In a recent Richmond Times Dispatch newspaper article, the author Jefferey J. Selingo, writes about six myths behind majors. They are:
1. STEM always delivers- "Always" is a bit specific but for majors: science, technology (computer science), engineering and mathematics generally provide greater lifetime incomes than many other careers such as teaching, history, nursing and liberal arts.
2. Women want it all- This fall 56% of college students are women. However when they graduate, they tend to chose lower paying career/fields than men.
3. Major matters more than choice of college- Data shows that students who graduate from highly rated colleges tend to make more money.
4. Liberal arts majors are unemployable- Contrarily, the author claims that these majors emphasize writing, synthesis, problem solving and are sought by employers.
5. Choose a major early- The author claims 20% of those who choose a major upon entering college change it after their first year.
6. You need a major- There is a tendency now toward eliminating majors that are now considered artificial and restrictive by some colleges.
Do you agree with these myths?
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How
does one become a Plant Engineer ?
What
are the requirements for plant engineers? Many current plant engineers are technicians and hold AA degrees or
have technical military backgrounds. However most applicants in today’s
marketplace will need a BS degree in engineering of varying disciplines.
Different industries have preferences for the specific disciplines they require
depending on whether they are a manufacturer, healthcare facility, chemical
process or electrical power generation plant.
What
is the outlook for plant engineers? The U.S. Bureau of Labor Statistics predicts plant engineering
positions will grow by 5% between 2012 and 2022. This is substantiated as about
half of their plant engineering readership are over the age of 55 and their
retirement will create a major void in the workforce according to recent
research conducted by Consulting-Specifying Engineer magazine. The void will
likely be filled due to more hiring and mentoring of technical personnel.
.
What
is a certified plant engineer? A
CPE is a credential earned through the Association of Facilities Engineering
for candidates who possess a combination of work experience and education that
take and successfully pass an eight hour multiple choice exam. A CPE is not a mandatory requirement for
plant engineers but it demonstrates competency to perspective employers and may
help achieve advancement with existing employers. Core competencies in the CPE
program include: electrical, mechanical, environmental and civil engineering,
heating, ventilation and air conditioning, controls, management, economics,
maintenance, energy and OSHA regulations.
What
do Plant Engineers do?
There
is a uniqueness about this technical function because plant engineering
personnel are the behind the scenes, jack-of-all-trades folks that maintain the
operation of power plants, manufacturing establishments and chemical processing
plants.
Where
is the plant engineer in the company? They are typically part of a multidiscipline department/organization
consisting of engineers and technicians reporting to a manager who is sometimes
titled chief engineer or plant manager. Plant engineers must be flexible to
survive.
What
are the duties of plant engineers?
Energy consumption, water, cooling, heating systems, compressed air, electric
power consumption and pollution are all important considerations for plant
engineering personnel. Also, as part of
their daily routine, plant engineers deal with seemingly minor maintenance
issues such as compressed air and water leaks, electrical overloads and
outages, machinery repairs, and safety issues.
What
are the trends in plant engineering? Water conservation and energy
efficient buildings will be a cause for concern for building owners, engineers
and municipalities. Legislators will push for water-efficient fixtures, water
reuse systems and high efficiency boilers. More demand is foreseen for “smart”
building technologies that utilize products that can be controlled, monitored
and managed from across the planet will increase. Increased healthcare
facilities expenditures will likely create opportunities for plant engineers
for decades.
Engineering without a license?
In a recent Richmond Times Dispatch
article, writer and commentator George Will sited a legal case in Oregon where
a graduate engineer was fined for voicing opinions about how long traffic
lights stayed yellow as they transitioned from green to red. This was in
response to what he believed was an unjust red-light camera traffic ticket his
wife received. In his rants, he sighted his engineering education as his
credibility. The Oregon authorities refuted his arguments claiming he was not
an authority because he lacked a “Professional Engineers" license and therefore
investigated him and ultimately fined him $500 for expressing opinions.
This may shock those who labored to
receive an engineering degree. So what difference does it make having a P.E.
license? It simply represents that the individual is “competent “in the subject
and as a PE is sufficiently
knowledgeable, capable and fit to render a design that could affect the health,
safety, and welfare of the public, satisfactory. Licensing requirements in most
states extend to landscape architects, architecture, engineers, land surveyors
and landscape architects. In my book I include typical requirements for
obtaining a P.E. license.
Do you have an experience to share?
Is a Technical Career Right For me?
My brother and I enjoyed a lunch together
recently and talked about a major career change he made several years after
graduating with an electrical engineering degree. After struggling in a
technical position, he completed an “aptitude test” where upon he discovered he
was better suited for accounting. The test pointed toward strength in ability
of working with numbers versus engineering principals. Unfortunately this was
discovered after considerable time and money had been invested in an
engineering career path much to the dismay of our parents.
So how does one know if they are
suited for a technical career? In addition to aptitude testing, there are some
basis questions you might ask yourself.
A. What are my interests?
A curiosity
of how and why things work the way they do is typically an attribute found in a
lot of budding engineers, scientists and technicians. Perhaps structures such
as bridges, stadiums, or high rise buildings fascinate you. This might be a
sign that you are interested in studying civil engineering. Interested in
marine life or the environment? Find out what engineering opportunities exist
in those areas.B. What subjects do I like?
Naturally math is an important subject at the high school level for those contemplating technical studies. I would also recommend evaluating what aspects of physics and chemistry you find appealing, particularly the former. High school physics deals with many of the aspects of engineering, i.e. chemical, electrical, mechanical, aeronautical, nuclear and more. Chemistry and mathematics are key subjects for chemical engineers. So take the opportunity to judge your interest from a subject perspective.
C. What subjects are my strengths?
Often your
likes are your strengths. But do not necessarily take that for granted. The
technical subjects you excel in are a good indicator that you have the ability
to grasp technical concepts be they of a mathematical, physical or chemical
nature. Whereas strength in artful subjects, literature or history would
suggest a different career path.
D. Who do I know in the field?
Knowing
someone working in the field that you are considering is a great way to become
familiar with what the work entails. Do your parents work in the field,
cousins, neighbors, aunts, uncles or siblings that work in the field? If so,
spend time with them, ask questions or possibly spend some time with them on
their job site or in their office or shop. Beware however, that none of the above questions alone can ensure survival in your chosen technical field. Also there are many books available that delve deeply into career choices. It is unfortunate that little time is spent understanding what a particular career encompasses until later when we are fully committed.
Engineering Careers for Women
This is a puzzling subject that I chose to include
it in my book. When I was a high school student, I knew many girls that
excelled in math and science and therefore it was surprising to me that so few
elected to pursue engineering careers. After all, technical careers generally
don’t require brute strength, getting muddy or handling explosives. But with
all my work experience, I have only known 10 women in engineering or design
positions. I think I am finally beginning to understand why.
1.
Consulting-Specifying Engineer magazine
published that it is well established that only one-tenth of employed engineers
are women. I would have guessed less.
2.
A 2011 research study found that the percentage of
female engineering graduates accounted for approximately 18.4% of the BS
degrees awarded in total.
3.
A 2011 US Census Bureau publication concludes that
nearly 1 in 5 female science and engineering graduates leave the
technical labor force versus only 1 in 10 males. Many receiving BS in
engineering degrees then pursue non-engineering careers such as law, education,
health care and even accounting.
4.
In a recent study compiled at Harvey Mudd College in
California, the number one reason why young women do not chose technical
careers is that they think they are not interesting. The second reason, the
young women don’t think they would do well.
Back to my dilemma, so why have I known so few
women engineers? In addition to the above conclusions, I also recognize that
there has been more press in recent decades highlighting chemical, biomedical
and “save the environment” issues. Perhaps the front page stories constantly
focusing on these problems has motivated women to pursue these fields of study
thereby explaining the survey results.
One of the consequences of this scarcity of women
in engineering has created a great opportunity and a high demand for their
recruitment particularly companies advocating diversity in the work place. It
would seem that in the future, improvement in promoting technical careers for
women will be necessary.
Your thoughts?
Will you lose your job due to Automation?
If you are
an engineer, technician or scientist is there a risk of losing your job do to
automation? Likely not, as automation is actually attributed to the efforts of
technical personnel. I am reminded that back in the 1980s while I was employed
as an engineer at Sundstrand Fluid Handling, the so-called Data Processing
main-frame personnel worried about their careers. Why, because they feared that
if the engineers each had a personnel computer there would be no DP folks
required. But surprisingly, the opposite
was true and those DP people morphed into what we now refer to as the IT
department that we can’t survive without. And let’s not forget that computers
were predicted to eliminate paper.
As I
indicated in my previous blog post, technical personnel have been involved with
many aspects of automation for decades. But now, the media’s latest rants
sensationalize automation as if the “Robot” is some sort of villain. Here is an
example of a catchy headline: The Robots
are coming (for your job). I guess the media is not focused on global
warming any longer due to the so-called “warming pause”.
What the media does not explain about “robots”.
There is a
current trend in the media to treat automation and robotics as a looming threat
to workers including engineers, scientists and technicians. Article titles
like: Rise of the Machines: Factory jobs lost to robots. OK, I get it
about making the news sensational, it sells. But as usual, it’s what they leave
out that I find interesting.
Historically,
first came the hand held wrench, then the human operated pneumatic wrench then
finally the robotic operated pneumatic/electric/hydraulic wrench. Think of Robots
as essentially advanced tools. Also keep in mind:
Robots are
designed by engineers, scientists and technicians.
Robots must
be sold by sales personnel.
Robots require
raw materials that must be produced including electric motors, air and
hydraulic cylinders and electronic controls.
Robots must
be assembled, tested and shipped.
Robots must
be powered by compressed air, hydraulic fluid and electricity, all of which must
be produced.
Robots must
by programmed to operate.
Robots must
be repaired when they fail and they will.
Automobiles
replaced the horse and wagon, but we still have horses and wagons.
Your thoughts?
Further on Transitioning
Your first thought as you begin your working career may be that your contribution is minor and doesn’t matter? You might even ask yourself: “I went to college for this?” During my first job as a designer at Hamilton Standard Division of United Technology Inc. I thought my contribution was rather insignificant compared to the overall production of the Boeing 747 aircraft. Then I realized that if I had not designed the 747 “three wheel machine” rotating shaft assembly, the plane would not have had an Environmental Control System (air conditioning system) and therefore be unable to fly. You may be a small part in a large team but the team success depends greatly on your individual contribution.
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