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Our Mission is to contribute to positive societal impact through advancement and innovation in the semiconductor IC design space. Holistic student development is at the center of all that we do.

Our Values

  1. Integrity:
    always comes first.
  2. Continuous improvement:
    our only true benchmark is the previous version of ourselves.
  3. Scientific humility:
    the more we learn, the more we realize how little we know.

Lab News

RAMLab wins Best Student Paper Award at MWSCAS

Congratulations to Jacob O'Donnell and co-authors Elaine Greenfield, Hagar Hendy, and Karsten Bergthold on receiving the Best Student Paper award at MWSCAS!

Their paper, a collaboration between RAMLab and Brain Lab, explores the use of FeFETs in time-domain computing, advancing the frontiers of neuromorphic and emerging memory research. We are proud to celebrate this achievement and the impact of our students and collaborators on cutting-edge technology.

Photograph of the Best Student Paper Award. The certificate is white, with gold on the edges.

 

Read More About RAMLab wins Best Student Paper Award at MWSCAS

NEWCAS 2025 Best Paper Award

"A High-Efficiency LDO with Adaptive PSRR and Bandwidth Enhancements" by Daniel Zeznick, Jacob O'Donnell, and Tejasvi Das was named the best paper for the 23rd IEEE international NEWCAS conference. 

Paper certificate from the NEWCAS 2025 conference that lists "A High-Efficiency LDO with Adaptive PSRR and Bandwidth Enhancements" by Daniel Zeznick, Jacob O'Donnell, and Tejasvi Das as the best paper.

Read More About NEWCAS 2025 Best Paper Award

New Publication in TCAS II on Optimizing Time-Domain Neuromorphic Computing

We’re excited to share our latest work, published in IEEE Transactions on Circuits and Systems II (TCAS II), which explores optimizing time-domain neuromorphic computing for higher throughput. This research is a collaborative effort by students Karsten Bergthold, Hagar Hossam, and Elaine Greenfield, alongside faculty members Tejasvi Das and Cory Merkel. 

The paper, titled "Enabling Long Chain Lengths and High Throughput for Time-Domain Neuromorphic Computing," presents new methods to enhance performance in this emerging field.