On July 25, Watkins Farm in Hardin County will host Manure Science Review, an annual event showcasing new findings, practices, equipment and technology.
The expected 250 attendees will see field and indoor demonstrations and hear six expert talks.
One of the talks, by Tom Menke of Greenville-based Menke Consulting Inc., will get to the heart of matter: "Valuing Manure."
Manure's benefits to soil
Ohio State University Extension's Glen Arnold, a member of the event's planning committee, said Lemke's talk will include "information on soil quality benefits, such as improved organic matter and improved soil bacteria activity, not just the value of the nitrogen, phosphorus and potash nutrients."
Arnold, who is state field specialist for manure nutrient management systems for OSU Extension, will give a talk at the event called "Avoiding Manure Spills."
OSU Extension, which is the outreach arm of The Ohio State University's College of Food, Agricultural, and Environmental Sciences (CFAES), is one of the event's collaborators.
How to keep weed seeds in check
Another talk at the event will look at ways to reduce the impact of weed seeds in manure, including waterhemp. A species of pigweed, waterhemp has been spreading in Ohio and become increasingly resistant to herbicides.
Ohio's waterhemp appears to have come from eastern Indiana, said Stachler, an educator in the Auglaize County office of OSU Extension, who will give the talk.
"Today it's present in nearly every county in western Ohio," he said, its seeds dispersed by birds, water, farm equipment such as combines, and livestock feed that's turned into manure and ends up spread on fields.
In Darke, Mercer, Shelby and Auglaize counties, Stachler said, waterhemp is "spreading at alarming rates."
He said his talk will share ways to limit such problems and reduce the estimated $5 to 25 per acre it costs a farmer to manage resistant weeds.
Rules, regs and limiting phosphorus runoff
Other talks scheduled are:
- "Manure Applications: Rules and Liability" by Peggy Hall, agricultural and resource law field specialist with OSU Extension.
- "Reducing Phosphorus Runoff" by Greg LaBarge, agronomic systems field specialist with OSU Extension. Phosphorus runoff is a cause of the harmful algal blooms plaguing Lake Erie and other water bodies in recent years.
- "Regulations Update" by Matt Lane of the Ohio Department of Agriculture's (ODA) Division of Soil and Water Conservation and Sam Mullins of ODA's Division of Environmental Livestock Permitting. ODA is also an event collaborator.
Revealed: Why you should #SoilYourUndies
Also at the event, Sandra Springer, western Lake Erie Basin nutrient technician with the Allen, Hardin and Putnam county soil and water conservation districts, will show why — yes — you should #SoilYourUndies. The districts, too, are collaborators on the event.
"Soil microorganisms increase plant residue decomposition, which releases plant nutrients," Springer said. "We want farmers to be checking their soil health in fields," even if it costs them their skivvies to do it.
Springer, for her part, will be displaying undies she buried in May in five fields around Hardin County: ones growing conventional corn, no-till soybeans, no-till wheat, alfalfa and hay.
They definitely won't be clean. Which is good.
"The hashtag is just something that other soil and water conservation districts are using to promote soil health," especially with kids, she said. "As far as education goes, this is our first demonstration of it on the adult end."
Field demonstrations, indoor exhibits
Other demonstrations will look at preferential flow (the uneven movement of water through media such as soils), calibrating manure spreaders, shallow tillage for applying manure, seeding cover crops using a converted high-clearance "highboy" tractor, side dressing corn with manure, center pivot irrigation and composting dead farm animals.
Indoor exhibits will share details about a rainwater and runoff simulation with cover crops; a demonstration farm showcasing best practices for reducing nutrient runoff, which includes the Ohio Farm Bureau Federation (OFBF) as a partner; and a demonstration farm testing the Ohio Nutrient Management Record Keeper, or ONMRK, a record-keeping app for smartphones or tablets that lets farmers record their manure and nutrient applications while still in the field.
Register early and save
Hours for the event are 8:45 a.m. to 3:30 p.m. Watkins Farm is at 18361 Township Road 90 in Forest, about 70 miles south of Toledo and 80 miles north of Columbus.
Registration, which includes coffee, doughnuts and lunch, is $25 by July 16 and $30 after that date. Participants can register online at go.osu.edu/msr2018 through July 16, or they can fill out and mail the registration form available at go.osu.edu/msr2018flier.
Attendees will be eligible for the following continuing education credits:
- ODA Certified Livestock Manager, 4.5 continuing education units (CEUs).
- Certified Crop Adviser, 3.5 Soil and Water CEUs and 2.0 Nutrient Management CEUs.
- ODA Fertilizer Recertification, 1.0 credit hour.
- Indiana Office of State Chemist, 4.0 Category 1 (Agricultural Pest Management), Category 14 (Agricultural Fertilizer Application) and Category RT (Registered Technician) Continuing Certification Hours (CCHs).
The event's collaborators also include OFBF and Ohio-based Cooper Farms.
Leading the research will be Amy Millmier Schmidt, assistant professor in biological systems engineering and animal science, and Rick Koelsch, professor in biological systems engineering and animal science. The project is designed to provide natural resource benefits to Nebraska through increased utilization of livestock manure and cedar mulch among crop farmers.
"When manure is applied to cropland at agronomic rates using recommended best management practices, it provides agronomic, soil health, and environmental benefits," said Schmidt.
As the management of eastern red cedar trees has become a critical issue in many parts of the state, Schmidt and others have been studying practices that utilize the biomass created during forest management activities in ways that add value to this product.
"Combining wood chips with manure prior to land application could provide a market for the woody biomass generated during tree management activities and help offset the cost that landowners bear for tree removal," she said.
The team's on-farm research to date has demonstrated that manure-mulch mixtures improve soil characteristics without negatively impacting crop productivity. This new award will allow an expanded project team to demonstrate the practice more widely throughout the state, complete an economic analysis of the practice, and engage high school students in educational experiences related to soil health, conservation and cedar tree management. It will also introduce the students to on-farm research for evaluating a proposed practice change.
"On-farm research is at the core of extension and research programs at land-grant universities like Nebraska," said Koelsch. "Giving high school students hands-on experience evaluating a practice to understand how it impacts farm profitability is a unique way to improve science literacy, critical thinking skills, and interest in agricultural careers."
Outreach activities will focus on improving understanding among crop farmers of the benefits these amendments provide and motivating implementation of this new practice. The long-term goal of the project is to improve soil health properties for Nebraska soils, reduce nutrient losses to Nebraska water resources, and reduce eastern red cedar tree encroachment on Nebraska's pasture and grassland resources.
The project is one of the 105 projects receiving $18,301,819 in grant awards from the Nebraska Environmental Trust this year. The Nebraska Legislature created the Nebraska Environmental Trust in 1992. Using revenue from the Nebraska Lottery, the Trust has provided over $289 million in grants to over 2,000 projects across the state.
The changes, under the Wisconsin Department of Natural Resources' ch. NR 151, Wis. Adm. Code, relate to Silurian bedrock, which are areas where the soil depth to bedrock is shallow and the bedrock may be fractured.
"The main purpose of this targeted performance standards is to reduce the risk for contamination in groundwater from manure applications on shallow bedrock soils," said Mary Anne Lowndes, DNR Watershed Management Section chief.
Lowndes said Silurian bedrock soils identified in the rule revisions are dolomite bedrock with a depth of 20 feet or less. The rule targets an area in the state that may include portions of Brown, Calumet, Dodge, Door, Fond du Lac, Kenosha, Kewaunee, Manitowoc, Milwaukee, Ozaukee, Racine, Sheboygan, Walworth, Washington, and Waukesha counties.
"Within a specified area, the rule sets forth manure spreading rates and practices that vary according to the soil depth and texture," said Lowndes. "For Silurian bedrock, the most restrictive practices apply to those limited areas with the highest risk for pathogen delivery, zero to five feet in depth, and less restrictive requirements apply in areas with five to 20 feet to bedrock."
Lowndes added that Concentrated Animal Feeding Operations (CAFOs) in the Silurian bedrock areas will be required to comply with the standards in the new rule, when it is incorporated into their permit under the Wisconsin Pollution Discharge Elimination System (WPDES), and a cross reference to the targeted performance standard language has also been added to ch. NR 243, Wis. Adm. Code., which applies to CAFOs subject to WPDES permitting. Non-permitted farms in Silurian bedrock areas will also be required to comply with the standards in the rule.
Lowndes added the DNR has worked with the University of Wisconsin Department of Soil Science to offer a Silurian bedrock map (exit DNR) tool that can be used to identify areas where the bedrock soil depth is less than 20 feet, and that the department is working with the Department of Agriculture, Trade, and Consumer Protection and county land conservation departments on how best to implement the new rules.
The new rule is based on a long-term effort by the department to seek public input on changes to NR 151, including conducting studies, public meetings and hearings and hosting a technical advisory committee and Groundwater Collaboration Workgroup that met between 2015-2017.
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It also coincided with the launch of a new, four-year effort by Dane County, called Suck the Muck, designed to literally suck a century's-worth of phosphorus from 33-miles of streams that feed the county's lakes.
Phosphorus, a nutrient found in the manure applied to agricultural fields, makes its way to Wisconsin waters (and waterways elsewhere) in runoff following rain storms. When the weather is warm, it can lead to the foul-smelling water and toxic algae blooms that plague lakes like Mendota, which is situated in an agricultural landscape.
This runoff may be getting worse, according to a recent study from researchers with the Water Sustainability and Climate Project at the University of Wisconsin–Madison. With a changing climate, the frequency of high-intensity rain events is on the rise. These storms bring heavy rains over a short period of time and exacerbate phosphorus runoff from manure-covered agricultural fields, more so than scientists expected.
"Both things are bad for water quality – too much manure is bad and too many intense storms are bad, too," says lead author of the study in Environmental Research Letters, Melissa Motew. "This is a story about how one problem really compounds another problem."
Indeed, the Lake Mendota algal bloom came on the heels of the second-wettest May in Madison's recorded history, and its eighth warmest. The National Weather Service reported that May 2018 was the wettest on record for the contiguous United States.
But Motew didn't start out asking how heavy storms and manure interact synergistically to affect water quality. It was while studying legacy phosphorus in soils – the accumulation of the nutrient over time – that she and the research team noticed something interesting in the data.
"We knew that heavy rain transports a lot of phosphorus off of a field and in 2014, (co-author Stephen Carpenter, emeritus professor and director of CFL) found that a relatively small number of rain events each year were delivering the majority of phosphorus to the lakes," she explains. "We happened to notice that it seemed like when we had periods of heavy rainfall we were seeing worse water quality than we expected. It prompted us to set up this study."
Climate change is bringing more intense rainfall across the U.S., particularly in the Midwest and Northeast. The 2014 study from Carpenter and colleagues showed that 74 percent of the phosphorus load in Lake Mendota is now delivered across just 29 days each year, and a 2016 study from scientists at Marylhurst University in Oregon and UW–Madison showed that annual precipitation in the Yahara watershed, which includes Lake Mendota, increased by 2.1 mm each year between 1930 and 2010.
This amounts to an increase of about seven inches of additional rain today, Motew explains. That same study also showed that while the frequency of large storm events in the region averaged 9.5 events per decade between 1930 and 1990, between 1991 and 2010, the number of large storm events nearly doubled, reaching 18 events per decade.
Using simulation models, Motew and the study team asked how more extreme rain events might interact with manure-and-fertilizer phosphorus supply on croplands to affect runoff at the level of an individual lake and the streams that feed it. That is, what happens when a given amount of rain falls on a field over the course of two hours instead of 24 hours?
"The model lets us scale up and make interesting observations from the scale of one field to the entire watershed," she says. "Models let us home in and study the process of how phosphorus moves in great detail."
Using two 60-year climate scenarios, one which assumed daily precipitation, maximum and minimum temperatures, wind speeds, relative humidity and solar radiation similar to current mean annual values in Madison, and another assuming more extreme rain events, Motew's model explored what happens to phosphorus concentrations in Lake Mendota and its tributary streams under low- and high-intensity precipitation conditions.
It took into account the real-life practices of farmers in the watershed – including their typical fertilizer and manure applications and tillage practices, the amount of phosphorus already stored in the surface layers of the soil, and the composition of the land around Lake Mendota. More than half of the land surrounding it is agricultural.
Motew found that dissolved phosphorus – the kind found in manure, as compared to other fertilizers and that found in soil – combined synergistically with heavy rain events to increase the amount of phosphorus running off into Lake Mendota and its streams.
"This puts us at even greater risk of worsening water quality," says Christopher Kucharik, study co-author and Motew's former graduate advisor. "This result also has wide-reaching implications because the synergistic relationship will likely be present in many agricultural watersheds around the world, where livestock and surface water co-exist."
Phosphorus is a critical nutrient for living organisms like crops. But what it does on land, it also does in water: encourages growth of organisms like plants and algae. When they die, these organisms fall to the bottom of an affected waterway, decomposing and consuming oxygen. This kills wildlife and encourages the growth of cyanobacteria, the organism behind toxic algae blooms. In some parts of the country, it can lead to dead zones, like in the Gulf of Mexico.
Farmers in Dane County and elsewhere are already applying less manure and doing so more precisely, Motew says, and she is hopeful these strategies will help to reduce phosphorus runoff from their croplands.
Motew, who is now a research fellow at The Nature Conservancy, also thinks farmers should be a part of continuing efforts to improve water quality. "We need to partner more with farmers so we can not only improve our own research by using better data, but so we can work together and build on their ideas, too." she says. "They know the problems up-close-and-personal and can provide insights we haven't considered. We as scientists can help explore where those insights may lead."
Motew adds: "Farmers are key to solving the problem, even though they are frequently blamed. We all need to take responsibility for our food system and find ways to support farmers in better manure management."
The study was supported by the National Science Foundation (grant numbers DEB-1038759 and DEB-1440297).
This software program was developed by PCE to enable automated pump control, whether for manure application or other fluid delivery uses. While it is an optional program for PCE customers, it syncs with the LightSpeed IQ technology that comes standard on all Puck Custom Enterprises pumps.
LightSpeed IQ is the only program on the market that offers in-depth pump diagnostics and insight, and when paired with LightSpeed Pro, gives users remote monitoring and control of their pumps in almost real time.
The LightSpeed technology can be operated on any tablet, phone or laptop in the cab of the applicator tractor without the need for any other hardware. It can also be outfitted and adapted to any third-party pump by PCE's service crew, giving all applicators the opportunity to adopt the high-tech system.
LightSpeed Pro is the newest iteration of PCE's automated pump control software, which first launched in 2007. More than a decade later, LightSpeed Pro includes a redesign geared toward ease of use and navigation, streamlined pump control and more in-depth diagnostics, in addition to full site-mapping capabilities. This feature is particularly useful for custom applicators and row crop farmers, who are now able to set up job sites, map the location of pumps and hoses, and lay out fields within LightSpeed Pro.
PCE designed and built the LightSpeed Pro and LightSpeed IQ software entirely in-house, which gives them the ability to react quickly to changes in the market and customers' needs. Compatible with nearly any connected device, it has a half-second update rate that results in near real-time visualization and pump control. Unlike many competitors' technology, LightSpeed also offers detailed diagnostics, helping applicators to find and address pump problems as they arise.
According to Matt Lindemann, PCE's technology specialist, the company's 11 years of experience with pump control software has allowed them to hone LightSpeed Pro into an invaluable tool for applicators — with a 99 percent uptime guarantee.
"This is a great service for our customers, and helps them increase their efficiency and effectiveness in the field," said Lindemann. "We're proud to offer this technology, built by an experienced team with firsthand pumping expertise."
LightSpeed Pro is developed and overseen by a PCE team with over 75 years of involvement in the industry, and even used by Puck Custom Enterprise employees on the application side of the business. As the LightSpeed Pro software becomes more robust and wide-ranging, PCE looks to continue innovating and updating its technology to meet its customers' needs and improve their efficiency on the job.
This factsheet discusses manure application equipment and road use requirements. Its purpose is to help farmers and custom manure applicators understand the impacts manure hauling equipment has on roads and bridges and the legal requirements for road access as well as providing tips and suggestions on how to minimize wear and tear on the infrastructure. | CLICK HERE
In response to concerns about this practice, University of Wisconsin Extension convened a workgroup to examine the issues.
The workgroup, composed of scientists, public health specialists, state agency experts, farmers, conservationists and others, spent over two years gathering and reviewing scientific information on the practice and developing their report, which includes findings, responses and recommendations.
The workgroup assessed concerns associated with manure irrigation, including droplet drift, odor, water quality, air quality and airborne pathogens. They also explored potential benefits related to the timing of manure applications, road safety and reduced road damage, and other farm management and economic benefits.
Join the webinar on June 15 at 2:30 to learn more about their results and implications.
For more information, CLICK HERE.
The Laramie County Sheriff's Office identified the victim as Erasmo B. Gonzalez, who lived on the farm in the small community of Carpenter. Three others who tried to save Gonzalez Tuesday were treated for methane exposure. | READ MORE
Related: Manure gas safety - Be aware, be safe
Pen-pack manure contains the macro nutrients nitrogen, phosphorus, and potash along with a host of micronutrients.
The nutrient content can vary depending on species, feed products fed, and the amounts of straw or sawdust used for bedding.
The farm's manure handling and storage practices also impact the nutrient content of manure. Manure stored under roof will usually maintain a higher nutrient value than manure exposed to rainfall. | READ MORE
The county is looking for proposals and bids from private partners to evaluate where additional digesters or other types of large scale treatment systems could be placed to reduce run-off.| READ MORE
"Make sure you're staying out of the areas you need to," said David Ginder, environmental protection specialist for the Illinois Environmental Protection Agency. "The key question should be if there are areas were livestock manure can run off this field." | READ MORE
When correctly specified and produced, concrete can be an excellent construction material providing long service in many conditions, however, the quality and durability of a concrete tank is dependent on many factors that are often difficult to control.
Consider the following:
Pre-stressed concrete tanks:
- Bioenergy plants provide a severe environment for concrete. As these tanks enter the first, second and third decade of service, the effects of years of unprotected exposure are apparent with cracks, spalls, and leaks.
- The introduction of reinforcing steel created a problem affecting the durability of concrete. As rebar corrodes, concrete cracks and spalls reducing structural integrity AND allowing elements to enter into the concrete increasing the deterioration. Additionally, rust forming on rebar increases the volume (result = expansion) of the steel creating large tensile forces. Concrete cannot withstand tensile stress and it cracks to relieve the pressures.
This uncertainty increases the risk of over-applying or under-applying nutrients to the field.
The risk is greatest with nitrogen (N), which can easily move out of manure during storage and is a source of drinking water concerns. However, there are ways that producers can lower that risk. One of those ways is by getting manure tested.
Studies from Minnesota and elsewhere have shown how important it is to get manure tested rather than relying on published book nutrient values, says Gregory Klinger, Extension educator for the University of Minnesota.
Book values suggest a specific nitrogen credit for specific manure types. They are useful for planning where to spread your manure, but can lead to over- or under-application of nutrients if used as the basis for actual application rates.
Manure nitrogen content is highly variable. Consider the case of liquid dairy manure, which has book values of 31 or 32 lbs N/1,000 gallons in Minnesota. Different studies on lab-tested dairy manure have found that individual manure N contents are typically anywhere from 20 to 40 percent higher or lower than these book values.
With a book value of 32 lbs N/1,000 gallons, the nitrogen in your dairy manure could be anywhere from 19.2 to 44.8 lbs/1,000 gallons. That creates quite a risk of over- or under-applying nitrogen.
Agitating and testing manure reduces that variability. While there is still variability in the results you get when you test manure, it is lower than relying on book values. Studies suggest 10 to 30 percent for unmixed manure, but as low as three to seven percent for well-mixed or agitated manure.
That means if you have 24 lbs N/1,000 gallons in your manure and it has been agitated and analyzed, you could reasonably expect the measured results to be from 22.3 to 25.7 lbs/1,000 gallons.
Much better than the 19.2 to 44.8 lbs/1000 gallons range you could expect without testing. While dairy manure is the example used here, these trends are true of other manure sources as well. Just by mixing and analyzing your manure, the risk of over- or under-applying nitrogen goes down immensely.
If you can't agitate your manure, try to take a number of subsamples from across the manure stockpile and mix them. Studies show that 15 to 25 subsamples will get the variation below 10 percent. For manure with an actual nitrogen concentration of 24 lbs N/ton, this would mean the N content reported by the lab would likely be 21.6 to 26.4 lbs/ton.
Many soil scientists in the Midwest have noted that when nitrogen application rates are less than 25 pounds above or below the best rate for a field, it usually has a negligible effect on yields and profitability, regardless of form.
That means that you don't need to hit a magical number that is best for your field, you just want to get within 25 pounds of that number. Testing manure will minimize how much uncertainty there is in manure N concentrations and help you hit that goal.
Labor and machinery requirements of hauling manure can be minimized by winter-feeding beef cattle on fields. Care should be taken with feeding practices to ensure that crop nutrients are evenly distributed.
Feeding on fields is typically accomplished by strategically spacing hay bales around the field either with or without hay rings frequently referred to as bale grazing. Another feeding method on fields includes unrolling bales on the ground. Unrolling bales on the ground typically allows for better crop nutrient distribution.
Spacing bales across a field creates a situation of concentrated nutrients from manure and waste hay in the areas where bales are fed. Over time, nutrient distribution can equalize with good grazing and management practices to promote soil health. Nutrients can be distributed by livestock and soil microbes over time, however, uniform nutrient spreading is more ideal for crop production yields.
Utilizing the various feeding methods can result in a wide range of hay waste. Producers need to weigh cost savings associated with winter feeding on fields and feed loss with any given feeding method.
Feeding on fields allows nearly 100 percent nutrient cycling into the soil for both phosphorous and potassium while nitrogen capture will be variable. Consequently, hay waste is not a 100 percent loss.
Much of the crop nutrients from hay waste is available to the next growing crop. If hay is harvested on the farm, nutrients are simply redistributed to the feeding area. If hay is purchased, those nutrients are added into the farm nutrient pool.
Purchasing hay and bringing nutrients onto the farm can be a cost-effective addition of fertilizer to the farm. The vast majority of fertilizer costs for crop production are for application of nitrogen, phosphorous and potassium. Producers should use a feed analysis of purchased feed to determine its fertilizer value. Producers can use dry matter, crude protein, phosphorous and potassium content to determine fertilizer value.
Dry feeds will usually contain 10 to 15 percent moisture or 85 to 90 percent dry matter. A 1,000 lb. bale of dry hay with 15 percent moisture will contain 850 lb. of dry matter. Ensiled feeds will contain considerably more moisture.
Protein contains 16 percent nitrogen. Crude protein is calculated by multiplying the percent nitrogen by a conversion multiplier of 6.25. From the example hay analysis, 10.6 percent crude protein can be multiplied by 0.16 or divided by 6.25 to equal a rounded off 1.7 percent nitrogen.
The nitrogen content multiplied by the dry hay bale weight of 850 lb. equals 14.45 lb. of nitrogen in the bale of hay. The percent phosphorous (0.18 percent) and potassium (1.6 percent) are also multiplied by the 850 lb. of dry matter hay to equal 1.53 lb. of phosphorous and 13.6 lb. of potassium.
Producers must be aware of the differences between feed analysis and fertilizer analysis. Feed analysis are recorded as percent crude protein, elemental phosphorous, and elemental potassium.
Fertilizer analysis is recorded as percent elemental nitrogen, phosphate (P2O5), and potash (K2O). Using Upper Peninsula of Michigan fertilizer prices, nitrogen is valued at $0.47/lb. N, phosphate at $0.35/lb. of P2O5, and potash at $0.325/lb. K2O.
The calculated fertilizer value of the 1,000 lb. bale of hay is worth $7.07/bale or $14.14/ton. Current value of this quality of hay is roughly $80-100 per ton. In this example, about 15 percent of the value of average beef quality hay can be attributed to its fertilizer value. Farms that are marginal on soil nutrient levels may consider purchasing at least a portion of their feed to increase crop nutrients on the farm and replace some portion of purchased commercial fertilizer.
Feeding hay on fields during the winter months has several advantages that beef producers can use to offset some of the production costs associated with beef production.
This article was published by Michigan State University Extension. For more information, visit http://www.msue.msu.edu.
A switch thrown last week by Duke Energy infused methane captured from Duplin County hog lagoons into a natural gas pipeline.
Optima KV is the project developer and has partnered with Duke Energy to supply the energy and Smithfield Foods to donate the land for a facility to collect the hog methane. Once collected, the gas is cleaned and injected into the natural gas pipeline to serve two Duke Energy plants in Eastern North Carolina.
The project is expected to generate about 11,000 megawatts-hours of renewable energy annually, enough to power about 880 homes for a year, according to the N.C. Pork Council. | For the full story, CLICK HERE.
Farmers who are able to properly use the manure produced on their farms save money in fertilizer costs. Szemborski said injecting the manure into soil allows for reduced runoff and loss of nutrients, while also reducing odor from the manure due to the ammonia that causes the smell being locked into the soil during injection. | READ MORE
The AMMP is one of two programs designed by CDFA to reduce dairy and livestock greenhouse gas emissions. The program will provide $19 to 33 million in grants to California dairy and livestock operators to implement non-digester manure management practices that reduce methane emissions.
Applicants must access the 2018 Request for Grant Applications at www.cdfa.ca.gov/oefi/ammp/ for detailed program requirements and application instructions.
CDFA has partnered with the State Water Resources Control Board to utilize its online application site, the Financial Assistance Application Submittal Tool (FAAST). All prospective applicants must register for a FAAST account at https://faast.waterboards.ca.gov to apply. Applications and all supporting information must be submitted electronically using FAAST by Tuesday, May 22, 2018 at 5:00 p.m. PDT.
All prospective applicants should access the AMMP webpage for information regarding additional, free-of-charge technical assistance conducted by non-profit organizations, Resource Conservation Districts and California academic institutions to assist in the submission of AMMP applications.
The Oregon Department of Agriculture agreed to let Lost Valley Farm, a 7,288-acre ranch permitted to house 30,000 cows, to produce massive amounts of wastewater and manure, despite a year of repeated violations of its permits. The state had threatened in a February lawsuit to temporarily shut down its operations.
Under the new agreement, Lost Valley can generate up to 65,000 gallons of wastewater per day compared with the 514,000 the dairy estimated it would need. It also must comply with other terms of its permit, such as notifying the state if there is a wastewater or manure spill. And the dairy must remove 24.4 million gallons of liquid manure from its overloaded storage facilities by summer, so that it can avoid polluting local water sources during a heavy rainstorm. | For the full story, click here.
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