#fpga development

In the rapidly advancing field of military technology, every detail matters—every ounce and millimeter. A leading aerospace company recently confronted this challenge while developing a state-of-the-art wearable night vision camera tailored for military operations.

Facing stringent demands for size, weight, power consumption, and performance, the company sought a reliable partner with specialized expertise. Enter Voler Systems, renowned for its pioneering work in FPGA design, electronic design, wearables, and firmware. Together, they embarked on this ambitious project, overcoming significant hurdles to achieve their goals.

Mastering Compact Design with Advanced Functionality

Designing a wearable night vision camera is a complex task, particularly when the device must be lightweight, compact, and power-efficient while meeting stringent military standards. The camera needed to integrate two distinct imaging sources—an infrared camera and a low-light camera—to provide superior night vision in challenging environments.

The integration of these sources presented a significant challenge. The camera had to process and synchronize high-speed signals from both cameras despite their differing resolutions. This required an advanced FPGA (Field Programmable Gate Array) design capable of managing high-speed parallel processing and video synchronization within the compact confines of a wearable device.

Leveraging Voler Systems' Expertise

To address these challenges, the aerospace company partnered with Voler Systems, leveraging their extensive experience in wearable electronic design, sensor technology, and FPGA development. Voler Systems’ engineers took a meticulous approach, creating an FPGA board design based on the client’s high-level specifications. Ensuring the camera's ability to process and synchronize high-speed video signals was crucial.

In addition to FPGA design, Voler Systems developed the firmware necessary for board functionality testing, enabling the client to finalize their firmware development. The team collaborated closely with mechanical design experts to ensure the device met all electrical, mechanical, and environmental requirements. They ensured the camera was functional, durable, and reliable under the demanding conditions typical of military operations.

Investing in Advanced Military Wearable Technology

The wearable night vision camera met all size, weight, and power requirements while providing the processing power needed to merge high-speed video signals. The integrated approach to electrical and mechanical design facilitated effective thermal management, allowing the device to endure temperature extremes encountered in military settings.

Ultimately, the device surpassed all military-grade environmental and electrical specifications, marking a significant leap forward in military wearable technology. This success highlights Voler Systems' capability to innovate and deliver cutting-edge solutions for the most challenging projects.

Expanding the Frontiers of Innovation

The achievement of this wearable night vision camera motivates Voler Systems to continue pushing the boundaries of FPGA design. We are committed to tackling the toughest challenges and transforming visionary concepts into impactful, real-world technologies.

LEARN VHDL AND FPGA DEVELOPMENT

LEARN VHDL AND FPGA DEVELOPMENT

Learn how to create a VHDL design that can be simulated and implemented on a Xilinx or Altera FPGA development board.

Best Seller

Created by Jordan Christman Last updated 8/2018 English What Will I Learn?

Understand the design process for implementing a digital design onto a FPGA

Learn how to simulate a design in Altera’s ModelSim and Xilinx Isim

Learn…

LEARN VHDL AND FPGA DEVELOPMENT

LEARN VHDL AND FPGA DEVELOPMENT

Learn how to create a VHDL design that can be simulated and implemented on a Xilinx or Altera FPGA development board.

Best Seller

Created by Jordan Christman Last updated 8/2018 English What Will I Learn?

Understand the design process for implementing a digital design onto a FPGA

Learn how to simulate a design in Altera’s ModelSim and Xilinx Isim

Learn…