Lingyuan Gao
Affiliation confirmed via AI analysis of OpenAlex, ORCID, and web sources.
Researcher
Also affiliated: Peking University (2012–2016); California University of Pennsylvania (2021); Key Laboratory of Nuclear Radiation and Nuclear Energy Technology (2012); Duke Kunshan University (2024); State Key Laboratory of Nuclear Physics and Technology (2012); Southern Medical University (2016); University of Pennsylvania (2019–2023); Ludwig-Maximilians-Universität München (2016); The University of Texas at Austin (2016–2021); Philadelphia University (2021)
Faculty Researcher
Research Areas
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Biography and Research Information
OverviewAI-generated summary
Lingyuan Gao's research investigates phenomena related to materials science, particularly focusing on the electronic and optical properties of 2D materials and ferroelectric systems. Recent work explores the piezophotovoltaic effect in monolayer MoS2 and the influence of metal cation lone pairs on halide perovskites. Gao's research also delves into the dynamical control of topological structures and ferroelectricity in various materials, including skyrmions and ferroelectric superlattices, using light as a control mechanism. Collaborations at the University of Arkansas at Fayetteville with researchers such as Yousra Nahas and Sergei Prokhorenko have contributed to a publication record of 55 works, with an h-index of 16 and 670 citations.
Metrics
- h-index: 16
- Publications: 55
- Citations: 692
Selected Publications
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Robust control over polar skyrmion bubble density with a combined optical and electrical approach (2026)
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Simulations of light-matter interaction in ferroelectrics and related materials (2026)
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Poincaré sphere engineering of dynamical ferroelectric topological solitons (2025)
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Large Photoinduced Tuning of Ferroelectricity in Sliding Ferroelectrics (2024)
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Effective gyration of polar vortex arrays controlled by high orbital angular momentum of light (2024)
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Dynamical Control of Topology in Polar Skyrmions via Twisted Light (2024)
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Dynamical Multiferroicity and Magnetic Topological Structures Induced by the Orbital Angular Momentum of Light in a Nonmagnetic Material (2023)
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Photoinduced control of ferroelectricity in hybrid-improper ferroelectric superlattices (2023)
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Dynamical control of topology in ferroelectric skyrmions via twisted light (2023)
Collaboration Network
Top Collaborators
- Dynamical Control of Topology in Polar Skyrmions via Twisted Light
- Dynamical Multiferroicity and Magnetic Topological Structures Induced by the Orbital Angular Momentum of Light in a Nonmagnetic Material
- Effective gyration of polar vortex arrays controlled by high orbital angular momentum of light
- Dynamical control of topology in ferroelectric skyrmions via twisted light
- Poincaré sphere engineering of dynamical ferroelectric topological solitons
- Dynamical Control of Topology in Polar Skyrmions via Twisted Light
- Dynamical Multiferroicity and Magnetic Topological Structures Induced by the Orbital Angular Momentum of Light in a Nonmagnetic Material
- Effective gyration of polar vortex arrays controlled by high orbital angular momentum of light
- Dynamical control of topology in ferroelectric skyrmions via twisted light
- Poincaré sphere engineering of dynamical ferroelectric topological solitons
- Dynamical Control of Topology in Polar Skyrmions via Twisted Light
- Dynamical Multiferroicity and Magnetic Topological Structures Induced by the Orbital Angular Momentum of Light in a Nonmagnetic Material
- Photoinduced control of ferroelectricity in hybrid-improper ferroelectric superlattices
- Effective gyration of polar vortex arrays controlled by high orbital angular momentum of light
- Poincaré sphere engineering of dynamical ferroelectric topological solitons
- Dynamical control of topology in ferroelectric skyrmions via twisted light
- Photoinduced control of ferroelectricity in hybrid-improper ferroelectric superlattices
- Large Photoinduced Tuning of Ferroelectricity in Sliding Ferroelectrics
- Poincaré sphere engineering of dynamical ferroelectric topological solitons
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