Marco Fielder
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Researcher
Faculty Researcher
Research Areas
Biomedical Subjects
Links
Biography and Research Information
OverviewAI-generated summary
Marco Fielder's research investigates the use of bioinspired scaffolds stimulated by ultrasonic waves for bone tissue engineering. His work explores the mechanical and thermal properties of materials relevant to these scaffolds, including carbon-based low-dimensional materials. Fielder also focuses on predicting bone growth within these scaffolds using machine learning techniques. His recent publications address the effects of scattering on ultrasound wave transmission through bioinspired scaffolds and the potential for bone tissue growth when stimulated by these waves. Fielder has a h-index of 5, with 9 total publications and 68 citations. He collaborates with Abigail Eaton at the University of Arkansas at Fayetteville on shared publications.
Metrics
- h-index: 5
- Publications: 9
- Citations: 76
Selected Publications
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Predicting ultrasound wave stimulated bone growth in bioinspired scaffolds using machine learning (2024)
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Mechanical and thermal properties of carbon-based low-dimensional materials (2022)
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Bone tissue growth in ultrasonically stimulated bioinspired scaffolds (2022)
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Effects of scattering on ultrasound wave transmission through bioinspired scaffolds (2021)
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A computational study of mechanical properties of collagen-based bio-composites (2020)
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Effects of hydration and mineralization on the deformation mechanisms of collagen fibrils in bone at the nanoscale (2018)
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A Numerical Approach to Predict Fracture in Bio-inspired Composites Using Ultrasonic Waves (2018)
Collaboration Network
Top Collaborators
- Effects of scattering on ultrasound wave transmission through bioinspired scaffolds
- Mechanical and thermal properties of carbon-based low-dimensional materials
- Bone tissue growth in ultrasonically stimulated bioinspired scaffolds
- Predicting ultrasound wave stimulated bone growth in bioinspired scaffolds using machine learning
- Mechanical and thermal properties of carbon-based low-dimensional materials
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