Livestock and Aquaculture Insurance in Developing Countries, a Brief Overview

06.02.2007 724 views
R.A.J. Roberts, FAO, Rome, November 2005 The purpose of this publication is to meet the demand for a brief, accessible introduction to the role of insurance as a risk management mechanism in livestock and aquaculture enterprises. With the focus of the publication being on enterprises in developing countries, most attention is given to livestock (especially cattle, sheep, goats, poultry) kept for food and/or fibre, and transport/motive power, rather than bloodstock used for sporting and recreational purposes.

You can download the full version of the publication with tables and annexes - PDF file (530 kB)

Livestock farmers and fish farmers in developing countries face many uncertainties and risks in the pursuit of reproductive and growth operations. Diseases, adverse weather, theft, predation, fire and other perils can cause sickness, loss of stock or of performance, or death. Losses to farmers can be substantial.

The losses can similarly affect those entities in the economy, namely processors and marketers, who depend for their livelihoods on a supply of livestock, livestock products, fish and other products of aquaculture operations. The losses can also affect financiers and other investors who are dependent on the profitability of the farming operations with which they are associated.

Consumers too may well face increased costs as a result of losses to livestock and aquaculture enterprises, and can also be affected by an interruption to supplies of needed foodstuffs, especially if perils are such that sources of supply are cut for more than a short time, for example, through business failures among the producers.

Again, outbreaks of transboundary animal diseases (TADs) can result in serious losses to entire national economies. In recent years, outbreaks of diseases such as bovine spongiform encephalopathy (BSE) and foot and mouth disease (FMD) have been expensive for the countries affected. At the time of writing (November 2005), the effects of Avian ‘flu are beginning to be felt, with the destruction of poultry flocks in some regions of some countries being mandated as a necessary control measure.

The purpose of this publication is to meet the demand for a brief, accessible introduction to the role of insurance as a risk management mechanism in livestock and aquaculture enterprises. With the focus of the book being on enterprises in developing countries, most attention is given to livestock (especially cattle, sheep, goats, poultry) kept for food and/or fibre, and transport/motive power, rather than bloodstock used for sporting and recreational purposes.

This book does not purport to be a guide on to how to design an insurance product for these types of farming. Rather it aims at setting the scene, and exploring with the reader some of the complexities involved in this financial mechanism for risk sharing. In doing so, it starts by stressing the importance of risk management practices other than insurance. Before taking this broader perspective, it is worth stressing that insurance does not increase a farmer’s income; rather it helps manage risks to this income.

“Risk management practices” embrace a wide range of mechanisms, which are the foundation of sound farm management. These include policy issues e.g. site licensing, regulations relating to such matters as quarantine and compulsory veterinary procedures. They also include on-farm physical measures such as attention to structural maintenance of fences, cages, racks and housing, as well as daily monitoring for disease conditions, and both preventive and curative veterinary procedures.

Risk management can also involve financially-based mechanisms such as share-farming, farming partnerships and Islamic-type borrowing where the lender shares the potential profit and the potential loss. Another form of risk management is the forward sale of output and other types of contractual farming arrangements, especially where an element of risk-sharing is involved.

All of these will be briefly described in order to identify the potential role for insurance. This role, in brief, is confined to those situations where there is no other suitable risk management technique, or where insurance products can be designed to be advantageously cost-effective. The guide will then cover the more usual areas of insurance, such as: the roles of public and private sectors; the overall design of policies, including the basis for valuation; marketing policies; methods of collecting premiums and paying indemnities; loss adjustment; insurance product monitoring and modification.

It is worth noting that livestock, and especially aquaculture insurance, has received less attention than crop insurance in development efforts in the last few decades. This publication is intended as a contribution to redressing the current imbalance. It discusses the applicability of insurance to managing those risks which are beyond the immediate control of the farm manager, and which result in animal and fish mortality. The book is a companion volume to the 2005 FAO publication, Roberts, R.A.J. Insurance of Crops in Developing Countries. As with the companion volume, a newly revised glossary of terms commonly used in connection with the insurance of agriculture and aquaculture is included. Whereas the focus of the publication is on developing country situations and circumstances, developed country examples are often used to illustrate particular points.

The demand for livestock products in developing regions has risen greatly over the last two decades, a trend that is likely to continue, since this is a generally observed phenomenon, across virtually all nations and cultures, as incomes increase.

The combined value of livestock production and aquaculture, totalling nearly $1100 billion, is almost double that of crop production, at $550 billion per annum.

In volume terms, data indicate that the global production of meat in 2002 was 216m tonnes, with an annual growth rate of 1.8 percent (developed countries growth rate 0.6 percent; developing countries growth rate 2.8 percent). Milk production totalled 512m tonnes in 1993, and the corresponding figure for 2002 is estimated as being 600m tonnes, based on an annual growth rate in production, in developing countries, of 3.7 percent. Indeed, one developing country, India, is now the world’s biggest producer of milk.

Against this, the annual consumption of fish for the same year was 100m tonnes (excluding 33m tonnes for non-human food uses, e.g. as an ingredient in chicken feed). Within this total, the share of aquaculture had risen massively from 3.9 percent in 1970 to 29.9 percent in 2002.

The limitations on production from capture fisheries, due to over-fishing in many parts of the world’s lakes, rivers, seas and oceans, are well known. Coupled with this is the continued development of techniques to farm successfully more and more fish species. For these reasons, the share of aquaculture is expected to continue to rise.

An additional demand factor is that fish is an important dietary item in one major developing region (Asia) where incomes are rising very substantially. This will drive the global trend still further.

Associated with these production and consumption increases is a substantial demand and opportunity for investment capital. For example, FAO estimates that the investment associated with the huge expansion in global aquaculture production over the last 30 years is of the order of US$60 billion. While accepting that an estimate of this sort must be subject to a certain degree of error, the figure is sufficient to indicate the order of magnitude of the investment flowing into aqua-cultural production.

It will also be evident that massive production increases over a short period of time, in the case of aquaculture, may mean that the growth of knowledge and experience in the industry does not automatically keep up, with deficiencies in both the planning and the execution of projects. This adds a new and serious dimension to the issue of risk, and the need to manage this risk, as will be discussed below.

Insurance is just one item in the toolbox of risk management techniques to address the perils faced in these two industries. Although the range of perils faced by livestock and aquaculture enterprises is similar, it is rather different from the range faced by crop farmers. Because of the differences, insurance product design and insurance operations for livestock and aquaculture are similarly distinct from those applying to cropping enterprises.

The Discussion Focus

Risks facing livestock and aquaculture producers can be divided into market related risks, and non-market related risks. Since this publication has risk management through insurance as its focus, the insurable types of risks predominate in the discussion, and these are largely non-market related. However, the distinction is not complete, as some insurance products incorporate an element of coverage of price and/or revenue risk in the insurance product design.

The focus of the discussion will therefore be on identifying where and how insurance is worth consideration as a risk-management technique. Given this focus, the discussion of various perils and of risk management other than insurance is intended to be illustrative rather than comprehensive.

Market Related Risks

These risks relate directly to transactions in the economy. They include: availability of inputs, the prices of inputs, the price of farm products, the availability of markets for farm outputs, the gross margins of agricultural enterprises, and the revenue derived from farming operations. With regard to prices, it is particularly the short-term volatility in prices, for both inputs and outputs, which is of most concern to the average farmer, as he is rarely in a position to make quick changes to his farm enterprise mix or to his farming system.

Of significance to a discussion of risk with livestock and aquaculture is the possibility of market access for products being denied when there is evidence of a serious disease or contamination situation, leading to a health risk. This can apply both to domestic and to export markets. Clearly, for a correct application of marketing bans there has to be confidence that the information on which they are based is accurate, and that the conclusions drawn are not biased for reasons of personal gain or for the creation of a trade barrier for political reasons. International agreements are important here, with the specialist organization OIE (World Organization for Animal Health) responsible for maintaining a classification of those animal diseases that are notifiable by national authorities. The most serious category of these, Class A diseases, includes the major highly infectious diseases, such as FMD and BSE. Incidences of these diseases can lead to export bans between countries, and to bans on movements within countries. The reader will quickly appreciate that these measures imply both costs and loss of income.

Indeed, one of the major and long-lasting causes of loss following the outbreak of a serious livestock disease is the effect on exports. These may be blocked by importing countries, which are free of the disease in question, for what could become a lengthy period. In such a case, exports will only be possible to countries where the disease is endemic, and such exports are likely to realise a much lower price. Exports and movements of livestock and livestock products following disease outbreaks are not subject to arbitrary decisions but are prescribed by international agreements – to which authorities, financiers, insurers and those in the trade can refer for guidance.

Another type of price risk is that caused by over supply. Salmon harvest volumes from aquaculture farms have risen rapidly in recent years. This has led to what might be described as a slump in prices. For example, in early 1998 salmon prices in a major import market, Japan, were some 30 percent lower than the levels ruling just one year earlier.

Non-market Related Risks

These risks relate to a variety of events, some involving human intervention, directly or indirectly. The risks include: climate events, geological events, pollution, predation, theft, disease. A more detailed breakdown of these risks reveals the following individual, non-market perils for livestock and aquaculture farmers:

Group 1 Health factors

These risks are associated with diseases/epidemics4 (local, national, transboundary) with the risk of consequences including:

- Mortality,

- Diminished production through disease,

- Ban on sale of animals or animal products due to quarantine or health rulings,
- Government slaughter order,
- Increased on-farm costs occasioned by quarantine, curative or preventive measures.

Group 2 Climate and seismic events

■       Drought,

■       Flood,

■       Windstorm,

■       Freeze,

■       Lightning,

■       Earthquake,

■       Tsunami.

Group 3 Accidents

■       Fire,

■       Accident,

■       Poisoning,

■       Explosion.

Group 4 Infrastructure & environmental problems

■       Machinery/electrical breakdown and power outages,

■       Malicious damage, riot, strike,

■       Pollution of water supply or water environment,

Group 5 Management issues

- Infertility, loss of normal biological function,

- Cannibalism / overcrowding losses,

- Malnutrition due to unexpected feed deficiencies,

- Mysterious disappearance, rustling, theft, predation, escape.

Group 6 Consequential losses

■   Consequential loss and legal liability due to livestock losses and/or food safetyconsiderations.

A listing of risks for aquaculture farmers would include many of those listed above, to which can be added the following, which are clearly spread across the Groups classified above:

•      Predation by birds, seals, sharks

•      Presence in massive numbers of harmful organisms, e.g. jellyfish, algae (see below)

■       Water quality problems

■       oxygen depletion

■       pollution

■       algal toxins - from harmful algal blooms

•    Risks to structures (tanks, cages, sluices) from collision, seismic or storm events, e.g. tsunami)

All of the above apply principally to individual farmers. Some perils can also have significant consequences for national economies, for example, outbreaks of a contagious disease.

Indeed the risks associated with transboundary diseases have grown as human travel and trade (including livestock movements) across borders has increased rapidly in recent decades. This has placed considerable burdens, scientific, organizational and financial, on countries as they attempt to protect their national livestock and fish stocks against exotic disease threats.

MANAGEMENT OF RISKS

Policy-based risk management

Site licensing

Site licensing for certain types of production is required in certain jurisdictions. Often this is due to an attempt by the authorities to minimise pollution or nuisance to the general population – intensive livestock production is usually not wanted in or near to towns. However, there are also occasions when planning, subsequent zoning and site licensing has a risk management purpose. This applies especially to aquaculture, where the risk of storm damage is greater in exposed areas, while conversely the risk of losses from phenomena such algal blooms is greater in very sheltered areas, due to diminished natural water exchange.

Another source of loss in aquaculture is pollution of waters in which freshwater or marine farming takes place. Clearly, sites particularly at risk are those that are susceptible to outflow of sewage or industrial waste. This is all too common in many countries, due to excessive rain overloading storm water systems, leading in turn to contamination and outflow of the contaminated water to the sea and, sometimes, to aquaculture sites. Attention to appropriate design factors related to sewage and storm water infrastructure is clearly needed here, but given the fact that these sorts of improvements can take many years to effect, the onus to protect aquaculture enterprises falls on those selecting the sites for such enterprises. This means both fish farmers, and site licensing authorities.

A further cause of pollution and harm to farmed marine species is exposure to oil from accidental spills and from chemicals such as TBT (tributyl tin) and TPT (triphenyl tin). TBT has been commonly used as an antifouling surface treatment for the hulls of boats and ships. Although the use of TBT has been banned in some countries for certain types of craft for some years now, a global ban will only come into force in 2008 (and only then if the International Maritime Organization of the U.N. treaty on this is ratified by all countries). TPT, used in agriculture as a fungicide, has also been found in waters close to intensive agriculture. For example, in the Netherlands,

“Variations in OT (organo-tin) concentrations in zebra mussels were studied at two locations near potato crops that were sprayed with triphenyltin (TPT) in order to estimate the integration period over which body concentrations reflect the environmental quality…………. The TPT was found in very high concentrations in mussels near sources of this fungicide.” (Stab et al 1995).

With chemicals such as these two examples, the authorities have a dual responsibility. First to minimize their use; second, to permit aquaculture operations only on sites remote from those stretches of water where toxic substances are found in concentrations that are harmful to farmed marine species. The possibility of aquaculture losses from oil spills, from oil tanker collisions and groundings, focuses attention on the increased risk presented when aquaculture is permitted close to on-shore oil terminals and near shipping lanes.

Quarantine requirements

Quarantine requirements are an attempt to help manage the risk of the introduction of exotic diseases or organisms that may be detrimental to the health, and/or production of existing species, in a given country. Recent examples of incidents involving these diseases, now termed “transboundary diseases", include, in recent years, foot and mouth and BSE disease outbreaks in the U.K.

More than 100 years ago, the disease rinderpest, fatal to cattle, was thought to have spread from Egypt into Uganda, and from there into the rest of East and Southern Africa. The disease affects and is carried by wild game, especially antelopes. This is believed to have facilitated the rapid spread of the disease. Rinderpest still prompts quarantine efforts in some countries, and although Africa was thought to be free from it in the mid-1990s, a later outbreak indicated the difficulty of controlling this type of disease. This difficulty is almost certainly related to the fact that feral animals are very common in this continent (see next section).

As island nations, Australia and New Zealand are among the most effectively isolated countries in which agriculture is a major part of the economy. Yet even in these naturally protected islands, the border inspection personnel are a major force, and consequently bio security is an important cost item for the public sector.

Compulsory veterinary procedures

These also address livestock and fish health, but relate to disease conditions already present in the country, and for which veterinary control measures and practices are known and required by the authorities in the interest of the individual farmer, the national industry as a whole, and as a food safety measure.

While compulsory veterinary procedures can be enforced for domestic animals, widespread vaccination of wild animals is practically impossible, even though suitable vaccines are available. This seriously complicates the task of controlling transboundary animal diseases such as rinderpest, which (see above) affects wild game as well as cattle. This means that in the case of some livestock diseases, game animals can constitute both a reservoir of disease organisms, and a means for their spread. The implications for cattle farmers in regions such as Eastern and Southern Africa, where game is abundant, are obvious.

On-farm risk management

On-farm risk management is a major, ongoing task for both livestock and aquaculture producers. Most of the non-market perils allocated to Groups in Chapter 2 above are addressed in the first instance through on-farm procedures. Indeed, the risks associated with most perils of a certain magnitude are more readily managed by the farmer as part of his normal farming operations than by external interventions.

Each major group of similar perils is now discussed, with the intention of identifying the limits of on-farm risk management.

Group 1 Health factors

These risks are associated with diseases/epidemics (local, national, transboundary) with the risk of consequences including:

•      Mortality,

•      Diminished production through disease (morbidity),

•      Ban on sale of animals or animal products due to quarantine or health rulings,

•      Government slaughter order,

•      Increased on-farm costs occasioned by quarantine, curative or preventive measures.

Normal management of livestock and aquaculture farming involves close attention to health factors. These start with adherence to official recommendations for preventive veterinary procedures (e.g. inoculations, isolation and supplementary feed additives). Farmers’ actions range from the ongoing monitoring of the health of livestock, fish and shellfish, to attention to siting and structural issues of buildings, cages and tanks. Care taken in the siting and construction of livestock handling facilities, as in the siting of aquaculture ponds and cages, helps protect the structures and their living contents against damage from flood, windstorm, strong currents, land subsidence, pollution etc. It also assists in protection against the actions of human thieves and animal predators.

Apart from the monitoring of health, as already mentioned, management procedures directly geared to the livestock per se include attention to stocking rates in pastures, to the density of poultry, fish and crustaceans in housing, ponds, tanks, racks and cages, and to quality factors in the respective immediate environments.

Group 2 Climate and seismic events

In terms of its global impact, drought is probably the most serious peril faced by livestock producers. Impacting as it does on nutritional adequacy, it can also be associated with death or loss of production/performance from direct causes other than lack of precipitation. When animals weakened as a result of a drought, then face another environmental challenge, they may well be affected to a greater extent than would be the case in a normal year9. Normal farm management practices address drought by ensuring reserve food supplies (hay, silage etc.) are either stored ahead of time, or can be purchased and brought into the region. But this is often difficult in developing countries, due to the lack of financial resources, and difficulties over supply from areas accessible from an economic as well as from other points of view. Above all, drought may be systemic and impact an entire region.

Other climate perils, flood, windstorm, freeze and lightning, all call for basic on-farm management of risks (though protection of livestock from lightning in rangeland farming is not feasible). Beyond the basic and economically sensible precautions, including siting issues (where there is freedom of choice) losses with these perils may call for other approaches, e.g. financial arrangements. The same can be said for risks to aquaculture structures (tanks, cages, racks, sluices) from storm events. These are addressed firstly by appropriate design, construction and maintenance, then by other approaches, i.e. financial measures.

The same attitude can be taken with the management of the risk of earthquakes and tsunamis, with a financial approach likely to be the most feasible.

Group 3 Accidents

Clearly basic farm management practices will also address the risks in this category, which include: fire, accidental injury or death, poisoning and explosion. Beyond what can be addressed on the farm, financial risk management approaches could be considered, with insurance being an obvious contender for specific risks under certain circumstances.

Group 4 Infrastructure and environmental problems

Clearly, the extent to which on-farm management can address Group 4 risks depends on the degree of control the farmer has over the risk items. Machinery and electrical breakdown can be rendered less likely by appropriate maintenance, but cannot be prevented altogether. Power outages are beyond the farmer’s control, though increasingly farmers of particularly energy-dependent enterprises (e.g. fish hatcheries) are investing in standby generators. Indeed, some insurance policies make this a requirement for cover to be valid.

Malicious damage, riots and strikes are beyond a farmer’s control, with the resulting losses rather difficult to manage, especially as these risks are often excluded from standard insurance policies.

Pollution losses are a particularly potent risk for aquaculture farmers. Water quality is the issue here, including: oxygen depletion, pollution from chemical and biological sources, algal toxins produced during algal blooms. In each case, there is much that can be done on the farm to reduce the risk of loss from these causes, especially daily monitoring of fish health so as to have early warning of a new danger, so that measures can be taken, where it is possible to do so.

Sometimes a peril does not become evident until after structures have been installed and stocked. This is especially the case when a relatively new type of farming is introduced to a particular location. In the photo below (Lake Manajau, West Sumatra, Indonesia) the fish cages illustrated originally held tilapia and a species of carp. Observation of fish mortality and general health revealed that whereas the tilapia were thriving, carp were dying in large numbers, Chemical analysis of the water indicated that there was an underwater discharge of toxic gas (hydrogen sulphide), probably of volcanic origin, to which the carp were particularly susceptible.

This underlines two important factors relating to risk management in aquaculture:

The first of these factors is that commercially-oriented aquaculture is still a relatively new enterprise for many of the operators (and indeed countries) involved. This means that much is still to be learned as to the range of perils that face the industry (especially as new species are added to the list of those being farmed), and the means by which these perils may be addressed.

The second is that aquaculture takes place in an environment that in many respects is hidden. Not all countries have the facilities to inspect all sites thoroughly, and this applies especially to developing nations. For this reason, unexpected perils of an environmental nature, such as that in Lake Manajau, can provide an unwelcome surprise to investors and farmers. The example underlines the need for careful site examination at an early stage in any aquacultural production project.

Group 5 Management issues

By definition, these risks are controlled by management action. They include: infertility, loss of normal biological function, cannibalism and overcrowding / stress losses, together with most losses from theft, rustling, predation and escape. Dealing with these risks is another part of the responsibility of the farm manager.

Largely beyond on-farm control are losses from malnutrition due to unexpected feed deficiencies, problems due to contamination of feed and some losses due to rustling, theft, predation and escape (where management has taken all normal precautions, yet stock losses still occur. Mysterious disappearance is a term used in insurance when there is no obvious cause for the loss of animals or fish. More discussion on these types of losses will be given in the chapter on the use of insurance for risk management.

However, it is worth noting here that in Southern Africa losses of cattle due to theft were noted in a recent ICAR/FAO conference in Tunisia as the main reason for seeking secure identification systems.

Group 6 Consequential losses

More advanced and commercialized farms face significant claims if supply contracts are not met, or if the quality of products being supplied by livestock farmers does not meet standards of safety. These losses are again a matter for good management in the first instance, with financial mechanisms sometimes called upon as a safety net.

Financially-based risk management mechanisms

Introduction

Financially-based risk management mechanisms include: shared ownership, Islamic banking, marketing arrangements, insurance. These all involve mechanisms that permit some of the financial burden of losses in livestock and aquaculture operations to be shared with an entity or individual outside of the farm itself.

There is a gradation in the four examples discussed below, with an increasing direct connection between a loss of a given batch of livestock or aquatic organisms, and the sharing mechanism employed to assist in managing the risk.

A further important point is that the mechanisms briefly described are not mutually exclusive. On the contrary, there may be many situations and individual examples where some or even all of the mechanisms could operate together in harmony, providing mutual support.

Shared ownership/farming partnerships/production cooperatives

Here the risk sharing is obvious, since it is implicit in the ownership structure of the farm. Share or partnership arrangements are normally entered into as a means to raising a greater quantum of capital than would otherwise be the case. Incorporation as a company formalizes the share arrangement, though this is not as yet common in developing countries.

Production cooperatives are another form of shared ownership of production enterprises. Cooperatives have traditionally (and this is often formalised in cooperative legislation) held reserves, built up by setting aside, each year, a percentage of the operating surplus. Clearly financial reserves can form an important first layer of funding to assist in overcoming losses.

Yet another type of share farming involves a supplier of young stock (livestock or fish smolt) retaining ownership of the stock throughout the growing-on period. The farmer contracts to deliver the grown livestock or fish at a pre-determined weight to the owner. Clearly, the risk of mortality or loss of performance is shared in this type of arrangement

Share farming and partnership arrangements can mean more capital is invested in the enterprise than an individual might have at his or her disposal. From a risk management point of view, this can mean permitting access to technology that in itself may bring risk management benefits. For example, it might provide access to more water, for livestock and even for irrigation of fodder crops. For fish-cage farmers, access to more capital can mean the ability to install and anchor cages that can be more adequately protected against perils such as storms and predators.

Similarly, when losses occur despite measures such as these, they can be shared across the owners of the enterprise and/or the organisms being farmed, spreading the resulting financial burden.

Islamic banking

Islamic banking products, especially musharaka loans, or partnership financing, offer a potent method for farmers to share farming risks with their financiers. (Musharaka basically means ‘partnership’. “It involves you placing your capital with another person and both sharing the risk and reward. The difference between Musharaka arrangements and normal banking is that you can set any kind of profit sharing ratio, but losses must be proportionate to the amount invested.” (Ref. www.islamic-bank.com )

In essence, musharaka financing arrangements mean that any losses are borne in proportion to the investment of each partner/financier. This contrasts with normal bank lending where the risk falls primarily on the farmer/entrepreneur, with the bank calling on the borrower and/or the security pledged in order to recoup the investment in the loan.

The advantage to the borrower as regards risk management is that the lender is often in a more powerful position to obtain information that will assist in reducing any given risk. Given the direct stake of the bank in the financial health of the enterprise, there is a strong incentive for the lender to use its influence and connections to assist the farmer in minimizing on-farm losses.

Marketing arrangements

Inter-linked transactions, of which formal contract farming is perhaps the best-known example, provide the opportunity for an element of sharing the cost of losses.

Contracted forward sale of animals or fish during the growing period means automatically that the risk of loss is either assumed totally by the owner of the livestock or fish at the time of loss, or that there is a loss sharing mechanism. The details of the contract will specify the relative shares to be assumed by the farmer and the buyer in the event of loss from a given peril.

An example from Bangladesh describes how a contracting processor and buyer of broilers not only organizes credit for participating farmers, but also operates a risk fund – called a contributory security fund - in order to assist in protecting against production and price risks. Similarly, a large Jamaican broiler enterprise, which is also a major aquaculture operator, provides tilapia smolt to pond-owning out growers, with an agreement to buy market-sized tilapia at an agreed price. Some of the farmed shrimp in Indonesia, Bangladesh and Sri Lanka are grown in share-farming arrangements, where the ownership of the ponds is held by the contracting company, with the proceeds of sale of market-sized shrimp being shared between pond-owner and farm operator. (Based on a personal communication from Dr. John Bostock, Univ. of Stirling, Scotland. July 2005.)

A further example comes from Northern Vietnam, where fingerlings are obtained from hatcheries on credit, with payment expected after the fish have been harvested. If the fingerlings die, the wealthier hatchery operator will often waive the due payment.

Insurance – introduction

One or two references have already been made to insurance as a risk management mechanism in livestock and aquaculture farming. The present chapter has outlined other types of risk management, before introducing the topic of insurance. The phasing in the discussion is deliberate. It serves to underline that there are many mechanisms for risk management that should be explored to the full before recourse is made to insurance.

In the chapter that follows, some examples are given where livestock and/or aquaculture insurance is in force in developing countries. Some, though not all, of the related insurance products have been associated with veterinary care programmes.

Chapter 5, Insurance Approaches: Steps in the Development Process, covers some of the main points that should be appreciated by those seeking to initiate a process for making livestock and aquaculture insurance products available in developing countries.

In certain parts of this chapter, a distinction is made between livestock and aquaculture insurance products respectively. Despite the similarities in the risks faced by the two types of farming, the obvious differences in the environments mean that there are very real differences in the details of insurance approaches to risk management.

INSURANCE IN PRACTICE

This chapter serves to outline a few examples of experience in developing countries with livestock and aquaculture insurance.

Livestock insurance in India

Public sector livestock insurance:

The central government of India has been much involved over the years with a broad range of insurance services in the country. From 1972 until 2000, the state-owned General Insurance Corporation (GIC) was the only body permitted to transact insurance business, and it did so through its then subsidiary companies, namely: National Insurance Company Ltd., New India Assurance Company Ltd., Oriental Insurance Company Ltd. and United India Insurance Company Ltd.

In 2000, the insurance market was liberalized, permitting the private sector to develop and sell insurance products. Nevertheless, the four named state-owned companies still transact a significant share of all insurance business, and are predominant in the fields of livestock and aquaculture risk.

The latest available information on livestock insurance is summarized in Table 3 below.

Table 3: Livestock insurance in India (Public sector)

Year

Number of Policies (million)

Premium

R s. crores14

Indemnities Rs. crores

Loss ratio

1995/96

15.3

113.39

74.05

0.65

1996/97

14.7

122.54

74.83

0.61

1997/98

6.3

143.45

80.11

0.56

1998/99

7.9

152.02

126.08

0.83

1999/00

9.8

137.14

114.28

0.83

2000/01

7.9

145.53

127.97

0.88

Source: Adapted from Government of India website

Typically, livestock insurance products offered by the state-owned insurers are confined to mortality cover. The sum payable on the death of the animal is either the sum insured, or the market value, whichever is the lesser amount. A number of exclusions apply, most of these being designed to ensure that adequate preventive veterinary practices are followed. Annex IV provides further information on the conditions applying to these policies. The focus is on the insurance of individual animals, except in the case of poultry, where a certain minimum flock size is required, for understandable practical reasons.

A feature of the Indian livestock insurance products is that they tend to target dairy production units, especially those raising crossbred and other high-yielding cattle and buffaloes. This is situation is logical, since dairy farmers milking herds of this type of livestock are likely to be more commercially-oriented than are the more traditional producers, and may therefore be expected to have a greater demand for insurance products.

However, there is another example, from India, where insurers are linking with microfinance institutions in order to reach down to a smaller-scale type of client. This programme is the BASIX livestock insurance product, described below.

Private sector livestock insurance (example, BASIX)

BASIX is an Indian livelihood promotion institution, established in 1996, working (as in 2005) with over 190,000 poor households in 44 districts and eight states. It addresses the promotion of rural livelihoods by the provision of financial services: savings, loans and insurance.

As with those supplying banking services in rural areas, insurance providers face high administrative costs when dealing with small-scale clients. BASIX addresses the administrative cost problem for its financial services by linking itself, where possible, to Self Help Groups (SHGs) organized at village level. The SHGs provide a cost-saving interface between BASIX and individual clients.

Livestock insurance operations involve a partnership between BASIX and a private sector insurer, Royal Sundaram General Insurance Company. The partnership is designed to combine the insurance expertise of a major underwriter with the proven ability of a microfinance specialist, BASIX, to reach rural clientele. Both partners contribute their specific expertise in the process of product design, and in the administration of the programme.

The policies are ‘group’ in the sense that the insurer issues one policy for “the livestock belonging to the customers of BASIX”. In this sense, it is a group policy, though BASIX maintains records of individual ownership of insured livestock. Cattle, sheep and goats are included. The table below indicates the scale of current operations, which are a fraction of the business reported in the earlier table, which addressed public sector livestock insurance in India. Nevertheless, the BASIX and Royal Sundaram partnership is clearly reaching a clientele group that would be unlikely to attract the attention of the major providers of insurance services.

A strategy of careful attention to cost containment has been a key factor in permitting this livestock insurance product to operate sustainably. Part of this strategy has been to harness computerization for recording transactions, including premium collection and payment of claims.

Table 4: Livestock insurance – Indian private sector (BASIX)Year                                              Policies sold                                   Premium Rs. Lakhs

To March 2004                              4430                                                16.23

To March 2005                              5040                                               16.37

Source: BASIX website

Aquaculture insurance in Iran

General

Aquaculture insurance, as is case for crop and livestock insurance, is offered by a state-owned entity, the Agricultural Products Insurance Fund (APIF). The APIF is a subsidiary of the Bank Keshavarzi, the government-owned agricultural bank. This is a large organization, with some 2,000 branches nationwide. The APIF started operations in 1985. Aquaculture products were first offered in 1996. The APIF has 580 employees, about 500 of whom are outposted in the field.

Product design is done in-house by APIF staff. Many of these officials have technical qualifications in agronomy, veterinary medicine, animal husbandry, plant husbandry. For aquaculture there are at least two officials who have university-level qualifications that are directed related to their responsibilities within APIF

The marketing of insurance products is carried out directly by APIF field staff. Because of the close relationship between the APIF and the Bank Keshavarzi, borrowers from the bank are encouraged to manage some of their risks by using insurance.

On notification of a loss event, loss assessment is carried out in-house by APIF staff, with a high level of supervision from headquarters.

The public sector plays an active role in insurance operations, not only through ownership of the insurance company but also through the fact that it provides reinsurance for this company. In addition, it subsidizes premiums, to some extent.

Insurance coverage and results

Species insured: Trout, prawns (shrimp), carp

Perils covered:   Temperature variability (biggest cause of losses)

Oxygen depletion

Flood

Hail

Earthquake

White spot disease in shrimp Exclusions - Disease – except for white spot.

Table 5: Iran - Aquaculture insurance

Year

Number of contracts

I n s u r e d area (ha)

Premiums paid ($’000 equiv. Jan 2005 rate)

2000

421

2803

366

2001

422

3 141

387

2002

715

5 182

623

2003

1002

4654*

7 3 6

2004

1186

3200*

6 3 2

*Despite the number of insured clients rising steadily, the insured area dropped in 2003 and 2004 due to closure for a period of a number of shrimp enterprises, due in turn to quarantine requirements following outbreaks of white spot disease.

Table 6: Iran – Aquaculture insurance loss ratios

Year                                                                             Ratio*

2000                                                                                                                                                             0.19

2001                                                                                                                                                             0.43

2002                                                                                                                                                             1.13

2003                                                                                                                                                             0.90

2004                                                                                                                                                             1.09

*The Loss Ratios (L/R) quoted here are not pure figures, based on unsubsidized premium and indemnity totals. This is because the government operates a premium subsidy scheme that is apparently variable. Anecdotal evidence suggests that the overall true L/R is of the order of 2.0, which implies a significant level of subsidy to the insurance programme.

Brief notes on livestock and aquaculture insurance experience

The individual country notes that follow serve to indicate the somewhat patchy experience of a number of developing (and newly-developed) countries when insurance products have been offered as a risk management mechanism for livestock and aquaculture enterprises.

Argentina: Despite the availability of a number of crop insurance products, it believed that no livestock or aquaculture insurance is currently available.

Bangladesh: The public sector insurer, the General Insurance Corporation, has offered insurance products on a pilot basis for high technology shrimp farms. Perils covered included: flood, tidal waves, storm surges, cyclones. The pilot has had very limited success, and in its initial form has proved to be financially non-viable. This is due to a high level of claims, coupled with poor demand for the product because of the exclusion of disease as an insurable peril.

Brazil: Just one company offers livestock insurance. The demand is mainly for cover for horses and cattle. No aquaculture insurance is currently available, though proposals are now (October 2005) being finalised for shrimp insurance.

Chile: This country is one of the world’s biggest marine salmon and sea trout fish farming producers. Its aquaculture insurance industry is highly developed with two main insurers. All major international reinsurers are supporting these companies. The typical Chilean Aqua Policy is a very comprehensive named-peril policy for loss of both fish stock and installations.

Ecuador: One livestock insurer, since 1997, has offered insurance covering cattle (dairy & beef) and horses. There is no aquaculture insurance at present. It is believed that a pilot aquaculture programme was severely affected by storm and disease claims, and was terminated after one year.

Republic of Korea: A pilot insurance programme directed to oyster cultivators has proved to be a failure, due to a high level of claims, and the resulting non-sustainable loss ratio for the insurer.

Mexico: This country has the most developed livestock insurance market in Latin America. Individual animal mortality cover is available for cattle, sheep, goats and pigs. In addition, since the beginning of 2006, whole herd covers with high deductibles for epidemic diseases can be purchased – see Section 5.4 for more details on this new development. The Government provides premium subsidies, but these are now geared towards catastrophe epidemic disease covers, rather than to policies based on individual mortality. Agroasemex Mexico also has more than 10 years experience with aquaculture insurance, which is mainly for shrimps.

Panama: The local state insurer offers very limited livestock insurance

Vietnam: A pilot insurance programme for aquaculture enterprises in 15 Mekong River delta provinces was offered by a local subsidiary of the large French insurer, Groupama. After two years, the scheme was discontinued, with a loss ratio of nearly 2.

INSURANCE APPROACHES: STEPS IN THE DEVELOPMENT PROCESS

Decision and action steps

Considerable attention has been given in the foregoing chapters to introducing the wide range of risk management mechanisms that operate in livestock farming and aquaculture. This approach is deliberate. Although this publication is primarily concerned with the use of insurance approaches to risk management, even the most fervent proponents of agricultural insurance would readily concede the necessity of accurately identifying the role, if any, of insurance in any given type of farming.

One key point needs to be underlined at the start. This is that insurance does not and cannot obliterate risk. It spreads risk. There are two dimensions to this spread. The first dimension is the spread across an industry or an economy, extended in the case of international reinsurance to the international sphere. The second dimension of spread is through time. Most insurance programmes operate on both dimensions. The important fact to note is that insurance does not directly increase the income from the livestock or aquaculture enterprise. It merely helps manage risks to this income.

An insurance indemnity becomes payable in the event of a claim under a policy. The policy must be in force, with premium paid, by the time of the loss event. Most policies incorporate an element of risk sharing, by means of a deductible. This amount is the percentage of the loss that is borne entirely by the insured.

Premiums must cover several areas of cost. The components commonly used by insurers to calculate premiums are explained in Annex II.

Any decision-making process on insurance involves many stages. These stages, and certainly the priorities, will differ, depending on which type of body is doing the investigation. This may be a government ministry, a farmers’ organization, an insurer, a bank or a group of marketing/processing agencies. In any case, some of the more important issues and steps are:

a.         Demand assessment – ensuring that any initiatives are in response to real riskmanagement needs

b.         Identification of the key insured parties; where is the risk carried, and is there a place forautomatic as opposed to voluntary insurance cover? Are farmers willing to pay forinsurance?

c.         Which is the most important factor for the farmer to insure? Is it mortality and perhapsin some cases, loss of performance? Alternatively, is it rather the risk to the grossmargin generated by the livestock enterprise?

d.         Determination of the perils that the insurance contract can cover

e.         Decision on types of enterprise to be covered – a key factor in insurance design

f.          Analysis of insurance options, administrative models and loss assessment procedures,together with determination of associated costs

g.         Rating – determining the pure premium required, plus administrative and lossadjustment overheads to derive the initial premium level to be charged. Note: this stepneeds reliable historical data on incidences of perils and resulting losses.

h.        Identifying possible complementary roles for the government and for the private sector

In any given situation the results of investigating these issues will determine whether or not insurance is the most efficient and effective mechanism to manage a particular area of risk. The results will also indicate the type of insurance product that is optimum for a given situation. Further information on insurance administration is given in Chapter 8.

The sections below set out some of the arguments, and illustrate, with examples, how some insurance solutions have been developed. Given the over-riding importance of one particular climate peril for livestock, particular attention is given to the potential of rainfall index approaches in managing the risk of losses from drought (see Section 5.5 below).

Demand assessment

This must come before any substantial investment is made by any of the parties – government, insurance companies or organizations representing potential insured farmers. The assessment is not easy, as insurance buyers want to have an indication of the likely premium cost before expressing an interest in buying the insurance product. However it is impossible to give more than a very vague estimate of the likely cost of the insurance before there has been a detailed investigation of the incidence and effect of perils on livestock and aquaculture farmers, and an assessment of operating costs,

Closely linked to this is the need for any insurance programme to respond to real needs. As stated in the introduction, the buying and selling of livestock and aquaculture insurance products is a business, and both buyer and seller must want to participate. Real opportunities to benefit from the transactions must be met for this condition to be satisfied.

While some risks, such as drought, are ongoing, new risks emerge as production practices are altered. This alteration may be due to the availability of new technology, or as a result of changes in market demand or, as is increasingly the case, to respond to other types of pressure such as environmental or animal activist groups objecting to certain livestock management practices, such as the mulesing of Merino sheep. Abandonment of an established practice will lead to a search for other risk management techniques. Sometimes, in some situations, the range of options will include insurance.

In the face of these needs, the services of an experienced agricultural or aquaculture insurance team are required when insurance is under consideration. Such a specialist team would be able:

a.          to examine the risk structure of certain key enterprises,

b.          to identify the extent to which the involved parties are vulnerable to these risks,

c.          to draft an outline of an insurance programme, with indicative costs and benefits, andresponsibilities; it would also include details of further investigative, publicity andlobbying work required before insurance business could commence.

This team would consult closely with several sectors in the economy, and follow up in detail the issues that are described below.

Nature of the insured parties – automatic or voluntary cover?

Farmer/producers are one obvious party to insurance. Those who depend on a supply of livestock, livestock products, fish or other aquaculture products for their business are another. The latter group includes processors and product buyers.

These firms often stand to lose financially if products are not available from their local primary producer In the event of a loss on the farm, the buyer or processor may face increased acquisition costs in order to meet ongoing contractual or other market obligations. They therefore have an insurable interest in the livestock and fish.

One of the factors, which can lead to an increased demand for insurance, is the growth of contract farming arrangements. When insurance can economically address some of the production risk involved, risk that affects both growers and contractors, then there may be a case for making insurance automatic. This is the same as making it compulsory, but “automatic” is a better description of the process when insurance becomes just one of a range of services being provided, as a package, to contracted growers. Another form of linkage of insurance to other services involves credit, when insurance is sometimes a condition imposed and arranged by the lender.

Beyond these types of linked compulsion, the catastrophic FMD outbreak in the United Kingdom in 2001 (already mentioned above) sparked a debate in both the U.K. and the EU as to whether livestock farmers should be obliged to buy epidemic disease cover so that taxpayers would not be obliged to pay for future losses. Such losses include compensation to farmers for animal mortality, loss of production and clean-up costs. At the time of writing, the outcome of this debate is not known.

The key risks for livestock and aquaculture farmers have been set out in Sections 2.2 and 2.3 above. Some of these are such that they might be managed with the assistance of insurance. Others would not. Chapter 6, below, selects some of these risks and discusses them from an insurance point of view.

Firstly, however, it is necessary to look briefly at the basis for possible insurance. In other words, in the insurance contract, what is the basis for an indemnity payment to be made, is it mortality, or is it based on financial criteria, in turn dependent on the gross margin results achieved in the enterprise. This distinction is now explored in Section 5.4 below.

Approaches to livestock & aquaculture insurance

In conventional livestock/aquaculture insurance policies, a claim leading to payment of an indemnity can be made in the event of an insured peril leading to stock mortality, with the loss measured on the basis of an agreed value for the stock. This is still by far the most common form of livestock and aquaculture insurance. Moreover, it is likely to be the most readily form of insurance cover, for most developing country situations, for the foreseeable future.

An alternative approach is when an insured peril impacts on the profit of the specific enterprise being insured, i.e. the gross margin. This impact may be due to mortality of numbers of stock – or it could be due to loss of production due to adverse climatic factors, to a ban on marketing stock or stock products, to the outbreak of an infectious disease or pollution of the environment (particularly applicable to aquaculture enterprises). Again, it could be due to a marked increase in on-farm costs, following an insured event - even without the actual death of the insured stock.

When the contractual basis between the insured and the insurer focuses on the expected gross margin of an enterprise, any significant shortfall in the gross margin is then the basis for the determination of an indemnity payment, provided it is caused by a peril recognised under the insurance policy.

This approach is far from being in common use as yet, the only mature example known to the writer being a policy popular in recent years with German dairy farmers. In Mexico too the benefits of concentrating on the financial outcome of the enterprise have recently been recognised. Detailed product development work has been completed in this country, and a commercial launch of insurance products expected in the near future.

Clearly, with its focus on the expected financial outcome of an enterprise, the new type of policy addresses the key factor in commercial farming. Despite this logical advantage, there will be difficulties in introducing gross margin products in most developing countries. These difficulties exist on both the supply side (the insurer) and on the demand side (potential insured farmer).

For the farmer, the circumstances that would make a gross margin trigger attractive include those where there is significant investment involved, and where there is limited personal risk-bearing capacity, usually due in turn to high levels of borrowed funds for the enterprise. These circumstances certainly exist, but are by no means the rule in most developing countries.

For the insurer there must be confidence that the necessary records are available and reliable, so that a loss can be quantified. In developing countries, there will be limited situations where this condition can be met, though more and more farmers, including fish farmers, are known to be keeping records.

By contrast, insurance contracts where mortality as the basis for a claim are less demanding

in terms of records, but still require a reliable system for the positive identification of the insured stock.

Perils covered in traditional mortality insurance include:

•      Flood, windstorm

•      Pollution, poisoning, land subsidence

•      Machinery/electrical breakdown

•      Fire, lightning, explosion

•      Malicious damage, riot, strike

Common exclusions in the traditional policy were:

•      Consequential loss & legal liability

•      Epidemic diseases and Government slaughter order

•      Cannibalism/ malnutrition

•      Overcrowding

The challenge now for the insurance industry is to design products that would have wide applicability for many developing country farming types and systems, and would cover:

•      Epidemic disease with or without a Government slaughter order

•      Ban on selling animals or animal products

•      Drop of production as a result of an insured peril

As mentioned above, Mexico has recently taken up this challenge. Here, government and private, commercial insurers are currently exploring options for livestock insurance against catastrophe epidemic disease. Insurance products are needed which combine coverage of direct mortality losses to the livestock enterprise and the consequential losses or business interruption costs arising out of the insured event.

Traditionally, Mexican insurers have offered individual animal accident and mortality livestock insurance for cattle, pigs, sheep and goats. This type of cover has been available since the mid 1990’s, and has been supported by government subsidies of about 30 percent on the insurance premiums paid by livestock producers. With premium rates for individual animal insurance of 5 to 7.5 percent, or higher, according to the coverage provided, the subsidies have been important in making the product affordable for small livestock producers. Indeed, the cover has proved very popular among farmers. Consequently, insurance penetration levels have been high, particularly for dairy cattle and pigs enterprises.

In 2005 the Mexican government decided to withdraw its subsidy support for individual animal cover and instead to switch the subsidies to catastrophe livestock epidemic disease insurance products. At the time of writing the author has not seen the final details of the new Mexican catastrophe livestock insurance products, but they are understand to include the following features:

•      The policies are herd (flock) based, with a first loss deductible designed to eliminate normal mortality levels and low-level frequency losses, which do not impact heavily on the financial viability of the livestock enterprises.

•      The policies include protection against traditional accident and mortality on the one hand, and losses arising from catastrophe (OIE Class A) epidemic diseases and unavoidable slaughter on the other.

•       For dairy cattle, the intention of the policies is to provide business interruption cover against lost milk production when a high mortality event takes place. For dairy farms that are directly affected by the disease event, the policies would pay out for the loss of the cow plus loss of income from milk sales for any cows that have died and/or have been culled. For non-affected herds in the controlled zone, where milk sales are banned, the cover would indemnify the producer for loss of income from milk sales. The policies would also indemnify milk producers in situations where a natural peril, such as flood, prevents the producer from delivering his milk to the market.

•    By restricting coverage to catastrophe events only, there is the potential to offer this

insurance at rates of 1 to 2 percent, or less, though the actual rates are not known for certain at the time of writing.

Index approaches to insurance

The concept:

In a conventional or classic livestock or aquaculture insurance policy, evidence of damage (i.e. mortality of stock on the farm, or in the water) is needed before an indemnity is paid. However, verifying that such damage has occurred is expensive, and making an accurate measurement of the loss on each individual insured farm is even more costly.

An index (also sometimes known as ‘coupon’) policy operates differently. With an index policy a measurement is derived from factors connected to the damaging event but not directly dependent on individual loss assessment of the insured stock.

Weather index insurance

The measurement that is most commonly considered in constructing an index for insurance relates to meteorological events which are expected to be damaging, and which can therefore be used as the trigger for indemnity payments. These damaging weather events might be:

a.         a certain minimum temperature for a minimum period of time.

b.         a certain amount of rainfall measured in a certain time period – this can be used forexcess rain and also for lack of rain (drought) cover; an alternative approach toestablishing the degree of drought experienced, and the area affected, is the NormalizedDifference Vegetative Index ( See NDVI in Glossary). This relies on an analysis ofsatellite imagery, rather than the use of rain gauges on the ground.

c.         attainment of a certain wind speed – for hurricane insurance.

The classic insurance policy is replaced with a simple coupon. Instead of the usual policy wording, which would give the indemnity payable for livestock mortality for losses from specific causes, the coupon merely gives a monetary sum that becomes payable on certification that the named weather event, of specified severity, has occurred. The face value of the coupon may be standard, to be triggered once the weather event has taken place for the geographical area covered. Alternatively, it could be graduated, with the value of the coupon then being proportional to the severity of the event.

Clearly, this type of trigger operates over an area, encompassing many insured farms. Again, a trigger such as this cannot be used for certain perils, such as hail, where the adverse event normally impacts on a very limited area of land. On the other hand, it is suited to weather perils that impact over a wide area, for example drought.

Since there is no direct connection between a farming operation and the coupon, even those without farming enterprises at risk could theoretically purchase risk cover of this type. This is not a disadvantage. On the contrary, there are many persons besides farmers who stand to suffer financial losses from adverse weather events. Fishermen, tourist operators, outdoor vendors are among the many categories making up the potential clientele for index insurance products.

Index-based agricultural insurance is a very new product. It has only started recently in a small way in a few parts of the developed world and it is still too early to be able to report much experience over a satisfactory time series.

Examples to date include index insurance against drought on pastureland in the provinces of Alberta and Ontario, in Canada, and a similar cover in operation in India, through the BASIX microfinance network, designed to provide a level of protection for smallholder farmers. Other examples are noted in the section below entitled, ‘Index insurance: the way of the future?’

In Spain, a novel approach is being taken with livestock insurance. The risk being addressed is a shortage of pasture feed, itself largely a function of rainfall. Agroseguro, a consortium of insurers (the operations of which are heavily subsidized) has constructed an index that is designed to trigger an indemnity when the quantity, density and quality of pasture fodder falls below a certain critical index figure. The analyses used to derive the index (termed the NDVI – Normalised Difference Vegetative Index) are based on satellite imagery from NOAA. It is not yet known how successful this approach has been, but one can note that it has the potential to provide information at low cost compare with on-the-ground rainfall measurements. Moreover, data from satellite imagery are not as susceptible to tampering, as is the case with data produced by standard rain gauges.

Non-weather index insurance

There is a theoretical possibility that indices derived from events other than weather could be used as triggers for insurance products. The example below, from Mongolia, describes one such possibility, where one of the indices being considered is a zonal livestock mortality rate.

Mongolia - Livestock insurance concept, using an index approach

Mongolian agriculture is largely based around raising livestock, with the national herd, nearly all of which is now privately owned, being nearly 30 million head, predominantly sheep and goats, with significant numbers of cattle, yak, horses and camels. Income from herding accounts for nearly one-third of the country’s GDP.

The main climate hazard faced by herders is when a harsh winter follows a period of poor spring and summer pasture growth. The resulting dzud causes severe livestock losses. Inadequate nutrition in the previous spring and summer means that animals go into the winter in poor condition. In addition, poor summer growth means that the pasture is short or inadequate where stock is kept in the winter - the winter camps. Heavy snow covers pasture to the extent that animals have very little access to nutrients in the camps. As a result of these factors, dzud conditions lead to high livestock mortality levels.

Indeed, in recent years, three successive dzud winters saw the national herd contracting from 33.6 million head in the 1999 census, to 23.9 million head three years later.

Traditional, individual insurance approaches to assist in the management of the losses caused by dzuds have been considered, but have been quickly judged unsuited and impractical, given the scattered communities, high administrative costs and the opportunities for moral hazard problems. Moral hazard in these conditions would be extremely costly to monitor, let alone control.

Accordingly, the Mongolian authorities and the World Bank recently conducted a study to see whether an index of mortality could be used as a basis for paying indemnities – on an area (local district or sum) basis. Facilitating this is the fact that there is a well-established practice of conducting an annual livestock census in Mongolia. Therefore, the determination of an index of livestock mortality should possible and could doubtless be done at minimum cost. The feasibility study indicated that the concept has merit, and may well be taken as a step towards meeting the strict conditions that would be required by insurers and reinsurers before they would accept the risk.

By way of commentary on the proposed use of a mortality index, one could note that it is not completely detached from management factors. Conceivably, careless management practices by a number of herders within the sum, and subsequent higher than necessary mortality of livestock, could influence the index. However, herders who engage in such careless management would need to collaborate in order to influence the index. A greater potential problem to the use of a mortality index is the credibility of census statistics. Local authorities (who manage the annual livestock census) could influence the reporting process and thus introduce a systematic bias that would inflate the payments made for livestock losses in their area.

In order to overcome the problem, an examination is now underway of the feasibility of using other indices, indices that would be beyond the control of the herders and the local authorities. While the obvious candidate is a weather index, as used elsewhere in the world, this is not feasible in Mongolia, as the dzud and its losses involve many complex factors and relationships that go beyond weather per se. More likely to show promise is an index using data derived from satellite imagery, coupled to sample observations on the ground that indicate nutritional levels in livestock.

Index insurance: the way of the future?

Despite the paucity of experience with index insurance, there is a high level of interest in both development and insurance circles in this risk management mechanism for developing countries. This interest is prompted by the belief that index insurance products offer an apparently practical solution to many of the barriers to classic agricultural (crop, livestock) insurance for small-scale, dispersed farmers in less developed areas of the world. These barriers include:

a.         adverse selection – only those farmers more at risk will buy cover;

b.         moral hazard – the insured farmer may not do everything possible to avoid or minimise aloss;

c.         transactions costs – the huge costs of marketing individual insurance policies, coupledwith the administrative costs involved in calculating and collecting individual premiumsand paying claims;

d.         loss assessment expenses – if loss assessment is done on an individual farm enterprisebasis the costs can be very large in comparison to the premium paid, and may not befeasible in many small farm situations; as noted in Chapter 8, index insurance avoidsnearly all the steps involved in the process of loss adjustment.

These four factors are all major constraints to conventional insurance. In an attempt to counter them, index insurance products have been or are being tried in a number of countries. At this stage, the focus is on crop risk with weather indices as the triggers. The list of countries involved includes: Canada, Ethiopia, Guatemala, India, Malawi, Peru, Spain, Ukraine, Uruguay.

In summary, and on present evidence, index approaches appear to be the most promising field for new insurance products for many types of primary industry in developing countries – especially for certain perils affecting livestock and cropping. At the present stage of development, it is not clear how index insurance products could be designed for aquaculture, though this may well be merely a matter of time. Certainly, given the growing importance of aquaculture, there is every reason to believe that efforts will be made to harness the benefits of index approaches in order to facilitate insurance participation in some of the perils faced by this industry.

Some of the special features of index insurance are discussed in the following chapter, in the section dealing with drought. This peril poses particular challenges for traditional insurance products, which has led to much attention now.

RISKS THAT MAY BE MANAGED, AT LEAST PARTIALLY, BY USING INSURANCE

Disease losses

Diseases may cause actual death, or diminished production. They may also mean increased on-farm costs, occasioned by the required quarantine, curative or preventive measures. For example, the regular drenching (oral dosing) of sheep against parasitic worms in the alimentary tract is a significant cost item for many sheep herders.

Again, the presence of a disease may prompt a government ban on the sale of animals or animal products, or even a government slaughter order within a zone of possible infection. Transboundary animal diseases can affect livestock in all countries, but are particularly important where the borders between countries are land boundaries, and where the movement of both domesticated and feral animals is difficult to control. Fish diseases can similarly spread readily from the waters of one country to those of another.

Having noted these costs resulting from disease, how relevant is insurance as a means for assisting in the management of disease risk? On the supply side, coverage of disease risks is not easy for insurers and reinsurers, since most diseases are partially or totally preventable/curable through sound animal husbandry, livestock sanitation and vaccination programs. In addition, many diseases do not cause death, but rather loss of use or performance.

Turning now to demand, there is little doubt that farmers of widely differing scales of operation are heavily dependent on their livestock staying alive and productive. Thus, the demand for management of disease risks touches both the small farmer, with one or two draught or milk animals, as well as the large-scale beef feedlot operator, who is carrying a heavy debt burden on his current stock.

There is no doubt that the first layer of disease management must be appropriate on-farm livestock and aquaculture husbandry. Insurance, where it operates, is generally accompanied by requirements that prescribed veterinary care procedures, including vaccinations, are followed. For example, some cattle insurance contracts specify a number of required vaccinations, for which documentary proof is demanded by the insurer in the event of mortality of an insured animal. The two types of products – a veterinary care plan and insurance – are mutually supportive. Moreover, marketing to the same clientele costs less in administrative costs than would be the case if the products were to be sold separately.

The risk of exotic disease outbreaks, particularly at an epidemic level, call into question the ability of the insurance industry to design and market suitable policies to meet this type of risk. The problem here is that the exposures are potentially so high, that the only way most insurers and reinsurers could be persuaded to participate would be through caps on their exposure. Such caps could be possibly be accompanied by government partnership arrangements, with the public sector undertaking to cover losses above the cap established in insurance contracts. Despite the apparent attraction of this type of arrangement, the ability of most developing countries to undertake this sort of commitment would be very limited. Despite the difficulties posed by epidemic diseases, several traditional livestock insurance programs in Europe do cover livestock epidemic diseases, including for example insurance products offered in the Czech Republic and in Slovakia.

In short, insurance cannot substitute for sound management of the risk of diseases. Indeed, this task is a significant area of modern farm and aquaculture management, with very substantial losses resulting from failures in this area. Moreover, the growing importance of international trade in agricultural commodities impacts on the pest and disease issue in developing country farming in several ways:

a.         Food safety and quality regulations mean that any evidence of pest or disease in a consignment may disqualify meat, other livestock products or fish from entry to the country of destination;

b.         Similarly, pesticide and drug residues are subject to very tight limits under the standards for international trade;

c.         Competition in the market is fierce, and even if produce is allowed to enter, a recent history of disease problems in the producing country may mean the produce is unlikely to find a buyer at a remunerative price.

Insurance implications can similarly be summarised in a brief list:

a.   It is sometimes possible for farmers to obtain cover against diseases where there is no generally accepted on-farm livestock or aquaculture husbandry practice.

b.   Because many disease conditions only lead to mortality when there is a nutritional deficiency, or similar failure of management, insurers require certain minimum standards of livestock husbandry, and may state in the insurance contract that indemnities will not be paid if there is evidence that these standards have not been met.

c.   In an attempt to reduce the adverse environmental impact of some well-established routines for pest and disease control (e.g. certain chlorinated hydrocarbons used to control ectoparasites), alternative, benign regimes are continually being developed. Insurance may be utilised in the future in order to provide temporary risk assurance to farmers who are persuaded to use the new routines, but who are uncertain as to their efficacy.

Climate perils

Drought

Drought is by far the most important peril for livestock farmers in developing countries. A quote from an IFPRI publication is relevant here:

“Drought management interventions need to be designed so that they assist farmers and herders to better manage risk and improve their productivity and incomes, but without distorting incentives in inappropriate ways. The experience with feed-subsidy programs in the West Asia and North Africa region and with restocking projects in Sub-Saharan Africa have had mixed results.   While they have helped protect incomes and food security in drought years, they have also had negative impacts on the way resources are managed. Better alternatives could be area-based rainfall insurance, particularly if offered by the private sector, and the development of more accurate and accessible drought-forecasting information.”

It is worth noting that the writer of this opinion specifically mentions herders, alongside farmers, as being potential beneficiaries of improved drought management interventions. Indeed, the devastating impact of drought on livestock herds is well known.

Drought is also the natural weather event that causes most problems for insurers. The reasons for this are many. Firstly, insurers feel most confidence when an adverse event has a clearly defined time of impact, coupled with a clearly defined geographical area that is affected. The classic example is hail, which may do its damage in a matter of a few minutes, or even seconds, and will typically impact an area confined to a few hundred square metres up to a few square kilometres. Hail damage is clearly attributable to the adverse weather event, and is readily verified as such, provided that a field inspection is undertaken.

By contrast drought has a vague beginning, its effects linger for a very long time, and can extend over more than one season. Moreover, it typically impacts a very wide land area. Livestock production losses caused by drought can be aggravated by the incidence of other problems, e.g. severe winter conditions following a summer and spring during which feed was in short supply, due to lack of rain.

From a purely underwriting point of view drought poses great difficulties for a standard livestock insurer. Firstly, because drought affects a large number of farmers in the same season – perhaps the whole of a country – the losses can be very large. This systemic or catastrophe exposure means there are problems in mobilising sufficient insurance capacity to cover the sum insured that is at risk, even with recourse to substantial reinsurance. Secondly, droughts in recent years, at least in many parts of Africa, have tended to extend over more than one year. This experience means that it is extremely hard for insurance companies to obtain reinsurance for insurance portfolios that carry drought risk. Thirdly, the magnitude of the risk in most developing countries means that actuarially calculated premiums would be very high – too high perhaps to attract all but the most at-risk livestock farmers. No insurer wants to build a portfolio based entirely on such clientele.

For these reasons, insurers are very wary of covering drought as an inclusion in standard agricultural insurance policies. This is particularly the case in those parts of the developing world where drought is the major weather constraint to livestock production. These include: Southern and Eastern Africa, Sahelian Africa, Horn of Africa, North Africa/Near East, Eastern Europe, Central and East Asia, South Asia, Central and South America. These are also regions in which livestock play an important role in farming generally, and in small-scale farming in particular. The list illustrates the key role that drought plays in the lives of much of the developing world’s rural population.

Given the almost insurmountable problems involved in including drought in standard mortality policies for developing countries, attention in recent years has turned to examining whether index (coupon) policies could provide a useful degree of loss control in the event of a serious shortfall in precipitation. For drought, the index used would most likely be precipitation over a given period and within a pre-determined zone. However, other indices may also be applicable in particular circumstances. Initial developmental work in this field is promising. As mentioned above, the NDVI index is already in use, in Spain. This index, or similar remote-sensing applications, could well bring low cost benefits to certain developing countries where livestock farming is based on pasture, and where drought is an occasional peril.

Again, the Mongolian example, described by Skees and Enkh-Amgalan, and noted in Chapter 5 above, suggested that a livestock mortality index insurance product could overcome the high costs of the more conventional insurance programmes. The policy would be triggered by a mortality index above a certain threshold. An annual livestock census would provide the necessary baseline and “after loss data”. As an area or zonal programme, all livestock farmers in a given zone would receive the same level of indemnity, as this would be fixed on a zonal basis. This standardization means of course that there is every incentive for individual farmers to minimise their losses – i.e. nil moral hazard, as could be the case with insurance products where losses are adjusted individually.

More generally, a weather (e.g. rainfall) index insurance product involves using a meteorological measurement as the trigger for indemnity payments. In practice, the most likely trigger format would be a series of indemnity steps, each step corresponding to a given level of rainfall deficit. The assumption is that farmers could select a level of indemnity suited to individual circumstances. Thus the indemnity payable would increase as the rainfall shortfall increased from a defined “drought trigger” amount.

At the time of writing (2005), index policies covering drought or other climate risks cannot be described as being a standard, tested product ready for introduction in developing countries. Rather they are in the nature of a promising new insurance technique, attracting much interest among farmers’ organizations, policy-makers, insurers and other risk management professionals, with the likelihood of more pilot programmes being implemented, in developing countries, in the near future.

Windstorm

Windstorm insurance for developing country livestock and aquaculture enterprises relates chiefly to losses resulting from damage to structures such as livestock housing for intensive rearing enterprises, and to those aquaculture structures that can suffer damage from excessive winds and the resulting storm surges. Clearly siting considerations, together with construction quality, are factors that will affect vulnerability to windstorm losses. Before accepting windstorm as an insured peril, insurers would take these sorts of management practices into account. They make certain that it is only exceptional events that will trigger the insurance.

Windstorm is associated with catastrophic losses to life and property, as well as to crops. Hurricane Andrew, one of the most destructive storms ever recorded, hit Florida and Louisiana on 25 August 1992, while more recently, and perhaps more disastrously, Hurricane Katrina hit the Louisiana and Mississippi coasts at the end of August 2005. Storms of this magnitude, and lesser, but still serious weather events of this nature, are believed to be increasing in frequency. This may be due to the incremental energy levels in the world’s weather systems, as a result of global warming.

Because of the increasing frequency of damaging weather events, it is expected that in the short term this will result in a significant rise in premium rates for conventional insurance. In the longer term, the challenges posed will doubtless give an impetus to a trend that is already apparent, that is, the search by risk management professionals and others for new ways by which losses arising from severe climate events can be managed. One such development has been catastrophe bonds. These provide a mechanism whereby investors can earn an attractive return on such bonds, but stand to lose some or all of the capital invested in the bonds, in the event of a catastrophe.

Freeze

Freeze is not a peril generally associated with livestock or fish deaths in developing countries. However, it does affect fish farmers in northern latitudes, for example in Norway and Finland, and along the eastern coast of Canada, especially when particularly violent storms accompany the normal freezing over of the top layer of water. In these circumstances, ice is broken up and is stirred down through the zone where the fish are found, super-cooling the water, and causing high fish mortality. Another example relates to carp broodstock in pond culture in Eastern Europe. High mortality levels of these carp have been experienced during extreme winters. This risk is often insured in the countries where this risk needs to be managed.

The other type of enterprise affected by freeze is livestock raising in northeast Asia, for example in Mongolia, here the dzud, can cause a very significant number of deaths among sheep, goats, cattle, camels and horses. The exploration of a means for insuring against this peril using an index approach is described above in Chapter 5.

Flood

Flood damage may be due to excessive rainfall on-site, but it can also be caused by excessive precipitation elsewhere, and the subsequent rise of river and lake levels, to cause flooding of farmland, overflowing (and pollution) of aquaculture ponds and dams, and heavy losses of livestock and fish. It may also be caused by structural failure of dams or levies, but this is usually a secondary consequence of an extreme climate event, so flood as a peril is listed under Climate in this discussion.

Flood is sometimes one of the results of severe oceanic storms. Examples are the frequent tropical cyclones experienced in the Bay of Bengal. These usually cause flooding of low-lying farmland along the affected coastal zone. Records indicate that although the fundamental peril is windstorm, the actual losses on farms – to livestock as well as to aquaculture enterprises, have been due to flood damage resulting in turn from wind-induced high sea levels, which are known as storm surges. At the time of writing (September 2005), much attention is being given to the flooding in Louisiana, Mississippi, and Alabama in the southern United States as a result of Hurricane Katrina. In this case, excessive precipitation was accompanied by wind-induced storm surges that broke the levies protecting, among other areas, the city of New Orleans.

Another extreme example of an ocean-related flood is the seismic sea wave, or tsunami. As its name suggests, this oceanic wave is the result of a seismic event, usually an underground earthquake, or volcanic incident affecting a relatively small part of the ocean in a massive way. The resulting wave travels at a speed of several hundred kilometres per hour, over vast distances. As the wave meets a rising seabed, it grows massively in height, leading to serious flooding of the land adjacent to the sea front. Aquaculture enterprises are particularly at risk, as they are very frequently located along or close to the seashore. Damage can be to the growing fish and to livestock; it can also affect fish cages and ponds, mollusc racks, on-shore fish farms, which are often sited on shorelines and livestock housing (in intensive rearing systems). As a result of an undersea earthquake off the Aceh Province of Indonesia on 26 December 2004, and a subsequent tsunami, significant damage was done to coastal regions of many countries. For example, in Aceh itself, more than half of some 44,000 ha of fishponds were destroyed, along with their stock. Ponds were filled with debris and silt that was often found to be toxic. The resulting clean-up and rehabilitation of facilities is proving to be a costly exercise.

The insurance technology for flood risk is not overly complex, so in many circumstances this risk is insurable. Exceptions would be for enterprises that are situated where the risk is regarded as high, for example, flood plains that by definition are exposed to a very high risk of inundation. Premiums charged to manage the risk of flood in such areas would be prohibitively expensive, although in some developed countries the public sector has subsidized insurers in order that farmers in the area are covered against losses from this peril.

 Other perils

Seismic and volcanic events

Although seismic events are relatively common, those causing significant damage are rare, as are seismic sea waves, or tsunamis. Livestock housing and aquaculture structures can be destroyed, leading to deaths, or deaths may occur as a result of accompanying inundation and/or pollution.

Insurance protection against these events is usually possible, at least from an underwriting point of view. For the farmer, these types of events bring the expectation that disaster relief will be forthcoming from public funds. This will reduce the demand for insurance, even if insurance products are available in the market.

Fire

Fire is one of the oldest perils to be covered in property insurance. It is also a major peril for many livestock enterprises, particularly those involving housing, such as broiler and egg production units. Bush and pasture fires can also result in livestock losses. Again, insurance protection is usually possible – often as part of a multi-risk policy.

Fires are caused by human action (and carelessness) and also by lightning strikes during electrical storms. Whatever the cause, there are control measures to reduce any losses. These may be through early detection and the subsequent means to take action. This implies the use of smoke detectors and alarms, together with adequate access to fire extinguishers and/or the more basic means of putting out fires, such as water and sand buckets. Insurance policies will normally state the expectations under the policy of the means to control fire losses. Again, this is an example of insurance being just a part of a cluster of measures used to control risk.

Theft and predation

Mysterious disappearance, rustling, theft, predation, escape are of growing concern in certain parts of the world. For example, and as already noted above, theft of livestock in Southern Africa is the major incentive for herders to use stock identification systems. Insurance policies often exclude theft and ‘mysterious disappearance’ from cover, due to the difficulty of proving that stock was present immediately prior to the disappearance. Even when this type of loss is covered, the policies are likely to specify high deductibles, thus forcing herders to rely principally on their own careful management to minimize losses of this type.

Fish farms, especially those in which fish are held in sea cages, are at risk from predation by sea birds, and also from seals and predator fish such as sharks. Cage design can assist in controlling predation of this sort, but only at a considerable cost in terms of the use of stronger materials. This risk has been covered by insurers in some developed countries, but losses have been considerable. There is little evidence that insurance for this type of risk will be readily available in most developing countries, in the foreseeable future. In inland, pond culture systems, animal predators can be responsible for significant losses. For example, monitor lizards are a particularly important source of predation losses of farmed fish in some African countries, for example, in Uganda.

Water quality

Water quality problems are of particular concern to aquaculture. In their natural environment, fish deal with threats to their survival by simply swimming away. When caged, or in ponds, this is not an option. Three main types of peril affect water quality:

•      Oxygen depletion – can be due to high water temperatures, or to decomposing organic matter, or to the presence of high concentrations of algae. The condition is also known as ‘summerkill’ ;

•      Pollution – may be organic or inorganic; it is worth noting that pollutants are not only the substances commonly classed as such; even fresh (non-saline) water can be a pollutant that causes harm to certain sensitive seawater species ; floods may also lead to pollution losses;

•      Algal blooms – often caused by a series of unusual weather events, giving rise to rapid multiplication of algae. Farmed fish, in cages, are unable to move to clear water, and can die through oxygen depletion in the water, from toxins produced by the algae or from other effects of the presence of algae, such as the clogging of the gills of the fish, with the result that oxygen transfer across the gill membranes is inhibited.

In the main, this risk is best addressed by farm management practices, starting with careful siting of fish cages, care with water recharge in pond systems, avoidance of over-stocking and even selection of species being farmed. However, some of the underlying causes of these problems may themselves be insurable.   Storms can induce summerkill in pond systems, by stirring up oxygen-deficient water from the bottom layer of ponds. Ponds, sea or lake cages, or shellfish may all be subject to pollution resulting from flooding of nearby land.

Accidents

Many insurance policies for livestock and aquaculture will cover losses from accidental poisoning, explosion, and other incidents resulting in infrastructure and environmental problems, and also machinery/electrical breakdown and power outages. Similarly, damage to structures (tanks, cages, sluices) from collisions on land or water will generally be included as insurable risks.

Losses from malicious damage, riot and strikes are sometimes covered in insurance policies, but insurers often list these risks as exclusions.

Consequential losses

As farming becomes more commercial, with contractual arrangements for supply to processors and exporters more common, so too can losses consequent upon a failure to supply farm products become an issue. Similarly, as food safety measures include such mechanisms as tracing produce back to points of origin, issues of responsibility for the freedom from harmful substances or pathogenic organisms can impact upon food producers. It is envisaged that consequential loss and legal liability due to such livestock losses and/or food safety considerations will have increasing financial consequences for producers, and may be a growing area for insurance protection in developing countries.

In Europe, consequential losses due to measures such as trade bans on livestock and livestock products, may be compensated through private insurance schemes (e.g. The Netherlands, Germany, UK), or through public-private partnerships (e.g. Denmark, Finland, Spain).

Management issues

These are usually rated as exclusions in livestock insurance policies. Examples include: infertility; loss of normal biological function; cannibalism and overcrowding losses; malnutrition (though the last named may be insurable when due to unexpected feed deficiencies, beyond the immediate control of the farm manager).

HOW DOES INSURANCE RELATE TO VARIOUS TYPES OF ENTERPRISE?

Benefit/cost issues

It is often stated that virtually any enterprise can be insured, against virtually any peril. However, primary industries such as livestock and aquaculture production pose stiff challenges to this general principle. Moreover, at the time of writing, with squeezed profit margins on the production of many livestock and aquaculture commodities, a paradoxical situation arises. The tight margins highlight the need for improved levels of risk management, including insurance, but also reduce the ability of farmers to buy the desired level of protection.

In the discussion below, the focus will be on identifying insurable areas of risk. These are determined by the nature of the livestock or aquaculture enterprise, and by the perils they commonly face. This means that some enterprise types and some perils are more suitable than are others for the use of insurance as part of a risk management strategy.

In this discussion, ‘insurance’ relates to the various types of contract, which make up the more traditional type of cover, as opposed to index policies. With the latter, the nature of the enterprise is less of an issue than the means for deriving the index.

Insurance of farming enterprises usually involves insurance of an expected future value, as a result of growth and/or reproduction This sets agricultural insurance apart from other property covers (e.g. motor vehicle, buildings, machinery) when the value (frequently maximum value) exists at the commencement of the insurance.

One of the factors that can determine whether a particular enterprise/peril combination is suitable for insurance is the ease and economy by which losses can be satisfactorily assessed. This will be touched on below, with some of the more general loss assessment issues discussed in greater detail in Chapter 8, under the section, Loss Assessment.

Intensive livestock enterprises

These include operations such as broiler and egg production units, high input/high output dairying, intensive pig production units and cattle feedlot operations.

Six features mark these types of enterprises as being potentially insurable at reasonable cost to the farmer:

•      They all involve significant investment in fixed infrastructure, coupled to high recurrent costs. They are also likely to involve bank loans, with loan servicing as a major cost item. There is therefore considerable dependence on a regular cash flow from sales.

•      Many intensive livestock enterprises have a defined production cycle, with identifiable ‘off take’ or marketing phases. This means that shortfalls in expected production can be identified at an early stage, and remedial action taken wherever possible to do so. Relevant examples include: dairying, broiler and egg production units.

•      The nature of intensive enterprises means that accurate records of stock numbers are likely to be kept.

•      Those managing the enterprise will have close contact with the livestock, meaning that animal health can be monitored carefully, and early action taken in order to control losses.

•      The managers are likely to have a good level of education and operate to a good standard of husbandry. This is likely to be accompanied by access to ongoing sources of up-to-date information on risk factors such as disease threats and imminent, extreme weather events.

•      Most intensive enterprises have a defined marketing chain and virtually all of the production enters the commercial market, and requires processing. This means that there is control over quantities produced, year after year, together with an opportunity for establishing a strong database of producers and of details of production enterprises. The availability of information of this sort is vital to creating the climate of confidence necessary for efficient and economical insurance transactions.

As a rule, the more commercial the nature of the enterprise, the greater will be the likelihood of identifying a cost-effective role for insurance in risk management. As a corollary, enterprises that fall outside of any of the factors listed above will be less likely to be able to utilise insurance as a risk management mechanism. This is due to their inability to pay the high premiums that would be charged as a result of the insurers’ perceptions of the risk involved.

Traditional mixed farming systems

It will be evident from the list in 7.2 above that traditional mixed farming systems that involve livestock do not lend themselves to conventional insurance approaches. This is because the enterprises are small and not highly monetized; moreover, the livestock and livestock products are consumed at home or are traded in an unrecorded local market, where tracing is all but impossible. This means that insurance assessments are similarly difficult for this type of livestock enterprise.

Similarly, on the demand side, this is limited by the risk management implicit in a mixed farming system. However, for those mixed farms where livestock income becomes of increasing importance, with a move towards a more commercial type of operation, then insurance products may well be sought for certain risks.

Again, where animal draught power is important in cropping operations, farmers have an added incentive to seek to insure some, at least, of their livestock. The loss of a key ox or buffalo can have a costly outcome for the farming operation as a whole, through its impact on the production and profit generated.

Nevertheless, novel approaches will be necessary in order to overcome the problems (administrative cost, lack of good information linkages) of dealing with small-scale clients. In this respect, the second Indian example quoted in Chapter 4 shows how a partnership between microfinance and insurance providers can develop insurance products suited to small-scale farmers, many of whom are operating mixed farming systems. An alternative approach is to turn to weather indices as the basis for insurance.

Extensive livestock ranching systems

Turning again to the six factors facilitating insurance applications to the management of risk in livestock production farming, it is clear that few apply to extensive ranching systems for larger livestock such as cattle and deer. For this reason, this type of enterprise is ill suited to conventional, individual-animal insurance approaches. On the other hand, whole herd policies, giving protection against catastrophic herd losses, due to perils such as drought, are likely to enjoy a demand.

Perhaps the most promising approach for insurance protection of this type is weather index cover (ref. Chapter 5, Section 5.5). The NDVI pasture index is currently in use in Spain, and a similar approach is used in Canada. Spain experienced, in 2005, the worst prolonged drought for more than 50 years, so the index was thoroughly tested under very difficult conditions. The result is reported to have been satisfactory.

Aquaculture – sea/lake cage systems

Perils that may kill fish in cage systems start with the water in which the cages are moored. Water can be the means of transmission of a variety of harmful organisms and substances. As already noted above, in their natural state fish can swim away from threats to their survival, whether such threats are in the form of algal blooms, pollutants, low levels of dissolved oxygen or predators. Caged fish do not enjoy this option.

There are structural issues too with cage systems. Sea water sites that are optimum for fish health and wellbeing are those that are characterised by high levels of water exchange, which in the main means they should have some degree of exposure to winds, tides and currents. These factors are not conducive to the ease and safety of moorings, and to the structural integrity of the cages.

Cage systems of aquaculture involve frequent feeding of the fish, and therefore a high level of human oversight of the operation. As such, the health of the stock can be monitored and remedial action taken when a problem is identified. Moreover, cage systems are generally well-documented, since cages are stocked with fingerlings, and the numbers of these are known.

These two factors, the presence of records, and the monitoring of fish health, are both positive as far as an insurer is concerned. However, because the cage rearing of fish is still a new type of farming, with the magnitude of many of the risks being still unknown, insurance product availability is far from certain. This applies especially to policies that cover diseases and parasitical infestations, though some experts believe that it should be possible to design policies to cover the risk of exotic diseases for which on-farm control measures have yet to be developed. Such policies, as and when available, are likely to carry a high level of deductible, say more than 20 percent of the total sum insured

Insurance against storms and severe weather events is likely to be more readily obtained, though insurers impose stringent requirements in terms of the design adequacy and condition of moorings and cages.

Aquaculture – pond systems

The generally poor results of insurance products geared to pond cultivation in various Asian countries (ref. Chapter 4 above), especially of shrimp, serves to underline the challenges of this type of aquaculture. It is no surprise therefore that as a whole, and at the time of writing (2005) this class of aquaculture in Asia is believed to be virtually uninsured, despite the importance of this type of aquaculture in many parts of the region. In Latin America, it is understood that shrimp insurance has been available in Mexico for a number of years.

Apart from the losses that insurers have experienced in the few experimental programmes to date, there are some fundamental reasons for the reluctance of insurers to assume part of the risk of this class of aquaculture. Firstly, records are seldom kept, or if kept, are not often thought to be reliable. Second, the farmers have a tendency to attempt to maximise profits by overstocking their ponds, even where much extension advice dwells on the dangers of disease and parasite build-up, and subsequent mortality, when the stocking rate is too high. Third, the level of education of many pond farmers is still very low, meaning that they are less exposed to sources of advice on better management, and threats such as disease outbreaks.

On the positive side, and as with cage farmers, insurance against storm damage should eventually be possible, possibly through index approaches, with technology yet to be developed.

Aquaculture – recirculation systems

Recirculation systems of fish rearing depend for their success on close and careful control of water quality factors – pH, dissolved oxygen, temperature, presence of organic or inorganic toxins, etc. Along with this close level of control of water quality, the health of fish stocks is readily monitored as they can be seen easily in the tanks and raceways. These controls mean that the most situations that could lead to abnormal mortality can be quickly identified and remedial action taken. Given the dependence of recirculation systems on machinery and power, risks to these are likely to lead to a demand for appropriate insurance cover, since the nature of the installation means that high fish mortality can result from an interruption to water flow.

From the point of view of the insurer, farmers operating recirculation systems are likely to have invested considerable sums in plant design and construction. They are also likely to have appropriate back-up mechanisms in place, for example, standby power-generation machinery. Records are likely to be sufficiently accurate and informative to give confidence to an insurance underwriter that the risk he is asked to assume is readily quantified and that moral hazard risk is minimized.

INSURANCE ADMINISTRATION

Loss assessment issues

The ability to assess losses is a sine qua non for any standard insurance business. For this reason, this chapter, on insurance administration, starts with a brief consideration of loss assessment issues. This discussion focuses on conventional insurance. Index-based policies avoid the challenges posed by loss assessment.

With livestock and aquaculture insurance, loss assessment procedures centre on the need to ascertain that mortality has occurred, and that the cause was an insured peril. Where the policy is not ‘all-risks’ but rather ‘named-perils’ then any loss assessment process should also be able to ascertain as to whether the loss was caused by an insured peril. If this is difficult or impossible, then even at the product design stage, it might be necessary to make a judgement that an insurance approach may not be appropriate.

As in any insurance contract, it is vital that the process of loss assessment is made clear, so that in the event of a loss, the assessment process can start in a manner that has the prior agreement of both insurer and insured.

The loss must then be measured, and the indemnity to be paid determined. The whole process of assessing the loss, determining the indemnity and paying it, is known as loss adjustment.

The loss assessment process will take into account any financial benefit that can accrue if the dead stock is sold. For example, in Finland, salmon dying as a result of some types of physical damage (from birds, for example) can be sold as food for animals farmed for their fur pelts, e.g. minks.

Cost containment

The management of insurance, as a business, has several stages. These are: market identification, product development, setting indemnity and premium levels, marketing, risk selection and policy issuance, collecting premiums, accumulation control and handling claims. The over-riding aim in the design of administrative structures and procedures is to lay a foundation for minimising costs. Since the potential clientele comprises small and often widely dispersed growers, costs can easily escalate to the point of non-viability of the business, unless special care is taken. In this connection, the new index insurance products, mentioned earlier, offer much scope for drastically lowering the costs of administering a financial risk management mechanism.

The various stages of standard insurance administration offer some scope for economies. The tasks involved in these stages are briefly described below, with mention of particular examples where efficient procedures have been developed in order to save costs.

The extent of involvement of the public sector varies from country to country, but it always has a role, even if this is exercised in the main through setting supportive and regulatory policies. It may be particularly important in the early stages of developing new insurance products, and in situations where financial support is considered both desirable and possible.

Market identification and product development

This is a vital stage. Buying insurance involves increasing the up-front costs for a farmer. The advantages of buying cover must be clear, with careful positioning of any proposed insurance product. Firstly, this means recognising that insurance as such may not have a legitimate role in a particular industry for the major perils as seen by the owners. Secondly, where there is believed to be a role, it means that careful attention must be paid to benefit/cost considerations for both contracting parties – the insured and the insurer. These two conditions can best be met by identifying the real points of financial risk in an enterprise type, and examining whether a financial risk-sharing mechanism can be economically applied.

In general, the more commercial the operation, the more likely is it that insurance could be designed to address certain of the risks involved. This applies, in particular, to the intended market for the produce of the insured farming enterprises. A formal, commercial market implies the ability to collect information on quantities of production from particular producers. Time series data of this type, since they are based on transactions involving payment, are likely to be highly accurate. A market outlet may also facilitate administrative economies in arranging the cover, or even in paying premiums.

At this stage too it is important to identify the insurer. Is it to be a local general insurance company, perhaps one that has little direct connection with the clientele? This is the case with the BASIX insurance in India, where the insurer utilises the existing interface of the microfinance provider with the clientele, while using in-house insurance expertise for product design and underwriting.

Alternatively, it can be handled by a special agency, as is the case in Iran, where much effort goes into building up the specialist knowledge required within the insurance company. It is not possible to give an opinion as to which of these alternatives is better. However, one can note that if an existing company were to take on livestock and/or aquaculture risks as an additional line of business, then it will start a number of advantages:

a)        It will already have staff trained in insurance;

b)        It will have, in place, the necessary systems to handle information concerning the sums insured, and claims;

c)        It will have accounting systems in place;

d)       It is likely to have existing business relationships with re-insurers;

e)        It will have a capital base, one that may be sufficient for it to enter into a new area of business.

f)         It will already have a government licence to transact insurance business.

Realistically, neither livestock and nor aquaculture insurance in developing countries is likely to be any more attractive to existing insurers than is lending in these sectors to most commercial banks. As with the provision of financial services to these sectors, special attention will be needed to careful design, and identification of suitable innovative approaches. The impressive BASIX example in India (see Chapter 4) is a case in point.

Product design, and the determination of the required administrative arrangements for these types of insurance as a new line of business, whether in an existing company, or in a new entity, calls for the best experience available. At the time of writing, the required expertise is most likely to be found within the reinsurance industry, and with specialized consultants/researchers.

Costs are likely to be substantial, for product development is a highly skilled task, requiring a detailed knowledge of livestock farming / aquaculture, coupled with a sound appreciation of the principles and operational imperatives of insurance. As such, this can be an expensive stage in the process, but it is an investment with which international agencies can often assist.

This assistance might be in the form of direct partnership in product design, or training existing insurance staff to handle the new challenges. In practice, it is likely to start with both approaches. What is important to note is that the design of insurance products, like the design of products for other financial services, is an ongoing task.

Marketing

Implicit in any moves to start livestock or aquaculture insurance is the assumption that there is a demand for the product. Whereas automatic or compulsory insurance has many advantages, it is not often possible to design or to get the necessary agreements with farmers for this type of policy. Marketing therefore is important. Several factors are important here:

a)                  Close links with the representatives of farmers, and speedy response to new needs for insurance.

b)                  Similar linkages with banks, product buyers and others with business connections with insured producers.

c)                  Attention to appropriate publicity, including information packages designed for farmers.

d)                 Scrupulous fairness in loss assessment and claims handling.

e)                  Speedy payment of claims.

f)                   Appropriate staff training.

Setting indemnity and premium levels; valuation; deductibles

In conventional insurance, the basic issue to be addressed is whether the insurance is meant to substitute for farm income in the event of a loss event, or whether the indemnity would merely cover the cost of inputs lost, because of mortality. The second option is certainly the easier and lower cost alternative, as the level of overall coverage would be significantly less. The second alternative is also the most commonly used in existing livestock and aquaculture insurance policies. This means that as a given enterprise goes through a cycle, costs increase (more food, more use of veterinary products, more labour) and thus the basis for valuation also increases.

With index policies, the choice would be more flexible, since an insured individual could choose the level of coverage, purchasing the number of units that suits his or her needs.

In any case, it is vital that an actuarial balance is struck between premium and indemnity levels, and that this balance be continually checked in order to ensure the financial sustainability of the programme, and its ability to meet commitments to insured producers.

A key issue is the level of deductible (excess) that applies. The effect is twofold. Firstly, and more obviously it impacts directly on the premium level through an inverse relationship between the quantum of deductible and the pure premium required for a given level of insurance protection. Secondly, it also impacts through economies in loss assessment and adjustment costs. Having a significant deductible, since it implies self-insurance of the first part of any loss, means that minor losses will not prompt a claim, and therefore no loss assessment will take place.

With both livestock and aquaculture policies it is necessary to distinguish between individual animal insurance (individual cage/rack/pond in the case of aquaculture) and policies that apply to a whole herd (whole location – group of cages/racks/ponds for aquaculture). In individual policies, the deductible (co-insurance) applies to the individual animal and might be typically 10 to 20 percent of the sum for which the animal is insured. Such cover is expensive, with rates for dairy cows being typically 5 to 7.5 percent of the sum insured, and 10 percent or more for pigs. Whole herd policies specify a deductible expressed as number of head lost, say two deaths out of 100 in a 100-cow herd. Whole herd policies avoid small losses, and enable insurers to offer cover more cheaply. Whole site deductibles for aquaculture similarly mean lower premiums than when deductibles apply to individual cages, racks or ponds.

A major area of difficulty in setting indemnity and premium levels is the lack of data linking the incidence of adverse weather events, disease outbreaks or other insured perils, and actual losses. Experience has shown that historic newspaper reports are unreliable (they usually exaggerate the losses) and that reports kept by government ministries are similarly inaccurate, since in the absence of insurance there is little incentive, or need, for precision.

In any case, insurance products in agriculture are seldom launched on the basis of all the data an actuary would wish to have in order to set premiums at the level required to meet expected indemnity liabilities. Experience must be gained during the early years of a programme. During this period, adjustments can be made to the indemnity and premium levels, and also to the percentage of deductible applied.

Collecting premiums

The main objective here is to keep costs as low as possible. Consequently, there is a strong incentive to build linkages with existing providers of services to the livestock and/or aquaculture sector.

Perhaps the most obvious linkage is between the insurer and banks serving the same clientele. In this case, the premium for insurance protection could be included in the loan, as a cost item alongside other expenses for the growing cycle in question. These other expenses could be the costs of young stock (e.g. fingerlings in aquaculture), feed costs and veterinary expenses. Since the premiums in such cases are paid in bulk by the banks to the insurer, costs are minimized.

Similarly, there is sometimes scope to build insurance into the transactions between certified hatcheries of fish fingerlings and fish farmers, or between suppliers of young poultry (e.g. day-old chicks) and broiler and egg producers. Such arrangements have the added benefit of facilitating technical assistance and sharing of technical expertise.

Handling claims

Again, cost containment is very much an objective in designing procedures for the notification of claims, for assessing the losses and for paying indemnities. Clearly, the big divide is between the older, traditional type of policy, in which losses need to be assessed on each individual enterprise, and the newer types of policies in which a wholesale approach is possible.

As already noted, a further potent field for cost economies is through building linkages with entities already providing services to farmers. These include banks, input suppliers, processors and other buyers.

It is worth repeating that index policies neatly avoid most of the steps involved in claims handling. This is a major reason for the index approach to have a greater potential for developing countries than that enjoyed by conventional insurance.

Roles for government and the private sector

As a business, insurance belongs in a business setting. However, the very nature of primary industry insurance operations for livestock and aquaculture risks means that there is bound to be strong governmental involvement.

Most governments have a close interest in risk management for basic industries of this nature, both for productivity reasons, and for concern for the wellbeing of rural populations. This often means, in practice, that governments are active, not only in an overall policy and prudential regulatory sense, (and in some countries state-owned enterprises also directly transact insurance business) but can be more directly involved in other ways. This can start with capacity building geared for the special nature and demands of primary industry insurance operations.

These other ways may include funding the initial investigation of the feasibility of introducing insurance products for risks in livestock and/or aquaculture enterprises. Another is ensuring that the necessary infrastructure for efficient insurance business is in place; an example of infrastructural needs is a network of accurate and reliable weather recording stations.

In many cases, the assistance by the government it may also involve funding part of the initial operational costs, once an insurance product is launched. It may extend to providing a ‘start­up’ subsidy to the premium pool, and a layer of reinsurance for the first few years of operations.

Spain has an interesting private-public sector partnership in offering insurance products for livestock and aquaculture enterprises, and for agriculture as a whole. The partnership revolves around Agroseguro, an entity that is, in effect, a pool of more than 40 insurers co-insuring agricultural risks. Products are based on an annual ‘insurance plan’ that is jointly developed by producers (the eventual buyers of insurance), the insurers, and Enesa, an agency of the Ministry of Agriculture. Enesa also provides premium subsidies. Finally, a Reinsurance Consortium is run by the Ministry of Economics, and this provides reinsurance for the products offered under the insurance plan.

The Spanish example suits a developed country where agriculture still occupies a section of the population in which significant numbers are disadvantaged as compared with the population as a whole. However, the Spanish system is costly, with some Euro200 million in public funds applied as subsidy to the programme in 2003. Few developing countries could afford this level of support.

The Spanish example attempts to harness the best of both private and public sectors. There are strong reasons for the business operations in insurance to be handled by a commercial concern (as in Spain, by Agroseguro and its pool participants). This is for reasons of efficiency, and convenience in terms of insurance operations complementing other commercially-run services to farming.

As already noted, the public sector role is also important. However, the dual parentage of this area of insurance can lead to tensions. The most crucial areas of concern lie in the areas of premium setting and claims handling. In these areas, experience has shown that undue and inappropriate political influence on an insurer can be very damaging.

Accordingly, much attention is given during the design of livestock and aquaculture insurance programmes to avoiding these tensions to the extent possible. Such avoidance is aimed at optimising the role of the public sector, while harnessing the drive and efficiency of the commercial insurance sector.

Several steps are involved. One listing might suggest the following as important:

a)                  Ensure that any existing company or new entity has a sound legal basis on which to offer insurance products, with the required level of business competence.

b)                  Clarify the government’s objective in promoting insurance for livestock and aquaculture producers. Is it purely an additional risk management mechanism, or is it also an avenue of subsidy to these sectors? If the latter is the case, then the avenue for financial support has to be ring-fenced from day-to-day political interference. This is not easily done, yet it is essential if there is to be the required continuity of financial conditions in order to build efficiency and fairness into the system.

c)                  Establish strong linkages, at an early stage, with international re-insurers. These companies can assist not only with technical advice, but can also be instrumental in ensuring the necessary adherence to correct application of premium setting procedures, and settlement of claims. Although the opportunity for profit may be some years away, such companies are often prepared to become involved in a new field of business, or work in a new geographical area. They operate with long-term time horizons, and this can work very much to the benefit of a nascent insurance product line – whether this is being offered by a new company or by a new section within an established company.

d)                 The financial base for the insurer must be adequate. This must be sufficient to survive initial years in which conditions might be such that underwriting profits are sharply negative. On top of this loss, administrative expenses have to be met. In many developing countries there may have to be public sector participation in ensuring a sound financial base.

e)                  Work closely with representatives of the production sectors. This will help ensure that the services and products meet real, felt needs, and that they enjoy a lively demand as a result. Again, the Spanish example quote above indicates how this is done, with producers collaborating with insurers and the Ministry of Agriculture in the production of the annual insurance plan.

25.10.2022

A Practical Method for Adjusting the Premium Rates in Crop-Hail Insurance with Short-Term Insurance Data

The frequency of hailstorms is generally low in small geographic areas. In other words, it may be very likely that hailstorm occurrences will vary between neighboring locations within a short period of time. Besides, a newly launched insurance scheme lacks the data. It is, therefore, difficult to sustain a sound insurance program under these circumstances, with premium rates based on meteorological data without a complimentary adjustment process.

18.10.2019

Malta - Vegetable production dropped 7% in 2018

Last year, Malta’s local vegetable produce dropped by 7% when compared to the previous year. The total vegetables produced in tonnes amounted to 58,178, down by 7% when compared to 2017. Their value too diminished as the total produce was valued at €30 million, down by 13% over the previous year. The most significant drop was in potatoes, down by 27% over the previous year. Tomatoes and onions were the only vegetables to have increased in volume, by 3% and 4% respectively but their value diminished by 9% and 24% respectively. The figures were published by the National Statistics Office on the event of World Food Day 2019, which will be celebrated on Wednesday. Cauliflower, cabbage and lettuce produce dropped by 10%, 3%, and 12% respectively. In the realm of local fruit, a drop of produce was registered here too apart from strawberries, which experienced a whopping increase of 58% over 2017. Total fruit produced in 2018 amounted to 13,057 tonnes, down by 1% when compared to 2017. The total produce was valued at €10 million, a 3% increase in value. Peaches produced were down by 35% and the 376 tonnes of peaches cultivated amounted to €0.5 million in value. Orange produce dropped by 10% and lemon produce dropped by 14%. There was no change in the amount of grapes produced and the 3,642 tonnes of grapes produced in 2018 were valued at €2.3 million. 70% of fruit and vegetables consumed in Malta is imported. The drop in local produce could be the result of deleterious or unsuitable weather patterns. Source - https://www.freshplaza.com

07.10.2019

USA - Greenhouse tomato production spans most states

While Florida and California accounted for 76 percent of U.S. production of field-grown tomatoes in 2016, greenhouse production and use of other protected-culture technologies help extend the growing season and make production feasible in a wider variety of geographic locations. Some greenhouse production is clustered in traditional field-grown-tomato-producing States like California. However, high concentrations of greenhouses are also located in Nebraska, Minnesota, New York, and other States that are not traditional market leaders. Among the benefits that greenhouse tomato producers can realize are greater market access both in the off-season and in northern retail produce markets, better product consistency, and improved yields. These benefits make greenhouse tomato production an increasingly attractive alternative to field production despite higher production costs. In addition to domestic production, a significant share of U.S. consumption of greenhouse tomatoes is satisfied by imports. In 2004, U.S., Mexican, and Canadian growers each contributed about 300 million pounds of greenhouse tomatoes annually to the U.S. fresh tomato market. Since then, Mexico’s share of the greenhouse tomato market has grown sharply, accounting for almost 84 percent (1.8 billion pounds) of the greenhouse volume coming into the U.S. market. Source - https://www.freshplaza.com

03.10.2019

World cherry production will decrease to 3.6 million tons

According to information from the USDA for the 2019-2020 season, world cherry production is expected to decrease slightly and amount to 3.6 million tons. This decline is due to the damages that the weather caused on cherry crops in the European Union. Even though Chile is expected to achieve a record export, world trade in cherries is expected to drop to 454,000 tons, based on lower shipments from Uzbekistan and the US. Turkey Turkey's production is expected to increase to 865,000. As a result of the strong export demand, producers continue to invest and improve their orchards, switching to high yield varieties and gradually expanding the surface for sweet cherries. More supplies are expected to increase exports to a record 78,000 tons, continuing its long upward trend. Chile Chile's production is forecast to increase from 30,000 tons to 231,000 as they have a larger area of mature trees. Between 2009/10 and 2018/19, the crop area has almost tripled, a trend that is expected to continue. The country is expected to export up to 205,000 tons in higher supplies. The percentage of exports destined for China has increased from 13 to almost 90% since 2009/10. China China's production is expected to increase by up to 24% and to amount to 420,000 tons, due to the recovery of the orchards that were damaged by frost last year. In addition, there are new crops that will go into production. Imports are expected to increase by 15,000 tons and to stand at 195,000 tons, as the increase in supplies from Chile will more than compensate for the lower shipments from the United States. Although higher tariffs are maintained for American cherries, the United States is expected to remain China's main supplier in the northern hemisphere. United States US production is expected to remain stable at 450,000 tons. Imports are expected to increase to 18,000 tons with more supplies available from Chile. Exports are forecast to decrease for the second consecutive year to 80,000 tons, as high retaliatory tariffs continue to suppress US shipments to China. If this happens, it will be the first time that US cherry exports experience a decrease in 2 consecutive years since 2002/03, when production suffered a fall of 44%. European Union EU production is projected to fall by more than 20%, remaining at 648,000 tons because of the hail that affected the early varieties in Italy, and the frost, low temperatures, and drought that caused a significant loss of fruit in Poland, the main producer. Lower supplies are expected to pressure exports to 15,000 tons and increase imports to 55,000 tons. Russia Russia's imports are expected to contract by 13,000 tons to 80,000 with lower supplies from Kazakhstan, Moldova, and Serbia. Source - https://www.freshplaza.com

09.08.2019

EU - 20% fewer apples and 14% fewer pears than last year

This year's European apple production is expected to come to 10,556,000 tons. That is 20% less than last year. It is also 8% less than the average over the past three years. The European pear harvest is expected to be 2,047,000 tons. This is 14% lower than last year and 9% less than the previous three seasons average. These figures are according to the World Apple and Pear Association, WAPA's top fruit prognoses. They presented their report at Prognosfruit this morning. Apple harvest per country Poland is Europe's apple-growing giant. This country is expected to process 44% fewer apples. The yield is expected to be 2,710,000 tons. Last year, this was still 4,810,000 tons. In Italy, yields are only three percent lower than last year. According to WAPA, this country will have an apple harvest of 2,195,000 tons. France takes third place. They will even have 12% more apples than last year to process - 1,652,000 tons. Pear harvest per country With 511,000 tons, Italy's pear harvest is much lower than last year. It has dropped by 30%. In terms of the average over the previous three seasons, this fruit's yield is 29% lower. In the Netherlands, the pear harvest is expected to be six percent lower, at 379,000 tons. This volume is still 3% more than the average over the last three years. Belgium has 10% fewer pears (331,000 tons) than last year. They are just ahead of Spain. With 311,000 tons, Spain who will harvest four percent more pears. Apple harvest per variety The Golden Delicious remains, by far, the largest apple variety in Europe. It is expected that 2,327,000 tons of these apples will be harvested this year. This is three percent less than last year. At 1,467,000 tons, Gala estimations are exactly the same as last year. The European Elstar harvest will also be roughly equivalent to last year. A volume of 355,000 tons of this variety is expected. Pear harvest per variety Looking at the different varieties, the European Conference is estimated to be 8% lower than last year. A volume of 910,000 tons is expected. The low Italian pear estimate will result in 34% fewer Abate Fetel pears (211,000 tons) being available. This is according to WAPA's estimate. This makes this variety smaller than the Williams BC (230.000 ton) in Europe. Source - https://www.freshplaza.com

30.01.2018

Spring frost losses and climate change not a contradiction in terms - Munich Re

Between 17 April and 10 May 2017, large parts of Europe were hit by a cold snap that brought a series of overnight frosts. As the budding process was already well advanced due to an exceptionally warm spring, losses reached historic levels – particularly for fruit and wine growers: economic losses are estimated at €3.3bn, with around €600m of this insured. In the second and third ten-day periods of April, and in some cases even over the first ten days of May 2017, western, central, southern and eastern Europe experienced a series of frosty nights, with catastrophic consequences in many places for fruit growing and viticulture. The worst-affected countries were Italy, France, Germany, Poland, Spain and Switzerland. Losses were so high because vegetation was already well advanced following an exceptionally warm spell of weather in March that continued into the early part of April. For example, the average date of apple flowering in 2017 for Germany as a whole was 20 April, seven days earlier than the average for the period 1992 to 2016. In many parts of Germany, including the Lake Constance fruit-growing region, it even began before 15 April. In the case of cherry trees – whose average flowering date in Germany in 2017 was 6 April – it was as much as twelve days earlier than the long-term average. The frost had a devastating impact because of the early start of the growing season in many parts of Europe. In the second half of April, it affected the sensitive blossoms, the initial fruiting stages and the first frost-susceptible shoots on vines. Meteorological conditions The weather conditions that accounted for the frosty nights are a typical feature of April, and also the reason for the month’s proverbial reputation for changeable weather. The corridor of fast-moving upper air flow, also known as the polar front, forms in such a way that it moves in over central Europe from northwesterly directions near Iceland. This north or northwest pattern frequently occurs if there is high air pressure over the eastern part of the North Atlantic, and lower air pressure over the Baltic and the northwest of Russia. Repeated low-pressure areas move along this corridor towards Europe, bringing moist and cold air masses behind their cold fronts from the areas of Greenland and Iceland. Occasionally, the high-pressure area can extend far over the continent in an easterly direction. The flow then brings dry, cold air to central Europe from high continental latitudes moving in a clockwise direction around the high. It was precisely this set of weather conditions with its higher probability of overnight frost that dominated from mid-April to the end of the month. There were frosts with temperatures falling below –5°C, in particular from 17 to 24 April (second and third ten-day periods of April), and even into the first ten-day period of May in eastern Europe. The map in Fig. 2 shows the areas that experienced night-time temperatures of –2°C and below in April/May. High losses in fruit and wine growing Frost damage to plants comes from intracellular ice formation. The cell walls collapse and the plant mass then dries out. The loss pattern is therefore similar to what is seen after a drought. Agricultural crops are at varying risk from frost in the different phases of growth. They are especially sensitive during flowering and shortly after budding, as was the case with fruit and vines in April 2017 due to the early onset of the growing season. That was why the losses were so exceptionally high in this instance. In Spain, the cold snap also affected cereals, which were already flowering by this date. Even risk experts were surprised at the geographic extent and scale of the losses (overall losses: €3.3bn, insured losses: approximately €600m). Overall losses were highest in Italy and France, with figures of approximately a billion euros recorded in each country. Two basic concepts for frost insurance As frost has always been considered a destructive natural peril for fruit and wine growing and horticulture, preventive measures are widespread. In horticulture, for example, plants are cultivated in greenhouses or under covers, while in fruit growing, frost-protection measures include the use of sprinkler irrigation as well as wind machines or helicopters to mix the air layers. Just how effective these methods prove to be will depend on meteorological conditions, which is precisely why risk transfer is so important in this sector. There are significant differences between one country and the next in terms of insurability and insurance solutions. But essentially there are two basic concepts available for frost insurance: indemnity insurance, where hail cover is extended to include frost or other perils yield guarantee insurance covering all natural perils In most countries, the government subsidises insurance premiums, which means that insurance penetration is higher. In Germany, where premiums are not subsidised and frost insurance density is low, individual federal states like Bavaria and Baden-Württemberg have committed to providing aid to farms that have suffered losses – including aid for insurable crops such as wine grapes and strawberries. Late frosts and climate change There are very clear indications that climate change is bringing forward both the start of the vegetation period and the date of the last spring frost. Whether the spring frost hazard increases or decreases with climate change depends on which of the two occurs earlier. There is thus a race between these two processes: if the vegetation period in any given region begins increasingly earlier compared with the date of the last spring frost, the hazard will increase over the long term. If the opposite is the case, the hazard diminishes. Because of the different climate zones in Europe, the race between these processes is likely to vary considerably. Whereas the east is more heavily influenced by the continental climate, regions close to the Atlantic coastline in the west enjoy a much milder spring. A study has shown that climate change is likely to significantly reduce the spring frost risk in viticulture in Luxembourg along the River Moselle1. The number of years with spring frost between 2021 and 2050 is expected to be 40% lower than in the period 1961 to 1990. By contrast, a study on fruit-growing regions in Germany2 concluded that all areas will see an increase in the number of days with spring frost, especially the Lake Constance region, where reduced yields are projected until the end of this century. At the same time, however, only a few preliminary studies have been carried out on this subject, so uncertainty prevails. Outlook The spring frost in 2017 illustrated the scale that such an event can assume, and just how high losses in fruit growing and viticulture can be. Because the period of vegetation is starting earlier and earlier in the year as a result of climate change, spring frost losses could increase in the future, assuming the last spring frost is not similarly early. It is reasonable to assume that these developments will be highly localised, depending on whether the climate is continental or maritime, and whether a location is at altitude or in a valley. Regional studies with projections based on climate models are still in short supply and at an early stage of research. However, one first important finding is that the projected decrease in days with spring frost does not in any way imply a reduction in the agricultural spring frost risk for a region. So spring frosts could well result in greater fluctuations in agricultural yields. In addition to preventive measures, such as the use of fleece covers at night, sprinkler irrigation and the deployment of wind machines, it will therefore be essential to supplement risk management in fruit growing and viticulture with crop insurance that covers all natural perils. Source - ttps://www.munichre.com/

17.05.2014

Russia Livestock Overview: Cattle, Swine, Sheep & Goats

Private plots generate 48 percent of cattle, 43 percent of swine and 54 percent of sheep and goats in Russia.  The Russian government recently approved a new program that will succeed the National Priority Project in agriculture (NPP) titled, “TheState Program for Development of Agriculture and Regulation of Food and Agricultural Markets in 2008-2012,” that encourages pork and beef production and attempts to address Russia’s declining cattle numbers.  This program includes import-substitution policies designed to stimulate domestic livestock production and to protect local producers. In the beginning of 2007, the economic environment for swine production was generally unfavorable.  The average production cost was RUR40-45/kilo of live weight, while the farm gate price was RUR40/kilo live weight.  Pork producers have been expressing concern for years about sales after implementation of the NPP as pork consumption is growing at a slower rate than pork production.  As a result, the pork sector has been lobbying the Russian government to regulate imports in spite of the meat TRQ agreement. From January-September 2007, 1.38 million metric tons (MMT) of red meat was imported.  A 12-year decline in beef production has resulted in limited beef availability in the Russian market leading to a spike in prices.  In response, the Russian government has been force to take steps to increase the availability of beef by lifting a meat ban on Poland and by looking to Latin America for higher volumes of product.  Feed stocks decreased during the first 11 months of 2007 compared to the previous year which will likely create even greater financial problems for livestock operations in 2008 as feed prices continue to skyrocket.  Grain prices increased rapidly in Russia through the middle of July 2007 before stabilizing at high levels as harvest progress reports were released. The Russian pig crop is expected to increase by 6 percent in 2008, while cattle herds are predicted to decrease by 3.5 percent.  Some meat market analysts predict that by 2012, as new and modernized pig farming complexes reach planned capacity, pork production could reach 3.5 MMT – up 75 percent from 2008 estimates. According to the Russian Statistics Agency (Rosstat), 1/3 of all Russian “large farms” are unprofitable.  Many of these are involved in livestock production.  Small, inefficient producers are uncompetitive and have already begun disappearing from the market. The Russian veterinary service continues to playa decisive role in meat import supply management. Source - http://www.cattlenetwork.com

27.11.2012

Statistics Canada : Farm income, 2011

Realized net income for Canadian farmers amounted to $5.7 billion in 2011, a 53.1% increase from 2010. This rise followed a 19.0% increase in 2010 and a 19.6% decline in 2009. Realized income is the difference between a farmer's cash receipts and operating expenses, minus depreciation, plus income in kind. Realized net income fell in four provinces: Newfoundland and Labrador, Nova Scotia, Manitoba and British Columbia. In each, increases in costs outpaced gains in receipts. Farm cash receipts Farm cash receipts, which include market receipts from crop and livestock sales as well as program payments, rose 11.9% to $49.8 billion in 2011. This was the first increase since 2008. Market receipts alone increased 12.0% to $46.3 billion. Crop receipts, which increased 15.8% to $25.9 billion, contributed the most to the increase. Sales from livestock products rose 7.5% to $20.3 billion, the largest annual increase since 2005. Stronger prices for grains and oilseeds played a major role in the increase in crop revenues. For example, canola receipts increased 37.3% in 2011 on the strength of a 27.3% gain in prices. Grains and oilseed prices started rising in the last half of 2010 as a result of limited global stocks and strong demand. Even though prices peaked in mid-2011, prices for the year, on average, remained well above 2010 levels. Crop receipts rose in every province except Manitoba and Newfoundland and Labrador. In Manitoba, difficult growing conditions reduced marketings of most grains and oilseeds. In Prince Edward Island and New Brunswick, increases in potato prices and marketings helped push crop receipts higher. It was also stronger prices that were behind the rise in livestock receipts. Hog receipts increased 15.5% to $3.9 billion on the strength of a 14.7% price increase. Cattle prices rose 19.5% in 2011, while receipts increased 1.1% because of a reduced supply of market animals. Hog, cattle and calf prices increased in 2010. The upward trend continued throughout most of 2011, primarily because of low North American inventories and high feed grain costs. Receipts for producers in the three supply-managed sectors-dairy, poultry and eggs-increased 7.9% as rising prices reflected higher costs for feed grain and other production inputs. A 14.9% rise in chicken receipts exceeded increases for eggs (+8.7%) and dairy products (+5.3%). Program payments increased 11.2% to $3.5 billion in 2011. Increases in Quebec provincial stabilization payments as well as crop insurance payments in Manitoba and Saskatchewan accounted for much of the rise. Farm expenses Farm operating expenses (after rebates) were up 8.4% to $38.3 billion in 2011, the second-largest percentage increase since 1981. This increase followed two consecutive years of modest declines. Higher prices for fertilizer, feed and machinery fuel contributed to the increase in operating expenses. According to the Farm Input Price Index, both fertilizer and machinery fuel prices were up by over 25% in 2011. At the same time, feed grain prices increased by more than 30%. When depreciation charges were included, total farm expenses increased 8.2% to $44.1 billion. Depreciation costs rose 6.9%. Total farm expenses advanced in every province in 2011. The largest percentage increases occurred in Saskatchewan (+12.3%), Quebec (+9.5%) and Alberta (+9.0%). Total net income Total net income reached $5.8 billion, a $3.3 billion gain. There were large increases in Saskatchewan (+$2.1 billion), Alberta (+$567 million) and Ontario (+$470 million), while Newfoundland and Labrador, New Brunswick and Manitoba saw declines. Total net income adjusts realized net income for changes in farmer-owned inventories of crops and livestock. It represents the return to owner's equity, unpaid labour, and management and risk. The total value of farm-owned inventories rose by $165 million in 2011. A strong increase in deferred grain payments together with the first increase in cattle inventories since 2004 contributed to the rise. Note to readersRealized net income can vary widely from farm to farm because of several factors, including commodities, prices, weather and economies of scale. This and other aggregate measures of farm income are calculated on a provincial basis employing the same concepts used in measuring the performance of the overall Canadian economy. They are a measure of farm business income, not farm household income. Financial data for 2011 collected at the individual farm business level using surveys and other administrative sources will soon be tabulated and made available. These data will help explain differences in performance of various types and sizes of farms. For details on farm cash receipts for the first three quarters of 2012, see today's "Farm cash receipts" release. As a result of the release of data from the 2011 Census of Agriculture on May 10, 2012, data on farm cash receipts, operating expenses, net income, capital value and other data contained in the Agriculture Economic Statistics series are being revised, where necessary. The complete set of revisions will be released in the November 26, 2013, edition of The Daily. Table 1 Net farm income 2009 2010r 2011p 2009 to 2010 2010 to 2011 millions of dollars % change + Total farm cash receipts including payments 44,599 44,466 49,772 -0.3 11.9 - Total operating expenses after rebates 36,052 35,315 38,276 -2.0 8.4 = Net cash income 8,547 9,151 11,496 7.1 25.6 + Income-in-kind 39 40 45 2.6 11.1 - Depreciation 5,471 5,483 5,864 0.2 6.9 = Realized net income 3,115 3,709 5,677 19.0 53.1 + Value of inventory change -281 -1,157 165 ... ... = Total net income 2,834 2,551 5,842 ... ... Table 2 Net farm income, by province Canada Newfoundland and Labrador Prince Edward Island Nova Scotia New Brunswick Quebec millions of dollars 2010r + Total farm cash receipts including payments 44,466 118 407 500 479 7,171 - Total operating expenses after rebates 35,315 106 367 422 406 5,472 = Net cash income 9,151 12 41 78 73 1,699 + Income-in-kind 40 0 0 1 1 10 - Depreciation 5,483 8 41 59 54 727 = Realized net income 3,709 4 0 19 20 983 + Value of inventory change -1,157 -0 18 0 9 13 = Total net income 2,551 4 18 19 29 996 2011p + Total farm cash receipts including payments 49,772 120 477 527 533 7,967 - Total operating expenses after rebates 38,276 114 391 448 424 6,018 = Net cash income 11,496 6 86 79 109 1,949 + Income-in-kind 45 0 0 1 1 11 - Depreciation 5,864 9 43 62 55 767 = Realized net income 5,677 -2 43 18 55 1,194 + Value of inventory change 165 -0 -12 2 -50 -24 = Total net income 5,842 -3 31 20 5 1,170 Source - http://www.4-traders.com/

istanbul escort şişli escort tbilisi escort şişli escort şişli escort maslak escort istanbul escort beşiktaş escort taksim escort izmir escort ümraniye escort mecidiyeköy escort şişli escort taksim escort ümraniye escort kartal escort şirinevler escort maltepe escort istanbul escort ümraniye escort kadıköy escort vip escort mersin escort istanbul escorts ataköy escort avcılar escort beylikdüzü escort okmeydanı escort şişli escort tuzla escort işitme cihazı sex shop sex shop sex shop sex shop sex shop sex shop sex shop sex shop