Adnan Khan, a PhD candidate in Materials Science and Engineering at Texas A&M University, has garnered international recognition for his research in corrosion science, additive manufacturing, and the degradation of advanced alloys vital to energy infrastructure. His academic trajectory spans Pakistan, Qatar, and the United States, reflecting a blend of scientific innovation and dedication to engineering education.

Originally from Peshawar, Pakistan, Khan earned his bachelor’s degree in Mechanical Engineering from CECOS University, where he graduated with distinction and ranked consistently among the top students. He pursued his master’s degree at Qatar University, focusing on advanced corrosion protection technologies for oil and gas applications. His research on smart anti-corrosive polymeric coatings earned him the Gold Medal and Best Thesis Award from the College of Engineering, highlighting his ability to align academic inquiry with practical industry challenges. Khan was also honored with the Academic Excellence Award by Pakistan’s former Ambassador to Qatar, HE Syed Ahsan Raza Shah, recognizing his accomplishments as a Pakistani student abroad.

At Texas A&M University, Khan conducts research at the National Corrosion and Reliability Laboratory, investigating the effects of harsh environments on the long-term reliability of engineering materials used in the energy sector. His work addresses corrosion, hydrogen embrittlement, high-temperature degradation, and environmentally assisted damage in advanced structural alloys. A significant portion of his doctoral research examines additively manufactured stainless steels and nickel-based superalloys, with emphasis on how microstructural features influence corrosion resistance and mechanical reliability in aggressive environments such as CO2 and H2S systems commonly found in oil and gas operations.

Khan employs a variety of advanced techniques including electrochemical impedance spectroscopy, potentiodynamic polarization, hydrogen charging, slow strain rate testing, nanoindentation, scanning electron microscopy, energy dispersive spectroscopy, electron backscatter diffraction, and high-temperature mechanical evaluation to study the relationship between material processing, microstructure, and degradation behavior.

In addition to his research, Khan has distinguished himself as an educator at Texas A&M. Serving as a Teaching Assistant in the Department of Materials Science and Engineering, he has mentored students in laboratory instruction, materials characterization, experimental design, and engineering analysis. In 2026, he received the MSEN Outstanding Teaching Award, underscoring his commitment to both research and pedagogy.

Khan’s academic contributions include 19 journal publications, two book chapters, and a U.S. patent. His work has been widely cited, with nearly 800 citations and an h-index of 15, appearing in leading journals such as ACS Applied Materials & Interfaces, Progress in Organic Coatings, and the Journal of Materials Science. His research has been presented at international conferences including TMS, MS&T, AMPP, EUROCORR, and the Advanced Materials Congress.

Among his notable studies, Khan investigated HP40Nb reformer tube alloys exposed to 950°C, employing machine learning to understand microstructural evolution and mechanical degradation relevant to hydrogen production infrastructure. He has also examined the corrosion behavior of additively manufactured 316L stainless steel in CO2-saturated environments, revealing the influence of melt pool boundaries and microstructural heterogeneity on local corrosion susceptibility. His ongoing work on laser powder bed fused Alloy 718 explores heat treatment optimization and hydrogen-assisted degradation mechanisms.

Through combining advanced characterization methods with innovative manufacturing processes, Khan’s work aims to enhance the safety, durability, and long-term performance of materials critical to energy infrastructure under extreme service conditions.