
Radiation-tolerant power electronic systems are hard to design
Optimizing the power distribution network (PDN) is very critical when dealing with high currents consumed by modern ASICs, FPGAs, CPUs and GPUs
Terrestrial internet bandwidth can’t keep up with pace and scope of today’s connectivity demands. So services are being pushed to New Space, where scores of LEO and MEO satellites are being deployed rapidly to achieve global coverage.
By Rob Russell, VP of Satellite Business Unit
Satellite manufacturers competing in the “New Space” arena are tasked with providing solutions that will enable a 20X increase in internet bandwidth over the next 10 years. The challenges to designing, developing, and launching satellites to meet this demand are enormous. One major hurdle is the dueling requirements for shrinking satellite size while concurrently improving throughput. One of the most difficult problems to solve is powering advanced, high-current communications ASICs. To achieve this leap in throughput demand, satellite power designers must deliver 20X – 30X more current to the load than legacy systems can provide, while simultaneously reducing the size, weight, and cost of the power delivery network (PDN). These requirements will forever be at odds and will continue to escalate in the foreseeable future.
Vastly improved power density helps solve this problem for New Space low-earth-orbit (LEO) and mid-earth-orbit (MEO) satellites in the form of power modules that deliver high current for today’s AI-driven computing environments. Combined with demonstrated radiation tolerance, they are a perfect fit for the critical needs of the burgeoning LEO and MEO satellite market.
With a 100V to 0.8V solution that is five times more power-dense than the next best competitor, and an efficiency that provides up to a 50 percent reduction in power losses, this new generation of PDNs provides unparalleled capability for developers of satellite communication systems who need to reduce size, weight, and cost to meet stringent mission requirements.
This article was originally published by Electronics Media.
Rob Russell is currently the Vice President of Satellite Business Development and has worked at Vicor Corporation for over 10 years in various strategic marketing, product marketing, and business development roles. He has over 29 years of sales and marketing experience in the electronics industry. He earned both his BSEE and MBA at the University of Massachusetts. Before Vicor, he worked for Power-One as the Vice President of Product Marketing and Director of Global Strategic Sales.
Rob Russell, VP of Satellite Business Unit
Radiation-tolerant power electronic systems are hard to design
Optimizing the power distribution network (PDN) is very critical when dealing with high currents consumed by modern ASICs, FPGAs, CPUs and GPUs
Vicor power modules boost satellite internet constellations
Vicor high-efficiency, high-density and high-current solutions play well into the new space model
High-density power for New Space missions needed as demand booms, study predicts
Satellite power designers must deliver 20-30 times more current than legacy systems, while reducing the size, weight, & cost of the power delivery network
Rob Russell shares his industry insights into the future of LEO and MEO satellite deployments
Rob Russell discusses the trends in the LEO and MEO satellite market with Pat Hindle at Microwave Journal