Symposium EE14-Titanium Oxides—From Fundamental Understanding to Applications

As a versatile semiconductor material of low cost, titanium oxide (TiO₂) offers a wide range of functionalities for various important applications, such as photocatalytic solar fuel generation and environmental remediation, new generation solar cells, self-cleaning coatings, electrochemical energy storage, biomedical and electrochromic devices and sensors. Fundamental understanding and innovative design of TiO₂-based materials are of particular importance for advancing the field of TiO₂ research, particularly in renewable energy conversion and storage sectors.

This symposium aims to bring together top researchers across various disciplines in TiO₂-related fields to exchange their latest advances in synthesis, structural and facet control, simulation, electronic structure engineering, surface modification, reaction mechanisms, and various applications of TiO₂-based materials.

• TiO₂-based nanocomposites and their applications
• Superhydrophilic, amphiphilic, and antifogging surfaces
• TiO₂ nanomaterials: controllable synthesis and characterization
• Fundamental mechanism understanding: charge transfer and recombination
• Fundamental properties investigation: theoretical and computational study
• Band-gap engineering of TiO₂: optical, electronic, and catalytic modification
• Photocatalysis reaction mechanism understanding: charge transfer and recombination
• Photocatalysis: solar fuel generation, CO₂ reduction, photo-oxidation, self-cleaning coating, water purification
• Solar cells: Electrodes for third generation solar cells including perovskite based solar cells
• Sensors and detectors, biomedical applications, electrochromic devices and charge storage systems

• EE14_Titanium Oxides—From Fundamental Understanding to Applications _0 (University of Washington, USA)
• EE14_Titanium Oxides—From Fundamental Understanding to Applications _1 (Stanford University, USA)
• EE14_Titanium Oxides—From Fundamental Understanding to Applications _2 (University of Missouri-Kansas City, USA)
• EE14_Titanium Oxides—From Fundamental Understanding to Applications _3 (University of California, Riverside, USA)
• EE14_Titanium Oxides—From Fundamental Understanding to Applications _4 (Lawrence Berkeley National Laboratory, USA)
• EE14_Titanium Oxides—From Fundamental Understanding to Applications _5 (École Polytechnique Fédérale de Lausanne, Switzerland)
• EE14_Titanium Oxides—From Fundamental Understanding to Applications _6 (J. Heyrovský Institute of Physical Chemistry, Academy of Sciences of the Czech Republic, Czech Republic)
• EE14_Titanium Oxides—From Fundamental Understanding to Applications _7 (Ehwa Womans University, Republic of Korea)
• EE14_Titanium Oxides—From Fundamental Understanding to Applications _8 (Sun Yat-sen University, China)
• EE14_Titanium Oxides—From Fundamental Understanding to Applications _9 (Xiamen University, China)
• EE14_Titanium Oxides—From Fundamental Understanding to Applications _10 (Shenyang National Laboratory for Materials Science, Chinese Academy of Sciences, China)
• EE14_Titanium Oxides—From Fundamental Understanding to Applications _11 (Yonsei University, Republic of Korea)
• EE14_Titanium Oxides—From Fundamental Understanding to Applications _12 (University of California, San Diego, USA)
• EE14_Titanium Oxides—From Fundamental Understanding to Applications _13 (University College London, United Kingdom)
• EE14_Titanium Oxides—From Fundamental Understanding to Applications _14 (Princeton University, USA)
• EE14_Titanium Oxides—From Fundamental Understanding to Applications _15 (University of Queensland, Australia)
• EE14_Titanium Oxides—From Fundamental Understanding to Applications _16 (University of California, Riverside, USA)
• EE14_Titanium Oxides—From Fundamental Understanding to Applications _17 (Wuhan University of Technology, China)
• EE14_Titanium Oxides—From Fundamental Understanding to Applications _18 (Chinese University of Hong Kong, USA)