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There are two types of Aerospace Engineers:
Aeronautical and Astronautical.
Aeronautical engineers design aircraft that fly
within Earth’s atmosphere, like airplanes and helicopters. They deal
primarily with aerodynamic performance, or how air and gases give aircraft
their ability to fly. They also deal with thermodynamics, the study of heat
and energy. Some aeronautical engineers specialize in designing passenger
aircraft, while others specialize in creating military aircraft. These
engineers also design missiles for defense aircraft.
Astronautical engineers design spacecraft that
travel both within Earth and in outer space. These engineers also design
manmade satellites, which are communications systems that are intentionally
placed in Earth’s orbit. Satellites are used to send signals — such as
television and phone signals — back and forth between Earth for enhanced
transmission. Some satellites are used to study space.
Aeronautical Engineers perform and supervise engineering work concerned
with the design, development, manufacture, maintenance and modification of
all types of flight vehicles. This may include military
and civilian aeroplanes, helicopters, missiles, launch vehicles, spacecraft,
satellites, and control and guidance systems. They focus on the form,
arrangement and stability of structures and their movement through the air.
In addition, they test prototypes to make sure that they function according
to design.
Aeronautical engineers assess mechanical systems,
flight characteristics and aircraft performance to ensure that aircraft are
airworthy. They design and maintain a variety of flight vehicles such as
helicopters and civilian and military aeroplanes.
(Source:
Your Career)
ANZSCO ID:
233911
Alternative names:
Aerospace Engineer
Specialisations:
Aeronautical Engineering Officer (Navy),
Aerospace Engineer, Aerospace Engineer Officer - Aeronautical (Air
Force), Aerospace Engineer Officer - Armament (Air Force), Aerospace
Engineer Officer - Electronics (Air Force), Avionics Systems
Engineer, Weapons Aeronautical Engineering Officer (Navy).
Knowledge, skills and attributes
To become an aerospace engineer, you should have:
- strong problem-solving
skills
- excellent maths and IT
skills
- knowledge of computer aided
design (CAD) or manufacturing (CAM) software
- enjoy technical and
engineering activities
- analytical and
problem-solving ability
- good oral and written
communication skills
- practical and creative
ability
- able to work without
supervision and accept responsibility
- able to work as part of a
team
- normal colour vision may be
required
- the ability to plan,
prioritise and manage projects effectively.
(Source:
TryEngineering)
Duties and Tasks
As an aerospace engineer,
you could work in research and development, testing or production
and maintenance. Your duties would vary depending on which area you
worked in, but may include:
- Design aircraft,
componentry and support equipment.
- Consult with aero-engine
specialists to co-ordinate design of aircraft.
- Carry out surveys of
airframes and equipment and checks for structural faults using
laboratory or flight conditions.
- Ensure that aircraft are
capable of meeting operational conditions by examining characteristics
and evaluating flight tests.
- Plan and design
aircraft, aircraft parts and support equipment by preparing drawings and
making mathematical calculations, often aided by computer systems
- Design modifications
to systems, such as fuel or air conditioning, and outline installation
procedures
- Conduct tests to
measure the performance of an aircraft or part, or to ensure design
specifications and airworthiness requirements are met
- Supervise the
assembly of airframes and the installation of engines, instruments and
other equipment (for example, when installing extra fuel tanks, deciding
where the tanks are to be placed and checking that the support structure
of the aircraft is strong enough to carry the extra weight)
- Investigate failed
engines or other aviation components
- Develop avionic systems like navigation
instruments and communications
- Research ways to make fuel-efficient
parts, such as wings, fuselage and engines
- Use
computer-aided design (CAD) software to draw up project designs
- Carry out ground- and flight-testing
programs on prototypes
- Collect and analyse
test data
- Plan and supervise
the assembly and fitting of aircraft and components
- Sign off projects under strict licensing
regulations
- Schedule and
supervise airport and base (hangar)
maintenance of aircraft.
- Develop procedures
for the repair of aviation components
- Determine and manage
schedules for repairs and maintenance
- Assess mechanical
systems, flight characteristics and aircraft performance
- Participate in flight
test programmes to measure take-off distances, rate of climb, stall
speeds, manoeuvrability and landing capacities
- Evaluate new and used
aircraft and advise potential purchasers based on their findings
- if working for the Civil Aviation Safety
Authority, ensure the airworthiness of Australian aircraft by assessing
the manufacturer's information and the aircraft's structure, electrical
and avionics instruments and power plants
You would also be involved with estimating
project costs and timescales, attending meetings, writing technical
reports and manuals, and giving presentations to managers and
clients. With several
years' experience as an engineer, you could also work on the
investigation of air accidents.
(Source:
University of Sydney)
Working conditions
Aerospace engineers usually work full time.
Longer hours may sometimes be needed, depending on the project and
deadlines. You would work in offices and
factory production hangars, and may have to travel to inspect or
test aircraft at different sites.
Aeronautical engineers may work for regulatory
authorities to ensure that aircraft are safe to fly in Australia.
They can also work for the Defence Force, research organisations,
repair and maintenance companies or design offices.
They may have to participate in test flights in a variety of weather
conditions and during odd hours, such as at dawn or at night. They
may also investigate aircraft accidents, and issue certifications or
licences.
Tools and technologies
Aeronautical engineers use drawing and
measuring instruments and materials, as well as computer-aided
design (CAD) and computer-aided manufacturing (CAM) software. They
must also ensure design plans and materials meet a range of federal
and international standards and codes so that any aircraft
modification or repair complies with the law and the aircraft is
safe to fly.
Education and training/entrance requirements
You need a bachelor degree in engineering majoring in
aeronautical or aerospace engineering to work as an Aeronautical
Engineer. It is also common to complete postgraduate studies.
To get into these courses you usually need to gain your HSC/ACT Year
12. Prerequisite subjects, or assumed knowledge, in one or more of
English, mathematics, chemistry and physics are normally required. A
number of universities in Australia offer degrees in engineering
with a major in aeronautical or aerospace engineering.
Universities have different prerequisites and some have flexible
entry requirements. Contact the universities you are interested in
for more information as requirements may change.
Additional Information
Students who have completed at least one year of a 3-year or 4-year,
or two years of a 5-year or 6-year, approved university course in
engineering may apply to join the Undergraduate Scheme in the Royal
Australian Air Force (RAAF) or Royal Australian Navy (RAN). If
accepted, students may choose to finish their degree at their chosen
institution or join the Australian Defence Force Academy in
Canberra.
Graduates may be eligible for membership of Engineers Australia.
Employment Opportunities
In Australia, the majority of aerospace
engineering work involves aircraft modification and assessment of
damage. However, there is also a significant industry engaged in
manufacture under licence. Once you have completed the Bachelor of
Technology (Aeronautical), students with the appropriate elective
units will need to complete a Master of Engineering to become a
professional aeronautical engineer.
Career opportunities exist with aerospace companies, aircraft
manufacturers, aeronautical consulting services, the RAAF and the
RAN. The Department of Defence employs aeronautical engineers in
Defence Research Centres across the country. The Civil Aviation
Safety Authority also employs aerospace engineers to ensure
compliance with design and certification standards, the functioning
of associated electrical power plants and fuel systems, and overall
airworthiness and flight handling in normal and emergency
situations.
Employment of aerospace engineers is projected to grow slower than the
average for all occupations.
Most of the work of aerospace engineers involves national defence–related
projects or the design of civilian aircraft. Research and development
projects, such as those related to improving the safety, efficiency, and
environmental soundness of aircraft, should create demand for workers in
this occupation.
Aerospace engineers who work on engines or propulsion will be needed as the
emphasis in design and production shifts to rebuilding existing aircraft so
that they are less noisy and more fuel efficient.
In addition, new international companies are emerging to provide access to
space outside of standard government space agencies. This may create
offshore work opportunities for aerospace engineers.
(Source:
Good Universities Guide)
Did You
Know?
Life on the Job
CAMEO
Astronaut Neil Armstrong, the first person to step foot on the moon, and
astronaut Dr.Kalpana
Chawla, the first woman of Indian descent to travel to space, were both
aerospace engineers.
Tesla CEO Elon Musk, whose aerospace company SpaceX was the first to
successfully launch, orbit, and recover a rocket (meaning the rocket was
able to launch into outer space and safely land back on Earth), is
another famous aerospace engineer.
(Source:
TryEngineering)
Kalpana Chawla - Official Portrait - NASA
Kalpana Chawla (17 March 1962 - 1 February 2003)
A starry-eyed woman who imagined a world and
then infused in that imagination a life, Kalpana Chawla was born in 1962
and grew up in a family where her parents who were originally from
Multan, Pakistan had migrated to Karnal, Haryana.
A role model for innumerable Indian women, she was an ordinary girl with
towering dreams and indomitable courage that made her the first Indian
woman and the second Indian person to fly in space in 1997.
As she recalls in an interview before the Columbia mission, how she and
her brother used to hop on their bicycles to see where the aeroplanes
were headed to. From choosing her own name ‘Kalpana’ which means
‘imagination’ to draw colourful aeroplanes, her creativity led her to
embark on an explorative journey which gave a reason for many young
minds to pursue their dreams.
Early Education of Kalpana Chawla
Kalpana as a child
“I’ve always been very determined. I don’t get easily discouraged.”
Being a bright child, Kalpana’s inclinations were clear from the start.
If we dote upon the education of Kalpana Chawla, she completed her early
schooling from Tagore School, Karnal.
Kalpana was always determined to become a Flight Engineer since 10th
grade and nothing on earth could convince her to choose other streams.
As she said, “I was interested in aerospace and flying, and the U.S. is
really the best place in the world for flying.” The education of Kalpana
Chawla and her perseverance inspires us to believe in our instincts and
translate our dreams to reality.
She followed by pursuing an undergraduate degree in Aeronautical
Engineering from Punjab Engineering College, Chandigarh.
After her bachelor’s, considering the massive amount of opportunities
available in design, construction and research and development in the
USA, she moved to complete her Masters in USA from the University of
Texas in the 1984. Chawla went on to earn a second Masters in 1986 and a
PhD [doctorate] in Aerospace Engineering from the University of Colorado
in 1988.
In 1988, she began working at NASA Ames Research Center, where she did
computational fluid dynamics (CFD) research on vertical and/or short
take-off and landing (V/STOL) concepts. Much of Chawla's research is
included in technical journals and conference papers. In 1993, she
joined Overset Methods, Inc. as Vice President and Research Scientist
specializing in simulation of moving multiple body problems. Chawla held
a Certificated Flight Instructor rating for airplanes, gliders and
Commercial Pilot licenses for single and multi-engine airplanes,
seaplanes and gliders. After becoming a naturalized U.S. citizen in
April 1991, Chawla applied for the NASA Astronaut Corps.
American Astronaut and Engineer
“The first view of the Earth is magical. It is a very overpowering
realization that the Earth is so small. It affected me. I could not get
over the notion that in such a small planet, with such a small ribbon of
life, so much goes on. It is as if the whole place is sacred.”
Kalpana Chawla’s Career at NASA
Chawla began working at the NASA’s Ames Research Center, operating on
power-lift computational fluid dynamics. Later in 1994, she was selected
as an astronaut candidate and became a crew representative for the
Astronaut Office EVA. After a few years of training, she was fully
equipped with the right set of skills and knowledge to handle Robotic
Situational Awareness Displays and testing software for the space
shuttles. She was selected for her first flight in
1996.
Her first space mission began on 19 November 1997, as part of the
six-astronaut crew that flew the Space Shuttle Columbia flight STS-87.
Chawla was the first Indian woman to go in space. On her first mission,
Chawla traveled over 10.4 million miles (16737177.6 km) in 252 orbits of
the earth, logging more than 372 hours (15 days and 12 hours) in space.
During STS-87, she was responsible for deploying the Spartan Satellite
which malfunctioned, necessitating a spacewalk by Winston Scott and
Takao Doi to capture the satellite. A five-month NASA investigation
fully exonerated Chawla by identifying errors in software interfaces and
the defined procedures of the flight crew and ground control. After the
completion of STS-87 post-flight activities, Chawla was assigned to
technical positions in the astronaut office to work on the space
station.
Through the penetrations about the education of Kalpana Chawla, we can
identify that she was highly focused and her orientation towards her
goals was such that she never deterred from her path and moved swiftly
by achieving one thing after the other. She is one of the great
personalities teaching young girls to believe in their dreams and always
be determined to overcome obstacles in life.
First Flight 'Space Shuttle Columbia
in 1997' where she was a mission specialist and primary robotic arm
operator
For those who are wondering how many times Kalpana Chawla went to space
then you will be astounded to know that she has completed 2 space
missions! Being the mission specialist and primary robotic arm reporter
on her first flight Space Shuttle Columbia in 1997, Kalpana was the only
woman who was a part of a six-astronaut crew. Their space shuttle took
over 250 orbits around the earth in just a span of two weeks. With the
primary motive to study the outer layer of the sun, the crew performed
numerous experiments and made various observations apart from the
deployment of a Spartan satellite from the shuttle.
STS-107 Crew
In 2001, Chawla was selected for her second flight as part of the crew
of STS-107. The mission that was supposed to begin in 2000 was delayed
multiple times finally being launched in the year 2003.
This mission was repeatedly delayed due to scheduling conflicts
and technical problems such as the July 2002 discovery of cracks in the
shuttle engine flow liners. On 16 January 2003,
Chawla finally returned to space aboard Space Shuttle Columbia on the
ill-fated STS-107 mission. The crew performed nearly 80 experiments
studying Earth and space science, advanced technology development, and
astronaut health and safety.
In the course of its 16 days voyage, the crew performed more than 80 space
experiments and it was a successful enterprise when on the morning of
1st February 2003 the flight disintegrated while entering the Earth’s
atmosphere and no one survived this accident.
During the launch of STS-107, Columbia's 28th mission, a piece of foam
insulation broke off from the Space Shuttle external tank and struck the
left-wing of the orbiter. Previous shuttle launches had seen minor
damage from foam shedding,[18] but some engineers suspected that the
damage to Columbia was more serious. NASA managers limited the
investigation, reasoning that the crew could not have fixed the problem
if it had been confirmed. When Columbia
re-entered the atmosphere of Earth, the damage allowed hot atmospheric
gases to penetrate and destroy the internal wing structure, which caused
the spacecraft to become unstable and break apart.
For her outstanding career achievement and her significant contribution
to the country, Kalpana Chawla received a number of awards which
included prestigious NASA Distinguished Service Medal, Congressional
Space Medal of Honor and NASA Space Flight Medal.
With her 30 days, 14 hours, and 54 minutes in space over the course of
her two missions, Kalpana explored the intricacies of the space.
Aerospace aspirants take her as their role model and often recall what
she said after her first launch as their to success, “When you look at
the stars and the galaxy, you feel that you are not just from any
particular piece of land, but from the solar system.”
(Source:
Levergeedu &
Wikipedia)
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