I am a machine-learning and computer-vision researcher building real-time perception that runs on the edge. My work spans object detection, SLAM, and model compression, and I take systems from research prototype to on-device deployment. I hold a PhD in computational neuroscience and a machine-learning post-doc, with research published across neuroscience and vision.

Research interests: real-time object detection, visual-inertial SLAM, quantization & pruning for edge inference, multi-camera calibration, dataset curation, and Auto-ML.

Projects

Real-time UAV & swarm detection on edge GPUs

YOLO- and RT-DETR-based detectors running in real time on NVIDIA Jetson Orin, with INT8 quantization-aware training and an error taxonomy that targets data collection.

Object detection · QAT · Jetson Orin

Perception for autonomous mobile robots

Obstacle detection with wide-area mapping and localization, with models compressed via quantization and pruning to hold real-time latency on-device.

Mapping · Localization · Runtime optimization

Multi-camera perception & auto-calibration

Autonomous multi-camera perception with real-time auto-calibration that keeps stereo rigs aligned in the field, without manual resets.

Stereo · Calibration · Autonomous driving

Classification, image-quality & face models

Core vision models for image classification, multi-label tagging, image-quality enhancement, and face toonification (cartoon-style stylization).

Classification · Multi-label · Image quality

Stereo-IMU fusion SLAM

Stereo + IMU visual-inertial SLAM tuned to run in real time within the compute budget of mobile chipsets.

SLAM · Visual-inertial fusion · Embedded

Stereo depth & real-time tracking

Stereo disparity and depth segmentation with object tracking and real-time head detection on embedded vision SoCs.

Stereo depth · Segmentation · Tracking

Blog

Education

  • Post-Doctoral Fellow, Machine Learning 2012–2013
    Weizmann Institute of Science
  • PhD, Computational Neuroscience 2007–2011
    Ben-Gurion University of the Negev
  • MSc, Computational Biology 2003–2006
    Tel-Aviv University
  • BSc, Mathematical & Life Sciences 2000–2003
    Tel-Aviv University

Selected publications

  1. A. Weissbrod, A. Shapiro, G. Vasserman, L. Edry, M. Dayan, A. Yitzhaky, L. Hertzberg, O. Feinerman, T. Kimchi. Automated long-term tracking and social behavioural phenotyping of animal colonies within a semi-natural environment. Nature Communications, 2013.
  2. G. Vasserman, E. Schneidman, R. Segev. Adaptive color contrast coding in the retina efficiently matches natural scene statistics. PLOS ONE, 2013.
  3. M. Wacht Katz, Z. Abramsky, B. P. Kotler, M. L. Rosenzweig, O. Altstein, G. Vasserman. Optimal foraging of Little Egrets in a patchy environment. The American Naturalist, 2013.
  4. A. Ben-Simon, O. Ben-Shahar, G. Vasserman, M. Ben-Tov, R. Segev. Visual acuity in the archer fish: behavior, anatomy, and neurophysiology. Journal of Vision, 2012.
  5. A. Ben-Simon, O. Ben-Shahar, G. Vasserman, R. Segev. Predictive saccade in the absence of smooth pursuit: interception of moving targets in the archer fish. Journal of Experimental Biology, 2012.
  6. Z. Agur, O. U. Kirnasovsky, G. Vasserman, L. Tencer-Hershkowicz, Y. Kogan, H. Harrison, et al. Dickkopf1 regulates fate decision and drives breast cancer stem cells to differentiation: an experimentally supported mathematical model. PLOS ONE, 2011.
  7. G. Vasserman, M. Shamir, R. Segev. Coding “what” and “when” in the archer fish retina. PLoS Computational Biology, 2010.
  8. A. Plotkin, E. Paperno, G. Vasserman, R. Segev. Magnetic tracking of eye motion in small, fast-moving animals. IEEE Transactions on Magnetics, 2008.
  9. G. Vasserman, L. G. Magal, J. Shepshelovich, E. Elifaz, K. Hirschberg. Processing of VSVG protein is not a rate-limiting step for its efflux from the Golgi complex. Biochem. Biophys. Res. Commun., 2006.

Patents

  • Method for automatic behavioral phenotyping. Yeda — US 2014/0167958.
  • System and method for multiple feature detection and analysis of a rotating tire. Neomatix.
  • Storing data retrieved from different sensors for generating a 3-D image. Inuitive.