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Disaster Aid Update and the Impact of
Yield Variance on Disaster Aid Policy
Define
Wheat Price Cap Limit.
Disaster aid sign-up started on June 6.
USDA has made a decision to use the National Agricultural Statistic
Service (NASS) “all wheat price” of $3.60 for the payment cap rather
than the winter wheat price of $3.45.
Because NASS’s “all wheat price” of $3.60 will be used to set
the payment cap, it is very unlikely any insured Kansas wheat growers will
exceed the per acre payment cap based on combined crop insurance and
disaster payments for 2002 wheat losses.
Senator Roberts and Congressman Moran both sent comments to USDA,
suggesting the “all wheat price” was the appropriate number for per
acre payment limits.
The per acre payment
cap was defined as 95 percent times average yield times the maximum of the
APH price election or the NASS price.
The original payment cap was based on the APH price but later was
changed to include the NASS price, if higher.
This change increased the expected budget cost for the disaster
program. As a result of this
change, it is expected few if any
Kansas
producers will suffer a reduction in
disaster aid payments on 2002 claims.
Growers also have the option to select the 2001 loss year if that
is to their advantage.
Non-Harvested
Acres.
Disaster aid payments will also be reduced for acres that are not
harvested. The non-harvested
disaster aid reduction was also applied to past disaster programs.
The elimination of harvest costs reduces grower paid expenses. Therefore,
the disaster aid payment reduction is “justified.”
Those Farm Service Agency (FSA) reductions in disaster aid payments
are 12 percent for corn, wheat 12 percent, milo 14 percent, soybeans 15
percent, and cotton 19 percent (table 1).
For example, growers who accepted a corn loss appraised settlement
from their insurance company, and then used their cows to salvage any
remaining forage will be subject to the disaster aid reduction for
non-harvesting. FSA will
calculate the corn disaster payment and then multiply that payment times
88 percent to generate the net disaster aid paid to growers who did not
mechanically harvest. However,
growers who salvage a disaster corn crop by chopping the remaining forage
for livestock feed would not be subject to an unharvested payment
reduction.
The non-harvested
payment reduction is not applied to crop insurance.
Under the crop insurance program, once the crop is appraised and
the loss settled, growers are then free to salvage the crop by any method
they desire. They also have
the option to simply till the remaining plant material.
Many growers have
complained that crop loss adjusters generally will not enter a zero yield
even if there appears to be no production in the field.
Typically, these growers have argued that loss adjusters will
nearly always report at least a one bushel yield remaining in the field.
Growers have argued that, once yield losses are that severe, the
crop is not worth harvesting and the yield should be zeroed out generating
a payment equal to the total coverage.
However, these same growers should feel fortunate that crop
insurance does not apply the disaster aid rule and reduce the indemnity
payment for non-mechanical harvesting.
Like so many public policies, this is another example of, “is the
glass half full or half empty?”
Is
Harvest a Yes or No Answer?
USDA will reduce the disaster payment if the crop was not
mechanically harvested. This
most likely will occur on dryland corn in western
Kansas
but also applies to other crops too.
When corn yields are low, farmers often chop the remaining stalks
for livestock feed. While this
may provide poor quality forage, given the drought situation in 2002 any
livestock feed became very valuable. If
the crop was not mechanically harvested then corn producers will suffer a
12 percent reduction in their disaster payment (table 1).
On the surface this seems like a very straight forward rule with a
yes or no answer, but several questions have been e-mailed to me with
other scenarios that are not clear cut.
Scenario
1.
The remaining failed corn crop is salvaged simply by harvesting any
yield using a combine. Under
this scenario the grower would be paid the full calculated disaster
payment based on the yield used to settle the crop insurance claim.
Of course, this assumes the grower did not exceed the combined
disaster and crop insurance per acre payment limit.
Scenario
2. Grower
decides to salvage the remaining corn stalks by chopping it for feed.
The grower uses his\her own equipment to chop the corn stalks.
The grower then sells the feed to a livestock producer who feeds
the salvaged corn. This
scenario would also suggest the grower would be eligible for the full
disaster payment because the crop was mechanically harvested.
Scenario
3.
Grower chops the remaining corn stalks and retains it to feed
his\her livestock. This
scenario would also suggest the grower will be eligible for the full
disaster payment.
Scenario
4.
The grower custom hires a forage cutter to chop the remaining corn
stalks simply because he\she does not own the equipment.
The chopped forage is then stored on the farm and later fed to
his\her livestock. This
scenario would also suggest the grower will be eligible for the full
disaster payment.
Scenario
5.
The grower custom hires a forage cutter to chop the remaining corn
stalks but sells the chopped forage for cash to a neighbor for livestock
feed. Because the grower
incurred the harvest expense the assumption is the grower would be
eligible for a full disaster payment.
Scenario
6.
The grower has neither the equipment to chop the remaining corn
stalks or livestock to feed those stalks.
The grower simply sells the crop on the stump to a neighbor.
The neighbor then chops the forage and hauls the feed to his\her
farm for later feeding to his\her livestock.
It is unclear, if the grower would be eligible for the full
disaster payment because the grower did not incur any harvest expense.
However, if this same grower had hired that same neighbor to custom
chop the forage and then sold the forage to the same neighbor for feed,
the net would be the same as the grower would have received in the number
5 scenario. Therefore, because
the grower paid harvesting expenses it is assumed he\she would be paid the
full disaster payment. The
grower who paid a custom cutter and then sold the forage would have a
similar net position as the grower selling the remaining corn stalks on
the stump.
Scenario
7.
The grower turns his\her cows in to the field and allows the cows
to salvage any remaining forage from a failed crop.
Under this scenario, the grower would clearly be subject to the
discount for non-mechanically harvested acres (table 1).
There probably are
many other scenarios beyond the ones listed here but it is clear FSA will
need to interpret non-harvest rules to cover different crop salvage
methods. It is very likely
that different counties and county committees may interpret the rules
differently for some of these “gray area” scenarios. The really
“gray area” scenario is number 6 because if the Farm Service Agency
determines the grower is subject to the 12 percent reduction in disaster
payments for non-harvest, it is possible the grower is worse off by
selling the forage on the stump. If
the payment he\she received for the remaining corn stalks is less then the
reduction in disaster payments, then the grower clearly had a net loss.
It is also possible the grower sold the remaining corn stalks for
mechanical harvest for a price greater than the reduction in disaster
payments. Therefore even if
the grower does suffer a reduction in disaster payments he\she is clearly
better off by having sold the corn stalks.
Undoubtedly, this will
be another issue that will be viewed differently by one’s personal
situation. Those farmers who
sold the stalks rather than paying a custom cutter or harvesting those
stalks themselves will likely argue they should be paid the full disaster
payment because it was mechanically harvested.
That is certainly a valid argument because if one knew the rules
last fall, they could have easily circumvented the harvest rule by simply
paying someone to custom cut those stalks and then selling the feed as a
separate cash transaction. A
more liberal definition by FSA that simply requires the forage to be
mechanically harvested and makes no distinction how the proceeds were
distributed would make all of these scenarios non-issues.
Clearly, this could
apply to other crops too such as wheat.
For example, one might have salvaged remaining wheat by baling
straw.
Regardless of how FSA
interprets the mechanical harvest rule, farmers are clearly better off
receiving disaster payments. In
many cases disaster payments plus crop insurance will generate returns
approaching an average crop. Without
those disaster payments clearly many farmers would have suffered losses on
the 2002 crop. However one
must remember there was a significant delay from harvest time until
disaster aid payments were provided. Because
these payments will come in 2003 there may also be some income tax
implications but many growers with their tax adviser have been very
proficient managers of their tax liabilities.
Disaster
Aid versus Crop Insurance.
Disaster aid versus crop insurance will again be debated among
growers and policy makers. Under
the current crop insurance program, the subsidy system favors the high
risk growing areas over the low risk growing areas.
Disaster aid is simply crop insurance with a 100 percent premium
subsidy. Therefore, disaster
aid more strongly favors high risk growing areas over low risk growing
areas.
For example, let’s
assume four different locations ranging from a high level of yield risk to
very low yield risk. The total premium before any subsidies are provided
effectively equals the expected payment to growers assuming the insurance
contracts are rated correctly. In
the long run, total premiums equal the expected total indemnity payments.
In the case example the premium equals the long run expected
average payment of $14.50. The
annual indemnity payment would obviously vary from zero to a maximum
payment equal to the liability. Therefore,
one would need to consider a period of time, for example 20 years.
One would sum the expected indemnity payments over the 20 year
period then divide by 20 and the result would be $14.50 (line 1, table 2).
All 4 levels of risk exposure in this example have exactly the same
expected long-run average annual payout of $14.50.
These four example farms also have exactly the same average yield
of 150 bushels (line 2, table 2).
However, these four
hypothetical farms do not have the same amount of yield variability, as
measured by the coefficient of variation (CV) (standard deviation divided
by the mean). Because the very
high risk farm has a larger standard deviation, it only requires a 60
percent guarantee to generate an expected annual average payment of
$14.50. If the coverage level
were raised to 65 percent, then the expected payment would be more than
$14.50. In the very low risk
production region it requires an 80 percent guarantee to generate the same
expected payout as a 60 percent guarantee in a high yield risk region.
The production guarantee is 90 bushels with a 60 percent guarantee
and 120 bushels with an 80 percent guarantee (line 5, table 2).
However, the grower with a 120 bushel guarantee has less yield
variability therefore, has the same odds of collecting as the grower with
a 90 bushel guarantee in the high risk growing area. The
dollars of coverage per acre is the guaranteed bushels times the MPCI
price election of $2.20 (line 6, table 2).
Under the present
subsidy system, the Risk Management Agency (RMA) pays 64 percent of the
premium for the high risk example grower while paying only 48 percent of
the premium for the low risk grower, yet both individuals have exactly the
same expected payout (line 7, table 2).
Obviously because the premium subsidy percentage is higher for the
high risk farm, the dollar per acre subsidy is also higher on line 8.
Line 9 shows the reduction in premium subsidy compared to the very
high risk grower. In this
example, the low risk grower receives $2.32 per acre less premium subsidy
then does the high risk grower, which translates to a 25 percent reduction
in the dollar per acre premium subsidy (line 10, table 2).
The result is the low risk grower pays $5.22 in premium and expects
to receive back $14.50 in indemnity payments over the long run.
In the very low risk growing region the grower pays $7.54 per acre
premium with exactly the same expected payout of $14.50 over the long-run.
This represents a 44.4 percent increase in farmer paid premium for
the low risk grower over the high risk grower (line 13, table 2).
Current
2003 MPIC-APH Corn Rates.
An example using current 2003 corn rates for Multiple Peril Crop
Insurance based on Actual Production History (MPCI-APH) was developed in
table 3. The
Texas
and
Colorado
corn farms are irrigated, while the
Iowa
and
Illinois
corn farms are dryland.
The APH was assumed to be 150 bushels in all 4 locations.
Notice the long run average annual expected payment does vary
because these are real rates but still are approximately $14.50.
In the actual farm example in table 3, the expected annual average
payouts ranged from $14.42 to $14.87.
This analysis also assumes the long-run loss ratio for all 4
locations is 1.0. The
“long-run” 14 year loss ratio in this particular
Illinois
County
is substantially below 1.0 but for the
purposes of this analysis it was assumed the loss ratio will equal 1.0
once more years are added to the payment history.
With a loss ratio substantially below 1.0,
Illinois
growers effectively would not have
collected $14.87 over the years from 1989 – 2002.
However, if 1983 and 1988 data were available and included in the
loss ratio the expected payout of $14.87 might have been the result.
Assuming that these
premium rates are set correctly it would require a 60 percent guarantee
for the
Texas
grower to generate approximately $14.50 in
long run average annual payments. However,
in
Illinois
it would require an 80 percent guarantee
to achieve approximately the same expected payout.
As in the case example, the difference in farmer paid premiums is
caused by the premium subsidy levels.
The
Texas
grower would receive a 64 percent premium
subsidy, while in Illinois USDA would only pay 48 percent of the
grower’s premium. The result
is the
Texas
grower receives a higher dollar per acre
subsidy than does the
Illinois
grower with the same average yield and the
same expected payout. As the
result of the higher subsidy, the
Texas
grower pays $5.19 per acre premium while
the
Illinois
grower pays $7.73 premium per acre, yet
both producers have approximately the same expected payout (line 11, table
3). As a result, the
Illinois
grower pays 49% more in premium then the
Texas
grower but has approximately the same
expected indemnity payment over the long-run.
Because disaster aid
provides the same percent yield guarantee (65%) and a 100 percent premium
subsidy, a disaster aid policy clearly favors
Texas
or other high risk growing areas over low
risk growing areas like
Illinois
. Disaster
aid policy assumes paying a percentage of growers’ average yield is
“fair” for all growers. However,
disaster aid policy does not consider the CV around the mean yield.
Because the grower in
Texas
has a higher CV than the
Illinois
producer, the result is that the
Texas
producer has a much higher probability of
collecting from a 65 percent guarantee under a disaster aid program than
does an
Illinois
producer.
One could argue
growers who have exactly the same mean yield should have exactly the same
expected payment under a disaster aid program.
However, in order to provide the same expected disaster aid payment
it would require USDA to incorporate a measure of variance and not base
payments solely on the mean yield. One
method for generating similar expected disaster aid payments would be to
provide different disaster aid coverage percentages to reflect yield risk
by state or crop reporting district.
Crop insurance
provides less discrepancy between the high risk and low risk growers
because there is a premium paid by the producer.
However, if public policy wanted to make expected indemnity
payments equivalent between low risk and high risk production areas one
alternative is to provide the same percentage premium subsidy regardless
of coverage or type of insurance contract selected.
If all 4 locations received exactly the same percentage premium
subsidy then all 4 farms would pay exactly the same premium because all 4
locations have exactly the same expected payout (table 2).
Disaster aid benefits
are based off the assumption that the mean yield for setting benefits is
“fair” across all regions, all producers.
Crop insurance provides less of a benefit than disaster aid to high
risk producing areas because the grower must pay a share of the program
cost. Unlike disaster aid that
only considers the mean yield, crop insurance also includes a variance
measure that is incorporated into the premium rate.
However, the current crop insurance subsidy system still skews the
benefits towards the higher risk growing areas.
Other
farm programs.
Other farm programs also base their benefits off of the mean yield,
so the obvious question is does the standard deviation of the mean yield
have any impact on the benefits to individual growers in high risk areas
versus low risk growing areas? The
yield variance would have little, if any, impact on the direct payment
because the mean yield used to set direct payments is based on early
1980’s yields. In addition,
these yields may not be the ones produced by the current owner/tenant
because the direct payment program yield is attached to the land.
Also different CVs of yields would have no impact on the counter
cyclical payment but the payment would be effected by the CV of price.
Based on simulation
analysis, the marketing loan appears to be more favorable for low risk
areas, or exactly the opposite of the crop insurance program that is more
favorable to high risk growing areas under current policy.
Based on those simulations the analysis suggests the marketing loan
favors farms with a low CV and a “large” negative price-yield
correlation.
Illinois
farms, at least north of I-70, probably
are more likely to have a low CV and a negative price-yield correlation.
While the marketing loan was advantageous for growers in low risk
farming regions combined with a negative price-yield correlation, the
advantage was not large. When
considering disaster aid, crop insurance, or even other farm programs,
policy makers need to understand that the mean yield is not the only
consideration when evaluating the benefits from most farm programs.
Yield variability can clearly alter farm program benefits and how
those benefits are distributed between different regions of the country.
CV
Effect on Other Policy Alternatives for Disasters.
Other disaster related public policies will affect different
regions of the Country based on yield variance, price-yield correlation
and mean yield. In a previous
WEB page update, analysis was provided that showed the greatest financial
loss occurred with a 35 to 40 percent yield loss.
Disaster aid payments require yield losses greater than 35 percent
to trigger payments and net crop insurance payments are normally small
with yield losses under 50 percent. Growers
with a large CV will benefit the most from a traditional disaster aid
program. Public policies that
target multiple year losses also favor growing regions with high CV of
yield.
A companion disaster
aid program that triggers payments with an 8 percent yield loss and the
full benefit is paid out with about a 43 percent yield loss would shift
more payments to the lower risk growing regions when compared to a 35
percent deductible under current disaster aid policy.
Under this approach growers would receive no payments for yield
losses over 43 percent but that level of loss could be covered with crop
insurance. Growers in low risk
regions would be more likely to collect with an 8 percent deductible than
a 35 percent deductible. Also
growers in low risk growing regions are less likely to suffer losses
greater than 43 percent thus increasing the odds they would collect the
full disaster aid benefit. While
this does shift more of disaster benefit to lower risk growing regions,
the high risk growing regions would still have a higher frequency of
disaster aid claims caused by a larger (CV) of the yield.
Putting a second
payment trigger on the counter cyclical payment would trigger payments
because of either low prices (current policy) or low yields (the second
payment trigger). If market
prices increase there is no counter cyclical payment under present policy
because it is assumed growers sell their crop for the higher price.
However, if they have a crop failure there is noting to sell at the
higher price. If the counter
cyclical payment were also triggered by yields below 92 percent of the
average yield then growers could also collect the counter cyclical payment
in years of higher prices but no yield.
Those growers with yields would collect no counter cyclical
payments when prices are above the counter cyclical strike price.
This policy would also limit payments to crops that have a counter
cyclical payment program.
One would think this
zero/92 approach would also favor regions that have a high CV of yield.
However, the yield trigger would only apply when prices are above
the counter cyclical strike price and that would favor regions with a
negative price-yield correlation. Regions
and States like
Illinois
that have a high negative price-yield
correlation are more likely to collect under the second yield trigger than
current policy because prices tend to increase and eliminate the counter
cyclical payment when the
Corn Belt
has yield losses.
Under current policy growers in regions that have a zero
price-yield correlation are more likely to collect the counter cyclical
payment in years when they have a yield loss than growers in regions with
a negative price-yield correlation.
Some growers in the
high risk growing regions have argued revenue insurance should be
eliminated and all subsidies concentrated on yield coverage only.
If a grower has a zero yield then revenue insurance and yield
insurance would pay exactly the same (assuming the price elections were
the same). While true for revenue insurance, replacement revenue insurance
could pay more than the yield only insurance but it would require an
increase in market prices.
In regions with high
CV of yields relative to price CVs, the yield only converge (MPCI-APH)
continues to be a popular crop insurance choice.
However, revenue insurance has been a popular crop insurance choice
in the
Corn Belt
. In this region, the CV of
price may be (is) larger than the CV of yield.
Based on participation one would have to conclude growers have a
very good understanding of the negative price-yield correlation and the CV
for their yields and prices.
Summary.
Should public policy continue to provide disaster aid based on a
single 35% yield trigger? Should
a crop insurance subsidy policy that does not recognize the differences in
the CVs of yields continue? Should
public policy provide additional assistance for multiple year losses?
How one answers those
questions will likely depend on the yield variability they experience.
There is no right or wrong answer; the final decision will likely
be a political compromise. However,
thinking about the expected mean yield and the CV of yield for different
regions may help public policy makers create more effective public
policies for crop disasters.
Payments.
Monthly NASS prices and
historical wheat and feedgrain cash prices are presented in Table 4.
These prices are used to calculate the counter cyclical payments
once the price weights are determined at the end of the marketing year.
Price election for crop insurance is listed in table 5.
Farm
Service Agency (FSA) Loans, Direct Payments and Counter Cyclical Target
Prices.
The payment rates and loans are
listed in table 6 for 2002. These
are the rates that are current in the law.
KSU estimated 2002
counter cyclical payments are presented in table 7.
These estimates will be updated monthly with current prices.
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