All posts by Kim Geiger

The Secrets of Talking Nerdy, Part 1

Libby Titus Giving the First-Year Lecture
Libby Titus Giving the First-Year Lecture, Fall 2017

Are you an engineer or a scientist? Then you’re a writer and communicator, too. Libby Titus tells how to be an amazing geek who can also write.

More than 1,200 first-year engineering and computer science students learned the “Secrets of Talking Nerdy” from Michigan Tech Alumna Elizabeth (Libby) Titus ’96 at Michigan Tech’s annual First-Year Engineering Lecture on September 6. Here are some highlights from her talk.

It was 1990. Libby Titus was deciding where to go to college. She knew she wanted to get as far away from home as possible without incurring out-of–state tuition. That put Michigan Tech, a 12-hour drive, into the running. “Also, at the time, the only person in my family who had gone to college was my uncle Bob, and he had gone to Michigan Tech. After graduation, he was happily designing kegerators and brewing craft beer. I like beer, so I chose Michigan Tech,” Titus admits.

It turned out to be a much bigger decision than she realized. Titus met her former husband, the father of her two children, while walking across campus the very first day. She earned two bachelor’s degrees from Michigan Tech in 1996—one in environmental engineering and the other in scientific and technical communication.

After graduation, Titus packed up a U-Haul and headed West, taking a job in Salt Lake City for ASARCO, a mining company. “I was the first entry-level engineer and the only woman in the group. I quickly discovered that my ability to communicate equaled survival,” she recalls.

The job felt like torture. A friend, also an engineer, said to her, “Engineering is the easy part. Dealing with people is the hard part.”

She had read that for her resume to be taken seriously, she needed to stay in her first job for three years. “I made it three years and one day.” That’s when Titus moved to Seattle, where she lives now, to begin a new career as a consultant, helping clients with their environmental, health, and safety (EHS) obligations.

“I feel lucky,” she says. “My work is important, I feel appreciated, and I like my colleagues.” Titus currently manages EHS regulatory compliance for Novo Nordisk, a biopharmaceutical research center founded 9 years ago. Her job is to ensure her group of 120 Seattle researchers–Novo Nordisk has over 6,000 worldwide–meet all its compliance obligations for federal, state, and local EHS regulations and permits. She does a lot of training, and a lot of writing.

I decided to become a licensed professional engineer solely so I could command respect as a writer.”
Libby Titus

Professional engineers typically spend at least half of their day communicating, notes Titus. With 20 years of substantive experience now under her belt, she offers important advice for anyone entering the field.

“Engineering and science are group activities. It’s very rare for someone to be by themselves on a project,” she says. “No one wants to work with someone who can’t communicate.”

While at Michigan Tech, Titus took an improv class. “We all formed a circle and had to introduce ourselves and pass around some object made of air. It was pure hell, but it helped me. Take every chance you can get to engage with other people,” urges Titus. “Engineers are known for avoiding opportunities to connect with people. If you are not a confident writer or are afraid of public speaking, more writing and more speaking are the only solutions,” she says. “Confidence comes from practice!”

Adds Titus, “In business, written communication is often more important than what you say verbally. Writing is the greatest engineering challenge of all. It’s amazing how much business effort is wasted to fix poor writing. In one of my previous consulting jobs, we called our product ‘The BHB’, which stands for ‘Big Honking Binder’. The longer it takes to write, the more it costs the client.”

Clients are known to fire engineering consultants who cannot write well. “No matter how smart you are, your great ideas mean nothing until they can be effectively communicated. People will judge you by how well you speak and write.”


Interventional devices: Improving quality of life

A section of BSC’s drug-eluting Eluvia stent system, designed to restore blood flow in the peripheral arteries above the knee.
A section of Boston Scientific’s drug-eluting Eluvia stent system, designed to restore blood flow in the peripheral arteries above the knee.

As an R&D director at Boston Scientific Corporation, Heather Getty works with a cross-functional team of experts to develop products and solutions for treating diseases using minimally invasive surgical techniques.

Heather Getty '84, R&D Director, Boston Scientific, earned a BS in Chemical Engineering at Michigan Tech
Heather Getty, an R&D director at Boston Scientific, earned a BS in Chemical Engineering at Michigan Tech in 1984.

The scope of these medical devices includes catheters, stents, and other devices for patients with peripheral artery disease, or PAD, a common circulatory problem in which narrowed arteries reduce blood flow to the limbs. PAD affects more than a quarter of a billion people worldwide. Patients with PAD can suffer significant health consequences, including gangrene, amputation, and triple the risk of heart attack and stroke. Boston Scientific is a market leader in less-invasive treatments for PAD.

“As a medical products company, we rely heavily on the experience and wisdom of the physicians who utilize our products,” says Getty. “A big part of my job is understanding the treatment of PAD from the physician’s perspective. We gain knowledge about customer needs by meeting with physicians, observing clinical cases, and having physicians use our products during development.”

Product development can be extremely challenging. “Taking an idea, and moving it from concept to commercialization while navigating through technical challenges as well as financial and time constraints can be daunting,” says Getty. “A product properly commercialized can stay in the market for over 30 years. Despite that realization and pressure, at the same time, it is also our job to recommend cancellation of any idea that can’t meet expectations.”

A critical part of her job: ensuring compliance with regulations across the globe. “We work very closely with our quality engineering department but it is also critical that everyone contributes to the quality and compliance of our products,” she says.

“ A big part of my job is understanding the treatment of PAD from the physician’s perspective.”

– Heather Getty

Getty graduated from Michigan Tech with a bachelor’s degree in Chemical Engineering, and immediately began working at Honeywell. While on the job she completed an MBA from St. Thomas University. After six years in manufacturing she moved into Honeywell’s Material Test and Analysis (MTAC) group, and later began working on the development of demilitarization concepts, including exploring options to reclaim materials from ammunition dumps around the world. After 11 years, she leapt at the chance to join the R&D group at Schneider, now part of Boston Scientific, to follow her passion of improving lives.

Now, with more than 21 years total at Boston Scientific, Getty leads a team of 60 managers, engineers, and technicians who develop new products for the company. “It’s rewarding to be with a company that offers opportunities to improve patient lives but that also manages to do so with integrity and a respect for work-life balance,” Getty asserts.

“Launching a product and having it do well in the market is one of the most rewarding aspects of my work. I love that our products can help improve a person’s quality of life as well as make a physician’s job easier.”


Phosphorus eaters—Using bacteria to purify iron ore

eiseleresearchMany iron ore deposits around the world are extensive and easy to mine, but can’t be used because of their high phosphorus content. Phosphorus content in steel should generally be less than 0.02 percent. Any more and steel becomes brittle and difficult to work. 

Tim Eisele
Tim Eisele
Chemical Engineering

Beneficiation plant processing, which treats ore to make it more suitable for smelting, only works if the phosphorus mineral grains are bigger than a few micrometers in size. Often, phosphorus is so finely disseminated through iron ore that grinding and physically separating out the phosphorus minerals is impractical.

Tim Eisele is developing communities of live bacteria to inexpensively dissolve phosphorus from iron ore, allowing a low-phosphorus iron concentrate to be produced. “For finely dispersed phosphorus, until now, there really hasn’t been a technology for removing it,” he says.

Phosphorus is critical to all living organisms. Eisele’s experiments are designed so that organisms can survive only if they are carrying out phosphorus extraction. He uses phosphorus-free growth media.

“We’ve confirmed that when there is no iron ore added to the media, there is no available phosphorus and no bacterial growth.”

– Tim Eisele

Eisele is investigating two approaches, one using communities of aerobic organisms to specifically attack the phosphorus, and another using anaerobic organisms to chemically reduce and dissolve the iron while leaving the phosphorus behind. He obtained organisms from local sources—his own backyard, in fact, where natural conditions select for the types of organisms desired. Eisele originally got the idea for this approach as a result of the high iron content of his home well water, caused by naturally-occuring anaerobic iron-dissolving organisms.

On the right, anaerobic bacteria dissolve iron in the ferrous state. On the left, recovered electrolytic iron.
In the beaker on the right, anaerobic bacteria dissolve iron in the ferrous state. On the left, recovered electrolytic iron.

Eisele cultivates anaerobic and aerobic organisms in the laboratory to fully adapt them to the ore. “We use mixed cultures of organisms that we have found to be more effective than pure cultures of a single species of organism. Using microorganism communities will also be more practical to implement on an industrial scale, where protecting the process from contamination by outside organisms may be impossible.”


The healing power of seaweed—Shedding new light on alginate microgels

Bull Kelp, a brown seaweed used to produce alginates, can grow as much as 2 feet per day. Photo credit: Jackie Hindering, www.themarinedetective.com
Bull Kelp, a brown seaweed used to produce alginates, can grow as much as 2 feet per day. Photo credit: Jackie Hindering, www.themarinedetective.com

Using seaweed to treat wounds dates back to Roman times. Alginate extracted from kelp and other brown seaweeds are still used in wound dressings today for skin grafts, burns and other difficult wounds. Biocompatible and biomimetic, alginate forms a gel when exposed to a wound, keeping tissue moist to speed healing, and reduce pain and trauma during dressing changes.

Microgels, a biodegradable biomaterial formed from microscopic polymer filaments, has broad and powerful applications in cell analysis, cell culture, drug delivery, and materials engineering.

Putting the two together to form alginate microgels could enable scientists to make important new inroads in the field of tissue engineering. But when it comes to forming microgels, the gelation process of alginate literally gets in the way.

Chang Kyoung Choi Mechanical Engineering-Engineering Mechanics
Chang Kyoung Choi
Mechanical Engineering-Engineering Mechanics

Michigan Tech researcher Chang Kyoung Choi has found a way around the problem. He creates alginate microgels by photocrosslinking the two in situ to form a bond. He uses ultraviolet (UV) light to easily cure microdroplets into microgels, a process known as photopolymerization. Curing the alginate microgels using UV light takes just tens of seconds. The result: alginate microgels that shrink or swell depending on their surrounding ion concentration, temperature, pH, and other external stimuli.

Perhaps more importantly, Choi is able to control the rate that alginate microgels break down. “A tissue scaffold should degrade at a rate proportional to the formation of new tissue, but until now, uncontrolled degradation of alginate has really limited its usefulness,” Choi says.

“Working in microfluidic devices, we can start applying UV light after the microfluids become steady, and turn off the light if necessary to stop the reaction,” he explains. “This solves the chief problem associated with previous ionic methods of making alginate microgels. Until now, the alginate phase of flow would cure before steady state was achieved, resulting in alginate microgels that clogged the microchannel.”

“Until now, uncontrolled degradation of alginate has really limited its usefulness.”

– CK Choi

Choi’s photocrosslinking technique also simplifies current methods of forming nonspherical alginate microgels that are better for observing objects, like cells, encapsulated inside. “Our preliminary results suggest that such high intensity UV does not reduce cell viability,” notes Choi.

Choi and graduate student Shuo Wang use oxidized methacrylated alginate (OMA) developed by their collaborator, Eben Alsberg at Case Western Reserve University. The team fabricated the microfluidic channels for this research at the Center for Nanophase Materials Sciences at Oak Ridge National Laboratory.


Verification and validation—Predicting uncertainties early on

Shabakhti Research

Mahdi Shabakhti
Mahdi Shahbakhti
Mechanical Engineering–Engineering Mechanics

The verification and validation (V&V) process for a typical automotive vehicle and powertrain electronic control unit takes approximately two years, and costs several million dollars. V&V are essential stages in the design cycle of an industrial controller, there to remove any gap between the designed and implemented controller. Computer modeling has brought about improvements over the years, but the gap remains.

Michigan Tech researcher Mahdi Shahbakhti has made significant progress to remove that gap, using system models to easily verify controller design. His solution features an adaptive sliding mode controller (SMC) that helps the controller deal with imprecisions in the implementation of the system.

The research is funded by the National Science Foundation GOALI program, or Grant Opportunities for Academic Liaison with Industry. Shahbakhti’s team and fellow researchers from the University of California, Berkeley, and Toyota USA in Ann Arbor, Michigan are nearing the end of their three-year collaborative GOALI project.

“Analog-to-digital conversion (ADC) is one of the main sources of controller implementation imprecisions, mostly due to sampling and quantization,” says Shahbakhti. “Our approach mitigates ADC imprecisions by first identifying them in the early stages of the controller design cycle. We first developed a mechanism for real-time prediction of uncertainties due to ADC and then determined how those uncertainties propagated through the controller. Finally we incorporated those predicted uncertainties into the discrete sliding mode controller (DSMC) design.”

“Analog-to-digital conversion (ADC) is one of the main sources of controller implementation imprecisions, mostly due to sampling and quantization.”

– Mahdi Shahbakhti

Shahbakhti and his team tested an actual electronic control unit at Michigan Tech in a real time processor-in-the-loop setup. Their approach significantly improved controller robustness to ADC imprecisions when compared to a baseline sliding controller. In a case study controlling the engine speed and air-fuel ratio of a spark ignition engine, the DSMC design with predicted uncertainty provided a 93 percent improvement compared to a baseline sliding controller.

Toyota works closely with the research team to integrate GOALI project results into the design cycle for its automotive controllers. The company provided team members with an initial week of training on its V&V method of industrial controllers, and also participates with Shabakhti’s team in online biweekly meetings. “The concept of this project is fundamental and generic—it can be applied to any control system, but complex systems, such as those in automotive applications, will benefit most,” notes Shahbakhti.


What’s in the air? Understanding long-range transport of atmospheric arsenic

Coal-fired power plant on the Navajo Nation near Page, Arizona
Coal-fired power plant on the Navajo Nation near Page, Arizona

Once emitted into the atmosphere, many air pollutants are transported long distances, going through a series of chemical reactions before falling back to the Earth’s surface. This makes air pollution not just a local problem, but a regional and a global one.

Shiliang Wu
Shilliang Wu, Geological & Mining Engineering & Sciences, Civil & Environmental Engineering

“If you’d been living in London in December 1952, you’d probably remember what air pollution can do—in just a couple of weeks, a smog event killed thousands of people,” says Michigan Tech researcher Shilling Wu.
“Today, photos of air pollution in China and India flood the Internet,” he adds. “Air pollution remains a significant challenge for the sustainability of our society, with detrimental effects on humans, animals, crops, and the ecosystem as a whole.”

An assistant professor with a dual appointment in Geological and Mining Engineering and Sciences, and Civil and Environmental Engineering, Wu examines the impacts of human activities on air quality, along with the complicated interactions between air quality, climate, land use, and land cover. Using well-established global models, he investigates a wide variety of pollutants including ozone, nitrogen oxides, volatile organic compounds, aerosols, mercury, and arsenic.

Wu’s research team recently developed the first global model to simulate the sources, transport, and deposition of atmospheric arsenic including source-receptor relationships between various regions. They were motivated by a 2012 Consumer Reports magazine study, which tested more than 200 samples of rice products in the US and found that many of them, including some organic products and infant rice cereals, contained highly toxic arsenic at worrisome levels.

“Our results indicate that reducing anthropogenic
arsenic emissions in Asia and South America can significantly reduce
arsenic pollution not only locally, but globally.”

– Shilliang Wu

“Our model simulates arsenic concentrations in ambient air over many sites around the world,” says Wu. “We have shown that arsenic emissions from Asia and South America are the dominant sources of atmospheric arsenic in the Northern and Southern Hemispheres, respectively. Asian emissions are found to contribute nearly 40 percent of the total arsenic deposition over the Arctic and North America. Our results indicate that reducing anthropogenic arsenic emissions in Asia and South America can significantly reduce arsenic pollution not only locally, but globally.”

Wu’s model simulation is not confined to any region or time period. “We can go back to the past or forward to the future; we can look at any place on Earth. As a matter of fact, some of my colleagues have applied the same models to Mars,” he says, adding: “In any case, the atmosphere is our lab, and we are interested in everything in the air.”

 


Tayloria Adams—Taking Dielectrophoresis to the Next Level

Tayloria Adams
“I am the first black woman to receive a PhD in chemical engineering at Michigan Tech. I hope this will encourage others!” —Tayloria Adams ‘11 ‘14

Last year the National Science Foundation awarded Michigan Tech alumna Tayloria Adams a prestigious Postdoctoral Research Fellowship in Biology. Adams earned her Master’s and PhD in Chemical Engineering here at Michigan Tech, graduating with nine scholarships, fellowships and awards, three peer-reviewed journal publications, a book chapter, and a patent—No. WO2015051372-A1, to be exact. Her doctoral research examined the dielectric behavior of human mesenchymal stem cells, for the purpose of cell sorting in microfluidic devices.

How did you come to Michigan Tech? 

While on the hunt for a graduate school I was drawn to Michigan for two reasons: my mother lived in Detroit for a while before I was born, and affirmative action was started in the state. I applied to Michigan Tech and scheduled a visit. The environment was very welcoming, which got me hooked! Meeting Dr. Adrienne Minerick during the last year of my master’s degree was icing on the cake. My first interactions with her were in the classroom as I took her Advanced Reactive Systems course. I enjoyed her teaching style. She put a lot of effort into giving meaningful lectures and keeping students engaged. I looked into her research and I was very interested in dielectrophoresis, especially its use in studying red blood cells. The rest is history!

“I am passionate about three things: healthcare-related research, minority student success in STEM, and social justice. These areas are my calling.”

– Tayloria Adams

What was the most challenging aspect of your studies?

Research. There is a huge learning curve when entering a new research field. Learning how to design experiments effectively and accepting that there is no such thing as a perfect experiment are both great challenges. Something will always go wrong, but working through it to still collect the necessary data is what builds character and improves research skills.

What have you done since graduation?

I worked in the Michigan Tech Center for Diversity and Inclusion (CDI) for one year after graduation, as the outreach coordinator. That year gave me the opportunity to grow as a mentor and advocate for underrepresented minority students. I am now conducting postdoctoral research in the Department of Neurology at the University of California, Irvine, in Lisa Flanagan’s lab, studying neural stem and progenitor cells (NSPCs) and their therapeutic potential. NSPCs are desirable because they form the three cell types of the central nervous system, astrocytes, neurons, and oligodendrocytes. However, one challenge is that NSPCs are grown as heterogeneous mixtures and we have little information regarding, which cells are best for neural repair. I’m using dielectrophoresis, an electrokinetic separation technique, as a method to target and enrich specific cells NSPCs. My goal is to effectively sort and characterize them.

You worked hard to educate and engage diverse people about the challenges facing underrepresented students at Michigan Tech. How would you describe the difference you made?

Working at Michigan Tech’s CDI provided me an outlet to engage in important conversations and be a part of the work. CDI was also very supportive of my research. I was able to practice research presentations in the center, use the space as a writing sanctuary when I was completing my dissertation, and almost all of the staff was present at my dissertation defense, which was immensely important to me. One of the best parts of my graduate education is that my daughter Aiyanna experienced college life at the undergraduate and graduate level before reaching college age. She’s learned about important campus resources such as CDI, and I am confident that this exposure has played a part in preparing her for college. As a parent this is something I am very proud of and would consider a success. My greatest frustration was the decline I saw in the number of African American students enrolled at Michigan Tech during my time there. A second frustration is the representation in faculty members. Michigan Tech is a great institution but these are areas where growth would make a huge impact on the community. I would say the difference I’ve made so far is showing what’s possible; but there is much more work to be done.

To learn more about Dr. Adams’s research, visit tayloriaadams.com.


Accelerated healing—Understanding physical and chemical cues in tissue repair

Rajachar Research

Rupak Rajachar
Rupak Rajachar
Biomedical Engineering

Made of fibrous connective tissue, tendons attach muscles to bones in the body, transferring force when muscles contract. But tendons are especially prone to tearing. Achilles tendinitis, one of the most common and painful sports injuries, can take months to heal, and injury often recurs.

Rupak Rajachar is developing a minimally-invasive, injectable hydrogel that can greatly reduce the time it takes for tendon fibers to heal, and heal well.

“To cells in the body, a wound must seem as if a bomb has gone off,” says Rajachar. His novel hydrogel formulation allows tendon tissue to recover organization by restoring the initial cues cells need in order to function. “No wound can go from injured to healed overnight,” he adds. “There is a process.”

Rajachar and his research team seek to better understand that process, looking at both normal and injured tissue to study cell behavior, both in vitro and in vivo with mouse models. The hydrogel they have created combines the synthetic—polyethylene glycol (PEG), and the natural—fibrinogen.

“Cells recognize and like to attach to fibrinogen,” Rajachar explains. “It’s part of the natural wound healing process. It breaks down into products known to calm inflammation in a wound, as well as products that are known to promote new vessel formation. When it comes to healing, routine is better; the familiar is better.”

“To cells in the body, a wound must seem as if a bomb has gone off.”

– Rupak Rajachar

The team’s base hydrogel has the capacity to be a therapeutic carrier, too. One formulation delivers low levels of nitric oxide (NO) to cells, a substance that improves wound healing, particularly in tendons. Rajachar combines NO and other active molecules and cells with the hydrogel, testing numerous formulations. “We add them, then image the gel to see if cells are thriving. The process takes place at room temperature, mixed on a lab bench.”

Hydrogel
SEM image of the fibrinogen-based hydrogel

Two commonly prescribed, simple therapies—range of motion exercises that provide mechanical stimulation, and local application of cold/heat—activate NO in the hydrogel, boosting its effectiveness.

“Even a single injection of the PEG-fibrinogen-NO hydrogel could accelerate healing in tendon fibers,” says Rajachar. “ Tendon tissues have a simple healing process that’s easier to access with biomaterials,” he adds. Healing skin, bone, heart, and neural tissue is far more complex. Next up: Rajachar plans to test variations of his hydrogel on skin wounds.


Michigan Tech Celebrates National Engineers Week

HELP US CELEBRATE EWEEK 2017! 

     National Engineers Week celebrates the positive contributions engineers make to society and is a catalyst for outreach across the country to kids and adults alike. For the past 60 years, National Engineers Week has been celebrated each February around the time of George Washington’s birthday, February 22, because Washington is considered by many to be the first US engineer.

     Tech’s events during Engineers Week, (Feb. 18-25), are again sponsored by Tau Beta Pi, the local chapter of the Engineering Honor Society.

     National Engineers Week, also known as Eweek, begins on a sweet note at Michigan Tech with an ice cream social from 5 to 6 p.m. Saturday (Feb. 18) in the Wadsworth Dining Hall.

     Things get rolling at noon Monday, (Feb. 20) with the pep band in front of the Husky statue. The iconic statue will be dressed in a lab coat and bow tie all week. The Green Campus Enterprise will have a rocket stove demo from 12:45 to 3 p.m. outside of Fisher Hall. The Mind Trekkers will be in the Dow Atrium from 1 to 3 p.m. with hands-on demonstrations. From 6 to 7 p.m. the Blue Marble Security enterprise will present a heart rate circuit board.

     Questions? Contact Morgan Herzog, Tau Beta Pi public relations officer, and/or Julia Zayan, president.

 

2017 Engineers Week_2
National Engineers Week 2017

 

Upcoming E-week events at Michigan Tech:

SATURDAY, FEBRUARY 18

5:00 PM – 6:00 PM
Tau Beta Pi
Ice cream social
Wadsworth Dining Hall

MONDAY, FEBRUARY 20

12:00 PM – 12:15 PM
Pep Band
Husky Statue

12:45 PM – 3:00 PM
Green Campus Enterprise
Rocket stove demo
outside Fisher Hall

1:00 PM – 3:00 PM
Mind Trekkers
Dow Atrium

6:00 PM – 7:00 PM
Blue Marble Security
Heart rate circuit board
EERC 722

TUESDAY, FEBRUARY 21

11:00 AM – 1:00 PM
Railroad Engineering & Activities Club
Fisher Lobby

1:00 PM – 3:00 PM
Advanced Metalworks Enterprise
Foundry demo
Husky Statue

THURSDAY, FEBRUARY 23

12:00 PM – 3:00 PM
AIChE, Chem E Car stop reaction demo
Fisher Lobby

5:00 PM – 6:00 PM
American Society of Engineering Management
Company panel
Chem Sci 101

7:00 PM – 8:00 PM
Engineers Without Borders
Presentation & meeting
Fisher 328

FRIDAY, FEBRUARY 24

11:00 AM – 1:00 PM
Formula SAE
Chassis demo
MEEM Lobby

11:00 AM – 3:00 PM
Engineering Fundamentals,
E-week cake, stop by for a piece!
Dillman 112

12:45 PM – 3:00 PM
Green Campus Enterprise,
Winterization demo
Dow A
trium

8:30 PM – 11:00 PM
Film Board, Apollo 13
Fisher 135

 


Michigan Tech Wins Awards for Diversity Efforts in Engineering Education

wepan-logoMichigan Tech’s efforts to increase the numbers and diversity of women in engineering have been recognized by Women in Engineering ProActive Network (WEPAN), a national network of women engineers, engineering educators, universities, corporations and non-profits who are working together to develop a diverse and innovative engineering workforce.

Michigan Tech’s Department of Mechanical Engineering-Engineering Mechanics received the WEPAN President’s Award for what the organization described as “outstanding accomplishments” in the National Science Foundation-funded engineering diversity initiative, TECAID (Transforming Engineering Culture to Advance Inclusion and Diversity).

In addition, WEPAN recognized the American Society for Engineering Education (ASEE), which won the WEPAN Strategic Partner Award. ASEE was honored for its “Year of Action on Diversity,” a project conceived and designed by the ASEE Diversity Committee, led by Adrienne Minerick and Teri Reed. Minerick is associate dean for research and innovation in the College of Engineering and a professor of chemical engineering at Michigan Tech. Reed is assistant vice president for research at the University of Cincinnati.

“These awards are a testament to the dedication, heart and trailblazing work our faculty and staff are doing to increase knowledge and awareness of the value of diversity and to cultivate environments that are inclusive of all individuals,” said Minerick. “These activities expand and strengthen the perspectives and education of all of our students such that they can engineer to present and future world demands and lead in a complex and changing society.”

President Glenn Mroz called the awards “a real honor for Mechanical Engineering and the entire university. We’ve been clear that it’s the responsibility of everyone at Michigan Tech to serve all students, regardless of gender or race, to have an impact on our world. This national recognition serves as evidence that people are taking that seriously, and it’s being noticed at the highest levels of our professions. The leadership that this team of people has shown is truly inspiring.”