Feng Gao
Affiliation confirmed via AI analysis of OpenAlex, ORCID, and web sources.
Dr. Prof.
Upstream record may be merged OpenAlex, the source of these figures, lists 55 institutions in 4 countries for this author record — a pattern that usually means it combines several researchers with similar names. The totals above may include work by other people.
Research Areas
Biomedical Subjects
Links
Biography and Research Information
OverviewAI-generated summary
Feng Gao's research focuses on the development and application of nanomaterials, particularly carbon dots and metal oxide-based nanostructures, for various applications including catalysis and sensing. His work has explored the synthesis of fluorescent carbon dots from precursors like ammonium citrate, investigating their photoluminescence properties for detection applications. In the realm of catalysis, Gao has investigated heterostructures and doped nanoparticles, such as NiFe2O4 nanoparticles/NiFe layered double-hydroxide nanosheet heterostructures and Fe-doped nickel selenide nanorod/nanosheet hierarchical arrays, for efficient overall water splitting. Additional studies have examined Fe-doped NiO mesoporous nanosheet arrays for similar electrocatalytic purposes.
His publication record includes work on the electronic and morphological modulation of catalysts through doping, aiming for improved efficiency and stability. Gao has also contributed to the understanding of covalent organic frameworks, particularly their recent progress in biomedical applications. With a substantial publication count of 263 and an h-index of 55, his work is recognized as highly cited. Gao maintains an active lab website, indicating ongoing research activities.
Metrics
- h-index: 55
- Publications: 263
- Citations: 11,717
Positions
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Dr. Prof. 1996–presentAnhui Normal University College of Chemistry and Materials Science ORCID
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Dr. Prof.University of Arkansas at Fayetteville ORCID
Selected Publications
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cpSRP43 Is Both Highly Flexible and Stable: Structural Insights Using a Combined Experimental and Computational Approach (2023)
Collaboration Network
Top Collaborators
- Reducing Blinking in Small Core–Multishell Quantum Dots by Carefully Balancing Confinement Potential and Induced Lattice Strain: The “Goldilocks” Effect
- Regulation of Structural Dynamics within a Signal Recognition Particle Promotes Binding of Protein Targeting Substrates
- Shell-Dependent Photoluminescence Studies Provide Mechanistic Insights into the Off–Grey–On Transitions of Blinking Quantum Dots
- 3D Imaging of Flow Patterns in an Internally-Pumped Microfluidic Device: Redox Magnetohydrodynamics and Electrochemically-Generated Density Gradients
- CuInS2‑Doped ZnS Quantum Dots Obtained via Non-Injection Cation Exchange Show Reduced but Heterogeneous Blinking and Provide Insights into Their Structure–Optical Property Relationships
Showing 5 of 9 shared publications
- Regulation of Structural Dynamics within a Signal Recognition Particle Promotes Binding of Protein Targeting Substrates
- Domain Organization in the 54-kDa Subunit of the Chloroplast Signal Recognition Particle
- cpSRP43 Is Both Highly Flexible and Stable: Structural Insights Using a Combined Experimental and Computational Approach
- Reducing Blinking in Small Core–Multishell Quantum Dots by Carefully Balancing Confinement Potential and Induced Lattice Strain: The “Goldilocks” Effect
- Shell-Dependent Photoluminescence Studies Provide Mechanistic Insights into the Off–Grey–On Transitions of Blinking Quantum Dots
- Influence of the Inner‐Shell Architecture on Quantum Yield and Blinking Dynamics in Core/Multishell Quantum Dots
- Shell-Dependent Photoluminescence Studies Provide Mechanistic Insights into the Off–Grey–On Transitions of Blinking Quantum Dots
- CuInS2‑Doped ZnS Quantum Dots Obtained via Non-Injection Cation Exchange Show Reduced but Heterogeneous Blinking and Provide Insights into Their Structure–Optical Property Relationships
- Influence of the Inner‐Shell Architecture on Quantum Yield and Blinking Dynamics in Core/Multishell Quantum Dots
- Regulation of Structural Dynamics within a Signal Recognition Particle Promotes Binding of Protein Targeting Substrates
- Domain Organization in the 54-kDa Subunit of the Chloroplast Signal Recognition Particle
- Regulation of Structural Dynamics within a Signal Recognition Particle Promotes Binding of Protein Targeting Substrates
- Domain Organization in the 54-kDa Subunit of the Chloroplast Signal Recognition Particle
- Regulation of Structural Dynamics within a Signal Recognition Particle Promotes Binding of Protein Targeting Substrates
- Domain Organization in the 54-kDa Subunit of the Chloroplast Signal Recognition Particle
- Regulation of Structural Dynamics within a Signal Recognition Particle Promotes Binding of Protein Targeting Substrates
- Domain Organization in the 54-kDa Subunit of the Chloroplast Signal Recognition Particle
- Regulation of Structural Dynamics within a Signal Recognition Particle Promotes Binding of Protein Targeting Substrates
- Domain Organization in the 54-kDa Subunit of the Chloroplast Signal Recognition Particle
- Reducing Blinking in Small Core–Multishell Quantum Dots by Carefully Balancing Confinement Potential and Induced Lattice Strain: The “Goldilocks” Effect
- Influence of the Inner‐Shell Architecture on Quantum Yield and Blinking Dynamics in Core/Multishell Quantum Dots
- 3D Imaging of Flow Patterns in an Internally-Pumped Microfluidic Device: Redox Magnetohydrodynamics and Electrochemically-Generated Density Gradients
- 3D Imaging of Flow Patterns in an Internally-Pumped Microfluidic Device: Redox Magnetohydrodynamics and Electrochemically-Generated Density Gradients
- Regulation of Structural Dynamics within a Signal Recognition Particle Promotes Binding of Protein Targeting Substrates
- Regulation of Structural Dynamics within a Signal Recognition Particle Promotes Binding of Protein Targeting Substrates
- Regulation of Structural Dynamics within a Signal Recognition Particle Promotes Binding of Protein Targeting Substrates
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