SciTec
was founded in 1979 as a small, entrepreneurial company dedicated to
excellence in a diverse range of technical areas. SciTec’s
expertise in phenomenological modeling, hardware development, and field
test support led to a decade of steady corporate growth. In 1989,
SciTec was acquired by TRW for its unique
contributions in a variety of technical areas. In 2002, TRW was aquired
by Northrop Grumman and in 2003, SciTec became its own independant,
small company again. Besides our headquarters in Princeton, NJ,
SciTec has offices in Ohio and seeks to expand into Colorado and
northern Virginia. |
From its inception, SciTec has stood out from its competitors by having strengths in the
interrelated areas of modeling, custom instrument design, and field testing.
These three areas are referred to as the SciTec Triad because they form the foundation of
SciTec’s system development. For example, SciTec develops physics models to predict the
observables for particular measurement scenarios. These predictions are then used to design
custom instruments which SciTec builds, calibrates, and deploys on field tests to collect
data. SciTec analyzes the data, estimates measurement uncertainties, and then uses the
data to validate the physics model and/or the sensor design. SciTec’s understanding of the
instruments and data requirements for model validation lead to well-structured plans for
testing, data analysis, and instrument calibration. SciTec’s customers appreciate our
collective strengths and view us as an all-purpose technical support company.
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| SciTec’s greatest strength lies in the creativity, dedication and enthusiasm of its staff. SciTec has 38 full time employees and 4 part time employees with an average of 14 years experience. The technical staff is comprised mostly of individuals with advanced degrees and backgrounds in physics, chemistry, chemical engineering, electrical engineering, mechanical engineering and other related disciplines. SciTec’s employees have repeatedly demonstrated their ability to take on projects in new technical areas and quickly master them, leading to new core business areas with our customers. |
SciTec has invested in a combination of high-end workstations, PCs, and laptops to support all aspects of technical work. A number of PCs are dedicated for field use and are configured for rapid data acquisition and analysis. Multiple software programs that support document prepration, graphics, and spreadsheet applications are available over SciTec's computer network. Design engineers also have access to CAD packages to support mechanical, optical, and electronic system development. In addition, SciTec has a dedicated high-speed internet connection to support high-volume information retrieval needs. |
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SciTec's laboratory facilities have been designed to support both hardware development and field testing. The facility consists of over 7500 square feet of laboratories, system assembly areas, and a machine shop. The recently redesigned optics laboratory provides an optical path of 30 meters inside the building. SciTec has a large investment in capital equipment for instrument fabrication, laboratory testing, calibration, and field testing.
To support in-house electronics subassembly prototyping and PC card fabrication, the electronics laboratory includes state-of-the-art benchtop test equipment, a surface mount soldering station, an automated circuit board router, and an extensive inventory of electronic components and integrated circuits, as well as a number of electronics CAD applications installed on SciTec's computer network. The facilities allow for rapid design and prototyping of custom circuits. SciTec also has capital equipment to support calibration and testing both in the lab and in the field. Electro-optic calibration sources include a number of standard lamps and thermal sources covering the UV through LWIR. In addition, SciTec owns a number of lasers suitable for both laboratory and field use. SciTec’s testing facilities include an environmental chamber which is used to measure the impact of temperature and humidity on instrument performance. |