Michael Curtis Broughton

Michael Curtis Broughton is a U.S. Army veteran, industrial engineer, and logistics strategist whose career spans frontline operations, extreme-environment aviation sustainment, advanced academic systems research, and enterprise-scale commercial supply chain optimization.

Career & Development Highlights:

Broughton developed an early orientation toward structured process, spatial reasoning, and discipline through competitive swimming, strategic chess, crisis-response, and Red Cross training. Broughton built an extensive multi-degree academic foundation across Sam Houston State University, American Military University, Texas A&M University, and Northern Illinois University, earning master's degrees spanning Industrial & Systems Engineering, Industrial Management, Industrial Distribution, and Transportation & Logistics. His graduate work produced an approved engineering thesis titled "Large Retail Logistics Warehouse Execution System," which originated the LRL MHE-R DIBS (Material Handling Equipment-Robotized Dynamic Integrated Bulk Slotting) framework to bridge the gap between digital software intent (WMS/WES) and physical floor automation. His Industrial Engineering Thesis received several hundred positive reviews.

Translating operational precision to commercial supply chains, Broughton has since established a strong corporate trajectory, serving as a corporate logistics analyst at McLane Company, a distribution center engineer, a senior logistics professional overseeing P&L metrics for multi-million-dollar appliance portfolios, and a senior engineering optimization leader within the commercial supply chain sector.

He graduated from Northern Illinois University School of Engineering with Honors and is a member of Alpha Pi Mu (APM), the premier international honor society dedicated exclusively to Industrial Engineering. With this affiliation, he works in close partnership with the Institute of Industrial and Systems Engineers (IISE).

"A system should not be judged by how it performs on its best day, but by how it functions when conditions are at their absolute worst." -Michael Curtis Broughton