Agentic AI for Engineering Design

AI Agent for Engineering Design

Current Ph.D. student: Prathamesh Chaudhari


Engineering design often requires more than running a single simulation or optimization. Engineers must decide what information is needed, which tools to use, how to interpret the results, and what to try next. Agentic AI offers a way to support this process by combining artificial intelligence with engineering models, simulation tools, optimization algorithms, and experimental data.


Our research explores AI agents that can help plan and carry out design tasks, evaluate results, and adapt their strategy as new information becomes available. The goal is not simply to automate engineering work, but to develop reliable tools that can work with engineers in complex design problems involving multiple objectives, uncertainty, and competing sources of information.


Current applications include thermal systems, battery design and manufacturing, autonomous mobility, motorsports, and advanced manufacturing.

Multi-Physics Topology Optimization

Current Ph.D. student: Joel Najmon
Former Ph.D. student: Tong Wu (currently at Siemens)
Sponsors: Walmart Foundation, National Science Foundation (NSF)

Topology optimization is a numerical design methodology to generate non-intuitive, complex, high-performance designs by optimally distributing material within a prescribed volume (design domain). The multi-physics topology optimization (MPTO) methods developed by IUPUI researchers involve the coupled sensitivity analysis of fluid flow, mechanical loads, and thermal loads and the application of mathematical programming algorithms suitable for problems involving tens of thousands of design variables. Applications of MPTO methods include the optimal design of lattice structures of impact energy dissipation, complex flow channels with minimum pressure drop, and conformal cooling for injection molds with maximum heat dissipation.

Bayesian Machine Learning-Driven Design

Current Ph.D. students: Homero Valladares and Aakash Gupta (Cummins)
Current M.S. student: Ashwin Gaonkar
Current (co-advised) Ph.D. student: Niko Prieto (National Univ. of Colombia)
Former Ph.D. student: Kai Liu (currently at Google)
Collaborators at IUPUI: Likun Zhu
Sponsors: Honda R&D Americas, National Academy of Sciences (NAS)

Bayesian machine learning (BML)--the application of Bayesian methods for data science and machine learning--is a global optimization framework that allows the statistical analysis of data from multi-fidelity, multiscale numerical simulations as well as multiscale processing and physical testing The objective is to find the optimal system, component, and material designs along with their optimal manufacturing processes. IUPUI researchers develop multiobjective BML-driven design approaches to optimally design lightweight, multimaterial, vehicle structures for crashworthiness, composite armors for blast mitigation and impact penetration, passive foot prosthesis, coating for automotive power cylinders, and multi-scale design and fabrication of lithium-ion batteries (LIBs) and LIB electrodes.

Generative and Bio-Inspired Design of Lightweight Structures

Current Ph.D. students: Sajjad Raeisi, Ph.D. (c)
Former Ph.D. student: T.J. Sego (currently at IU Bloomington)
Sponsors: Honda R&D Americas, General Motors Co.

Numerical methods for cellular dynamics, such as hybrid cellular automaton (HCA) and the cellular Potts model (CPM), inform designers bio-inspired approaches to generate innovative, high-performance, multi-material, multi-scale structures. Such structures mimic nature designs including organs and tissues such as bone and skin. IUPUI researchers have developed HCA and CPM-based algorithms to model bone functional adaptation and generate growth models by emergence from cellular and intracellular mechanisms. These algorithms have been extended to synthesize bio-inspired engineering structures including multi-material, lightweight vehicle structures.

Concurrent Mechatronic Design and Robotic Systems

Former (co-advised) Ph.D. students: Luis Carlos Sarmiento (Pedagogic National University, Bogota, Colombia), Jaime Arcos (Univ. San Buenaventura, Bogota, Colombia)
Collaborators at IUPUI: Sohel Anwar
Sponsors: National Science Foundation (NSF)

The optimal design of mechatronic systems, such as robotic prostheses and autonomous vehicles, involves the analysis of the interaction of controllers, actuators, and structural elements. IUPUI researchers develop studio-based pedagogies to enhance engineering creativity and create game-changing, optimal mechatronic designs. Researchers in this area develop concurrent design methodologies involving physics-based models and robust, disturbance rejection controllers that produce a stable system response under random perturbations. Applications include the design of robotic prosthetic devices, bipedal robots, agricultural robots, and autonomous vehicles. An ongoing application is the design of a mechanical ventilator for COVID-19 treatment.

Development of Compostable and Water-Soluble Bio-Based Plastics

Sponsor: IUPUI MURI
Collaborator at IUPUI: Amanda Siegel

Bio-based compostable and water-soluble plastics are an alternative to traditional, fossil-based plastics. Made from renewable materials, this new generation of plastics degrade through composite and marine environment exposure into carbon dioxide, water, and biomass without leaving a toxic residue. To accelerate the development of these plastics, IUPUI researchers develop experimentally-driven and machine-learning assisted optimal design approaches. Applications include the development of formulations for plastic injection and additive manufacturing.

Previous Projects

Nonlinear Crashworthiness Design Tool Development Using Hybrid Cellular Automata

Tovar, A. (Sole PI)

Honda R&D Americas ($60,000, Tovar’s portion: 100%)

April 2012 – May 2013