Written by engineers for engineers, our application notes outline critical issues to consider for the safe and successful incorporation of DC-DC converters into your critical reliability systems:
Review the vital parameters to know when selecting a Hi-Rel COTS, full Mil Spec, or space DC-DC converter for your power system.
This short form application note describes simply the proper temperature measurement locations and proper PCB mounting of converters to ensure that heat is measured and removed correctly to keep the converter at or below the maximum rated operating temperature.
This document details the proper processes for trimming leads and hand soldering products into systems and applications while ensuring product safety and maintaining functional integrity.
The control of electromagnetic interference for electronic subsystems is governed by MIL-STD-461 for the US Department of Defense. This document details compliance to revisions C, D, and E.
Military and aerospace engineers face several challenges with respect to electromagnetic interference (EMI) and transient voltage compliance: stringent military requirements, standards that do no always agree with each other, etc. Lack of proper EMI control can result in interference such as unwanted noise in communication and computing equipment as well as false triggering and faulty readings in sensor circuits
VPT’s DV series Hybrid DC-DC converters are rated for the full military temperature range of -55°C to +125°C and can be operated at full rated power with in that range as long as the power dissipation and temperature rise is properly addressed. This document discusses the thermal management considerations for various assembly configurations of hybrid DC-DC converters.
COTS, or commercial off the shelf, hardware can offer the latest technology, is readily available, minimize system development cycles, ad reduce acquisition costs. The challenge is to take advantage of commercially available hardware without sacrificing system performance or reliability.
The latest high performance FPGAs, ASICs and processors require increased high performance from the power supply, including low voltages, high currents, tight regulation, fast transient response, and even supply voltage sequencing. VPT’s High Efficiency Reliability Optimized (HERO) Power System includes a set of hybrid DC-DC allow the military designer to assemble the smallest, most reliable and most efficient system possible.
Today’s commercial avionics, military and space power electronics need higher performance while decreasing size, weight and cost. One way to decrease the power footprint is to move to a distributed power architecture that uses point of load converters, which offer the advantages of smaller size, higher efficiency, and better performance than the isolated power converter method.
With each new military system design system design come the same challenges: more processing power, tighter specs, and shorter development time. Continual advances in system performance often require similar advances in the power system. VME architecture is common in many military applications, and can be readily built around standard or custom circuit cards.
In this application note, you’ll learn how to protect your power system from dangerous inrush currents. A variety of methods for controlling inrush current are discussed in detail.
This application note details VPT’s QA policies, procedures, and certifications for manufacturing hybrid DC-DC power converters. Environmental screening options and VPT’s ITAR control program are also discussed in this document.
This application note details VPT’s QA policies, procedures, and certifications for manufacturing COTS DC-DC power converters. Environmental screening options and VPT’s materials control program are also discussed in this document.
VPT offers several Hybrid DC-DC converters in a surface mountable gullwing package. This document
discusses mounting considerations for these gullwing converters.