Open Access. Powered by Scholars. Published by Universities.®
Biomedical Engineering and Bioengineering Commons™
Open Access. Powered by Scholars. Published by Universities.®
- Discipline
-
- Biomedical Devices and Instrumentation (98)
- Other Biomedical Engineering and Bioengineering (66)
- Biomechanics and Biotransport (49)
- Molecular, Cellular, and Tissue Engineering (37)
- Bioelectrical and Neuroengineering (32)
-
- Biomaterials (30)
- Electrical and Computer Engineering (25)
- Mechanical Engineering (25)
- Bioimaging and Biomedical Optics (22)
- Life Sciences (21)
- Medicine and Health Sciences (21)
- Biological Engineering (17)
- Biomedical (17)
- Biomechanical Engineering (14)
- Systems and Integrative Engineering (11)
- Physical Sciences and Mathematics (10)
- Analytical, Diagnostic and Therapeutic Techniques and Equipment (9)
- Electrical and Electronics (9)
- Materials Science and Engineering (9)
- Computer-Aided Engineering and Design (7)
- Computer Sciences (6)
- Signal Processing (6)
- Social and Behavioral Sciences (6)
- Applied Mechanics (5)
- Biology and Biomimetic Materials (5)
- Civil and Environmental Engineering (5)
- Computer Engineering (5)
- Diseases (5)
- Institution
- Keyword
-
- Biomechanics (13)
- Microfluidics (13)
- Electrospinning (8)
- Ischemia (8)
- Tissue Engineering (8)
-
- Bone (7)
- Endothelial Dysfunction (7)
- Finite Element Analysis (7)
- Gait (7)
- Scaffold (7)
- FEA (6)
- Tissue engineering (6)
- Angiogenesis (5)
- Arteriogenesis (5)
- Blood Vessel Mimic (5)
- Bone Remodeling (5)
- COMSOL (5)
- Electrophysiology (5)
- Microfluidic Device (5)
- Bioreactor (4)
- Blood vessel mimic (4)
- Cartilage (4)
- Cell Culture (4)
- Collateral circulation (4)
- Cycling (4)
- Diabetes (4)
- Engineering (4)
- Hypoxia (4)
- ICD (4)
- Keratinocytes (4)
Articles 301 - 304 of 304
Full-Text Articles in Biomedical Engineering and Bioengineering
Development Of An In-Vitro Tissue Engineered Blood Vessel Mimic Using Human Large Vessel Cell Sources, Dimitri E. Delagrammaticas
Development Of An In-Vitro Tissue Engineered Blood Vessel Mimic Using Human Large Vessel Cell Sources, Dimitri E. Delagrammaticas
Master's Theses
Tissue engineering is an emerging field that offers novel and unmatched potential medical therapies and treatments. While the vast aim of tissue engineering endeavors is to provide clinically implantable constructs, secondary applications have been developed to utilize tissue-engineered constructs for in-vitro evaluation of devices and therapies. Specifically, in-vitro blood vessel mimics (BVM) have been developed to create a bench-top blood vessel model using human cells that can be used to test and evaluate vascular disease treatments and intravascular devices. Previous BVM work has used fat derived human microvascular endothelial cells (EC) sodded on an ePTFE scaffold. To create a more …
Nano-Mechanics Of Cartilage Glycosaminoglycans Using Molecular Dynamics Methods, Kevin Neil Hendrickson
Nano-Mechanics Of Cartilage Glycosaminoglycans Using Molecular Dynamics Methods, Kevin Neil Hendrickson
Master's Theses
Articular Cartilage (AC) is the main load carrying material in synovial joints {Hamerman, 1962} and degeneration of AC can cause pain in the form of arthritis. Current work is centered on the method of replacing damaged cartilage inside the body (in vivo) with tissue engineered outside the body (ex vivo) {Temenoff, 2000}. In order to engineer tissue ex vivo similar to the native tissue in structure and function there must be a comprehensive understanding of the mechanical properties of AC. This work focuses on the study of glycosaminoglycans (GAGs), a molecule known to be primarily responsible for the compressive stiffness …
Design And Optimization Of A Blood Vessel Mimic Bioreactor System For The Evaluation Of Intravascular Devices In Simple And Complex Vessel Geometries, Sara M. Leifer
Master's Theses
Coronary artery disease affects millions of people and the ability to detect and treat the disease is advancing at a rapid rate. As a result, the development of intravascular technologies is the focus of many medical device manufacturers. Specifically, coronary stent implantation is being performed in an increasing number of patients and a number of new stent designs have been introduced to the market, resulting in the need for improved preclinical testing methods. An in vitro tissue engineered “blood vessel mimic” (BVM) system has previously been established and its feasibility for the initial testing of newly emerging intravascular technology has …
Development Of A Cell Depositing System Using Inkjet Technology, Jason Robert Ozaeta
Development Of A Cell Depositing System Using Inkjet Technology, Jason Robert Ozaeta
Master's Theses
In the past decade, advances in tissue engineering have allowed researchers to fabricate simple tissues. However, the process of creating these native tissues is a time consuming and inefficient process. A scaffold must first be fabricated then exposed to a sea of cells in the hopes of seeding. Furthermore, even though cells may have attached, more time must be spent in order to allow the cells to migrate to their ideal locations. To deal with this problem, researchers have investigated whether rapid prototyping principals could be adapted to facilitate the cell seeding process by placing cells in their respective locations …