“At Boston University, I am developing a solid oxide membrane-based electrolysis process for the production of technologically important metals including magnesium and aluminum. This electrolysis process produces pure metals and pure oxygen, and thus has zero-carbon emission. I am also working as an independent consultant to INFINIUM Inc. on the scale-up of this process. Successful implementation of this process will provide both economic and environmental benefits.”
“The main reason I chose the PhD program in Materials Science & Engineering (MSE) at Boston University was for its dynamic range in faculty, students and curriculum. There was a sense of synergy between several different disciplines that was highly appealing to me. I had the opportunity to work in a photonics research group that brought together students and post doctoral fellows from physics, electrical engineering, mechanical engineering, and materials science engineering backgrounds to solve several technological challenges spanning many research areas. My work at BU focused on engineering complex nanostructures to manipulate light for applications towards solar cell and light emitting diode (LED) enhancement, bio-sensing, quantum encryption and novel laser beams.
The MSE department at Boston University supported several extracurricular events and societies that especially enhanced my time in the program. Student run and department supported chapters of the Materials Research Society (MRS) and ASM International offered great opportunities for outreach, networking, and career development.
After graduating from BU with my PhD, I took a position at the City University of New York (CUNY) as the Scientific Cleanroom Director for a new nanofabrication facility in the Advanced Science Research Center (ASRC). In my position, I work with CUNY faculty and external researchers to fully utilize the center’s state of the art facilities and conduct photonics research. Additionally, I lead outreach efforts to the public, academic institutions, and industrial collaborators.”
“My experience in the Division of Materials Science & Engineering at Boston University was very positive. The faculty members are involved with an extremely dynamic spectrum of research activities. I worked with researchers from a variety of different departments, even different institutions. This is a young division; student clubs like ASM and MRS are very helpful in bringing students together via various professional and social activities. The energy level is high in the Division, and support from the administration and staff is great.
Currently I am working at an exciting MIT spin-off company called LiquiGlide as senior coatings engineer. My set of different skills learned during my study at BU are extremely valuable. BU is a well-respected school and my transition from school to industry has been very smooth. Boston is a great area, in terms of living, doing research, and industry opportunities.”
Adam Moldawer, SE PhD, 2013, Senior Electrical Engineer, Raytheon IDS
“I currently develop and optimize etch and wafer backside processes while supporting the fabrication of cutting-edge III-V semiconductor devices. These see varied use in radar arrays and other electronic systems for defense applications.”
Lincoln Miara, MSE PhD, 2012, Senior Research Engineer, Samsung Electronics, Research Lab, SAIT-America Cambridge Lab
“My job is to find new materials for next generation batteries. I use first principles computational modeling to search for materials that have useful properties for solid-state batteries.”
Andre L. Botelho, MSE PhD, 2012, Postdoctoral Researcher, Johns Hopkins University, Whiting School of Engineering, Department of Materials Science and Engineering
“I am developing quantum mechanical models for organic semiconductors. The models will be used to advance the Materials Genome Initiative, building a database of millions of chemical structures and their calculated properties. Researchers across the world will be able to mine the database for materials that may fit their particular needs, such as for organic solar panels, displays, sensors, etc.”
“Thanks to the flexibility of the masters program in MSE and to the thriving biotech scene in the Boston area, I was able to attend school part-time, while working as a lab assistant to get experience in a tissue engineering lab across the river at MIT. Once I finished my masters I was promoted to a research position working with hydrogels for tissue engineering applications. I’ve been in my new position almost a year and I love that I am working on fascinating projects and continuing to learn every day at a world-class institution.
I doubt I would have been able to get this position without having my new degree and relevant work experience as I did, and I think that other students could have similar experiences whether they want to work in industry or academia because of all of the great work opportunities in Boston.”
“When I chose to do my graduate studies at BU, I never thought I might end up as a BU faculty member. I was originally attracted to BU by the Materials Science and Engineering research that Professor Uday Pal was directing, focusing on the research and development of Solid Oxide Fuel Cells. That topic seemed to me to be a great application of materials science and engineering, as well as having the potential of having a positive effect on the world and people’s lives. Since returning to BU, I have focused my attention on teaching the fundamentals of materials science and the mechanics of materials. I have also been working on a number of research projects, including:
* the study of an energy storage and recovery concept based on electrochemical reactions with tungsten metal and oxide – this is to help temporarily store energy on the grid, if, for example, we start using more intermittent sources like solar and wind;
* a process that uses a ceramic membrane to recycle mixed magnesium and magnesium oxide waste, and in the end might make our cars more fuel efficient;
* developing ceramic sensors for us in electrochemistry-based nuclear waste recycling — to provide control for and to safeguard for the recycling process.
Looking forward, while I am planning to focus more on teaching, I am also working on a few small research projects that involve novel ways of combining materials science and engineering in order to solve other societal problems, particularly problems related to agriculture. In one project, I’ve proposed using materials that I first became familiar with during my study of fuel cells, and electrochemical methods that are involved in the nuclear-waste recycling sensor, and putting those together to develop a sensor for real-time measurement of micro-nutrients in soils, which are important for healthy plants, and thus high agricultural yields, which could be a big help for small farmers.”
“Although I wanted to do my PhD in Materials Science and Engineering, I was not sure of which area. The faculty and the staff at BU’s MSE division were very friendly and helpful in letting me take time during my first year to understand the research opportunities available before deciding. I am really glad to have had this flexibility, as it changed my life forever. I also appreciate the collaborative attitude of faculty and students. As a graduate student, I collaborated with other graduate students and also business school students to co-found a start-up based on my graduate thesis. This gave me the opportunity to understand the business side of the technology. The experience I gained both in class and research during graduate school has helped me to perform very well in my professional career.
Currently, I am a Research Engineer at Metal Oxygen Separation Technologies (MOxST). (MOxST) is developing new technologies for producing high-purity metals and pure oxygen gas directly from metal oxides at low cost and with zero direct environmental emissions. In addition to lower industrial emissions and energy use, these metal products will drive innovation of a new generation of energy-efficient vehicles, and will help to accelerate the widespread deployment of solar energy and rare-earth magnets used in wind turbines and hybrid/electric cars by reducing their cost. As a Research Engineer, I supervise the work of engineers, technicians and interns to timely meet project milestones. I plan and evaluate projects, consulting with other engineers and corporate executives to improve the process. I also spend my time in developing the intellectual property to meet the organization’s strategic goals”.
“The MSE graduate program was a great experience for me. My initial exposure to electronic ceramics was during my undergraduate thesis at the School of Metallurgical Engineering. The next step brought me to the College of Engineering MSE graduate program and the High Temperatures Chemistry Lab. Over the course of my research there I had the
opportunity to learn about solid oxide fuel cells and how much they can contribute to environmentally sound processes, spanning from energy storage to metallurgy and waste utilization. In fact, I was lucky to study and exercise a subject that would bridge metallurgy and electronic ceramics together in a unique way.
After concluding my graduate studies at BU, I moved on to the Center for Energy Research of Southern Saxony, Germany. My new project involves nano-sized metals and metal oxides synthesis via electrochemical and ultrasound powered techniques. The ultimate goal is to decorate state-of-the-art SOFC anode-side powders using the cost efficient technology of ultrasonic cavitation. This new breed of anode materials is to be used in natural gas fueled SOFC so as to prevent carbon and sulfur poisoning of the anode side. The improved anodes design is expected to contribute towards SOFC systems stability and longevity that will bring us a step forward in spreading clean energy production solutions to the community.
The MSE graduate program provided me with great skills and insight in the fuel cells domain. I am grateful to all of the faculty that contributed to the genesis of this new graduate program in the Materials Science & Engineering Division of the College of Engineering at Boston University.”