6.8   Break-Even Analysis and Interest Rate Considerations in Precision Agriculture Adoption

Investigators

Carl R. Dillon, Agricultural Economics, cdillon@ca.uky.edu
Steve Isaacs, Agricultural Economics, sisaacs@ca.uky.edu

Introduction

            Precision agriculture is not an inexpensive new technology to adopt.  However, the benefits of increased yields and reduction of some inputs (such as fertilizer) can justify the adoption of this technology.  Nonetheless, the question arises as to how much additional yield or reduced input is needed to justify the new technology.   Farmers considering precision agriculture production are concerned whether or not it will be profitable.   If the perceived benefits of greater yield and reduced inputs outweigh the additional costs of adopting precision agriculture, it will be more profitable to engage in precision agriculture production.

            Another benefit of precision agriculture is the potential for environmental improvement associated with reduced chemical application.  To the extent this is true and society values environmental improvement, the benefits of precision agriculture to the individual producer will understate the total value of precision agriculture.  This in turn means that farmers will invest too little in precision agriculture because they are considering only their profit and not the benefits to society resulting from environmental enhancement.  Consequently, society should be willing to assist farmers in adopting precision agriculture to the extent that farmers will under-invest in the technology.  Cost sharing or interest rate buy down represent means of encouraging farmer adoption of precision agriculture.

Objectives

            The fundamental purpose of this research project is twofold. First, it is to provide Kentucky farmers with insights regarding the necessary yield differences or input differences that justify the adoption of precision agriculture.  The second purpose is to provide information to policy makers regarding the required interest rate buy down that would place precision agriculture on an equal footing with traditional, field average agriculture. The specific objectives are to:

  1. Develop break-even procedures to calculate the additional yield required to justify the adoption of precision agriculture,

  2. Develop break-even procedures to calculate the reduced input level required to justify the adoption of precision agriculture and

  3. Develop break-even procedures to calculate the reduced interest rate required to justify the adoption of precision agriculture.

While this research is not unrelated to current analysis being conducted by Debertin, Fleming and Dillon that proposes to examine capital requirements and potential adoption rates as related to farm size, this project has a different focus and somewhat different analytical methods.   Specifically, it aims to provide farmer’s with simple benchmark figures in evaluating the benefits needed to justify investing in precision agriculture technology.  Additionally, it hopes to provide policy makers with information regarding benchmark levels of incentives that might be required to induce farmers to invest in precision agriculture technology to account for social benefits (e.g., environmental) not being reflected in the producer’s decision-making process.  A differential break-even analysis is proposed as an evaluative approach as briefly discussed later in the section on procedures.

Background

The usefulness and applicability of break-even analysis for agricultural production decisionmaking and planning has been proposed and discussed (Kay and Edwards; Schmisseur and Landis; Casey; Dillon and Casey; Forster and Erven; Herbst; Barnard and Nix; Giles and Stansfield).  Agricultural enterprise budgeting enables farm managers to conduct break-even analysis, estimate production costs and select among various production alternatives.  The more common break-even yield and price relationships have been expanded to incorporate more advanced break-even components such as acreage or usage levels for machinery management (Herbst; Forster and Erven; Barnard and Nix), returns above purchase and feed costs for livestock management (Herbst), break-even output price and yield analysis between agricultural enterprises (Casey; Herbst) and break-even output price elasticities between agricultural enterprises (Dillon and Casey).  While the budgeting techniques and break-even analysis equations already developed serve as worthwhile and relatively simple decision-making tools, further development of advanced enterprise budget break-even analytical procedures has been suggested (Giles and Stansfield; Forster and Erven). Attention has been devoted to computerization of existing budgeting and break-even analysis (Levins and Rego; Hoag; McGrann, et al.), as well as concerns over the means of data estimation (Libbin and Torell) and linkages to economic theory (Bradford and Debertin).  Methodological development for deepening the comprehension of interactive effects, studying implications of risk, and providing detailed information is possible by using more advanced break-even analysis of existing agricultural enterprise budgets has also been undertaken (Dillon).

Procedures

            The economic analysis satisfying these objectives calls for a combination of enterprise budgeting, partial budgeting and break-even analysis.  These will be discussed in turn with the data requirement needs also explained.

            The enterprise budgeting technique is mechanism for conducting detailed analysis of production costs associated with a given commodity.  Budgets for traditional and precision agriculture production will be developed.  Standard crop enterprises important to Kentucky will be included: corn, soybean and wheat.  Computerized enterprise budgeting software will be used: Mississippi State Budget Generator.  Operating and ownership costs will be estimated using standards for production economics and the American Society of Agricultural Engineers.  Data required for these enterprise budgets include machinery prices, input prices and input requirements.  Published data regarding current Kentucky machinery and input prices (Kentucky Agricultural Statistics and UK Agricultural Economics) will be used when possible and supplemented with agribusiness supplier information and contact with farmers and other expert advisors.  Expert opinion will also be utilized in revising existing traditional enterprise budgets regarding input requirements,

            Partial budgeting will be used to provide comparisons for producers considering the adoption of precision agriculture.  Partial budgeting deals only with the changes in costs of production or changes in income resulting from the adoption of precision agriculture.  It also permits one to calculate, through algebraic manipulation in a break-even framework, the benefits needed under precision agriculture to be equally profitable to traditional, field average agriculture production.  Thus, the additional yield needed to justify the greater costs of investing in precision agriculture technology will be calculated. Likewise, the decrease in input usage needed to justify precision agriculture equipment ownership will also be estimated.  Finally, the interest rate for precision agriculture equipment investment that is needed to make it cost effective in comparison to tradition agriculture independent of other benefits will be determined.

Expected Benefits

This research project focuses on providing some basic rules-of-thumb for evaluating the economic potential of precision agriculture.  Kentucky producers will be provided with techniques and decision aids to calculate break-even yield differences, reduced input levels or reduced interest rates needed to cover the additional costs of precision agriculture adoption. Actual baseline results for these calculations will provide estimated benefits for evaluating the need for further study in precision agriculture adoption decision.  Several key questions will therefore be addressed. How much additional costs per acre are needed to adopt precision agriculture? How much extra yield is needed to cover these costs?  How much reduction in fertilizer costs will cover these additional expenses?  How much of a reduction in interest rate would cover these additional costs?  This research project attempts to provide some farm cost procedures in place for evaluating the potential of adopting precision agriculture by providing procedures and rules of thumb for comparison.  Dissemination of these procedures and comparison levels is anticipated through computerized decision aids, web pages, popular articles, extension materials, presentations and field days.

Deliverables

Many deliverables are expected from this research.  Model results should provide insights useful in the refinement of current and developing new recommendations on the economically optimal selection of production practices for greater profitability and reduced production risk. Refereed journal articles, popular articles including materials for decision support tools, web pages, presentations and extension materials including items suitable for field days are the physical deliverables anticipated from the project.  These outlets provide the greatest exposure to different audiences: other researchers and extension specialists, county agents, and producers. Additionally, it is noted that in today’s electronic age it is necessary to provide information via the Internet and such will be done through various web sites (e.g., University of Kentucky College of Agriculture).  Presentations, professional meetings, and in-service training with county agents will be provided to facilitate dissemination of information directly to producers.  Furthermore, communication of results through extension newsletters, extension publications and field days is envisioned.