Faculty

Institution

Unit

Venue

David Patrick

Professor of Analytical Materials and Physical Chemistry

Western Washington University

Affiliations

College of Science and Engineering

Chemistry

Department Of Chemistry

Chemistry

College of the Environment

Studies Of Institute For Energy

Departments Of Chemistry And Science, Math, And Technology Education (Smate)

Graduate School

Western Washington University

David Patrick is currently serving as a Chemistry Professor of Analytical Materials and Physical Chemistry at Western Washington University.

Honors

Create free account to unlock more features

Experiences

Create free account to unlock more features

Education

Create free account to unlock more features

David Patrick

Western Washington University

Professor of Analytical Materials and Physical Chemistry

You can click a keyword to filter the displayed items

materials science applied physics material chemistry surface science chemistry interface science nanotechnology liquid crystals thin films luminescence biophysics nanomaterials microscopy photovoltaics optoelectronics nanoparticle research crystal formation light science molecular crystals organic electronics liquid crystalline elastomer scanning force microscopy interface chemistry molecule corrals molecular structure condensed matter fluid science molecular physics molecular liquids composite science additive manufacturing solid-state electronics advanced functional materials material research phosphorescence organic solar cells surface analysis surface characterization interfacial phenomena thin film process technology thin film processing nucleation achiral molecules atomic force microscopy pyrolytic graphite molecular ordering nanometrology energy performance inorganic photochemistry direct observation photoluminescence metal nanoparticles applied chemistry luminescence property thermally activated delayed fluorescence surface chemistry magnetic fields computational biophysics graphene fiber graphene nanomeshes surface engineering carbon-based materials surface modeling luminescent glass solid-state chemistry consensus statement monolayer organic films optical losses high-efficiency cuins engineered perylene dyes controlled symmetry breaking chiral surfaces solid-liquid interface phase segregation competitive adsorption molecular motion general chemistry solar energy organic thin films physical chemistry solar energy applications

Notable Scholarly Works

Notable Federal Grants

Collaborators

Consensus Statement: Standardized Reporting of Power-Producing Luminescent Solar Concentrator Performance. Joule (2022)

Chenchen YangHarry A. AtwaterMarc A. BaldoDerya BaranChristopher J. BarileMiles C. BarrMatthew BatesMoungi G. BawendiMatthew R. BergrenBabak BorhanChristoph J. BrabecSergio BrovelliVladimir BulovićPaola CeroniMichael G. DebijeJose-Maria Delgado-SanchezWen-Ji DongPhillip M. DuxburyRachel C. EvansStephen R. ForrestDaniel R. GamelinNoel C. GiebinkXiao GongGianmarco GriffiniFei GuoChristopher K. HerreraAnita W.Y. Ho-BaillieRussell J. HolmesSung-Kyu HongThomas KirchartzBenjamin G. LevineHongbo LiYilin LiDianyi LiuMaria A. LoiChristine K. LuscombeNikolay S. MakarovFahad MateenRaffaello MazzaroHunter McDanielMichael D. McGeheeFrancesco MeinardiAmador Menéndez-VelázquezJie MinDavid B. MitziMehdi MoemeniJun Hyuk MoonAndrew NattestadMohammad K. NazeeruddinAna F. NogueiraUlrich W. PaetzoldDavid L. PatrickAndrea PucciBarry P. RandElsa ReichmanisBryce S. RichardsJean RoncaliFederico RoseiTimothy W. SchmidtFranky SoChang-Ching TuAria VahdaniWilfried G.J.H.M. van SarkRafael VerduzcoAlberto VomieroWallace W.H. WongKaifeng WuHin-Lap YipXiaowei ZhangHaiguang ZhaoRichard R. Lunt

engineeringperformance evaluationconsensus statementluminescenceenergy performance

Quantum Dot–Block Copolymer Hybrids for Low Scattering Luminescent Solar Concentrators. ACS Applied Polymer Materials (2022)

photovoltaicsplasmon-enhanced photovoltaicsorganic solar cellsquantum dotsmaterial chemistryluminescenceapplied physicsmaterials sciencesolar energy conversionconjugated polymers

Bottom-Up Growth of Shape-Engineered Molecular Single Crystals. Crystal Growth & Design (2020)

molecular crystalscrystal growth technologybottom-up growthcrystal researchcrystallographymaterial chemistryself-assemblymaterials sciencemolecular engineeringcrystal formationcrystal materialcrystal growthnanotechnologycrystal engineering

Multi-Scale Modeling of Early-Stage Morphology in Solution-Processed Polycrystalline Thin Films. Physical Chemistry Chemical Physics (2019)

additive manufacturingmaterial researchthin film process technologythin film processinginterface sciencemultiscale modelingapplied physicsmaterials sciencemulti-scale modelingmicrostructurecomputational materials sciencematerial modelingthin films

Analysis of Optical Losses in High-Efficiency Cuins 2 -Based Nanocrystal Luminescent Solar Concentrators: Balancing Absorption Versus Scattering. The Journal of Physical Chemistry C (2017)

Ryan SumnerSteven EiseltTroy B. KilburnChristian EricksonBrian CarlsonDaniel R. GamelinStephen McDowallDavid L. Patrick

photonicsnanomaterialsinorganic photochemistrydirect observationmaterial chemistryoptical lossesluminescenceoptoelectronicsmaterials sciencephysical chemistryapplied physicsphotoluminescencemetal nanoparticlesnanoparticle researchplanetary sciencesapplied chemistryhigh-efficiency cuinsnanotechnology

CORRECTION: A Simple Model of Burst Nucleation. Physical Chemistry Chemical Physics (2017)

nuclear physicsnuclear sciencenucleationphysicsburst nucleation

Predictive Modeling of Nanoscale Domain Morphology in Solution-Processed Organic Thin Films. Physical Review Materials (2017)

advanced functional materialsnanoscale domain morphologythin film process technologythin film processingmaterial chemistryinterface sciencepredictive modelingapplied physicsmaterials sciencesoft mattermaterial researchcomputational materials sciencenanoscale modelingthin filmsnanotechnologyorganic electronics

High Performance Organic Field-Effect Transistors Using Ambient Deposition of Tetracene Single Crystals. Organic Electronics (2016)

advanced functional materialsambient depositionmolecular electronicsorganic material chemistryorganic semiconductorsmaterial chemistrysolid-state electronicsmaterials sciencesemiconductorsapplied physicssemiconducting polymerstetracene single crystalselectronicsfunctional materialsthin filmsorganic electronics

A Simple Model of Burst Nucleation. Physical Chemistry Chemical Physics (2015)

nuclear physicsnucleationstatistical physicsapplied physicsphysicsburst nucleation

Sterically Engineered Perylene Dyes for High Efficiency Oriented Fluorophore Luminescent Solar Concentrators. Chemistry of Materials (2014)

photovoltaicslight sciencechemistryphosphorescencesolar powerluminescence propertyorganic solar cellsthermally activated delayed fluorescencefluorescenceoptical materialsmaterial chemistryluminescenceengineered perylene dyessolar energy conversionchemical engineering

1
2
3
4
10 / page

David Patrick

Professor of Analytical Materials and Physical Chemistry

Western Washington University

Affiliations

College of Science and Engineering

Chemistry

Department Of Chemistry

Chemistry

College of the Environment

Studies Of Institute For Energy

Departments Of Chemistry And Science, Math, And Technology Education (Smate)

Graduate School

Western Washington University

David Patrick is currently serving as a Chemistry Professor of Analytical Materials and Physical Chemistry at Western Washington University.

Honors

Create free account to unlock more features

Experiences

Create free account to unlock more features

Education

Create free account to unlock more features

David Patrick

Western Washington University

Professor of Analytical Materials and Physical Chemistry

You can click a keyword to filter the displayed items

Notable Scholarly Works

Notable Federal Grants

Collaborators

Consensus Statement: Standardized Reporting of Power-Producing Luminescent Solar Concentrator Performance. Joule (2022)

engineeringperformance evaluationconsensus statementluminescenceenergy performance

Quantum Dot–Block Copolymer Hybrids for Low Scattering Luminescent Solar Concentrators. ACS Applied Polymer Materials (2022)

photovoltaicsplasmon-enhanced photovoltaicsorganic solar cellsquantum dotsmaterial chemistryluminescenceapplied physicsmaterials sciencesolar energy conversionconjugated polymers

Bottom-Up Growth of Shape-Engineered Molecular Single Crystals. Crystal Growth & Design (2020)

Multi-Scale Modeling of Early-Stage Morphology in Solution-Processed Polycrystalline Thin Films. Physical Chemistry Chemical Physics (2019)

Analysis of Optical Losses in High-Efficiency Cuins 2 -Based Nanocrystal Luminescent Solar Concentrators: Balancing Absorption Versus Scattering. The Journal of Physical Chemistry C (2017)

Ryan SumnerSteven EiseltTroy B. KilburnChristian EricksonBrian CarlsonDaniel R. GamelinStephen McDowallDavid L. Patrick

CORRECTION: A Simple Model of Burst Nucleation. Physical Chemistry Chemical Physics (2017)

nuclear physicsnuclear sciencenucleationphysicsburst nucleation

Predictive Modeling of Nanoscale Domain Morphology in Solution-Processed Organic Thin Films. Physical Review Materials (2017)

High Performance Organic Field-Effect Transistors Using Ambient Deposition of Tetracene Single Crystals. Organic Electronics (2016)

A Simple Model of Burst Nucleation. Physical Chemistry Chemical Physics (2015)

nuclear physicsnucleationstatistical physicsapplied physicsphysicsburst nucleation

Sterically Engineered Perylene Dyes for High Efficiency Oriented Fluorophore Luminescent Solar Concentrators. Chemistry of Materials (2014)

1
2
3
4
10 / page