Introduction to the R&D Tax Credit Landscape

The Research and Development (R&D) tax credit represents one of the most significant, complex, and highly scrutinized domestic tax incentives available to corporate taxpayers within the United States. Originally enacted by Congress in 1981 as a temporary measure to stimulate economic growth, incentivize domestic innovation, and prevent the offshoring of highly skilled technical jobs, the credit was permanently codified into law by the Protecting Americans from Tax Hikes (PATH) Act of 2015. The underlying economic philosophy of the credit is to mitigate the inherent financial risks associated with experimental development, effectively subsidizing the costs of trial and error for American businesses.

For commercial enterprises operating in Bismarck, North Dakota, the landscape of innovation incentives is particularly robust. The intersection of the federal tax credit under Internal Revenue Code (IRC) Section 41 and the highly favorable state-level incentive under North Dakota Century Code (N.D.C.C.) § 57-38-30.5 presents a lucrative financial opportunity for entities investing in technological advancement. However, securing these credits requires navigating a labyrinth of statutory definitions, evolving judicial precedents, and stringent documentation requirements imposed by both the Internal Revenue Service (IRS) and the North Dakota Office of the State Tax Commissioner.

This study provides an exhaustive legal, historical, and technical analysis of the federal and North Dakota state R&D tax credit frameworks. Through five detailed industry case studies—encompassing value-added energy, advanced equipment manufacturing, software development, agricultural processing, and clinical healthcare research—this analysis bridges statutory tax requirements with localized commercial operations in Bismarck, demonstrating precise pathways for tax credit eligibility, regulatory compliance, and fiscal optimization.

The United States Federal Statutory Framework (IRC § 41)

Under the federal tax code, the core mechanism of the R&D tax credit is found within IRC § 41. The statute defines Qualified Research Expenses (QREs) as the sum of “in-house research expenses” (which generally include wages paid to employees conducting research and the cost of supplies consumed in the research process) and “contract research expenses” (which involve payments made to third-party contractors). However, the mere expenditure of capital on product development does not automatically qualify a taxpayer for the credit. The underlying activities generating these expenses must strictly adhere to a rigorous, statutory definition of “qualified research.”

The Four-Part Test

To classify as qualified research under IRC § 41(d), the taxpayer’s activities must independently satisfy all four criteria of the statutory “Four-Part Test”. This test is applied at the level of the specific “business component” being developed or improved.

The IRS Audit Techniques Guide (ATG) for the Research Credit provides further nuance, noting that the process of experimentation must relate to a “qualified purpose,” which is limited to improving function, performance, reliability, or quality. Experimentation is explicitly not for a qualified purpose if it relates merely to style, taste, cosmetic enhancements, or seasonal design factors (I.R.C. § 41(d)(3)(B)).

Calculation of Qualified Research Expenses (QREs)

If an activity passes the Four-Part Test, the costs directly associated with that activity become QREs. The federal credit is generally calculated as a percentage of the taxpayer’s current-year QREs that exceed a historical “base amount.”

• Wages: For in-house research, the W-2 Box 1 wages of employees directly engaging in, directly supervising, or directly supporting qualified research are eligible. The IRS employs the “substantially all” rule for wages: if an employee spends at least 80% of their time performing qualified services, 100% of their wages may be captured as QREs.
• Supplies: Supplies are defined as tangible property used in the conduct of qualified research, excluding land, improvements to land, and depreciable property. This includes raw materials destroyed during testing and prototype components.
• Contract Research: Payments to third parties for qualified research are generally captured at 65% of the invoiced amount. However, under IRC § 41(b)(3)(C), this rate is elevated to 75% if the amounts are paid to a “qualified research consortium,” which is defined as a tax-exempt organization under 501(c)(3) or 501(c)(6) organized primarily to conduct scientific research.

The standard calculation defines the “base amount” as the product of the taxpayer’s historical “fixed-base percentage” and their average annual gross receipts for the four taxable years preceding the credit year. Because this calculation can be highly complex and requires records dating back to the 1980s for older companies, taxpayers may elect the Alternative Simplified Credit (ASC), which calculates the credit based on a rolling average of the prior three years’ QREs.

Statutory Exclusions from Qualified Research

IRC § 41(d)(4) expressly excludes several categories of research from credit eligibility, regardless of whether they otherwise meet the Four-Part Test. Taxpayers in Bismarck must carefully document their operations to avoid triggering these exclusions:

• Research after Commercial Production: Once a business component meets its basic design specifications and is ready for commercial sale or use, any subsequent troubleshooting or quality control testing is excluded.
• Adaptation of Existing Components: Customizing an existing product to a specific customer’s needs, without fundamentally redesigning the underlying technology, is excluded.
• Funded Research: Any research funded by a grant, contract, or another person (or governmental entity) is excluded unless the taxpayer retains substantial rights to the research results and bears the economic risk of failure.
• Internal-Use Software (IUS): Software developed strictly for the taxpayer’s internal administrative functions (e.g., HR, accounting) faces a “High Threshold of Innovation” test, requiring the software to be highly innovative, entail significant economic risk, and not be commercially available off-the-shelf.

The North Dakota State Statutory Framework (N.D.C.C. § 57-38-30.5)

The North Dakota Research and Experimental Expenditure Tax Credit, codified under N.D.C.C. § 57-38-30.5, operates in parallel with the federal statute. It strategically incentivizes businesses to anchor their technological investments within the state’s borders, thereby offsetting state income tax liabilities administered by the Office of the State Tax Commissioner. The statute directly incorporates the federal definitions of “qualified research” and “qualified research expenses” as defined in IRC § 41(d) and § 41(b), but with one paramount geographic limitation: the research must be physically conducted within the state of North Dakota.

Regular vs. Alternative Simplified Computation (ASC) Methods

Taxpayers in North Dakota are permitted to calculate their state credit using one of two methods, and they may elect their preferred method on a year-to-year basis. The election made for the state return is independent of the method chosen on the federal tax return.

For pass-through entities (such as LLCs, S-Corporations, and partnerships), the total credit is determined at the entity level and then passed through to the partners, shareholders, or members in proportion to their respective ownership interests. Unused state credits cannot be refunded directly as cash; however, they may be carried back up to 3 tax years and carried forward for up to 15 tax years, providing long-term strategic value for cyclical industries.

Monetization and Transferability Provisions

Recognizing that pre-revenue startups and small innovators often generate significant R&D credits but lack the immediate state income tax liability to utilize them, the North Dakota legislature introduced a highly progressive monetization mechanism.

If a taxpayer first conducted research in North Dakota after December 31, 2006, and is certified by the North Dakota Department of Commerce Division of Economic Development and Finance as a “qualified research and development company,” the taxpayer may sell, transfer, or assign up to $100,000 of its unused tax credits to another taxpayer. To qualify for this certification, the entity must be a primary sector business with gross annual revenues of less than $750,000. The purchaser of these credits may then apply them against their own North Dakota state income tax liability. The State Tax Commissioner retains the right to audit both the transferor and the purchaser for up to four years following the assignment to verify the legitimacy of the underlying QREs.

The Economic and Industrial Evolution of Bismarck, North Dakota

To accurately assess the application of R&D tax credits in Bismarck, it is necessary to contextualize the historical, geographic, and economic forces that shaped the city’s current industrial base. The trajectory of Bismarck’s growth directly informs the types of technological uncertainties its industries seek to resolve today.

From Frontier Outpost to Capital City

Long before European contact, the territory surrounding present-day Bismarck was inhabited by Indigenous Americans, most notably the Mandan Nation. The Mandan established sophisticated, permanent agricultural and trading towns along the bluffs of the Missouri River. The remnants of these settlements, such as Chief Looking’s Village, remain preserved within the modern city limits.

The foundations of the modern municipality were laid in 1872 when the Northern Pacific Railway’s transcontinental line reached the eastern banks of the Missouri River. The settlement was initially incorporated as “Edwinton,” named in honor of Edwin Ferry Johnson, the railway company’s chief engineer. However, the railway financiers urgently needed to attract European capital and immigrant labor to secure the region’s viability. In a strategic public relations maneuver in 1873, the town was renamed “Bismarck” to honor the powerful German Chancellor Otto von Bismarck, hoping the name would entice German investment and settlement.

The city’s first major economic explosion occurred in 1874 with the discovery of gold in the nearby Black Hills of South Dakota. Bismarck immediately transformed into an indispensable logistical and freight-shipping center. Long wagon trains pulled by oxen traversed the 300-mile “Custer Route” southward, supplying the mining camps. This early reliance on complex logistics, heavy freight, and resource extraction permanently embedded an industrial character into the city’s DNA. Bismarck was named the capital of the Dakota Territory in 1883, and it retained its capital status when North Dakota achieved statehood in 1889.

Post-War Industrialization and the Energy Boom

While agriculture formed the backbone of the regional economy for decades, the post-World War II era triggered a massive wave of industrialization. Between 1946 and 1952, the federal government constructed the Garrison Dam on the Missouri River north of Bismarck. This monumental engineering project provided flood control, enabled municipal water diversion, and generated vast amounts of hydroelectric power, setting the stage for heavy industry.

Simultaneously, the 1951 discovery of oil near Tioga in the Williston Basin sparked an unprecedented “oil rush” across western North Dakota. This coincided with the rapid expansion of surface mining for lignite coal to fuel large-scale electrical generation plants built near Mandan and Velva in the early 1950s. Because Bismarck was the state capital, it housed the critical regulatory agencies overseeing these sectors, including the North Dakota Industrial Commission and the Department of Environmental Quality. Consequently, the city organically developed into the “Energy Headquarters” of the state, serving as the strategic command center for corporate offices, subsidiary operations, and engineering firms managing the extraction and refining of resources. Today, the Bismarck-Mandan Metropolitan Statistical Area (MSA) boasts a population exceeding 130,000, serving as the retail, wholesale, and medical hub for a trade area reaching over 350,000 people across western North Dakota, South Dakota, and eastern Montana.

The Role of the Bank of North Dakota

A uniquely North Dakotan financial institution underpins this industrial expansion: the Bank of North Dakota (BND). Located in Bismarck, BND is the only state-owned bank in the United States. It was established by legislative action in 1919, driven by the Nonpartisan League, a populist agrarian movement seeking to protect local farmers from predatory out-of-state grain dealers and high-interest East Coast banks.

Operated under the oversight of the Industrial Commission, BND acts as a central funding mechanism. Rather than competing with local retail banks, BND partners with them to participate in large-scale commercial loans, providing critical capital to stimulate economic development. For companies engaging in high-risk, capital-intensive R&D in Bismarck—such as building pilot manufacturing plants or testing carbon capture infrastructure—BND frequently provides interest rate buydowns, specialized loan guarantees, and workforce retraining grants (such as the Workforce 20/20 program). This state-backed financial safety net allows Bismarck industries to pursue long-term technological innovation that might be deemed too risky by traditional private equity markets.

Case Study 1: Value-Added Energy and Carbon Capture Technology

Historical Development of the Bismarck Energy Sector

North Dakota is a national leader in energy production, possessing approximately 800 years of recoverable lignite coal reserves alongside the massive oil and natural gas yields of the Bakken formation. Bismarck has a well-established history of supporting this sector, anchoring the corporate headquarters of major entities like Basin Electric Power Cooperative, MDU Resources Group, and BNI Coal. The region’s central proximity to the state’s natural resources and regulatory agencies makes it the ideal logistical and operational hub.

In recent years, the energy industry has faced existential threats from stringent federal greenhouse gas emission regulations and shifting market demands toward renewable sources. Rather than abandoning its vast fossil fuel infrastructure, the North Dakota energy sector, coordinated heavily out of Bismarck, pivoted toward “value-added energy” and decarbonization technologies. With comprehensive energy planning support from the state’s “EmPower North Dakota” initiative, local cooperatives began investing hundreds of millions of dollars into developing the world’s most advanced carbon capture, utilization, and storage (CCUS) systems.

R&D Scenario: Project Tundra and Amine-Based Post-Combustion

A large electrical generation cooperative headquartered in the Bismarck region initiates a massive engineering and research initiative known as “Project Tundra.” The objective is to design, construct, and operationalize a pioneering post-combustion carbon dioxide (CO2) capture facility attached to the existing lignite-fired Milton R. Young Station in nearby Oliver County. The ambitious goal is to capture up to 4 million metric tons of CO2 annually directly from the exhaust stacks and permanently sequester it in geologic formations 5,000 feet underground.

The cooperative’s engineering teams, operating primarily out of their Bismarck headquarters, must adapt Mitsubishi Heavy Industries’ Kansai Mitsubishi Carbon Dioxide Recovery (KM CDR) amine-based technology to handle the unique, high-moisture, and high-impurity exhaust profile of North Dakota lignite coal. To achieve this, the engineers conduct extensive fluid dynamics modeling, design novel aerosol mitigation systems to prevent solvent degradation, and drill 10,000-foot stratigraphic test wells to retrieve core samples and conduct seismic surveys to model the subsurface CO2 plume migration behavior.

Application of the Four-Part Test and QRE Identification

The sophisticated engineering and geological modeling activities associated with Project Tundra generate massive QREs eligible for both federal and state tax credits.

• Section 174 Test: The design of the custom aerosol mitigation system and the sub-surface storage modeling address fundamental technical uncertainties. At the project’s outset, information objectively available does not establish the exact capability or appropriate design required to continuously strip CO2 from lignite exhaust without rapidly degrading the expensive amine solvents.
• Technological in Nature: The process of experimentation relies fundamentally on the principles of chemical engineering, thermodynamics, and geology.
• Business Component Test: The newly designed carbon capture process and the proprietary integration architecture constitute new or improved business components for the taxpayer.
• Process of Experimentation: The engineers systematically evaluate different solvent concentrations, temperature gradients, and scrubber geometries through computer simulation and scale-model testing. Simultaneously, geologists analyze core samples from the stratigraphic test wells to systematically map rock porosity and permeability, determining the optimal injection pressure.

North Dakota State Credit Application: Because the engineering design work, project management, and geological data analysis occur at the cooperative’s Bismarck offices, and the physical test wells are drilled in North Dakota, the wages of the engineers and the massive supply costs associated with drilling the test wells are eligible for the N.D.C.C. § 57-38-30.5 credit.

Tax Administration Guidance and Case Law Analysis

This scenario introduces a complex interplay between the IRC § 41 R&D credit and other federal energy incentives. Under the Inflation Reduction Act, the IRS issued Notice 2023-18, outlining advanced energy project credits (IRC § 48C), and taxpayers may also seek the IRC § 45Q Credit for Carbon Oxide Sequestration. Under IRS guidelines, the design and testing phases of the facility qualify for R&D credits prior to commercial operation. Once the facility begins continuously capturing CO2, the research phase ends (triggering the commercial production exclusion), and the taxpayer transitions to claiming the $85 per ton production credit under Section 45Q.

Furthermore, the taxpayer must carefully navigate the “Funded Research” exclusion under IRC § 41(d)(4)(H). Project Tundra receives significant financial backing, including a $38.5 million cost-share grant from the U.S. Department of Energy (DOE) and millions from the North Dakota Industrial Commission (NDIC). Under IRS regulations, research costs reimbursed by a government grant cannot be claimed as QREs unless the funding is contingent upon the successful completion of milestones (meaning the taxpayer retains the economic risk). Therefore, the cooperative may only claim R&D tax credits on the self-funded portion of the budget that exceeds the guaranteed government grants.

Case Study 2: Equipment Manufacturing and Prototyping

Historical Development of Bismarck Manufacturing

The manufacturing sector in the Bismarck-Mandan region was born out of necessity, developing in direct response to the mechanical demands of the harsh climate and the heavy agricultural and mining industries. A highly skilled regional workforce, competitive wages, and low energy costs transformed the area into a premier destination for Original Equipment Manufacturers (OEMs).

The crown jewel of this sector is Doosan Bobcat. The compact equipment industry essentially originated in the Dakotas in 1956 when Cyril and Louis Keller invented the first three-wheeled compact loader to help a local farmer clean out his multi-story turkey barn. The company evolved into a global powerhouse. Today, Bobcat operates a massive manufacturing facility in Bismarck, employing over 700 professionals to build excavators, track loaders, and aftermarket parts.

Demonstrating a profound commitment to localized R&D, Bobcat completed a $28 million expansion in 2014 to open the “Acceleration Center” at the Northern Plains Commerce Centre in Bismarck. This state-of-the-art, LEED-certified facility houses 175 engineers tasked with initial product design, prototype engineering, computer simulation, and physical testing. It encompasses 190,000 square feet of indoor lab space and 22 acres of outdoor machine operation areas specifically designed for accelerated innovation and destructive testing.

R&D Scenario: Hydraulic Systems at the Acceleration Center

An equipment manufacturer operating a dedicated innovation center in Bismarck seeks to radically redesign the auxiliary hydraulic systems of its next-generation compact track loader. The engineering directive is to increase the machine’s overall lifting capacity by 15% without increasing the total weight or physical footprint of the equipment. This stringent requirement forces the engineers to abandon standard materials and experiment with novel, unproven high-tensile steel alloys to construct thinner, lighter hydraulic manifolds.

The engineers utilize advanced CAD software to simulate extreme fluid dynamics and heat dissipation within the new manifold geometries. Following the digital simulations, the team moves to the on-site prototype manufacturing lab, machining physical models of the manifolds from the experimental steel alloys. These prototypes are then subjected to punishing destructive pressure testing and real-world fatigue operations on the 22-acre outdoor test track in sub-zero North Dakota winter conditions.

Application of the Four-Part Test and QRE Identification

Manufacturing R&D generates significant QREs, particularly in the form of prototype supplies, provided the testing is sufficiently documented.

• Section 174 Test: The engineering team faces genuine technical uncertainty regarding the fatigue limits and microscopic fracturing potential of the new steel alloys under continuous high-pressure hydraulic cycling.
• Technological in Nature: The research fundamentally relies on the principles of mechanical engineering, materials science, and fluid dynamics.
• Business Component Test: The newly designed hydraulic manifold and the resultant compact track loader constitute the business components.
• Process of Experimentation: The iterative process of moving from CAD simulation to physical prototype machining, followed by destructive pressure testing and subsequent redesign based on the failure points, is the textbook definition of a systematic trial-and-error methodology.

North Dakota State Credit Application: The wages of the mechanical engineers, CAD technicians, and prototype machinists working at the Bismarck facility qualify for the state credit. Crucially, the cost of the raw high-tensile steel, the specialized hydraulic fluid used during the trials, and the components physically destroyed during pressure testing qualify as “supply QREs” under both federal and North Dakota state law, generating a massive credit base.

Tax Administration Guidance and Case Law Analysis

The legal boundary defining exactly what constitutes a legitimate “supply QRE” in a manufacturing context was heavily litigated in Union Carbide Corp. v. Commissioner (T.C. Memo. 2009-50). This watershed case, affirmed by the Second Circuit Court of Appeals and denied certiorari by the Supreme Court in 2013, is the guiding precedent for manufacturers.

In Union Carbide, the taxpayer claimed millions in R&D credits for the costs of raw materials (chemicals) used during massive, commercial-scale production runs. The company argued that because they were testing a new manufacturing process, all the supplies utilized on the production line during that test phase were experimental QREs. The Tax Court decisively rejected this argument, ruling that the supplies were used in ordinary production to create goods intended for commercial sale, not exclusively for experimentation. The court drew a strict line between true experimental prototype supplies and indirect production supplies. Additionally, the court ruled that one of Union Carbide’s projects failed the process of experimentation test entirely because it involved merely “simple validation testing” to ensure a product worked, rather than systematically evaluating alternative designs to resolve a core uncertainty.

For the Bismarck equipment manufacturer, the Union Carbide precedent provides clear operational boundaries. The manufacturer may legally claim the costs of the experimental steel and hydraulic manifolds that are machined specifically within the prototype lab and subsequently destroyed or evaluated in testing. However, once the final loader design is approved and moves to the primary Bismarck manufacturing floor for its first commercial production run, the raw steel and parts used to build the loaders destined for retail dealerships cannot be claimed as R&D supplies. At that point, the activity violates the statutory exclusion for research conducted after the beginning of commercial production.

Case Study 3: Software Development and Information Technology

Historical Development of Bismarck’s IT Sector

The software and Information Technology (IT) sector in the Bismarck-Mandan region grew from an unlikely, highly localized origin: rural utility cooperatives. In the early 1960s, rural electric and independent telephone cooperatives across the Dakotas realized a fundamental economic truth. It was simply not financially feasible for each small, geographically isolated utility to purchase multimillion-dollar mainframe computers, hire dedicated programming teams, and develop proprietary billing and accounting software from scratch.

Embracing the agrarian cooperative model that defined the region, industry leaders formed centralized data processing organizations. North Central Data Cooperative (NCDC) was incorporated in Mandan in 1966, and Central Area Data Processing (CADP) was formed in 1967. These entities operated on a not-for-profit basis, pooling the resources of hundreds of utilities to build shared, robust IT infrastructure. In 2000, CADP and NCDC merged in a nearly unanimous vote to form the National Information Solutions Cooperative (NISC). Today, NISC, headquartered in Mandan (part of the Bismarck MSA), is a massive technology juggernaut. It employs over 1,000 professionals nationally and provides advanced, integrated IT solutions for consumer billing, smart grid management, and accounting to over 860 utilities across the country. This unique cooperative history cemented Bismarck as a hub for specialized enterprise software engineering.

R&D Scenario: Smart Grid and Operations Analytics Software

A Bismarck-based IT cooperative embarks on a massive software engineering initiative to architect an advanced, cloud-native Operations Analytics platform designed to manage next-generation smart grids. The software must ingest and normalize real-time, unstructured telemetry data streaming from millions of disparate smart meters across multiple rural grids simultaneously. Furthermore, the development team intends to build a proprietary machine-learning algorithm capable of identifying voltage anomalies and predicting physical transformer failures hours before they occur. The software engineers face massive technical uncertainty regarding how to scale the underlying database architecture to handle petabytes of data with sub-second latency while maintaining ironclad cybersecurity protocols.

Application of the Four-Part Test and QRE Identification

Software development is historically one of the most complex and heavily audited areas of the R&D tax credit, warranting a specific IRS Audit Guidelines document.

• Section 174 Test: The project passes the test because the capability and optimal architectural methodology for scaling the predictive algorithm to handle the specified data load is fundamentally uncertain at the project’s inception.
• Technological in Nature: The research relies entirely on the principles of computer science, specifically database architecture and algorithmic logic.
• Business Component Test: The new Operations Analytics software platform constitutes the business component.
• Process of Experimentation: The software developers engage in an agile development process. They systematically write code, test caching methodologies, conduct load testing simulations to measure latency under stress, discard failed code branches, and iterate on the algorithm’s predictive weighting.

North Dakota State Credit Application: Developer wages constitute the vast majority of QREs in software development. Because the programmers, systems architects, and quality assurance testers are physically performing their duties at the Bismarck/Mandan campus, their W-2 wages are fully eligible for the N.D.C.C. § 57-38-30.5 credit. If a developer spends 80% or more of their annual logged hours writing code for this specific analytics project, 100% of their wages may be captured as QREs under the “substantially all” safe harbor rule.

Tax Administration Guidance and Case Law Analysis

Software development faces a unique and notoriously difficult statutory hurdle under IRC § 41(d)(4)(E): the exclusion for Internal-Use Software (IUS). If software is developed primarily for the taxpayer’s internal administrative or operational functions (e.g., a custom HR portal or inventory management tool), it is presumed ineligible unless it passes a rigorous three-part “High Threshold of Innovation” test. The taxpayer must prove the software is highly innovative, entails significant economic risk, and cannot be purchased commercially off-the-shelf. However, because the Bismarck IT cooperative is developing the Operations Analytics platform to license and deploy externally to its utility members across the country, it is classified as commercial software and avoids the stringent IUS limitations.

The cornerstone case law dictating how software R&D must be documented is Suder v. Commissioner (T.C. Memo. 2014-201). In Suder, the taxpayer (a developer of telephone systems software) successfully defended its R&D credits in Tax Court. The court provided a detailed, thoughtful framework for assessing software research, noting that the taxpayer won because it utilized a highly structured, rigorous product development lifecycle. The taxpayer maintained detailed project-tracking software that explicitly documented the exact technical hurdles encountered during weekly coding sprints and the specific design alternatives evaluated to overcome those bugs.

For the Bismarck IT firm, the Suder precedent dictates that generalized claims of “writing code” or simply presenting a finished software product to an IRS examiner will result in a disallowance. The company must meticulously preserve the digital paper trail of its agile sprints, bug trackers (like Jira or Azure DevOps), architecture schematics, and commit logs to prove the process of experimentation occurred.

Case Study 4: Agriculture and Value-Added Processing

Historical Development of Bismarck Agriculture

The Bismarck-Mandan region lies at the geographical heart of North Dakota’s massive agricultural sector. Burleigh and Morton counties consistently rank as top producers in the state regarding acreage dedicated to spring wheat, durum wheat, corn, sunflowers, and beef production. Historically, the regional economy relied on the basic extraction and export of raw commodities. However, the inherent volatility of global commodity markets and unpredictable weather patterns forced local producers to innovate to protect their profit margins. This drove the transition toward “value-added agriculture”—operations that physically change, enhance, or refine an agricultural product to increase its market value, shelf-life, or nutritional profile before it leaves the state.

R&D Scenario: Advanced Flour Milling and Feed Optimization

A family-owned agricultural processing and livestock company based near Bismarck seeks to develop two new commercial products. First, they aim to engineer a proprietary, high-protein durum wheat flour blend that absorbs 20% less oil during commercial deep-frying applications. Second, they are formulating a novel biological feed additive designed to increase the nutrient absorption rate and mitigate specific seasonal diseases in local beef cattle.

The company’s master millers and lab technicians run dozens of iterative moisture and granular milling tests on varying strains of locally sourced durum wheat, analyzing the granular structure under microscopes. Simultaneously, the veterinary and husbandry staff conduct controlled, double-blind feeding trials on a pilot herd of 50 cattle, drawing blood weekly to test metabolic responses and weight gain metrics associated with the new biological feed formulation.

Application of the Four-Part Test and QRE Identification

Historically, agricultural companies and their CPAs erroneously assumed that farming and milling operations did not qualify for the R&D credit, believing the incentive was reserved for high-tech laboratories. However, applied agricultural science is highly eligible if appropriately structured.

• Section 174 Test: Both the development of the low-absorption flour and the biological feed additive address genuine capability uncertainties. The exact milling pressure, roller temperature, and feed formulations required to achieve the desired outcomes are unknown at the outset.
• Technological in Nature: The activities fundamentally rely on the hard sciences of biology, veterinary science, chemistry, and physics.
• Business Component Test: The new commercial flour blend and the proprietary feed additive are new business components.
• Process of Experimentation: The company evaluates alternatives through a systematic trial-and-error process, adjusting the mill settings and the feed mixture percentages iteratively based on the chemical analysis of the flour and the biometric data collected from the cattle.

North Dakota State Credit Application: Because these experimental milling and livestock feeding activities take place physically in North Dakota, the W-2 wages of the millers, laboratory technicians, and veterinary staff qualify for the state credit.

Tax Administration Guidance and Case Law Analysis

Agricultural R&D operates under the shadow of two critical, contrasting Tax Court decisions that strictly define the boundaries of eligibility and documentation.

The first is the watershed case George v. Commissioner, a massive victory for the agriculture industry. In this case, a large poultry producer claimed significant R&D credits related to feed additives, vaccination methods, and flock management techniques. The IRS argued that farming was not scientific research. The Tax Court vehemently disagreed, confirming that agricultural activities aimed at resolving biological uncertainties constitute qualified research. Crucially, the court validated the concept of the “pilot model” in an agricultural setting. The court ruled that the animals themselves—along with the experimental feed and veterinary supplies used during the testing phase—can be legally claimed as qualified supply QREs. This precedent secures the Bismarck company’s right to capture the costs of the 50 head of cattle in their pilot herd and the feed they consume.

The second case, Siemer Milling Company v. Commissioner (T.C. Memo. 2019-37), serves as a stark warning. Siemer, a family-owned wheat milling company, claimed research credits for product and process improvements. While the Tax Court agreed that milling product development could qualify, it entirely disallowed Siemer’s credits because the company failed the documentation burden. Siemer relied merely on employee job titles (e.g., claiming 100% of the time of anyone labeled a “lab tech” or “miller”) rather than explicitly tying employee hours to specific, documented scientific uncertainties and experimental trials. The court found they failed to prove a systematic process of experimentation occurred. However, the court waived accuracy-related penalties because Siemer had reasonably relied on the advice of their CPA firm to prepare the claim.

For the Bismarck milling operation, the Siemer Milling disaster dictates that they must maintain rigorous, contemporaneous laboratory logs, detailed batch records for the flour, and precise veterinary charts for the cattle. They cannot simply estimate the time spent on R&D at the end of the year.

Case Study 5: Healthcare and Clinical Research

Historical Development of Bismarck’s Healthcare Sector

Bismarck serves as the preeminent healthcare and medical research hub for central and western North Dakota. The rapid population growth associated with the oil booms placed immense pressure on local medical infrastructure, prompting massive, sustained capital expansions. Today, the city’s economy is anchored by two major medical systems: Sanford Health (which is the largest single employer in the state of North Dakota) and CHI St. Alexius Health.

Both institutions have aggressively evolved beyond providing standard clinical care to become sophisticated hubs of medical research and technological innovation. Sanford Research operates a massive clinical trials program encompassing oncology, genetics, cellular therapies, and rare diseases, seamlessly integrating research directly into patient care. Similarly, CHI St. Alexius operates the advanced Bismarck Cancer Center and conducts complex clinical trials utilizing state-of-the-art diagnostic technologies, including the region’s first digital PET/CT imaging systems.

R&D Scenario: Oncology Trials and Genetic Screening Algorithms

A major medical center in Bismarck launches two distinct research initiatives.

First, the oncology department participates as a primary clinical site for an early-phase (Phase 1) clinical trial testing a novel, experimental immunotherapy drug targeting aggressive head and neck cancers. The clinical research coordinators and principal investigators administer the drug, monitor severe adverse reactions, and meticulously chart tumor regression biometrics.

Second, the hospital’s internal IT and bio-informatics team begins developing a proprietary software algorithm. This algorithm is designed to cross-reference millions of unstructured patient electronic health records (EHR) with new data generated from the hospital’s free genetic screening program (which targets hereditary breast cancer and Lynch syndrome mutations). The goal is to create a predictive risk-profile dashboard for primary care physicians.

Application of the Four-Part Test and QRE Identification

The intersection of healthcare and R&D credits requires careful navigation of the IRS Pharmaceutical Audit Techniques Guide.

• Four-Part Test Application (Clinical Trials): The clinical administration of experimental immunotherapies involves evaluating human biological responses, fundamentally relying on the biological sciences (Technological in Nature). The process of experimentation evaluates the drug’s efficacy and optimal dosing to eliminate uncertainty regarding its therapeutic viability.
• Four-Part Test Application (Genetic Software): The development of the predictive algorithm is a new software business component. The team faces capability and design uncertainty regarding how to normalize unstructured EHR data and correctly weight the genetic markers. The coding and statistical validation of the algorithm against historical patient outcomes constitute a rigorous process of experimentation.
• North Dakota State Credit: Assuming no external funding exclusions apply, the W-2 wages of the bio-informatics team, the principal investigators, and the clinical research nurses physically located in Bismarck, as well as the specialized laboratory supplies consumed during the trials, are eligible for the N.D.C.C. § 57-38-30.5 credit.

Tax Administration Guidance and Case Law Analysis: The “Funded Research” Exclusion

The most critical legal issue for the Bismarck hospital is the IRC § 41(d)(4)(H) exclusion for “Funded Research,” which is highly prevalent in the medical sector. Under Treasury Regulations, research is considered funded (and therefore completely ineligible for the R&D credit) if the taxpayer fails either prong of a two-part test:

1. The taxpayer must bear the economic risk of the research failing.
2. The taxpayer must retain substantial rights to the results of the research (e.g., patent rights, right to use the algorithm without paying a royalty).

If the hospital is conducting the Phase 1 immunotherapy trial on a contract basis for a major pharmaceutical company (the sponsor), and the sponsor retains all patent rights to the drug while paying the hospital a flat fee per patient enrolled, the hospital cannot claim the R&D credit. The pharmaceutical company, bearing the risk and owning the rights, claims the credit. Conversely, if the hospital is utilizing its own internal operating budget to develop the genetic screening algorithm, it bears the economic risk of the software failing and retains the intellectual property rights. In this scenario, the hospital may fully claim the R&D credit for the software development project.

Strategic Tax Planning and Audit Defense in North Dakota

For businesses operating in Bismarck, the dual availability of the federal and North Dakota state R&D tax credits provides a powerful financial mechanism to subsidize the high costs of technological advancement, workforce training, and capital expansion. However, the regulatory environment is increasingly hostile to poorly substantiated claims. As demonstrated by the Tax Court rulings in Siemer Milling and Union Carbide, the IRS and state taxing authorities are uncompromising regarding documentation and the strict separation of experimental activities from ordinary commercial production.

Taxpayers in Bismarck must implement sophisticated, contemporaneous tracking systems that explicitly link employee hours and supply costs to specifically identified technical uncertainties and experimental iterations. Furthermore, the unique financial ecosystem of North Dakota—particularly the prevalence of cost-share grants from the North Dakota Industrial Commission (NDIC) and subsidized programs from the Bank of North Dakota (BND)—requires taxpayers to meticulously track funding sources to avoid violating the funded research exclusion. Standard commercial loans from BND do not trigger the exclusion, as the taxpayer must repay the loan regardless of the research outcome, thereby maintaining the economic risk. However, direct non-recourse grants must be carefully carved out of the QRE base.

Finally, for emerging startups in Bismarck’s tech, energy, and manufacturing sectors, the North Dakota state provision allowing the transfer and sale of up to $100,000 in tax credits provides an immediate, highly liquid cash infusion. This mechanism effectively acts as non-dilutive capital for primary sector businesses with under $750,000 in revenue, drastically accelerating the pace of early-stage innovation in the region.

Final Thoughts

The industrial and economic trajectory of Bismarck, North Dakota, has evolved dramatically from a 19th-century railway outpost and river freight hub into a highly sophisticated, diversified center for value-added energy, advanced agriculture, cooperative software development, equipment manufacturing, and clinical healthcare research. The United States federal R&D tax credit (IRC § 41) and the parallel North Dakota state credit (N.D.C.C. § 57-38-30.5) serve as vital financial instruments that continuously support and catalyze this evolution. By thoroughly understanding the rigorous parameters of the four-part test, successfully navigating complex statutory exclusions like funded research, and strictly adhering to the contemporaneous documentation standards established by recent Tax Court case law, Bismarck enterprises can legally and effectively leverage these tax codes to offset liabilities, fund future expansion, and maintain their competitive edge in the global innovation marketplace.

The information in this study is current as of the date of publication, and is provided for information purposes only. Although we do our absolute best in our attempts to avoid errors, we cannot guarantee that errors are not present in this study. Please contact a Swanson Reed member of staff, or seek independent legal advice to further understand how this information applies to your circumstances.