Fei Dou
Logo Assistant Professor (Tenure-Track)
School of Computing, the University of Georgia (UGA)

Fei Dou is an Assistant Professor in the School of Computing at the University of Georgia. She obtained her Ph.D. in 2023 from the Department of Computer Science and Engineering at the University of Connecticut, where she worked in the Laboratory of Machine Learning & Health Informatics under the supervision of Prof. Jinbo Bi. Her work contributed to fundamental Machine Learning (ML) research for the Internet of Things (IoT) and Cyber-Physical Systems (CPS), particularly in the areas of federated learning, reinforcement learning, and self-supervised learning.

Fei’s research focuses on advancing Machine Intelligence for Ubiquitous Computing in Distributed Systems, with an emphasis on scalable, responsible, and context-aware AI solutions.


Education
  • University of Connecticut (UConn)
    University of Connecticut (UConn)
    Department of Computer Science and Engineering
    Ph.D.
    May 2023
Honors & Awards
  • Women of Innovation(WOI) Academic Innovation and Leadership, Connecticut
    2023
  • Provost Recognition of Teaching Excellence, University of Connecticut
    2017
News
2025
Paper One paper is accepted in UbiComp/IMWUT 2025.
May 10
Service Served as a panelist for NSF review panel.
Jan 11
2024
Grant Received IAI Interdisciplinary Seed Grant as PI.
Nov 06
Paper One paper is accepted in IEEE Transactions on Mobile Computing (TMC 2025).
Sep 24
Paper One paper is accepted in MobiCom PICASSO 2024.
Aug 21
Paper One paper is accepted in UbiComp/IMWUT 2024.
Aug 19
Service Served as a panelist for DOE review panel.
Jun 15
Award Received IAI Research Award.
Apr 22
Paper Two papers are accepted in IEEE ICC 2024, one of the two IEEE Communications Society's flagship conferences.
Jan 30
2023
Award I am thrilled and honored to be recognized as the Collegian Winner for the 2023 Women of Innovation (WOI) Academic Innovation and Leadership in Connecticut (one person per year)! Please check out the latest news: patch, 8newsnow, UConnToday.
Oct 22
Paper Two papers are accepted by NeurIPS 2023! Congratulations to all!
Sep 21
Paper Please check our new vision paper on AGI in the IOT.
Sep 15
I’m officially joining the School of Computing at the University of Georgia as a Tenure-Track Assistant Professor.
Aug 01
Paper One paper is accepted by IEEE IOT-J 2023!
May 10
Paper One paper is accepted by IJCAI 2023!
Apr 11
Selected Publications (view all )
Self-Supervised Representation Learning and Temporal-Spectral Feature Fusion for Bed Occupancy Detection
Self-Supervised Representation Learning and Temporal-Spectral Feature Fusion for Bed Occupancy Detection

Yingjian Song, Zaid Farooq Pitafi, Fei Dou, Jin Sun, Xiang Zhang, Bradley G Phillips, WenZhan Song

Proceedings of the ACM on Interactive, Mobile, Wearable and Ubiquitous Technologies (UbiComp/IMWUT) 2024

This paper presents SeismoDot, a bed occupancy detection system that combines self-supervised learning and spectral-temporal feature fusion to improve generalization across diverse environments with limited data. Unlike traditional threshold-based methods, SeismoDot achieves high accuracy and F1 scores across 13 settings and remains effective even when trained on only 20% of the data, demonstrating strong adaptability and efficiency.

Self-Supervised Representation Learning and Temporal-Spectral Feature Fusion for Bed Occupancy Detection

Yingjian Song, Zaid Farooq Pitafi, Fei Dou, Jin Sun, Xiang Zhang, Bradley G Phillips, WenZhan Song

Proceedings of the ACM on Interactive, Mobile, Wearable and Ubiquitous Technologies (UbiComp/IMWUT) 2024

This paper presents SeismoDot, a bed occupancy detection system that combines self-supervised learning and spectral-temporal feature fusion to improve generalization across diverse environments with limited data. Unlike traditional threshold-based methods, SeismoDot achieves high accuracy and F1 scores across 13 settings and remains effective even when trained on only 20% of the data, demonstrating strong adaptability and efficiency.

Mobilizing Personalized Federated Learning in Infrastructure-Less and Heterogeneous Environments via Random Walk Stochastic ADMM
Mobilizing Personalized Federated Learning in Infrastructure-Less and Heterogeneous Environments via Random Walk Stochastic ADMM

Ziba Parsons, Fei Dou, Houyi Du, Zheng Song, Jin Lu

Advances in Neural Information Processing Systems 36 (NeurIPS) 2023

This paper proposes RWSADMM, a novel federated learning algorithm designed for infrastructure-less environments with isolated, heterogeneous nodes connected via wireless links. By leveraging server mobility and enforcing hard constraints among adjacent clients, RWSADMM enables efficient, personalized learning with provable convergence, reduced communication costs, and improved accuracy and scalability over baseline methods.

Mobilizing Personalized Federated Learning in Infrastructure-Less and Heterogeneous Environments via Random Walk Stochastic ADMM

Ziba Parsons, Fei Dou, Houyi Du, Zheng Song, Jin Lu

Advances in Neural Information Processing Systems 36 (NeurIPS) 2023

This paper proposes RWSADMM, a novel federated learning algorithm designed for infrastructure-less environments with isolated, heterogeneous nodes connected via wireless links. By leveraging server mobility and enforcing hard constraints among adjacent clients, RWSADMM enables efficient, personalized learning with provable convergence, reduced communication costs, and improved accuracy and scalability over baseline methods.

Polyhedron Attention Module: Learning Adaptive-order Interactions
Polyhedron Attention Module: Learning Adaptive-order Interactions

Tan Zhu, Fei Dou, Xinyu Wang, Jin Lu, Jinbo Bi

Advances in Neural Information Processing Systems 36 (NeurIPS) 2023

This paper introduces the Polyhedron Attention Module (PAM), which forms interpretable, piecewise polynomial models by adaptively learning feature interactions within polyhedrons in the input space. PAM outperforms ReLU-based networks in expressive power and achieves superior classification results on large-scale click-through rate datasets while uncovering meaningful interactions in medical applications.

Polyhedron Attention Module: Learning Adaptive-order Interactions

Tan Zhu, Fei Dou, Xinyu Wang, Jin Lu, Jinbo Bi

Advances in Neural Information Processing Systems 36 (NeurIPS) 2023

This paper introduces the Polyhedron Attention Module (PAM), which forms interpretable, piecewise polynomial models by adaptively learning feature interactions within polyhedrons in the input space. PAM outperforms ReLU-based networks in expressive power and achieves superior classification results on large-scale click-through rate datasets while uncovering meaningful interactions in medical applications.

On-Device Indoor Positioning: A Federated Reinforcement Learning Approach With Heterogeneous Devices
On-Device Indoor Positioning: A Federated Reinforcement Learning Approach With Heterogeneous Devices

Fei Dou, Jin Lu, Tan Zhu, Jinbo Bi

IEEE Internet of Things Journal (IOT-J) 2023

This paper proposes a personalized federated reinforcement learning (RL) framework for indoor localization that enables mobile devices to train locally while preserving data privacy and coping with limited connectivity and data heterogeneity. By combining personalized on-device RL with a global model trained via sparse updates, the approach achieves improved localization accuracy and robustness, and is further extended to support few-shot learning for rapid adaptation to new users with minimal data.

On-Device Indoor Positioning: A Federated Reinforcement Learning Approach With Heterogeneous Devices

Fei Dou, Jin Lu, Tan Zhu, Jinbo Bi

IEEE Internet of Things Journal (IOT-J) 2023

This paper proposes a personalized federated reinforcement learning (RL) framework for indoor localization that enables mobile devices to train locally while preserving data privacy and coping with limited connectivity and data heterogeneity. By combining personalized on-device RL with a global model trained via sparse updates, the approach achieves improved localization accuracy and robustness, and is further extended to support few-shot learning for rapid adaptation to new users with minimal data.

All publications

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