friendly (novel) endophyte, which tend to persist much longer when established correctly. Please note these are different than endophyte-free varieties, which tend to have less vigor. There are many pasture mixes available on the market so be sure to do your homework and be familiar with what is in the mix you are being sold or consider a custom mix of appropriate species for our growing conditions.

 

In conclusion, fall is a great time to evaluate your past grazing season. Think back- did you have times where pasture growth was in excess of what was being utilized by grazing animals?  A time of deficiency?  How can you overcome those times in the future?  What did your pasture look like by the end of the summer?  Often times when asked to make recommendations to help producers manage their pastures more effectively, we discover that pastures are greatly overstocked and continuously grazed.  Even when you follow good management practices, pastures that are overstocked will result in overgrazed, damaged stands that do not persist.  Weeds are opportunists and bare soil allows them to germinate from existing soil reserves or propagate if they are not controlled.  If you do not already have one, consider establishing a sacrifice lot or a place to put animals and feed hay when pastures cannot be grazed for a variety of reasons (too wet, too dry/droughty, no growth, when a pasture has been recently seeded or fertilized, or it is too cold and limiting growth rates).  This practice will help extend the useful lifetime of your pastures.  Hoof pressure on wet pastures in the winter damage the desirable plants and result in soil compaction.  Pastures that are grazed year round are less productive and need to be reseeded more often.

Susan Garey, Extension Agent Animal Science and Phillip Sylvester, Kent County Agriculture Agent

University of Delaware

 

Plan for Winter Dairy Udder Health Now

Sudden shifts in the weather are a stark reminder that dairy producers need to plan ahead to maintain udder health during the winter, says J.W. Schroeder, North Dakota State University Extension Service dairy specialist.

“Winter teat-end lesions are easily triggered when the temperature drops 20 degrees,” he adds. “With inevitable cold winter weather on its way, the advent of teat-end lesions is likely to predispose cows to mastitis.”

Wind chills and temperature changes are the major factors leading to winter teat challenges. Schroeder says the dairy manager’s objectives should be to:

  • Control exposure to weather factors as much as possible.
  • Minimize other teat stressors that exacerbate the problem if cracking or freezing occurs.
  • Keep the teat disinfected, healthy and soft as much as possible through proper milking procedures.
  • Minimize secondary bacterial infections through proper milking practices and environmental sanitation.

“We can’t control the weather, but we can control factors that will ensure cow comfort and the cows’ udder health in the coming weeks,” he says.

Here are ways he suggests producers accomplish those objectives:

  • Control cold temperature exposure by providing windbreaks if animals have to go outside, feeding and housing cows indoors during cold weather when possible, avoiding drafts in buildings by keeping ventilation and openings controlled properly, and avoiding putting animals directly into extreme wind chills post-milking.
  • Control stall/bedding environment by having comfortable, dry areas for animals, providing dry bedding, and maintaining and changing bedding at appropriate intervals. Recent research in Minnesota showed that bedding maintenance is critical to reducing bacterial exposure.
  • Maintain milking equipment by checking vacuum and milk line hoses, pulsators, inflations and vacuum level; keeping pulsators clean; and changing inflations on schedule.
  • Ensure pre-milking sanitation by using procedures that maximize teat disinfection and skin conditioning while minimizing irritation or trauma. Also pre-dip with a good germicidal dip with skin conditioner, blot teats dry instead of rubbing to minimize irritation on problem teats, and use milking hygiene practices like those used to control contagious mastitis (clean hands, gloves and individual towels). Cloth towels are best because they dry teats more thoroughly with less abrasion than other types of towels.
  • Review people/milking machine/time interactions because using proper techniques is imperative to maximize unit performance (maximum flow/unit time) and minimize teat stress (extended milking due to low flow rates or gross overmilking).

“Remember that teat-end changes can occur rapidly in winter with dehydration and cracking, and at other times with acute machine problems,” Schroeder says.

“Minimizing the weather effects through proper facilities and environments is job one. Some practices may need to be altered or adapted during cold weather (dipping, blotting, etc.), and the advantages and disadvantages should be carefully examined when evaluating using new technologies or products such as teat dips.”

To date, researchers have found no protocol that stops cracked teats completely during the winter.

Acute Bloat Syndrome Dairy Calves

Bloat is a common disorder seen in ruminants, such as cattle. However, bloat observed in young calves is very different from bloat seen in cows. According to Smith (2010), bloat in cows is a result of free gas building up in the rumen (the first component of the bovine’s stomach) and causes distention, or enlargement, of the rumen. This distention of the rumen can impair breathing and result in suffocation of the animal. In contrast, bloat in young calves results from gas build-up in the abomasum, the last of the four compartments of the bovine’s stomach (Smith, 2010). The abomasal bloat observed in young dairy calves is often referred to as Acute Bloat Syndrome (ABS). In a survey conducted by Shoemaker et al. (2007), 276 veterinarians across the country reported ABS to occur on a median of four farms per practitioner. ABS is becoming a widely occurring syndrome, and it is important that dairy farmers are aware of this disorder and remain updated on current research. In order to better understand ABS, it is necessary to know which cattle can be affected, the symptoms associated with the syndrome, the potential causes, the treatments, and the preventative measures for ABS.

Acute bloat syndrome occurs in calves. In most cases, calves are usually 4 to 21 days of age (Shoemaker et al., 2007). According to Marshall (2009), ABS occurs sporadically in dairy calves. Some farms will have multiple cases of ABS at one time. Not only is it a good idea to know when calves are susceptible to ABS, but it is also important to recognize the symptoms.

Understanding the symptoms of ABS is critical because calves that develop the syndrome often die within 6 to 48 hours. According to Van Metre and Callan (2006), the case fatality rate is a very steep 75 to 100%. Although the likelihood of saving the calf is low, it is only possible if symptoms are recognized early. Symptoms of ABS include abdominal distension, depression, colic signs, grinding of teeth and salivation, anorexia, fluid slosh in the abdomen, and dehydration. Less common symptoms include diarrhea and high temperature (Shoemaker et al., 2007). According to Panciera et al. (2007), after experimental induction of ABS in calves, the necropsy showed distention, hemorrhage (internal bleeding), inflammation, mucosal necrosis, and mural emphysema (air build-up in the wall of the stomach). The symptoms of ABS usually include a rapid onset and sometimes are not even observed before death occurs. Calves will eventually die from shock or compromised respiration due to the enlarged stomach, according to Van Metre (2017).

The causes of ABS are not well understood; however, experimental induction of ABS in calves led researchers to believe that the cause of ABS is large quantities of highly fermentable carbohydrates and high concentrations of bacteria containing enzymes capable of fermenting the substrate (Panciera et al., 2007). As a result of these two factors, high levels of gases are produced in the abomasum, causing distention. Although researchers are not certain which exact species of bacteria cause ABS, Clostridium perfringens, Sarcina spp, Streptococcal spp, Escherichia. coli, and Salmonella typhimurium have been identified in the abomasum of affected calves. Further research must be done in order to determine the specific role these bacteria play in ABS. Other factors that can contribute to ABS are related to nutrition and include high volumes of milk replacer, cold milk, high osmolality of milk, high protein  and fat contents in milk, high-energy oral electrolyte solutions, and inconsistent feedings. All of these can cause a slower emptying rate of the abomasum. According to Burgstaller et al. (2017), feeding practices that significantly prolong abomasal emptying can increase rates of gastrointestinal diseases in calves.  This is because the bacteria have more time to ferment the feedstuff, thus producing more gas in the abdomen. Familiarity with these causes of ABS will aid in proper decision-making regarding treatment and prevention of the disorder.

Measures for controlling ABS mainly involve dietary management in lieu of medications or procedures (Marshall, 2009). There are no reliable data on whether or not conventional vaccines are helpful. It is thought that vaccines containing inactivated toxins given to pregnant cows will produce antibodies in the colostrum and help protect the calf (Van Metre, 2017). Antibiotics, such as penicillin or oral Beta-lactam which would target Clostridium spp, can be used, but these are not the best treatment option because the species of the ABS-causing bacteria may be different. Other medications that can be given include rumen tonics and anti-inflammatories (Shoemaker et al., 2007). Bloat-relieving procedures, such as placing a stomach tube or puncturing the abomasum to release air, are not necessarily effective treatment options. Since a stomach tube cannot reach the abomasum, the calf’s front end must be elevated in order to allow the gas to pass to the rumen and out the tube (Van Metre, 2017). Puncturing the abomasum must be done while the calf is dorsally recumbent (lying on its back) because there is a high risk of leakage of abomasal contents into the abdomen (Marshall, 2009). For these reasons, procedures and medications are usually not the best treatment options. Dietary management strategies are the preferred ways to prevent ABS. These include feeding the calves multiple, small meals on a consistent basis, mixing the milk replacer correctly according to manufacturer’s instructions in order to lower osmolality, feeding warm milk, and providing adequate amounts of water (Smith, 2010). These dietary management strategies are easy to apply and will increase the passage of feed through the abomasum to the small intestine. Although these are good treatment options and preventative strategies, farms that were rated good to excellent, based on their management practices, still struggled with ABS.

ABS is a spontaneous and puzzling disease that affects many dairy farms. The calves at risk for ABS, associated symptoms of ABS, the potential causes of ABS, and the treatment and prevention of ABS are important factors that must be studied and understood. Unfortunately, there are still many uncertainties and unknowns about this disorder, and further research is needed in order to learn more about the syndrome and the specific species of bacteria that cause it.

Works Cited

Farm Bureau Working on New Milk Price Insurance

By Jim Dickrell January 31, 2017

A new type of dairy revenue insurance, that would offer regional protection against both milk price and production declines, is being worked on by the American Farm Bureau Federation, American Farm Bureau Insurance Services (AFBIS) and academic collaborators including dairy economist Marin Bozic.

The product, known as Dairy-Revenue Protection (Dairy-RP), protects revenue instead of the milk-feed margin.  It is based on the same concepts as crop insurance, and will be submitted for review to USDA’s Risk Management Agency this spring.

To gauge interest, AFBIS is hosting an on-line survey for dairy farmers.  The survey is just 12 questions in length, and takes less than a minute or two to complete. Farmer input will be used to improve the design of the product and for market research. Go here to take the survey.

“Additionally, Farm Bureau believes livestock insurance funding should be enhanced,” says John Newton, AFBF director of market intelligence. “Livestock insurance funding is currently limited to $20 million per fiscal year despite the $130 billion annual value of the livestock sector.”

As currently designed, Dairy-RP insurance contracts would be quarterly, and could be purchased up to 15 months out. Dairy farmers would have three choices to make:

• A milk price blend between Class III and Class IV

• Number of cows to cover

• Coverage level (up to 90%)

To keep things somewhat simple, production per cow would be based on state-level milk production as reported by USDA. Indemnities would increase if production per cow at the state level decreases during the coverage period, or would decrease if state level production per cow increases during the period. “Indemnities would be paid to the dairy farmer if actual revenue falls below the revenue guarantee,” says Newton.

Dairy-RP premiums would be designed to be actuarially sound pre-subsidy. Based on milk prices from 2008 to 2016 and assuming subsidies similar to those in crop insurance, research by Marin Bozic suggests that the average premiums would be 9¢/cwt three months out, 21¢/cwt six months out, 28¢/cwt nine months out and 36¢/cwt 12 months out.

Bozic’s research shows a variety of hedging strategies with Dairy-RP could provide considerable risk management opportunities. One strategy would have resulted in Dairy-RP indemnities in eight of the 32 three-month quarters since the beginning of 2008, including three quarters in 2009, three quarters in 2015, and twice in 2016. In 2009, those indemnities could have approached $5/cwt; in 2016, about $1/cwt. If a farm had Dairy-RP coverage for the entire eight years, its milk revenue would have averaged $16.67/cwt versus $16.27 without it.

“When the market moves milk prices higher, the availability of a tool like Dairy-RP would provide farmers an opportunity to manage risk and lock-in that higher milk revenue,” says Newton.

Summer Forage Tour

Thursday, Sept. 1
3:30-5:00 pm Pre-tour option at Beck-n-Rich Farm

Raphine, VA

Featuring: forage sorghums for silage & baleage
5:00-5:30 pm Registration at Virginia Tech McCormick Farm
5:30-6:15 pm Dinner
6:15-7:30 pm Tour: – summer stockpiling for late-summer grazing,
– crabgrass, lespedeza, & summer annual forages
– building drought resistance with healthy soils

To Beck-n-Rich Farm 4875 Borden Grant Trail Fairfield, VA 24435
Directions from I-81

To VT McCormick Farm
128 McCormick Farm Circle Raphine, VA 24472

-I-81, exit 200
-east on 710 Sterrett Rd (1000 ft)
-left on Rt. 11 (1 mile)
-right on 707 Jonestown Rd (1 mile)
-left on Borden Grant Trail (700 ft)

-I-81 exit 205
-east on Raphine Rd. (½ mile)
-farm on left

QUESTIONS? MATT BOOHER, @ 540-245-5750, MRBOOHER@VT.EDU
Registration is $10 /person; includes dinner and tour.
Payment must be received by Friday, Aug. 26 to account for dinner.

Name Phone
Email

# attending

Make check payable to: “Augusta VCE”
PO Box 590
Verona, VA 24482

Virginia Cooperative Extension programs and employment are open to all, regardless of age, color,
disability, gender, gender identity, gender expression, national origin, political affiliation,
race, religion, sexual orientation, genetic information, veteran status, or any other basis
protected by law. An equal opportunity/affirmative action employer. Issued in furtherance of
Cooperative Extension work, Virginia Polytechnic Institute and State University, Virginia State
University, and the U.S. Department of Agriculture cooperating. Edwin J. Jones, Director, Virginia
Cooperative Extension, Virginia Tech, Blacksburg; M. Ray McKinnie, Interim Administrator, 1890
Extension Program, Virginia State University, Petersburg. If you are a person with a disability and
desire any assistive devices, services or other accommodations to participate in this activity,
please contact Matt Booher at (540-245-5750/TDD*) during business hours of 8 a.m. and 5
p.m. to discuss accommodations 5 days prior to the event.
*TDD number is (800) 828-1120.
This field event is partially funded by a USDA-NRCS Conservation Innovation Grant and the Virginia
Ag Council.

USDA plans to buy 11 million lb. of cheese, extends MPP deadline

Dairy farmers will receive additional assistance from the government following today’s announcement by U.S. Department of Agriculture (USDA) to purchase approximately 11 million pounds of cheese and extend an application deadline.

The cheese purchase will come out of private inventories and will be donated to assist food banks nationwide. The value of the cheese comes to $20 million.

USDA’s purchase would help reduce the highest cheese surplus in 30 years and increase bottom-lines for dairy farmers after a 35% reduction in revenues the last two years.

“We understand that the nation’s dairy producers are experiencing challenges due to market conditions and that food banks continue to see strong demand for assistance,” says Agriculture Secretary Tom Vilsack. “This commodity purchase is part of a robust, comprehensive safety net that will help reduce a cheese surplus that is at a 30-year high while, at the same time, moving a high-protein food to the tables of those most in need. USDA will continue to look for ways within its authorities to tackle food insecurity and provide for added stability in the marketplace.”

In addition to the cheese purchase, USDA will extend the deadline to enroll in the Margin Protection Program (MPP) for Dairy to Dec. 16, 2016. The previous deadline was Sept. 30.

Earlier in the month USDA announced approximately $11.2 million was earmarked for dairy producer financial assistance through the MPP-Dairy program. It is the largest payment since the program began 2014.

A number of groups had asked USDA for assistance in regards to Section 32 of the Agriculture Act of 1935, which allows surplus food to be purchased and donated into nutrition assistance programs. Still, the $20 million purchase does not come close to industry recommendations. National Milk Producers Federation (NMPF) asked for $100-150 million and American Farm Bureau Federation requested at least $50 million.

“This cheese purchase will provide some assistance to America’s dairy farmers through increased demand for their milk,” says Jim Mulhern, President and CEO of NMPF. “We will continue to assess the economic situation facing dairy farmers, and suggest ways to help farmers endure this lengthy period of low prices.”

National Farmers Union (NFU) President Roger Johnson says the help is appreciated but it still won’t fix the business environment dairy farmers work with.

“Current projections indicate that farm revenue from milk sales this year will drop to $31.5 billion – a $20 billion plunge from 2014 revenue highs. Even with modest price rebounds, dairy producers are draining capital reserves, or worse, going out of business,” Johnson says.