Research Thrust

Intelligent Enterprise Operations

Coordinating, securing, and learning across distributed autonomous operations

 

What it means

AI, optimization, and system-design methods that coordinate resources, robots, workflows, facilities, and operational decisions across complex manufacturing environments.

Why it matters

AMR deployments rely on manually specified routes, rule-based dispatching, and pre-set workflows that cannot adapt when tasks, layouts, or priorities change. Multi-site enterprises need visibility across distributed operations without centralizing proprietary data.

What this research enables

Reliable Physical AI for Manufacturing
Autonomy that holds up outside the conditions it was built for
Autonomous Multi-Robot Orchestration
Coordinating fleets of mobile robots for adaptive material movement
Secure Distributed Operations
Using causal discovery to detect abnormal process relationships across enterprise sites without centralizing sensitive data
Autonomous workflows for materials discovery
Coordinating fleets of mobile robots for adaptive material movement 

Value to Industry

  • Higher throughput and better utilization across distributed operations 
  • Protection of production systems and proprietary data 
  • Faster discovery through autonomous experimentation
Capability Area

Autonomous workflows for materials discovery

Coordinating fleets of mobile robots for adaptive material movement 

Operational Gap

Core Innovation

Value to Industry

Capability Area

Autonomous Multi-Robot Orchestration

Coordinating fleets of mobile robots for adaptive material movement

Operational Gap

Core Innovation

Value to Industry

Dynamic task allocation and routing for AMR fleets

Faculty:

Battery-, workload-, and condition-aware dispatching

Faculty: Jianjun Shi

Capability Area

Reliable Physical AI for Manufacturing

Autonomy that holds up outside the conditions it was built for

Operational Gap

Autonomy systems perform well under predefined conditions but degrade in new facilities, unfamiliar layouts, degraded sensing, ambiguous instructions, and out-of-distribution scenarios

Core Innovation

Robot intelligence that generalizes across facilities rather than being reconfigured for each one, detecting its own failures, recovering from them, and explaining its decisions to human supervisors

Value to Industry

Robot deployment that scales across facilities, less manual configuration, autonomy failures caught before they become costly, and robot decisions a supervisor can understand and trust

Robust navigation across facility layouts

Faculty: Jianjun Shi

 U.S. National Science Foundation (NSF) 

Vision-language scene understanding in the facility

Faculty: Jianjun Shi

 U.S. National Science Foundation (NSF) 
Capability Area

Secure Distributed Operations

Using causal discovery to detect abnormal process relationships across enterprise sites without centralizing sensitive data

Operational Gap

Distributed manufacturers lack visibility into process relationships across plants. Most monitoring remains site-local and signal-level; subtle disruptions only appear as changes in process relationships.

Core Innovation

Federated causal AI detects temporal relationships among process variables across distributed sites and enables identification of abnormal causal patterns linked to cyberattacks, process disruptions, or degraded operations.

Value to Industry

Improves enterprise-wide visibility without centralizing sensitive plant data, supports root-cause investigation, and strengthens resilience across distributed operations.

Cyberattack detection across multi-site manufacturing systems

Faculty: Nagi Gebraeel

 Novelis   U.S. National Science Foundation (NSF) 

Work With Us

Have a Problem in One of These Areas?

 

Every thrust in this portfolio began with an operational gap a partner needed closed. Tell us about yours.