The University of Chicago
5640 S Ellis Ave
Eckhardt Research Center, Rm 161
Parking - street parking is available if you can find it! The easiest option is the parking structure at the SouthEast corner of 55th St and S. Ellis Ave.
How do you better brand and market yourself after graduation?
Patty Lindstrom (CEO of Living the Brand Academy)
Fred Siegman, Serial Connector, Siegman Consulting Services
and participate in our soft skills development workshops for everyone.
For Industry attendees - Talk to students about their research interests and answer their questions about life in industry!
For academic attendees - inquire about what industry life and culture is like and talk about complementary skill sets that will be important as you transition to an industrial career.
Is this event for me?
Postdocs, graduate students, staff, technicians, managers, undergraduate students from STEM fields including PME, BSD, PSD, MRSEC, etc.
Industrial scientists, engineers, entrepreneurs, executives who want to get a high level view of resources here on campus, managers, etc.
What will I come away with?
POSTPONED - tentatively to September 10th, 2020
Agenda
Thursday, May 14th, 2020
10 am Registration and Networking
10:30 am Opening statements and campus resources panel
11:30 am Keynote talk #1 : Jay Schrankler
12:30 pm Lunch and Networking
1:30 pm Panel Discussion - Branding and Marketing yourself
2:00 pm Parallel session (Critical Soft Skills workshops)
3:00 pm BREAK
3:30 pm Keynote Talk #2 : TBA
4:30 pm PME themes overviews
5:30 pm Posters/Judging/Networking and Food/drinks!
7:00 pm FORUM ends
Friday, May 15th, 2020
9am Facility tours (give us rough headcount now on the registration page, sign up for them on Thursday for a final tally)
These include, but are not limited to:PME Themes
Quantum Engineering -
While some of the most impactful technologies of the 20th century, such as the transistor and the laser, rely on quantum physics, they do not use the most extreme kinds of quantum phenomena. The ability to harness effects like quantum superposition and entanglement will usher in a new generation of transformative technologies. The Pritzker School of Molecular Engineering (PME) stands at the forefront of this rapidly emerging field.
Immno-Engineering -
PME is bringing its expertise in engineering design and fabrication to contribute to this research. Several of our laboratories have created synthetic vaccines that have been shown to be effective in stimulating the immune system against certain types of cancers, such as lymphoma, and pathogenic bacteria strep. As these synthetic nanoparticle vaccines are non-biological and do not require additional chemicals to activate them, many of the complications associated with viral-based, or adjuvant-activated, vaccines are no longer an obstacle. PME researchers are extending this approach to research on other cancers and pathogen types, such as HIV, staph, and malaria.
Materials Systems for Health and Sustainability -
Working closely with Argonne National Laboratory and its Center for Molecular Engineering, students and faculty collaborate on creative projects that explore polymers, self-assembled and autonomous materials, dynamic covalent materials, nanoparticles, liquid crystals, and composite, hybrid materials. With a focus on engineering for sustainability, our research includes ways to extract useful (uranium, lithium) or polluting (phosphorus) elements from sea water or waste water. Our energy-related research projects include work on organic thermoelectric materials, and the organization and assembly of ion-containing polymers.
This theme also encompasses health-care applications, broadening our biomedical impact beyond our immuno-engineering theme. Drawing on deep expertise in self-assembly and ion-containing polymers, PME is understanding and engineering how to prevent protein misfolding, which could help prevent diseases like dementia and ALS. We’re also studying nanoparticles for the in vivo delivery of therapeutic nucleic acids and leading the way in understanding how liquid-liquid phase separation works, and its role in the formation of membrane-less intracellular compartments in biology.
Participating groups