Category: Chemical Engineering

2018 Fraternity and Sorority Life Awards Recognize Faculty and Staff

Cameron Hadden
Cameron Hadden

More than 300 Michigan Tech students gathered for the 12th Annual Fraternity and Sorority Life Awards Ceremony Sunday in the Memorial Union Ballroom.

In addition to the many student awards presented, Order of Omega, the Greek Life Honor Society that coordinates the awards, took the time to recognize some exceptional faculty and staff members. There are more than 560 students in fraternities and sororities at Michigan Tech, and Order of Omega wanted to emphasize that these awards were coming directly from the students.

When writing a nomination for the Outstanding Faculty Award, students were asked to consider faculty who:

  • Are dedicated to supporting students and helping them succeed academically
  • Demonstrate a passion for teaching and/or research
  • Utilize innovative teaching methods and promote academic integrity among students

When writing a nomination for the Outstanding Staff Award, students were asked to consider staff who:

  • Are dedicated to supporting students and helping them succeed both inside and outside the classroom
  • Demonstrate a passion for working with students
  • Promote and inspire the Michigan Tech values of Community, Scholarship, Possibilities, Accountability and Tenacity.

When writing a nomination for the Outstanding Advisor Award, students were asked to consider staff/faculty who:

  • Are dedicated to promoting the Michigan Tech Greek community values and chapter values
  • Are dedicated to developing leaders within the chapter; are dedicated to promoting a values-based organization
  • Promotes and role models ethical leadership and promotes academic success among members and the chapter as a whole.

The following faculty and staff members were nominated by members of the Greek community and were recognized at the 2018 Fraternity and Sorority Life Awards Ceremony

Faculty—Sean Clancey (ChE), Cameron Hadden (MEEM). Staff—Joseph Cooper (Student Financial Services), Scott Wendt (ChE). Advisors—Laura Bunzendahl-Bulleit (Dean of Students Office), Bobbie Dalquist (Financial Information Systems), James DeClerck (MEEM), Alyssa Fredin (Financial Aid).

Scott Wendt
Scott Wendt

These nominations were written by individual students and were supported by an entire fraternity or sorority. In the end, the Outstanding Faculty Award was presented to Cameron Hadden and the Outstanding Staff Award went to Scott Wendt. Advisor of the Year was awarded to Bobbie Dalquist.

Congratulations to all of these faculty and staff members who were nominated and thank you for inspiring and motivating students.

The full list of award winners and nominees can be found on the student activities website.

By Student Activities.

Dean’s Teaching Showcase: Tony Rogers

Tony Rogers
Tony Rogers

Our second-to-last Deans’ Teaching Showcase member for this spring is Tony Rogers, associate professor in Chemical Engineering and co-advisor of the Consumer Product Manufacturing Enterprise.

He was nominated by Chair Pradeep Agrawal and selected by College of Engineering Dean Wayne Pennington for his long and excellent history of teaching in three “real-world” aspects of the chemical engineering undergraduate curriculum: Enterprise, the Unit Operations Lab and the Capstone Design course.

Rogers has taught the capstone plant design course (Process Analysis & Design) for senior-year students since 1993. He draws on his industrial design experience at Research Triangle Institute (RTI, Durham, North Carolina) working under contract for industrial clients.

Agrawal comments on Rogers’ unique focus within this course, saying “While safety and environmental constraints are critical to chemical process design, all project investments are based on economic considerations. Professor Rogers sees to it that chemical engineering students graduate with this important perspective and speak the language of cash-flow analyses and profitability. Economics is the deciding factor when choosing between competing technical options.”

Rogers has also been advising Consumer Product Manufacturing (CPM) since the Enterprise program first began in 2000. His goal in this role is to give students further industry insight through internship-like experience with corporate sponsors during the regular academic semester. Rogers observes, “It is a fun challenge in all of my courses to keep the students engaged in an era of advancing computer technology and entertainment. The trick is to realize that there are no short-cuts for the hard work of mastering engineering concepts. I try to contribute to my department’s goal of turning out industry-ready graduates who are ready to work.”

Pennington himself echoes this same practical, balanced focus in summarizing his selection, but emphasizes Rogers’ work in a third area—the Unit Operations lab. In Pennington’s words, “Every visitor to the Chemical Engineering Department comes away impressed with the Unit Operations lab and the hands-on training that our students receive, in addition to the usual formal education in the discipline. This relationship to the ‘real world’ of industrial (or research) chemical engineering practice has been largely driven by the initiatives and perseverance of Dr. Tony Rogers over the years. His combination of practical considerations, including safety, environment and economics, with the goal of production on a schedule and within specifications, is unique among undergraduate educational practices. Tony helps make Michigan Tech the respected institution that it is.”

Rogers’ long and successful history will be recognized at an end-of-term luncheon with other showcase members. He is now eligible for one of three new teaching awards to be given by the William G. Jackson Center for Teaching and Learning this summer, recognizing introductory or large-class teaching, innovative or outside-the-classroom teaching methods, or work in curriculum and assessment.

2018 SURF Award Recipients in Engineering

SURF graphicThe Summer Undergraduate Research Fellowship (SURF) program will fund 25 students from across the University with funds from the office of the Pavlis Honors College and the Vice President for Research.

Previous SURF award recipients have included Goldwater Scholarship and NSF Graduate Research Fellowship recipients. Since 2002, SURF students have co-authored 78 peer reviewed publications.

This year’s recipients, project titles, and advisors are listed online.

Honorable Mention went to Kiaya Caspers, Travis Durgan, Elisha Earley and Ashley Lingle.

By Will Cantrell.

Biomedical Engineering Majors

Stephanie Jewell
Biomedical Engineering / Mechanical
William Cook / KIP
Controlled Breathing and Automatic Cardiovascular Control

Kaylee Meyers
Rupak Rajachar / Biomedical Engineering
Evaluating the Influence of Matrix Stiffness on the Activation of MMPs in Tendinopathy

Alexander Oliver
Jeremy Goldman / Biomedical Engineering
Characterizing the Inflammatory Response to Zinc Stent Materials

Brennan Vogl
Smitha Rao / Biomedical Engineering
Monitoring migration of cancer cells using a microfluidic device

Chemical Engineering Major

Satyen Dhamankar
Chemical Engineering / Mathematics
Benjamin Ong / Mathematical Sciences
Accelerated Boundary Integral Methods

Civil Engineering Major

Timothy Stone
Don Lafreniere / Social Sciences
Exploring the Social Determinants of health and Disease Outbreak Patterns in Children in Early Twentieth Century Calumet

Geological Engineering Major

Katelyn Kring
Snehamoy Chatterjee / GMES
Spatial Interpolation of Rock Quality Designation to Design Underground Support System for Eagle Mine

Mechanical Engineering Majors

Dennis J Byard
Joshua Pearce / Materials Science
Increasing Maker Manufacturing through 3D Printing with Reclaimed Plastic & Direct Drive Pellet Extrusion

Aaron Dean
Pasi Lautala / Civil and Environmental Engineering
Using Naturalistic Driving Data and Machine Learning to Predict Accident Risk at Highway-Rail Grade Crossings

Eric Houck
Mo Rastgaar / Mechanical Engineering
Magneto-Rheological Fluids Create a Natural Walking Gait in Ankle-Foot Prostheses

2018-19 Michigan Space Grant Consortium Awards

Michigan Space Grant Consortium logo

Michigan Tech faculty, staff and students received awards tallying $73,675 in funding through the Michigan Space Grant Consortium (MSGC), sponsored by NASA for the 2018-19 funding cycle.

Engineering undergraduates receiving $2,500 research fellowships:

  • Alex Oliver (BME): “Evaluating Biodegradeable Zinc Stent Materials,” with Jeremy Goldman
  • Katie Bristol (Applied Geophysics): “Investigation of the Solar Nebula’s Magnetic Field Strength from the Allende Meteorite Chondrules,” with Aleksey Smirnov

Engineering graduate Students receiving $5,000 research fellowships:

  • Erica Coscarelli (CEE): “Reaction Mechanisms for the Degradation of Trace Organic Contaminants through Advanced Oxidation Processes,” with Daisuke Minakata
  • Sanna Mairet (GME): “Investigating the Relationship between Volcanic Sulfur Dioxide Concentrations and Human Population and Land Use Changes through Geographic Visualization,” with Simon Carn
  • Brandi Petryk (GME): “The Origin of an Archean Batholith – Michigan’s Upper Peninsula,” with Chad Deering
  • Emily Shaw (CEE): “Mapping the Co-Distribution of Mercury and Polychlorinated Biphenyls (PCBs) in Michigan’s Upper Peninsula Lakes,” with Noel Urban

Engineering faculty and staff members receiving $5,000 or more for pre-college, public outreach, teacher training, faculty seed and/or augmentation programs include:

  • Joan Chadde (CEE): “STEM Career Explorations for Detroit High School Students” (includes augmentation) Pre-college program
  • Brian Doughty (CEE): “Technology and Outdoor Learning” Pre-college program
  • Adrienne Minerick (COE): “Microfluidic Dynamic Cell Concentration Tuner for Medical Diagnostics” Faculty Seed Program

NASA implemented the National Space Grant College and Fellowship Program in 1989 to provide funding for research, education and public outreach in space-related science and technology. The program has 52 university-based consortia in the United States and Puerto Rico.

As an affiliate of the Michigan Consortium, Michigan Tech has been an active participant in MSGC for approximately 20 years. MSGC funding is administered through MTU’s Pavlis Honors College. For more information, contact Paige Hackney in the Pavlis Honors College, call 7-4371, or visit the MSGC website.

Original story by Pavlis Honors College.

Michigan Tech Researchers Honored for their Contributions in 2017

Researchers in the lab

At the Research Development Day held Jan. 11, 2018, the following individuals were recognized for their research contributions in calendar year 2017.

College of Engineering

Top research expenditures: Jeff Naber (ME-EM), Greg Odegard (ME-EM), Paul Sanders (MSE)

Related:

Michigan Tech Automotive Energy Efficiency Research Receives Federal Award of $2.8 Million from US Department of Energy

NASA Taps Tech Professor to Lead $15 Million Space Technology Research Institute

Chemical Engineering

Lei Pan received his first external funding as a principal investigator at Michigan Tech.

Civil and Environmental Engineering

Hui Yao (formerly CEE) received his first external funding as a principal investigator at Michigan Tech.

David Watkins received an award of more than $1 million.

Related:

Household Sustainability: Consuming Food, Energy, Water

Electrical and Computer Engineering

Jeremy Bos, Lucia Gauchia, and Tony Pinar each received their first external funding as a principal investigator at Michigan Tech.

Geological and Mining Engineering and Sciences

Snehamoy Chatterjee, James DeGraff, Mark Kulie, and Matthew Portfleet each received their first external funding as a principal investigator at Michigan Tech.

Materials Science and Engineering

2017 Michigan Tech Research Award: Yun Hang Hu

Bhakta Rath Research Award: Yun Hang Hu and Wei Wei

Joe Licavoli received his first external funding as a principal investigator at Michigan Tech.

Related:

Yun Hang Hu Wins Both Research Award and Bhakta Rath Award

Mechanical Engineering-Engineering Mechanics

Parisa Abadi, Chunpei Cai, Hassan Masoud, and Ye Sun each received their first external funding as a principal investigator at Michigan Tech.

Jeff Naber and Greg Odegard each received awards of more than $1 million.

Tech Students Learn Home Sustainability

From left, Cooper Mineheart, Hannah McKinnon, Mina Kukuk, Rose Turner and Thomas Richter.
From left, Cooper Mineheart, Hannah McKinnon, Mina Kukuk, Rose Turner and Thomas Richter.

HOUGHTON — For five Michigan Technological University students this year, their homework includes their actual home.

This is the first year for Tech’s Sustainability Demonstration Home, where the students are tracking their energy and waste, as well as carrying out projects on how to reduce energy use.

“This semester, we’re kind of working side by side,” said Rose Turner, a fourth-year environmental engineering student and the only of the house’s residents on the Enterprise team.

Cooper Mineheart, a second-year mechanical engineering student, has learned what he can and can’t recycle.

Thomas Richter, a fourth-year mechanical engineering student, said his consciousness of how small changes add up will stick with him after he leaves the house.

Read more at the Mining Gazette, by Garrett Neese.

Related:

Ho Ho Home (Sustainably) for the Holidays

EP&SE Journal Article on Bio-Jet Fuel Tops Altmetrics Charts

Camelina sativa
Camelina sativa

According to AIChE’s online news site, ChEnected.com, “Camelina-Derived Jet Fuel and Diesel: Sustainable Advanced Biofuels,” by Chemical Engineering Professor David R. Shonnard, director of the Michigan Tech Sustainable Futures Institute, Larry Williams of Targeted Growth, Inc., and Tom N. Kalnes of UOP LLC, a Honeywell Company, has an outstanding Altmetric Attention Score of 128. That places it in the top 5% of all research outputs scored by Altmetric.

Professor David Shonnard, Chemical Engineering, Michigan Technological University
Professor David Shonnard, Chemical Engineering, Michigan Technological University

Even though published in the AIChE journal Environmental Progress & Sustainable Energy (EP&SE) in 2010, the article is currently trending online. It has been mentioned this year by 14 news outlets, including Scientific AmericanSmithsonian, and Popular Mechanics. Altmetrics track the use and discussion of research from online discussions and forums, including social media, research blogs, public policy documents, news articles, and more.

In the article, Shonnard, Williams, and Kalnes discuss how bio-jet fuels derived from oil-rich feedstocks, such as camelina and algae, have been successfully tested in proof-of-concept flights. The American Society for Testing and Materials (ASTM) has approved a 50:50 blend of petroleum-based jet fuel and hydroprocessed renewable jet fuel for commercial and military flights.

Honeywell UPO LLC and Targeted Growth, Inc. funded the research on bio-jet fuel derived from camelina seeds developed by a Bozeman, Montana company, Sustainable Oil.

“Camelina, an oil seed crop, can be grown in more arid climates compared to many other plants that oil is derived from,” notes Shonnard. “Targeted Growth Inc. has identified 5 million acres across the country where camelina would be suitable as a rotation energy crop that would not interrupt food production. This could produce approximately 800 million gallons of camelina oil for conversion to renewable diesel or jet.”

In 2010, Shonnard completed a life cycle analysis (LCA) comparing camelina jet fuel with petroleum jet fuel, factoring in the greenhouse gas emissions from fertilizing production and use, growing, harvesting, oil recovery and conversion to jet fuel, and use of the renewable jet in applications. “Conventional camelina, that is camelina grown with current seed stock, can cut greenhouse gas emissions by 60 to 70 percent, with no loss of performance for the fuel.  A newer strain of camelina, one that needs less fertilizer and yield more pounds per acre,could cut greenhouse gas emissions by up to 84 percent compared with jet fuel from petroleum, says Shonnard. “Next generation biofuels are true hydrocarbons and on a molecular level indistinguishable from fossil fuels,” he notes.

“With expected future gains in yields/acre, camelina oil production and hydroprocessing has the potential to provide the United States an estimated 800 million gallons per year of high-quality, climate-friendly, renewable jet fuel,” the study concludes. Read the Environmental Progress & Sustainable Energy (EP&SE) article for a limited time for free.

Engineering Faculty on Managing Multigenerational Teams

Scientific teams are more diverse than ever and are often populated by people of varying ages. Understanding how to modify management styles according to the needs of different generations ensures enhanced group productivity, creativity, and collaboration.

Joshua Pearce
Joshua Pearce

Joshua Pearce

At 41, Joshua Pearce, professor of materials science and engineering at Michigan Technological University in Houghton, is a member of Generation X. He leads the Michigan Tech Open Sustainability Technology Lab at the university, which includes a multigenerational team of visiting industrial scholars (whose children are older than Pearce), Baby Boomer research staff, and Millennial or Generation Y interns. Over the years, Pearce has gained insight into how to facilitate a more productive and creative ecosystem for everyone—and it starts with acknowledging the value that each generation brings to the team.

Adrienne Minerick
Adrienne Minerick

Adrienne Minerick

Adrienne R. Minerick, 41, associate dean for research and innovation in the College of Engineering and assistant to the provost for faculty development at Michigan Tech, found that to coordinate a team with professors who are older than her—sometimes by over 30 years—she has to adapt and ensure effective communication.

Read more at Science, by Alaina G. Levine.

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 another rewarding aspect 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.

Michigan Tech researcher 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.”