ARINC 818 IP Core

FPGA-Based Protocol Implementation

Complete ARINC 818 FPGA Implementation

TEDLinx ARINC 818 IP Core provides a complete, verified implementation of the ARINC 818 protocol optimized for FPGA platforms. Our indigenous IP core enables OEMs and system integrators to quickly implement ARINC 818 functionality in custom hardware designs.

ARINC 818 Protocol

Complete protocol

 Full ARINC 818-2 compliance

Optimized FGPA

Optimized FPGA design

Maximum performance and resource efficiency

Vendor Flexibility

Vendor flexibility

Support for multiple FPGA families

Comprehensive Documentation

Comprehensive documentation

Complete integration guides and examples

Comprehensive ARINC 818 Protocol Implementation

Transmitter Core Features

Compact, programmable display with ARINC 818 input

Receiver Core Features

Integration Features

Multi-Vendor FPGA Compatibility

Seamless integration with leading FPGA platforms including Xilinx, Intel, and Microchip. TEDLinx solutions ensure flexibility and faster deployment across diverse hardware ecosystems.

Integration Features

Xilinx FPGA Support

Optimized for Xilinx FPGA families

Supported Families:

XLinx Features

Xilinx-Specific Features:

Microsemi FPGA Support

Optimized for Microsemi FPGA families

Supported Families:

Microsemi FGPA

Microsemi-Specific Features:

FGPA Features

IP Core Technical Details

Optimized, lightweight ARINC 818 IP cores supporting up to 4K video, low latency, and high throughput. Configurable for various FPGA families with support for both simulation and hardware validation.

Protocol Specifications
Standard Compliance: ARINC 818-2 (latest revision) , Link Rates: 1.062, 2.125, 3.1875, 4.250 Gbps , Video Formats: Up to 1920×1080 @ 60Hz progressive , Color Depths: RGB 24-bit, RGB 16-bit, YUV formats , Frame Rates: 30Hz, 60Hz configurable
Performance Characteristics
Latency: < 1 line delay for transmitter, < 1 frame for receiver , Throughput: Full wire-speed operation at all supported rates , Resource Utilization: Optimized for minimal FPGA resource usage , Power Consumption: Low-power design techniques employed , Clock Frequencies: Up to 300 MHz internal processing
Interface Specifications
Video Interface: Parallel RGB, YUV, or custom formats , Control Interface: AXI4-Lite or MM register access , Status Interface: Real-time status and error reporting , Memory Interface: Optional frame buffer integration , Clock Interface: Multiple clock domain support
IP Core Technical Details

Advanced IP Core Design

Engineered for high-performance video transport with modular, scalable architecture. Supports features like error detection, frame buffering, and multi-channel synchronization.

Advanced IP Core Details
Modular Architecture
Layered design - Clear separation of protocol layers Configurable modules - Enable/disable features as needed Scalable implementation - Support for multiple channels Parameterized design - Compile-time configuration options
Data Flow Architecture
Transmitter Path: Video Input - Parallel video data interface Format Conversion - Color space and format conversion ADVB Encapsulation - Protocol frame generation Serialization - High-speed serial data output Physical Layer - Electrical/optical interface
Receiver Path:
Physical Layer - Signal reception and conditioning Deserialization - Serial to parallel conversion ADVB Processing - Protocol frame extraction Format Conversion - Video format recovery Video Output - Parallel video data interface

Development Tools & Support

Complete Development Ecosystem

Flexible Licensing Options

Evaluation License
Duration: 90-day evaluation period , Limitations: Simulation only, no synthesis , Support: Basic email support , Cost: Free evaluation
Development License:
Duration: 1-year renewable Usage: Single project development Support: Full technical support Deliverables: Complete IP package
Production License:
Duration: Perpetual license Usage: Unlimited production units Support: Lifetime support included Deliverables: Source code option available
Delivery Package
IP Core Files - Synthesizable RTL code Constraint Files - Timing and placement constraints , Simulation Files - Comprehensive testbenches , Documentation - Complete user documentation , Example Designs - Reference implementations , Support Tools - Debug and analysis utilities

License Types

Applications & Use Cases

Avionics Systems
Display controllers - Custom cockpit display systems Video switches - Multi-source video routing Protocol converters - Format conversion systems Test equipment - ARINC 818 test and analysis tools
Ground Equipment
Maintenance systems - Aircraft service equipment Simulation systems - Flight and mission simulators Test facilities - Aircraft production test equipment Training systems - Avionics training platforms
Research & Development
Protocol research - ARINC 818 enhancement studies Custom applications - Specialized video processing Academic projects - University research programs Proof of concept - New product development
Testing and validation
Comprehensive system verification

IP Core Application Areas

Rigorous Quality Standards

Designed and tested to meet stringent aerospace and defense reliability benchmarks. Each solution undergoes comprehensive verification, validation, and environmental stress testing

Quality Processes

  • ISO 9001:2015 – Quality management system
  • Design verification – Comprehensive testing protocols
  • Code reviews – Peer review processes
  • Documentation standards – Consistent documentation quality

Testing Methodology

  • Unit testing – Individual module verification
  • Integration testing – Complete system validation
  • Regression testing – Continuous quality monitoring
  • Performance testing – Timing and resource validation