Pitt | Swanson Engineering
News Listing

Apr

Apr
25
2017

The ‘Can’-Do Spirit

Chemical & Petroleum

PITTSBURGH, PA (April 25, 2017) … A team of students from the University of Pittsburgh won $10,000 and second place at Princeton University’s TigerLaunch Finals competition for entrepreneurship. The team founded the company Aeronics, which designs and develops improved methods of storing oxygen in lightweight, low-pressure tanks.One of Aeronics’ innovations, Medipod, is about the size of a soda can and contains a porous lining to increase internal surface area. Because gases concentrate on surfaces, Medipod can store more oxygen while decreasing the tanks internal pressure. The technology is particularly appealing for people who suffer from chronic obstructive pulmonary disease (COPD) and currently lug around large oxygen tanks on a daily basis.The Aeronics team comprises Pitt students Alec Kaija, Blake Dube and Mark Spitz. Christopher Wilmer, assistant professor in the Swanson School’s Department of Chemical and Petroleum Engineering, is an adviser to the team. Aeronics qualified for participation in the TigerLaunch national competition after presenting at the TigerLaunch X NYC competition at New York University. A total of 18 teams, selected from three regional competitions, received invitations to the finals.Last December, Aeronics took first place at Pitt Blast Furnace’s Demo Day. Like TigerLaunch, Demo Day provides student startups the opportunity to pitch their ideas and win cash prizes. The Aeronics team also won several other competitions supported by the University of Pittsburgh Innovation Institute including the Randall Family Big Idea Competition, the Michael G. Wells Competition and the Kuzneski Innovation Cup.Dube, CEO of Aeronics, worked with Dr. Wilmer in the Wilmer Lab investigating theoretical limits of oxygen storage in porous materials while pursuing his bachelor’s degree in chemical engineering. Spitz, who serves as COO, is majoring in exercise science in the School of Education. Both students will graduate this May and begin working full-time at Aeronics. Kaija, currently a PhD candidate in the Department of Chemical and Petroleum Engineering, will continue to develop Aeronics technology while completing his studies. ### Image above (from left to right): Spitz, Dube and Kaija at the TigerLaunch Finals.
Matt Cichowicz, Communications Writer
Apr
3
2017

ChemE Professor Christopher Wilmer Joins Foresight Institute’s Inaugural Class of Fellows

Chemical & Petroleum

PALO ALTO, CA (April 3, 2017) … The Foresight Institute, a nonprofit organization focused on promoting future technologies, has announced that Christopher Wilmer will be part of its inaugural class of fellows. The 10 inductees are all working on technologies with massive potential for the future, including space technology, human longevity and the interface between human minds and computers.The Foresight Institute selected Dr. Wilmer, assistant professor chemical and petroleum engineering at the University of Pittsburgh, for his work with nanostructures called “molecular machines.” As principal investigator of the Hypothetical Materials Lab at Pitt, Dr. Wilmer leads his team in the design of complex, hypothetical molecular machines capable of solving problems in fields such as energy and the environment.The Foresight Fellowship lasts for one year and provides support in the form of personal attention, exposure to new opportunities and mentorship from leaders in related fields. The Foresight Institute also invites fellows to attend special events to further connect with mentors and other fellows.“There’s nothing new in the world… is an adage that has met its match,” said Steve Burgess, president of Foresight Institute. “The Foresight Fellows are up to the challenge and we look forward to what they bring forth. The Foresight Fellowship Program is itself new, and we’re excited about working with this talented group and the prospects they bring to possible technological breakthrough for a better world for everyone.”About the Foresight InstituteSince 1993, Foresight Institute has been rewarding those who are making strides in the field of nanotechnology with the Feynman Prize. In 2016, a former Feynman Prize winner, Sir James Fraser Stoddart, was awarded the Nobel Prize in Chemistry for his work with molecular machines. Foresight Institute recognizes that providing a strong network and knowledge base for new fellows will accelerate their missions and reflect Foresight’s goals to further support those making important strides in key fields. The early identification and support of big research ideas is where Foresight Institute creates the most impact.About Dr. WilmerDr. Wilmer’s research focuses on the use of large-scale molecular simulations to help find promising materials for energy and environmental applications. He earned his bachelor’s degree in applied science from the University of Toronto’s Engineering Science—Nanoengineering program, and his PhD in Chemical Engineering at Northwestern under the mentorship of Prof. Randall Q. Snurr. While at Northwestern he took an interest in developing new technologies through entrepreneurship and co-founded NuMat Technologies, which designs porous materials that could be used to make better natural gas fuel tanks for vehicles. In 2012 the company won the Department of Energy’s National Clean Energy Business Plan Competition, while Dr. Wilmer was named to Forbes’ “30 Under 30 in Energy.” He has authored more than 20 publications and holds more than 500 article citations. For more information visit Dr. Wilmer’s website at www.wilmerlab.com. ###
Matt Cichowicz, Communications Writer
Apr
3
2017

MCSI Seed Grants Fund New Round of Sustainability Research

Chemical & Petroleum, Civil & Environmental, Industrial, MEMS

PITTSBURGH, PA (April 3, 2017) … The Mascaro Center for Sustainable Innovation (MCSI) has announced the recipients of 2017-2018 MCSI seed grant funding. The annual seed grant program engages a core team of researchers who are passionate about sustainability. Seed grants support graduate student and post-doctoral fellows on one-year research projects. The University of Pittsburgh projects and faculty members to receive funding include:• “Protein lithograph: a sustainable technology for sub-5-nm nanomanufacturing.” Mostafa Bedewy, Assistant Professor, Department of Industrial Engineering.• “High efficiency refrigeration and cooling through additive manufactured magnetocaloric devices.” Markus Chmielus, Assistant Professor, Department of Mechanical Engineering and Materials Science.• “Toward machine learning blueprints for greener chelants.” John Keith, Assistant Professor, Inaugural Richard King Mellon Faculty Fellow in Energy, Department of Chemical and Petroleum Engineering.• “H2P: HydroPonics to Pyrolysis: An enclosed system for the phytoremediation and destruction of perfectly persistent emerging contaminants in our water.” Carla Ng, Assistant Professor, Department of Civil and Environmental Engineering; David Sanchez, Assistant Professor, Department of Civil and Environmental Engineering.MCSI developed the research seed grant program to provide faculty with funding support to allow students to participate in high-quality research, teaching, outreach and creative endeavors. The goals of the grants are: (1) seed funding to develop ideas to the point where external funding can be obtained; (2) awards to support scholarship in areas where external funding is extremely limited; (3) resources to introduce curricular innovations into the classroom; or (4) tools or techniques to encourage community outreach and education. ###
Matt Cichowicz, Communications Writer

Mar

Mar
27
2017

Pitt ChemE Students Turn Class Project into $5,000 InnoCentive Award

Chemical & Petroleum

PITTSBURGH, PA (March 27, 2017) … InnoCentive, a crowdsourcing platform for problem-solving and innovation, awarded $5,000 to a team of students from the University of Pittsburgh for designing a solution for shipping polymers that expand too much when they’re cold and become too sticky when they’re hot. The students solved the problem for a chemical engineering class at the Swanson School and submitted their proposal to the InnoCentive Challenge Center after receiving an “A” on the assignment.Hydrogenated styrene diene block copolymer is used to make cosmetics and tough synthetic rubbers. An anonymous company submitted a challenge to the crowdsourcing website InnoCentive to see if anyone could find a way to improve its method of baling the polymers for shipment. The company had been using heat to compress the polymers and save space on the trucks; however, the heat also caused the polymer to stick to the surface of the conveyor system that led to the baler. The four Pitt students devised a solution that involved adding a vertical conveyor to the baling process. This particular type of spiral-shaped conveyor, commonly used in the food industry, looks like a giant metal spring. It can simultaneously heat the polymer while transporting it to the entrance of a top-loading baler. It also moves the polymer with vibration, preventing any chance of the compressed rubber sticking to the surface.“When we came up with this solution, we knew it was right,” said Devin Ulam, an undergraduate student and member of the Pitt team. “The vertical conveyor only takes up a little bit of space, and the polymer crumb is heated at the last moment before it enters the baler, so there is no risk of clogging.”The other team members were Travis La Fleur, Stephen Provencher and Timothy Shearer. All four students are majoring in chemical engineering at Pitt and enrolled in “Taking Products to Market – Next Step in Chemical Product Design” (ChE314) in the fall of 2016.The course emphasizes entrepreneurial approaches to chemical engineering product development. Christopher Wilmer, assistant professor of chemical and petroleum engineering at Pitt, taught the course last fall and directed the Pitt team to the InnoCentive challenge to gain experience with real-world problem solving.“We are teaching engineers in this course to consider the values and needs of the customer throughout the design process,” said Wilmer. “These students did an excellent job of finding a solution that didn’t make any drastic changes to the company’s product or processes. It will be very easy to implement their solution, and I think that is why they deserved to win the award.” InnoCentive is a network of more than 375,000 problem solvers. The platform connects corporations, government organizations and nonprofit companies with experts in the fields of computer science, math, chemistry, life sciences, physical sciences and business. When an organization submits a “challenge problem” to InnoCentive, the competition is open to the InnoCentive community. The organization that submitted the challenge ultimately determines the winning solution. ### Image Above: (from left to right) Devin Ulam, Timothy Shearer, Travis La Fleur and Stephen Provencher.
Matt Cichowicz, Communications Writer
Mar
22
2017

The Swanson School Presents Alumna Donna Blackmond with 2017 Distinguished Alumni Award for Chemical and Petroleum Engineering

Chemical & Petroleum

PITTSBURGH (March 22, 2017) … Collectively they are professors, researchers and authors; inventors, builders and producers; business leaders, entrepreneurs and industry pioneers. The 53rd annual Distinguished Alumni Banquet brought together honorees from each of the Swanson School of Engineering’s six departments and one overall honoree to represent the entire school. The banquet took place at the University of Pittsburgh's Alumni Hall, and Gerald D. Holder, US Steel Dean of Engineering, presented the awards.This year’s recipient for the Department of Chemical and Petroleum Engineering was Donna G. Blackmond, PhD, BSCHE ’80, MSCHE ’81, Professor of Chemistry, Scripps Research Institute.“Many of us here tonight, myself included, remember Donna as an outstanding student and researcher, and have followed her many accomplishments while making a major impact with her research,” said Dean Holder. “She is a pioneer of Reaction Progress Kinetic Analysis, and her research into prebiotic chemistry and asymmetric catalytic reactions is recognized worldwide.”About Donna BlackmondDonna G. Blackmond received BS and MS degrees in chemical engineering from the University of Pittsburgh in 1980 and 1981, respectively. She received a PhD degree in chemical engineering from Carnegie Mellon University in 1984. Blackmond started her career as an assistant professor of chemical engineering at the University of Pittsburgh in 1984 and was promoted to associate professor in 1989. She has held professorships in chemical engineering and in organic, physical, and technical chemistry in the US, Germany and the UK, and she has worked in the pharmaceutical industry as an associate director at Merck & Co., Inc. In 2010 she moved from a joint research chair in chemistry and chemical engineering at Imperial College London to her present position as professor of chemistry at The Scripps Research Institute in La Jolla, California. Blackmond’s research focuses on kinetic, mechanistic and reaction engineering studies of organic reactions for pharmaceutical applications, including asymmetric catalysis. She has been invited to give her short course on Kinetics of Organic Catalytic Reactions in academia (including Harvard, Berkeley, Zürich, Nagoya) and at major pharmaceutical companies around the world. Blackmond also carries out fundamental studies probing the origin of the single chirality of biological molecules. She was invited by the Royal Swedish Academy of Sciences to speak at a Nobel Workshop “On the Origin of Life” in Stockholm (2006). In 2012 she was named a Simons Investigator in the Simons Foundation Collaboration on the Origins of Life. ### Photo Above: Dean Holder (left) with Donna Blackmond and ChemE Department Chair Steven Little.
Matt Cichowicz, Communications Writer
Mar
22
2017

Chemical Engineering PhD Candidate Natalie Austin Invited to 67th Nobel Laureate Meeting on Chemistry

Chemical & Petroleum

PITTSBURGH, PA (March 22, 2017) … Natalie Austin, a PhD candidate in the Swanson School of Engineering’s Department of Chemical and Petroleum Engineering, will participate in the 67th Nobel Laureate Meeting in Lindau, Germany this June. Austin will join an elite group of 400 – 500 international undergraduates, graduate students and post-doctoral researchers, who qualified for attendance after a multistage selection process.Between 30 – 40 Nobel Laureates will also attend the meeting and interact with the next generation of scientists primed to make significant contributions to their fields. Each year the meeting focuses on one of the three natural sciences eligible for a Nobel Prize: chemistry, physics and physiology/medicine. This year’s topic of chemistry will be addressed and analyzed through lectures, discussion, master classes and panels.Austin, who works in the Computer-Aided Nano and Energy Lab (CANELA) at Pitt, was one of two Pitt students selected to apply to the program. She qualified nationally as part of the Oak Ridge Associates Universities team and then passed through an international selection pool ranging from undergraduate to post-doctoral students below the age of 35.“Attending the meeting held at Lindau is important to me,” said Austin. “I will have the opportunity to meet with the most successful and respected researchers in my field and beyond. More so, I believe that the interactions and networking opportunities provided at Lindau will be enriching to me, as well as inspire and motivate me as I move towards completing my graduate education and research.”  Austin’s research at CANELA focuses on the computational design of bimetallic nanoparticles, which can absorb, activate and convert carbon dioxide into useful chemicals and fuels. Monometallic copper is commonly used as a catalyst for carbon dioxide conversion, but studies have shown enhanced activity on copper-based bimetallic catalysts. Austin is currently investigating both the physicochemical properties of the catalysts and the mechanism of carbon dioxide conversion to methanol, an alternative fuel source to gasoline in internal combustion engines.Austin received her bachelor’s degree in chemical engineering/bioengineering from the University of Maryland, Baltimore County in 2013 and will defend her doctoral thesis in May 2018. After graduation, Austin said she would like to begin a career in energy and environmental research for the government or in an industrial setting. “I am personally very proud of Natalie and of what she has accomplished so far,” said Giannis Mpourmpakis, assistant professor of chemical and petroleum engineering at Pitt and principal investigator at CANELA. “Having participated in this meeting in the past, I know how competitive the selection process is and how beneficial this experience will be for her future career.” ###
Matt Cichowicz, Communications Writer
Mar
20
2017

Penn biointerface researcher and entrepreneur Tagbo Niepa to join Pitt’s Department of Chemical and Petroleum Engineering

Chemical & Petroleum

PITTSBURGH (March 20, 2017) … Further strengthening its focus on interdisciplinary research and entrepreneurship, the Department of Chemical and Petroleum Engineering at the University of Pittsburgh’s Swanson School of Engineering has hired Tagbo H.R. Niepa, PhD as assistant professor. Dr. Niepa, currently the Postdoctoral Fellow for Academic Diversity at the University of Pennsylvania Department of Chemical and Biomolecular Engineering with Professors Daeyeon Lee and Kathleen Stebe, will join Pitt in July 2017.“Tagbo’s expertise in biofilms, microfluidics and interfacial science is an outstanding addition to our department,” said Steven R. Little, PhD, Department Chair and William Kepler Whiteford Professor of Chemical and Petroleum Engineering. “He is young researcher who is gaining a national reputation for his bacterial research, and his experience as an entrepreneur with his own successful startup will be a tremendous asset and inspiration to our students.”“Many lifesaving medical innovations have emerged from the University of Pittsburgh,” added Dr. Niepa. “I am very excited to join Pitt’s Department Chemical and Petroleum Engineering. The multidisciplinary environment at Pitt is conducive for me to make unique contributions to diverse fields ranging from biomedical, to food and environmental sciences. "I envision developing microbial-based methods of oil recovery, and technologies having applications for biotechnology and personalized therapeutics. My hope is to share my vision of entrepreneurship as an alternative approach to disseminating research results with students as they explore opportunities outside of academia or industry.”Dr. Niepa currently focuses on interfacial phenomena associated with bacterial films and is developing artificial microniches to model microbiome dynamics as well as microbial communities relevant to antibiotic discovery. His research also seeks to understand how beneficial microbes could be used to better clean the environment after an oil spill and how pathogens could be prevented from causing disease. He earned an associate degree in food science at the Food Industry College (Ivory Coast) and worked at the Pasteur Institute as a research associate, before transferring to University of Dortmund (Germany) to study bioengineering. He later earned a BS in biomedical engineering and PhD in chemical engineering from Syracuse University. His doctoral research on the electrochemical control of bacterial persister cells revealed new means to control the electrophysiology of highly drug-tolerant bacterial cells and sensitize pathogenic persister and biofilm cells to antibiotics. His technology was tested successfully for safety on human cells and for efficacy in curing a rabbit model of sinusitis, and was awarded two U.S. patents and recognized by Syracuse University with the All-University Doctoral Prize. Dr. Niepa is a co-founder of Helios Innovative Technologies Inc. (now PurpleSun Inc.), a medical device company that develops automated sterilization systems to fight bacterial cross-contamination.About the Department of Chemical and Petroleum EngineeringThe Department of Chemical and Petroleum Engineering serves undergraduate and graduate engineering students, the University and our industry, through education, research, and participation in professional organizations and regional/national initiatives. Our commitment to the future of the chemical process industry drives the development of educational and research programs. The Department has a tradition of excellence in education and research, evidenced by recent national awards including numerous NSF CAREER Awards (including three in Q1 2017), a Beckman Young Investigator Award, an NIH Director's New Innovator Award, and the DOE Hydrogen Program R&D Award, among others. Active areas of research in the Department include Biological and Biomedical Systems; Energy and Sustainability; and Materials Modeling and Design. The faculty has a record of success in obtaining research funding such that the Department ranks within the top 25 U.S. chemical engineering departments for federal R&D spending in recent years with annual research expenditures exceeding $7 million. The vibrant research culture within the Department includes active collaboration with the adjacent University of Pittsburgh Medical Center, the Center for Simulation and Modeling, the McGowan Institute for Regenerative Medicine, the Mascaro Center for Sustainable Innovation, the Petersen Institute of NanoScience and Engineering and the U.S. DOE-affiliated Institute for Advanced Energy Solutions. ###

Mar
14
2017

Pitt’s Bioengineering and Industrial Engineering programs move up in 2018 U.S. News and World Report Graduate School Rankings

All SSoE News, Bioengineering, Chemical & Petroleum, Civil & Environmental, Electrical & Computer, Industrial, MEMS

PITTSBURGH (March 14, 2017) … The University of Pittsburgh’s Swanson School of Engineering has moved up one slot among engineering programs in the 2018 edition of U.S. News & World Report’s “Best Graduate Schools,” which will be available on newsstands April 11. The Swanson School is tied 42nd overall among university engineering programs, and 21st among all Association of American Universities (AAU) members. Two of its programs, bioengineering and industrial engineering, made significant gains over 2017. Bioengineering jumped from 18th in the nation to 12th overall, and remains at 6th among public AAU university programs. Industrial moved from 23rd to 17th overall, and from 13th to 10th among AAU publics. Other department rankings include: Chemical engineering: 33rd overall, 18th among AAU publics Civil engineering: 60th overall, 27th among AAU publics Computer engineering: 43rd overall, 20th among AAU publics Electrical engineering: 55th overall, 26th among AAU publics Materials science: 43rd overall, 22nd among AAU publics Mechanical engineering: 57th overall, 26th among AAU publics Complete rankings and information about the process can be found online in the U.S. News Grad Compass. ###

Mar
8
2017

Five Pitt engineering faculty set university and school record by receiving competitive NSF CAREER awards in first months of 2017

Chemical & Petroleum, Civil & Environmental, Electrical & Computer

PITTSBURGH (March 8, 2017) … The National Science Foundation CAREER award is the organization’s most coveted and competitive research prize for junior faculty, and in the first few months of 2017, the University of Pittsburgh’s Swanson School of Engineering has been awarded five CAREER grants totaling more than $2.5 million in research funding. The CAREER program “recognizes faculty who exemplify the role of teacher-scholars through outstanding research, excellent education and the integration of education and research within the context of the mission of their organizations.” The five awards – three in Chemical and Petroleum Engineering, and one each in Civil and Environmental and Electrical and Computer – are the most received by Pitt and Swanson School faculty in a single NSF CAREER funding announcement. The three Chemical and Petroleum Engineering CAREER awards also represent the most received by a single department within the Swanson School. The faculty applied for the awards during the NSF’s 2016 solicitation period.“This is a tremendous accomplishment for our faculty, and will greatly assist them in establishing their research at this early stage of their academic careers,” noted Gerald D. Holder, U.S. Steel Dean of Engineering and Distinguished Service Professor at Pitt. “This is the first time that five individuals at the Swanson School received CAREER awards in one year, which speaks to the caliber of their research.” David Vorp, the Swanson School’s Associate Dean for Research and John A. Swanson Professor of Bioengineering, added, “Research funding at the federal level grows tighter and more competitive each year, and so we’re very proud that these five outstanding faculty members developed such strong proposals. Most importantly, the CAREER awards include a community engagement component which is critical to inspiring future STEM careers in children and young adults.” The award recipients include: Department of Chemical and Petroleum Engineering John Keith, Inaugural R.K. Mellon Faculty Fellow in Energy and Assistant Professor ($500,000)Title: SusChEM: Unlocking local solvation environments for energetically efficient hydrogenations with quantum chemistry (#1653392)Summary: This project will address the production of carbon-neutral liquid fuels via electrocatalytic reduction of carbon dioxide (CO2) to methanol.  Its focus will integrate high-level electronic structure theory, molecular dynamics, and machine learning to understand how interactions between solvent molecules, salts, and co-solutes regulate CO2 reduction from greenhouse gas into fuels. The graduate and undergraduate students in Dr. Keith's lab group will also develop educational modules to engage and excite students in the Pittsburgh Public School District about opportunities in STEM fields, with an emphasis on renewable energy and computational chemistry. Giannis (Yanni) Mpourmpakis, Assistant Professor ($500,000)Title: Designing synthesizable, ligand-protected bimetallic nanoparticles and modernizing engineering curriculum through computational nanoscience (#1652694)Summary: Although scientists can chemically synthesize metal nanoparticles (NPs) of different shapes and sizes, understanding of NP growth mechanisms affecting their final morphology and associated properties is limited. With the potential for NPs to impact fields from energy to medicine and the environment, determining with computer simulations the NP growth mechanisms and morphologies that can be synthesized in the lab is critical to advance NP application. Because this is a relatively new field, traditional core courses in science and engineering lack examples from the nanotechnology arena. In addition to improving the research, the award will enable Dr. Mpourmpakis and his lab group to modernize the traditional course of Chemical Thermodynamics by introducing animation material based on cutting-edge nanotechnology examples, and developing a nanoscale-inspired interactive computer game. Christopher Wilmer, Assistant Professor ($500,000)Title: Fundamental limits of physical adsorption in porous materials (#1653375)Summary: The development of new porous materials is critical to improving important gas storage and separations applications, and will have a positive impact on reducing greenhouse gases. This includes the deployment of methane and/or hydrogen gases as alternative fuels, development of new filters for removing trace gaseous contaminants from air, and separation of carbon dioxide from flue gas to mitigate greenhouse emissions from the burning of fossil fuels. Dr. Wilmer’s grant will enable his lab to utilize computational methods to probe the limits of material performance for physical adsorption to porous materials. Although past computational screening has suggested physical limits of adsorption capacity for metal-organic frameworks (MOFs), this project will explore the novel use of so-called “pseudomaterials,” which represent all potential atomistic arrangements of matter in a porous material. As part of community outreach, Dr. Wilmer’s research group will develop educational movies on the fundamental science of gas adsorption, including those relevant to carbon capture to mitigate climate change. Department of Civil and Environmental EngineeringKyle J. Bibby, Assistant Professor ($500,000)Title: Quantitative viral metagenomics for water quality assessment (#1653356)Summary: U.S. beaches and waterways often are closed to human contact when tests indicate an increase in E. coli, usually after heavy rains overwhelm sewage systems. However, the concentration of these common bacteria is not a reliable indicator of viruses in the water, which present a greater danger of causing illness in humans. Dr. Bibby’s research will focus on developing new DNA sequencing methods to directly measure viral loads in water and better indicate potential threats to human health. Dr. Bibby’s group, which previously studied persistence of the Ebola virus in the environment and has worked to develop novel indicators of viral contamination, will utilize quantitative viral metagenomics for viral water quality assessment. The CAREER Award includes an outreach component that allows Dr. Bibby to engage with students at the Pittsburgh Public School’s Science & Technology Academy (SciTech) next to the Swanson School, leading to development of a hands-on educational module for high school students to characterize microbial water quality. Dr. Bibby will also utilize the research to expand the H2Oh! interactive exhibit he developed with the Carnegie Science Center, enabling children to better understand the impact of water quality on everyday life. Department of Electrical & Computer EngineeringErvin Sejdić, Assistant Professor and 2016 PECASE Recipient ($549,139)Title: Advanced data analytics and high-resolution cervical auscultation can accurately predict dysphagia (#1652203)Summary: Dysphagia, or swallowing disorders, affects nearly one in 25 adults, especially the elderly and those who have suffered a stroke or neurological disease, and results in approximately 150,000 hospitalizations annually. A patient’s risk for dysphagia is diagnosed first by screening, and may require an endoscopy or fluoroscopy for further evaluation. However, some patients who aspirate do so silently, causing doctors to misdiagnose. Dr. Sejdić will utilize high-resolution vibration and sound recordings to develop a new screening technology to help doctors diagnose dysphagia and patients to learn how to properly swallow while eating or drinking. Dr. Sejdić and his lab group will also collaborate with speech language pathologists to develop an online learning module to further education and outreach throughout the U.S. ###

Mar
1
2017

NSF recognizes three Pitt junior chemical engineering faculty with prestigious CAREER awards

Chemical & Petroleum

PITTSBURGH (March 1, 2017) … For the first time in a funding cycle, three researchers from one University of Pittsburgh department were recognized with the National Science Foundation’s most significant award in support of junior faculty. John Keith, Giannis Mpourmpakis and Christopher Wilmer, all assistant professors of chemical and petroleum engineering at Pitt’s Swanson School of Engineering received individual NSF CAREER awards, which “recognize faculty who exemplify the role of teacher-scholars through outstanding research, excellent education and the integration of education and research within the context of the mission of their organizations.” The three professors received $500,000 each in funding for the five-year awards. “Receiving an NSF CAREER Award can be one of the most tremendous highlights for any junior faculty member, but it is a true honor for a university to receive three awards within one department,” noted Steven R. Little, the William Kepler Whiteford Professor and Department Chair of Chemical and Petroleum Engineering. “What’s more, these three researchers are focused on dynamic energy research, and these grants will not only benefit their labs, but also the students they teach and mentor. As an additional component, the grants will enable our students to engage in community outreach and encourage young adults to consider careers in STEM.” The Pitt Chemical and Petroleum Engineering CAREER Awards include: John A. Keith, Assistant Professor and Inaugural R.K. Mellon Faculty Fellow in Energy  SusChEM: Unlocking local solvation environments for energetically efficient hydrogenations with quantum chemistry (#1653392) Summary: This project will address the production of carbon-neutral liquid fuels via electrocatalytic reduction of carbon dioxide (CO2) to methanol.  Its focus will integrate high-level electronic structure theory, molecular dynamics, and machine learning to understand how interactions between solvent molecules, salts, and co-solutes regulate CO2 reduction from greenhouse gas into fuels. Dr. Keith’s graduate and undergraduate students will develop educational modules to engage and excite students in the Pittsburgh Public School District about opportunities in STEM fields, with an emphasis on renewable energy and computational chemistry. Giannis (Yanni) Mpourmpakis, Assistant ProfessorDesigning synthesizable, ligand-protected bimetallic nanoparticles and modernizing engineering curriculum through computational nanoscience (#1652694)Summary: Although scientists can chemically synthesize metal nanoparticles (NPs) of different shapes and sizes, understanding of NP growth mechanisms affecting their final morphology and associated properties is limited. With the potential for NPs to impact fields from energy to medicine and the environment, determining with computer simulations the NP growth mechanisms and morphologies that can be synthesized in the lab is critical to advance NP application. Because this is a relatively new field, traditional core courses in science and engineering lack examples from the nanotechnology arena. In addition to improving the research, the award will enable Dr. Mpourmpakis and his students to modernize the traditional course of Chemical Thermodynamics by introducing animation material based on cutting-edge nanotechnology examples, and developing a nanoscale-inspired interactive computer game. Christopher Wilmer, Assistant Professor Fundamental limits of physical adsorption in porous materials (#1653375) Summary: The development of new porous materials is critical to improving important gas storage and separations applications, and will have a positive impact on reducing greenhouse gases. This includes the deployment of methane and/or hydrogen gases as alternative fuels, development of new filters for removing trace gaseous contaminants from air, and separation of carbon dioxide from flue gas to mitigate greenhouse emissions from the burning of fossil fuels. Dr. Wilmer’s grant will enable his lab to utilize computational methods to probe the limits of material performance for physical adsorption to porous materials. Although past computational screening has suggested physical limits of adsorption capacity for metal-organic frameworks (MOFs), this project will explore the novel use of so-called “pseudomaterials,” which represent all potential atomistic arrangements of matter in a porous material. As part of community outreach, Dr. Wilmer’s research group to develop educational movies on the fundamental science of gas adsorption, including those relevant to carbon capture to mitigate climate change. ###

Feb

Feb
17
2017

Catalytic Conveyor Belt

Chemical & Petroleum

PITTSBURGH (February 17, 2017) … Capitalizing on previous studies in self-powered chemo-mechanical movement, researchers at the University of Pittsburgh’s Swanson School of Engineering and Penn State University’s Department of Chemistry have developed a novel method of transporting particles that utilizes chemical reactions to drive fluid flow within microfluidic devices. Their research, “Harnessing catalytic pumps for directional delivery of microparticles in microchambers,” was published today in the journal Nature Communications (DOI: 10.1038/ncomms14384).The computational modeling research was led by Anna C. Balazs, Distinguished Professor of Chemical and Petroleum Engineering at Pitt, with post-doctoral associates Oleg E. Shklyaev and Henry Shum. Experiments at Penn State were conducted by Ayusman Sen, Distinguished Professor of Chemistry and graduate students S. Das, A. Altemose, I.Ortiz-Rivera and L. Valdez. Their combined theoretical and experimental findings could enable controllable transport of particles and cells, allowing highly sensitive chemical assays to be performed more rapidly and efficiently.“One of the critical challenges in transporting microparticles within devices is delivering the particle to a specific location,” Dr. Balazs explained. “Much like a conveyor belt in a factory, you want to move the particle within a closed system without any modification to its surface or damage to its structure.”Dr. Balazs noted that in addition to successfully delivering the particles, the other challenges the researchers faced were maintaining unidirectional flow from point A to point B within a closed chamber, and ensuring that a critical concentration of these particles could be delivered to sensors, which only operate above a critical threshold. The solution was to generate a gradient of a chemical reagent by introducing the reagent at one end of the chamber, point A. Enzymes on the surface of the chamber consumed the reagent so that it was completely depleted at the point B. Since the presence of the reagent increases the fluid density, a density gradient was established between points A and B, leading to convective flow that transported particles like a conveyor belt. “Previously, to generate spontaneous propulsion of microparticles, one needed to chemically modify the surface of these particles, thus altering their inherent properties,” Dr. Balazs said. “Moreover, modifying the particle’s surface does not necessarily allow you to direct its motion within the chamber. We were able to predicate through our computational models and demonstrate in the experiments performed at Penn State that the flow generated by the catalytic chemical reaction in the chamber could effectively transport particles to a particular sensor, and could permit control over the speed and direction of the particle transport, without having to use an external pump or any modification of the cargo.”“Utilizing catalytic reactions to drive fluids to controllably transport particulates in solution is a relatively new field, even though it’s what our bodies do at any given moment when converting food to fuel. Replicating it within a synthetic system however is very difficult,” Dr. Sen added. “In our lab, we were able to design a “machine” without the need for a mechanical device that could be used many times over simply by adding fuel to the chamber, while allowing the particle to remain a passive participant along for the ride.” ### Image above: Particles transported along a channel by chemically-driven fluid flow. The flow is generated by reagent entering at one end of the channel (A) and reacting at the enzyme covered surface. The cargo is deposited at position B, which can be controlled by varying the reaction rate. (Oleg E. Shklyaev and Henry Shum)

Jan

Jan
30
2017

Swanson School well-represented among recipients of 2017 Chancellor’s Innovation Commercialization Funds from the Innovation Institute

Bioengineering, Chemical & Petroleum, Electrical & Computer

PITTSBURGH (January 30, 2017) ... The University of Pittsburgh Innovation Institute has awarded $140,000 to four Pitt Innovator teams to help them move their discoveries towards commercialization, where they can make a positive impact on society. The Chancellor’s Innovation Commercialization Funds were established to provide support for promising early-stage Pitt innovations to assist in reducing the technical and/or market risk associated with the innovations and make them more attractive to investors or potential licensees. One of the paths for identifying funding opportunities is through a request for proposal program that was launched in November of 2016 and recently culminated in these awards. “We are thrilled to be able to provide these funds to entrepreneurial Pitt faculty and graduate students to help expedite their commercialization journey,” said Marc Malandro, Founding Director of the Innovation Institute. “Often the most difficult hurdle to climb for commercializing University research is providing so-called ‘gap’ funding that can bridge the space between a promising idea and a marketable product.” The teams were selected by a panel of judges from a pool of two dozen applicants that was narrowed into a group of 10 finalists. The judges included several members of the region’s innovation and entrepreneurship community. They included: Nehal Bhojak – Director of Innovation, Idea Foundry Malcolm Handelsman – President, Pittsburgh Chapter, Keiretsu Forum Jim Jordan – President, Pittsburgh Life Sciences Greenhouse Andy Kuzneski – President, Kuzneski Financial Group Rich Lunak – President & CEO, InnovationWorks Mike Stubler — Managing Director, Draper Triangle Ventures “There were an impressive array of technologies presented by the finalists for the Chancellor’s Innovation Commercialization Funds. The business applications ranged from novel technologies for cancer therapy and biosensors for congestive heart failure to next generation LED displays and water desalination solutions.  The projects demonstrate not only the breadth of the University of Pittsburgh’s research prowess, but also the excellent coaching and preparation the innovators received from Pitt’s Innovation Institute,” Lunak said. Two awards of $35,000 each were made for innovations with a one-to-one matching partner: Thermoresponsive Hydrogel for Orbital Volume Augmentation Morgan Fedorchak, Assistant Professor, Department of Ophthalmology, Chemical Engineering and Clinical and Translational Science and Jenny Yu, Assistant Professor and Vice Chair, Clinical Operations Department of Ophthalmology, have discovered a non-degradable hydrogel material that can be injected into the orbit of the eye following ocular trauma or as a treatment for genetic eye disorders. The material can also be used to administer anti-inflammatory or antibiotic medications. The funding will be used to provide proof-of-concept studies. Data from the successful completion of the studies will better position the innovation for application to the Department of Defense for funding to explore the therapeutic potential of the technology. Matching funds will come from the University of Pittsburgh Center for Military Medicine Research, whose mission is to address combat-related injuries. Body Explorer: Autonomous Simulated Patient Douglas Nelson Jr. doctoral candidate in the Department of Bioengineering, John O’Donnell, Professor & Chair Department of Nurse Anesthesia, and Joseph Samosky, Assistant Professor, Department of Bioengineering have developed a mannequin medical simulator with projected augmented reality for training medical professionals in anatomy, physiology and clinical procedures. The team has previously participated in the Coulter Translational Partners II program and the Idea Foundry’s Science Accelerator to advance prototype development and usability testing. The new funding will assist in improving the user interface and expanding the BodyExplorer curriculum modules. Click here to see a video describing their invention. Idea Foundry is providing 1:1 matching cash support, in addition to $25,000 of additional in-kind support to assist in securing additional investment. Two projects received $35,000 awards without a matching requirement. Nano-LED Technology for Microdisplays Hong Koo Kim, Bell of PA/Bell Atlantic Professor, Department of Electrical & Computer Engineering and doctoral student Daud Hasan Emon have developed nano LED structures that have lower energy costs and longer battery life than existing LED technology. Applications include mobile device displays and other micro-display devices. The new funding will support the advancement of prototypes to demonstrate the breadth of the optimal applications. Reactive Extraction of Water: Desalination Without Membranes or Distillation Eric Beckman, Distinguished Service Professor of Chemical Engineering, has developed a chemical method for desalinating water that requires less energy than the longstanding existing methods such as reverse osmosis or flash distillation. The award will fund testing to validate the technology. Malandro said the Innovation Institute is working with those teams not chosen in this funding round to receive other education and funding opportunities to advance their discoveries. The Pitt Ventures Gear Program is an NSF I-Corps Site participant that provides an initial grant of $3,000 for teams to conduct customer discovery and value proposition activities. At the conclusion of each six-week First Gear cohort, teams pitch their ideas for the opportunity to receive from $5,000 to $20,000 from the Chancellor’s Innovation Commercialization Funds program. The teams are also eligible to apply for a second round of NSF funding of up to $50,000 from the national I-Corps program. The next First Gear cohort begins February 14, 2017. Applications are due February 1. Click here to learn more and apply. ###
Mike Yeomans, Marketing & Special Events Manager, Innovation Institute
Jan
19
2017

Geosciences-Inspired Engineering

Chemical & Petroleum, Civil & Environmental

PITTSBURGH (January 19, 2017) … The Mackenzie Dike Swarm, an ancient geological feature covering an area more than 300 miles wide and 1,900 miles long beneath Canada from the Arctic to the Great Lakes, is the largest dike swarm on Earth. Formed more than one billion years ago, the swarm’s geology discloses insights into major magmatic events and continental breakup. The Mackenzie Dike Swarm and the roughly 120 other known giant dike swarms located across the planet may also provide useful information about efficient extraction of oil and natural gas in today’s modern world. To explore how naturally-occurring dike swarms can lead to improved methods of oil and gas reservoir stimulation, the National Science Foundation (NSF) Division of Earth Sciences awarded a $310,000 award to Andrew Bunger, assistant professor in the Departments of Civil and Environmental Engineering and Chemical and Petroleum Engineering at the University of Pittsburgh’s Swanson School of Engineering. Dike swarms are the result of molten rock (magma) rising from depth and then driving cracks through the Earth’s crust. Dike swarms exhibit a self-organizing behavior that allows hundreds of individual dikes to fan out across large distances. Although petroleum engineers desire to achieve the same effect when creating hydraulic fractures for stimulation of oil and gas production, the industrial hydraulic fractures appear far more likely to localize to only one or two dominant strands. This localization leaves 30-40 percent of most reservoirs in an unproductive state, representing an inefficient use of resources and leading to unnecessary intensity of oil and gas development. In the study, “Self-Organization Mechanisms within Magma-Driven Dyke and Hydraulic Fracture Swarms,” Bunger will take a novel approach to understanding the mechanics of fluid-driven cracks, which he refers to as “geosciences-inspired engineering.” Like the growing field of biologically-inspired engineering, Bunger will be looking to processes in the natural world to better understand the constructed or engineered world. “I would like to challenge myself and the geoscience community to look at naturally occurring morphologies with the eye of an engineer,” says Bunger. “The first part of the study will involve developing a mechanical model to explain the behavior of the dike swarms. We are borrowing from a theoretical framework developed in biology called ‘swarm theory,’ which explains the self-organizing behavior of groups of animals.” Swarm theory, or swarm intelligence, refers to naturally and artificially occurring complex systems with no centralized control structure. The individual agents in the system exhibit simple or even random behavior, but collectively the group achieves emergent, or “intelligent,” behavior. “One of the hallmarks of self-organizing behavior within swarms was recognized by swarm theory’s earliest proponents, who were actually motivated by developing algorithms to simulate flocks and herds in computer animation,” Bunger explains. “They proposed that all swarming behavior can be tied to the presence of three basic forces. One of these leads to alignment of the members with each other – it is what makes a flocking bird fly in the same direction as its neighbors. A second force is associated with repulsion – it keeps birds within a flock from running into each other and knocking each other out of the air. The third force is attraction – an often instinctive desire of certain animals to be near other animals of their own species, typically for protection from predators.” “If you look at dike swarms,” Bunger continues, “They have been called ‘swarms’ for decades, but there has never been an effort to identify the mechanical origins of the three forces that are known to be present any place that swarming morphology is observed. When we view dikes in this way, we see that the alignment and repulsive forces have been recognized for years, although never placed in the broader context of their role in swarming. However, the origin of the attractive force is problematic. Why do all these dikes have any mechanical impetus to grow near each other? Because the mechanical origin of the attractive force has not been known, it is unclear why natural fluid-driven cracks – dikes – tend to exhibit swarming behavior while such an outcome is far less commonly observed in man-made fluid-driven cracks associated with hydraulic fracturing of oil and gas reservoirs.” “We will use computational models and analogue experiments, which use artificial materials to simulate the Earth’s processes, to develop a new theory of fluid-driven crack swarms,” says Bunger. “Through this advance, we would like to improve the stimulation methods used for oil and gas production. This will be a win-win for both industry and our society that depends upon the energy resources they produce. Industry will benefit from more efficient methods, and society will benefit from lower energy costs and a decreased environmental footprint associated with resource extraction.” In addition to a deeper understanding of the geological process that occur throughout Earth’s history, Bunger also sees his research impacting planetary research of Mars and Venus. Both rocky planets contain a large number of giant dike swarms. Understanding how the geometry of dike swarms relates to the conditions in the Earth’s crust at the time of emplacement will lead to a new method for ascertaining the little-known geological structure and history of Mars and Venus though analysis of the geometry of their many giant dike swarms. ### Photo above: Dr. Bunger in his Benedum Hall lab with the newly-installed compression frame he uses to simulate the high-stress environment deep inside the Earth.
Author: Matthew Cichowicz, Communications Writer
Jan
17
2017

“Geosciences-Inspired Engineering”

Chemical & Petroleum, Civil & Environmental

PITTSBURGH, PA (January 17, 2017) … The Mackenzie Dike Swarm, an ancient geological feature covering an area more than 300 miles wide and 1,900 miles long beneath Canada from the Arctic to the Great Lakes, is the largest dike swarm on Earth. Formed more than one billion years ago, the swarm’s geology discloses insights into major magmatic events and continental breakup. The Mackenzie Dike Swarm and the roughly 120 other known giant dike swarms located across the planet may also provide useful information about efficient extraction of oil and natural gas in today’s modern world. To explore how naturally-occurring dike swarms can lead to improved methods of oil and gas reservoir stimulation, the National Science Foundation (NSF) Division of Earth Sciences awarded a $310,000 award to Andrew Bunger, assistant professor in the Departments of Civil and Environmental Engineering and Chemical and Petroleum Engineering at the University of Pittsburgh’s Swanson School of Engineering. Dike swarms are the result of molten rock (magma) rising from depth and then driving cracks through the Earth’s crust. Dike swarms exhibit a self-organizing behavior that allows hundreds of individual dikes to fan out across large distances. Although petroleum engineers desire to achieve the same effect when creating hydraulic fractures for stimulation of oil and gas production, the industrial hydraulic fractures appear far more likely to localize to only one or two dominant strands. This localization leaves 30-40 percent of most reservoirs in an unproductive state, representing an inefficient use of resources and leading to unnecessary intensity of oil and gas development. In the study, “Self-Organization Mechanisms within Magma-Driven Dyke and Hydraulic Fracture Swarms,” Bunger will take a novel approach to understanding the mechanics of fluid-driven cracks, which he refers to as “geosciences-inspired engineering.” Like the growing field of biologically-inspired engineering, Bunger will be looking to processes in the natural world to better understand the constructed or engineered world.“I would like to challenge myself and the geoscience community to look at naturally occurring morphologies with the eye of an engineer,” says Bunger. “The first part of the study will involve developing a mechanical model to explain the behavior of the dike swarms. We are borrowing from a theoretical framework developed in biology called ‘swarm theory,’ which explains the self-organizing behavior of groups of animals.” Swarm theory, or swarm intelligence, refers to naturally and artificially occurring complex systems with no centralized control structure. The individual agents in the system exhibit simple or even random behavior, but collectively the group achieves emergent, or “intelligent,” behavior.“One of the hallmarks of self-organizing behavior within swarms was recognized by swarm theory’s earliest proponents, who were actually motivated by developing algorithms to simulate flocks and herds in computer animation,” Bunger explains. “They proposed that all swarming behavior can be tied to the presence of three basic forces. One of these leads to alignment of the members with each other – it is what makes a flocking bird fly in the same direction as its neighbors. A second force is associated with repulsion – it keeps birds within a flock from running into each other and knocking each other out of the air. The third force is attraction – an often instinctive desire of certain animals to be near other animals of their own species, typically for protection from predators.”“If you look at dike swarms,” Bunger continues, “They have been called ‘swarms’ for decades, but there has never been an effort to identify the mechanical origins of the three forces that are known to be present any place that swarming morphology is observed. When we view dikes in this way, we see that the alignment and repulsive forces have been recognized for years, although never placed in the broader context of their role in swarming. However, the origin of the attractive force is problematic. Why do all these dikes have any mechanical impetus to grow near each other? Because the mechanical origin of the attractive force has not been known, it is unclear why natural fluid-driven cracks – dikes – tend to exhibit swarming behavior while such an outcome is far less commonly observed in man-made fluid-driven cracks associated with hydraulic fracturing of oil and gas reservoirs.”“We will use computational models and analogue experiments, which use artificial materials to simulate the Earth’s processes, to develop a new theory of fluid-driven crack swarms,” says Bunger. “Through this advance, we would like to improve the stimulation methods used for oil and gas production. This will be a win-win for both industry and our society that depends upon the energy resources they produce. Industry will benefit from more efficient methods, and society will benefit from lower energy costs and a decreased environmental footprint associated with resource extraction.”In addition to a deeper understanding of the geological process that occur throughout Earth’s history, Bunger also sees his research impacting planetary research of Mars and Venus. Both rocky planets contain a large number of giant dike swarms. Understanding how the geometry of dike swarms relates to the conditions in the Earth’s crust at the time of emplacement will lead to a new method for ascertaining the little-known geological structure and history of Mars and Venus though analysis of the geometry of their many giant dike swarms. ###
Matt Cichowicz, Communications Writer
Jan
10
2017

Pitt’s Center for Medical Innovation awards four novel biomedical devices with $77,500 total Round-2 2016 Pilot Funding

Bioengineering, Chemical & Petroleum, Industrial

PITTSBURGH (January 10, 2017) … The University of Pittsburgh’s Center for Medical Innovation (CMI) awarded grants totaling $77,500 to four research groups through its 2016 Round-2 Pilot Funding Program for Early Stage Medical Technology Research and Development. The latest funding proposals include a new technology for treatment of diabetes, a medical device for emergency intubation, an innovative method for bone regeneration, and a novel approach for implementing vascular bypass grafts. CMI, a University Center housed in Pitt’s Swanson School of Engineering (SSOE), supports applied technology projects in the early stages of development with “kickstart” funding toward the goal of transitioning the research to clinical adoption. CMI leadership evaluates proposals based on scientific merit, technical and clinical relevance, potential health care impact and significance, experience of the investigators, and potential in obtaining further financial investment to translate the particular solution to healthcare. “This is our fifth year of pilot funding, and our leadership team could not be more excited with the breadth and depth of this round’s awardees,” said Alan D. Hirschman, PhD, CMI Executive Director. “This early-stage interdisciplinary research helps to develop highly specific biomedical technologies through a proven strategy of linking UPMC’s clinicians and surgeons with the Swanson School’s engineering faculty.” AWARD 1: Intrapancreatic Lipid Nanoparticles to Treat DiabetesAward for further development and testing of use of lipid nanoparticle technology for the induction of α-to-β-cell transdifferentiation to treat diabetes. George Gittes, MDDepartment of Surgery University of Pittsburgh School of Medicine Kathryn Whitehead, PhDDepartment of Chemical Engineering Carnegie Mellon University (Secondary appointment at the McGowan Institute for Regenerative Medicine) AWARD 2: The Esophocclude - Medical Device for temporary occlusion of the esophagus in patients requiring emergent intubationContinuation award for further refinement of the Esophocclude Medical Device using human cadaver testing to simulate emergency intubation.Philip Carullo, MDResident, PGY-1 Department of Anesthesiology University of Pittsburgh Medical Center (UPMC) Youngjae Chun, PhD Assistant Professor Department of Industrial Engineering Department of Bioengineering (Secondary) University of Pittsburgh AWARD 3: RegenMatrix - Collagen-mimetic Bioactive Hydrogels for Bone RegenerationContinuation award for fully automating the hydrogel fabrication process, for animal studies and for fine-tuning related innovations. Shilpa Sant, PhDAssistant Professor Department of Pharmaceutical Sciences Department of Bioengineering University of Pittsburgh Akhil Patel, MS Graduate Student Department of Pharmaceutical Sciences University of Pittsburgh Yadong Wang, PhD Professor Department of Bioengineering University of Pittsburgh Sachin Velankar, PhDAssociate Professor Department of Chemical Engineering University of Pittsburgh Charles Sfeir, DDS, PhD Associate Professor Department of Oral Biology University of Pittsburgh AWARD 4: TopoGraft 2.0 - Anti-platelet surfaces for bypass grafts and artificial hearts using topo-graphic surface actuationContinuation award for in-vivo validating of results and developing a new approach for topographic actuation of the inner lumen of synthetic bypass grafts. Sachin Velankar, PhD Department of Chemical Engineering University of Pittsburgh Luka Pocivavsak, MD, PhD Department of Surgery University of Pittsburgh Medical Center Edith Tzeng, MD Department of Surgery University of Pittsburgh Medical Center Robert Kormos, MD Department of Cardiothoracic Surgery University of Pittsburgh Medical Center About the Center for Medical Innovation The Center for Medical Innovation at the Swanson School of Engineering is a collaboration among the University of Pittsburgh’s Clinical and Translational Science Institute (CTSI), the Innovation Institute, and the Coulter Translational Research Partnership II (CTRP). CMI was established in 2011 to promote the application and development of innovative biomedical technologies to clinical problems; to educate the next generation of innovators in cooperation with the schools of Engineering, Health Sciences, Business, and Law; and to facilitate the translation of innovative biomedical technologies into marketable products and services. Over 50 early-stage projects have been supported by CMI with a total investment of over $900,000 since inception. ###
Author: Yash P. Mokashi, Fellow, Center for Medical Innovation