This document provides information about Aerojet Rocketdyne (AR), a propulsion provider for the aerospace industry. It summarizes that AR has over 5,000 employees across 14 states in the US and operates various manufacturing and support locations. The document also lists AR's major customers which include NASA, the Air Force, Navy, and others. It provides a brief history of AR's role in major space exploration missions and rocket technology developments over the past 70+ years. Finally, it introduces three technology topics that AR is seeking innovative solutions for: corrosion barrier coatings, radiation-hardened electronics, and addressing component obsolescence issues.
2. More Than 5,000 Employees Across 14
States
Redmond, WA
AR Headquarters
Sacramento, CA
Los Angeles, CA
Vernon, CA
Hill AFB, UT
Socorro, NM
Camden, AR
Stennis, MS
Huntsville, AL
West Palm Beach, FL
Aerojet Ordnance
Tennessee, Inc.
Washington, D.C.
Gainesville, VA
Orange, VA
ARDÉ, NJ
Operating Locations
Field Offices
Denver, CO
Tucson, AZ
Dallas, TX Orlando, FL
Eglin AFB, FL
PRODUCT-FOCUSED MANUFACTURING CENTERS AND CUSTOMER-FOCUSED SUPPORT
Moscow Tokyo London
UAE
AJRD Headquarters
El Segundo, CA
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3. 2016 net sales of $1,761.3M
Premiere propulsion provider for the Nation
– 70+ years of experience
– Propelled spacecraft to every planet in the solar system
– More than 2,100 successful launches, including:
• Every EELV Launch
• Every astronaut launched from U.S. soil (>900)
– Only domestic provider of all four propulsion types: liquid,
solid, air-breathing, electric
Diversified Portfolio
– Space: commercial satellites, commercial & government
launch, human space exploration, robotic science
missions, ISS re-supply, space and surface power
systems
– Defense: missile defense and strategic systems, space
protection, warheads and advanced structural systems,
propulsion control systems, special operations assistance
Industry Leader in Aerospace Innovation
− Power for space systems
− Additive manufacturing for liquid rocket engines and
hypersonics
Exploring the Universe, Protecting Our Future
ARMY
18%
NAVY
9%
COMMERCIAL
& OTHER 11%
AIR FORCE
20%
NASA
25%
MDA
17%
END USERS
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4. 4
Cutting Edge since the Start of the Space Age
1940’s 1950’s 1960’s 1970’s 1980’s 1990’s 2000’s 2010’s
Aerobee
First Production
Launcher
Apollo 11
First Human
Moon Landing
Shuttle
First Flight,
Reusable Launch
System
Viking
First Mars
Lander
NERVA
NRX/EST
First Nuclear
Flight Type
Rocket Engine
SNAP 10A
First Production
Space Nuclear
Fission Power
NEAR
First Asteroid
Lander
Cassini
First Spacecraft
to Orbit Saturn
Messenger
First Spacecraft
to Orbit
Mercury
New Horizons
First Pluto
Flyby
AEHF
First USA Hall
Thruster Flight
MMRTG
First Multi-mission
Radioisotope
Mars Science
Lab
Deepest
Throttling
Monoprop
Engine
Saturn V
Largest Production
Human Rated
Rocket Engines
JATO
First Jet Assisted
Take-off from an
Aircraft Carrier
Polaris
First Submarine
Launched ICBM
EELV
Maiden
Launches of
Atlas V and
Delta IV
Telstar
First Flight of
a Hydrazine
Arcjet
1st US Human
Spaceflight
Curiosity Rover
Largest Lander
Safely On Mars
RL10 Engine
World’s First
LOX/Hydrogen
Engine
Additive
Manufacturing
First 3D Printed
Rocket Engine
Voyager
Furthest, Longest
Life Spacecraft
DC-X
1st Reusable VTOL
Vehicle
Paving the Way in Rocket & Power Technology
6. 6
Topic #2: Rad-Hard High-Power
Electronics
• Description of need:
o Electronic components and circuitry for space system
applications are required to work in the radiation
environment of space--testing for rad-hard is
expensive
o There is a need for standardized radiation data that
could be used to assess electronic components during
the design phase
o Current power designs are limited by a sparse
selection of high voltage diodes
• AR is seeking innovative ideas for new types of
space flight high power electronics packages that
show high tolerance to the space environment,
without incurring mass or volume penalties. For
example:
• High temperature silicon carbide (SiC) electronics is
desirable for its power handling capabilities, but there
needs to be a way to make it rad-hard
• Alternate materials and designs are sought (e.g.
gallium nitride (GAN) based solutions)
• SiC or GAN microcircuits are faster and less noisy that
Si microcircuits
o Immediate need: SiC Schottky diodes that are rad-
hard
• Target market:
o Space vehicle & electronics industry (i.e. NASA,
commercial & defense satellite/launch industry)
7. Strategic Benefits:
• While radiation hardening is
relevant to space propulsion, the
topic has applications across the
space domain. For example:
o Low-cost, rad-hard memories and
processors that are able to
operate in space
• Co-development of a novel material
or process for AR products may
lead to long-term business
•
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Project Context:
• AR is the leading manufacturer of
space propulsion systems, in
particular power electronics for
electric propulsion.
• Using innovative technology to
provide our customer’s with
superior solutions is a fundamental
part of AR’s culture
Project Importance: Rad-Hard
High-Power Electronics
Aerojet Rocketdyne Startup
• AR is a producer of high power electronics for space applications, for
NASA and DoD
• An ideal startup partner should have a deep knowledge of power
electronics and radiation effects
Partnership
8. Summary
• AR development of next generation space
propulsion products leads to many exciting
development challenges
• Topics presented today
– Corrosion barrier
– Rad-hard electronics
– Obsolescence
• Many more challenges exist – Partnerships are
always welcome!
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