Aerospace & Defense

Avionics

Powering Safer, Smarter Avionics with DO-254-Capable FPGAs. Enabling high-performance cockpit displays, sensor fusion, and mission-critical computing.

Reliability for the Flight Deck

In aerospace and avionics, safety and precision are critical. Altera FPGAs provide unparalleled reliability, efficiency, and adaptability. They enable compliance with rigorous safety standards like DO-254 and independent processing paths for real-time sensor data, Cockpit and more applications.

Additionally, these devices streamline multi-channel sensor fusion by integrating high-bandwidth transceivers, a key advantage for commercial and defense avionics electronics. The hardware accelerates radar, SigInt, video aggregation, displays, and EO/IR systems, allowing teams to deploy updates rapidly through a reconfigurable architecture that maintains compliance and lowers lifecycle costs.

Altera Agilex DO-254 Certifiable Package
Altera Agilex DO-254 Certifiable Package

The Challenges, and Why FPGA

The Challenge

DO-254 Certification, Mil-temp, SEU, SEL

Engineers must meet DO-254 standards while ensuring hardware survives MIL-temp extremes plus radiation-induced SEU and SEL failures.

Why FPGA

Certifiable, MIL-temp, radiation-safe FPGAs

FPGAs deliver certifiable hardware control that survives extreme MIL-temp environments and high-altitude atmospheric radiation hazards.

The Challenge

Rugged, Certifiable Defense Avionics Design

Mission-critical designs must process dense radar and EO/IR streams under harsh EW jamming while meeting strict military environment specs.

Why FPGA

FPGAs minimize SWaP for dense sensor data.

FPGA and Direct-RF capabilities minimize SWaP by consolidating multi-channel radar, EO/IR, and EW processing onto a single programmable fabric.

The Challenge

Software-Defined Cockpits

Software-defined cockpits need edge AI and instant sensor fusion-reconfigurable logic eliminates costly, time-consuming hardware redesigns.

Why FPGA

FPGAs reduce latency and minimize cockpit SWaP

Latest FPGAs stream seamless video aggregation and multi-display processing to maximize cockpit safety within minimal SWaP limits.

Why Altera

DO-254 Certifiable Architecture

Altera devices provide robust silicon architecture to beat extreme radiation and MIL-temp hazards while easing strict DO-254 paths.

Altera: Scalable, Secure Sensor Fusion

Altera Direct-RF FPGAs consolidate high-bandwidth radar and EO/IR streams onto a low-latency fabric to defeat harsh EW jamming.

Agilex: Adaptive, Next-Gen Cockpits

Altera FPGAs power real-time cockpit AI and sensor fusion, updating instantly to completely avoid hardware redesigns.

Altera VVP Suite: Avionics Displays

With 45+ cores operating above 600 MHz, the VVP Suite delivers sub-frame latency for critical mission display aggregation.

FPGA-Powered Avionics

Commercial Avionics

From cockpit to cloud, our FPGA-based platforms enable safer, smarter, and more connected flight. 
 

Defense Avionics
  • Advanced mission compute
  • Sensor fusion
  • Electronic warfare
  • Secure communication
  • Built for the next generation flight
FPGA-Powered Commercial Avionics
FPGA-Powered Commercial Avionics

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More Aerospace & Defense Applications

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Radar

High-performance FPGA SoCs for real-time radar signal capture, processing, beamforming, tracking.

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Electronic Warfare (EW)

Reconfigurable FPGA solutions for low-latency, deterministic, and wideband electronic support, protection, and attack modalities.

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Secure Communication

Software-defined, SWaP-optimized FPGAs for secure, tamper-resistant military communications.

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Drones & UAVs

Scalable FPGAs from Group 1 to Group 5 unmanned systems and decoy platforms

precision-guided Munitions

Precision Guided Munitions

FPGAs for guidance, navigation, and target identification in SWaP-C-constrained munitions.

Common Questions

Altera FPGA resources support independent processing paths and real-time sensor handling for avionics designs targeting DO-254 requirements. Architecture resources address cockpit, communications and computing functions. Device selection alone does not establish that an implemented airborne system meets its assurance requirements.

Ready to Build What's Next?

Bring us your cockpit or mission computing requirements and we'll map them to a certifiable platform.