Parker Cole
This is a likely match — the affiliation was inferred from OpenAlex, ORCID, and web sources but has not been fully confirmed. Treat with appropriate caution.
Researcher
Formerly Arkansas Affiliated with University of Arkansas through 2024; recent publications list University of South Alabama.
Unknown Researcher
Research Areas
Biography and Research Information
OverviewAI-generated summary
Parker Cole's research focuses on the hydrothermal synthesis of valve metal-doped titanate nanofibers for bone tissue engineering applications. His work investigates the incorporation of elements such as zirconium (Zr), tantalum (Ta), and niobium (Nb) into titanate nanofiber structures to potentially enhance their suitability for bone regeneration. Cole has also explored alginate nanofiber scaffolds for potential applications in amyotrophic lateral sclerosis (ALS) research.
His scholarly output includes nine publications with a total of 13 citations and an h-index of 2. Cole collaborates with several researchers at the University of Arkansas at Fayetteville, including Abdussamad Akhter, Trenton Collins, Savannah Thornburgh, and Lauren Roeder, with whom he shares multiple publications.
Metrics
- h-index: 2
- Publications: 9
- Citations: 13
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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Alginate Nanofiber Scaffolds for Amyotrophic Lateral Sclerosis (2024)
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Hydrothermal synthesis of valve metal Ta-doped titanate nanofibers for potentially engineering bone tissue (2024)
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Hydrothermal synthesis of valve metal Zr-doped titanate nanofibers for bone tissue engineering (2023)
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Holistic Study of Doped Layered Titanate Nanofibers (2018)
Collaboration Network
Top Collaborators
- Hydrothermal synthesis of valve metal Zr-doped titanate nanofibers for bone tissue engineering
- Hydrothermal synthesis of valve metal Ta-doped titanate nanofibers 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
- Hydrothermal synthesis of valve metal Ta-doped titanate nanofibers 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
- Hydrothermal synthesis of valve metal Ta-doped titanate nanofibers 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
- Hydrothermal synthesis of valve metal Zr-doped titanate nanofibers for bone tissue engineering
- 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
- Hydrothermal synthesis of valve metal Ta-doped titanate nanofibers 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
- 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
- Hydrothermal synthesis of valve metal Zr-doped titanate nanofibers for bone tissue engineering
- Hydrothermal synthesis of valve metal Ta-doped titanate nanofibers for potentially engineering bone tissue
- Hydrothermal synthesis of valve metal Zr-doped titanate nanofibers for bone tissue engineering
- Hydrothermal synthesis of valve metal Ta-doped titanate nanofibers for potentially engineering bone tissue
- Hydrothermal synthesis of valve metal Zr-doped titanate nanofibers for bone tissue engineering
- Hydrothermal synthesis of valve metal Ta-doped titanate nanofibers for potentially engineering bone tissue
- Hydrothermal synthesis of valve metal Ta-doped titanate nanofibers for potentially engineering bone tissue
- Hydrothermally doping valve metal Nb into Titanate nanofibers structure for potentially engineering bone tissue
- Hydrothermal synthesis of valve metal Zr-doped titanate nanofibers for bone tissue engineering
- Hydrothermal synthesis of valve metal Zr-doped titanate nanofibers for bone tissue engineering
- Hydrothermal synthesis of valve metal Ta-doped titanate nanofibers for potentially engineering bone tissue
- Alginate Nanofiber Scaffolds for Amyotrophic Lateral Sclerosis
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