Abdussamad Akhter
Researcher
Also affiliated: The Ohio State University Wexner Medical Center (2023)
Unknown Researcher
Research Areas
Biography and Research Information
OverviewAI-generated summary
Abdussamad Akhter's research focuses on the synthesis and application of nanomaterials, particularly titanate nanofibers, for biomedical purposes. His work investigates the hydrothermal doping of valve metals, such as niobium (Nb) and molybdenum (Mo), into these nanofibers. This doping is explored for its potential to enhance the properties of bone scaffolds, aiming to improve bone tissue engineering. Akhter's publications include studies detailing these synthesis methods and their effects on material characteristics. He has collaborated with researchers at the University of Arkansas at Fayetteville, including Trenton Collins, Yiting Xiao, and Parker Cole, on multiple projects.
Metrics
- h-index: 1
- Publications: 6
- Citations: 8
Selected Publications
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Hydrothermally doping valve metal Nb into Titanate nanofibers structure for potentially engineering bone tissue (2024)
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Hydrothermally Doping Valve Metal Nb into Titanate Nanofibers Structure for Potentially Engineering Bone Tissue (2024)
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Hydrothermally doping valve metal Nb into Titanate nanofibers structure for potentially engineering bone tissue (2024)
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Mo-doped titanate nanofibers from hydrothermal syntheses for improving bone scaffold (2024)
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Mo-doped titanate nanofibers from hydrothermal syntheses for improving bone scaffold (2023)
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A Novel Case of Transverse Sinus Stenting and Ticagrelor Use During Pregnancy for Idiopathic Intracranial Hypertension (2023)
Collaboration Network
Top Collaborators
- Mo-doped titanate nanofibers from hydrothermal syntheses for improving bone scaffold
- Hydrothermally doping valve metal Nb into Titanate nanofibers structure for potentially engineering bone tissue
- Mo-doped titanate nanofibers from hydrothermal syntheses for improving bone scaffold
- Hydrothermally doping valve metal Nb into Titanate nanofibers structure for potentially engineering bone tissue
- Hydrothermally Doping Valve Metal Nb into Titanate Nanofibers Structure for Potentially Engineering Bone Tissue
- Mo-doped titanate nanofibers from hydrothermal syntheses for improving bone scaffold
- Hydrothermally doping valve metal Nb into Titanate nanofibers structure for potentially engineering bone tissue
- Mo-doped titanate nanofibers from hydrothermal syntheses for improving bone scaffold
- Hydrothermally doping valve metal Nb into Titanate nanofibers structure for potentially engineering bone tissue
- Hydrothermally Doping Valve Metal Nb into Titanate Nanofibers Structure for Potentially Engineering Bone Tissue
- Mo-doped titanate nanofibers from hydrothermal syntheses for improving bone scaffold
- Hydrothermally doping valve metal Nb into Titanate nanofibers structure for potentially engineering bone tissue
- Mo-doped titanate nanofibers from hydrothermal syntheses for improving bone scaffold
- Hydrothermally doping valve metal Nb into Titanate nanofibers structure for potentially engineering bone tissue
- Hydrothermally Doping Valve Metal Nb into Titanate Nanofibers Structure for Potentially Engineering Bone Tissue
- Mo-doped titanate nanofibers from hydrothermal syntheses for improving bone scaffold
- Hydrothermally doping valve metal Nb into Titanate nanofibers structure for potentially engineering bone tissue
- Mo-doped titanate nanofibers from hydrothermal syntheses for improving bone scaffold
- Hydrothermally doping valve metal Nb into Titanate nanofibers structure for potentially engineering bone tissue
- Mo-doped titanate nanofibers from hydrothermal syntheses for improving bone scaffold
- Mo-doped titanate nanofibers from hydrothermal syntheses for improving bone scaffold
- Hydrothermally doping valve metal Nb into Titanate nanofibers structure for potentially engineering bone tissue
- Hydrothermally doping valve metal Nb into Titanate nanofibers structure for potentially engineering bone tissue
- Hydrothermally doping valve metal Nb into Titanate nanofibers structure for potentially engineering bone tissue
- Hydrothermally Doping Valve Metal Nb into Titanate Nanofibers Structure for Potentially Engineering Bone Tissue
- Hydrothermally doping valve metal Nb into Titanate nanofibers structure for potentially engineering bone tissue
- Hydrothermally doping valve metal Nb into Titanate nanofibers structure for potentially engineering bone tissue
- Hydrothermally Doping Valve Metal Nb into Titanate Nanofibers Structure for Potentially Engineering Bone Tissue
- Mo-doped titanate nanofibers from hydrothermal syntheses for improving bone scaffold
- Mo-doped titanate nanofibers from hydrothermal syntheses for improving bone scaffold
- Hydrothermally doping valve metal Nb into Titanate nanofibers structure for potentially engineering bone tissue
- Hydrothermally Doping Valve Metal Nb into Titanate Nanofibers Structure for Potentially Engineering Bone Tissue
- A Novel Case of Transverse Sinus Stenting and Ticagrelor Use During Pregnancy for Idiopathic Intracranial Hypertension
- A Novel Case of Transverse Sinus Stenting and Ticagrelor Use During Pregnancy for Idiopathic Intracranial Hypertension
- A Novel Case of Transverse Sinus Stenting and Ticagrelor Use During Pregnancy for Idiopathic Intracranial Hypertension
- A Novel Case of Transverse Sinus Stenting and Ticagrelor Use During Pregnancy for Idiopathic Intracranial Hypertension
- Hydrothermally Doping Valve Metal Nb into Titanate Nanofibers Structure for Potentially Engineering Bone Tissue
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