Convergence: How the shared power, sensor, comms & compute stack will transform aerospace
KEY TAKEAWAYS:
- Convergence on shared foundational technologies is critical
- OEMs that understand convergence will shape the future
Look at almost any aerospace program today—drone swarms, electric vertical takeoff and landing aircraft (EVTOL), satellite constellations, robotic ground systems—and you’ll find a common story unfolding beneath the surface.
These platforms may serve different missions, operate in different environments and follow different regulatory paths, but they increasingly share the same foundational technologies: advanced power systems, dense sensor arrays, high-bandwidth communications links and reconfigurable compute.
Technology convergence is collapsing traditional boundaries between domains and accelerating innovation.
These core technologies are boosting most aerospace innovation through 2030.
Why convergence benefits OEMs
Technology convergence offers three significant benefits to OEMs:
- Faster design cycles: Leveraging common component families accelerates development across platforms.
- Scalable architectures: Designs can be adapted across drones, robotics, satellites and vehicles with minimal change.
- Lower development risk: Proven component ecosystems reduce integration failures and certification delays.
Three forces drive this rapid alignment: electrification, autonomy and mission‑level integration. Electrification is reshaping propulsion and payload systems across platforms. Autonomy—enabled by algorithms, advanced sensors and real‑time processing—demands similar electronic architectures whether a system operates in the air, on land, at sea or in space. And mission‑level integration requires platforms to communicate, share data and cooperate reliably in harsh, contested environments.
Each of these forces relies on a shared set of electronic building blocks. Whether a platform flies, crawls, rolls or sails, it depends on the same components and design philosophies.
Core technologies behind emerging platforms
- Power electronics: From EVTOL batteries to drone propulsion, the need for compact, efficient, thermally managed power systems is universal. The design trade-offs—energy density, weight, cooling and recharge cycles—cross every domain.
- Advanced sensors: Modern platforms rely on a growing array of sensors: thermal, optical, inertial, RF, acoustic, environmental. Sensor fusion is now a requirement for autonomy, threat detection and navigation.
- High bandwidth communications: Direct-to-satellite links, 5G/6G, optical and laser communications, and secure mesh networks are becoming standard across platforms. Reliable low-latency connectivity is the backbone of autonomous and multi-domain operations.
- Reconfigurable compute (FPGAs and mixed mode devices): These devices serve as the adaptable “brains” for everything from targeting to navigation to power management. Their flexibility makes them essential across platforms with rapidly evolving mission needs.
- Device qualification and environmental selection criteria: Designers can select devices suited for ground, air or space environments, all while relying on the same core technologies across applications.
Drone market: First proof of convergence
No segment illustrates convergence more clearly than the drone market. The rise of low-cost, high-agility drone swarms—which increasingly outmaneuver traditional higher-cost platforms—has forced designers to rethink power, compute and comms at scale. Features like thermal imaging, encrypted comms and AI-assisted targeting, once reserved for large unmanned aerial vehicles (UAVs), now appear in systems that cost a fraction as much.
These innovations feed directly into other platforms: the battery technologies that power drones also power EVTOL aircraft; the sensors used in drones enable soldier situational awareness; communication protocols found in drones support swarming naval robotics.
EVTOL: An industry on fast forward
The EVTOL ecosystem provides another striking example. With over 700 companies developing more than 350 platform concepts, the industry is in a period of explosive experimentation.
The FAA is adapting existing regulatory frameworks to this new class of aircraft, but innovation is outpacing rulemaking, creating opportunities for suppliers who can provide reliable, certifiable components and support integration across evolving standards.
The path forward
As autonomy, electrification and multi‑domain coordination mature, convergence will only accelerate. The platforms of 2030 will not be defined by their domain—air, land, sea or space—but by the electronic architecture that binds them together. Power, sensors, communications and compute will continue to serve as the universal building blocks that unlock new missions, enable faster innovation and integrate capabilities across the market.
The organizations that understand this convergence—and partner with suppliers who can support integrated, scalable designs—will shape the future.
4 technologies platforms will share
- Power density & thermal management: Everything from drones to vehicles to soldier exosystems relies on the ability to deliver more power in smaller spaces and keep it cool enough to operate reliably.
- High-fidelity sensors: Sensors are becoming the platform’s perception layer, enabling navigation, threat detection, mission automation and environmental awareness.
- Adaptive processing (FPGAs): Reconfigurable compute allows platforms to adapt to new missions without complete hardware redesign.
- High bandwidth‑, low latency‑comms: Real‑time data sharing enables autonomy, multiplatform coordination and manned-‑platform coordination and manned‑unmanned teaming.
Inside the drone disruption: Why swarms are redefining requirements
Drone swarms are transforming market strategy by shifting emphasis from individually expensive, high-capability systems to large quantities of low-cost, highly adaptable platforms. Swarms exploit redundancy, numbers and unpredictability.
As a result, the component requirements for thousands of drones diverge significantly from those for a small fleet of large UAVs: lower cost, simplified architectures, ruggedized sensors, minimal weight, efficient power management, and secure communication protocols that can scale across hundreds of nodes.
The technologies that make swarms viable—battery efficiency, optical and RF sensors, mesh networking and lightweight compute—are now influencing the design of satellites, autonomous vehicles, and more. Swarm economics are setting new benchmarks for the rest of the ecosystem.
As aerospace platforms, semiconductors accelerate faster
Across four aerospace system segments—drone swarms, eVTOL, satellite constellations and robotic ground systems—the combined platform market is projected to expand rapidly from $20.5 billion in 2025 to an estimated $46.8 billion by 2030E, reflecting a blended 18.5% compound annual growth rate (CAGR).
This growth is powered by rising production volumes and increasing electronic intensity per platform, with semiconductor and electronic component demand scaling from $7.05 billion (2025) to an estimated $16.36 billion (2030).
Notably, segments with the fastest platform expansion—especially eVTOL and satellite constellations—also show strong semiconductor content growth due to demand with increasing electronic content as avionics, power electronics, sensing, RF and compute requirements grow through the period.
| 2025 | 2030 | CAGR (2025-2030) | |
|---|---|---|---|
| Combined platform market (all four segments) | $20.5 billion | $46.8 billion | 18.5% |
| Semiconductor total addressable market (TAM) (all four segments) | $7.05 billion | $16.36 billion | 18.5% (blended platform CAGR) |
Sources: Avnet estimates based on industry data as of January 2026
