Open Access. Powered by Scholars. Published by Universities.®
Molecular, Cellular, and Tissue Engineering Commons™
Open Access. Powered by Scholars. Published by Universities.®
- Institution
-
- Yıldız Technical University (55)
- University of Nebraska - Lincoln (6)
- California Polytechnic State University, San Luis Obispo (5)
- South Dakota State University (3)
- City University of New York (CUNY) (2)
-
- Marshall University (2)
- University of Connecticut (2)
- Virginia Commonwealth University (2)
- Washington University in St. Louis (2)
- Claremont Colleges (1)
- Duquesne University (1)
- Illinois State University (1)
- Louisiana State University (1)
- Purdue University (1)
- Southern Methodist University (1)
- The University of Akron (1)
- University of Arkansas, Fayetteville (1)
- University of Central Florida (1)
- University of Louisville (1)
- University of Malaya (1)
- University of Texas at Arlington (1)
- Keyword
-
- Mechanical properties (5)
- Sustainability (5)
- Compressive strength (4)
- Thermal conductivity (4)
- 3D Printing (3)
-
- Biomaterials (3)
- Circular economy (3)
- Geopolymer (3)
- Life cycle assessment (LCA) (3)
- Machine Learning (3)
- Piezoelectric (3)
- Tissue engineering (3)
- Ultrasound (3)
- <p>Mechanical engineering.</p> <p>Biomedical engineering.</p> <p>Three-dimensional printing.</p> <p>Additive manufacturing.</p> <p>Tissue engineering.</p> <p>Bones.</p> <p>Computational fluid dynamics.</p> <p>Machine learning.</p> (2)
- Additive Manufacturing (2)
- Architectural technology (2)
- Biodegradable (2)
- Biomechanics (2)
- Bone Regeneration (2)
- Bone Tissue Engineering (2)
- Carbon nanotubes (2)
- Computational Fluid Dynamics (2)
- Crumb rubber (2)
- Diffusion (2)
- Durability (2)
- Electrospinning (2)
- Environmental sustainability (2)
- GGBS (2)
- Hydrogel (2)
- Hypoxia (2)
- Publication Year
- Publication
-
- Journal of Sustainable Construction Materials and Technologies (55)
- Department of Mechanical and Materials Engineering: Dissertations, Theses, and Student Research (3)
- Electronic Theses and Dissertations (3)
- Master's Theses (3)
- Dissertations and Theses (2)
-
- McKelvey School of Engineering Graduate Student Theses & Dissertations (2)
- The Journal of Undergraduate Research (2)
- Theses, Dissertations and Capstones (2)
- Annual Symposium on Biomathematics and Ecology Education and Research (1)
- Biomedical Engineering: Graduate Reports and Projects (1)
- Department of Engineering Mechanics: Dissertations, Theses, and Student Research (1)
- Department of Engineering Mechanics: Faculty Publications (1)
- Department of Mechanical and Materials Engineering: Faculty Publications (1)
- Graduate Theses and Dissertations (1)
- Honors Scholar Theses (1)
- Honors Undergraduate Theses (1)
- KGI Theses and Dissertations (1)
- LSU Master's Theses (1)
- Mechanical Engineering (1)
- Mechanical Engineering Research Theses and Dissertations (1)
- Mechanical and Aerospace Engineering Dissertations - Archive (1)
- Student Works (2020-2029) (1)
- The Summer Undergraduate Research Fellowship (SURF) Symposium (1)
- Theses and Dissertations (1)
- Undergraduate Research Posters (1)
- University Scholar Projects (1)
- Williams Honors College, Honors Research Projects (1)
- Publication Type
Articles 91 - 91 of 91
Full-Text Articles in Molecular, Cellular, and Tissue Engineering
Influence Of Van Der Waals Forces On Increasing The Strength And Toughness In Dynamic Fracture Of Nanofibre Networks: A Peridynamic Approach, Florin Bobaru Ph.D.
Influence Of Van Der Waals Forces On Increasing The Strength And Toughness In Dynamic Fracture Of Nanofibre Networks: A Peridynamic Approach, Florin Bobaru Ph.D.
Department of Engineering Mechanics: Faculty Publications
The peridynamic method is used here to analyse the effect of van der Waals forces on the mechanical behaviour and strength and toughness properties of three-dimensional nanofibre networks under imposed stretch deformation. The peridynamic formulation allows for a natural inclusion of long-range forces (such as van der Waals forces) by considering all interactions as ‘long-range’. We use van der Waals interactions only between different fibres and do not need to model individual atoms. Fracture is introduced at the microstructural (peridynamic bond) level for the microelastic type bonds, while van der Waals bonds can reform at any time. We conduct statistical …