Engineering: Trends And Opportunities Within The Industry
by Crawford B. Bunkley III
"For most of my pre-college
years, I was intrigued with science and math, mainly because of my interest in and aptitude for problem
solving," explains Allison Pitt about her interest in engineering. Now a freshman
at Washington University in St. Louis seeking a chemical engineering degree from the School of Engineering
and Applied Sciences, Allison is among the more than 25,000 African American undergraduates in engineering who
soon will have to make decisions that will impact their future as engineers.
"What are the professional skills I will
need the most to succeed as an engineer? Are a strong math and science background, and a bachelor's degree in
engineering enough to make me competitive in a workforce that is steadily advancing in technical expertise?"
Allison asks. "What type of jobs will be available to me in four or five years, and
which disciplines offer the best salaries and opportunities for advancement into
management and administrative positions? Should I plan on eventually earning at least a master's degree in order to
qualify for more managerial positions?"
According to experts on engineering education, Allison, as well as engineering
students who have yet to select a specific engineering discipline, needs to be aware of a number of important
trends that will impact how they should prepare for the engineering workforce.
The State of Engineering
Education Today
To keep pace with the rapidly changing
technological needs of the global economy, engineering schools, according to Dr.
Norman L. Fortenberry, director of the National Academy of Engineering's Center for the Advancement of
Scholarship on Engineering Education, "are placing increased emphasis on the global awareness of their engineering students
and on better preparing engineers as industrial leaders (versus commoditizibleknowledge-workers) by placing
emphasis on professional skills such as communications, project management, and team
leadership." Dr. John B. Slaughter, president and CEO of the National Action Council for Minorities in
Engineering, Inc. (NACME), the nation‘s largest private source of scholarships for
African American, Latino, and American Indian engineering students, adds that engineers
"must appreciate the ethical and moral issues associated with their work and
they've got to communicate it clearly. Sometimes we neglect to provide students with that sort of
preparation."
Recent events here at home and around the world, combined with a
decreasing number of students choosing to pursue a degree in engineering, have served to highlight an
ever-increasing concern about America's ability to maintain its leadership in science
and technology. As a result, an engineering school's success with preparing its students will not depend
so much on its ability to retain those students who have traditionally been participants in this field, but on its
ability to include underrepresented students of color.
"I believe the future of engineering
education is bright, but changes are necessary." observed Eleanor Babco, executive
director of the Commission on Professionals in Science and Technology (CPST), which collects, analyzes, and
disseminates reliable information about the human resources of the U.S. in the fields of science, engineering, and technology.
"It is becoming more important that engineering be more diverse, not only because of the changing demographics,
but because diversity enriches engineering. Otherwise, we can anticipate declining interest in engineering
careers, as well as competition with other disciplines to recruit, enroll, and educate a diverse talent
pool."
Unfortunately for African Americans and other underrepresented students of
color, their statistics as degree recipients in science and technology have not been encouraging.
CPST's 15th edition Professional Women and Minorities: A Total Human Resources Data
Compendium, indicates that "of the degrees awarded in science and engineering in 2003,
African Americans, while representing 12.2% of the U.S. population, earned 8.1% of the
bachelor's 5.1% of the master's and 2.8% of the doctorates."
(See Chart 1 - Engineering Degrees by Level, and Race/Ethnicity, 2003
and Chart 2 - Employed Engineers by Race/Ethnicity and Sex, 2003)

Engineering Career Opportunities:
So what does this mean with respect to
future career opportunities for today's African- American engineering student? Which fields offer them the best opportunities
and what must they do to prepare themselves for success as engineers? Is an advanced degree or a license
needed? Are internships important?
Dr. Percy Pierre, professor of electrical
and computer engineering at Michigan State University, suggests engineering students must understand that
"all engineering areas offer better opportunities than most fields. As a result, students
must choose a field they like and would be good in. The key is to be very good at
what you do."
A
Job Outlook 2005 survey released on November 11, 2004 by the National Association of Colleges and Employers
(NACE) reports that "new college graduates with business, engineering, and computer-related degrees have the most
promising job outlook this year." Included among
NACE's list of top 10 Bachelor's Degrees in demand were five engineering degrees: Electrical; Chemical;
Mechanical; Computer engineering; and Computer science.
Dr. Gary May, executive assistant to the
president of the Georgia Institute of Technology and the university's Motorola Foundation Professor of Electrical and
Computer Engineering, indicates there is "always a new discipline. Interest has now shifted among students to biomedical-related engineering
studies."
(See side-bar: Outlook for Top 6 Engineering Careers for more specific
information on job outlook, salary, needed education, etc., for these top engineering fields.)

Financial Aid
Critical to an engineering student's success toward obtaining a degree, just
as it is for most undergraduates, is having access to the necessary financial resources. Engineering students can
look to internships or co-ops, and scholarships from organizations like NACME. "Good internships are important
to begin understanding the engineering profession," advises Dr. Pierre. "In choosing an internship, students
should choose one where they can expect to learn the most."
VJ Turner, an electrical engineer at
ExxonMobil and a former NACME scholar at Prairie View A&M University, where he received his BS in electrical
engineering, agrees that his internships "provided an opportunity to see which company cultures best fit who I was and
what I wanted to do."
The search for an internship should begin with a college or
university's career counselor to find information about available internships or when recruiters
from companies of interest plan to visit a school to interview potential interns.
"I worked for three summers at Frito-Lay while in college," stated Rachel Thomas,
a NACME alumna who received her chemical engineering degree from Texas A&M. Upon graduation, Rachel was
offered a full-time position at Frito-Lay where she is a chemical engineer.
Additionally, students can search the
Internet for internships in their specific disciplines at sites such as www.chemicalengineeringinternships.com or conduct
a general search using the keywords: "Engineering Internships." Engineering students must remember that engineers
created the Internet, so they should use this medium to its fullest advantage.
"NACME's
role," as described by Dr. Slaughter, "is to eliminate the (student's) fear of not having the financial resources
to complete an education." Since 1974, NACME has provided more than $100 million to more than 18,000 engineering
students of color at more than 160 colleges and universities. This year, NACME hopes to reach more than 750 engineering
students. More information about NACME can be found at www.nacme.org.
Other Engineering Career
Options:
Engineering graduates may also want to consider teaching or research, working
as engineers in the military, becoming entrepreneurs, or using their engineering
degrees as springboards to non-engineering careers. "I did not always know I wanted
academics," explained Dr. Reginald DesRoches, who has traveled the world doing earthquake engineering
research as an associate professor in the school of Civil & Environmental Engineering at Georgia Tech.
"I really enjoyed the research I was conducting in graduate school and really enjoyed the
process of learning new things through research, so I thought academia would be a good
move"
Dr. DesRoches, who completed his civil engineering studies at University
of California at Berkeley in 1997 as a NACME scholar, has taught at Georgia Tech for more than six years and would
not hesitate to do the same thing again. "I feel that I am having an impact on society both through my research and
through my work with students."
|
Outlook
for Top 6 engineering Careers: 2004-20012 |
Biomedical Engineers:
- Overview - In 2002, 7,600 biomedical engineers held jobs,
with 38% primarily in the pharmaceutical and medicine manufacturing and medical instruments and supplies industries.
- Nature of the work - Biomedical engineers combine biology
and medicine with engineering, biomedical engineers develop devices and procedures that solve medical and health-related
problems.
- Subjects needed - Biology, chemistry
- Personal skills - Helping/teach; Technical/scientific
- Work environment - Primarily indoors and at one location
- Minimum education needed -
Bachelor's degree
- Salary - $36,860 to $57,480 to $90,530+; entry level offers in
2003 for BS - $39,126; MS-$61,000
- Outlook - Expected to grow faster than average (36% or more)
for all occupations through 2012
Chemical Engineers:
- Overview - Chemical engineers held about 33,000 jobs in 2002
- Nature of the work - Chemical engineers build a bridge
between science and manufacturing, applying principles of chemistry and engineering to solve problems involving the
production or use of chemicals.
- Subjects needed - Chemistry, physics
- Personal skills - Communication/ideas; Technical/scientific
- Work environment - Primarily indoors and at one location
- Minimum education needed -
Bachelor's degree
- Salary - $45,200 to $65,960 to $93,430+; entry level offers in
2003 for BS - $52,384; MS - $57,857; Ph.D. - $70,729
- Certification or licensing - Required for certain positions
- Outlook - Little or no growth (0% - 2%) through 2012.
Civil
Engineering:
- Overview - One of the oldest disciplines; civil engineers held
about 228,000 jobs in 2002.
- Nature of the work - Civil engineers design and supervise the
construction of roads, buildings, airports, tunnels, dams, bridges, and water supply and sewage systems.
- Subjects needed - Mathematics, physics
- Personal skills - Leadership/management; Technical/scientific
- Work environment - Indoors and outdoors, primarily at multiple
locations
- Minimum education needed -
Bachelor's degree
- Salary - $37,430 to $55,740 to $86,000+; entry-level offers in
2003 for BS - $49,794; MS - $47,245; Ph.D. - $69,079.
- Certification or licensing - Recommended
- Outlook - Job opportunities to increase about as fast as average
- 10% to 20% through 2012.
Computer Software Engineers
- Overview - Computer software engineers held about 675,000
jobs in 2002.
- Nature of work - Computer software engineers apply the principles
and techniques of computer science, engineering, and mathematical analysis to the design, development, testing and
evaluation of the software and systems that enable computers to perform their applications.
- Subjects needed - Computer science and mathematics
- Personal skills - Mechanical/manipulative; Technical/scientific
- Work environment - Primarily outdoors and at one location
- Minimum education needed -
Bachelor's degree
- Salary - $42,710 to $67,670 to $125,000+. Entry level offers
in 2003 for BS in computer engineering - $51,343; MS-$64,200. With BS in computer science - $47,109.
- Certification or licensing - Recommended
- Outlook - Projected to be one of the fastest growing occupations
from 2002-2012. Highly favorable opportunities for college graduates with a BS in computer engineering or computer
science. Must continue to learn new skills to keep up with rapid changes in computer technology.
Electrical and Electronics Engineers,
except Computer:
- Overview - Electrical and electronics engineers held about
292,000 jobs in 2002; largest branch of engineering.
- Nature of the work - Electrical and electronics engineers
design, develop, test, and supervise the manufacture of electrical equipment.
- Subjects needed - Computer science, mathematics, physics
- Personal skills - Mechanical/manipulative; Technical/scientific
- Work environment - Primarily indoors at one location with
some travel
- Minimum education needed -
Bachelor's degree
- Salary - $41,740 to $64,910 to $94,490; entry level offers in
2003 for BS-$49,794; MS-$64,556; Ph.D-$74,283.
- Certification or licensing - Voluntary
- Outlook - Employment opportunities are favorable and will
grow (10%-20%) as fast as the average.
Mechanical Engineers
- Overview - Mechanical engineers held about 215,00 jobs in 2002
- Nature of the work - Mechanical engineers research, develop,
design, manufacture, and test tools, engines, machines, and other mechanical devices.
- Subjects needed - Computer science; English; Mathematics
- Personal skills - Leadership/management; Technical/scientific
- Work environment - Primarily indoors at one location with
some travel
- Minimum education needed -
Bachelor's degree
- Salary - $48,426 to $58,710 to $88,610+; entry-level offers in
2003 for BS-$48,585; MS - $54,565; Ph.D. - $69,904.
- Certification or licensing - Voluntary
- Outlook - Employment expected to grow more slowly than
average (3%-9%) through 2012.
- Outlook for Top 6 Engineering Careers: 2004-2012
Source: Ferguson s Careers in Focus: Engineering, U.S. Department of Labor, Bureau of Labor Statistics, Occupational Handbook, 2004-05 Edition; and the National Association of Colleges and Employers - 2003 Salary Survey. |
Eric Adolphe, a NACME alumnus and
graduate of the City College of New York's School of Engineering, who started OPTIMUS Corporation in 1992 is one of
more than 55,000 engineers in 2002 identified by the U.S. Bureau of Labor Statistics who decided to pursue the
entrepreneurial route. "I‘ve always had an entrepreneurial spirit, which started
when I worked with my Dad in the family business while growing up. To be a part of a company from the ground up,
watch it grow, and to see my team have the chance to make their own career dreams realities while creating technology
that makes a real difference in people's lives are true passions and privileges."
The military also offers opportunities for engineering graduates. In June 2003,
according to the U.S. Department of Defense's Defense Manpower Data Center East, more than 53,000 officers in
the military served in engineering, science, and technical occupations in all branches of the military. Entering as officers,
military engineers essentially serve the same roles as their civilian counterpart,
and have a wide range of responsibilities based on their area of expertise. They lead or perform activities in areas
such as space operations, environmental health and safety, and engineering. Others work as aerospace engineers to
design and direct the development of military aircraft, missiles and spacecraft.
Advanced Degree and Licensing
For engineers in any discipline to be successful, they must be life-long learners
and not be content with only a bachelor's degree. "If you want to have a career as an
engineer," advises Dr. Pierre, "you must get a master's degree, either immediately
after your bachelor's degree or not long afterwards. Getting your master's degree
immediately may help you get your first job with greater career potential."
NACME's Slaughter concurs. "I would certainly urge any student who has a BS in engineering to consider seriously the
possibility of obtaining a master's because there are tremendous benefits associated
with having the additional degree. And I would also urge those who intend to stay
in the engineering profession to obtain their professional license, as I did"
Others, like Rachel Thomas, see the engineering degree leading to other
learning options that will enhance their talents as engineers. "I do not have an
advanced engineering degree, but I am interested in pursuing an MBA to increase my understanding of the business
and to enhance my effectiveness as a future manager." For much the same reason, Eric Adolphe obtained a law
degree, which has been "an supplement to my engineering degree."
VJ Turner, who has both a Master's Degree in Electrical Engineering and a
Professional Engineering (PE) license, suggests that having a license, although not required in his work for ExxonMobil,
"provides a sense of accomplishment." He advises those who want to obtain an engineering license to do so early in their
careers while they still remember engineering techniques.
Rachel Thomas recommends that engineering
students research the industry they plan to enter to determine whether a license is needed and to take advantage of
the Fundamentals of Engineering (EIT) preparation courses while still in college.
Each state has its own requirements for issuing PE licenses. A search of the
Internet using the keywords: "Professional Engineering License" or "EIT" will provide
additional information for both.
Engineering Workforce in the
21st Century - Life-long Learners
As we look into the future of engineering
in the United States, the U.S. Employed Engineers by Race/Ethnicity and Sex, 2003
Department of Labor's Bureau of Labor Statistics (BLS) in its 2004-05 Occupational Outlook Handbook cites
the following significant points regarding the opportunities available in engineering
from 2004 - 2012:
- Overall, job opportunities in engineering
are expected to be good, but will vary by specialty.
- A bachelor's degree is required for
most entry-level jobs. Starting salaries are significantly higher than those of college graduates
in other fields.
- Continuing education is critical to
keep abreast of the latest technology.
According to CPST's research, in the
U.S., where 60% of the economy is service-based, the emerging workforce will
consist of teams of "collaborators" who can bring together multiple skills and
perspectives. This workforce will work not only on joint activities among scientists
and engineers, but also with business and industry specialists, including specialists in the service sector.
The engineering workforce of the 21st
century will be much different from the workforce we saw as recently as ten
years ago. Because of the "dynamic" aspect of the field, the types of engineering
jobs available and the training needed to fill them are constantly changing.
"I think the engineering employee of the future will have to be more cognizant
of keeping aware of what is happening in the engineering marketplace," observes
CPST's Eleanor Babco, "by participating in life-long learning opportunities so that when one engineering
job is taken away, he/she will be ready for the next one." |
Resources:
Careers in Focus: Engineering
2nd edition, 2003, Ferguson Publishing Company, Chicago, IL.
Commission on Professionals in Science
and Technology (CPST)
http://www.cpst.org
National Academy of Engineering (NAE)
http://www.nae.org
U.S. Department of Labor, Bureau
of Labor Statistics (BLS) Occupational OutlookHandbook, 2004-2005 Edition
http://www.bls.gov
National Association of Colleges
and Employers (NACE)
http://www.naceweb.com
Advancing
Minorities' Interest in Engineering (AMIE)
http://www.amiepartnerships.org
Engineering Salary Calculator
http://www.engineersalary.com
National Action Council for Minorities
in Engineering (NACME)
http://www.nacme.org
Professional Engineering License (PE)
http://www.ppi2pass.com
Other sites also available
Fundamentals of Engineering Exam (EIT)
http://www.eitexam.com.
Other sites also available
Engineering Workforce Commission (EWC)
http://www.ewc-online.org |
Crawford B. Bunkley III is a member of
the Public Affairs Department (Global Community Relations COE) at Exxon Mobil Corp.
At present he is developing the Media Relations Department at NACME.
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