Quantum Materials

Advanced Materials in the Quantum Age

The field of quantum materials is a rapidly evolving research field that includes the design, synthesis and characterization of an exciting new class of materials with novel quantum properties. Quantum materials have the potential to offer functionalities previously unknown to society such as topological conduction, superconductivity, and manipulation of quantum information (spin). The field of quantum materials is positioned to revolutionize the next-generation of applications by using and engineering these unique quantum effects. Can we build the building blocks of new-generation quantum computers? Can we make quantum ultra-sensitive sensors for bio-detection, gas detection, or molecule detection? Can we manipulate photons at the quantum level to make quantum cryptology devices? The quantum materials field  is actively searching for the answers to these burning questions…

The quantum materials community at Arizona State University has three active research categories under this initiative focused on the synthesis/manufacturing, fundamental understanding, and applications of these materials. ASU has multiple centers of excellence that are devoted to specific missions of material growth and large scale manufacturing (crystal growth, MBE, CVD, MOCVD, sputtering), characterization (microscopy, spectroscopy, ultra-fast, and company x-ray free laser (CXFEL), and quantum applications (qubits, single photon emitters, cross-phase modulators).

 

In the News

ASU team accepts the NSF Quantum Leap challenge

A team from Arizona State University has been awarded a Conceptualization Grant from the National Science Foundation's (NSF) Quantum Leap Challenge Institute (QLCI) program to study using one of the more unusual properties of an electron — its spin — as a medium for information storage and sensing.

ASU researcher makes light work of quantum computing

Yuji Zhao, an assistant professor of electrical and computer engineering in the Ira A. Fulton Schools of Engineering at Arizona State University, was awarded the Presidential Early Career Award for Scientists and Engineers in July.

ASU researcher makes quantum leaps in materials engineering

Sefaattin Tongay, an assistant professor of materials science and engineering at Arizona State University, calls silicon a “great” material but says it has limited ability to produce significant improvements in devices beyond transistors and solar cells. He says cadmium mercury telluride is another good material to work with — but really just for developing better infrared detectors.

 

Initiatives

  • Materials for Quantum Information & Computing

  • Materials for Quantum Surfaces and Interfaces

    • 2D Materials and Topological Surfaces (S. Tongay)
    • Quantum Sensors (N.J. Tao)
    • Chemical Catalysis (J-L Liu)

  • Canonical descriptions

Faculty

Quantum Physics

Quantum Physics

Vasileska, Dragica vasileska@asu.eduProfessor, School of Electrical, Computer, and Energy EngineeringSemiclassical and quantum transport in nanoscale devices, Device reliability due to discrete impurity effects, Semiconductor device physics, Semiconductor transport, 1-D to 3-D semiclassical and quantum device modeling
Yarger, Jeffery Jeff.Yarger@asu.eduProfessor, School of Molecular SciencesSemiconductor device physics, semiconductor transport, 1-D to 3-D device modeling, quantum field theory and its application to real nanoscale device structures.
Chen, Tingyong
Tingyong.Chen@asu.edu
Assistant Professor, Department of PhysicsExperimental Condensed Matter Physics, Spin- polarized currents, pure spin currents, super-spin currents, and spin caloritronics to explore novel physics and to engineer new types of devices for future electronics with ultralow power consumption and ultrahigh density.
Mauskopf, Philip
Philip.Mauskopf@asu.edu
Professor, School of Earth and Space Exploration and Department of PhysicsSolid state physics, Atmospheric science and quantum communications and cryptography
Peng, Xihong
Xihong.Peng@asu.edu
Associate Professor, Department of PhysicsFirst-principles calculations of the electronic structures of a variety of materials and systems
Schmidt, Kevin
Kevin.Schmidt@asu.edu
Professor, Department of PhysicsUsing and developing quantum Monte Carlo methods to solve the many-body Schrödinger equation, Properties of clusters of atoms and molecules, Electronic structure of materials, Properties of neutron matter and nuclei.
Shovkovy, Igor
Igor.Shovkovy@asu.edu
Professor, Department of PhysicsTheoretical nuclear and high energy physics, Gauge theories such as quantum chromodynamics (QCD), Magnetic catalysis of symmetry breaking in quantum field theory and its applications in graphene.
Sukharev, Maxim
Maxim.Sukharev@asu.edu
Associate Professor, Department of PhysicsComputational nanophysics, Coherent control of light and matter, Plasmon resonance assisted control of atoms and molecules.
Quigg, John quigg@asu.eduProfessor, School of Mathematical and Statistical SciencesC*-algebras, mathematics that grew out of quantum mechanics in the first half of the 20th century
Suslov, Sergei sks@asu.eduProfessor, School of Mathematical and Statistical SciencesMathematical foundations that underlie much of theoretical physics including relativity, quantum mechanics, wave phenomenon, and optics.

Quantum Materials

Quantum Materials

Holman, Zachary
Zachary.Holman@asu.edu
Assistant Professor and ASU Trustees Professor, School of Electrical, Computer, and Energy EngineeringSilicon-based tandem solar cells, Contacts to solar cells, Light management in silicon solar cells, Novel uses of nanoparticles in devices, Semiconductor nanoparticles, Optical and electronic properties of nanoscale materials, Plasma synthesis of powders, Deposition of powders and thin films
Koivetakis, John
JKouvetakis@asu.edu
Professor, School of Molecular SciencesDesign, preparation and applications of novel solid state and molecular systems, Quantum dots, Materials science of main group semiconductors
Liu, Yan Yan_Liu@asu.eduAssociate Professor, School of Molecular SciencesChemical synthesis of photophysics of quantum materials
Mujica, Vladimiro vmujica@asu.eduProfessor, School of Molecular SciencesTheoretical chemistry, Nanoscience, Electron transfer, Solar energy, Quantum relaxation theory and nanophotonics
Ning, Cun-Zheng cning@asu.eduProfessor, School of Electrical, Computer, and Energy EngineeringSemiconductor optoelectronics, Nanophotonics, Nanowires, Nanolasers, Surface plasmonic enhanced light emitters, Nanomaterials based solar cells
Ponce, Fernando ponce@asu.eduProfessor, Department of PhysicsPhysics of semiconductor materials for light emitting and sensing applications, Quantum dots for photovoltaics
Tongay, Sefaattin
Sefaattin.Tongay@asu.edu
Assistant Professor, School for Engineering of Matter, Transport, & EnergySynthesis of next generation low-dimensional materials and understanding their optical, electrical, mechanical, and magnetic properties.
Yan, Hao Hao.Yan@asu.eduProfessor, School of Molecular SciencesNanostructure to template nanoelectronic components such as nanoparticles or carbon nanotubes into functional nanodevices, Quantum dots
Yarger, Jeffery Jeff.Yarger@asu.eduProfessor, School of Molecular SciencesSemiconductor device physics, semiconductor transport, 1-D to 3-D device modeling, quantum field theory and its application to real nanoscale device structures.
Zhang, Yong-Hang yhzhang@asu.eduProfessor, School of Electrical, Computer, and Energy Engineering; Founding Director, Center for Photonics Innovation; Director, NanoFabSemiconductor optoelectronic devices and materials, including semiconductor lasers, photodetectors, solar cells, and their integration for various applications.  Molecular beam epitaxy growth of semiconductor quantum structures
Newman, Nathan
Nathan.Newman@asu.edu
Professor, School for Engineering of Matter, Transport, & EnergySemiconductor, superconductor and dielectric materials, Development of novel Josephson Tunnel Junctions for Quantum Computing

Quantum Devices

Quantum Devices

Ferry, David ferry@asu.edu Regents’ Professor, School of Electrical, Computer, and Energy Engineering Quantum physics and effects in submicron semiconductor devices and nanostructures, Development of quantum transport in open systems
Goodnick, Stephen
stephen.goodnick@asu.edu
Professor, School of Electrical, Computer, and Energy Engineering; Deputy Director, ASU LightWorks Quantum and nanostructured devices, Solid state device physics, Transport in nanostructures, Nanoelectronic devices and circuits, Computational electronics, RF and microwave devices, Optoelectronics.
Honsberg, Christiana
Christiana.Honsberg@asu.edu
Professor, School of Electrical, Computer, and Energy Engineering Quantum dot solar cells, Silicon solar cells, Ultra- high efficiency solar cells.
Kiehl, Richard
Richard.Kiehl@asu.edu
Professor, School of Electrical, Computer, and Energy Engineering Spintronics: devices based on collective behavior in nanoparticle arrays; Nanoscale architectures: information processing paradigms based on locally connected networks.
Li, Jian Jian.Li.1@asu.edu Associate Professor, School for Engineering of Matter, Transport, & Energy Design and synthesis of advanced materials for application in organic semiconductor devices including organic light emitting devices, organic photovoltaics, organic memory and organic thin film transistors.
Ringhofer, Christian ringhofer@asu.edu Professor, School of Mathematics and Statistical Sciences Design and optimization of ensembles, using methods of statistical physics. Description of highly integrated semiconductor devices, functioning on quantum mechanical principles.
Thornton, Trevor t.thornton@asu.edu Professor, School of Electrical, Computer, and Energy Engineering; Director of the Nanotechnology Collaborative Infrastructure Southwest Molecular electronics and sensors, Microelectro- mechanical systems (MEMS), Nanofabrication
Yao, Yu yuyao@asu.edu Assistant Professor, School of Electrical, Computer, and Energy Engineering Ligand capping chemistry of metal, metal oxide and semiconducting nanoparticles and quantum dots at the molecular level, X-ray and laser light scattering instruments and methods for elucidating the molecular structure of nanomaterials, Nanophotonics and subwavelength optoelectronics
Yu, Hongbin yuhb@asu.edu Associate Professor, School of Electrical, Computer, and Energy Engineering; ASU Site Director, NSF I-UCRC Center for Efficient Vehicles and Sustainable Transportation Systems (EV-STS) Nanostructure and nano device fabrication and characterization; flexible, transparent and wearable electronics; wide bandgap semiconductor electronic and optoelectronics; quantum size effect in metallic and semiconducting nanostructures; integrated microwave and power devices.
Zhang, Yong-Hang yhzhang@asu.edu Professor, School of Electrical, Computer, and Energy Engineering; Founding Director, Center for Photonics Innovation; Director, NanoFab Semiconductor optoelectronic devices and materials, including semiconductor lasers, photodetectors, solar cells, and their integration for various applications.  Molecular beam epitaxy growth of semiconductor quantum structures
Zhao, Yuji Yuji.Zhao@asu.edu Assistant Professor, School of Electrical, Computer, and Energy Engineering Electronics and photonics; MOCVD growth and device applications of GaN wide bandgap semiconductors, including LEDs, lasers, solar cells, and power transistors; nanofabrication and nanoscale characterizations
Chen, Tingyong
Tingyong.Chen@asu.edu
Assistant Professor, Department of Physics Experimental Condensed Matter Physics, Spin- polarized currents, pure spin currents, super-spin currents, and spin caloritronics to explore novel physics and to engineer new types of devices for future electronics with ultralow power consumption and ultrahigh density.
Newman, Nathan
Nathan.Newman@asu.edu
Professor, School for Engineering of Matter, Transport, & Energy Semiconductor, superconductor and dielectric materials, Development of novel Josephson Tunnel Junctions for Quantum Computing
Saraniti, Marco
Marco.Saraniti@asu.edu

Quantum Characterization

Quantum Characterization

Dwyer, Christian
Christian.Dwyer@asu.edu
Associate Professor, Department of PhysicsUse of electron microscopes to understand how materials work at the nanometer and atomic lengths scales, Quantum coherence and classical limits of quantum systems.
Smith, David David.Smith@asu.eduRegents’ Professor, Department of PhysicsAtomic-resolution electron microscopy, Characterization of magnetic thin films and multilayers, Semiconductor heterostructures and nanostructures.

Quantum Chemistry

Quantum Chemistry

Chizmeshya, Andrew chizmesh@asu.edu Associate Professor, School of Molecular Sciences Simulation of semiconductor properties using quantum chemistry methods, Theory and simulation of low-temperature surface phenomena such physisorption, Wetting transitions and quantum reflection
Richert, Ranko
Ranko.Richert@asu.edu
Professor, School of Molecular Sciences Evaluation of quantum mechanics in glass-forming liquids