Biography and Research Information
OverviewAI-generated summary
Trenton Collins' research focuses on the hydrothermal synthesis and doping of titanate nanofibers for applications in bone tissue engineering. His recent publications investigate the incorporation of molybdenum (Mo) and niobium (Nb) into titanate nanofiber structures, exploring their potential to enhance bone scaffolds. Collins has a total of five publications and has accumulated eight citations, with an h-index of 1. He has collaborated on multiple publications with researchers at the University of Arkansas at Fayetteville, including Abdussamad Akhter and Parker Cole, and with Yan Huang at the Arkansas Agricultural Experiment Station, and Z. Ryan Tian at the University of Arkansas at Fayetteville.
Metrics
- h-index: 1
- Publications: 5
- 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)
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
- Hydrothermally Doping Valve Metal Nb into Titanate Nanofibers Structure for Potentially Engineering Bone Tissue
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