Miao Pan
University of Houston, TX·Computer Science
Phones, wearables and connected vehicles can increasingly train machine learning models together without sending their private data to a central server. This approach is called federated learning (FL).
- Fields
Computer Science
Engineering
- Topics
federated learning
mobile edge computing
serverless computing
- Grants
- 4 known grants, through Sep 2028
What they work on
- Design software-hardware co-designed model pruning and adaptive quantization schemes that exploit the sparsity of model updates to reduce computation and memory access during federated learning on a single 5G mobile device.
- Balance local computing against 5G transmission, and develop differentially private compression based on sparsification and quantization that protects data privacy while keeping model accuracy and communication efficiency high, evaluated on a testbed.
- Develop a universal method to estimate the energy that diverse devices use when training deep neural networks of different architectures in federated learning, using a mobile AI testbed and energy measurement setup.
- Improve federated learning energy efficiency in high-speed settings such as autonomous driving and augmented/virtual reality, and select training participants by weighing accuracy and latency against energy use and battery life.
- Use serverless computing at the network edge to provide machine learning computing as a service, supporting federated learning across large numbers of heterogeneous mobile devices with bursty workloads.
- Protect on-device training data against inference attacks with an energy-efficient piggyback differential privacy design that combines privacy gains from gradient quantization and sparsification with natural Gaussian noise in wireless channels.
- Develop multi-bit over-the-air computation (M-AirComp) spectrum access, in which simultaneous transmissions combine in the air, to send federated learning updates efficiently under limited spectrum while reducing device energy.
- Design collaborative training schemes between unmanned aerial vehicles (UAVs) and ground vehicles for fast, energy-efficient federated learning within the AGILE aerial-ground mobile edge computing system.
- Jointly optimize UAV positioning, communication and computing-resource allocation, and develop dynamic UAV movement and resource-reconfiguration schemes that adapt to user demand and changing ground-vehicle resources.
More about the research
Each device trains on its own data and shares only model updates. However, these devices have limited batteries, computing power and wireless spectrum (the radio frequencies available for transmission). The updates for large deep learning models also create heavy network traffic. Across four collaborative projects, the research designs wireless networks, edge computing systems and on-device methods to make FL more energy-efficient, faster, more private and more resilient.
Why it matters
Federated learning lets applications in healthcare, finance and autonomous driving learn from data on people's phones and wearables without collecting that data in one place. Methods that cut energy use, network traffic and privacy risk could make these applications practical on everyday battery-powered devices without draining them quickly. They could also ease the load on crowded wireless networks with limited spectrum. Drone- and vehicle-based edge computing could bring low-delay computing to areas with many connected devices.
Known grants
From NIH and NSF research grants. Labs often have other funding we can't see.
Collaborative Research: CSR: Medium: Enhancing Energy Awareness for Efficient Federated Learning over Mobile AI Systems
NSF · Oct 2024 – Sep 2028
Collaborative Research: CISE MSI: RDP: CNS: Towards the Resilient NextG Network Design for Federated Learning over Mobile Devices
NSF · Jan 2025 – Dec 2026
Collaborative Research:CISE-MSI:DP:CNS:Enabling On-Demand and Flexible Mobile Edge Computing with Integrated Aerial-Ground Vehicles
NSF · Oct 2023 – Sep 2026
Closest labs
Qi Lu
University of Texas Rio Grande Valley, TX·Computer Science
Develop a decentralized algorithm that plans multiple shortest routes at once, so that UAVs (aerial drones) can explore promising locations on demand, collecting data quickly while saving energy for the ground robots in the swarm.
Yingyan Lin
Georgia Institute of Technology, GA·Computer Science·Early-career
Create algorithms that summarize streaming data on each edge device to cut memory use and latency while preserving privacy, as the basis for decentralized incremental learning.
Ali Pezeshki
Colorado State University-Fort Collins, CO·Engineering
Develop a stochastic optimization framework in which radar and communication users share spectrum under constraints that keep the probability of harmful interference low.
The school
University of Houston: 21 labs on PI Pages, $239M a year on research, 374 research doctorates a year.
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