Jiaming Li

Researcher | Educator | Engineer | Founder

Jiaming Li, Ph.D.

Assistant Teaching ProfessorSchool of Informatics, Computing, and Cyber SystemsNorthern Arizona University

My work connects interpretable acoustic modeling with AI-enabled engineering and embodied intelligence, from understanding complex physical systems to building practical intelligent applications.

Acoustic modelingAI-enabled engineeringEmbodied AIDesign optimizationData analyticsInformation systems

Research, teaching, and applied AI leadership

Physical insight becomes computational intelligence.

I am an Assistant Teaching Professor at Northern Arizona University. My research spans acoustic modeling, AI applications in engineering, including AI-enabled CAD and robotics, data analytics, and information systems.

I earned my Ph.D. in Mechanical and Aerospace Engineering from Rutgers University in 2022. Before joining NAU, I worked in seismic imaging at CGG and held teaching and academic administration roles in the Rutgers School of Engineering and Rutgers Business School.

Since joining NAU in April 2024, I have served on faculty comprehensive review and doctoral admissions committees and as Assistant Director of Graduate Programs. I am also leading the development of a doctoral program centered on engineering applications of AI and closer integration between research and industry.

Across more than eight years of teaching in mechanical engineering and information systems, I have taught over 2,000 students and guided hundreds of graduate capstone projects. My current collaborations include researchers at Harvard University, the University of Oxford, and other international institutions.

Academic and professional path

Appointments

Assistant Teaching Professor

School of Informatics, Computing, and Cyber Systems, Northern Arizona University

Adjunct Professor, Business School & Assistant to the Dean, School of Engineering

Rutgers University

Seismic Imaging Analyst

North America Surface Imaging, CGG

Education

Ph.D. in Mechanical and Aerospace Engineering

Rutgers University

M.S. in Mechanical and Aerospace Engineering

Rutgers University

B.E. in Mechanical Design, Manufacturing & Automation

Hefei University of Technology

Analytical modeling and inverse design of complex acoustic structures

Classical Helmholtz models become less reliable as resonator geometries grow asymmetric, multi-necked, or otherwise complex. I developed geometry-aware analogy mass-spring models that translate standing-wave behavior into fast, interpretable prediction.

The resulting AMSS and ASPMSS frameworks connect target sound-reduction frequencies directly to feasible resonator geometry, replacing repeated trial-and-error simulation with an analytical design workflow.

View this work on Google Scholar
Analytical modeling and inverse design of acoustic resonators
Research contribution map: model limitation, analytical solution, and engineering value.

Physics-guided learning, multimodal AI, and engineering intelligence

Current projects extend interpretable physical models into data-efficient machine learning, domain-adapted language models, and embodied systems.

Analytical-prior machine learning for data-efficient acoustic prediction
Two routes for retaining or distilling analytical prior information under limited simulation budgets.

Analytical-prior machine learning for data-efficient acoustic prediction

This framework combines inexpensive analytical models with scarce high-fidelity simulations. Residual learning and prior distillation improve resonator prediction while preserving either explicit physical interpretability or a self-contained inference model.

Read the preprint

Rule-aware, parameter-efficient financial language modeling

RA-FinBERT combines LoRA-adapted contextual representations with lightweight sentiment and source features. The model improves low-resource financial sentiment classification with only a small number of additional trainable weights.

Read the preprint
Rule-aware, parameter-efficient financial language modeling
Numerical features and LoRA-adapted FinBERT representations are fused in a lightweight classification architecture.
Acoustic-aware embodied intelligence and engineering agents
An acoustic-aware world-model framework for multimodal learning and safer robot execution.

Acoustic-aware embodied intelligence and engineering agents

This direction combines motion, audio, vibration, state, and action for safer robot learning and execution. Related work also explores natural-language-driven CAD, multimodal evaluation, and intelligent engineering workflows.

Read the research statement

Publications

2026

2025

2024

2019

Research and engineering toolkit

Methods and platforms used across applied AI, computational modeling, robotics, simulation, and information systems.

AI / Machine Learning

Generative & Agentic AILLMs & Foundation ModelsMultimodal AIReinforcement LearningLoRA / PEFTSelf-Supervised LearningFederated LearningPhysics-Guided MLTime-Series ModelingPyTorchTensorFlowPythonCUDA

Computer Vision / Physical AI

Computer VisionImage ProcessingCNNs / ViTsMasked AutoencodersDiffusion ModelsImage ReconstructionRobotics & Embodied AIVLM / VLAWorld ModelsRobot LearningSim-to-RealIsaac Sim / LabROS2

Engineering / Simulation

AcousticsMechanical DesignComputational ModelingDigital TwinsSmart ManufacturingCAD / CAEFEA / CFDDesign OptimizationCOMSOLANSYS FluentSolidWorksMATLAB / SimulinkAutoCADCATIA

Software / Systems

Web & Mobile DevelopmentInformation SystemsProject ManagementJavaScript / ReactC++SQLUnix / LinuxJupyterLaTeX

jiaming.li@nau.edu