Rotating Precision Mechanisms Inc. was founded in 1975 by a team of engineers with an entrepreneurial spirit, and a wealth of experience in designing high-precision antenna positioning systems and controls. Our current President, Daniel Flynn was one of the original founders. Today, we are proud to continue in that tradition, and have assembled a core staff of highly trained engineers with over 250 man-years of combined experience in the design of rugged, high-precision antenna positioning systems and the controls thereof.
The background and experience of our engineering staff gives RPM, and our customers, an unparalleled advantage in understanding all aspects and requirements of any system's operational scenario and environment.
This allows for a reduction in the time and expense normally spent on
research and development for new or custom designs, and ensures that all of our
designs will not only meet or exceed the requirements of our customer's
specifications, but they will also meet or exceed the real-world requirements
of the system.
In addition to
providing custom solutions for new customer requirements, RPM has a complete
array of over 500 standard Commercial Off The Shelf (COTS) and
Non-Developmental Items (NDI) for commercial, scientific and military
applications. Our modular approach to hardware often makes adapting these
existing designs to new requirements possible. This reduces development time
and cost, while assuring high quality Pedestals by building on proven
components.

RPM engineers
have access to the latest computer design tools including AutoCAD®, AutoDesk
Mechanical Desktop®, AutoDesk Inventor®, Solid Works®, OrCAD®, Multisim®, COSMOS/DesignSTAR®, Lab Windows® (Instrumentation), and SURFCAM 2005® to
develop, analyze, refine, manufacture, and test each design concept. These computer tools enable RPM to perform
structure and vibration analysis of pedestal components, and to predict
pedestal performance with specific payload configurations. RPM has also
developed many proprietary analytical routines for analysis of a system's
performance.
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