A top-10 public program, building the nation’s first self-driving metals lab
U.S. News & World Report ranks Texas A&M MSEN 10th among public undergraduate programs (2027) and 8th among public graduate programs (2026). Many of today’s hardest problems come down to a material that can’t yet do the job.
The newest example is ARM-MIP, a $24.9 million NSF platform that uses robotics and AI to speed up alloy discovery. The aim: decades of alloy discovery, compressed into months. It will be open to researchers at universities, national labs, and industry, and MSEN students and faculty will work alongside it.
This fall, 500+ students are enrolled: 300+ undergraduates, 40+ master’s students, and 150+ Ph.D. students. They learn from 22 tenured and tenure-track faculty whose work spans ten research areas, from advanced structural materials and polymers to quantum materials and AI-driven materials design.
What is Materials Science and Engineering, and why does it matter?
Materials science and engineering looks at why a material behaves the way it does. Structure and chemistry, from the atomic scale to the scale of a highway, determine properties like strength, conductivity, and heat tolerance. Change the structure, and the properties change with it. That is how metals and alloys, ceramics, polymers, semiconductors, superconductors, composites, and magnetic and optical materials get stronger, lighter, or longer-lasting. The field draws on mechanical, chemical, electrical, biomedical, civil, aerospace, and nuclear engineering, plus physics and chemistry.
People name whole eras of history after the materials they could make: the Stone Age, the Bronze Age, the Iron Age. The Silicon Age followed the semiconductor. Today, MSEN work covers quantum materials, advanced alloys, polymers, and AI-driven materials design.
What do Materials Scientists and Engineers do?
Materials scientists and engineers work across every major industry, often at the intersection of disciplines, to create solutions that impact daily life and future technologies. Examples include:
- Electronics – Designing semiconductors and packaging for faster, more reliable devices.
- Healthcare – Developing biomaterials for artificial joints, heart valves, and smart implants.
- Energy – Advancing materials for batteries, solar cells, and sustainable energy systems.
- Aerospace – Creating lightweight, high-strength materials for aircraft and spacecraft, as well as adaptive “smart” structures.
- Defense & Manufacturing – Pioneering nanomaterials and actuators for sensors, robotics, and advanced devices.
Whether in industry, government, or academia, Aggie engineers are shaping the technologies that will define the future.
Work on Materials That Matter
Materials science and engineering at Texas A&M starts with a material that is holding something back. Ph.D. students, faculty, and industry partners tackle these problems across ten research areas, and ARM-MIP will give them a robotic lab to speed up alloy discovery. Apply to a graduate program, join an undergraduate research project, or bring a problem to the labs.