S.D. Barber
Affiliation confirmed via AI analysis of OpenAlex, ORCID, and web sources.
Professor
Research Areas
Biomedical Subjects
Links
Biography and Research Information
OverviewAI-generated summary
S.D. Barber's research has focused on the impacts of shame-proneness on students' state shame, self-regulation, and learning, as indicated by a 2024 publication. Barber holds an h-index of 9 with 43 total publications, garnering 437 citations. Jeremiah Sullins from Harding University is a key collaborator, with whom Barber has co-authored one publication. Barber is recently active in research.
Metrics
- h-index: 9
- Publications: 41
- Citations: 445
Positions
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Professor publications 2019Harding University Main Campus Institution web page
Selected Publications
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Investigating the Impacts of Shame-Proneness on Students’ State Shame, Self-Regulation, and Learning (2024)
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Not all confusion is productive: an investigation into confusion induction methods and their impact on learning (2019)
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Atomic Control of Strain in Freestanding Graphene (2015)
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New Scanning Tunneling Microscopy Technique Enables Systematic Study of the Unique Electronic Transition from Graphite to Graphene (2015)
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Controlling Mn Depth Profiles in GaMnAs During High-Temperature Molecular Beam Epitaxial Growth (2015)
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Giant Surface Charge Density of Graphene Resolved From Scanning Tunneling Microscopy and First-Principles Theory (2015)
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Self-Organized Platinum Nanoparticles on Freestanding Graphene (2014)
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Thermal mirror buckling in freestanding graphene locally controlled by scanning tunnelling microscopy (2014)
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Unusual ultra-low-frequency fluctuations in freestanding graphene (2014)
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Self-Organized Platinum Nanoparticles on Freestanding Graphene (2014)
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Role of bias voltage and tunneling current in the perpendicular displacements of freestanding graphene via scanning tunneling microscopy (2013)
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Etch-stop method for reliably fabricating sharp yet mechanically stable scanning tunneling microscope tips (2013)
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Competing scanning tunneling microscope tip-interlayer interactions for twisted multilayer graphene on the a-plane SiC surface (2013)
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Atomic-scale movement induced in nanoridges by scanning tunneling microscopy on epitaxial graphene grown on 4H-SiC(0001) (2013)
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New scanning tunneling microscopy technique enables systematic study of the unique electronic transition from graphite to graphene (2012)
Collaboration Network
Top Collaborators
- Unusual ultra-low-frequency fluctuations in freestanding graphene
- Atomic control of strain in freestanding graphene
- Thermal mirror buckling in freestanding graphene locally controlled by scanning tunnelling microscopy
- Self-Organized Platinum Nanoparticles on Freestanding Graphene
- Electronic transition from graphite to graphene via controlled movement of the top layer with scanning tunneling microscopy
Showing 5 of 21 shared publications
- Unusual ultra-low-frequency fluctuations in freestanding graphene
- Atomic control of strain in freestanding graphene
- Thermal mirror buckling in freestanding graphene locally controlled by scanning tunnelling microscopy
- Self-Organized Platinum Nanoparticles on Freestanding Graphene
- Electronic transition from graphite to graphene via controlled movement of the top layer with scanning tunneling microscopy
Showing 5 of 20 shared publications
- Unusual ultra-low-frequency fluctuations in freestanding graphene
- Atomic control of strain in freestanding graphene
- Thermal mirror buckling in freestanding graphene locally controlled by scanning tunnelling microscopy
- Self-Organized Platinum Nanoparticles on Freestanding Graphene
- Electronic transition from graphite to graphene via controlled movement of the top layer with scanning tunneling microscopy
Showing 5 of 19 shared publications
- Unusual ultra-low-frequency fluctuations in freestanding graphene
- Atomic control of strain in freestanding graphene
- Thermal mirror buckling in freestanding graphene locally controlled by scanning tunnelling microscopy
- Self-Organized Platinum Nanoparticles on Freestanding Graphene
- Electronic transition from graphite to graphene via controlled movement of the top layer with scanning tunneling microscopy
Showing 5 of 19 shared publications
- Atomic control of strain in freestanding graphene
- Electronic transition from graphite to graphene via controlled movement of the top layer with scanning tunneling microscopy
- A pathway between Bernal and rhombohedral stacked graphene layers with scanning tunneling microscopy
- New scanning tunneling microscopy technique enables systematic study of the unique electronic transition from graphite to graphene
- Electromechanical properties of freestanding graphene functionalized with tin oxide (SnO2) nanoparticles
Showing 5 of 9 shared publications
- Atomic control of strain in freestanding graphene
- Giant surface charge density of graphene resolved from scanning tunneling microscopy and first-principles theory
- A pathway between Bernal and rhombohedral stacked graphene layers with scanning tunneling microscopy
- Giant Surface Charge Density of Graphene Resolved From Scanning Tunneling Microscopy and First-Principles Theory
- Atomic Control of Strain in Freestanding Graphene
- Atomic control of strain in freestanding graphene
- Electronic transition from graphite to graphene via controlled movement of the top layer with scanning tunneling microscopy
- Giant surface charge density of graphene resolved from scanning tunneling microscopy and first-principles theory
- A pathway between Bernal and rhombohedral stacked graphene layers with scanning tunneling microscopy
- New scanning tunneling microscopy technique enables systematic study of the unique electronic transition from graphite to graphene
- Electronic transition from graphite to graphene via controlled movement of the top layer with scanning tunneling microscopy
- A pathway between Bernal and rhombohedral stacked graphene layers with scanning tunneling microscopy
- New scanning tunneling microscopy technique enables systematic study of the unique electronic transition from graphite to graphene
- New Scanning Tunneling Microscopy Technique Enables Systematic Study of the Unique Electronic Transition from Graphite to Graphene
- Atomic Control of Strain in Freestanding Graphene
- Atomic control of strain in freestanding graphene
- Giant surface charge density of graphene resolved from scanning tunneling microscopy and first-principles theory
- Giant Surface Charge Density of Graphene Resolved From Scanning Tunneling Microscopy and First-Principles Theory
- Atomic Control of Strain in Freestanding Graphene
- Self-Organized Platinum Nanoparticles on Freestanding Graphene
- High-percentage success method for preparing and pre-evaluating tungsten tips for atomic-resolution scanning tunneling microscopy
- Atomic-scale movement induced in nanoridges by scanning tunneling microscopy on epitaxial graphene grown on 4H-SiC(0001)
- Self-Organized Platinum Nanoparticles on Freestanding Graphene
- Atomic control of strain in freestanding graphene
- Self-Organized Platinum Nanoparticles on Freestanding Graphene
- Electromechanical properties of freestanding graphene functionalized with tin oxide (SnO2) nanoparticles
- Self-Organized Platinum Nanoparticles on Freestanding Graphene
- Unusual ultra-low-frequency fluctuations in freestanding graphene
- Thermal mirror buckling in freestanding graphene locally controlled by scanning tunnelling microscopy
- Self-Organized Platinum Nanoparticles on Freestanding Graphene
- Self-Organized Platinum Nanoparticles on Freestanding Graphene
- Unusual ultra-low-frequency fluctuations in freestanding graphene
- Thermal mirror buckling in freestanding graphene locally controlled by scanning tunnelling microscopy
- Self-Organized Platinum Nanoparticles on Freestanding Graphene
- Self-Organized Platinum Nanoparticles on Freestanding Graphene
- Giant Surface Charge Density of Graphene Resolved From Scanning Tunneling Microscopy and First-Principles Theory
- New Scanning Tunneling Microscopy Technique Enables Systematic Study of the Unique Electronic Transition from Graphite to Graphene
- Atomic Control of Strain in Freestanding Graphene
- High-percentage success method for preparing and pre-evaluating tungsten tips for atomic-resolution scanning tunneling microscopy
- Etch-stop method for reliably fabricating sharp yet mechanically stable scanning tunneling microscope tips
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