Neuron-based Multifractal Analysis of Neuron Interaction Dynamics in Large Models
NeuroMFA characterizes the multifractal organization of AI weight networks across training checkpoints.
Assistant Professor
Electrical Engineering and Computer Science
University of Tennessee, Knoxville

I develop mathematical and AI methods for the quantitative study of structure and dynamics across scales. I ask what we can predict about each, and how they shape function. AI is both a method I develop and a complex system I study. I am extending this work toward inverse design.
I joined UTK in Fall 2025 and lead the DUAL research group. I studied at the University of Southern California (Ph.D., 2019–2025) and Zhejiang University (bachelor's, 2015–2019).
Forward ModelingandInverse Design:Quantifying structure and dynamics across scales, and guiding design.AI for ScienceandScience for AI:Understanding the world with AI, and understanding AI itself.
NeuroMFA characterizes the multifractal organization of AI weight networks across training checkpoints.
MIHC combines multi-view hypergraphs and an information bottleneck for interpretable congestion prediction.
Multifractal spiking statistics connect neuronal dynamics to network structure and function.
ITHP combines a neuro-inspired processing hierarchy with information bottlenecks for multimodal learning.
CMWNO learns coupled solution operators through interacting kernels in multiwavelet space.
NMFA uses node-centered box growth to characterize multiscale network structure and compare its complexity and heterogeneity.
I teach Artificial Intelligence (COSC 423/523) and Introduction to Machine Learning (COSC 325) at UTK.
I encourage students to turn broad interests into precise questions and testable hypotheses.