Showing posts with label forensic economics. Show all posts
Showing posts with label forensic economics. Show all posts

Friday, August 19, 2016

Proving Damages from Loss of Yield Monitor Data: Forensic Economics and Farm Data Valuation Part 3

This is the final part of my 3-part series on valuing farm data in the event that data were lost. Part 1 provided the background information on the farm scenario and Part 2 described how consequential damages were estimated.

Estimating Speculative Damages
Speculative damages are damages claimed by a plaintiff for losses that may occur in the future, but are highly improbable. Here, I discuss four potential speculative damages with respect to 1) foregone opportunity to participate in ‘big data’ communities, 2) the increased risk of damaging field equipment, 3) inability to negotiate with landowners, and 4) lack of information to base improved drainage structures.

Speculative damages #1: big data systems
Farm data has an inherent value in ‘big data’ systems; and the loss of data reduced the value of the farm’s database for participation these systems. It has been speculated that farm data are worth several dollars per acre-year. Even moderate sized farms have substantial value of data; or several thousand dollars in damages from inability to participate in community analytics.

Speculative damages #2: risk to field equipment
The yield monitor was used to flag large stones and foundation pieces that need to be removed from the field to prevent equipment damage. Given that the stones and foundation pieces are not going to move on their own, there is opportunity to locate these in upcoming seasons; however there is increased risk that combine heads, planters, and tillage equipment may be damaged prior to removal. Farmers paid $14.30 per acre on average for rocks to be picked out of their fields; therefore we can assume that farmers value this service at least $14.30 or higher per acre in perpetuity. By applying this per acre value to all acres of the farm gives a conservative estimate of any repair costs from equipment damages and an adequate risk adjusted value. Even on small areas of 100 acres, damages of $1,430 are reasonable ($14.30 per ac x 100 acres = $1,430). However the $14.30 per acre expense has expectation that the rocks were removed in perpetuity and therefore the value accumulates over time such that the entire $14.30 per acre was not enjoyed in the first year. Therefore the value must be discounted.

Speculative damages #3: leasing arrangements with landowners
Some landowners expect scale tickets to prove yield in crop share agreements while other landowners rely upon yield monitor data or maps for proving yield and negotiating future rental rates or improvements. For flex-cash and flexing based on yield, the yield monitor has become a standard source of yield data for calculating current rents and negotiating future rental arrangements. Irreparable harm may result in the relationship between the farmer and landowners that could impact the farm acreage structure. A 3,000 acre farm typically leases half of the total farmland; and even a loss of 500 acres forces the farm to a 2,500 acre farm in a market fiercely competing for farmland. The 2,500 acre may now be over equipped and not able to support the fixed costs of current equipment complement; therefore now at financial risk.    

Speculative damages #4: drainage improvements
Yield monitor data are used to calculate yield loss due to unimproved drainage. Without adequate data, improved drainage structures were not installed in proper locations for at least another year. Yield losses were estimated for one year by comparing yields from with and without improved drainage structures. This is especially important when negotiating with landowners in their decision to make drainage improvements.

Limitations of these analyses
It can be argued that if the farmer valued the data on the yield monitor that they would have downloaded the data prior to the combine being serviced or at the very least downloaded data periodically such as weekly or after each field or on-farm experiment were harvested. This limitation provides credence to the recommendation of downloading data frequently and to make redundant backup copies. Therefore if data from several on-farm experiments existed on the yield monitor then that implies that data were not downloaded on a periodic basis, and could be interpreted as the farmer placing relatively low value on that data. Similar arguments can be made for other types of precision agricultural data. Newer technology that wirelessly transmits data to the cloud alleviates some of this concern and could indicate the farmer placing more value on the data if they actively pay for services that securely archive the data.

One area of analysis omitted here is the value foregone from lost data for other entities besides the farmer. Seed company representatives may have been relying upon that data as part of a larger on-farm research program. Local retailers often rely upon farm-level data to populate their data systems for community analysis; and would be at some level of disadvantage especially early on in the lifecycle of their system. Landowners often expect yield monitor data as part of their indication of yields and some use to  reminisce from nostalgic purposes or use as conversation piece with their friends.

Summary
Farm data has a value to farmers (and others), although specific values have not been estimated that can globally be applied across farming operations. The value of data lies in how that data are converted to information for farm management decision making. Using yield monitor data and other spatial technologies to conduct on-farm research has been a leading example of monetizing data. In this specific case the greatest value estimated was from consequential damages while speculative damages were the most difficult to estimate a reasonable value. In the near future it is expected that the value of farm data will increase for farmers and others if that data are combined across farms into a community, i.e. big data. Estimating consequential and speculative damages from foregone data is one of the first steps in valuation of farm data.



Wednesday, August 17, 2016

Proving Damages from Loss of Yield Monitor Data: Forensic Economics and Farm Data Valuation Part 2

This is part 2 in my 3-part series on valuing farm data in the event that data were lost. Part 1 provided the background information on the farm scenario.

Estimating Consequential Damages
Consequential damages, otherwise known as special damages, are damages that can be proven to have occurred due to the failure of one party to meet a contractual obligation (goes beyond the contract itself and into the actions garnished from the failure to fulfill). The analysis of consequential damages were separated into two distinct alternatives. The first alternative presented the foregone investment of implementing the on-farm experiment including the 1) differences in cost of the products being tested relative to the status quo product, 2) yield penalties from delaying planting, and 3) miscellaneous supplies such as consultants, flags, and measuring tapes. The second alternative builds upon the first alternative by estimating the foregone revenue stream of making a better decision such as choosing a superior product relative to the status quo. This second alternative is further described below.

To conduct the forensic economics for the consequential damages, I estimated the value of discounted stream of income that would have been realized if the data had not been destroyed (i.e. net present value or NPV). Two scenarios were evaluated. The first scenario evaluated the revenue stream if the data were available. The second scenario evaluated the revenue stream for when farm data were unavailable to the decision making process. The difference in revenue streams between these two scenarios is the forgone revenue.

To set the precedent of historical use of data in farm management decision making, the value of completed on-farm experiments from the last several years were estimated. A series of NPV analyses were conducted on several recent experiments to demonstrate a history of utilizing yield monitor data from on-farm experiments to make farm management decisions. This indicated that the farmer had a history of using yield monitor data for farm management purposes; and that the data had a substantial value to the farmer’s overall net farm income. For the on farm experiments that yield data were not available, the cost of conducting the research were calculated then a reasonable expected yearly revenue stream were estimated for the net present value analysis. These can be thought of as the cost of making the wrong decision.

One of the first decisions to be made is how many years that the results will be usable for the farm. Discussions with the farmer revealed how many years the results from the on-farm experiment typically were used. As a guideline, corn hybrid results are usable for only 1 or maybe 2 years given the relatively short market life of corn genetics. Other input products such as herbicides, fungicides, and insecticides have a longer market life than corn hybrids. Results may be usable for 1 to potentially 10 or more years. For fertilizer rates, the results may be useful for several additional years since the products typically do not have a defined market life. In any case, on-farm research results have a finite lifespan and the value of that data diminishes over time. The results from on-farm research may also be limited in time due to results becoming common knowledge to farmers once public research results are released and/or neighboring farmers providing anecdotal insights. Therefore, the revenue stream may be reduced to fewer years than even the market life of the product.

A key component of the benefit-cost analysis for the expert witness is to compare the ‘best’ decision from an on-farm experiment relative to the status quo practice, not the worst case practice scenario. As an extreme example, a corn hybrid that had an expected yield of 175 bushels per acre (bu per ac) should be compared against the most likely hybrid choice (say 170 bu per ac) and not the option of no seeds (i.e. 0 bu per acre). So the net benefit for a given year would be the price of corn times yield difference (175 bu minus 170 bu = 5 bu) minus difference in seed costs. A more relevant example may be testing two fungicides against no fungicide at all, i.e. the untreated control treatment, where Fungicide A resulted in 15 bu per acre more than the control of no fungicide and Fungicide B resulted in 12 bu per acre more than the control. The expert witness would not use a difference of 15 bu per ac but rather a difference of 3 bu per ac (15 bu – 12 bu = 3 bu per ac). Economists refer to these calculations as partial budget analysis.

One of the leading debates in forensic economics literature is the choice of discount rate used in the net present value analysis. Given that the pertinent farm data examples are shorter time periods relative to the class human lifespan examples, the chosen discount rate has relatively less importance to the outcome of the analyses. That being said, some farm data plaintiffs may prefer higher discount rates and others prefer smaller discount rates depending upon the length of the discounted revenues and relative size of annual returns.

Although there is substantial variability in commodity crop prices over time, a constant price were used for all years of the analysis. A long-run planning price for each crop was chosen for all analyses. An alternative was to assign two or three planning prices (low, expected, high) and perform the analysis at three different levels of commodity crop prices. This provides the decision maker with a set of analysis to choose from and is common practice in benefit-cost analyses. Consequential damages were estimated using the process described in this article. In the final blog of this series, speculative damages are described with respect to this scenario.   



Monday, August 15, 2016

Proving Damages from Loss of Yield Monitor Data: Forensic Economics and Farm Data Valuation Part 1

Previously, I described how damages could be proven in the event that farm data were misappropriated (i.e. when farm data disclosed such that it was used in a manner not consistent with agreements although the farmer still had complete access to the data). Working on that project with Ashley Ellixson reminded me of serving as an expert witness on  a case where farm data were destroyed such that the farmer no longer had access to that data (not misappropriated or disclosed but destroyed). In this article, I explain how the value of that data was estimated to the specific farmer.

Description of Farm Data Loss Scenario
The farmer desired to determine the value of the lost farm data in anticipation of building a case against the negligent party. Without disclosing details, the facts of the case were that the yield monitor on the combine harvester was destroyed while the combine was being serviced by a third-party service provider. The third-party service provider admitted fault and agreed to replace the yield monitor,  however they argued that the data on the yield monitor had no value and were not willing to compensate the farmer for the data. The farmer believed that the data did have substantial value and had intended to use that data in their farm management decision-making process. Therefore, the farmer argued that the service provider should compensate the farmer for the lost data. The farmer has a history of using yield monitor data for farm management decision making including on-farm experiments that tested products and rates of inputs under their management practices under environmental conditions of their fields.

Estimating Damages
To reiterate the importance that farmers place on their data, farmers’ willingness-to-pay for data sensors and collection tools (commonly referred to as precision agriculture) indicate farmers readily invest their financial resources in this technology. The substantial amounts of money invested to collect and store site-specific data indicate farmers at least perceive value in the data collected for farm management decision making purposes. Surveys and industry data support the idea that substantial proportions of farmers and even higher percentages of farmland are being harvested with with combines equipped with yield monitors capable of collecting site-specific data. In addition to direct investments in sensors and data management services, investments in human capital to management farm data are substantial.  

Given that the direct damages of the physical components were not contested, the remaining two types of damages including 1) consequential and 2) speculative are being examined. Consequential damages, otherwise known as special damages, are damages that can be proven to have occurred due to the failure of one party to meet a contractual obligation (goes beyond the contract itself and into the actions garnished from the failure to fulfill). Speculative damages are damages claimed by a plaintiff for losses that may occur in the future, but are highly improbable.

Consequential damages resulting from foregone revenue from lost data are considered in Part 2. In Part 3, speculative damages with respect to 1) foregone opportunity to participate in ‘big data’ communities, 2) the increased risk of damaging field equipment, 3) inability to negotiate with landowners, and 4) lack of information to base improved drainage structures are described.