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New Engineering Faculty Fall 2020

Published January 13, 2020

News

Chemical Engineering

Kurt Rickard, PhD

Kurt Rickard joins the faculty of Chemical Engineering as an instructor. Rickard earned a PhD from Purdue and a bachelor’s degree from Michigan Tech, both in chemical engineering.

He has experience as a control engineer with a strong theoretical background. He has experience with LyondellBasell Industries, ARCO Chemical Company, Quantum Chemical Company and Shell Chemical Company.

Civil and Environmental Engineering

Jeffrey Hollingsworth

Jeffrey Hollingsworth joins the faculty of the Department of Civil and Environmental Engineering as a professor of practice. He holds a Master’s of Science in civil engineering (GIS specialty) and a post-bac certificate in GIS from the University of Colorado Denver. In addition, he earned a BS in surveying from Ferris State University.

Prior to coming to Michigan Tech, Hollingsworth was an associate professor at the University of Alaska Anchorage and an instructor at the Pennsylvania College of Technology.

Xinyu Ye, PhD

Xinu Ye Joins the faculty of Civil and Environmental Engineering as a research assistant professor. She earned a PhD in environmental engineering from Michigan Tech, a master’s in civil engineering from Michigan State and a bachelor of resource environment and urban and rural planning from Harbin Normal University in China.

She is a recipient of a Dean’s Award for Outstanding Scholarship at Michigan Tech and has received graduate student awards at Michigan State. As an undergraduate, she was named an Excellent Student Leader at Harbin Normal.

Electrical and Computer Engineering

Trever Hassell

Trever Hassell joins the faculty of the Department of Electrical and Computer Engineering as a senior lecturer. His areas of interest include power electronics systems, Electric Drives and Machinery, Hybrid and Electric Vehicle Systems, and Microgrids.

Hassell earned both a bachelor’s and master’s in electrical engineering from Michigan Tech. For the past five years, he has been serving as an academic advisor/instructor in the ECE department at Michigan Tech. He is a registered professional engineer with experience in industry including time with ABB Inc., Cummins, Inc., Entergy/Vermont Yankee and Reinker Controls Inc.

Nagesh Hatti

Nagesh Hatti joined the faculty of Electrical and Computer Engineering as a professor of practice. He holds an MBA from Texas Christian University, a master’s in software engineering from Birla Institute of Technology and Science in India and a BE in telecommunication engineering from Bangalore University, India

Prior to coming to Michigan Tech, Hatti served as technical program manager for Schneider in Green Bay, manager of supply chain operations support from American Airlines in Fort Worth, Texas and various other positions in industry.

Geological Mining and Engineering Sciences

Luke Bowman, PhD

Luke Bowman has joined the faculty in Geological Mining and Engineering Sciences as a research assistant professor. Bowman has both a PhD and a master’s in geology from Michigan Tech and a bachelor’s degree from Hanover College.

Prior to joining the faculty, he was a curriculum development specialist with Mi-STAR and an adjunct assistant professor in GMES at Michigan Tech.

Xin Xi, PhD

Xin XI has joined the faculty of the Department of Geological Mining and Engineering Sciences as an assistant professor. Xi earned a PhD in atmospheric sciences from the Georgia Institute of Technology and a B Sc in Geoinformatics from Beijing Normal University, China.

Prior to his current position, Xi served as a research assistant professor at Michigan Tech. From 2016 to 2018 he was a research associate at the NOAA Center for Satellite Applications and Research (Maryland).

Mechanical Engineering – Engineering Mechanics

Jung Yun Bae

Jung Yun Bae joins the faculty of Mechanical Engineering – Engineering Mechanics and the College of Computing as an assistant professor. She earned a PhD from Texas A&M, and master’s and bachelor’s degrees in mechanical engineering from Hongik University in Seoul, Korea.

Prior to this appointment, she was a research professor in the Intelligent Systems and Robotics Laboratory at Korea University in Seoul. Her research interests include; robotics, multi-robot systems, coordination of heterogeneous robot systems and unmanned vehicles.

Susanta Ghosh, PhD

Susanta Ghosh has joined the Michigan Tech Faculty as an assistant professor in the Department of Mechanical Engineering – Engineering Mechanics and as a faculty member of the Center for Data Sciences at the Institute of Computing and Cybersystems (ICC).

He earned a PhD and MSc in civil engineering from the Indian Institute of Science in Bangalore and a BSE in civil engineering from the Indian Institute of Engineering Science and Technology in Shibpur, India.

For the past three years, he has served as a research assistant professor and instructor in ME-EM. Prior to coming to Michigan Tech in 2016, Ghosh was a visiting research investigator at the University of Michigan and a research collaborator at Duke.

Paul van Susante, PhD

Paul van Susante, who had been serving as a senior lecturer in the Department of Mechanical Engineering – Engineering Mechanics, started the fall semester as an assistant professor within that department.

He earned both a PhD and a master’s in engineering systems from the Colorado School of Mines. He also holds BS and MS degrees in civil engineering with an emphasis on building engineering from the Delft University of Technology in the Netherlands.

His research interests include advances in engineering education, engineering design process, extreme environment technologies and planetary science and exploration, among others.

Vijaya Sriram Malladi, PhD

Vijaya V.N. Sriram Malladi has joined the faculty of the Department of Mechanical Engineering – Engineering Mechanics as an assistant professor. He holds MS and PhD degrees from Virginia Polytechnic Institute and State University and a BTech from the Indian Institute of Technology.

Prior to coming to Michigan Tech, Malladi was a research scientist at Vibrations, Adaptive Structures and Testing (VAST) lab at Virginia Tech. Prior to that, he served as chief research scientist (CEO) of GAiTE LLC.

Myoungkuk Park, PhD

Myoungkuk Park joins the faculty of the Department of Mechanical Engineering – Engineering Mechanics as a research assistant professor. He earned a PhD from Texas A&M, MS from Korea University and BS from Kyungkhee University, each in mechanical engineering.

Prior to coming to Michigan Tech, Park was a principal engineer/senior engineer with Samsung Electronics in Asan, Korea and a research assistant at Texas A&M.

His research interests include multi-robot system control, control of large-scale stochastic process and design of automated material handling.

Yongchao Yang, PhD

Yongchao Yang has joined Michigan Tech’s faculty in the Department of Mechanical Engineering – Engineering Mechanics as an assistant professor. Yang holds a PhD in structural engineering from Rice University and a B.E. in structural engineering from Harbin Institute of Technology, China.

Before coming to Michigan Tech he was a technical staff member at Argonne National Laboratory and a postdoctoral fellow at Los Alamos National Laboratory.

Engineering Staff Recognized for 2019 Making a Difference Awards

Published December 5, 2019

By Sue Hill

News

A total of 48 nominations have been submitted for the 2019 Making a Difference Awards. Everyone is invited to a reception honoring the nominees. The reception is scheduled for 2:00pm to 3:30 pm, Wednesday, Jan. 8, 2019 in the Memorial Union Ballroom. The recipients for each category will be announced at the reception.

In the College of Engineering, the following staff have been nominated:

Above and Beyond

Carol Asiala – Geological and Mining Engineering and Sciences

Behind the Scenes

Taana Blom – Chemical Engineering
Cindy Wadaga – Mechanical Engineering-Engineering Mechanics

Legacy Award

Owen Mills – Materials Science and Engineering
Alexis Snell – Chemical Engineering

Rookie Award

Rachel Griffin – Materials Science and Engineering
Rachel Store – Mechanical Engineering-Engineering Mechanics
Laura Wiinikka – Chemical Engineering

Serving Others

Pam Hannon – Civil and Environmental Engineering
Katie Torrey – Chemical Engineering

Unsung Hero

Brian Eggart – Mechanical Engineering-Engineering Mechanics
Paul Fraley – Materials Science and Engineering
Shelle Sandell – Civil and Environmental Engineering
Mark Sloat – Electrical and Computer Engineering
Stefan Wisniewski – Chemical Engineering

Seismic Reflections: Siting the Gordie Howe Bridge

Published October 28, 2019

By Kim Geiger

The Gordie Howe International Bridge connecting Windsor, Ontario, and Detroit, Michigan is currently under construction and expected to be complete in 2024 at a cost of $5.7 billion. The bridge is named in recognition of the legendary hockey player, a Canadian who led the Detroit Red Wings to four Stanley Cup victories.

The construction of any large infrastructure project requires a strong foundation, especially one with the longest main span of any cable-stayed bridge in North America—namely, the Gordie Howe International Bridge over the Detroit River. More than a decade before ground was broken, careful siting of the bridge began to take place. By 2006 the list of possible crossings had been narrowed down to just two options.

Historical records from the early 1900s indicated that solution mining for salt had taken place on both sides of the river close to where the bridge was to be built. On the Michigan side, collapsed salt cavities caused sink holes located on nearby Grosse Isle. It was imperative that any salt cavities in the bridge construction area be found and avoided.

Seismologists Roger Turpening and Carol Asiala at Michigan Technological University were tasked by American and Canadian bridge contractors to select the best seismic method for searching for any cavities in the two proposed crossings—referred to at the time as “Crossing B” and “Crossing C”—and to interpret all resulting seismic images.

“Given the task to image a small target deep in the Earth, a seismologist will quickly ask two important questions: How small is ‘small?’ and How deep is ‘deep’? That’s because these two parameters conflict in seismic imaging,“ Turpening says.

“Seismic waves—vibrations of the Earth—are attenuated severely as they propagate through the Earth,” he explains. “Imaging small targets requires the use of high-frequency, seismic energy. When seismic sources and receivers are confined to the Earth’s surface, which is the usual case, waves must propagate downward through the Earth, reflect off of the target, and return to the surface. Soil, sand, and gravel in the surface layer overwhelmingly cause the greatest harm to image resolution, and the ray paths must pass through this zone twice.”

Turpening was one of the early developers of a technique called vertical seismic profiling, or VSP. “Seismic receivers are placed inside a vertical hole near the target. With the seismic source placed on the surface some distance from the hole, it’s possible to explore a region around the hole with ray paths that need to pass through the surface layer only once,” he says. “If the target is very important, we can drill a second hole and place the seismic source in it. Now we have even higher resolution because all of the ray paths are in the rock formations with low attenuation.”

The downside? “We can only make images of the region between the two holes. But if the target is extremely important in a limited area, we can use many boreholes and many images in the search. Given enough boreholes, a block of earth can be imaged with cross-well seismic reflection techniques.

A cross-well, seismic reflection image between test boreholes. The cavity is sharply seen because the shale stringers in the B-Salt (at the bottom of the image) are abruptly terminated. The cavity is approximately 375 ft. wide.

To site the Gordon Howie bridge, Turpening and Asiala chose a frequency band of 100Hz to 2 KHz—much higher than could be used with surface sources and surface receivers—for surveys on both sides of the river. This yielded high resolution seismic images, crucial for detecting cavities—and indeed they found one—on the Canadian side.

“The high-resolution imaging made it easy for us to spot missing shale stringers in the B-Salt layer in that image,” says Turpening. “This made the final selection of the bridge location simple. We found the cavity between boreholes X11-3 and X11-4, thus forcing the Canadians to chose Crossing B. Obviously, the Michigan group had to, also, choose Crossing B.”

On the US side of the river geologist Jimmie Diehl, Michigan Tech professor emeritus, provided corroborating borehole gravity data.

Michigan Tech Accepted for Membership in UCAR

Published October 10, 2019

By Sue Hill

News

Michigan Tech has been approved for membership in the University Corporation for Atmospheric Research (UCAR). At its meeting at its headquarters in Boulder, Colorado Tuesday (Oct. 8, 2019), the membership of UCAR voted unanimously (89-0) to extend membership to Michigan Tech.

On July 24, three members of the UCAR Membership Committee visited the Michigan Tech campus and met with Provost and Senior Vice President for Academic Affairs Jackie Huntoon, Vice President for Research Dave Reed and Deans David Hemmer (College of Sciences and Arts) and Janet Callahan (College of Engineering) along with assorted faculty and graduate students. In addition, the committee toured several University facilities including the Pi Cloud Chamber and the Great Lakes Research Center.

UCAR is a nonprofit consortium of more than 100 colleges and universities providing research and training in atmospheric-related sciences. In partnership with the National Science Foundation, UCAR operates the National Center for Atmospheric Research (NCAR).

Membership in UCAR recognizes that Michigan Tech is among the players in atmospheric science nationally.

Eisele, Chaterjee Appointed to State Mining Council

Published October 9, 2019

By Sue Hill

Two Michigan Tech faculty members have been appointed to a state panel on mining. On Friday, Governor Gretchen Whitmer announced the members of the new Committee on Michigan’s Mining Future. The formation of the committee was initiated by legislation introduced by State Rep. Sara Cambensy of Marquette.

Among those appointed by Whitmer were Snehamoy Chatterjee (GMES) and Timothy Eisele (ChE). Chatterjee was chosen to represent current or former research faculty members who hold a master’s or doctorate degree in mining or geology at a university in Michigan. Chatterjee said he’s “Overwhelmed and very excited” to serve on the committee.

Eisele, appointed as the designee of Cambensy, teaches minerals processing and metals extraction at Michigan Tech. He said the establishment of the Committee on Michigan’s Mining Future makes perfect sense. “Michigan is a major mining state, ranking in the top 10 states for mining activity, with an annual value of approximately $2.7 billion. Much of this material is used in-state for construction and industrial purposes, and it takes a prominent place in the economy of the state.”

Michigan Tech, which was created as a mining school, suspended the mining engineering program in 2004. This summer the major returned to the University with a new multidisciplinary mining engineering degree program. Chatterjee said the committee appointments will help the mining engineering program. “This appointment will not only help me professionally but also it will improve the visibility of our reinstated mining engineering program both to the potential employers and prospective students.

Eisele said it is important the University be represented on the state’s new mining panel. “Michigan Tech has a long history of working with the Michigan mining industry, and many of our students are employed by them. This committee will provide advice to the state legislature to ensure that the industry can not only operate in the state, but also find ways to utilize wastes constructively, and work with universities like Michigan Tech to develop and adopt new technologies that will reduce their environmental impact.”

The committee is charged with evaluating government policies that affect the mining and minerals industry, recommend public policy strategies to enhance the growth of the mining and minerals industry, and advise on the development of partnerships between industries, institutions, environmental groups, funding groups, and state and federal resources.

By Mark Wilcox.

New High School STEM Internship Program at Michigan Tech

Published July 18, 2019

By Sue Hill

News

Chris Adams working at a bench with Riley Stoppa — Biological sciences graduate student Chris Adams works in the GLRC fisheries lab with STEM intern Riley Stoppa.

A total of 13 high school students from throughout Michigan are participating in a 5-day internship at Michigan Tech July 15-19, 2019. Faculty and their graduate students voluntarily host the students in engaging research activities during the week. The faculty’s department, along with the College of Engineering and College of Sciences and Arts, together provide a $600 scholarship for the student that covers their transportation, lodging and meals.

The interns work with Michigan Tech faculty and graduate students in their research lab or doing field work outside. During the week, students tour the Michigan Tech campus and local area, ‘experience college living’ in a residence hall, and meet students from across Michigan and beyond!

In Dr. Parisa Abadi’s Mechanical Engineering Lab, students will be 3D printing nanomaterials. Dr. Tara Bal in the School of Forest Resources and Environmental Sciences (SFRES) will conduct invasive species monitoring and forest health assessments. Dr. Will Cantrell in Atmospheric Physics will have the intern investigating why some clouds rain, while others do not.

Dr. Daniel Dowden in the Department of Civil and Environmental Engineering (CEE) has his intern investigating which technologies will allow buildings to sustain minimal damage and be easily repairable after large earthquakes. Four faculty–Drs. Deering, Waite, Oommen, and Gierke in Geological and Mining Sciences and Engineering are providing a broad introduction of mapping geological features, conducting geophysical surveys, and working to construct a 3-D model of a geological feature. Dr. Casey Huckins and graduate student–Chris Adams in Biological Sciences–are monitoring Pilgrim River and measuring the results of a fish survey in the lab. Dr. Daisuke Minakata in CEE and Dr. Paul Doskey in SFRES, along with graduate students, are researching innovative drinking water and wastewater treatment technologies.

Dr. Michael Mullins in the Department of Chemical Engineering (ChE) has his intern researching ways to remove PFAs contaminants from water. Dr. Rebecca Ong in ChE has her two interns investigating biofuel production from native grasses. Dr. Chelsea Schelly in the Department of Social Sciences and Dr. Robert Handler in the Sustainable Future Institute are measuring food, energy, and water consumption in residential homes and looking for ways to reduce household resource consumption. Dr. Kuilin Zhang and his graduate student Qinjie Lyu in CEE have their intern studying traffic data collection, traffic signal timing, eco-driving, and using traffic simulation software.

The program is coordinated by the Michigan Tech Center for Science and Environmental Outreach, in partnership with Summer Youth Program who provides logistical support and supervises the students in the residence halls in the evening.

Funding for the program is received from the Michigan Tech College of Engineering, the College of Sciences and Arts, the Department of Civil and Environmental Engineering, the Department of Mechanical Engineering-Engineering Mechanics, the Department of Chemical Engineering, the School of Forest Resources and Environmental Science, the Department of Biological Sciences, the Great Lakes Research Center, Youth Programs, and an anonymous donor.

The STEM internship program is coordinated by Joan Chadde at Michigan Tech Center for Science and Environmental Outreach.

Mining Engineering Returns to Michigan Tech

Published July 12, 2019

By Kim Geiger

News

A class of 14 Michigan Tech field geology students stand at the entrance of the Caledonia Mine, Ontonagon County, Michigan. Photo courtesy of Steve Chittick. — Michigan Tech field geology students stand at the entrance of the Caledonia Mine, Ontonagon County, Michigan. Photo courtesy of Steve Chittick.

Starting this summer, Michigan Technological University offers a new, multidisciplinary Mining Engineering degree program for graduate and undergraduate students.

Administered through the Department of Geological and Mining Engineering and Sciences, the multidisciplinary program includes core mining and geological engineering courses as well as classes from almost all of the departments in the College of Engineering.

“At Michigan Tech, it’s a part of our heritage, and it’s part of the future, too,” says Leonard Bohmann, associate dean of engineering. “There’s a definite need for mining engineers, now and into the future. We can help fill that need, which extends far beyond renewed local mining concerns,” he adds. “There’s a global need for mining engineers.”

“Complex endeavors require skilled people with the technical understanding and innovative mindset to design systems to safely address multifaceted challenges,” says John Gierke, GMES department chair. “To develop mineral resources in a socially and environmentally responsible manner, we need mining engineering professionals who are adept at solving complex problems.”

Back to the Future

Although the Michigan Mining School was created to train mining engineers in 1885, dwindling enrollments led to shelving the program 15 years ago. “Thanks to strong engagement from our alumni, coupled with the advancing digital revolution that is changing how the industry moves into the next generation, the foundation for reintroducing the mining engineering program at Michigan Tech allowed for its reinstatement,” says Gierke. “Sometimes, one does not fully appreciate what they have until it’s gone.”

Today, 134 years since its founding, students can pursue a degree in mining engineering at Michigan Tech to gain an understanding of the technical aspects of the mining industry and an appreciation for mining as a business; and an awareness of social-environmental issues and how these issues affect their roles as future professional engineers working for the general benefit of society.

Matt Portfleet shows safe rock drilling practices to geology major Elana Barth in the Adventure Mine. Photo courtesy of Matt Portfleet. — Matt Portfleet shows safe rock drilling practices to Michigan Tech geology major Elana Barth in the Adventure Mine in Greenland, Michigan. Photo courtesy of Matt Portfleet.

Mining engineering students learn about health and safety best practices from practitioners. They are involved in multidisciplinary, hands-on, and field-based courses; learning and research opportunities in exploration and resource development; complementary coursework in mineral processing and business; advanced technologies for mapping, exploration, and education; and advanced computing and data science for optimizing mine design and operations.

Across the entire country, now, only 14 mining engineering degree programs exist in the US. Michigan Tech offers students several important advantages. “Students will learn about mining engineering in a collaborative academic department that is home to non only mining engineering, but also geological engineering, geology, geophysics, and volcanology,” says Gierke. “Our expert faculty work together in applying and developing new technologies to better understand geologic processes—and better understand how to safely develop and manage Earth resources from discovery to closure.”

Aeromagnetic survey, courtesy of Michigan Tech alumnus Benjamin Drenth, '03. An aeromagnetic survey is a common type of geophysical survey carried out using a magnetometer aboard or towed behind an aircraft. The principle is similar to a magnetic survey carried out with a hand-held magnetometer, but allows much larger areas of the Earth's surface to be covered quickly. — Aeromagnetic survey, courtesy of Michigan Tech geological engineering alumnus Benjamin Drenth, ’03. A magnetometer is aboard or towed behind an aircraft. It is similar to a magnetic survey carried out with a hand-held magnetometer, but allows much larger areas of the Earth’s surface to be covered quickly.

“Another great advantage for our students is Michigan Tech’s location in Michigan’s historical Keweenawan native-copper district,” notes Gierke. “Our students will have an abundance of hands-on, learning opportunities in working mines,” he says.

“The new way of mining is more data intensive. For instance, drone mapping makes it easy and possible to map a pit every day, versus mapping a pit once or twice a year via surveying,” adds Gierke. “Our students will become adept and experienced with new technologies. We’ll be educating mining engineers of the future.”

Want more info on mining engineering at Michigan Tech? Learn more online.

Mining Engineering: The Best of Both Worlds

Published June 27, 2019

By Kim Geiger

News

Julie (Varichak) Marinucci earned her Bachelor of Science in Mining Engineering at Michigan Tech in 2002. She is now Mineral Development Specialist at St. Louis County Land and Minerals Department in Hibbing, Minnesota.

After a 15-year break, Mining Engineering officially returns to Michigan Tech, with BS, MS, and PhD degree programs and cutting-edge research. Learn more online.

Julie Marinucci earned her Bachelor of Science in Mining Engineering from Michigan Tech in 2002. She knew early on that mining would enable her to work globally, but also return home someday to northern Minnesota and have a good career there, too. Turns out, she was right.

What fostered your own path to studying and working in mining?
Mining Engineering kind of landed in my lap. I knew I wanted to be an engineer of some type and that I wanted to work outdoors. Civil Engineering seemed like the most likely choice, but then I met Murray Gillis, a mining engineering instructor at Michigan Tech. Murray was at a local college fair and he sparked my curiosity, not just in Michigan Tech, but also in Mining Engineering. My campus visit, and spending the summer after high school working in a mine, sealed the deal!

Describe some challenges that you face in your work.
The biggest challenge is the general misunderstanding of the mining industry. Many people do not understand the amount of care that goes into extracting minerals for the conveniences and protections we as a society have come to expect. Mining considers the full lifecycle of the land, careful consideration of the environmental conditions prior to mining, efficient extraction of the minerals of interest, and thoughtful reclamation with the next generation of land use in mind. I have always thought a big part of my job is to ensure the general public understands the efforts taken in developing a mine.

What has changed the most in mining engineering over the course of your career?
The continuous evolution of technology in mine planning has been fun to watch. Operations are now utilizing drone technology and laser scanning to manage pit operations, blast efficiency, ore grading, and more. I had the opportunity to work with engineers early in my career who had the large map tables and boxes of colored pencils. Fast forward now to laser scanners, drones, remote equipment monitoring, and more!

What changes do you expect to see in the future of mining?
I expect to see the way we work in mining to evolve, and look to more flexible work arrangements that will bring in a more diverse workforce. The days where you must be at your 1950’s steel desk working from 6 am to 6 pm will evolve into the ability to work remotely. It will allow for a different type of operational accessibility while providing for better balance in life.

What is your most surprising experience as a mining engineer to date?
When I started down the journey to become a mining engineer, I envisioned working my way through an operation in a very technical role. Through the years, I found that my degree has allowed me to reinvent myself many times over.

I started my career with Caterpillar in a marketing position. It was completely unexpected, but Cat was looking for someone who could understand the equipment, understand the mining industry, and effectively communicate with clients. What a great job! I went on to enjoy many roles at Cleveland Cliffs iron mining operations, where I learned to be an engineer, manage operation crews in the pit, and had the great learning experience of working at a greenfield operation in Canada (with a language barrier!). When I decided to leave Cliffs, I discovered the contacts I had made, along with understanding of mining operations, positioned me well for a career in consulting. My time with Short Elliott Hendrickson Inc. working in business development for mining and heavy industry taught me how to assemble a team to help solve problem and deliver a successful project. Then came my current role, with St. Louis County—a brand new position created to ensure that the vast mineral wealth held within the county was protected. The chance to define the job and lay out the mining and mineral strategy for the county was too good to pass up. St. Louis County holds world class iron, copper and nickel deposits, to name a few, and has a long mining history of over 130 years. As Mineral Development Specialist, I work closely with the Minnesota Department of Natural Resources, and local mining and exploration companies and communities, to ensure we are responsibly moving mining forward for the benefit of the region and the Tax Forfeited Land Trust.

Why do you think it was important to reinstate the mining engineering degree program at Michigan Tech?
Michigan Tech was founded as a mining engineering school and the demand that was created in 1858 still holds true today. Michigan Tech is positioned strategically near two large mining districts with growing interest in mineral development. The need for qualified mining professionals to move these project forward is great. The alumni network is willing to support these students through their education to ensure they have the best start possible.

Why should a student enter the field of mining engineering now?
The need for skilled mining engineers that love our region and want to stay, work and raise a family is strong, while the nationwide and global demand continues to grow. Mining in not for the faint of heart, but if you can weather the storm it’s a fulfilling career with many ways to leverage a mining engineering degree.

What are the greatest rewards and challenges mining engineers face now, and will face in the future?
Mining engineers should be proud to know that they are part of the fabric that maintains our quality of life, helps to grow our food, provides the materials for our ever-expanding tech advances, and keeps our families safe. This role in our modern life is not well-understood, but it’s a very important role. The future has great potential to continue to move our industry into next levels of efficiency, safe production, beneficial reuse of waste streams—and maybe mining the moon! The stars are the limit!

What’s next in your career?
I look forward to continuing to explore the opportunity to manage the land for mineral development, while planning for beneficial reuse of the land and the residuals. The ability to make an impact in my backyard is exciting and I look forward to evolving the role and myself over the years.

Collaborative Research Funding for Extreme Hydrometeorological Events

Published May 31, 2019

By Sue Hill

News

Landslide El Salvador terrain map — El Salvador’s Volcán San Vicente showing landslide scars from 2009 torrential rains. NASA Earth Observatory image by Robert Simmon, based on data from the NASA/GSFC/METI/ERSDAC/JAROS, and U.S./Japan ASTER Science Team.

John Gierke (GMES/EPSSI) is Principal Investigator on a project that has received a $582,752 grant from the National Science Foundation. This is a potential three-year project.

Luke Bowman (GMES), Alex Mayer (CEE), Fengjing Liu (Forestry), and Angie Carter (SS) are Co-PI’s on the project titled “IRES Track III: Collaborative Research: Coupling Participatory and Hydrological Research for Adapting to Extreme Hydrometeorological Events in Agricultural Communities, El Salvador.”

Extract

In this project, graduate students from US universities obtain international research experience in social and hydrological sciences while working on a scientific problem with real-world implications.

Changes in climate cause communities to adapt to enhance resiliency and foster practices that are more appropriate for new conditions. In regions where dry seasons are increasingly long, the shorter rainy seasons experience more severe storms.

Rural and agricultural communities are especially vulnerable to new seasonal conditions and their resources for adaptation are limited.

The Dry Corridor of Central America (spanning parts of El Salvador, Guatemala, Honduras, and Nicaragua) is an important region for agriculture and needs adaptation strategies. The project location is ideal because of its many-decades history of changing climate.

The project participants work with local farmers and agricultural stakeholders to gain experience in adapting to climate change. The interdisciplinary scientists and development professionals work together in participatory research in communities experiencing water scarcity and extreme rainfall events.

EPIC: A New Way to Observe Volcanic Eruptions from Space

Published May 8, 2019

By Kim Geiger

News

America’s first operational deep space satellite orbits one million miles from Earth. Positioned between the sun and Earth, it is able to maintain a constant view of the sun and sun-lit side of Earth. This location is called Lagrange point 1. (Illustration is not to scale) Credit: NOAA — DSCOVR, America’s first operational deep space satellite, orbits one million miles from Earth. Positioned between the sun and Earth, it is able to maintain a constant view of the sun and sun-lit side of Earth. This location is called Lagrange point 1. (Illustration is not to scale) Credit: NOAA

Michigan Tech volcanologist, Professor Simon Carn (GMES/EPSSI), is principal investigator on a new project, “Exploiting High-Cadence Observations of Volcanic Eruptions from DSCOVR/EPIC,” funded by NASA.

Portrait of Volcanologist Simon Carn — Volcanologist Simon Carn

Carn and his team will use a satellite instrument, the Earth Polychromatic Imaging Camera (EPIC) onboard the Deep Space Climate Observatory (DSCOVR), which is parked in space a million miles from Earth. EPIC provides global spectral images of the entire sunlit face of Earth, as viewed from an orbit around Lagrangian point 1 (L1)—the neutral gravity point between Earth and the sun.

“The unique feature of EPIC is that it can provide more satellite images per day of volcanic eruptions than other ultraviolet sensors we have used before,” Carn explains. “Our goal is to use this ‘high cadence’ imaging to improve understanding of volcanic eruption processes and impacts.”

Last Fall 2018, in an open-access article published online in the journal Geophysical Research Letters (GRL), Carn and his collaborators shared their first observations of volcanic eruption clouds from EPIC. The team developed and used an EPIC SO2 algorithm to detect every significant volcanic eruption since the DSCOVR launch in 2015.

“Although relatively small, these 16 eruptions, in places including Indonesia, Japan and Alaska (USA), have demonstrated EPIC’s sensitivity to moderate volcanic eruptions at a range of latitudes,” Carn noted. “EPIC should provide exceptional observations if still operational when the next major stratospheric volcanic eruption (VEI 4+) occurs.” VEI is short for Volcanic Explosivity Index. The team also demonstrated EPIC’s ability to track volcanic cloud transport on hourly timescales; a significant advance over low earth orbit UV sensors, such as the Ozone Monitoring Instrument, OMI—the visible and ultraviolet spectrometer aboard the NASA Aura spacecraft; and the Ozone Mapping and Profiler Suite (OMPS) on the NOAA polar satellite system.

Gallery image from NASA DSCOVR: EPIC, Earth Polychromatic Imaging Camera.

“It is clear that the EPIC observations have great potential to provide new insight into the short‐term evolution of volcanic SO2 clouds, and also to enable more timely detection of volcanic eruptions. The potential value of frequent UV observations of volcanic clouds has been noted in the past, and with EPIC this has become a reality,” adds Carn.

Simon Carn has received multiple research grants totaling more than $2.8 million from NASA, the National Science Foundation, the National Geographic Society Committee for Research and Exploration, the Royal Society and the European Union. His research focus is the application of remote sensing data to studies of volcanic degassing, volcanic eruption clouds and anthropogenic pollution. His main focus: SO2, a precursor of sulfate aerosol, which plays an important role in the atmosphere through negative climate forcing and impacts on cloud microphysics.
—

See daily images of Earth from EPIC.

Tag: GMES

Chemical Engineering

Civil and Environmental Engineering

Electrical and Computer Engineering

Geological Mining and Engineering Sciences

Mechanical Engineering – Engineering Mechanics

Above and Beyond

Behind the Scenes

Legacy Award

Rookie Award

Serving Others

Unsung Hero

Extract