First Virtual Design Expo Showcases Swanson Undergrads’ Ingenuity

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PITTSBURGH (Dec. 14, 2020) — Every semester, University of Pittsburgh engineering students make their way to Soldiers and Sailor Memorial Hall to put forth their best designs at the Design Expo. However, like so many events in 2020, this year’s event had to go virtual. The first ever Virtual Design Expo at the University of Pittsburgh’s Swanson School of Engineering took place on Nov. 23 from 6 to 8:30 p.m. Using the conference platform Accelevents, students presented their work from the School’s Capstone Design courses or highlighted concepts and prototypes from the Product Realization and Art of Making courses. The students prepared to present their projects in their individual online “booths,” and judges, who are industry professionals from around the world, visited the online spaces in turn to talk with students and view their work. “We’re proud and impressed by our students’ ability to adapt to this virtual event and bring their best, most innovative work to the table,” said Mary Besterfield-Sacre, Nickolas A. Dececco Professor, Associate Dean for Academic Affairs, and Director of the Engineering Education Research Center. “This year may have changed the format of this important event, but what hasn’t changed is our students’ talent, skill and perseverance.” This year’s winners are: Best Overall Project MEMS-5: Enhancement of Metal 3D-Printed Respiratory Filter DesignNathan Knueppel, Frederick Wohlers, Jared Melnik, Andrew Harmon, and Zach OstranderAdvisors: Marchus Chmielus and David Schmidt People’s Choice Award BioE-9: Trauma-Informed Speculum RedesignNeharika Chodapaneedi, Hannah Geisler, Justin Amritha, Katherine Miller, Oreoluwa Odeniyi, Joseph Sukinik, Joanna Siegel, Sydney Rinderknecht, and Susanne KushernickAdvisor: Mark Gartner DEPARTMENT AWARDS Bioengineering 1st Place: BioE-5, System to Improve Glove DonningKlaire Dickey, Emily Hilerick, Rachel Lau, Seth Queen, Simon Shenk, Michael Shulock, Christopher Snodgrass, Katherine Stevenson, and Leo JulianAdvisor: Mark Gartner 2nd Place: BioE-11, Expressive Aphasia Patient Communication in a Hospital Setting Following StrokeRosh Bharti, Audrey Case, Harris Chishti, Mitchell Dubaniewicz, Jessica Weber and Benjamin WongAdvisor: Mark Gartner 3rd Place: BioE-4, Addressing Self-Harm in Patients with ASDDavid Chan, Mateus Pinho, Yannis Rigas, Gloriani Sanchez, Sean Tighe, and Shivani TuliAdvisor: Mark Gartner Civil and Environmental Engineering 1st Place: CEE-9, Fly Ranch Water Treatment FacilityDana Vidic, Claire Sattler, Maria Stopenski, and Trent GreenerAdvisor: John Sebastian 2nd Place: CEE-7, Landslide Slope StabilizationDustin Chickis, Perry Hoover Jr., Col McLaughlin, and Jack DeckerAdvisor: John Sebastian 3rd Place: CEE-1, SBTRA Small Bridge and Spillway ReplacementKatherine Paraskiewicz, Patrick Schorr, Anthony Bove, and Ivan MenzAdvisor: John Sebastian Electrical and Computer Engineering 1st Place: ECE-5, Bidirectional Foot Traffic Monitor for Single Entry SpacesAlyssa Jordan, Richard Kuerzi, Daniel Mingey, and Calvin YuAdvisors: Mohamed Bayoumy and Steve Jacobs 2nd Place: ECE-1, Two-Channel Oscilloscope/Spectrum AnalyzerErin Welling, Justin Long, Dillon Garrett, and Jacob HeilmanAdvisors: Mohamed Bayoumy and Steve Jacobs Industrial Engineering 1st Place: IE-1, Supply Chain Risk ManagementAlexandra Lee, Elizabeth Lee, Michael Urzillo, and Mara WrzesniewAdvisors: MECCO, Catalyst Connection, and Michael Sherwin 2nd Place: IE-8, Flu Season ModelingClaude Corbett, Venice Pascual, Nathan Sugrue and Sofia VidicAdvisors: Hyo Kyung Lee, Caroline Kolman, Michael Sherwin, and Insightin Health Mechanical Engineering and Material Science 1st Place: MEMS-5, Enhancement of Metal 3D-Printed Respiratory Filter DesignNathan Knueppel, Frederick Wohlers, Jared Melnik, Andrew Harman, and Zach OstranderAdvisors: Marcus Chmielus and David Schmidt 2nd Place: MEMS-15, Integrating Sports into STEM Education for 6th-12th Grade Black Students: Basketball SleeveDan Quiroga, Gaby Moore and Terrell GallowayAdvisor: David Schmidt 3rd Place: MEMS-11, Development of a Robotic Work Cell for Automated Handling of Small PartsBenjamin Koo, Andrea Davis, Samuel Taylor and Gabriel DetterAdvisors: Aerotech, Stephen Ludwick, and David Schmidt Product Realization 1st Place: PR-5, Kensington Medallion RefinementAdam Grachen, Emily Hearty, Ben Somerville, and William ZhengAdvisors: Rick Winter and Marc Weber Tobias 2nd Place: PR-6, Level-Lock Reverse EngineeringRobert Brown, Jonathan Perlman, Cynthia Rosensteel, and Michael LinAdvisors: Rick Winter and Marc Weber Tobias Art of Making 1st Place: AOM-2 Link Pad: Connecting Your Loved Ones with YouDavid Herr, Spencer Zacher, Benjamin Somerville, and Elizabeth SidelnikovAdvisor: Joseph Samosky 2nd Place: AOM-1 Slide Guide: A Manual Wheelchair Seat Transfer DeviceCelia Davis, Noah Ziemba, Katelyn Spadavecchia, Michael Kugler and Ashley ZagariAdvisor: Joseph Samosky
Maggie Pavlick

Eric Beckman elected newest National Academy of Inventors Fellow from University of Pittsburgh

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PITTSBURGH (December 8, 2020) ... Eric Beckman, Distinguished Service Professor of Chemical and Petroleum Engineering in the University of Pittsburgh Swanson School of Engineering, was elected a fellow of the National Academy of Inventors 2020 cohort. Beckman is the eighth Pitt faculty member to be named an NAI Fellow, and the second with a primary appointment in the Swanson School. He has nearly 200 peer-reviewed journal articles, 26 book chapters, and receipt of 40 U.S. patents with more pending. “Eric truly is a holistic engineer who understands and exemplifies the connections between academics, research, student engagement, and lifelong learning,” noted James R. Martin II, U.S. Steel Dean of Engineering. “His dedication to imbuing sustainability throughout engineering has not only impacted our Swanson School community, but also the entire university and our many colleagues across the country. He is most deserving of this honor which represents creating new knowledge that benefits the human condition.”Beckman’s research focuses on molecular design, biomedical polymers, green product engineering, and sustainability. In 2003, shortly after he became interim chair of chemical and petroleum engineering, he co-founded the Mascaro Center for Sustainable Innovation (MCSI) through a gift from alumnus John C. “Jack” Mascaro (BSCE ’66, MSCE ’80), with the mission of catalyzing sustainability innovation and education across the University and in the region. MCSI is also co-host, with Carnegie Mellon University, of the biennial Engineering Sustainability Conference. Dr. Beckman’s research group examines the use of molecular design to solve problems in green product formulation and in the design of materials for use in tissue engineering. In 2005, he co-founded Cohera Medical Inc. to commercialize surgical adhesive technology developed at the University. Dr. Beckman took an entrepreneurial leave of absence from the University in 2007-2009 to help move the products to market. Beckman is currently leading a grant from the MacArthur Foundation and NineSigma, in collaboration with Think Beyond Plastic, to develop innovations to reduce the amount of plastics that end up being burned or buried in landfills, or make their way into the world’s waterways and oceans. Part of the foundation’s Circular Materials Challenge, the research focus has generated additional funding from the National Science Foundation for other faculty at the Swanson School engaging in circular economy issues, particularly global waste. His dedication to student learning and engagement earned funding from the Heinz Endowments to create a “Sustainable Entrepreneurship” course, followed by a three-course innovation sequence: Introduction to Business Principles; Product Design for Chemical Engineers; and Chemical Product Prototyping. Some students from these courses have successfully competed in the University’s Randall Family Big Idea Competition and launched their own startup companies. “Eric is one of the leading tissue engineering researchers in the country and his inventions in this field were groundbreaking,” added Steven R. Little, the William Kepler Whiteford Professor and Chair of Chemical and Petroleum Engineering at Pitt. “However, a true inventor is also a mentor, advisor, and colleague who shares his expertise with others and guides them toward their own creative success. For this he is truly deserving of joining the NAI.”Other NAI fellows at Pitt include: Stephen F. Badylak, DVM, PhD, MD, Professor of Surgery, Deputy Director of the McGowan Institute for Regenerative Medicine (MIRM), and Director of the Center for Pre-Clinical Tissue Engineering at MIRM (secondary appointment in Bioengineering) Rory A. Cooper, Assistant Vice Chancellor for Research for STEM-Health Sciences Collaborations, and founding director and VA senior research career scientist of the Human Engineering Research Laboratories (secondary appointment in Bioengineering) William Federspiel, Distinguished Professor of Bioengineering, and founder of ALung Technologies (secondary appointment in Chemical and Petroleum Engineering) Mir Imran, adjunct faculty in Bioengineering, Coulter Translational Research Partners II Program, and CEO of InCube Labs Rob Rutenbar, Senior Vice Chancellor for Research (joint appointments in Electrical and Computer Engineering and Computer Science) Rocky S. Tuan, Vice-Chancellor and President of The Chinese University of Hong Kong; at Pitt the former Director of the Center for Cellular and Molecular Engineering; the Arthur J. Rooney Sr. Professor and Executive Vice Chair, Department of Orthopaedic Surgery; Associate Director, McGowan Institute for Regenerative Medicine; and Director, Center for Military Medicine Research (secondary appointments in Bioengineering and Mechanical Engineering and Materials Science) William R. Wagner, Director of the McGowan Institute for Regenerative Medicine and Distinguished Professor of Surgery (secondary appointments in Bioengineering and Chemical and Petroleum Engineering) ###
Amerigo Allegretto and Paul Kovach

University of Pittsburgh Joins New DOE Cybersecurity Manufacturing Innovation Institute

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SAN ANTONIO, TX (November 19, 2020) ... The University of Texas at San Antonio (UTSA) today formally launched the Cybersecurity Manufacturing Innovation Institute (CyManII), a $111 million public-private partnership. Led by UTSA, the university will enter into a five-year cooperative agreement with the U.S. Department of Energy (DOE) to lead a consortium of 59 proposed member institutions in introducing a cybersecure energy-ROI that drives American manufacturers and supply chains to further adopt secure, energy-efficient approaches, ultimately securing and sustaining the nation’s leadership in global manufacturing competitiveness.U.S. manufacturers are one of the top targets for cyber criminals and nation-state adversaries, impacting the production of energy technologies such as electric vehicles, solar panels and wind turbines. Integration across the supply chain network and an increased use of automation applied in manufacturing processes can make industrial infrastructures vulnerable to cyber-attacks. To protect American manufacturing jobs and workers, CyManII will transform U.S. advanced manufacturing and make manufacturers more energy efficient, resilient and globally competitive against our nation’s adversaries.“The University of Pittsburgh is proud to be among the inaugural member institutions of this national effort to develop cyber security and energy research to benefit U.S. manufacturing expertise,” noted Rob A. Rutenbar,Senior Vice Chancellor for Research at Pitt. “Both our Swanson School of Engineering and School of Computing and Information at the forefront of innovations in advanced manufacturing, cyber infrastructure and security, sustainable energy, materials science and supply chain management. Our faculty are looking forward to participating in this groundbreaking institute.”“The exploitation of advanced materials and computing can provide us with a more holistic approach to secure the nation’s manufacturing infrastructure, from communication networks and assembly lines to intricate computer code and distribution systems,” added Daniel Cole, Associate Professor of Mechanical Engineering and Materials Science and co-director of the Swanson School’s Hacking for Defense program. “Just as our personal computers and cell phones are vulnerable to cyber-attacks, so too is our complex manufacturing industry. But thanks to this national effort through CyManII, we will not only be able to develop defenses but also create more sustainable and energy efficient technologies for industry.”“I am excited for the potential collaborations between our faculty and the innovations they will develop,” said David Vorp, Associate Dean for Research at the Swanson School. “We already have a healthy collaboration with faculty in the School of Computing and Information, and sustainability informs our research, academics, and operations. CyManII presents a new opportunity for us to engage in transformative, trans-disciplinary research.”As part of its national strategy, CyManII will focus on three high priority areas where collaborative research and development can help U.S. manufacturers: securing automation, securing the supply chain network, and building a national program for education and workforce development. “As U.S. manufacturers increasingly deploy automation tools in their daily work, those technologies must be embedded with powerful cybersecurity protections,” said Howard Grimes, CyManII Chief Executive Officer and UTSA Associate Vice President and Associate Vice Provost for Institutional Initiatives. “UTSA has assembled a team of best-in-class national laboratories, industry, nonprofit and academic organizations to cybersecure the U.S. manufacturing enterprise. Together, we will share the mission to protect the nation’s supply chain, preserve its critical infrastructure and boost its economy.”CyManII’s research objectives will focus on understanding the evolving cybersecurity threats to greater energy efficiency in manufacturing industries, developing new cybersecurity technologies and methods, and sharing information and knowledge with the broader community of U.S. manufacturers.CyManII aims to revolutionize cybersecurity in manufacturing by designing and building a secure manufacturing architecture that is pervasive, unobtrusive and enables energy efficiency. Grimes says this industry-driven approach is essential, allowing manufacturers of all sizes to invest in cybersecurity and achieve an energy ROI rather than continually spending money on cyber patches.These efforts will result in a suite of methods, standards and tools rooted in the concept that everything in the manufacturing supply chain has a unique authentic identity. These solutions will address the comprehensive landscape of complex vulnerabilities and be economically implemented in a wide array of machines and environments.“CyManII leverages the unique research capabilities of the Idaho, Oak Ridge and Sandia National Laboratories as well as critical expertise across our partner cyber manufacturing ecosystem,” said UTSA President Taylor Eighmy. “UTSA is proud and honored to partner with the DOE to advance cybersecurity in energy-efficient manufacturing for the nation.”CyManII has 59 proposed members including three Department of Energy National Laboratories (Idaho National Laboratory, Oak Ridge National Laboratory, and Sandia National Laboratories), four Manufacturing Innovation Institutes, 24 powerhouse universities, 18 industry leaders, and 10 nonprofits. This national network of members will drive impact across the nation and solve the biggest challenges facing cybersecurity in the U.S manufacturing industry.CyManII is funded by the Office of Energy Efficiency and Renewable Energy’s Advanced Manufacturing Office (AMO) and co-managed with the Office of Cybersecurity, Energy Security, and Emergency Response (CESER). ------ Learn more about the Cybersecurity Manufacturing Innovation Institute.
Author: EmilyGuajardo, CyManII Communications Manager

Swanson School Stent Technologies Clinch Wells Competition Awards

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PITTSBURGH (Nov. 9, 2020) … Two Swanson School of Engineering projects received awards at the University of Pittsburgh Innovation Institute’s Wells Healthcare Competition, which provides funding for students who are developing innovations related to the health care field. Moataz Elsisy, a PhD student in the Department of Industrial Engineering, received an award for the Organ Perfusion Stent (OPS), an innovative endovascular device that seeks to increase the availability of healthy donor organs for transplant surgery. Elsisy works in the Medical Device Manufacturing Laboratory led by Youngjae Chun, associate professor of Industrial Engineering at Pitt. The lab’s unique device targets patients who die from heart failure. “These donors may still have healthy organs in the torso, such as the liver, kidney or pancreas,” Elsisy explained, “but the effects of heart disease may affect blood flow and damage these potentially life-saving organs.” The OPS aims to minimize cardiac burden by separating aortic blood flow into two different chambers -- one for cardiac flow and another for oxygenated blood flow from an extracorporeal membrane oxygenation (ECMO) system. The device would significantly increase the number of available organs from the cardiac death donors, eliminating any potential organ blood shortage complications. “Our device increases the number of available healthy organs to those who are in desperate need for transplantation,” said Elsisy. “The device will save health care costs up to $1.2 million per donor. A single donor can take two patients off dialysis, one patient off insulin, and one patient out of the hospital for liver failure.” He adds that the device can also enhance the quality of life for transplant receivers, as they will not require daily insulin injections or dialysis several times a week. The second award went to Sneha Jeevan, a bioengineering senior, who works in the Soft Tissue Biomechanics Laboratory led by Jonathan Vande Geest, professor of bioengineering at Pitt. Their device hopes to address complications related to the treatment of peripheral artery disease. “Peripheral artery disease is a common circulatory problem in which narrowed arteries reduce blood flow to your limbs,” explained Jeevan. “It has become an increasingly serious public health issue, with 236 million people ages 40 and older world-wide being affected. It also has a large monetary cost, with insurance companies and private payers paying $21 billion annually to cover costs, including medication, physical therapy, and device reintervention.” While stents can be used to treat the disease, these devices are not compatible with small arteries and often renarrow, particularly across joints, after they are implanted. The winning project, Biocarpet, is a flexible, drug-eluting, and biodegradable endovascular device that they hope will provide a solution to the current limitations in stent technology. The Biocarpet combines a blend of biocompatible polymers and special thermoforming techniques that allow it to conform to any complex vascular anatomy. This advantage will reduce device kinking and restenosis, both of which occur frequently when treating PAD with current stent technologies. “The Biocarpet’s biopolymer conformability and improved delivery method act as key differentiating factors, which will allow for reduced reintervention rates and improved patient outcomes for PAD,” Jeevan added. “Once the device is established as an effective treatment for PAD, it can potentially be used in other cardiovascular diseases, changing the way that hospitals treat arterial disease and giving patients the best possible treatment while minimizing costs.” # # #

Monitoring Coronary Artery Disease in Real-time

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PITTSBURGH (Sept. 28, 2020) … Coronary artery disease – a leading cause of death in the US – narrows or blocks arteries that carry a vital supply of blood, oxygen, and nutrients to the heart. A stent can be inserted to widen the artery, but these devices must be closely monitored to ensure that they do not re-narrow, a common complication called restenosis. Youngjae Chun, PhD, associate professor of industrial engineering and bioengineering at the University of Pittsburgh’s Swanson School of Engineering, will lead a study to develop an electronic stent that can be implanted in a minimally invasive procedure and measure significant physiological changes with the development of restenosis. The device will provide real-time monitoring to help prevent subsequent heart attack or stroke. The project, funded by the National Institutes of Health, is in collaboration with W. Hong Yeo, PhD, assistant professor of mechanical engineering at Georgia Tech and John Pacella, MD, cardiologist at UPMC, who also holds a secondary appointment in bioengineering. This work is a continuation of the group’s 2019 Innovative Project Award from the American Heart Association. “Though similar devices already exist, they are typically bulkier and do not work as effectively with the growth of artery tissue,” said Chun. This new device has an ultra-low profile sensor, which allows it to work without a battery and wirelessly monitor the restenosis progress. They believe that this device can easily integrate with commercially available stents without disturbing its functionality. With this design, users will be able to see real-time data on a smart device, rather than scheduling endless follow-up visits to the doctor. The group will use computational modeling and calculation to carefully design the device, and then it will then be fabricated using a novel nanoscale printing technique. Once it is developed, they will evaluate the design in vitro to determine its functionality with a stent. Previous sensors are only able to monitor stents for a few days or weeks after the implant procedure, but their design will be able to continuously monitor, providing a unique, long-term solution. Chun said, “This kind of translational research is a strength of the University of Pittsburgh, and we hope that this technology can eventually be expanded to other endovascular devices where specific physiological changes in our vascular system are a factor in the remodeling process.” # # #

Pitt’s Center for Medical Innovation awards three novel biomedical projects with $60,000 in Round 1 2020 Pilot Funding

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PITTSBURGH (July 1, 2020) … The University of Pittsburgh’s Center for Medical Innovation (CMI) awarded grants totaling $60,000 to three research groups through its 2020 Round-1 Pilot Funding Program for Early Stage Medical Technology Research and Development. The latest funding proposals include a virus-resistant wear-resistant textile, a system for removal of cell-free plasma hemoglobin in extracorporeal therapies, and a biocontainment unit for reducing viral transmission to healthcare workers and patients 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. Proposals are evaluated on the basis of 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 eighth 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: “Wash-Stable and Mechanically Durable Anti-Virofouling Medical Textiles”For the development of a nanoparticle-based reusable textile for use in healthcare settings. Paul W. Leu, PhD;  Associate Professor of Industrial Engineering, Swanson School of EngineeringRobert Shanks , PhD  Associate Professor of Ophthalmology, UPMC                                                 Eric Romanowski, MS,  Research Director, Charles T. Campbell Laboratory of Ophthalmic Microbiolog AWARD 2: “Targeted removal of cell-free plasma hemoglobin in extracorporeal therapies” For an extracorporeal hemoperfusion device that removes plasma hemoglobin from a blood column using treated porous beads. Nahmah Kim-Campbell, MD, MS, Assistant Professor of Critical Care Medicine and PediatricsWilliam Federspiel, PhD; Professor of Bioengineering, Swanson School of EngineeringRyan Orizondo, PhD  Researcher in Bioenengineering, Swanson School of Engineerin AWARD 3: “Individual Biocontainment Unit for Reducing Viral Transmission to healthcare Workers and Patients”For the expedited development, approval and manufacture of a novel device for use with ICU patients to reduce contamination by aerosolized particles. David M. Turer, MD, MS Department of Plastic Surgery, UPMCHeng Ban, PhD; Professor Mechanical Engineering and Material Science, Swanson School of EngineeringJ.Peter Rubin, MD;  Chairman, Dept of Plastic Surgery, UPMC # # # About the University of Pittsburgh Center for Medical Innovation The Center for Medical Innovation is a collaboration among the Swanson School of Engineering, the Clinical and Translational Science Institute (CTSI), the Innovation Institute, and the Coulter Translational Research Partnership II (CTRP). CMI was established in 2012 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 70 early-stage projects have been supported by CMI with a total investment of over $1.4 million since inception.

The Department of Energy Awards $1.9M to Swanson School Faculty and Students for Nuclear Energy Research

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PITTSBURGH (July 2, 2020) … Humankind is consuming more energy than ever before, and with this growth in consumption, researchers must develop new power technologies that will address these needs. Nuclear power remains a fast-growing and reliable sector of clean, carbon-free energy, and four researchers at the University of Pittsburgh received awards to further their work in this area. The U.S. Department of Energy (DOE) invested more than $65 million to advance nuclear technology, announced June 16, 2020. Pitt’s Swanson School of Engineering received a total of $1,868,500 in faculty and student awards from the DOE’s Nuclear Energy University Program (NEUP). According to the DOE, “NEUP seeks to maintain U.S. leadership in nuclear research across the country by providing top science and engineering faculty and their students with opportunities to develop innovative technologies and solutions for civil nuclear capabilities.” “Historically, our region has been a leader in the nuclear energy industry, and we are trying to keep that tradition alive at the Swanson School by being at the forefront of this field,” said Heng Ban, Richard K. Mellon Professor of Mechanical Engineering and director of the Swanson School’s Stephen R. Tritch Nuclear Engineering Program. “I’m thrilled that the Department of Energy has recognized the innovative work from our faculty, and I look forward to seeing the advancements that arise from this research.” The DOE supported three projects from the Swanson School. High Temperature Thermophysical Property of Nuclear Fuels and MaterialsPI: Heng Ban, Richard K. Mellon Professor of Mechanical Engineering, Director of Stephen R. Tritch Nuclear Engineering Program$300,000 Ban, a leading expert in nuclear material thermal properties and reactor instrumentation and measurements, will use this award to enhance research at Pitt by filling an infrastructure gap.  He will purchase key equipment to strengthen core nuclear capability in the strategic thrust area of instrumentation and measurements. A laser flash analyzer and a thermal mechanical analyzer (thermal expansion) will be purchased as a tool suite for complete thermophysical property information. Fiber Sensor Fused Additive Manufacturing for Smart Component Fabrication for Nuclear Energy PI: Kevin Chen, Paul E. Lego Professor of Electrical and Computer EngineeringCo-PI: Albert To, William Kepler Whiteford Professor of Mechanical Engineering and Materials Science$1,000,000 The Pitt research team will utilize unique technical capabilities developed in the SSoE to lead efforts in sensor-fused additive manufacturing for future nuclear energy systems. Through integrated research efforts in radiation-harden distributed fiber sensor fabrication, design and optimization algorithm developments, and additive manufacturing innovation, the team will deliver smart components to nuclear energy systems to harness high spatial resolution data. This will enable artificial intelligence based data analytics for operation optimization and condition-based maintenance for nuclear power systems. Multicomponent Thermochemistry of Complex Chloride Salts for Sustainable Fuel Cycle TechnologiesPI: Wei Xiong, assistant professor of mechanical engineering and materials scienceCo-PIs: Prof. Elizabeth Sooby Wood (University of Texas at San Antonio), Dr. Toni Karlsson (Idaho National Laboratory), and Dr. Guy Fredrickson (Idaho National Laboratory)$400,000 Nuclear reactors help bring clean water and reliable energy to communities across the world. Next-generation reactor design, especially small modular reactors, will be smaller, cheaper, and more powerful, but they will require high-assay low-enriched uranium (HALEU) as fuel. As the demand for HALEU is expected to grow significantly, Xiong’s project seeks to improve the process of recovering uranium from spent nuclear fuels to produce HALEU ingots. Part of the process involves pyrochemical reprocessing based on molten salt electrolysis. Hence, developing a thermodynamic database using the CALPHAD (Calculation of Phase Diagrams) approach to estimate the solubilities of fission product chloride salts into the molten electrolyte is essential for improving the process efficiency. The results will help in estimating the properties that are essential for improving the HALEU production and further support the development of chloride molten salt reactors. Two Swanson School students also received awards from NEUP. Jerry Potts, a senior mechanical engineering student, received a $7,500 nuclear energy scholarship, one of 42 students in the nation. Iza Lantgios (BS ME ‘20), a matriculating mechanical engineering graduate student, was one of 34 students nationwide to be awarded a $161,000 fellowship. Swanson School students have secured 20 NEUP scholarships and fellowships since 2009. # # #

New bacteria-repelling textile coating could make PPE last longer

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Listen to the broadcast at WESA-FM. New bacteria-repelling textile coating could make PPE last longer(8:48 — 13:20) The need for masks, gowns, and other personal protective equipment for health care workers and those on the front lines of the coronavirus outbreak has soared over the last few months, leading to shortages across the country. When the masks and gowns are reused, the textiles used to make them can absorb and carry viruses and bacteria resulting in the spread of the very diseases the wearer was trying to contain. Paul Leu, an associate professor in Industrial Engineering at the University of Pittsburgh, and Anthony Galante, a 4th year Ph.D. student in the same department are working on a textile coating that could help solve some of these problems that have been magnified by the coronavirus pandemic. Leu says the coating repels liquids like blood and saliva, along with some viruses. “Even though we haven’t tested it directly on SARS-CoV-2, we do think that it is likely to be able to repel this because SARS-CoV-2 is transmitted through respiratory droplets and the coating can repel droplets from saliva,” says Leu. Despite the technology’s potential promise, he says it’s difficult to predict when this technology might become available. “We need to be very careful about accelerating development of materials for actual application,” Leu tells The Confluence. “There’s an urgency to all of this right now, and that’s why we want to try to get this out quickly, but we also want to make sure, you know, that this is something that will really be useful.”
Kevin Gavin, 90.5 WESA-FM

Pitt Researchers Create Durable, Washable Textile Coating That Can Repel Viruses

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PITTSBURGH (May 13, 2020) — Masks, gowns, and other personal protective equipment (PPE) are essential for protecting healthcare workers. However, the textiles and materials used in such items can absorb and carry viruses and bacteria, inadvertently spreading the disease the wearer sought to contain. When the coronavirus spread amongst healthcare professionals and left PPE in short supply, finding a way to provide better protection while allowing for the safe reuse of these items became paramount. Research from the LAMP Lab at the University of Pittsburgh Swanson School of Engineering may have a solution. The lab has created a textile coating that can not only repel liquids like blood and saliva but can also prevent viruses from adhering to the surface. The work was recently published in the journal ACS Applied Materials and Interfaces. “Recently there’s been focus on blood-repellent surfaces, and we were interested in achieving this with mechanical durability,” said Anthony Galante, PhD student in industrial engineering at Pitt and lead author of the paper. “We want to push the boundary on what is possible with these types of surfaces, and especially given the current pandemic, we knew it’d be important to test against viruses.” What makes the coating unique is its ability to withstand ultrasonic washing, scrubbing and scraping. With other similar coatings currently in use, washing or rubbing the surface of the textile will reduce or eliminate its repellent abilities. “The durability is very important because there are other surface treatments out there, but they’re limited to disposable textiles. You can only use a gown or mask once before disposing of it,” said Paul Leu, co-author and associate professor of industrial engineering, who leads the LAMP Lab. “Given the PPE shortage, there is a need for coatings that can be applied to reusable medical textiles that can be properly washed and sanitized.” Galante put the new coating to the test, running it through tens of ultrasonic washes, applying thousands of rotations with a scrubbing pad (not unlike what might be used to scour pots and pans), and even scraping it with a sharp razor blade. After each test, the coating remained just as effective. The researchers worked with the Charles T. Campbell Microbiology Laboratory’s Research Director Eric Romanowski and Director of Basic Research Robert Shanks, in the Department of Ophthalmology at Pitt, to test the coating against a strain of adenovirus. “As this fabric was already shown to repel blood, protein and bacteria, the logical next step was to determine whether it repels viruses. We chose human adenovirus types 4 and 7, as these are causes of acute respiratory disease as well as conjunctivitis (pink eye),” said Romanowski. “It was hoped that the fabric would repel these viruses similar to how it repels proteins, which these viruses essentially are: proteins with nucleic acid inside. As it turned out, the adenoviruses were repelled in a similar way as proteins.” The coating may have broad applications in healthcare: everything from hospital gowns to waiting room chairs could benefit from the ability to repel viruses, particularly ones as easily spread as adenoviruses. “Adenovirus can be inadvertently picked up in hospital waiting rooms and from contaminated surfaces in general. It is rapidly spread in schools and homes and has an enormous impact on quality of life—keeping kids out of school and parents out of work,” said Shanks. “This coating on waiting room furniture, for example, could be a major step towards reducing this problem.” The next step for the researchers will be to test the effectiveness against betacoronaviruses, like the one that causes COVID-19. “If the treated fabric would repel betacornonaviruses, and in particular SARS-CoV-2, this could have a huge impact for healthcare workers and even the general public if PPE, scrubs, or even clothing could be made from protein, blood-, bacteria-, and virus-repelling fabrics,” said Romanowski. At the moment, the coating is applied using drop casting, a method that saturates the material with a solution from a syringe and applies a heat treatment to increase stability. But the researchers believe the process can use a spraying or dipping method to accommodate larger pieces of material, like gowns, and can eventually be scaled up for production. The paper, “Superhemophobic and Antivirofouling Coating for Mechanically Durable and Wash-Stable Medical Textiles” (DOI: 10.1021/acsami.9b23058), was co-authored by Anthony Galante, Sajad Haghanifar, Eric Romanowski, Robert Shanks and Paul Leu.
Maggie Pavlick

ExOne and Pitt Collaborate to Produce Promising Reusable Respirators with 3D Printed Metal Filters

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News release originally published by ExOne. Reposted with permission. PITTSBURGH (April 27, 2020) ... The ExOne Company and the University of Pittsburgh have partnered to develop reusable metal filters that fit into a specially designed respirator cartridge for sustainable, long-term protection against contaminants, such as COVID-19. ExOne’s binder jetting technology is a high-speed form of 3D printing that can produce metal parts with specific porosity levels that can effectively filter out contaminants while allowing airflow. ExOne has 3D printed respirator filters in two metals — copper and 316L stainless steel — and a range of porosity levels for use inside a unique cartridge designed by the Mechanical Engineering & Materials Science department in Pitt’s Swanson School of Engineering. Initial testing for airflow and filtration efficiency is currently underway, and the filters are being optimized with the goal of adhering to an N95 respirator standard. “Our team has been working urgently to expedite this promising and reusable solution for medical personnel on the frontlines of fighting the COVID-19 pandemic,” said John Hartner, ExOne CEO. “Our customers routinely print porous metal filters for a variety of purposes, and we are confident that we’ll have a solution soon that can enable medical personnel to sterilize metal filters for repeated reuse, eliminating waste. Once approved, we can print these filters in a variety of sizes for respirators, ventilators, anesthesia masks or other equipment.” “The advantage of binder jet 3D printing over other additive manufacturing methods for this filter application is the ability to utilize the porosity of the printed part and then fine tune it during the high temperature densification or sintering process to achieve optimum filtering and airflow performance,” said Markus Chmielus, Associate Professor of Mechanical Engineering and Materials Science at the Swanson School. 3D Printed Metal Filter Project Details ExOne’s binder jetting technology uses an industrial printhead to selectively deposit a liquid binder onto a thin layer of powdered material, layer by layer, until a final object is formed. After 3D printing powdered metals, the object is then sintered in a furnace to dial in a specific level of porosity. While binder jetted metal is typically sintered to full density, some applications require a specific level of porosity, such as filters. To test filters in different metals and porosities, Dr. Chmielus’ research group is using CT scanners to analyze the microstructure and porosity of the filters. Ansys, the global leader in engineering simulation, also based near Pittsburgh, is providing additional computer simulation support to analyze and optimize the performance of the filters. While copper and stainless steel filters are currently being tested, copper has been known to have antibacterial properties since ancient times. The first recorded use of copper to kill germs was in the Edwin Smith Papyrus, the oldest known medical document in history, according to the Smithsonian. Many studies have proven copper’s disinfectant powers. One landmark 2015 study, funded by the Department of Defense, revealed that copper alloys contributed to a 58% reduction in infections. COVID-19 research also suggests the virus dies faster on copper than on other surfaces. ###
Author: Sarah Webster, ExOne Global Marketing Director

Two Swanson School Projects Win University of Pittsburgh Scaling Grants

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PITTSBURGH (April 6, 2020) — Two projects from the Swanson School of Engineering have received University of Pittsburgh Scaling Grants.The first, tackling the global problem of plastic waste, is headed by Eric Beckman, PhD, Bevier Professor of Chemical and Petroleum Engineering and co-director of the Mascaro Center for Sustainable Innovation. The second project, which will support the push for artificial intelligence innovation in medical imaging, was also awarded a Scaling Grant and is led by Shandong Wu, PhD, associate professor in the Department of Radiology. The Scaling Grants provide $400,000 over two years to support detailed project planning, gathering proof-of-concept results, and reduction of technical risk for teams pursuing an identified large extramural funding opportunity. The Scaling Grants are part of the University’s Pitt Momentum Funds, which offer funding across multiple stages of large, ambitious projects. Addressing the Global Waste Challenge The problem of plastic waste is growing on a global scale, with an annual global production rate of more than 500 million tons per year and predicted to triple by 2036. The project, “Attacking the Global Plastics Waste Problem,” seeks to create a convergent academic center welcoming expertise from across the University that will focus on the circular economy as a solution. “For most new technologies, one group creates the technology in the lab as a pilot, then at full scale. The group launches it, and only later decides if there are environmental and/or policy and/or legal issues,” says Beckman. “We're proposing to do these analyses in parallel, so that each section of the work informs the others. Further, the technology we are proposing to develop is a mixture of chemical engineering, chemistry, and materials science.” The interdisciplinary team will take advantage of its deep expertise in both the science of plast ics recycling and the legal and governance frameworks that will help governments implement a circular economy for plastics. In addition to Beckman, the team consists of Melissa Bilec, PhD, Roberta A. Luxbacher Faculty Fellow, associate professor in civil and environmental engineering (CEE), and deputy director of MCSI; Vikas Khanna, PhD, Wellington C. Carl Faculty Fellow and associate professor in CEE and Chemical and Petroleum Engineering; Gotz Veser, PhD, professor in chemical and petroleum engineering; Peng Liu, PhD, associate professor in the Department of Chemistry; Amy Wildermuth, professor and dean of the University of Pittsburgh School of Law; and Joshua Galperin, visiting associate professor in the School of Law. “Recycling can only do so much. A circular economy framework is a promising solution to the complex, urgent problem that plastic pollution presents,” says Bilec, who is part of a five-university team that received a two-year National Science Foundation grant for $1.3 million to pursue convergence research on the circular economy as a plastic waste solution. “Our proposed center will integrate the science and engineering of plastics recycling, using a novel approach on both the recycling and manufacturing sides, into frameworks tracking its environmental and economic impact.” Applying Artificial Intelligence to Medical Research The second project to receive a Scaling Grant is the “Pittsburgh Center for Artificial Intelligence Innovation in Medical Imaging,” a collaboration between the Departments of Radiology, Bioengineering, Biomedical Informatics, and Computer Science. This work, led by Wu, aims to use artificial intelligence (AI) to reshape medical imaging in radiology and pathology. Through the Pittsburgh Health and Data Alliance, the region is already at work using machine learning to translate “big data” generated in health care to treatments and services that could benefit human health. "The advancement in AI, especially in deep learning, provides a powerful approach for machine learning on big healthcare data,” said Wu. “Deep learning enables large-scale data mining with substantially increased accuracy and efficiency in data analysis." The multidisciplinary research team will work to develop AI imaging methodology and translational applications with the ultimate goal of creating tools that are clinically useful, accurate, explainable and safe. “AI can substantially improve quantitative analysis to medical imaging data and computational modeling of clinical tasks using medical images for disease diagnosis and outcome prediction," explained Wu. David A. Vorp, associate dean for research and John. A. Swanson Professor of Bioengineering, will help facilitate this collaboration in engineering. “Artificial intelligence nicely complements bioengineering and medical research,” said Vorp. “My lab uses AI with CT scans to help predict the prognosis and improve treatment of aortic aneurysm, and that is just one example of how this cutting-edge technology can be applied to medical images. Rather than relying on the naked eye, we can use AI to analyze these images and have a more sensitive detector to identify disease, improve health and save lives.” The group’s long-term vision is to combine the computational expertise and clinical resources across Pitt, UPMC and Carnegie Mellon University to build a center for innovative AI in clinical translational medical imaging. ###
Maggie Pavlick and Leah Russell

Developing A Valve for Developing Hearts

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PITTSBURGH (March 10, 2020) — Approximately one in every 125 babies in the U.S. is born with a congenital heart defect (CHD), making it the country’s most common birth defect. Heart valves developed for adults have been used on infants to treat CHDs, but the large devices sometimes require open heart surgery, presenting a severe risk to infants and young children. Additionally, infants and children grow quickly, but the artificial valve does not, resulting in repeated surgeries that increase risks. To address this issue, Youngjae Chun, PhD, an associate professor of industrial engineering and bioengineering at the University of Pittsburgh, is developing a new type of metallic frame for pediatric heart valves that could not only be placed by a minimally invasive catheter-based procedure but would also grow with the child, eliminating the need for follow-up surgeries. The project recently received an award of $120,000 from the Children’s Heart Foundation’s Liam Ward Fund. “Using a heart valve developed for an adult on an infant or young child is considered an emerging technology, but they’re bulky and typically require open heart surgery. Often, these patients are already too weak or ill to undergo such major surgery,” explains Chun. “Our goal is to develop a novel metallic valve frame that would eliminate the need for multiple heart surgeries and their associated hospital stays, and one that would actually grow with the patient.” The proposed new valve will use two types of novel metallic biomaterials: superelastic nitinol and biodegradeable metals like magnesium and iron. Nitinol, an alloy of nickel and titanium, is known for its ability to flex and return to its original shape. This flexibility allows the valve to be compressed and placed by a small catheter inserted into a vein, rather than through open heart surgery, presenting much less risk to the patient. Magnesium and iron, on the other hand, would degrade over time, giving the valve the ability to change and expand with the surrounding heart tissue as the patient grows. “No one wants to see their child go through multiple surgeries before they’re even able to walk, but that’s the reality for thousands of families every year,” says Chun. “With improved devices for these young patients, we can give them a better quality of life and give their parents greater peace of mind.” If the project proves to be successful, Chun will be collaborating with William Wagner, PhD, director of Pitt’s McGowan Institute for Regenerative Medicine, and Antonio D’Amore, PhD, research assistant professor in the departments of Surgery and Bioengineering, to develop it further. The grant began on Jan. 1, 2020, and will last two years.
Maggie Pavlick

Pitt’s Center for Medical Innovation awards three novel biomedical projects with $47,500 in Round 2 2019 Pilot Funding

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PITTSBURGH (January 31, 2020) … The University of Pittsburgh’s Center for Medical Innovation (CMI) awarded grants totaling $47,500 to three research groups through its 2019 Round-2 Pilot Funding Program for Early Stage Medical Technology Research and Development. The latest funding proposals include a system for preservation of explanted hearts used in transplantation surgery, a new vascular stent with anti-thrombogenic capability, and a rugged, infection resistant material for orthopedic implants. 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. Proposals are evaluated on the basis of 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 eighth 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: “A Structurally and Mechanically Tunable Biocarpet for Peripheral Arterial Disease” For the development of a material and method of deployment of specialized materials that coat the inner lumen of synthetic vascular grafts. The coating will greatly improve the viability and anti-thrombogenic properties of long stent grafts which overlap flexible joints. Jonathan P. Vande Geest, PhD, Professor of Bioengineering, Swanson School of Engineering William R. Wagner, PhD, Professor of Surgery and Bioengineering, Surgery, McGowan Institute for Regenerative Medicine Dr. John J. Pacella, MD, Assistant Professor in the School of Medicine, UPMC AWARD 2: “Ex-Vivo Heart Perfusion System for Human Heart Support, Resuscitation, and Physiologic Testing” For the development of a system for preservation of explanted donor hearts suitable for transplantation. Includes means to verify the heart’s mechanical and biological viability to improve recipient response. Christopher Sciortino, MD, PhD; Dept of Cardiothoracic Surgery; UPMC Harvey S. Borovetz, PhD; Dept of Bioengineering; Swanson School of Engineering Rick Shaub, PhD; UPMC Artificial Heart Program; UPMC Garrett Coyan, MD, Dept of Cardiothoracic Surgery; UPMC AWARD 3: “In Vivo Efficacy of an Antibacterial and Biocompatible Polymeric Nanofilm on Titanium Implants” For the development of biocompatible, anti-biofilm coatings for orthopedic use, especially in children. Houssam Bouloussa, MD, MS,  Pediatric Orthopedic Surgery, Children’s Hospital of Pittsburgh Michael McClincy, MD, Assistant Professor, Department of Orthopedic Surgery, UPMC Prashant Kumta, PhD, Professor of Bioengineering, Swanson School of Engineering ### About the University of Pittsburgh Center for Medical Innovation The Center for Medical Innovation is a collaboration among the Swanson School of Engineering, the Clinical and Translational Science Institute (CTSI), the Innovation Institute, and the Coulter Translational Research Partnership II (CTRP). CMI was established in 2012 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 70 early-stage projects have been supported by CMI with a total investment of over $1.4 million since inception.
Alan Hirschman, PhD, Executive Director, CMI

Teaching heroes: School of Engineering’s Jacobs inspires students to care more

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Originally posted in in the University Times: https://www.utimes.pitt.edu/news/teaching-heroes-school In his classroom, engineering faculty member Tevis Jacobs is one animated presenter. He speaks rapidly and enthusiastically while adding diagrams to clear overlays on two screens of slides projected onto the white board.  The course is “Mechanical Behavior of Materials,” which examines how things bend and break, down to their atomic structures. Today’s class encompasses the concepts of “work hardening,” “twinning,” and nickel-based super alloys (“You guys know that is my favorite topic,” Jacobs says). He adds a bunch of equations to the board to illustrate a concept. “I would never expect you to memorize that on a test,” he says. “I would absolutely expect you to understand where it came from.” Jacobs pauses to point his students toward the Carnegie Museum of Natural History’s crystal display, with its illustration of growth twins — one crystal structure at one orientation, attached to another at a different orientation. “You’ve got to go,” he says. As students in Jacobs’ department (mechanical engineering and materials science), “you will enjoy it way more than normal people,” he says. He sets pairs of students loose on a question about “dislocation interactions,” and patrols the room as their debates begin. “I heard some good discussions. Who has an idea?” he says. “Don’t be afraid to be wrong. And there are multiple answers.” He hovers over one pair, listening. “I agree with you,” he says finally. “What would be the ramifications of that?” The pair give their answer. “Maybe. Maybe. But why?” he asks. Jacobs joined the faculty of the Swanson School of Engineering in fall 2015, teaching this undergraduate class and another on experimental techniques, and offering one on tribology — the study of friction, wear and lubrication of sliding surfaces — to graduate students. “I’ve always wanted to understand how the world works,” Jacobs says. “Mechanical engineering and materials science: what I like about them is that they are all around us. We are constantly interacting with objects, seeing how they perform. I like the idea of making them better in the future … but the current goal is (studying) ‘Why did this thing happen in this way?’ “What I love,” he adds, “especially in the classes I’m teaching now: we can answer that.” But answers don’t always come easily to students. “We learn through struggle,” Jacobs says. “When I think about my own learning, that has been true.” In high school and college, he learned calculus and how to solve differential equations —absorbing the content “without really internalizing the ‘why’ and the ‘how,’ ” he says. Then in grad school, faced with real-world problems, “all of a sudden I was not able to link it to the coursework I had taken. I almost had to re-teach myself the calculus. I thought I understood it before that. When I went through this — then I got it: Oh, that is what they were trying to teach me.” To make “struggle” educational, a classroom lesson “has to be hard, but (students) have to care,” Jacobs explains. “It’s easy to make this hard; you want to make it hard with purpose. I’m still constantly refining that.” What works, he says, is “being honest with the students … acting like you’re all on the same side: Here is the best way for your group to take in information, and here is the best way for all of us as a team to do that.” One way to may sure students care about engineering lessons is to give them real-world problems, such as how to design a bridge, or how to tell when a mountain-climbing rope or a solar cell will fail? “In the classroom … there is an impact on the world. If you inspire that student to be excited about a topic or to be inspired about learning in the future, that has an impact.” He also tries to instill a passion for the communication of science, since these students will likely be using scientific writing in the future. “The doing of science is either useless or far less useful if it is not effectively communicated,” both inside the scientific community and to the world at large, he says. “No matter where our students go, they will need to effectively communicate technical information. I see that as one of the most important skills I want them to get out of their undergraduate experience.” Jacobs recalls a moment from the spring 2019 semester that showed his ideas were working. He had given students the last 20 minutes of class to work on a real-world problem. When it was time to go, class members asked if they could stay and keep working — “even though this is ungraded,” Jacobs marveled. Most of the class stayed and were kicked out only when another group of students arrived for a class in the same room. “That felt like I was doing something right,” Jacobs says. “It was both hard, and they cared.”

Manipulating the Meta-Atom

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Reposted from Swanson School of Engineering - https://www.engineering.pitt.edu/News/2019/Ravi-Shankar-NSF-Metamaterials/ Metamaterials are a unique class of intricate composites engineered to interact with electromagnetic radiation – such as light – in ways that go beyond conventional materials. By designing their structure at the nanometer scale, such materials can steer, scatter and rotate the polarization of the light in unusual ways. Realizing their full potential in sectors like consumer electronics, bioimaging or defense, requires the ability to manipulate their intricate structure. This presents a daunting challenge – how to manipulate the nanoscale meta-atoms making up metamaterials to then manipulate light? Thanks to a combined $1.7 million from the National Science Foundation, a research group led by faculty at the University of Pittsburgh’s Swanson School of Engineering hope to utilize “meta-atoms” to fine-tune metamaterials with light and in turn, control how they interact with the light itself. The projects are funded through the NSF’s Designing Materials to Revolutionize and Engineer our Future (DMREF) program. “Consider something like photochromatic lenses, which have a simple reaction of darkening when exposed to ultraviolet light, and then lighten when you return indoors,” explained M. Ravi Shankar, principal investigator and professor of industrial engineering at the Swanson School. “Instead, if we harness the light to physically manipulate arrays of nano-scale structures we call meta-atoms, we can program much more complex responses.”Because of the complexity of the problem, Dr. Shankar assembled a multi-disciplinary team from three other universities: Mark Brongersma, professor of materials science and engineering at Stanford University;  Robert P. Lipton, the Nicholson Professor of Mathematics at Louisiana State University; Hae Young Noh, assistant professor and Kaushik Dayal, professor of civil and environmental engineering at Carnegie Mellon University. The team hopes to discover new classes of dynamically programmable metamaterials using theories of plasmonic structures, which are aided by machine-learning algorithms. These will feed into experimental efforts to fabricate these structures. Ultimately, the team envisions demonstrating a range of optical components, including beam steering devices, wave-front shaping systems and polarization converters, which are organized and controlled at the nanometer-scale. This would make them orders-of-magnitude more compact than conventional optical systems. Furthermore, these devices will be powered directly using light itself, without relying on electronics or on-board power sources. This opens a pathway for integrating these compact optical elements in applications ranging from autonomous vehicles, biomedicine and communication devices.

Youngjae Chun Receives American Heart Association’s 2020 Innovative Project Award

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Copied from Swanson School of Engineering: https://www.engineering.pitt.edu/News/2019/Youngjae-Chun-Receives-AHA-Award/ Coronary artery disease is a leading cause of death in the U.S., with about 370,000 Americans dying from the disease each year. Stents are a life-saving procedure used to prop open narrowing blood vessels; however, over time, tissue can regrow into the mesh stent and cause the artery to narrow again, putting the patient at risk. Knowing that regrowth is happening as soon as possible is crucial in saving the patient’s life, but monitoring is a challenge. Youngjae Chun, PhD, associate professor of industrial engineering and bioengineering at the University of Pittsburgh’s Swanson School of Engineering, has received a funding award from the American Heart Association for his project creating a stent that will use sensors to monitor for signs of restenosis and alert the patient’s doctor without the need for endless follow-up visits. Dr. Chun’s project has been selected by the American Heart Association for its 2019 Innovative Project Award, which supports highly innovative, high-impact research that could lead to major advancements and discoveries that accelerate cardiovascular and cerebrovascular research. The award includes a total of $200,000 over two years and began on July 1, 2019. “Stenting to treat coronary artery disease is a well-established and widely used interventional procedure. This new stent will minimize the follow-up imaging procedures that can be inconvenient, expensive, and sometimes invasive for the patient,” says Dr. Chun. “Our device would continuously monitor restenosis providing valuable information to the patients.” This project will be conducted through a multidisciplinary collaboration with W. Hong Yeo, PhD, assistant professor of Department of Mechanical Engineering at Georgia Tech and John Pacella, MD, cardiologist at UPMC. “Real-time surveillance would be critical for the patient whose stented blood vessels are re-narrowing, putting them at risk for heart attack or stroke,” says Dr. Chun. “The device would provide critical information directly to patients and their doctors and could potentially save many lives.”

Pitt Engineers Receive $1 Million to Develop Better Quality Control for 3D Printing Turbine Components

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Originally printed in Swanson Engineering: https://www.engineering.pitt.edu/News/2019/DOE-Grant-for-3D-Printed-Turbine-Components/ The U.S. Department of Energy, through its University Turbine Systems Research program, has awarded researchers at the University of Pittsburgh’s Swanson School of Engineering $802,400 to find an effective quality assurance method for additive manufacturing, or 3D printing, of new-generation gas turbine components. The three-year project has received additional support from the University of Pittsburgh ($200,600), resulting in a total grant of $1,003,000. Xiayun (Sharon) Zhao, PhD, assistant professor of mechanical engineering and materials science at Pitt, will lead the research, working with Albert To, associate professor of mechanical engineering and materials science at Pitt, and Richard W. Neu, professor in the Georgia Institute of Technology’s School of Mechanical Engineering. The team will use machine learning to develop a cost-effective method for rapidly evaluating, either in-process or offline, the hot gas path turbine components (HGPTCs) that are created with laser powder bed fusion (LPBF) additive manufacturing (AM) technology. “LPBF AM is capable of making complex metal components with reduced cost of material and time. There is a desire to employ the appealing AM technology to fabricate sophisticated HGPTCs that can withstand higher working temperature for next-generation turbines. However, because there’s a possibility that the components will have porous defects and be prone to detrimental thermomechanical fatigue, it’s critical to have a good quality assurance method before putting them to use,” explains Dr. Zhao. “The quality assurance framework we are developing will immensely reduce the cost of testing and quality control and enhance confidence in adopting the LPBF process to fabricate demanding HGPTCs.” ANSYS will serve as an industrial partner in this project.

New Partnership Expands Research into Rechargeable Battery Systems

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Energy storage influences every part of modern life, from the cell phone in your pocket to the electric car on the highway. However, seeing the chemistry of what is happening inside a battery while it is in use is indeed tricky, but it could have remarkable opportunities for identifying new materials as well as improving the battery itself. Now, the Next-Generation Energy Conversion and Storage Technologies Lab (NECSTL) at the University of Pittsburgh’s Energy Innovation Center has announced a new energy research partnership with Malvern Panalytical that will enable the lab to do exactly that. The NECSTL, headed by Prashant N. Kumta, PhD, focuses on energy conversion and storage, including rechargeable battery systems. Malvern Panalytical’s Empyrean X-ray Platform, a multipurpose diffractometer, will be used in the lab to identify solid-state materials by determining their internal structure, composition and phase while they are in use. Read more here.
Maggie Pavlick

The Promise of Nuclear Engineering at Pitt

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The nuclear industry in the U.S. is at a crossroads, as several plants are scheduled for permanent shutdown, including three in Pennsylvania, the second-largest nuclear energy-producing state. However, in his brief tenure at Pitt, Professor Heng Ban, director of the Swanson School’s Stephen R. Tritch Nuclear Engineering Program, sees opportunity ahead for students, alumni and faculty researchers. Dr. Ban joined Pitt in 2017 from Utah State University (USU), where he served as a Professor of Mechanical Engineering and founding Director of the Center for Thermohydraulics and Material Properties. In addition to continuing to serve as principal investigator on a fuel safety research program at USU, he holds a research portfolio of nearly $1 million per year in nuclear-related research. He believes that Pittsburgh’s nuclear history – and Pitt’s distinctive program – allow the Swanson School to better compete in a global energy industry. Read More: https://www.engineering.pitt.edu/News/2019/Heng-Ban-Nuclear-Engineering-Feature/
Paul Kovach

Intensification of Hydride-Dehydride Powder Production by Upcycling Machining Chips

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"Intensification of Hydride-Dehydride Powder Production by Upcycling Machining Chips" presented by @PittMEMS and @Pitt_IE team at the #ManufacturingPAInnovation Expo @PittEngineering@PittUPCAM Read More: https://www.engineering.pitt.edu/News/2019/PAMIP-Awards/

Tevis Jacobs Receives NSF CAREER Award

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Tevis Jacobs received the National Science Foundation’s $500,000 CAREER Award this year to improve nanoparticle performance. Jacobs plans to work with his Surfaces and Small-Scale Structures Laboratory to advance the understanding of micro- and nano-surfaces and their changing properties in order to engineer more stable nanoparticles. The NSF describes the CAREER Award as a prestigious grant that is “in support of early-career faculty who have the potential to serve as academic role models in research and education and to lead advances in the mission of their department of organization.” Jacobs said his previous work prepared him for the grant for the CAREER Award. “In my grant,” Professor Jacobs explained, “I mentioned what I was going to do in the five years and then the 10 years or 15 years total. Forces you more than a typical award to do that planning. Helps you to think bigger.” Read More: https://pittnews.com/article/146854/news/engineering-professor-receives-nsf-career-award/
Lauren Rude, For The Pitt News

Manufacturing Assistance Center receives 2019 Carnegie Science Award

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2019 Carnegie Science Awards include six honorees from the Swanson School of Engineering including the MAC (Manufacturing Assistance Center) Leadership in Career and Technical Education: University of Pittsburgh Manufacturing Assistance Center Since 1994, the University of Pittsburgh Manufacturing Assistance Center (MAC) has connected thousands of people with meaningful careers in manufacturing. The programs at MAC are accelerated and often available at no cost to the students, so unemployed and underemployed individuals can be connected to a job and a living wage in as little as six weeks. In addition, MAC has strengthened career pathways for high school students across Southwestern Pennsylvania by offering certification opportunities to partnering high schools and career and technical centers. With the opening of the MAC Makerspace in 2018, MAC has provided a place for future manufacturers to engage with technological tools and resources that would otherwise be inaccessible to them. Read More:  https://www.engineering.pitt.edu/News/2019/2019-Carnegie-Science-Awards/
Kaitlyn Zurcher, Carnegie Science Center Senior Manager of Marketing

Paper Published on the Growth of Carbon Nanotube Forests

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Check out the recent paper from the Bedewy Research Group on the mechanochemical modulation of Carbon Nanotube Growth by Chemical Vapor Deposition!  https://pubs.acs.org/doi/pdf/10.1021/acs.chemmater.8b03627

University of Pittsburgh and General Carbide Corporation Receive Grant to Research 3D Printed Tungsten Carbide

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Tungsten carbide is one of the most versatile metal compounds and is renowned for its durability and strength, making it perfect for cutting tools, boring machines, and surgical instruments. Although its use in additive manufacturing (AM), or 3D printing, would seem ideal, tungsten carbide is susceptible to fractures and breakage when exposed to the extreme laser melting process used in printing metals. However, a recent award to the University of Pittsburgh and General Carbide Corporation in Greensburg, Pa. will enable research into better base powders and 3D printing methods for more effective and economical use of tungsten carbide in additive manufacturing. The project was financed in part by a $57,529 grant from the Commonwealth of Pennsylvania’s Department of Community and Economic Development (DCED) and the first round of the PA Manufacturing Innovation Program (PAMIP). Cost share from Pitt’s Swanson School of Engineering and General Carbide will provide a total funding of $145,000. Principal investigator is Markus Chmielus, assistant professor and the student fellows are from the Department of Mechanical Engineering and Materials Science. The award will also fund two women materials science and engineering students Katerina Kimes (graduate) and Pierangeli Rodriguez De Vecchis (undergraduate) as fellows in fundamental and applied research. “Additive manufacturing is increasingly adopted by industry to build highly complex metal parts, but the rapid local heating and cooling during energy beam-based 3D metal printing produces large thermal gradients which causes tungsten carbide to crack,” Dr. Chmielus explained. “Binder jet 3D printing is more effective because it selectively joins powder particles with a binder, one microscopic layer on top of another and without any temperature fluctuations during printing.”Still key to utilizing tungsten carbide, however, is that after a part is printed, it needs to withstand a process called “sintering” and potentially “hipping” that will densify and harden it for use. To achieve that goal, Dr. Chmielus and General Carbide will investigate various tungsten carbide base powders that can be utilized in a binder jet 3D printer, as well as optimize the printing process and subsequent sintering and hipping. “This research will enable General Carbide to expand our portfolio with more complex and versatile parts at a lower cost by partnering with the Swanson School and leveraging its expertise in binder jet 3D printing and additive manufacturing process optimization,” noted Drew Elhassid, Chief Metallurgist and Manager of Lab, Pressing and Powder Production at General Carbide. “Additive manufacturing is especially useful when needed to create the most demanding but low-count parts that we wouldn’t necessarily build on a consistent basis.”“With the Manufacturing Innovation Program, the Wolf Administration aims to connect our best and brightest students with manufacturers to drive new technology and innovation in the manufacturing sector,” said Sheri Collins, deputy secretary for technology and innovation at the Pennsylvania Department of Community and Economic Development. “As manufacturing processes become more and more complex, these projects will keep Pennsylvania at the forefront of manufacturing innovation.” ### Writer: Paul Kovach

Solar energy shines in the City of Pittsburgh

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The future of the state’s solar energy pursuits is bright — and Pitt plans to contribute, projecting that 50 percent of its energy will come from solar and other renewable sources by 2030. @ThePittNews interviews Paul Leu from @Pitt_IE@PittEngineering ----------------- Renewable energy in Pennsylvania has a cloudy past. But the future of the state’s solar energy pursuits is bright — and Pitt plans to contribute, projecting that 50 percent of its energy will come from solar and other renewable sources by 2030. But Pennsylvania will undertake its solar project first. As a result of a two-year award of $550,000 from the U.S. Department of Energy’s Sunshot Program, the Commonwealth plans to reduce solar energy costs by 50 percent from 2020 to 2030 in a project called “Finding Pennsylvania’s Solar Future.” Read More: https://pittnews.com/article/138524/top-stories/solar-energy-shines-in-city/

Making a Transparent Flexible Material of Silk and Nanotubes

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Article Author: Paul Kovach - University of Pittsburghhttps://www.engineering.pitt.edu/News/2018/Bedewy-ACS-Silk-Fibroin-Research/ The silk fibers produced by Bombyx mori, the domestic silkworm, has been prized for millennia as a strong yet lightweight and luxurious material. Although synthetic polymers like nylon and polyester are less costly, they do not compare to silk’s natural qualities and mechanical properties. And according to research from the University of Pittsburgh’s Swanson School of Engineering, silk combined with carbon nanotubes may lead to a new generation of biomedical devices and so-called transient, biodegradable electronics.The study, “Promoting Helix-Rich Structure in Silk Fibroin Films through Molecular Interactions with Carbon Nanotubes and Selective Heating for Transparent Biodegradable Devices” (DOI: 10.1021/acsanm.8b00784), was featured on the Oct. 26 cover of the American Chemistry Society journal Applied Nano Materials. “Silk is a very interesting material. It is made of natural fibers that humans have been using for thousands of years to make high quality textiles, but we as engineers have recently started to appreciate silk’s potential for many emerging applications such as flexible bioelectronics due to its unique biocompatibility, biodegradability and mechanical flexibility,” noted Mostafa Bedewy, assistant professor of industrial engineering at the Swanson School and lead author of the paper. “The issue is that if we want to use silk for such applications, we don’t want it to be in the form of fibers. Rather, we want to regenerate silk proteins, called fibroins, in the form of films that exhibit desired optical, mechanical and chemical properties.” As explained by the authors in the video below, these regenerated silk fibroins (RSFs) however typically are chemically unstable in water and suffer from inferior mechanical properties, owing to the difficulty in precisely controlling the molecular structure of the fibroin proteins in RSF films.  Bedewy and his NanoProduct Lab group, which also work extensively on carbon nanotubes (CNTs), thought that perhaps the molecular interactions between nanotubes and fibroins could enable “tuning” the structure of RSF proteins. “One of the interesting aspects of CNTs is that, when they are dispersed in a polymer matrix and exposed to microwave radiation, they locally heat up,” Dr. Bedewy explained. “So we wondered whether we could leverage this unique phenomenon to create desired transformations in the fibroin structure around the CNTs in an “RSF-CNT” composite.”According to Dr. Bedewy, the microwave irradiation, coupled with a solvent vapor treatment, provided a unique control mechanism for the protein structure and resulted in a flexible and transparent film comparable to synthetic polymers but one that could be both more sustainable and degradable. These RSF-CNT films have potential for use in flexible electronics, biomedical devices and transient electronics such as sensors that would be used for a desired period inside the body ranging from hours to weeks, and then naturally dissolve. “We are excited about advancing this work further in the future, as we are looking forward to developing the science and technology aspects of these unique functional materials,” Dr. Bedewy said. “ From a scientific perspective, there is still a lot more to understand about the molecular interactions between the functionalization on nanotube surfaces and protein molecules. From an engineering perspective, we want to develop scalable manufacturing processes for taking cocoons of natural silk and transforming them into functional thin films for next generation wearable and implantable electronic devices.” About the NanoProduct LabThe NanoProduct Lab (nanoproductlab.org), also known as the Bedewy Research Group, focuses on fundamental experimental research at the interface between nanoscience, biotechnology, and manufacturing engineering. The group explores basic scientific discoveries and applied technological developments in the broad area of advanced manufacturing at multiple length scales, creating solutions that impact major societal challenges in energy, healthcare, and the environment. This work was supported by the Mascaro Center for Sustainable Innovation (MCSI) at the University of Pittsburgh. M.B. is grateful for the Ralph E. Powe Junior Faculty Enhancement Award from Oak Ridge Associated Universities (ORAU). Fabrication and characterization were performed, in part, at the Nanoscale Fabrication and Characterization Facility, a laboratory of the Gertrude E. and John M. Petersen Institute of NanoScience and Engineering, housed at the University of Pittsburgh. The work was also supported in part by the Basic Science Research Program through the National Research Foundation of Korea (NRF) funded by the Ministry of Education (NRF-2018R1A4A1025169). Image below, left: ACS Applied Nano Materials cover. Image below, right: Schematic diagram illustrating the structural changes of RSF-CNT composite film exhibited during microwave- and vapor-treatment.

The Metallurgy of Advanced High Strength for Zinc-Coated Applications and Beyond - A short course with Dr Anthony DeArdo (November 14, 2018)

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Register Here The Metallurgy of Advanced High Strength for Zinc-Coated Applications and Beyond A short course with Dr Anthony Deardo  November 14, 2018 | 09:00 AM - 04:15 PM | Benedum Hall 102 Professor: Anthony J. DeArdo University of Pittsburgh Department of Mechanical Engineering and Materials Science Purpose and Goals: This one-day course is intended to introduce interested stakeholders to the physical metallurgy, processing, microstructure and mechanical properties of Advanced High Strength Steel substrates that are used for galvanized, galvannealed and bare products and applications. Who Should Attend: The course is aimed at professionals working in, or associated with high strength steels, including zinc or aluminum coatings companies, the fabrication industries such as sheet metal forming and welding, equipment and material suppliers, and professionals interested in galvanizing and formability. Typical delegates would include senior production operators, engineers, technical and quality control personnel. Learning Outcomes: Theoretical and practical understanding of the metallurgy of the new AHSS, especially high strength dual-phase steels processed on continuous galvanizing (CG) lines. Understanding of the processes, product and properties of AHSS steels, especially dual-phase steels that are used to make body-in-white and other coated components for the automotive and construction industries. It is critical to note that the processes used to apply the protective coatings are, themselves, heat treatments that can importantly alter the microstructure and properties of both the steel substrate and the coating.  This course will teach the attendees how to optimize the beneficial effects while minimizing the detrimental effects of the processing. Pre-requisites: None Cost: $1,500 (includes handout, coffee breaks and lunch provided) Course Outline (9:00-11:30 a.m.) Lecture 1: Introduction What is steel and what is the differentiation among common steel (AKDQ), high strength steel (HSLA) and advanced high strength steel.?  Why are the AHSS so special?  Difference between galvanizing AKDQ vs. AHSS. Overview of families of AHSS (DP, TRIP, Martensitic, Hot Stamped and TWIP) The critical mechanical properties of sheet steel?  Brief review of processing- microstructure-property relations as they apply to CG line processing. (11:30 a.m.-12:00 p.m.) Lunch (12:00-2:00 p.m.) Lecture 2: Case Study - Processing Zinc-Coated DP steels on a Continuous Galvanizing (CG) Lines What is the Dual-Phase (DP) microstructure and how is it formed from the cold rolled state during the CG line processing?  What are the critical features of the microstructure and control points of the process? Typical compositions & starting conditions: cold rolled ferrite-pearlite hot band Intercritical annealing (1382-1562F / 750-850C) and associated metallurgical events: (i) Annealing cold rolled ferrite, (ii) Forming austenite, (iii) Transformations upon cooling from annealing T to zinc pot (860F/460C), (iv) Transformations from zinc pot to room temperature, (v) microstructure-property relationships, (vi) achieving Generation III properties. Supercritical annealing above the AC3 temperature Subcritical annealing below the AC1 temperature (2:00-2:15 p.m.) Break (2:15-3:15 p.m.) Lecture 3: Variables affecting the CG line annealing response. Influences of:  Composition, Hot band coiling temperature, % Cold reduction, Microalloying and Annealing path (new approaches) (3:15-4:15 p.m) Guided tour of research facilities on in Swanson School of Engineering (4:15 p.m.)  Adjourn

Department of Energy awards $750,000 to Pitt collaborating with UTRC for development of alloy components in fossil fuel power plants

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A research collaboration led by the University of Pittsburgh’s Swanson School of Engineering is one of 15 national projects to receive nearly $8.8 million in Department of Energy (DOE) funding for cost-shared research and development initiatives to develop innovative technologies that enhance fossil energy power systems.The proposal, “Integrated Computational Materials and Mechanical Modeling for Additive Manufacturing of Alloys with Graded Structure Used in Fossil Fuel Power Plants,” was awarded to Wei Xiong, PhD (PI), assistant professor, and Albert To, PhD (Co-PI), associate professor in the Swanson School’s Department of Mechanical Engineering and Materials Science. Their collaborator is Michael Klecka, PhD at the United Technologies Research Center (UTRC), headquartered in East Hartford, Connecticut. The team received $750,000 in DOE funding with $187,500 as the cost share. DOE’s National Energy Technology Laboratory (NETL) in Pittsburgh will manage the selected projects.The team will focus on utilizing additive manufacturing (AM), or 3D printing, to construct graded alloys use for Advanced Ultra-Super Critical (AUSC) power plants at a shorter lead time and at lower costs. Utilizing the expertise in integrated computational materials engineering (ICME), the team at Pitt will develop a new modeling framework for wire-arc additive manufacturing at UTRC that integrates both materials modeling and mechanical simulation to design and manufacture superior alloy components for these power plants. “Wire-arc AM is a promising technique to build complex parts for fossil fuel plants. However, the operational environment of these plants requires resistance to very high stress, temperatures, and oxidation, and so we need to develop a new paradigm in computational design,” Dr. Xiong explained. Dr. To also noted, “Optimizing materials composition and processing strategy, combined with ICME modeling to improve the part design and reduce failure, will be a game-changer for the industry.”AM has significantly expanded the development of complex parts thanks to the joining of dissimilar alloys, enabling the creation of stronger, lighter, and more affordable components compared to traditional manufacturing. In particular, the ability to control the manufacture of a part’s micro- and macro-structure is what makes these components superior, but this requires greater computational control over the manufacturing. For these computational systems, Pitt and UTRC will utilize physics-based, process-structure-property models to simulate thermal history, melt pool geometry, phase stability, grain morphology/texture, and thus predict and control high-temperature oxidation, mechanical strength, and interface properties. “Thanks to additive manufacturing, in the future, industrial plants of various types will have the capability to repair or replace components on-site,” Dr. Klecka at UTRC said. “This will enable utilities to improve operations and invest resources more effectively.”Dr. Xiong’s research and the other projects fall under DOE’s Office of Fossil Energy’sCrosscutting Technology Research Program, which advances technologies that have a broad range of fossil energy applications. The program fosters innovative R&D in sensors and controls, modeling and simulation, high-performance materials, and water management.
Paul Kovach

Integrated Sensor Could Monitor Brain Aneurysm Treatment

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Implantation of a stent-like flow diverter can offer one option for less invasive treatment of brain aneurysms – bulges in blood vessels – but the procedure requires frequent monitoring while the vessels heal. Now, a multi-university research team has demonstrated proof-of-concept for a highly flexible and stretchable sensor that could be integrated with the flow diverter to monitor hemodynamics in a blood vessel without costly diagnostic procedures.The sensor, which uses capacitance changes to measure blood flow, could reduce the need for testing to monitor the flow through the diverter. Researchers, led by Georgia Tech, have shown that the sensor accurately measures fluid flow in animal blood vessels in vitro, and are working on the next challenge: wireless operation that could allow in vivo testing. The research was reported July 18 in the journal ACS Nano and was supported by multiple grants from Georgia Tech’s Institute for Electronics and Nanotechnology, the University of Pittsburgh and the Korea Institute of Materials Science. “The nanostructured sensor system could provide advantages for patients, including a less invasive aneurysm treatment and an active monitoring capability,” said Woon-Hong Yeo, an assistant professor in Georgia Tech’s George W. Woodruff School of Mechanical Engineering and Wallace H. Coulter Department of Biomedical Engineering at Georgia Tech and Emory University. “The integrated system could provide active monitoring of hemodynamics after surgery, allowing the doctor to follow up with quantitative measurement of how well the flow diverter is working in the treatment.” Read the Full Story Here: http://www.rh.gatech.edu/news/609264/integrated-sensor-could-monitor-brain-aneurysm-treatment
John Toon, Director of Research News, Georgia Tech

Manufacturing Engineer Mostafa Bedewy Lands $330K NSF Grant to Study “Nanotube Forests”

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Manufacturers use carbon nanotubes in a variety of commercial products from baseball bats and bicycle frames to aerospace structures. Attributes such as a tensile strength 20 times higher than steel and an electrical conductivity 10 times that of copper have caused the global carbon nanotube market to soar to $3.43 billion in 2016, and it is projected to double by 2022.To better understand and control the internal structure of nanotube-based materials for emerging applications, the National Science Foundation (NSF) awarded $330,000 to Mostafa Bedewy, assistant professor of industrial engineering at Pitt’s Swanson School of Engineering. In this new NSF project titled “Functionally Graded Carbon Nanotubes by Dynamic Control of Morphology during Chemical Vapor Deposition,” Dr. Bedewy will employ a combination of experimental and modeling techniques to reveal the kinetics of activation and deactivation in large populations of carbon nanotubes known as “nanotube forests.”“In the community of carbon nanotube researchers, structures made of billions of vertically-aligned nanotubes are sometimes referred to as forests, turfs, arrays, or films, but I think the term “forest” best describes their complex intertwined and tortuous morphology,” says Dr. Bedewy. “Research efforts abound on how the size and atomic structure dictate the properties of individual nanotubes, but in my lab we are more interested in looking at these nanotube forests collectively to gain a fundamental understanding of how they behave together as a population.”Carbon nanotubes are hollow, cylindrical nanostructures consisting of single-sheets of carbon atoms. Their sizes are typically smaller than one ten-thousandth the width of a human hair. Random assortments of individual nanotubes appear in many technologies because of their desirable electrical, physical, and thermal properties; however, leveraging the exceptional collective mechanical, thermal and electrical properties of nanotube forests is very promising for applications that require directional energy and mass transport.Dr. Bedewy explains, “Our previous work has shown that when we grow nanotube forests by chemical vapor deposition, we end up with a significant variation of density, alignment, and size distribution across the height of each forest. These spatial variations directly impact their collective properties such as their behavior under mechanical loading.”Chemical vapor deposition (CVD) is a process that enables the synthesis of carbon nanotubes from catalyst nanoparticles by the decomposition and dissociation of hydrocarbon gases. CVD is the process of choice for industrial applications of nanotubes owing to its scalability and versatility, as well as the high quality of CVD-grown nanotubes. “I am very excited about this NSF grant, because it will enable us to create nanotube "forests" with tailored morphology, leveraging the unique capabilities of our custom-designed rapid-thermal chemical vapor deposition (RT-CVD) reactor, which will enable unprecedented control of nanotube density profiles,” says Dr. Bedewy.Emerging applications such as thermal interfaces for high power density devices, electrical interconnects for 3D electronics, and structural materials for mechanical energy absorption require greater control of the nanotube forest structures, and therefore, a better understanding is needed for how the forest morphology develops during the production process, i.e. during their collective growth by CVD.“Our work will shed light on the stochastic nature of how individual nanotubes "pop" into existence in a population of billions of neighboring nanotubes, whose growth is seeded from catalytically active nanoparticles. Revealing the interplay between the kinetics of this "birth" and "death" of nanotubes is key to understand their population behavior during growth, which dictates their overall hierarchical structure and collective properties,” says Dr. Bedewy. About the NanoProduct LabThe NanoProduct Lab (nanoproductlab.org), also known as the Bedewy Research Group, focuses on fundamental experimental research at the interface between nanoscience, biotechnology, and manufacturing engineering. The group explores basic scientific discoveries and applied technological developments in the broad area of advanced manufacturing at multiple length scales, creating solutions that impact major societal challenges in energy, healthcare, and the environment.
Matt Cichowicz, Communications Writer

Four dimensional printed structures may enable new generations of soft robotics, implantable medical devices and consumer products.

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UT-Dallas and Pitt Collaborate on 4D Printing Breakthrough Four-dimensional (4D) printing is a term that describes additive manufacturing of stimuli-responsive materials. This process results in three-dimensional structures capable of morphing between predetermined shapes after printing.  Previous material strategies require mechanical programming to achieve shape change or required that the material operate in water, however in this new publication, “Four-dimensional Printing of Liquid Crystal Elastomers” University of Pittsburgh Professor Ravi Shankar worked in partnership with UT Dallas faculty (Taylor H. Ware) and students (Cedric P. Ambulo, Julia J. Burroughs, Jennifer M. Boothby, Hyun Kim) demonstrate a platform for programming the molecular-level order in macroscopic 3D structures. Their idea centers on aligning liquid crystal elastomers by controlling the print path during printing, whereby 3D structures with locally controlled and reversible stimulus response can be fabricated into geometries not achievable with current processing methods.  Having been published in October 2017, this publication has achieved recognition from numerous research peers as being “first of its kind”, has been awarded the best poster award by the International Liquid Crystal Elastomer Conference 2017, and currently has a patent application pending. LCEs are a class of stimuli-responsive polymers that undergo large, reversible, anisotropic shape change in response to a variety of stimuli, including heat and light. Unlike many materials that undergo reversible shape change, these materials require neither external loads nor aqueous environments. The UT-Dallas/Pitt team also exploited this platform to create structures, which can snap between discrete geometries by exploiting snap-through instabilities. Snap-through instabilities have been observed in nature (e.g. Venus flytrap, Hummingbird’s beak..) to magnify the power density and speed of actuation. Utilizing similar ideas, this team showed how 3D printed, molecularly-ordered structures can snap between shapes and generate large actuation power-densities in response to an ambient stimulus (e.g. heat, light, solvent, etc.). Such actuators make ideal candidates for applications, including soft robotics, biomedical implants, adaptive optical structures etc.This material is based upon work partially supported by the Air Force Office of Scientific Research under award numbers FA9550-17-1-0328 and FA9550-14-1-0229." "Any opinions, finding, and conclusions or recommendations expressed in this material are those of the author(s) and do not necessarily reflect the views of the United States Air Force."
Elizabeth Allison

NCDMM Honors Howard A. Kuhn as the Recipient of the 2018 Lawrence J. Rhoades Award

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Reposted from the National Center for Defense Manufacturing and Machining (NCDMM). View the article here. Prestigious Award Recognizes Achievement in Dedication to Advancement of Manufacturing Technology Presented at NCDMM’s Annual SUMMIT Event Blairsville, Pa. — May 9, 2018. The National Center for Defense Manufacturing and Machining (NCDMM) proudly announces that today at its annual SUMMIT event, it awarded its highest honor, the Lawrence J. Rhoades Award, to Howard A. Kuhn, Ph.D., P.E. Each year, the NCDMM awards the Lawrence J. Rhoades Award to an individual who shares Mr. Rhoades’ tireless commitment, futuristic vision, and unwavering dedication to the defense manufacturing industry. “On behalf of all of us at the NCDMM, I am most honored to present the Lawrence J. Rhoades Award to our long-time friend and esteemed colleague, Dr. Howard Kuhn,” said NCDMM President and Executive Director Ralph Resnick. “Throughout his illustrious 50-year career, Howard has been a force within both the manufacturing industry and academic institutions, serving as an esteemed, innovative thought-leader and mentor. Howard also shares many of the same extraordinary qualities as Larry Rhoades and namesake of this award. You could say they are cut from the same cloth. Like Larry, Howard is also a visionary, as well as a collaborator in the truest sense of the word, possessing an almost effortless ability to bring and inspire mutual efforts together to advance manufacturing technology for the betterment of our industry. He has set a standard that many aspire to meet. “Therefore, in recognition of his tireless commitment, steady leadership, dedication, and actions on behalf of the national manufacturing community and the mission of NCDMM, we congratulate Dr. Howard Kuhn as the 2018 NCDMM Lawrence J. Rhoades Awardee,” continued Mr. Resnick. NCDMM established the Lawrence J. Rhoades Award to honor the memory of Mr. Rhoades whose entrepreneurial spirit and dedication to the advancement of manufacturing processes was known industry-wide. Mr. Rhoades was one of the founding fathers of the NCDMM, and an inaugural member of the Board of Directors where he served until his untimely death in 2007. At the University of Pittsburgh’s Swanson School of Engineering, Dr. Kuhn is an adjunct Professor in industrial engineering, instructing courses in manufacturing, product realization, entrepreneurship, and additive manufacturing. He also conducts research on additive manufacturing of biomedical devices for tissue engineering at the University. Dr. Kuhn also serves as a consultant at local industry-leading organizations, including America Makes, the National Additive Manufacturing Innovation Institute, which is managed by the NCDMM, and The Ex One Company. At America Makes, he is a Technical Advisor, teaching a course, titled “Fundamentals of Additive Manufacturing Materials and Processes.” Upon its founding in August 2012, Dr. Kuhn also served as the Acting Deputy Director of Advanced Manufacturing Enterprise. At Ex One, he is currently a Research Consultant, but also previously served as the Director of Prometal Technology for Ex One. Previously, Dr. Kuhn, as the co-founder of Concurrent Technologies Corporation (CTC), served as the company’s Vice President and Chief Technology Officer for 12 years. He also co-founded Deformation Control Technology, a consulting firm serving the metalworking industry. Prior to this, Dr. Kuhn held joint appointments in the Department of Mechanical Engineering and the Department of Material Science at Drexel University and the University of Pittsburgh. Dr. Kuhn is a Fellow of the American Society for Materials International and SME. In 2008 and 2011, respectively, he received the ASM Gold Medal and the SME Eli Whitney Productivity Award. In 2014, America Makes awarded Dr. Kuhn with its Distinguished Collaborator Award for his exceptional commitment and dedication to advancing additive manufacturing technology, practices, and innovation in the manufacturing industry through collaborative partnerships and contributing to the overall mission of America Makes. Dr. Kuhn is a graduate of Carnegie Mellon University and pursued all of his undergraduate, graduate, and doctorial degrees in mechanical engineering at the university. He is a registered professional engineer in Pennsylvania. ### About NCDMM NCDMM delivers optimized manufacturing solutions that enhance the quality, affordability, maintainability, and rapid deployment of existing and yet-to-be developed defense systems. This is accomplished through collaboration with government, industry, and academic organizations to promote the implementation of best practices to key stakeholders through the development and delivery of disciplined training, advanced technologies, and methodologies. NCDMM also manages the national accelerator for additive manufacturing (AM) and 3DP printing (3DP), America Makes—the National Additive Manufacturing Innovation Institute. For additional information, visit NCDMM at ncdmm.org. NCDMM, 5/9/2018

Makerspace at Pitt MAC Creates Opportunity For Community Involvement

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Last week, the University of Pittsburgh celebrated the launch of a new makerspace at its Manufacturing Assistance Center in Homewood with a small ceremony. The facility will feature tools including a 3D printer and woodworking equipment and host a series of instructional workshops on different “making” techniques. "The makerspace helps entrepreneurs design products, develop products, prototype products and begin to manufacture them in small batches," said Bopaya Bidanda, chair of the industrial engineering department at Pitt and the center’s director. Listen to Dr. Bidanda's interview here: http://wesa.fm/post/makerspace-homewood-facility-creates-opportunity-community-involvement#stream/0

Project Aims to Recycle the Unrecyclable

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Distinguished Service Professor and co-director of the University of Pittsburgh Mascaro Center for Sustainable Innovation Eric Beckman, along with Assistant Professor Susan Fullerton and Associate Professor Sachin Velankar, is looking to create a recyclable material that can replace types of plastic packaging that can't be recycled due to their use of various layers of materials that can't be separated. Read More: https://www.pittwire.pitt.edu/news/project-aims-recycle-unrecyclable

Vascular Bypass Grafting: A Biomimetic Engineering Approach

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Pitt bioengineer Jonathan Vande Geest and his research team receive a $673K NIH grant to construct a biomimetic, small-diameter vascular graft. Researchers at the University of Pittsburgh are developing synthetic grafts that mimic the body’s own blood vessels to mitigate many of the complications of bypass surgery. Read More: http://www.engineering.pitt.edu/News/2018/Vande-Geest-Vascular-Graft/

Congratulations to our recent class of Pitt MAC CNC Programming/Operations graduates

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Congratulations in particular to Marj Thomas. Marj will be starting her new job at Penn United on Monday. We could not be more thrilled for her and wish all of our graduates the best of luck. #h2p #PittMAC #womeninmanufacturing Read More: https://www.facebook.com/upittmac/

The holidays came a little early with the Rabbit Laser installation at the #MACMakerspace.

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The MAC Makerspace will be available for the community and offer educational programming, small business development and classes. Stay tuned for details regarding our grand opening!  Read More: https://www.facebook.com/upittmac/
Liza Allison

Pitt and UPMC Researchers Collaborate to Save More Organs for Transplants

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Each year, the United States suffers an extreme shortage of organ donations, with only a quarter of patients in need receiving a transplant. Many transplantable organs are lost when a donor’s heart fails, and the organs stop receiving vital blood flow. Researchers at the University of Pittsburgh can potentially double the amount of successful organ donations by developing a novel stent to maintain blood flow to organs, even during the donor’s final heart beats. Read More: http://www.engineering.pitt.edu/News/2017/Chun-Organ-Transplant-Stent/

MS&T17 in Pittsburgh!

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The Materials Science and Technology Conference for 2017 was held in Pittsburgh during October 8-12. From the Chmielus group, we had: Dr. Markus Chmielus gave an invited talk in the Additive Manufacturing of Functional Materials symposium, and also co-chaired the same symposium. Jakub Toman gave a talk on epitaxial growth of Ni-Mn-Ga. Amir Mostafaei gave a talk on the effect of surface roughness on additive manufactured alloy 625 samples, and presented a poster on the additive manufacturing of denture frames. Erica Stevens presented a poster on the additive manufacturing of magnetocaloric materials. Colleen Hilla (UG) gave a talk on the characterization of atomized powders using microCT. Katerina Kimes (UG) gave a talk on the additive manufacturing of magnetocaloric materials. Read More: http://chmieluslab.org/mst17-in-pittsburgh/

DINING SERVICES EXPANDS SUSTAINABLE PRACTICES AND FOOD OPTIONS

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The student Grub Club has spoken: This fall, Pitt’s dining halls feature new recipes from around the globe and an expanded variety of plant-based dishes, as well as locally sourced organic chicken. And there’s an emphasis on sustainability — even in the to-go containers and bags at Pitt’s grocery spots. Read More: https://www.pittwire.pitt.edu/news/dining-services-expands

PMMD Lab will develop computational tools for additive manufacturing with the QuesTek Innovations LLC supported by a NASA STTR grant

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PMMD lab together with Dr. Albert To's group in mechanical engineering will collaborate with the QuesTek Innovations LLC developing an ICME modeling tool for the additive manufacturing. This project is a STTR phase I project to proof the concept proposed by QuesTek and Pitt on ICME modeling of additive manufacturing. The project will work on process-structure-property modeling for advanced alloys. Expect Victory!

Chmielus Group Presents at ICOMAT 2017

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We're back from ICOMAT 2017 in Chicago! ICOMAT - International Conference on Martensitic Transformations Below are some of the highlights of our trip!   Monday: Erica gave a talk describing recent progress with laser-deposited magnetocaloric Ni-Mn-Co-Sn. Amir and Katerina presented posters on binder jet printing of magnetocaloric and magnetic shape… Read More: http://chmieluslab.org/icomat-2017/

Dr. Leu's research was featured in the Swanson School of Engineering Annual Report.

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https://issuu.com/pittswanson/docs/2016_swanson_school_of_engineering_/24?e=8116214/2406130