
In the modern landscape of “strategic competition,” the front lines aren’t just drawn on maps; they are engineered in laboratories. Aerospace and defense (A&D) innovation has become the primary theater where national security, industrial policy, and technological sovereignty intersect. While headline-grabbing defense contracts and carrier deployments capture public attention, a more subtle financial lever, the Research and Development (R&D) Tax Credit, is quietly shaping the global balance of power. In this article, Intelligence Report sat down with Randy Lieberman, CEO of Earnd, to get an inside look at his thoughts on this changing industry.
Innovation as a Strategic Imperative
Technological superiority is the ultimate currency of deterrence. Breakthroughs in propulsion, autonomy, and cybersecurity do more than modernize a fleet; they shift geopolitical calculations. However, the path to these breakthroughs is notoriously fraught. Unlike the rapid “fail fast” culture of consumer software, A&D development cycles are measured in decades, hampered by extreme regulatory hurdles, and carry high technical failure rates.
When private capital shrinks from these long horizons and uncertain payoffs, government policy steps in. In the United States, the R&D tax credit serves as a critical mechanism to bridge the gap between initial concept and mission-ready technology.
The Mechanics of “Stealth” Industrial Policy
The U.S. federal R&D tax credit is not a direct subsidy or a grant. Instead, it is a performance-based incentive that reduces a company’s tax liability based on their investment in technical experimentation. For the A&D ecosystem, ranging from “Prime” contractors to specialized tier-three suppliers, this creates a self-sustaining loop: successful research creates tax savings, which are then recycled into the next generation of engineering talent and equipment.
The scope of “qualified research” is broader than many realize, covering a vast array of dual-use technologies that bolster both military readiness and commercial competitiveness:
- Autonomous Systems: Algorithms and sensor fusion for uncrewed platforms.
- Advanced Materials: The development of high-temperature alloys and composites for extreme environments.
- Directed Energy & Sensors: Radar and infrared technologies designed for contested environments.
- Cyber-Hardening: Encryption and network architectures capable of withstanding state-sponsored intrusions.
By incentivizing these specific domains, the tax code acts as a form of “horizontal industrial policy,” encouraging firms to keep high-value engineering jobs and intellectual property within domestic borders.
The Challenge of Technical Compliance

Despite its strategic importance, the R&D credit is notoriously difficult to claim, particularly in a sector where projects are often classified or governed by complex cost-reimbursable contracts. The IRS requires rigorous documentation of the “process of experimentation” and the specific technical uncertainties being addressed.
This administrative burden has given rise to specialized advisory services. For example, firms like Earnd assist engineering-heavy companies in navigating the complex intersection of tax law and technical documentation. This ensures that mid-sized innovators, who may lack the massive accounting departments of global primes, can still access the capital necessary to compete on a global stage. Without this bridge between engineering reality and tax compliance, many of the smaller, more agile firms, often the birthplace of “disruptive” tech, might miss out on the very incentives designed to keep them solvent.
Financial Tools as Geopolitical Assets
As we move further into an era defined by software-defined warfare and rapid prototyping, the pace of innovation is a matter of national survival. Tax policy, while often relegated to the “boring” corners of fiscal debate, is a foundational pillar of national strength.
By lowering the after-tax cost of failure, the R&D credit encourages the kind of ambitious, “moonshot” engineering that private markets might otherwise avoid. In the grander scheme of geopolitics, the ability to sustain long-horizon research is what separates technological leaders from those who merely play catch-up.
