Faculty

Institution

Unit

Venue

William Reynolds

Professor

Virginia Tech

Affiliations

College of Engineering

Materials Science and Engineering

William Reynolds is currently serving as a College Of Engineering Professor at Virginia Tech.

Honors

Create free account to unlock more features

Experiences

Create free account to unlock more features

Education

Create free account to unlock more features

William Reynolds

Virginia Tech

Professor

You can click a keyword to filter the displayed items

materials science mechanical engineering applied physics materials engineering advanced materials condensed matter physics steel research metallurgical process metal processing material research thin films thermodynamics nanotechnology metallurgical interaction engineering mechanics of materials condensed matter manufacturing science interface science material chemistry metals extractive metallurgy alloy design atomic structure crystallography transition metal chemistry mechanical science piezoelectricity steepest-entropy-ascent quantum thermodynamics crystal growth structural chemistry carbon-based materials thin film processing phase separation incomplete transformation phenomenon kinetic pathways electronic materials composite science advanced energy material electron microscopy fragmentation effect high-performance metal trace elements epitaxial growth ferromagnetism powder metallurgy fe-c-mo alloys fe-c-x alloys massive transformation interfaces bainite transformation silicon steel proeutectoid ferrite growth kinetics diffusional formation additive manufacturing advanced manufacturing technologies fabrication techniques micro-electromechanical systems micro technology benchmark studies material simulation piezoelectric materials power engineering sealant energy materials electrolyzer cell high-performance materials ferroelectric application structural composition crystal structures crystal material nanocrystalline materials atom probe pearlitic steel wire high power density ultra-low resonant piezoelectric microscopy transformation kinetics metallography physical metallurgy

Notable Scholarly Works

Notable Federal Grants

Collaborators

Predicting Ion Sequestration in Charged Polymers With the Steepest-Entropy-Ascent Quantum Thermodynamic Framework. Nanomaterials (2024)

Jared McDonaldMichael R. von SpakovskyWilliam T. Reynolds

biophysicsenergy storage materialsnanomaterialscharged polymersthermodynamicscondensed matter physicscondensed mattermaterials scienceapplied physicspolymer scienceion sequestrationnanotechnology

Graphene Oxide-Coated Ag-Tio2 Hybrid Nanocomposites for Superior Photocatalytic Activity. Environmental Science and Pollution Research (2023)

Davinder KaurKaranveer SinghWilliam T. ReynoldsBonamali Pal

carbon-based materialsenvironmental engineeringenvironmental technologynanomaterialsadvanced materialscomposite sciencecoatingsadvanced electrode materialenvironment technologygreen nanotechnologymaterials sciencephotocatalysisnanocompositesnanoparticle researchenvironmental scienceadvanced energy materialnanotechnology

Predicting Non-Equilibrium Folding Behavior of Polymer Chains Using the Steepest-Entropy-Ascent Quantum Thermodynamic Framework. The Journal of Chemical Physics (2023)

Jared McDonaldMichael R. von SpakovskyWilliam T. Reynolds

biophysicschemistrymaterials sciencephysical chemistrypolymer sciencepolymer chainscomputational chemistry

Predicting Polymer Brush Behavior in Solvents Using the Steepest-Entropy-Ascent Quantum Thermodynamic Framework. The Journal of Physical Chemistry B (2023)

Jared McDonaldMichael R. von SpakovskyWilliam T. Reynolds

polymer sciencematerials sciencephysical chemistryapplied physicschemical engineeringpolymer brush behavior

Entropy-Driven Microstructure Evolution Predicted With the Steepest-Entropy-Ascent Quantum Thermodynamic Framework. Acta Materialia (2022)

Jared McDonaldMichael R. von SpakovskyWilliam T. Reynolds

advanced materialsmaterial researchmaterials engineeringcondensed matter physicsentropy-driven microstructure evolutionmaterials scienceapplied physicsmicrostructuremechanical engineering

Foreword. Academic Studies Press eBooks (2022)

Paul Freedman

Predicting Defect Stability and Annealing Kinetics in Two-Dimensional Ptse 2 Using Steepest Entropy Ascent Quantum Thermodynamics. Journal of Physics Condensed Matter (2022)

Aimen YounisFazel BaniasadiMichael R von SpakovskyWilliam T Reynolds

semiconductor nanostructuresthermodynamicscondensed matter physicscondensed mattermaterials scienceapplied physicsdefect stabilitythin filmsmechanical engineering

Assessing the Influence of Processing Parameters and External Loading on the Nanoporous Structure and Morphology of Nanoporous Gold Toward Catalytic Applications. Journal of Physics and Chemistry of Solids (2019)

Joshua StucknerKatherine FreiSean G. CorcoranWilliam T. ReynoldsMitsuhiro Murayama

external loadingnanomaterialsmaterials engineeringmaterial chemistrycatalytic processmaterials sciencenanoporous materialsmaterial researchnanotechnologystructural chemistrycatalytic applicationscondensed matter physicsmembrane sciencephysicsnanoporous goldnanoporous structurecatalyst preparationcondensed matterapplied physicscatalytic materialscatalysis

Enhanced Softwood Cellulose Accessibility by H 3 Po 4 Pretreatment: High Sugar Yield Without Compromising Lignin Integrity. Industrial & Engineering Chemistry Research (2019)

Anwar HossainMohammad Shahinur RahamanDavid LeeThanh Khoa PhungChristian G. CanlasBlake A. SimmonsScott RenneckarWilliam ReynoldsAnthe GeorgeSarttrawut TulapholNoppadon Sathitsuksanoh

softwood cellulose accessibilitymaterial chemistryindustrial chemistrysustainable agriculturechemical technologywaste managementlignin integrityindustrial engineeringengineeringcellulosemanufacturing sciencebioresource technologytechnologyagribusinessapplied chemistryhigh sugar yieldmanufacturingbioenergyligninmanufacturing engineeringchemical engineering

Kinetic Pathways of Ordering and Phase Separation Transformations Using Steepest-Entropy-Ascent Quantum Thermodynamics Modeling. SSRN Electronic Journal (2019)

Ryo YamadaMichael R. von SpakovskyWilliam T. Reynolds, Jr.

steepest-entropy-ascent quantum thermodynamicssocial science researchphase separationthermodynamicsphase separation transformationsearth sciencesocial sciencesplanetary scienceskinetic pathways

1
2
3
4
5
9
10 / page

William Reynolds

Professor

Virginia Tech

Affiliations

College of Engineering

Materials Science and Engineering

William Reynolds is currently serving as a College Of Engineering Professor at Virginia Tech.

Honors

Create free account to unlock more features

Experiences

Create free account to unlock more features

Education

Create free account to unlock more features

William Reynolds

Virginia Tech

Professor

You can click a keyword to filter the displayed items

Notable Scholarly Works

Notable Federal Grants

Collaborators

Predicting Ion Sequestration in Charged Polymers With the Steepest-Entropy-Ascent Quantum Thermodynamic Framework. Nanomaterials (2024)

Jared McDonaldMichael R. von SpakovskyWilliam T. Reynolds

biophysicsenergy storage materialsnanomaterialscharged polymersthermodynamicscondensed matter physicscondensed mattermaterials scienceapplied physicspolymer scienceion sequestrationnanotechnology

Graphene Oxide-Coated Ag-Tio2 Hybrid Nanocomposites for Superior Photocatalytic Activity. Environmental Science and Pollution Research (2023)

Davinder KaurKaranveer SinghWilliam T. ReynoldsBonamali Pal

Predicting Non-Equilibrium Folding Behavior of Polymer Chains Using the Steepest-Entropy-Ascent Quantum Thermodynamic Framework. The Journal of Chemical Physics (2023)

Jared McDonaldMichael R. von SpakovskyWilliam T. Reynolds

biophysicschemistrymaterials sciencephysical chemistrypolymer sciencepolymer chainscomputational chemistry

Predicting Polymer Brush Behavior in Solvents Using the Steepest-Entropy-Ascent Quantum Thermodynamic Framework. The Journal of Physical Chemistry B (2023)

Jared McDonaldMichael R. von SpakovskyWilliam T. Reynolds

polymer sciencematerials sciencephysical chemistryapplied physicschemical engineeringpolymer brush behavior

Entropy-Driven Microstructure Evolution Predicted With the Steepest-Entropy-Ascent Quantum Thermodynamic Framework. Acta Materialia (2022)

Jared McDonaldMichael R. von SpakovskyWilliam T. Reynolds

advanced materialsmaterial researchmaterials engineeringcondensed matter physicsentropy-driven microstructure evolutionmaterials scienceapplied physicsmicrostructuremechanical engineering

Foreword. Academic Studies Press eBooks (2022)

Paul Freedman

Predicting Defect Stability and Annealing Kinetics in Two-Dimensional Ptse 2 Using Steepest Entropy Ascent Quantum Thermodynamics. Journal of Physics Condensed Matter (2022)

Aimen YounisFazel BaniasadiMichael R von SpakovskyWilliam T Reynolds

semiconductor nanostructuresthermodynamicscondensed matter physicscondensed mattermaterials scienceapplied physicsdefect stabilitythin filmsmechanical engineering

Joshua StucknerKatherine FreiSean G. CorcoranWilliam T. ReynoldsMitsuhiro Murayama

Enhanced Softwood Cellulose Accessibility by H 3 Po 4 Pretreatment: High Sugar Yield Without Compromising Lignin Integrity. Industrial & Engineering Chemistry Research (2019)

Anwar HossainMohammad Shahinur RahamanDavid LeeThanh Khoa PhungChristian G. CanlasBlake A. SimmonsScott RenneckarWilliam ReynoldsAnthe GeorgeSarttrawut TulapholNoppadon Sathitsuksanoh

Kinetic Pathways of Ordering and Phase Separation Transformations Using Steepest-Entropy-Ascent Quantum Thermodynamics Modeling. SSRN Electronic Journal (2019)

Ryo YamadaMichael R. von SpakovskyWilliam T. Reynolds, Jr.

steepest-entropy-ascent quantum thermodynamicssocial science researchphase separationthermodynamicsphase separation transformationsearth sciencesocial sciencesplanetary scienceskinetic pathways

1
2
3
4
5
9
10 / page

Similar Faculty Members

Ronald Gronsky

Institution

University of California, Berkeley

materials science

applied physics

Martin Crimp

Institution

Michigan State University

alloy phase

transmission electron microscopy

John Perepezko

Institution

University of Wisconsin–Madison

manufacturing

phase transformations

Yongho Sohn

Institution

University of Central Florida

advanced materials

advanced manufacturing

Matthew Kramer

Institution

Iowa State University

advanced materials

structural material

David Laughlin

Institution

Carnegie Mellon University

condensed matter physics

magnetism

Gregory B. Thompson

Institution

University of Alabama

advanced ceramic

ceramic

Elizabeth Holm

Institution

Carnegie Mellon University

engineering

material modeling

Ian Robertson

Institution

University of Wisconsin–Madison

hydrogen storage

hydrogen

Frank Ernst

Institution

Case Western Reserve University

metal

characterization (materials science)

Similar Faculty Members

Ronald Gronsky

Institution

University of California, Berkeley

materials science

applied physics

Martin Crimp

Institution

Michigan State University

alloy phase

transmission electron microscopy

John Perepezko

Institution

University of Wisconsin–Madison

manufacturing

phase transformations

Yongho Sohn

Institution

University of Central Florida

advanced materials

advanced manufacturing

Matthew Kramer

Institution

Iowa State University

advanced materials

structural material

David Laughlin

Institution

Carnegie Mellon University

condensed matter physics

magnetism

Gregory B. Thompson

Institution

University of Alabama

advanced ceramic

ceramic

Elizabeth Holm

Institution

Carnegie Mellon University

engineering

material modeling

Ian Robertson

Institution

University of Wisconsin–Madison

hydrogen storage

hydrogen

Frank Ernst

Institution

Case Western Reserve University

metal

characterization (materials science)