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Come to the career day and see for yourself!
Listed below are the different panel discussions going on
during the day. Spend some time listening to woman engineers
speak about what they do at work, ask questions, and discover
what engineering is all about. Check out the panels below:
Panel A: Chemical, Polymer, Materials Science
Chemical Engineers are involved in the processing and treating
of liquids and gases. They help to discover and manufacture
better plastics, paints, fuels, fibers, medicines, fertilizers,
semiconductors, paper, and all other kinds of chemicals. They
rely on their knowledge of mathematics and science, particularly
chemistry, to overcome technical problems safely, economically,
and in an environmentally friendly way.
Polymer Engineers make and develop products made from materials
such as plastics and rubber. They are familiar with manufacturing,
processing, blending, and producing final products made from
polymers. The field of polymer engineering is really a wide
discipline. Polymer engineers could be making components for
cars, improving the quality of bulletproof vests, developing
composites for sports equipment, or designing advanced tires.
Materials Science and Engineering plays a key role in the
development of new technologies in engineering and science
resulting in startling changes in our lives in the 21st century.
Materials engineers deal with the science and technology of producing
materials that have properties and shapes suitable for practical use.
Materials include metals, ceramics, polymers (plastics), semiconductors,
and their combinations called composites. The activities of these engineers
range from primary materials production, including recycling, through the
design and development of new materials to the reliable and economical
processing/manufacturing for the final product. Materials engineers may
also conduct durability evaluation research to see how durable certain
materials are in various environments, such as whether car components are
durable to harsh winter weather and salt, or whether spacecraft materials
survive in the harsh environment of space. Materials science and engineering
activities are found commonly in aerospace, transportation, electronics, energy
conversion, biomedical and spacecraft industries.
Panel B: Civil, Industrial, Mechanical
Civil Engineers belong to one of the largest branches of
engineering. They deal with buildings, bridges, dams, roads,
and other structures. Civil engineers plan, design and supervise
the construction of facilities such as high-rise buildings,
airports, water treatment centers, and sanitation plants.
Civil engineers will need to design the special rail beds
for the magnetic levitation trains of tomorrow.
Industrial Engineers organize the people, information, energy,
materials, and machines involved in the production process.
They are concerned with plant design and management, quality
control, and the human factors of engineering. Industrial
engineers perform tasks such as finding the best location
for a high-tech company's new plant.
Mechanical Engineers work in many industries, and their work
varies by industry and function. Some specialties include
applied mechanics; computer-aided design and manufacturing;
energy systems; pressure vessels and piping; and heating,
refrigeration, and air-conditioning systems. Mechanical engineering
is one of the broadest engineering disciplines. Mechanical
engineers may work in production operations in manufacturing
or agriculture, maintenance, or technical sales; many are
administrators or managers.
Panel C: Bio-Medical, Electrical
Bioengineering/Biomedical Engineering combines biology and
engineering. Some of these engineers work closely with biologists
and medical doctors to develop medical instruments, artificial
organs, and prosthetic devices. Others investigate questions
that involve the interaction between technology and humans
such as: How does working with computers all day affect one's
health?
Electrical Engineers cover everything related to electrical
devices, systems, and the use of electricity. Electrical engineers
work on power plants, computer systems, hardware circuit design,
electrical/network wiring, and the design of electrical power
for machines/devices. Electrical engineers are designing the
dashboard computers that will monitor engine functions on
automobiles of the future.
Panel D: Aerospace, Environmental
Aerospace Engineers are responsible for developing extraordinary
machines, from airplanes that weigh over a half a million
pounds to spacecraft that travel over 17,000 miles an hour.
They design, develop, and test aircraft, spacecraft, and missiles
and supervise the manufacturing of these products. Aerospace
engineers who work with aircraft are considered aeronautical
engineers, and those working specifically with spacecraft
are considered astronautical engineers.
Environmental Engineers study and develop methods to protect
the environment. They develop water distribution systems,
recycling methods, sewage treatment plants, and other pollution
prevention and control systems for the water, air, and land.
Environmental engineers work closely with the EPA and regional/local
environmental regulatory agencies to ensure that environmental
standards are met.
Panel E: What is Engineered?
When people think about engineering, they often think of products like
cell phones, DVDs, and automobiles. But engineered products cover all aspects
of everyday life. From the food we eat to the clothes we wear, engineering has
played a part in making our lives easier, cheaper and better. By becoming an
engineer, you can help solve problems that are important to society. You
could be controlling and preventing pollution, developing new medicines,
creating advanced technologies, or even exploring new worlds.
Panel F: Preparing for College
Engineers should be inquisitive, creative, analytical, and detail-oriented. They
should be able to work as part of a team and be able to communicate well, both
verbally and in writing.
There are courses you can take in high school to prepare you for a
college engineering education. These include classes such as math, chemistry,
physics, biology, computer science and programming, and English composition.
An engineering education provides a foundation that can be applied to many
other professions. Not many other disciplines give individuals the depth and
breadth of knowledge that engineering does. As a trained engineer, you will
have one of the most useful and transferable traits available: you will know
how to approach problems logically and have strong problem-solving skills in
general. An undergraduate degree in engineering has proved to be an excellent
stepping stone to the fields of medicine, law, and business.
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