Category Archives: Engineering

Engineering Graduates Get Top Salary Offers

table of highest paid degrees

Most lucrative college degrees by David Ellis, CNNMoney.com:

The data reflects, college seniors in most majors are experiencing an increase in starting-salary offers, according to a quarterly survey published by the National Association of Colleges & Employers’ (NACE). 83 private and public schools were included in this survey.

Topping the list of highest-paid majors were chemical engineers who fetched $55,900 on average, followed by electrical engineering degrees at $52,899. Despite taking a 0.3 percent dip compared to the 2004-2005 academic year, mechanical engineers took third place with an average salary of $50,672.

Last year 6 of the to 7 highest paid degrees were in engineering (computer science was in 4th place). The graphic to the left leaves off: computer engineering, aerospace engineering and industrial engineering.

NACE press release on salary data

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2004 National Medal of Science and Technology

Dr. Borlaug receives National Medal of Science

The United States National Medals of Science and Technology were presented today at the White House. The photo shows Dr. Norman E. Borlaug, Texas A&M, receiving the National Medal of Science from President Bush. Eight National Medals of Science were presented (Dr. Dennis P. Sullivan, City Univ. of NY; Dr. Phillip A. Sharp, Massachusetts Institute of Technology; Dr. Robert N. Clayton, The University of Chicago; Dr. Stephen J. Lippard, Massachusetts Institute of Technology; Dr. Kenneth J. Arrow, Stanford University; Dr. Norman E. Borlaug, Texas A&M University; Dr. Edwin N. Lightfoot, University of Wisconsin – Madison; Dr. Thomas E. Starzl, University of Pittsburgh School of Medicine). George Lucas, of Star Wars fame, received a National Medal of Technology awarded to his company: Industrial Light & Magic.

UW’s Lightfoot to get major science award:

Developers of heart-lung machines, kidney dialysis equipment and pressure chambers to simulate the deepest oceans have used Edwin N. Lightfoot’s research.

The 80-year-old UW-Madison chemical and biological engineering professor is to receive the National Medal of Science today from President Bush at the White House.

“Ed’s work formed the foundation for a great deal of the work in chemical and biomedical engineering,” said Tom Kuech, 51, chairman of the UW Chemical and Biological Engineering Department.

“What’s even more remarkable is that he can run circles around most people. He’s a very sought-after speaker for his views on changes in engineering education.”

National Technology Medals were awarded to: Roger L. Easton, Ralph H. Baer, Motorola, IBM, Gen-Probe Inc., Industrial Light and Magic and PACCAR Inc.

Concentrating Solar Collector wins UW-Madison Engineering Innovation Award

Solar Collector

An inexpensive, modular solar-energy technology that could be used to heat water and generate electricity (see photo) won $12,500 and took first place in both the Schoofs Prize for Creativity and Tong Prototype Prize competitions, held Feb. 9 and 10 during Innovation Days on the UW-Madison College of Engineering campus.

In a package about the size of a small computer desk, the winning system uses a flat Fresnel lens to collect the sun’s energy and focus it onto a copper block. Then a unique spray system removes the energy from the copper block and converts it into steam, says inventor Angie Franzke, an engineering mechanics and astronautics senior from Omro, Wisconsin. The steam either heats water for household use or powers a turbine to generate electricity.

Other 2006 Schoofs Prize for Creativity winners include:

* Second place and $7,000 — William Gregory Knowles, for the OmniPresent Community-Based Response Network, a personal, business or industrial security system that draws on networked users and devices to more efficiently verify burglar alarms, fire alarms or medical emergencies.
* Third place and $4,000 — Garret Fitzpatrick, Jon Oiler, Angie Franzke, Peter Kohlhepp and Greg Hoell for the Self-Leveling Wheelchair Tray, a stowable working surface for wheelchairs that self-levels, even when the wheelchair is tilted or reclined up to a 45-degree angle.

Read more about the 2006 competition

MIT Energy Storage Using Carbon Nanotubes

Images of different types of carbon nanotubes

MIT Researchers Fired up Over New Battery

Image / Michael Ströck, Images of different types of carbon nanotubes. Carbon nanotubes are key to MIT researchers’ efforts to improve on an energy storage device called an ultracapacitor. Larger image

Work at MIT’s Laboratory for Electromagnetic and Electronic Systems (LEES) holds out the promise of the first technologically significant and economically viable alternative to conventional batteries in more than 200 years.

The LEES ultracapacitor has the capacity to overcome this energy limitation by using vertically aligned, single-wall carbon nanotubes — one thirty-thousandth the diameter of a human hair and 100,000 times as long as they are wide. How does it work? Storage capacity in an ultracapacitor is proportional to the surface area of the electrodes. Today’s ultracapacitors use electrodes made of activated carbon, which is extremely porous and therefore has a very large surface area. However, the pores in the carbon are irregular in size and shape, which reduces efficiency. The vertically aligned nanotubes in the LEES ultracapacitor have a regular shape, and a size that is only several atomic diameters in width. The result is a significantly more effective surface area, which equates to significantly increased storage capacity.

Solar Powered Hearing Aid

Solar Hearing Aid
African-Made, Solar-Powered Hearing Aid

The SolarAid is a hearing aid designed and built by Godisa Technologies, a Botswana company founded to make low-cost hearing aids for the developing world. The SolarAid system combines a small hearing aid and a lightweight solar charger; Godisa developed the first No. 13 rechargeable button battery for the system. Godisa is Africa’s only hearing aid manufacturer, and the only one in the world making hearing aids specifically for the sub-Saharan Africa environment.

Innovation through creating effective solutions using technology solutions that have existed in other contexts can have huge impacts. Appropriate technology solutions offer the opportunity for great gains for humanity.

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Diversity in Science and Engineering

Diversity in Science & Engineering: Reflecting on the Summers Hypothesis by David Keyes. More discussion of possible causes for the under-representation of certain demographic groups in science and engineering community and possible changes that could improve the situation should be encouraged.

China graduates about 600,000 bachelor’s-level engineers per year, compared to 70,000 for the US, and it costs about one-fifth as much to employ an engineer in China. India graduates 350,000 engineers per year, and employs them for one-eleventh as much. In the past, the US counted on importing the best of foreign trained engineering bachelor’s holders, who now make up 65 percent of the doctoral degree candidates in engineering at US universities. Today, fewer foreign-born US Ph.D. holders can be expected to remain in the US, now that their native infrastructures for S&E research and education are improving.

I encourage people to explore Framing the Engineering Outsourcing Debate by Dr. Gary Gereffi and Vivek Wadhwa. I find the report compelling. Still, I would like some confirmation (or compelling arguments detailing what is wrong with the study) that the numbers in Duke’s report are more relevant than those quoted above, and elsewhere.

Also, in this context wouldn’t looking at the diversity of the engineers in China and India be interesting?

There are many ways of slicing demographic data, but by any metric, the US is failing to train a competitive number of domestic scientists and engineers. It produces only about 5.5 S&E bachelor’s degrees per 100 24-year-olds overall, according to 2004 NSF data. Raising the participation of women in S&E in their 24-year-old cohort (currently 4.5 per 100) to that of men (currently 7 per 100 in theirs) is one strategy. Raising the participation of African Americans (currently 3 per 100) and Hispanics (currently 2.5 per 100) is another, particularly as the latter population base grows relative to Caucasians (with 6 per 100). Meanwhile, Asians and Pacific Islanders in the US account for 14.5 S&E bachelor’s degrees per 100 24-year-olds in their cohort.

I believe there is no one cause for the current demographic makeup of various slices of the science and engineering community and there will be no one change that will bring dramatic results. Many good things have been done and progress has been made. There is still room for many more improvements, but I think the future will be made better by hundreds and thousands of relatively small incremental improvements.

Women in Computer Science at Carnegie Mellon has several papers online discussing some of the discoveries made while improving female representation at the University.


Transforming the Culture of Computing at Carnegie Mellon
, by Lenore Blum:

In 1995, the Computer Science Department at Carnegie Mellon University (CMU) began an effort to bring more women into its undergraduate computer science (CS) program.
At that time, just 7% (7 out of 96) of entering freshman computer science majors at
Carnegie Mellon were women. Five years later, in 1999, the percentage of women in the
entering class had increased fivefold to about 38% (50 out of 130).

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GPS – Science Economy

Many cool products result from scientific and engineering research and development. One class of such products are the global positioning system devices. One example of those devices is the Garmin Nuvi 350 Pocket or Vehicle GPS Navigator Viewer (buy from Amazon) – in photo.

Europe, is exploring putting their own GPS satellite system in orbit to remove their current dependence of the system using United States military satellites. Sat-nav looks to smart ideas:

Analysts believe the value of the Galileo-enhanced business – equipment and services – could be worth well in excess of 10 billion euros a year by 2020, as sat-nav functionality wheedles its way into every corner of modern life.

Some applications are obvious: consumer mobiles which not only allow you to phone ahead and book that pizza restaurant but also show you on-screen how to get there and tell you where the nearest cashpoint is located.

Other applications will stretch the imagination and ingenuity of Europe’s smartest technologists.

The Naval Research Enterprise Intern Program

The Naval Research Enterprise Intern Program (NREIP), provides students the opportunity to participate in research at a Department of Navy (DoN) laboratory during summer breaks. Apply for NREIP online; the application deadline is 17 February 2006.

The goals of the NREIP are to encourage participating students to pursue science and engineering careers, to further education via mentoring by laboratory personnel and their participation in research, and to make them aware of DoN research and technology efforts, which can lead to employment within the DoN.

NREIP provides competitive research internships to approximately 230 college students (175 undergraduate students and 55 graduate students) each year. Participating students typically spend ten weeks during the summer doing research at approximately 12 DoN laboratories. To participate, a student must be enrolled at an eligible college/university (comprising approximately 160 institutions; eligibility is determined by the Office of Naval Research) and have completed at least their sophomore year before beginning the internship.

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Gordon Engineering Education Prize

Jens E. Jorgensen, John S. Lamancusa, Lueny Morell, Allen L. Soyster, and José Zayas-Castro will receive the Bernard M. Gordon Prize “for creating the Learning Factory, where multidisciplinary student teams develop engineering leadership skills by working with industry to solve real-world problems.” The Gordon Prize is an annual award from the National Academy of Engineering that recognizes innovation in engineering and technology education: the award includes a $500,000 payment.

The Gordon Prize was established in 2001 as a prize recognizing new modalities and experiments in education that develop effective engineering leaders. Recognizing the potential to spur a revolution in engineering education.

The Learning Factory was developed to produce engineering graduates who could easily translate engineering theory into practice and manage projects independently. In this innovative undergraduate program, students tackle real problems from industry, such as designing a collapsible crutch, turning coal ash into a pavement, and making the mechanism that adjusts the position of car seatbacks safer. Multidisciplinary teams of students define and characterize the problem, build a solution prototype, write a business proposal, and make presentations about their idea. “Learning Factory students see firsthand the importance of teamwork, effective communication, and engineering ethics,” says NAE President Wm. A. Wulf. “Mastering such qualities is essential for engineers to become leaders in a dynamic workplace.”

The Learning Factory originated from a coalition between three universities, Sandia National Laboratories, and 36 industrial partners that shared a desire to give students firsthand experience in design, manufacturing, and business. A 1994 National Science Foundation/Advanced Research Projects Agency grant funded the creation of the Learning Factory as a Manufacturing Engineering Education Partnership (MEEP).

Within three years, the university partners — Pennsylvania State University, the University of Puerto Rico-Mayagüez (UPRM), and the University of Washington (UW) — successfully integrated the Learning Factory into their institutions and curricula. Since then, Learning Factory concepts and course materials have spread to other departments within these institutions, and to other universities in the U.S. and Latin America. More than 10,000 students have created over 1,200 Learning Factory design projects involving more than 200 industry partners.

Contraption Engineering Fair

Photo from Contraption Engineering Fair

Contraption Invention Fair is lots of fun by Shirley Briggs, Special to the Arizona Daily Star

The 51st Southern Arizona Regional Science and Engineering Fair will be held March 20-25 at the Tucson Convention Center. The 300th anniversary of Benjamin Franklin’s birth will be celebrated.

Once again, SARSEF has been approved to take up to six high school projects to the Intel International Science and Engineering Fair. Grants and awards (worth more than $15,000) are being awarded to this year’s high school and middle school participants.

Science and Engineering Fair Directory