Coping with Drought: Evaluating the Economics for Livestock Producers’ Options

28.08.2007 647 views
Introduction Coping with the consequences of drought is costly for livestock producers.  This article focuses on beef cattle and other livestock that use pasture are the main source of feed.  Options will vary from farm-to-farm but in each case one of these options is likely to be less expensive that the others.  Options include buying various types of forages and feed, reducing animal numbers, or some combination.  The discussion that follows is intended to show how different options can be evaluated, using information from the NCSU enterprise budgets as examples.  These options include buying hay, using abandoned row crops or row crop residues, stockpiling, growing winter annuals, selling livestock, and selling the whole herd.  The examples used in this article are for beef cattle but these procedures apply to other pasture-based livestock such as meat goats.

Where to start?

 Begin by developing a feed budget for the current herd.  A feed budget is an estimate of the amount of feed that will be required to carry the animals through a feeding period of a certain length.  Feed requirements depend on number of animals, their daily forage intake needs, their daily energy, protein and mineral needs, and the length of feeding period.  The animal performance goals you have set (such as daily gain and body condition) affect these requirements.  In a summer drought situation it may be prudent to develop two feed budgets: Plan A if it rains and there is good fall grass growth, and Plan B if it stays dry and feed must be procured to carry livestock through until spring. The second step is to assess current feed inventories, if any, and then to determine additional feed needs, including forages and supplementary feeds.  The third step is to identify what feeds are available and the last step is to “run the numbers” and see which one is least costly.  The fourth step is to see if reducing livestock numbers is less costly than procuring feed to maintain current numbers.

Here is an example of a feed budget to carry a herd of brood cows through a fall and winter feeding period.  There are 50 brood cows with an estimated average daily intake of 25 lb. of dry matter per day.  The normal time spring pastures are available is six-and-a-half months away, 200 days.  So, if you maintain the herd at its current size it will take [50 cows X 25 lb per day X 200 day] / 2000 = 125 tons of dry matter.  In addition, the budget calculations should consider the daily nutrient needs of the cattle in terms of energy, protein and minerals.

Note this feed budget is calculated on a dry matter basis because that is the part of the diet containing the nutrients animals need.  All feeds contain some water, so an allowance must be made for this when thinking about the actual amounts of a particular feed on an “as fed” basis.  Some examples of typical dry matter (DM) content are: Hay ~ 85% DM; pasture ~ 20 to 25% DM, corn silage ~ 35% DM: ground corn ~ 88% DM.  Converting all feeds to a dry matter basis allows for a more accurate assessment and comparison of cost and value.

Some feed, whether grown or bought, will be lost and not eaten.  These losses may occur during harvesting, storage or feeding and they add to total feed costs.  Actual losses depend on the crop and type of harvesting, storage and feeding system.  Harvesting losses can vary from 5 to 50% of the amount of harvestable production, storage losses from 5 to 20%, and feeding losses from 5 to 15%.  Estimates of combined losses from all sources are from a minimum of 15% up to 50% of the initial amount of harvestable production.  So, for example, hay bought or made at $80/ton with a 30% loss effectively costs $115/ton for the hay actually eaten by the animals!

Considerations for bought feeds include the type, fiber content (usually from forage crops), content of the major nutrients -- energy and protein – and minerals.  The effective cost of alternative feeds include: The purchase price; harvesting cost if a standing crop, including losses; storage cost, including losses; feeding out cost, including losses; and dry matter content.  Some low quality forages may require supplementation.  The important cost to estimate is the total ration cost of what the animals actually eat, including forages and any supplements.

 Feeds with a high fiber content include hays, silages, row crop residues, and some of the higher fiber byproduct feeds.  Supplementary feeds include grains, oilseed meals, byproduct feeds and minerals. Depending upon the estimated expense of the various feeding options, it may be less costly to reduce animal numbers instead, including selling or removing animals. Selling calves early, selling off replacement heifers, reducing the number of cows, and selling the entire herd are all options to consider.  Animals may be relocated using contract grazing or contract raising arrangements.  Cattle may be grown out through retained ownership.  Selected options are discussed in more detail in the following sections. Buying or Procuring Feed Identify the alternative feeds available.  Compare individual feeds of the same type -- among forages and among grains & byproducts – and combine them to meet animal needs.  FeedVal is a spreadsheet that compares the value of the energy and protein content of various feeds relative to corn and soybean meal prices.  It is available on line at: http://www.ag-econ.ncsu.edu/ extension/Ag_budgets.html.  However, FeedVal, similar programs and rules of thumb for estimating values relative to the price of corn and/or soybean meal are only intended as screening tools to help identify the most promising alternative feeds.

The key factor is total ration costs, including losses and feeding out costs.  Losses and feeding costs are high for forages but vary by type.  Include costs and losses arising from harvesting, including grazing management; storing, and feeding out.

 Buying Hay

Costs to consider include the purchase price or cost delivered to the farm, storage losses, if any, feeding losses, feeding out costs. Convert costs to a dry matter basis for comparing alternative feeds.  For example:

·        If the purchase price, delivered, is $150 per ton, with an 85% dry matter content, the cost per ton of dry matter is $176 per ton of DM

·        If storage and feeding losses are 15% then the effective cost of the hay is $176 per ton as fed and $207 per ton of DM

·        If feeding out cost is $13 per bale, at three bales per ton, the cost is $39 per ton

·        The total cost of this bought hay is $215 per ton as fed, or $253 per ton of DM.

 Standing Crops and Crop Residues What is a standing crop worth?  A livestock producer would need to pay at least the value per acre to the crop farmer.  If it is a harvestable as corn, beans, etc. then, to the owner, it is the net income from harvesting and selling the crop (plus any insurance payments).  If the crop material is residue or an abandoned crop not worth harvesting, then, to the owner the only value is any cover crop or fertilizer value.  Crop residues are likely to have a lower feed value than a crop with some crop remaining (ears of corn or beans in the pod).  The maximum value of any crop material to the livestock owner is the cost of next best alternative feed, net of handling costs.  If the value of the crop to the crop farmer is less than the cost of the livestock producer’s next best alternative then there is room for negotiating a price acceptable to both. Hay Making Cost The NCSU Hay Making Budgets estimate the cost of small square bales at $76 per ton of dry matter, or $65/ton hay as made.  The estimated cost of large round bales is $64 per ton of dry matter or $54/ton hay as made.  The spreadsheet versions of the budget allow the user to modify these costs to suit their circumstances, including baling other materials like corn stalks.  The budgets only include the actual hay making operation.  Add the cost of the hay crop or the crop residue to get the total cost of the baled crop at harvest.  When planning, consider the risk of rain damage and field losses on cost. The NCSU Hay Making Budgets estimate full economic costs, not financial costs.  Costs include:

·        Operating costs of inputs -- fuel, fertilizer, chemicals, labor, seed, interest

·        Fixed costs  -- depreciation, interest, taxes, and insurance on machinery and buildings investments

·        Opportunity costs of family labor & equity at prevailing wage and interest rates.

These costs include moving bales off the field to nearby storage but not the cost of stacking, covering, etc. or feeding out. Yield estimates are included to derive costs per ton of dry matter.  A breakdown of the baling costs are shown in Table 1. Table 1.  NCSU hay making budget costs per ton of dry matter ItemLarge RoundSmall Square Operating cost $23   $27 Fixed cost $22   $26 Labor $19  $23 Total cost/ton DM $64   $76 Cost per ton as fed, hay at 85% dry matter $54   $65 Other forage enterprise budgets are available and may include harvesting cost. NCSU budgets do NOT include the cost of storage losses or feeding out the forage to animals, farm overhead cost or land charges. Forage Feeding Out Costs Feeding out costs should be considered when estimating total feed costs because these can be significant, particularly if a livestock owner places a value on his or her time or employees must be paid.  An example of the estimated cost using a 2006 model year 75 horse power tractor and bale spear for feeding includes annual ownership costs of $6.08 per hour and operating expenses of $10.50 for a total cost of $16.58 per hour.  Add labor at a cost of, say, $9.00 per hour and the total cost is $25.58 per hour.  If you use the tractor for 30 minutes to put out hay the feeding out cost is approximately $13. Table 2 summarizes the total cost of harvesting and feeding corn stalks on an as fed and a dry matter basis under three assumptions about the cost of acquiring the corn stalks.  Clearly, the cost is substantial and it would be prudent to consider alternatives, including grazing the corn stalks, fall stockpiling and winter grazing. Grazing Management Cost

Grazing is an alternative to mechanical harvesting and feeding a forage crop or crop residue if fencing and water are in place.  Managing cattle on grazing incurs cost too, however, in the form of time and equipment to move livestock.  For example, the estimated cost of owning and operating a ¾ ton pickup truck is $15.76 per hour and adding labor at $9.00 brings the total cost to $24.76.  If moving cattle takes 30 minutes, the cost is approximately $12 per move.

Table 2.  Cost of buying, baling and feeding corn stalks.

Item

Corn Stalks

Corn Stalks

Corn Stalks

Cost of crop residue

$0

$15

$30

Hay making cost

$54

$54

$54

Feeding out cost

$39

$39

$39

Storage & feeding loss

15%

15%

15%

Total cost as fed

$109

$127

$145

Total cost as DM,

at 80% DM as fed

$136

$158

$181

  Fall and Winter Grazing Other fall and winter forage options, weather permitting, include stockpiled fescue, a fall hay cutting and winter annuals such as rye and/or ryegrass.  Fertilizer is the only cost of producing grass from a perennial pasture like fescue.  If the fall growth is stockpiled and grazed there will be the added cost of managing the grazing.  If a fall cutting of hay is made there will be the added cost of making the hay and feeding it out.  Growing a winter annual will incur the cost of growing the crop and managing it for grazing.

Table 3 shows the estimated production cost for the three types of forage. Grazing management and feeding out costs are not included but are discussed below.  Stockpiling and winter grazing are both considerably cheaper to produce than the alternatives discussed previously but are weather dependent and may not be feasible for other reasons.

Table 3. Fall and winter forage production costs, per acre and per ton of dry matter.

Item

Stockpile

Fall hay

Winter

Annual

Operating cost

$35

$58

$127

Fixed cost

--

$22

$11

Labor

--

$19

$11

Total cost

$35

$99

$149

Production, tons of dry matter per acre

1

1

2.5

Cost per ton of dry matter produced

$35

$99

$60

   Total Ration Costs

The key question is what does the total daily feed ration cost?  Yields and quality are different for different forages so it is necessary to figure the nutritional needs of the animal to achieve desired level of animal performances and then figure the total ration cost, including supplementary feeds, minerals, etc.  In the previous example of 50 cows  needing 25 lb of dry matter a day for a 200-day feeding period required 125 tons of dry matter.  Table 4 shows cost estimates comparing  three alternatives based on:

·        Corn stalks at an initial cost of $15 per ton of dry matter, baled by the cattle producer and fed along with some supplementary feed like corn gluten feed,

·        Bought hay at $150 per ton that requires no supplement

·        A combination of one-third stockpiled fescue and two-thirds winter annual, grazed, with cattle moved twice a week.

 Table 4. An example comparison of the cost of alternative feeds Item Corn Stalks Bought hay Stockpile + annuals Forage cost$15,800$31,625$8,613Feeding out2,0802,600684Supplementary feed cost 3,50000Feeding supplement1,30000Total cost22,68034,2259,297Cost per cow454685186Cost per day 11317146Cost per cow per day2.273.420.93 Animal Performance

One final consideration is that animal performance affects production & income, for example, daily gain, milk production, body condition.  If animal performance is expected to be different on different rations, figure the differences in both income and cost, e.g., as income over feed cost.  In this situation, choose using a partial budget to determine the most profitable (smallest loss).  The change in profit is the sum of differences ( + or – ) in forage costs (operating & fixed costs), other feed costs, and income.  For cow-calf operations, look at whole-farm, year-round effects.

Reducing Livestock Numbers

 

As the feed examples show, coping with drought through feed procurement is an expensive proposition, so it is necessary to consider changes in livestock numbers in addition to, or instead of, this approach.  Reducing numbers economizes on available feed resources.  Options include removing some or all animals by selling or relocating them.  Selling animals might include market livestock, replacements, selected breeding stock, or the whole herd.  Relocating animals might be possible through contract grazing, contract raising or retained ownership.  The economic consequences of some of these options are evaluated below.

 Hold ‘em or Fold ‘em? Selling feeder calves earlier than normal reduces the pressure on feed supplies but may also reduce net income.  Projecting the net profit from keeping feeder cattle depends on estimated weight gain, changes in cattle prices and added feed costs.  For example, if you have 550 lb. steer calves and the current price is $1.15 per lb, an animal is worth $633 per head today.  If you keep this animal for two months and it gains 75 lb you now have a 625 lb animal.  Heavier animals sell at a lower price per pound.  Cattle prices usually (but not always) fall from early August until late October or early November.  There may be a general shift in cattle prices, up or down, that offsets or adds to this seasonal decline.  Current (August 23rd, 2007) futures prices for feeder cattle suggest prices will weaken.  Other factors that can change the cattle outlook include unexpected changes in significant supply and demand factors, such as weather, forage supplies and quality, crop and feed prices, cattle supplies, and government policy changes.  All of these affect prices and are a source of the volatility that cattle producer have always had to cope with.  If you expect 625 lb cattle prices to be, say, $1.08 per lb then this animal is worth $675 per head and you have added $42 in value.  The key question is whether you can make money from this projected gain under the current feed situation. A second option is to sell your replacement heifer calves.  The cost of raising replacement heifers is greater than many people think.  Even in normal times it may be more economical to buy rather than raise heifers.  Table 5 shows examples of heifer raising costs based on university enterprise budgets. Table 5.  Heifer replacement costs. ItemBeefMO, 2005BeefKS, 2006DairyNC, 2005 Start Weight540 lb550 lb90 lbValue of calf$599$681$200Operating cost$438$538$995Fixed cost$28$44$184Labor$50$54$224Total Cost$1,087$1,317$1,580

A third option is to reduce cow numbers.  The goal is to preserve the most productive animals as the basis for rebuilding.  However, this approach reduces revenue because there are fewer calves in the next calf crop.  It reduces some out-of-pocket costs but not all and it does not reduce fixed costs (asset ownership costs) or overhead costs.  It also reduces labor requirements, either the time spent by family members or wages paid.  Overall, net income likely will be reduced

 Table 6 is an example based on the NCSU beef-cow enterprise budget developed in 2006.  This budget is for a 50-cow herd.  Costs and returns were re-estimated for a 30 cow herd on the same land base, assuming feed is available to support this number of animals.  Operating expenses and revenue were reduced in proportion.  Fixed costs, by definition, are unchanged and labor requirement is reduce by 10 percent.  Feed prices were NOT adjusted from 2006 levels.   Profit, as measured by returns to land, management and farm overhead, is negative in both cases but the 30 cow herd situation has a $3,311 greater loss.  This change, $3,311, represents the “cost” of this strategy.  If the alternative is to buy, bale and feed corn stalks for the 20 cows then, based on Table 4, the cost would be $9,080.

Table 6.  Cow-calf costs and returns at two herd sizes.

Item

50 cows

30 cows

Revenue

$26,961

$16,177

Operating cost

$26,277

$18,961

Fixed cost

$9,222

$9,222

Labor cost

$2,250

$2,093

Total cost

$37,749

$30,275

Net Returns to land, management and overhead

-$10,788

-$14,099

  Selling the Herd and Ceasing Production

Cow-calf profit margins are slim on the average and are non-existent for some producers.  Table 7 shows actual financial results for a group of Minnesota cow-calf producers in 2005.  Comparable information is not available for North Carolina producers but there is little reason to expect the situation here to be much different.  This suggests that producers should assess the past and expected future profitability of their cattle operation as part of their drought management planning.  For some, selling the entire herd may be the most appropriate option.

Factors to consider include:

·        Past financial performance,

·        The estimated cost of coping with the drought,

·        Expectations of future cattle prices, cost of production and profitability.  In particular, it is likely that energy, fertilizer, and feed costs will cost more than historically.

·        Age, health and family circumstances.

·        Options for the farm if the livestock are sold and the financial implications of these.

Table 7.  Financial performance for cow-calf operations, Minnesota, 2005

 ItemLow

Profit

Average

High

Profit

Revenue

$463

$613

$742

Operating cost

$415

$371

$340

Fixed & O/H cost

$130

$81

$60

Total cost

$545

$452

$399

Labor & Management charge

$80

$72

$73

Net Return

-$161

$89

$271

  Selling the Herd and Restocking Later

How much would it cost to sell now and repopulate the herd next year?  50 cows sold now and bought back at, say, a $300 per head difference = $15,000 added cost.  Add to this any loss of income from calf sales, net of reduced feed and other cost savings.  Only the most profitable herds facing extremely high feed costs are likely to benefit from this option.

 Other issues

Other issues to consider include financing the cost of providing feed and income tax management.

Loans must be repaid.  Disaster assistance loans typically offer lower interest rates but these are still loans to be repaid.  Develop financial projections to ensure the cattle operation is financially viable and capable of repaying these loans from future profits and cash flow.

The IRS has two special rules covering unusually large sales of livestock caused by drought (or other weather disasters) that might provide some tax benefits.  These are described in a separate article by NCSU’s Guido van der Hoeven.

  Concluding Comments Coping with the effects of the drought are a balancing act involving feed options, livestock options and economics.  The discussion in this article tries to show how the economics fits into the farming decisions.  The examples are intended to show the process of evaluating the financial impacts of various alternatives and are NOT intended to represent recommendations or “the answer.” Spreadsheet versions of the NCSU beef and forage budgets are one tool producers and their advisors can use to “run the numbers.”  Enterprise budgets are guidelines only and farm situations vary widely.  They can be used as a template to figure cost of production.  For planning purposes, published budgets should be used as a guide and always modified with farm specific information.  NCSU beef budgets include cow-calf, backgrounding, summer grazing, pasture finishing, conventional finishing, and pre-conditioning.  Forage budgets include perennial and annual grasses, hay making, and silages.  There are nine dairy heifer budgets.  These are available as print and spreadsheet versions on line at:http://www.ag-econ.ncsu.edu/ extension/Ag_budgets.html In summary, cattle must be properly fed to achieve short- and long-term production goals. Land, labor and management resources vary from farm to farm, so there is no one-size-fits-all strategy. Develop a feed budget to figure animals’ feed needs in terms of dry matter and nutrients. Producers should consider all options, including:

·        Buying or procuring quantities of feed with adequate fiber, energy, protein and minerals. Evaluate the feasibility and profitability of alternatives including buying and harvesting standing crops or crop residues, growing fall pasture and winter annuals, and buying forages, by-products, or other feeds,

·        Reducing animal numbers, including selling the whole herd,

·        A combination of strategies.

 Evaluate the economic consequences of these options.  Measure forage costs at the animal’s mouth, including production, storage, harvesting and feeding costs and losses.

Estimate impact on total feed cost, including supplements.  Include any effects on animal performance and income using partial budgeting.  Similarly, evaluate the financial effects of reducing animal numbers.  The financial impacts of different options can differ widely – pencil it out!  There is a lot of money at stake here and taking short cuts on decision making could prove very costly.  This is work but remember “If it’s easy, fun or can be done from the seat of a tractor, there ain’t no money in it” (a quote from an anonymous cowboy).

Geoff Benson, PhD, Dept of Agricultural and Resource Economics, North Carolina State University

12.05.2021

A sustainable approach to integrated pest management

There is more scrutiny today than ever before regarding conventional herbicides, fungicides and insecticides, and regulations are tightening. “Complete replacement of synthetic chemistries is impractical,” said Nicholas Body, Alltech Crop Science (ACS) European technical manager. “The future of integrated pest management (IPM) programmes will include the best tactics from a variety of approaches, including nutritional and natural technologies, allowing the producers to reduce inputs while maintaining crop quality and improving sustainability measures.“ With today’s global trend among retailers to be very strict on chemical residues, building the best programme, including all type of technologies, is mandatory. “The use of predictive tools, such as disease models, and preventative, such as elicitors of natural defences, allows us to increase the quality of harvest with only a minimal use of conventional pesticides,” said Body. A balanced nutritional programme is a vital component of an effective IPM programme. “An unhealthy plant, from a nutritional standpoint, is not able to defend itself against a potential pathogen attack,” said Body. Healthy plants have a better chance of resisting disease pressures, and bioavailable micronutrients can support plants’ inherent defences. “If you trick a plant into thinking it’s going to be attacked, then the plant can develop its own metabolic pathways to fight the disease,” Body explained. However, plants are not naturally proactive. “They are reactive organisms,” continued Nicolas Body. “Something must trigger a reaction in a plant to be defensive, unlike an immune system that can react on its own. By using biologicals, such as nutritionals and activators, we can elicit a response in the plant.” Efficient crop management is moving towards a more proactive management of inputs. “We’ve been taught to scout fields, find what’s wrong and then fix it,” said Nicolas Body. “We’re moving to a new perspective where we can act on plant and soil health instead of acting on disease.” Better nutrient management, especially nitrogen, is a key component of this movement and is crucial to sustainability. The focus is to reduce the amount of fertiliser applied to fields and hopefully improve the environment by minimising the application of excess nitrogen. Many European farmers are faced with soils that have been depleted after many years in production. These cannot always provide a perfect balance between exported nutrients and the input fertilisation. With a loss in organic matter and beneficial microbes, the soil is also losing its capacity to act as a buffer. Fortunately, conservative and regenerative approaches to soil management are on the rise, and most farmers are implementing these techniques. Body agrees that a total-system approach will serve crop farmers best in the future. “We continue to research how and when to use biologicals — whether it’s natural activators, foliar micronutrients, natural inoculants or biofungicides — with conventional methods in cropping systems to help producers with environmental stewardship,” he explained. “As any market progresses, we see increasing management of smaller and smaller pieces of the total system.” Source - https://www.freshplaza.com

25.01.2021

Kenya - Insurtech startup raises $6M Series A to derisk smallholder farmers

Pula, a Kenyan insurtech startup that specialises in digital and agricultural insurance to derisk millions of smallholder farmers across Africa, has closed a Series A investment of $6 million. The round was led by Pan-African early-stage venture capital firm,  TLcom Capital, with participation from nonprofit Women’s World Banking. The raise comes after Pula closed $1 million in seed investment from Rocher Participations with support from Accion Venture Lab, Omidyar Network and several angel investors in 2018. Founded by Rose Goslinga and Thomas Njeru in 2015, Pula delivers agricultural insurance and digital products to help smallholder farmers navigate climate risks, improve their farming practices and bolster their incomes over time. Agriculture insurance has traditionally relied on farm business. In the U.S. or Europe with typically large farms, an average insurance premium is $1,000. But in Africa, where smallholding or small-scale farms are the norms, the number stands at an average of $4. It is particularly telling that the value of agricultural insurance premiums in Africa represents less than 1 percent of the world’s total when the continent has 17 percent of the world’s arable land. This disparity stems from the fact that the traditional method of calculating insurance through farm visits is often unaffordable for these smallholder farmers. Thus, they are often neglected from financial protection against climate risks like flood, drought, pestilence and hail. Pula is solving this problem by using technology and data. Through its Area Yield Index Insurance product, the insurtech startup leverages machine learning, crop cuts experiments and data points relating to weather patterns and farmer losses, to build products that cater to various risks. But getting farmers on board has never been easy, Goslinga told TechCrunch. According to her, Pula has understood not to sell insurance directly to small-scale farmers, because they can suffer from optimism bias. “Some think a climate disaster wouldn’t hit their farms for a particular season; hence, they don’t ask for insurance initially. But if they witness any of these climate risks during the season, they would want to get insurance, which is counterproductive to Pula,” said the founder in a phone call. So the startup instead partners with banks. Banks provide loans to farmers and make it compulsory for them to have insurance. With the loan, banks can pay the insurance on behalf of the farmers at the start of the season. But at the end of the season, the farmer has to repay the loan with interest. “The unit economics doesn’t work for us to work with farmers directly. But with banks, we know they provide loans to farmers with much better margins to pay for insurance. Also, we work together with government subsidy programs since they’re also interested in protecting their farmers.” Through its partnerships with banks, governments and agricultural input companies, Pula is at the center of an ecosystem that provides insurance to smallholder farmers and has amassed 50 insurance partners and six reinsurance partners. Its clientele includes the likes of the World Food Programme and Central Bank of Nigeria as well as the Zambian and Kenyan governments. Social enterprises like One Acre Fund, startups like Apollo Agriculture, and agribusiness giants like Flour Mills and Export Trading Group are also among Pula’s clients. Co-CEOs with agricultural backgrounds When Goslinga met Njeru in 2008, she worked for Syngenta Foundation for Sustainable Agriculture (SFSA). There, she started Kilimo Salama, as a micro-insurance program for more than 200,000 farmers in Kenya and Rwanda. She met Njeru who was the lead actuary at UAP Insurance, a partner to the Kilimo Salama program, at the time. After staying with Syngenta for six years and recognising the need to provide standard insurance products for smallholder farmers, Goslinga left to start Pula with Njeru in 2015. However, it wasn’t until two years later that Njeru joined fulltime as he had a six-year engagement with Deloitte South Africa from 2012 as a consultant actuary. The pair both act as co-CEOs. “When Thomas and I launched Pula in 2015, we had one goal in mind: to build and deliver scalable insurance solutions for Africa’s 700 million smallholder farmers,” Goslinga said. “With our latest funding, now is the time to break into new ground. In our five years since launching, we’ve built strong traction for our products. However, the fact remains that across Africa and other emerging markets, there are still millions of smallholder farmers with risks to their livelihoods that have not been covered.” According to Goslinga, the COVID-19 pandemic helped Pula double its footprint and size as rural farming activities and operations continued despite pandemic-induced lockdowns. Therefore, the new financing will scale up operations in its existing 13 markets across Africa, where it has insured over 4.3 million farmers. They include Senegal, Ghana, Mali, Nigeria, Ethiopia, Madagascar, Tanzania, Kenya, Rwanda, Uganda, Zambia, Malawi and Mozambique. Likewise, the Kenyan startup hopes to propel its expansion for smallholder farmers in Asia and Latin America. Pula is one of the few African startups disrupting the farming industry with technology. Its Series A investment attests that investors’ appetite for agritech startups is still on the rise. A week ago, Aerobotics, a South African startup that uses artificial intelligence to help farmers protect their trees and fruits from risks, raised a Series B round of $17 million. Last month, SunCulture, a Kenyan startup that provides solar power systems, water pumps and irrigation systems for small-scale farmers, raised $14 million. Another startup is Apollo Agriculture which raised $6 million Series A, akin to Pula. Not only did the pair raise the same round, Apollo Agriculture and Pula both deal with providing financial resources to smallholder farmers. But while both companies might look like competitors, even to the admission of Goslinga, she argues that the startups are partners and complement each other. As part of the new fundraise, TLcom’s senior partner Omobola Johnson will join Pula’s board. However, it was her colleague, Maurizio Caio, the firm’s managing partner, who had something to say about the round. “The potential for the insurance market for smallholder farmers in Africa is huge, and under the leadership of Rose and Thomas, Pula has rapidly established a strong presence throughout the continent and has several high-profile clients on their books. We are confident of Pula’s potential for growth in spite of the pandemic and look forward to partnering with them as they execute the next phase of their journey,” he said in a statement. For the lead investor, Pula’s investment marks the culmination of its busiest run of investments having led and co-led rounds in Okra, Shara, Autochek and Ilara Health within the past year. Christina Juhasz, CIO at Women’s World Banking, the other investor in the round, explained that the organisation cut a check for Pula “given the legions of women engaged in small-hold farming and securing the food supply for communities around the globe.” Source - https://techcrunch.com

22.01.2021

Africa - Advances in modeling and sensors can help farmers and insurers manage risk

When drought caused devastating crop losses in Malawi in 2015-2016, farmers in the southeastern African nation did not initially fear for the worst: the government had purchased insurance for such a calamity. But millions of farmers remained unpaid for months because the insurer's model failed to detect the extent of the losses, and a subsequent model audit moved slowly. Quicker payments would have greatly reduced the shockwaves that rippled across the landlocked country. While the insurers fixed the issues resulting in that error, the incident remains a cautionary tale about the potential failures of agricultural index insurance, which seeks to help protect the livelihoods of millions of smallholder farmers across the globe. Recent advances in crop modeling and remote sensing—especially in the availability and use of high-resolution imagery from satellites that can pinpoint individual fields—is one tool insurers that can help improve the quality of index insurance for farmers, report a team of economists and earth system scientists this week in Nature Reviews Earth & Environment. "The enthusiasm for agricultural insurance needs to be matched with an equally well-founded concern for making sure that novel insurance products perform and help, not hurt, farmers exposed to severe risk," said Elinor Benami, the lead social scientist of the review. The review was co-led by Benami, an assistant professor in Agricultural and Applied Economics from Virginia Tech, and Zhenong Jin, an assistant professor of Digital Agriculture at the University of Minnesota, and included Aniruddha Ghosh from the Alliance of Bioversity International and CIAT. The authors outline opportunities for enhancing the quality of index insurance programs to increase the value that index insurance programs offer to agricultural households and communities. "Improvements in earth observation are enabling new approaches to assess agricultural losses, such as those resulting from adverse weather," said Zhenong. Index insurance in agriculture triggers payments when certain environmental conditions—seasonal rainfall, for example—stray from thresholds for a typical harvest. Unlike policies that require costly and time-consuming field visits to assess claims, index insurance uses an indicator of losses to cover a group of farmers within a given geographical area. This approach offers the promise of inexpensive, quick coverage to many people who would otherwise be uninsured. Lack of other types of coverage is due, in part, to the cost involved in verifying small claims on the ground. As the Malawi case shows, verification is also an issue for index insurance but its potential for scale, speed, and low cost render it viable for both insurers and desirable for farmers. When well matched to local experiences, index insurance can have meaningful impacts on agricultural livelihoods. One study cited by the authors found that people insured under a Kenyan index insurance program reduced their "painful coping strategies" by 40-80% when compared to uninsured households. In non-technical terms, "painful coping strategies" for smallholder households include skipping meals, removing children from school, and selling off what little productive assets they have. "Shocks that destroy incomes and assets have been shown to have irreversible consequences," said Michael Carter, a co-author of the review and an agricultural economist at the University of California, Davis. "Families never recover from the losses and become trapped in poverty. By restoring assets and income destroyed by shocks, insurance can halt this downward spiral before it starts. This can fundamentally alter the dynamics of poverty." Insurance has been shown to push the poverty needle in the other direction. By protecting assets after bad seasons, insurance payments also build the confidence farmers have to invest in their farms and progress toward better wellbeing, secure in the knowledge they will not need to pursue painful coping if bad times fall. Despite a few decades of experimentation with the idea of index insurance, however, serious quality issues have plagued implementation on the ground and place the otherwise promising concept of index insurance itself at risk. "With the technology of remote sensing changing rapidly, we wrote this review to call attention to the quality problem and to highlight ways to harness those technological advances to solve that problem. Our immodest hope is that this article will make more, high-quality insurance products available to small-scale farmers across the globe," said Carter. Better models, coverage Governments and insurers in sub-Saharan Africa have enrolled millions of farmers in index insurance programs. Programs have met with varying degrees of success and generally focus on livestock, in part because weather-related losses on rangelands are relatively easier to quantify. The authors say enhanced satellite imaging can potentially increase coverage and include more cropland. But improving the effectiveness of insurance is a bigger goal. "We're trying to encourage the insurance community to move towards not just how many people you have enrolled but how many people you protected well when they suffered," said Benami. To that end, the researchers discuss a minimum quality standard in their review, which is akin to a medical doctor's oath to patients: A minimum quality standard is based on the premise of doing no harm to farmers. Poor insurance coverage can make farmers worse off than they otherwise would have been without insurance. "The criteria that insurance regulators have told us that they want is good value for money—meaning that farmers get effective risk reduction and asset protection for the premia that are paid," said Benami. "As we understand it, insurers are looking for ways to reduce cost and encourage uptake while meeting regulatory requirements for their roll-out." To improve the quality, reliability, affordability and accessibility of index insurance, the authors make five concrete recommendations in their study. First, the full potential of higher-resolution spatial data and new data products on environmental conditions should be explored. Many possibilities exist to wring more value from satellite data for index insurance—such as pairing data from multiple sensors and or with crop models—and examining those possibilities is a promising opportunity to improve the match between observation and experience on the ground. Second, several opportunities exist to help improve loss detection. For example, this can be done with better crop modeling and new data products enabled by remote sensing, such as higher resolution soil moisture indicators of 100-meter resolution. Additional data sources such as drones and smartphones can be incorporated. Insurers should focus on metrics of farmer welfare as the key objective in insurance design. Third, better on-the-ground data will help bolster the usefulness and quality of insurance programs. Ground-referenced data is essential to evaluate how well a given index relates to a farmer's reality, and strategically collected data on environmental conditions, crop types, and yields for the areas considered by insurance would help diagnose and improve insurance quality. Fourth, insurance zones can be optimized to better reflect the geographic, microclimatic, and crop-management conditions that influence the productivity of specific landscapes. Within large administrative boundaries, considerable variation can occur due to mountains, rivers and different social customs. Finally, contracts can be designed to accommodate a variety of needs and the inevitability of index failure. Farmers have different needs and a rigid insurance contract window may not always reflect the times of the year a farmer is most concerned about risk as it relates to their production strategies and location. In addition, secondary mechanisms—liked audits—can be put into place to minimize uncompensated losses that can be missed by index errors. In implementing these recommendations, the Alliance's Ani Ghosh notes the importance of interdisciplinary, researcher-practitioner collaborations. For example, "the advances in economic, remote sensing, and crop modeling led by academic institutions complement CGIAR's experience in targeting, prioritizing, and scaling out interventions for smallholder farmers that can maximize the impact of index insurance programs," Ghosh said. "Overall, evaluating and designing programs to successfully manage risk is a problem with both technical and social dimensions," the authors conclude. "Although index insurance instruments will not solve all agricultural risk-related problems, they offer a useful form of protection against severe, community-wide shocks when done well." Source - https://phys.org

08.01.2021

Understanding disease-induced microbial shifts may reveal new crop management strategies

While humanity is facing the COVID-19 pandemic, the citrus industry is trying to manage its own devastating disease, Huanglongbing (HLB), also known as citrus greening disease. HLB is the most destructive citrus disease in the world. In the past decade, the disease has annihilated the Florida citrus industry, reducing orange production for juice and other products by 72%. Candidatus Liberibacter asiaticus (CLas) is the microbe associated with the disease. It resides in the phloem of the tree and, like many plant pathogens, is transmitted by insects during feeding events. Disease progression can be slow but catastrophic. Symptoms begin with blotchy leaves, yellow shoots, and stunting, and progress into yield decline, poor quality fruit, and eventually death. Currently, the only thing citrus growers can do to protect their crops from HLB is control the insect vector. Dozens of researchers are trying to find ways to manage the disease, using strategies ranging from pesticides to antibiotics to CLas-sniffing dogs. Understanding the plant microbiome, an exciting new frontier in plant disease management, is another strategy. Dr. Caroline Roper and first author Dr. Nichole Ginnan at the University of California, Riverside led a large research collaboration that sought to explore the microbiome's role in HLB disease progression. Their recent article in Phytobiomes Journal, "Disease-Induced Microbial Shifts in Citrus Indicate Microbiome-Derived Responses to Huanglongbing," moves beyond the single-snapshot view of the microbial landscape typical of microbiome research. Their holistic approach to studying plant-microbe interactions captured several snapshots across three years and three distinct tissue types (roots, stems, and leaves). What is so interesting about this research is the use of amplicon (16S and ITS) sequencing to capture the highly intricate and dynamic role of the microbiome (both bacterial and fungal) as it changes over the course of HLB disease progression. Ginnan et al. surmised that HLB created a diseased-induced shift of the tree's microbiome. Specifically, the researchers showed that as the disease progresses, the microbial diversity increases. They further investigated this trend to find that the increase in diversity was associated with an increase in putative pathogenic (disease-causing) and saprophytic (dead tissue-feeding) microbes. They observed a significant drop in beneficial microbes in the early phases of the disease. Arbuscular mycorrhizal fungi (AMF) were one such beneficial group that the authors highlighted as showing a drastic decline in relative abundance. The depletion of key microbial species during disease might be opening the door for other microbes to invade. Certain resources may become more or less available, allowing different microbes to prosper. Dr. Roper and Dr. Ginnan hypothesize that when HLB begins, this depletion event triggers a surge of beneficial microbes to come to the aid of the citrus tree. They suspect that the microbes are initiating an immune response to protect the host. As the disease proliferates, the citrus tree and its microbiome continue to change. Dr. Ginnan, the lead author on this study, found that there was an enrichment of parasitic and saprophytic microorganisms in severely diseased roots. The enrichment of these microbes may contribute to disease progression and root decline, one side effect of HLB. Survivor trees, or trees that did not progress into severe disease, had a unique microbial profile as well. These trees were enriched with putative symbiotic microbes like Lactobacillussp. and Aureobasidium sp. This discovery led the researchers to identify certain microbes that were associated with slower disease progression. Dr. Ginnan says their "aha" moment during the research was in the data analysis. "Originally we were looking for taxa that increased and decreased in relative abundance as disease rating increased," she said. "Our differential abundance analysis ended up revealing clear enrichment patterns replicated in multiple taxa." This is the moment they began to develop the individual patterns they were seeing into a broader disease model. This research is the foundation for future projects and collaborations that the authors are excited to continue to develop. They are motivated by the potential function of the microbiome to manage crop diseases. In the near future, they hope that these discoveries and an understanding of beneficial microbes can help establish a microbiome-mediated treatment plan to protect crops from diseases like HLB. In addition, the model they've developed can be applied to understanding diseases of other tree crop systems. Source - https://www.eurekalert.org

24.03.2020

Canada - Sask. anticipates spending less on business risk programs

The Saskatchewan budget scheduled for March 18 turned out to be a non-event as the Legislature shut down amid COVID-19 concerns. Earlier that day the government announced a spending plan of $14.15 billion, but couldn’t say how much the virus will cost the health system or how much revenue the province could expect to take in. Finance minister Donna Harpauer said the province has access to $1.3 billion in cash if needed. Premier Scott Moe said the government would provide the funding needed to fight the pandemic. Cabinet will require special warrants to get money out of the door. Of the total, the agriculture ministry will see spending drop by $22 million or almost six percent to nearly $369 million. The major decrease comes in business risk management spending, which is always based on federal forecasts. The estimates project $15.8 million less spending for AgriStability and $15.9 million less on crop insurance premiums. Agriculture Minister David Marit said the federal forecasts were done in December. “It is important to note that business risk management spending is government by federal-provincial agreements and the amount that we spend in any one year is impacted by commodity prices and program participation,” he said through an emailed statement. “We recognize that the markets are very volatile and those spending forecasts will be adjusted through the year.” One area that will see some additional spending is irrigation development. Marit said $5 million will be used to conduct additional analysis of the potential, including a study of the Westside Irrigation and Qu’Appelle South Irrigation projects. Part of that work will include land identification and soil suitability assessments. “It is too early to indicate the costs required to build irrigation infrastructure,” he said. Marit added that investment from the federal government and the private sector would be required to develop the infrastructure. Source - https://www.producer.com

23.10.2019

Managing frost damage on late-season corn for silage

Late corn plantings and cool autumn temperatures create a recipe for frost damage on corn grown for silage. The extent of the frost damage on the corn depends on the temperature, duration of the temperature, and corn growth stage at the time of the frost. Conditions for a frost Air temperatures below 32°F for four to five hours will result in frost damage to the stalk, leaf, and husk. Air temperatures that drop to 28°F for a few minutes and return to 32°F can result in similar injury. Air temperatures between 32°F and 40°F typically result in less frost damage. Frost at temperatures above 32°F usually occurs under conditions of clear skies, low humidity, and no wind. These conditions are ideal for rapid heat loss from the corn leaves. Under these conditions, temperature of the corn leaves can be less than the air temperature. Thin stands of corn and corn stands at the edges of fields are more likely to receive frost damage at temperatures above 32°F than thicker stands and the centers of fields. The uppermost leaves of the corn plant are most susceptible to frost damage at temperatures between 32°F and 40°F. Growth stage at time of frost Management of corn damaged by frost will depend on the stage of growth at the time of frost. Corn will ensile well at moisture levels less than 70% for upright silos and less than 75% moisture for horizontal silos. Corn harvested at 62% to 68% moisture (late-dent stage) is ideal for ensiling. Frost damage prior to the late-dent stage will result in corn that is too moist for silage harvest. Frost at these higher moistures will reduce yields and may reduce quality. Management of corn damaged by frost will depend on the stage of growth at the time of frost. (Photo: Courtesy of University Kentucky) Corn moisture content can be determined with a microwave or forage moisture tester. A simple field technique for determining corn moisture content is to squeeze a ball of chopped corn forage in your hand for 30 seconds. Release the ball of chopped forage and examine its shape. You can gain a rough estimate of moisture content based on the descriptions in Table 2. If you would prefer to not use the silage chopper to help determine whole plant moisture, then you can use a tobacco or corn knife to chop several corn plants. Be careful to chop up the corn plants into pieces that are similar in size to those cut by the silage chopper. Frost at Milk Stage When a frost occurs on corn at the milk stage, the moisture content of the plant is too high for proper ensiling. The leaves of the plant will dry very quickly, which causes the entire plant to appear to be drying more quickly. However, the entire plant will dry down similarly to corn that was not injured by frost. If the corn at milk stage is ensiled immediately after frost, then nutrients will leach away, the silage will be sour and wet, and livestock consumption will be low. Waiting to harvest frost-damaged corn at the milk stage will improve silage quality but will decrease dry matter yield. Up to 10% dry matter losses will occur the first 10 days after the frost, and up to 20% dry matter will be lost 40 days after the frost. In addition, mold may develop in the ears and cause further yield reductions. Because of these factors, a compromise between dry matter yield and ideal ensiling moisture must be made. In some cases, the corn will need to be harvested when it is too wet for silage. In these situations, chopped grain, hay, or straw can be added to the silage to decrease overall moisture. In general, 30 pounds of dry matter per ton of silage are required to reduce the moisture percentage by one point. For example, if the corn was at 78% moisture and the target moisture was 68%, then 300 pounds of dry matter would be required for each fresh ton of silage. One concern of frost occurring at the milk stage is high nitrate levels. High nitrate levels are toxic to cattle and will occur most frequently when the corn has been under drought stress prior to the frost. Ensiling will reduce nitrate levels 40% to 60%. To reduce the risk of nitrate toxicity, allow the ensiling process to occur for at least 21 days before feeding. See ID-86, Using Drought-Stressed Corn: Harvesting, Storage, Feeding, Pricing, and Marketing, for more information on nitrate levels in corn. Another option for corn with high moisture content is to feed the corn as green-chop. Cattle will consume less green-chop corn than ensiled corn. However, the quality of the frost-damaged, green-chopped corn is better than the quality of the ensiled corn at milk stage. If the corn is to be fed as green-chop, then check the corn for nitrate levels before feeding. A diagnostic test is available for determining nitrate levels, which is usually available through your county Extension office. Frost at Dough Stage If a frost occurs when the corn is at the dough stage, then whole corn is often too wet for silage harvest. Typically, several drying days are necessary before whole corn will be at the proper moisture for silage harvest. The corn should be harvested as soon as it reaches the desired moisture of 70% to 75%. The balance between waiting to harvest corn for silage at the ideal moisture and harvesting to prevent yield loss still must be considered. However, corn damaged by frost during the dough stage will require less time to dry down than corn damaged during the milk stage. If a frost occurs when corn is at the early dent stage, then whole corn may need to dry a couple days before it is ready to harvest. (Photo: Colleen Kottke/Wisconsin State Farmer) Frost at the Dent Stage If a frost occurs when corn is at the early dent stage, then whole corn may need to dry a couple days before it is ready to harvest. If a frost occurs when the corn is at the mid- to latedent stage, whole corn is at or very close to ideal moistures for ensiling. Corn damaged by frost at the mid- to late-dent stage should be harvested for silage immediately because whole plant moisture should be close to ideal for harvest and waiting to harvest could cause yield reductions. Summary Management of frost damage to corn grown for silage depends in part on the stage of growth when the frost occurred. Corn in the milk and dough stages is too wet for chopping and ensiling. The corn plants need to dry down before chopping occurs. Waiting to harvest frost-damaged corn will improve silage quality but will decrease dry matter yield. Producers must balance between expected yield losses and quality gains by waiting to harvest. Source - https://www.wisfarmer.com

17.10.2019

New Zealand - Fans get to work as spring frosts threaten precious grapes

Vineyard frost fans have been doing their bit to protect one of Marlborough's biggest money spinners after a few cold starts in October. The fans, which pull warm air down onto the vines, are used when grapes start to bud - as a spring frost can lead to crop loss. Blenheim experienced four frosts in the first week of October, while all of October 2018 had only two frosts. But Marlborough Plant and Food research scientist Rob Agnew suspected frost fans would have been used more out in the Wairau Valley because of its colder climate. Villa Maria viticulturist Stuart Dudley said because Marlborough was a cool climate viticulture region there were definitely areas that were exposed to spring and autumn frosts. "The fans work by effectively bringing down warmer air," Dudley said. "It's called an inversion layer, effectively it's the same principle that is used by helicopters to protect the crops, but wind machines are a lot more reliable. "For us, as viticulturists, the wind machines are great, because if you get a forecast saying it might get to zero [degrees Celsius] and then you would have to toss up whether to spend the money on helicopters or not, whereas if you've got a frost fan the decision is already made, you just have to flick it on." Most were automatic, with a start temperature just above zero, but some grapegrowers had started switching from two-bladed fans to four or five, which were quieter, Dudley said. A Neighbourly poll showed 50 per cent of respondents who lived next to a vineyard were used to the sound. However, 17.3 per cent of respondents said they struggled to sleep at night because of the sound. Hawkesbury resident Nigel Taylor said noise from frost fans was something "you get used to". "You hear the two-bladed ones more than those with four or five," Taylor said. "You can definitely hear them but they don't interrupt us, you learn to live with it. "They're temperature-controlled so you notice when they turn off too, it's not a major disruption." Jenny King said rural residents knew living next to a vineyard could come with some noisy nights. "It's a small price to pay," King said. "It doesn't make for a great mood the next day but it's one of those things." King said she tended to hear the helicopter from the cherry orchards in Springlands more. Marlborough resident Ben Wallace said the fans were "minimally disruptive". "The benefits of frost fans for the local economy far outweigh the noise you have to put up with," he said. Source - https://www.stuff.co.nz

05.09.2019

USA - Northern NY apple research tests hail netting as pest management[:ru]US

Real-time, regional, in-orchard research funded by the Northern New York Agricultural Development Program is helping apple growers quickly respond to pests with the latest management practices, the organization said. "Pest management is one of the largest investments fruit growers must make in terms of time, labor, and materials to produce marketable fruit and maintain healthy trees," says Michael Basedow, a tree fruit specialist with the Cornell Cooperative Extension Eastern NY Commercial Horticulture Program, Plattsburgh, N.Y. With a grant from the Northern New York Agricultural Development Program, Basedow provided weekly pest scouting data to help growers quickly respond to orchard pests with appropriate pest management tactics. He also initiated a project to evaluate whether exclusion netting used for protecting apple from hailstorm damage might also protect the fruit from orchard pests. A series of hailstorms in 2017 damaged the regional apple crop. One grower reported more than 60 percent of his acres suffered damage. Basedow says, "Growers selling hail-damaged fruit for juice that would otherwise have sold at retail prices can see as much as a 98 percent decrease in the economic value of their crop." Basedow worked with commercial growers in Clinton and Essex counties who had installed hail netting. Trials in France and Quebec, Canada, had shown success in limiting damage by codling moth and other orchard pests, but the use of drape-style netting had not been well-evaluated under northern NY orchard conditions. Employees at a Clinton County orchard install hail netting to a row of apple trees. Photo: A. Galimberti, CCE Clinton County, NY "We are constantly looking at ways to increase the use of integrated pest management practices that allow us to produce a commercially viable crop while also making the best use of growers' time, labor, and money. We wanted to see if the hail netting might be an effective practice to add to our apple growers' IPM toolbox," Basedow said. The research provided weekly trap data on four key apple pests in northern NY: codling moth, Oriental fruit moth, obliquebanded leafrooler, and apple maggot. "Results from the trial showed that traps in the trees under the netting caught significantly fewer of the four key pests compared to the unnetted trees, however," Basedow says, "the pest pressure levels in 2018 for three of the four key pests was such that the feasibility of using hail netting for pest exclusion is still uncertain. The netting may help reduce pest numbers enough to reduce the total number of orchard sprays needed for some pests, such as apple maggot, where spray decisions are based on well-established economic thresholds." Basedow adds that the sites with the most effective pest exclusion were those where the hail netting was tightly tied to the lower limbs and trunks of the apple trees. The orchard with the best control applied the netting to trees grown to a tall spindle training system with the netting secured tightly to the trunks. Source - https://www.freshplaza.com

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