• Christianne Beekman

    She is setting up a state-of-the-art thin film growth and characterization laboratory at the High Magnetic Field Laboratory, exploiting the many interactions in complex oxides to find new ways to control their properties using external perturbations (such as strain, electric fields and optical excitation). This will lead to new insights into a broad range of fundamental physical properties as well as advancements in developing novel heterostructure devices. 

    More about Christianne Beekman

  • Hoyong Chung

    His group studies the design and synthesis of application-oriented polymers using interdisciplinary concepts from biology, materials science, organic chemistry, and chemical engineering. This research includes development of new biomedical materials, sustainable smart materials, and catalytic polymer materials. Each research topic seeks to answer fundamental questions in polymer chemistry and utilize this insight to solve real-world issues. 

    More about Hoyong Chung

  • Yan-Yan Hu

    Her research specialties include Solid-state NMR, Interfaces, Energy Storage, Electrochemistry, and Organic-Inorganic Composite Materials. 

    More about Yan-Yan Hu

  • Chen Huang

    His major research interest focuses on developing advanced theoretical methods to solve challenging electronic and kinetic problems in materials. A reliable understanding of electronic and kinetic properties in materials is essential for the success of the computer-aided rational design of materials. He is actively developing a so-called quantum mechanics embedding theory which offers a way to perform multiscale quantum mechanics simulations of complex materials and molecules.

    More about Chen Huang

  • Justin Kennemur

    Research in the Kennemur Group focuses on the design and synthesis of functional polymer systems with the goal of creating new materials that address key issues in society. An area of great interest is the ability of macromolecules to autonomously self-assemble into a hierarchy of secondary, tertiary, and even quaternary structures. By tailoring the design at the molecular level, we can investigate the important principles involved in these processes and ultimately tune properties to gain a desired function from the material. 

    More about Justin Kennemur

  • Jose L. Mendoza-Cortes

    His research philosophy focus on attacking problems in engineering and pure sciences and developing methods needed to solve them. These problems are studied by developing or using established methods related to: Multiscale – Multiparadigm simulations (from atoms to continuum), Quantum Mechanics (DFT, MP, CCSD), Atomistic Simulations (MD, Force Field development, ReaxFF, Coarse grained FF), Statistical Mechanics (Soft matter), Computational Engineering (Chemical and Mechanical Eng., and Materials) and Machine Learning (Big Data).

    More about Jose L. Mendoza-Cortes

  • Chengying (Cheryl) Xu

    Her research interests include manufacturing of advanced materials, manufacturing process optimization and control, and high temperature sensor design.

    More about Chengying (Cheryl) Xu

  • Zhibin Yu

    Her major research interest centers on thin-film materials and process innovation: i) to synthesize new thin-film materials to further advance the frontiers in the above fields, ii) as well as to develop novel processing methods to overcome the scalability limitations at the manufacturing stage. The goal is to achieve low cost, high performance energy devices at manufacturing scale for generating renewable energy and boosting energy efficiency.

    More about Zhibin Yu

  • Shangchao Lin

    His research is focused on multi-scale computational materials science, atomistic simulations of functional nano-/biomaterials, coarse-grained simulations of composite microstructures, nanoscale thermal transport, advanced thermal fluids, electrochemical energy storage, water purification and desalination, nano/biomechanics, colloid and surface chemistry, and interfacial phenomena. 

    More about Shangchao Lin

Materials Science Program Development Site



What is Materials Science?

MS&E-students-promo1.jpg

Materials Science and Engineering is an interdisciplinary field incorporating chemistry, physics, and engineering.  For millennia materials have defined mankind’s achievements – think of the stone age and bronze age – and today’s new materials underlie technological advances.  Materials scientists study the relation between processing, microstructure, properties, and performance of materials to understand and improve well known materials such as metals and ceramics, and to develop new materials, such as carbon nanotubes and advanced composites.  The properties they study are mechanical, electrical, optical, magnetic, and more recently biological.  They think about materials beginning at the atomic level, which means envisioning the type and arrangement of the atoms in the unit cell. Computational materials scientists work to understand the origins of the properties of existing materials or guide the development of new materials.  The faculty members in the Interdisciplinary Program in Materials Science and Engineering at FSU do research on a wide variety of topics.

APPLY NOW
Applications Now Being Accepted!

 

Twitter


A cleaner, more efficient car? FSU professor designs new material to better store hydrogen fuel

Researcher-develops-material-to-create-sustainable-energy-source_medium.jpg
Assistant Professor of Chemical 
Eng. Jose L. Mendoza-Cortes

A Florida State University researcher has designed new materials that could be used to store hydrogen fuel more efficiently in vehicles or other devices that use clean energy.

Jose Mendoza-Cortes, an assistant professor in the FAMU-FSU College of Engineering, describes his proposed solution and designs for these new materials in an article in the Journal of the American Chemical Society.

“There will be many proposals to solve energy issues, and this may be one option,” Mendoza-Cortes said. “We wanted to find the most effective way to store hydrogen so that perhaps in the future, cars could use this to run longer distances and more efficiently.”

Scientists had already discovered that they needed to pressurize hydrogen to compact it and make it usable as a fuel for cars. But Mendoza-Cortes wanted to take it one step further and make the process more efficient and economically viable.

Continue Reading Here


Quicklinks

Legacy Sort
8
Legacy Priority
0