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and Capability
Summary |
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Applied
Systems Engineering, Inc.
is a high technology small business engaged in the
development
and production of Microwave Amplifiers and Transmitters of various
types. Our amplifiers feature excellent phase stability,
pulse
fidelity and low spurious signal levels.
All power supplies are modular solid
state, PSRM
(Phase Shifted Resonant Mode) regulated DC to DC converter designs with
excellent transient response times. The full load efficiency
of
our high voltage power supplies is greater than 90% and RF output level
variations are minimal in the presence of aperiodic or burst PRF
inputs. Operation of various types of microwave tubes with
higher
power levels, duty cycles or increased pulse widths can be specified in
any of our amplifiers.
Our cathode modulators, which are used
to drive Klystrons,
Magnetrons or CFA's, feature continuous pulse width,
adjustable voltage rate of rise (rrV) and produce a flat-topped RF
pulse with minimal jitter.
Standard Product Data Sheets are
available (See our Web Site: http://www.applsys.com). Our
broad product capabilities are outlined in this Summary. We
welcome custom designs and upgrades to satisfy particular requirements.
Radar: Products
Products
(Cont)
- Pulse, Dual Mode, both Grid Pulsed and CW and
Continuous Wave Amplifiers, Transmitters
- Millimeter - Pulse, Dual Mode, both Grid Pulsed
and CW Amplifiers
Laboratory: Products
EMC: Products
- EMC Amplifier Systems / Pulse / Dual Mode, both
Grid Pulsed and CW
Communications:
Products
Applied Systems Engineering, Inc. founders and
key engineering personnel have extensive experience in power supply
design for all types of microwave tubes. Our products include a
significant variety of Pulse,
CW
TWT’s and Klystron
amplifiers, solid state cathode modulators for Magnetrons and CFA’s of
various power levels. Applied Systems Engineering, Inc., specializes in
new Amplifier/Transmitter and sub-system design and development. We
have developed a broad range of very high efficiency (>90%)
voltage power supply and modulator designs so that we can assemble a
HVPS/Modulator to operate pulsed
TWT’s, Klystrons,
Magnetrons,
or CFA’s
and CW TWT’s
and Klystrons
up to 100 kW of power output. Frequency ranges from 600 MHz to
100 GHz.
While the primary emphasis at Applied
Systems Engineering, Inc., has been on high voltage power supplies,
modulators, transmitters, and RF Exciter/Receiver systems, our
capability in design extends into other areas as well, which includes
digital/analog control and monitoring subsystems, Retrofits for
Coherent or Non-coherent Systems that can be upgraded with proven off
the shelf equipment to give improved performance and
reliability. All electronic and mechanical designs are
developed and generated by Computer Aided Design.
We work closely with many government
engineering and contracting groups and are experienced with government
contracts and requirements. Our track record for
providing sophisticated microwave pulse and CW amplifiers for
Phased Array
Radars, Side
Looking Radars, Weather
Radar, Radar
Cross Section, Communication
Applications, EMC
Testing, and University
Laboratories is unsurpassed. We have a very close
working relationship with the microwave tube and component community in
many areas of the world.
Our amplifiers feature excellent phase
stability, pulse fidelity and low spurious signal levels. Our
cathode modulators, which are used to drive Magnetrons, Klystrons and
CFA’s feature adjustable rate of rise (rrV) and produce flat
topped RF pulses with minimal jitter. RF output level variations are
minimal in the presence of aperiodic or burst PRF inputs. All power
supplies are modular solid state, PSRM (Phase Shifted Resonant Mode)
regulated DC to DC converter designs with excellent transient response
times. Full load efficiency of our high voltage power supplies is
greater than 90%. Operation of various types of microwave
tubes with higher power levels, duty cycles or increased pulse widths
can be specified in any of our amplifiers.
We welcome custom designs to satisfy
particular requirements for various RF frequencies and output power
levels. |
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