The United States federal Research and Development tax credit, coupled with the Oklahoma Research and Development Rebate Program, provides comprehensive financial incentives for qualifying innovation within Moore, Oklahoma. This detailed study examines the distinct economic history of five key industries in Moore and provides an exhaustive analysis of the applicable federal regulations, state statutes, and prevailing case law governing these tax incentives.

Industry Case Studies and Innovation in Moore, Oklahoma

The city of Moore, located in Cleveland County as a southern suburb of Oklahoma City, possesses a rich and varied industrial history that directly informs its current technological landscape. First settled in 1887 and originally known as Verbeck before being renamed for an Atchison, Topeka and Santa Fe Railway conductor, the municipality remained a relatively small settlement for decades. It was not until the 1960s that Moore experienced massive, planned urban and industrial development, which rapidly transformed its demographic and economic profile. During this period, the city annexed significant territory, and heavy industries began establishing operations to support the broader regional booms in energy, aerospace, and manufacturing. Today, Moore represents a critical node in Oklahoma’s innovation ecosystem. The following case studies outline the historical development of five specific industries within the Moore area, detailing the complex technological challenges they face and illustrating precisely how their operations satisfy the stringent requirements of both the United States federal Research and Development (R&D) tax credit and the Oklahoma state R&D incentive programs.

Aerospace Maintenance, Repair, and Overhaul (MRO) and Component Manufacturing

The aerospace and defense sector stands as Oklahoma’s second-largest and fastest-growing industry, generating an extraordinary forty-four billion dollars in annual statewide economic activity and supporting over two hundred thousand jobs. The historical genesis of this industry in the Moore region is inextricably linked to the broader aviation legacy of Oklahoma, which traces its roots back to pioneers like Wiley Post and the massive mobilization of Douglas Aircraft during the Second World War. The foundational anchor for Moore’s aerospace sector is its immediate geographic proximity to Tinker Air Force Base in neighboring Oklahoma City, which operates as the largest military aircraft maintenance, repair, and overhaul facility on the planet. Following the war and throughout the rapid industrial expansion of the 1960s, a localized supply chain of private aerospace contractors, computer numerical control machining operations, and avionics testing facilities proliferated in Moore to support the logistical and engineering demands of both Tinker Air Force Base and the Federal Aviation Administration’s Mike Monroney Aeronautical Center.

An aerospace manufacturing firm located in Moore that specializes in the reverse-engineering and fabrication of obsolete landing gear components for legacy military aircraft frequently engages in activities that qualify for federal and state R&D tax incentives. When original equipment manufacturer blueprints are degraded, or when they rely on materials that are no longer commercially available or compliant with modern environmental regulations, the manufacturer cannot engage in routine, repetitive production. The federal R&D tax credit, codified under Internal Revenue Code Section 41, requires that the research satisfy a rigorous four-part test, beginning with a permitted purpose. In this scenario, the firm’s purpose is to design a new manufacturing process and an improved replacement component that meets contemporary Department of Defense metallurgical standards, thereby satisfying the first statutory requirement. Technical uncertainty, the second requirement, exists because the engineering team does not possess the requisite information to determine whether modern composite alloys can achieve the specific tensile strength and fatigue resistance of the original beryllium-copper parts without negatively altering the aircraft’s critical weight distribution.

To eliminate this uncertainty, the firm must engage in a process of experimentation, satisfying the third criteria. The engineering team might utilize advanced finite element analysis software to simulate aerodynamic and mechanical stress on virtual models, followed by the systematic destructive testing of multiple physical alloy prototypes under cryogenic conditions to mimic high-altitude atmospheric exposure. Finally, because this experimental process is fundamentally governed by the principles of materials science, metallurgy, and aerospace engineering, it successfully meets the fourth requirement of being technological in nature. For this Moore-based firm, the wages paid to the aerospace engineers conducting the finite element analysis, the cost of the consumable alloys destroyed during the testing phase, and a percentage of specialized third-party metallurgical testing expenses qualify as research expenditures under federal law. Furthermore, under the newly enacted Oklahoma Research and Development Rebate Program, five percent of these locally incurred expenses would be eligible for a direct cash rebate, provided the firm files the requisite federal forms and maintains good standing with the Oklahoma Tax Commission. Additionally, the engineers’ salaries could separately qualify the firm for the Aerospace Industry Engineer Workforce Tax Credit, a targeted state incentive offering a five to ten percent tax credit on engineering compensation.

Weather Technology and Meteorological Systems

The development of the weather technology industry in Moore is a direct, adaptive response to the city’s unique geographic placement within the highly volatile region colloquially known as Tornado Alley. The catastrophic meteorological events that have struck the city, most notably the EF5 tornadoes on May 3, 1999, and May 20, 2013, caused billions of dollars in property damage and tragic loss of life, but they also catalyzed an unprecedented concentration of atmospheric research and weather technology commercialization. Moore’s immediate proximity to the University of Oklahoma’s National Weather Center and the National Severe Storms Laboratory in Norman has facilitated immense public-private technology transfer. Private sector weather technology firms, atmospheric data processors, and specialized meteorological consulting companies have established operations in and around Moore to leverage the exceptional talent pipeline generated by these institutions and to test hardware and software in one of the most active atmospheric environments on Earth.

Consider a software engineering and meteorological technology firm based in Moore that is developing a proprietary algorithmic platform designed to integrate raw, unstructured data from dual-polarization phased-array radars with localized topographical models to predict micro-scale tornadic genesis with greater lead time. The firm’s objective represents a permitted purpose under Internal Revenue Code Section 41, as they are attempting to develop a novel software architecture to significantly improve the predictive accuracy and functionality of a commercial weather warning system. The firm encounters profound technical uncertainty regarding software architecture, algorithmic efficiency, and data processing capabilities. Specifically, the engineers must determine how to optimize data throughput and reduce algorithmic latency when processing terabytes of complex radar telemetry in real-time, an uncertainty that cannot be resolved through standard software engineering practices.

To resolve these technical challenges, the software developers engage in a systematic process of experimentation, utilizing agile programming methodologies to iteratively test various machine learning architectures, neural networks, and data-caching protocols. They continuously run simulations against historical radar datasets, such as the telemetry captured during the 2013 Moore tornado, to empirically validate the predictive accuracy of each algorithmic iteration. This iterative coding, testing, and refinement process is firmly rooted in the hard sciences of computer science, meteorology, and data physics, thereby fulfilling the technological in nature requirement. The wages of the software developers, data scientists, and systems architects directly engaged in writing the code are eligible qualified research expenses under federal law. If the firm partners with the University of Oklahoma or a similar institution for specialized data analysis, they may also qualify for the enhanced seventy-five percent calculation rate applied to amounts paid to a qualified research consortium under Internal Revenue Code Section 41(b)(3)(C). These software development expenses, incurred entirely within the state of Oklahoma, directly form the basis for the state’s five percent cash rebate under Senate Bill 324.

Advanced Manufacturing for Energy Services

The industrial and manufacturing backbone of Moore and the broader Oklahoma City metropolitan area was forged during the early twentieth-century oil boom, which brought unprecedented capital, infrastructure, and heavy industrial demand to central Oklahoma. As the oil and natural gas extraction industry matured over the decades, the demand for highly specialized, heavy industrial processing equipment surged exponentially. During the 1960s, Moore experienced rapid industrial zoning that specifically attracted metal fabrication foundries, machine shops, and energy service manufacturers. Today, companies specializing in natural gas processing, conditioning, and emissions-control equipment operate expansive facilities in Moore. These facilities heavily benefit from the city’s robust interstate highway infrastructure, allowing for the efficient transport of massive, custom-built, code-compliant pressure vessels to energy fields globally.

An industrial manufacturer in Moore contracted to design and fabricate a first-in-class gas dehydration and amine sweetening skid unit intended for deployment in an ultra-deepwater, high-pressure, high-temperature offshore environment routinely engages in qualified research activities. The permitted purpose of the research is to design an improved gas conditioning process unit that achieves enhanced corrosion resistance and a reduced spatial footprint to accommodate the strict spatial limitations of an offshore platform. The engineering team faces immediate technical uncertainty regarding the optimal internal baffle geometry and the specific wall thickness required to withstand highly corrosive hydrogen sulfide gas at extreme pressures while simultaneously minimizing the overall weight of the skid. Standard engineering tables and historical data are insufficient to guarantee the performance of this bespoke design under such extreme environmental constraints.

The company’s engineers must evaluate multiple geometric configurations using computational fluid dynamics modeling to simulate gas flow and pressure distribution, demonstrating a clear process of experimentation. Following computational modeling, the manufacturing team fabricates scale physical models and conducts rigorous hydrostatic testing, accompanied by non-destructive radiographic and ultrasonic evaluation to identify microscopic failure points in the complex welds. This entire methodology relies exclusively upon the principles of mechanical engineering, fluid dynamics, and thermodynamics. The wages of the mechanical engineers designing the unit and the highly specialized code welders participating in the fabrication of the experimental prototypes are eligible qualified research expenses. The firm must ensure detailed time-tracking separates standard, repetitive production welding from experimental prototype fabrication to comply with IRS documentation standards. State-level R&D rebates apply to these localized expenses, providing critical liquidity to offset the exceptionally high costs associated with custom heavy industrial fabrication and testing in Moore.

Tornado-Resistant Construction Materials and Structural Engineering

No single industry is more uniquely tied to the modern historical narrative of Moore than the research and development of resilient building materials and structural engineering systems. The sheer destructive force of the tornadoes that have impacted the city initiated intense national and local scrutiny of residential and commercial construction practices. Post-disaster engineering reconnaissance and forensic structural analysis conducted by federal agencies in Moore highlighted systemic failures in traditional load paths, roof anchoring systems, and brick veneers. Consequently, Moore evolved into a primary incubator for companies focused on structural survivability and disaster mitigation. Building upon Oklahoma’s early twentieth-century legacy of brickmaking and concrete production, modern manufacturers of insulated concrete forms, specialized steel anchoring systems, and modular storm shelters established research and production facilities in the region. These entities are dedicated to developing materials capable of withstanding three-hundred-mile-per-hour wind shears and extreme, high-velocity debris impacts.

A Moore-based manufacturer of advanced construction materials undertaking an initiative to develop a novel interlocking steel-reinforced wall panel system designed to maintain structural integrity under EF5 tornadic loads engages heavily in qualified research. The permitted purpose is the creation of a new, highly resilient structural building component that remains economically viable for standard residential construction. The company faces significant technical uncertainty regarding the optimal chemical composition of the synthetic bonding agents used within the composite panels and the precise geometric design of the interlocking joints necessary to maximize shear strength under catastrophic atmospheric pressure changes.

To eliminate this uncertainty, engineers formulate various synthetic bonding adhesives in laboratory settings, curing them under a wide matrix of temperature and humidity parameters to determine optimal tensile strength. They subsequently subject full-scale prototype wall assemblies to rigorous pneumatic cannon debris-impact testing—firing two-by-four timber at speeds exceeding one hundred miles per hour—and mechanical shear-load simulations. The engineering team iteratively adjusts the joint geometry and adhesive chemical formulations until the panel reliably surpasses federal emergency management standards without failure. This experimentation relies deeply on structural engineering, materials science, and polymer chemistry. The costs associated with developing the prototypes, the materials destroyed during the pneumatic impact testing, and the wages of the structural engineers conducting the research are highly defensible expenditures under the federal R&D tax credit. Furthermore, under Oklahoma’s New Products Development Income Tax Exemption, if the firm successfully patents this novel wall system, they could exempt royalty income generated from the product from state taxes for seven years and exclude up to five hundred thousand dollars of the depreciable property purchased to manufacture the panels within the state.

Biotechnology and Bioscience Therapeutics

While historically dominated by the aerospace and energy sectors, the Greater Oklahoma City region—which geographically and economically encompasses Moore—has aggressively expanded its biotechnology sector over the past two decades. Fueled by strategic public and private investments, including a recent thirty-five million dollar Build Back Better regional challenge grant awarded to bolster the region’s emerging biotech hub, the area now supports a massive bioscience cluster. The establishment of the Oklahoma City Innovation District, alongside robust partnerships with university research institutions, has created a fertile ecosystem for contract development and manufacturing organizations, clinical diagnostics developers, and biologic formulation entities. Moore’s available commercial real estate, lower operational costs relative to coastal biotech hubs, and proximity to this central innovation district have made it a highly attractive location for specialized bioscience manufacturing and pharmaceutical supply chain operations.

A biotechnology contract development and manufacturing organization operating a facility in the Moore area that is contracted by an innovator pharmaceutical company to scale up the manufacturing process of a novel monoclonal antibody therapy must navigate profound scientific challenges. The permitted purpose of their research is to develop a new, highly scalable biomanufacturing process capable of yielding commercial quantities of the biologic therapy without degrading the antibody’s fragile therapeutic efficacy or molecular structure. The firm encounters severe biological uncertainty regarding the optimal bioreactor parameters, including precise pH levels, dissolved oxygen concentrations, agitation shear rates, and nutrient feed strategies required to maximize cellular growth and protein expression while simultaneously minimizing the generation of toxic metabolic byproducts.

Bioprocess engineers execute a highly structured design of experiments matrix, running numerous parallel small-scale bioreactors to test various permutations of cellular feed media and environmental controls. They utilize advanced analytical techniques such as mass spectrometry and high-performance liquid chromatography to carefully analyze the resultant protein yield and purity from each batch, adjusting the parameters iteratively until the target scalability and molecular stability are achieved. These activities are deeply rooted in the hard sciences of microbiology, biochemistry, and bioprocess engineering. The wages of the biochemists, the substantial costs of laboratory reagents, specialized feed media, and disposable bioreactor bags consumed during the experimental process are fully eligible qualified research expenses under federal law. Given the immense localized expenditures inherently associated with biological process development, this presents an optimal scenario for claiming the maximum five percent state cash rebate under the Oklahoma Research and Development Rebate Program, provided the firm navigates the funded research exceptions dictated by their client contracts.

Detailed Analysis of the United States Federal R&D Tax Credit Framework

The United States federal Research and Development Tax Credit, codified under Section 41 of the Internal Revenue Code, serves as a premier financial incentive designed to stimulate domestic innovation and technological advancement across various industries. For businesses operating in Moore, Oklahoma, successfully claiming the credit requires a sophisticated understanding of statutory tests, contemporary Internal Revenue Service guidance, and evolving corporate tax compliance standards.

The Statutory Four-Part Test under IRC Section 41

Eligibility for the federal R&D tax credit is strictly governed by a four-part test, which must be applied and documented at the specific business component level rather than at the macro organizational level. A business component is statutorily defined by the Internal Revenue Code as any product, process, computer software, technique, formula, or invention that is to be held for sale, lease, or license, or used by the taxpayer in their trade or business.

The first criterion, commonly referred to as the Permitted Purpose test, mandates that the research activities must be undertaken with the explicit intention to create a new business component or to improve an existing one, resulting in enhanced functionality, performance, reliability, or quality. Activities directed solely at aesthetic alterations, seasonal design changes, or purely cosmetic improvements are explicitly excluded from qualification under the law.

The second criterion involves the Elimination of Technical Uncertainty. The taxpayer must demonstrate that, at the outset of the development project, the information available to the organization did not establish the capability or method for developing or improving the business component, or the appropriate final design of the component. This uncertainty must be strictly technical in nature; uncertainties relating merely to financial viability, market acceptance, or general business risks do not meet the statutory threshold.

The third criterion requires a Process of Experimentation. The taxpayer must engage in a systematic, evaluative process designed to assess one or more alternatives to achieve a result where the capability or the method of achieving that result is technically uncertain. This process frequently involves computational modeling, physical simulation, systematic trial and error, or the execution of highly structured scientific testing protocols.

The fourth criterion dictates that the research must be Technological in Nature. The process of experimentation must fundamentally rely on the principles of the hard sciences, specifically the physical or biological sciences, engineering, or computer science. Research based on economics, humanities, business management, or social sciences is strictly prohibited from qualification.

The Statutory Four-Part Test	Requirement Description	Example in Moore, Oklahoma Industries
Permitted Purpose	Activity intended to create or improve a product, process, or software for performance, reliability, or quality.	Developing an interlocking steel-reinforced wall panel for enhanced tornado resilience.
Technical Uncertainty	Capability, methodology, or final design is unknown at the outset of the project.	Uncertainty regarding the optimal internal baffle geometry of an offshore gas conditioning skid.
Process of Experimentation	Systematic evaluation of alternatives through modeling, simulation, or trial and error.	Iterative testing of bioreactor pH and dissolved oxygen parameters using Design of Experiments.
Technological in Nature	Activity relies on physical/biological sciences, engineering, or computer science.	Applying computational fluid dynamics and materials science to reverse-engineer aerospace parts.

Evolving Compliance Requirements and IRC Section 174 Capitalization

Recent legislative shifts in federal tax administration have fundamentally altered the compliance landscape for the R&D tax credit, introducing new layers of complexity for corporate taxpayers. The intricate interplay between Internal Revenue Code Section 41, which provides the credit, and Section 174, which governs the treatment of research expenses, requires meticulous attention. Following the implementation of the Tax Cuts and Jobs Act, Section 174 was amended to mandate the mandatory capitalization and amortization of domestic specified research or experimental expenditures over a five-year period, replacing the historical allowance for immediate, first-year deduction of these expenses. For foreign research, the amortization period is extended to fifteen years.

This paradigm shift creates significant book-tax differences and substantially impacts deferred tax assets and effective tax rates. Taxpayers in Moore must now intimately integrate their R&D credit qualification studies with their Section 174 expenditure tracking to ensure consistent expense categorization and to mitigate audit risks. Automation tools and centralized data systems are becoming essential to manage this integration efficiently, requiring strong collaboration among a firm’s tax, finance, and engineering departments.

Heightened Scrutiny and Form 6765 Revisions

Concurrently, the Internal Revenue Service has significantly increased its scrutiny of R&D claims, responding to a perceived historical lack of detailed substantiation by taxpayers. For the 2024 and 2025 tax years, the IRS released updated drafts of Form 6765 (Credit for Increasing Research Activities) and its accompanying instructions, which introduce severe new qualitative data reporting requirements. Taxpayers are now expected to provide granular details directly on the originally filed tax return, including comprehensive business component data, specific officer wage inclusion metrics, and precise qualitative descriptions of the technical uncertainties faced and the specific processes of experimentation utilized for each component. This heightened documentation burden underscores the absolute necessity of contemporaneous, task-specific recordkeeping; general ledger accounts and high-level project summaries are no longer legally sufficient to sustain a claim under IRS examination.

Detailed Analysis of Federal Case Law and Judicial Interpretations

The judicial branch has recently issued several pivotal decisions that clarify the strict substantiation and eligibility requirements for the federal R&D tax credit. These cases offer critical guidance and serve as cautionary tales for manufacturing, engineering, and technology firms operating in Moore, Oklahoma, particularly regarding the rigor required to document employee activities, allocate costs, and structure contractual relationships.

Substantiation and Officer Wages: Moore v. Commissioner

In the highly relevant case of Scott and Gayla Moore v. Commissioner of Internal Revenue (which, while coincidentally sharing a name with the city under analysis, is a federal tax court case), the court addressed the eligibility of wages paid to executive leadership under Section 41. The taxpayers, acting as owners of Nevco, Inc., attempted to claim the substantial salary and bonus of their company’s President and Chief Operating Officer, Gary Robert, as qualified research expenses. The United States Tax Court completely disallowed the claim, citing a catastrophic failure in taxpayer documentation.

The court specifically noted that the executive failed to maintain detailed records allocating his time among specific qualified research activities. Although standard payroll records confirmed his overall employment hours, the complete absence of task-specific documentation prevented the court from verifying the amount of time dedicated to qualified scientific endeavors versus non-qualified general management duties. Furthermore, the court definitively ruled that possessing a high-level managerial title does not automatically satisfy the strict regulatory requirement of engaging in the “direct supervision” or “direct support” of qualified research. The claim lacked credible evidence that he was actively engaged in the daily oversight or support of those conducting the experimentation. This ruling emphasizes that firms in Moore must maintain meticulous time-tracking systems that map individual employee efforts directly to technical uncertainties and experimental processes at the specific business component level.

The Burden of Proof and Experimentation: Little Sandy Coal

In Little Sandy Coal v. Commissioner, the court denied the R&D tax credit primarily due to the taxpayer’s inability to substantiate the process of experimentation and properly allocate costs across defined business components. The court recognized the reality that the taxpayer had indeed undertaken some level of developmental activity and had legitimately incurred expenses; however, the court ruled that the taxpayer failed to meet the rigorous burden of proof required to demonstrate that all evaluated activities qualified under the four-part test. Crucially, the taxpayer failed to provide a reasonable, documented basis for estimating the qualified portion of activities, instead relying on high-level, post-hoc estimations. This case reinforces the IRS’s increasingly aggressive stance on disallowing credit studies that rely on general estimates rather than detailed, contemporaneous technical documentation of hypothesis testing, design iterations, and failure analysis.

The Funded Research Exception: Smith and Phoenix Design Group

For the heavy concentration of aerospace contractors, engineering firms, and defense suppliers operating in Moore, navigating the “funded research” exception is a critical compliance hurdle. Internal Revenue Code Section 41 explicitly excludes from credit eligibility any research to the extent it is funded by any grant, contract, or otherwise by another person or governmental entity. Under the regulations, research is considered funded if the taxpayer’s payment is not strictly contingent upon the success of the research, or if the taxpayer does not retain substantial rights to the intellectual property developed during the project.

In Smith v. Commissioner, an architectural firm faced an IRS motion for summary judgment based on the argument that their client contracts funded the research, as the firm was paid for services rendered regardless of experimental success. The IRS argued that contracts requiring adherence to standard professional engineering practices did not place the firm at financial risk if the specific designs failed. The court allowed the case to proceed to trial, noting that highly nuanced interpretations of local law and specific contract terms must be evaluated to determine true financial risk. Conversely, in Phoenix Design Group, Inc. v. Commissioner, a firm employing professional engineers was completely denied credits after a trial revealed their activities constituted routine engineering and schematic design rather than qualified research involving the resolution of profound technical uncertainties. Firms in Moore must ensure their customer contracts explicitly reflect financial risk—such as utilizing firm fixed-price contracts with strict performance guarantees—and retain intellectual property rights, while simultaneously proving their engineering work surpasses routine application.

Significant Federal R&D Tax Cases	Core Legal Issue Addressed	Judicial Implication for Taxpayers
Moore v. Commissioner	Executive wage substantiation and direct supervision rules.	Titles do not guarantee qualification; task-specific time-tracking is absolutely mandatory.
Little Sandy Coal	Burden of proof and component-level cost allocation.	Post-hoc estimations are invalid; contemporaneous experimental documentation is required.
Smith v. Commissioner	Funded research exception and contractual financial risk.	Contracts must place the taxpayer at financial risk to claim the credit.
Phoenix Design Group	Routine engineering versus process of experimentation.	Standard architectural or engineering design does not qualify without technical uncertainty.

Detailed Analysis of Oklahoma State R&D Tax Credit Laws and Guidance

The landscape of state-level innovation incentives in Oklahoma has undergone a significant legislative transformation in recent years, transitioning from legacy income tax credits that were heavily restrictive to a modern, liquidity-focused direct rebate structure designed to compete with neighboring jurisdictions.

The Legacy Framework and Statutory Expiration

Historically, the state of Oklahoma offered an income tax credit for a net increase in the number of full-time-equivalent employees engaged in computer services, data processing, or research and development under 68 O.S. § 54006. This legacy credit provided a relatively minor benefit of five hundred dollars per new qualifying employee, up to a maximum of fifty employees per year. Furthermore, it was highly restrictive, imposing a strict revenue rule that required qualifying entities to derive at least fifty percent of their annual gross revenues from out-of-state buyers or consumers. Ultimately, this job-based R&D credit expired for taxable years beginning on or after January 1, 2014, leaving a decade-long gap in broad-based, dedicated R&D incentives at the state level.

The Oklahoma Research and Development Rebate Program (SB 324)

To restore Oklahoma’s competitive advantage in attracting high-technology investment and to fill the void left by the expired legacy credit, the state legislature passed Senate Bill 324 in 2025, enacting the Oklahoma Research and Development Rebate Program under 74 O.S. § 5091. Administered by the Oklahoma Department of Commerce, this landmark program fundamentally shifts the incentive mechanism from an income tax liability reduction to a direct cash rebate, making it highly advantageous for pre-profit startups, mid-market manufacturers, and established entities alike.

The program authorizes a five percent rebate on qualified research expenditures physically incurred within the geographic boundaries of Oklahoma. “Expenses incurred in this state” refers to the specific subset of federal qualified research expenditures—such as highly localized wages, testing supplies, and eligible contract research services—that are physically performed or consumed within Oklahoma. To be eligible for this rebate, an establishment must strictly satisfy the following administrative conditions:

• The establishment must have filed a federal Form 6765, Credit for Increasing Research Activities, with their federal tax return for the applicable tax year, proving adherence to the federal four-part test.
• The establishment must have incurred qualified research expenditures that occurred physically within the state of Oklahoma.
• The establishment must be in good standing with the Oklahoma Tax Commission, ensuring full compliance with state tax laws.

The rebate program is subject to a strict aggregate state-wide fiscal year cap of twenty million dollars, and claims are actively processed on a first-come, first-served basis by the Oklahoma Department of Commerce. It is crucial to note that the actual payment of these authorized rebates is contingent upon explicit legislative appropriation to the newly created Oklahoma Research and Development Rebate Fund; the legislature retains the authority to determine funding levels annually.

The New Products Development Income Tax Exemption

In addition to the primary R&D rebate, innovation-driven manufacturing and engineering firms in Moore may leverage targeted state incentives designed to protect intellectual property and capital investments. The New Products Development Income Tax Exemption, codified at 74 O.S. § 5064.7, provides immense benefits for successfully commercialized inventions. Under this statute, royalty income earned by an inventor from a product developed and manufactured in Oklahoma is entirely exempt from state income tax for a period of seven years from January 1 of the first year in which the royalty is received.

Furthermore, an in-state manufacturer producing the patented product in Oklahoma is eligible to exclude from their Oklahoma taxable income sixty-five percent of the cost of depreciable property purchased and utilized directly in manufacturing the product, subject to a maximum exclusion of five hundred thousand dollars. To qualify for these powerful incentives, the product must be patented or have a patent pending pursuant to federal law, and it must be formally registered with the Oklahoma Center for the Advancement of Science and Technology (OCAST) prior to claiming the exemption. This program, alongside the Aerospace Industry Engineer Workforce Tax Credit, completes a robust portfolio of incentives designed to maintain Moore’s trajectory as a center for advanced industrial and technological development.

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.