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Industry Solution
Consumer Electronics
Enable smarter, more responsive consumer devices with flexible FPGA solutions that handle sensor and video pre-processing for AI, enhance video processing, and support next-generation connectivity
Enhancing performance and flexibility in consumer electronics
As consumer electronics continue to evolve, devices are being challenged to support edge AI, 8K video processing, and emerging connectivity standards while maintaining responsive performance and energy efficiency. These trends are driving demand for adaptable hardware platforms that can accelerate compute-intensive workloads, process data in real time, and evolve with changing application requirements.
Altera FPGAs help address these challenges by combining reconfigurable hardware with high-performance, real-time data processing that feeds AI systems. Their flexibility enables designers to support new standards, add features, and optimize system performance without redesigning hardware. By handling functions such as sensor capture, vision pre-processing, video processing, and high-speed connectivity, Altera FPGAs help manufacturers deliver smarter and more responsive consumer devices while reducing development risk and extending product lifecycles.
The Challenges, and Why FPGA
The Challenge
Increasing Processing Demands
Advanced consumer devices require faster processing of high-resolution video, AI workloads, and real-time data without compromising responsiveness.
Why FPGA
High-Performance Processing
FPGAs accelerate compute-intensive tasks through parallel processing, delivering low-latency performance for video, imaging, and intelligent applications.
The Challenge
Rapidly Evolving Technologies
Changing consumer expectations and emerging technologies require hardware that can adapt to new features, formats, and capabilities.
Why FPGA
Flexibility and Customization
Reconfigurable FPGA architectures enable manufacturers to update functionality, integrate new features, and support evolving requirements without redesigning hardware.
The Challenge
Competitive Development Cycles
Consumer electronics manufacturers face increasing pressure to introduce innovative products quickly while managing development costs and complexity.
Why FPGA
Faster Time-to-Market
FPGA-based prototyping and hardware customization help accelerate development, simplify validation, and reduce dependence on custom silicon.
The Challenge
Complex Connectivity Requirements
Modern devices must integrate multiple high-speed interfaces and support evolving communication and display standards.
Why FPGA
Enhanced Connectivity
FPGAs provide adaptable, high-bandwidth interfaces that simplify integration and support reliable connectivity across consumer electronics applications.
Why Altera
Advanced Connectivity Solutions
Support a broad range of consumer video and interface standards, including HDMI, DisplayPort, MIPI, and other high-speed protocols, with adaptable FPGA technology.
Scalable FPGA Portfolio
Choose from cost-optimized to high-performance FPGA solutions designed to meet diverse processing, connectivity, and power requirements across consumer electronics devices.
AI and Edge Processing
Enable intelligent features with FPGA-based sensor pre-processing and real-time data movement to on-device AI compute, supporting responsive, on-device functionality without relying on cloud connectivity.
Development Flexibility and Longevity
Accelerate development with Quartus® Prime software, proven IP, and reference designs. Reconfigurable architectures also support product updates and evolving standards throughout the device lifecycle.
Consumer Electronics Applications
Discover how FPGAs enhance device functionality, improve processing speeds, and enable customizable features, making them a key technology in the evolution of modern consumer electronics.
Next-Generation TV, Video Displays and Peripherals
Enable immersive viewing experiences with real-time 4K/8K video processing, advanced image enhancement, and flexible connectivity for evolving display technologies.
AR/VR
Deliver responsive, immersive experiences with low-latency graphics processing, sensor integration, and real-time motion tracking for augmented and virtual reality applications.
Consumer Drones
Enhance drone performance with real-time sensor processing, video stabilization, intelligent navigation, and low-latency control for responsive flight operations.
Video and Casino Gaming Machines and Peripherals
Support immersive gaming experiences with high-speed graphics processing, responsive controls, real-time effects, and customizable hardware architectures.
Smart Consumer Products and Wearables
Enable intelligent, connected devices with adaptable hardware, real-time data processing, and efficient integration of sensors and communication interfaces.
Consumer and Prosumer Cameras and Projectors
Improve imaging performance with advanced image processing, noise reduction, video stabilization, and high-resolution display capabilities.
Get Started
Common Questions
Use programmable logic when parallel interfaces, video throughput or bounded timing exceed the MCU's practical capabilities. An MCU may be simpler for light control workloads; compare total power, component count, tooling and product volume.
FPGA display processing typically handles streaming functions such as format conversion, scaling and interface timing. GPU rendering generates graphics through a different software and compute workflow; choose the architecture according to the actual visual workload.
Start with active pixels per frame, frames per second and bits per pixel, then account for each memory read and write. Include blanking or transport overhead where applicable and sustained controller efficiency when sizing the memory path.
Check the model's operators, precision, target FPGA and tool release before choosing the inference flow. Validate accuracy after conversion and include camera preprocessing, buffering and output transfer in the performance budget.
Compare measured rail currents with active and idle operating modes, clock activity and I/O loads. Check unused clocks, unnecessary toggling and regulator losses before assuming the selected FPGA family alone determines battery life.