Yan Yan
University of Illinois Chicago, IL·Computer Science
How can computers make sense of large, messy streams of visual and motion data when labeled examples are scarce? The lab's projects apply machine learning and computer vision to three real-world problems.
- Fields
Computer Science
Engineering
Biomedical Engineering
- Topics
machine learning
computer vision
unsupervised learning
- Grants
- 3 known grants, through Oct 2028
What they work on
- Develop unsupervised learning models for re-identifying and tracking people and vehicles across a network of city cameras, processing video in real time across edge devices and the cloud.
- Protect sensitive surveillance video by combining lightweight cryptography with Trusted Execution Environments (TEEs), secure hardware zones, within a scalable and resilient networked system.
- Create unsupervised tracing algorithms and proofreading software to reconstruct sparsely labeled Brainbow neurons in super-resolution 3D images of whole Drosophila brains.
- Build a generative model that synthesizes realistic Bitbow neuron images, and use them to train a model that automatically reconstructs densely trans-Tango/Bitbow-labeled fly brain circuits.
- Build personalized fall-risk and fall-detection models from smartwatch and hip-phone accelerometer data, using small-sample multi-task and multi-modal deep learning in older adults in assisted living.
- Test whether generative adversarial networks (GANs) can fill in missing movement data by relating accelerometer signals to full-body Azure Kinect skeleton motion, focusing on limb–core dynamics.
More about the research
The first is citywide camera networks. The second is mapping brain wiring from microscope images. The third is detecting falls in older adults from smartwatch data. A common theme is unsupervised or small-sample learning: methods that learn from little or no hand-labeled data.
Why it matters
Cities could use privacy-preserving camera analytics to improve traffic and public safety while protecting pedestrians' and drivers' images. Neuroscientists could reconstruct brain circuits faster and more accurately, and the methods could apply to other biomedical image analysis. Low-cost, personalized fall detection using a smartwatch and phone could help older adults live independently and reduce medical costs from falls.
Known grants
From NIH and NSF research grants. Labs often have other funding we can't see.
CRCNS Research Proposal: A Unified Framework for Unsupervised Sparse-to-dense Brain Image Generation and Neural Circuit Reconstruction
NSF · Oct 2024 – Oct 2028
Collaborative Research: CSR: Small:Accurate and Private Multi-Camera Surveillance System on Time-Sensitive Networks
NSF · Apr 2025 – Mar 2028
Collaborative Research: SCH: Personalized Watch-based Fall Risk Analysis and Detection with Cross Modal Learning
NSF · Oct 2024 – Aug 2027
Closest labs
Hamed Tabkhi
University of North Carolina at Charlotte, NC·Computer Science
Develop a semi-supervised transformer model that detects unusual or threatening behavior in real time from surveillance video. Use identity-neutral visual features so that no personally identifiable information is needed.
Guang Wang
Florida State University, FL·Computer Science
Build cross-domain data curation tools for MobilityNet that combine real mobility datasets from different sources to reduce data bias.
Pavan Turaga
Arizona State University Campus Immersion, AZ·Computer Science
Test whether replacing the fixed input distribution of a generative adversarial network with tunable non-parametric distributions reduces distribution mismatch when generated samples are mixed.
The school
University of Illinois Chicago: 42 labs on PI Pages, $532M a year on research, 359 research doctorates a year.
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