Results 71 to 80 of about 7,368,901 (300)
Background Embryonic stem cell (ESC) derivatives hold great promise for the construction of tissue-engineered skin equivalents (TESE). However, harvesting of ESCs destroys viable embryos and may lead to political and ethical concerns over their ...
Yang Rao +8 more
doaj +1 more source
Neutralization of the PTX3/CD44 axis suppresses TGF‐β1 signaling in kidney fibrosis
This study investigates how the PTX3/CD44 axis promotes kidney fibrosis by activating TGF‐β1 signaling. We demonstrate that the neutralizing antibody WHC‐001 effectively inhibits this pathway, suppressing myofibroblast activation and partial epithelial–mesenchymal transition (EMT).
Chao‐Chun Cheng +8 more
wiley +1 more source
Characterization of scaffolds for neural tissue engineering
With the advancement of tissue engineering techniques, the repair of nerve injuries has acquired a novel dimension. It is now appropriate to establish a scaffold that entirely mimics the biological and mechanical properties of real human tissue using ...
CESUR, SÜMEYYE, ULAĞ, SONGÜL
core
Background Chondrogenic mesenchymal stem cells (MSCs) have not yet been used to address the clinical demands of large osteochondral joint surface defects.
L. F. Mendes +6 more
doaj +1 more source
Going viral − Virus‐targeting nanobodies for research, diagnostics and therapy
The increasing prevalence of viral diseases represents a major threat for global human health. Nanobodies, small binding fragments derived from camelid heavy‐chain antibodies, offer versatile tools for viral research, diagnostics, and antiviral therapy.
Domenic Ebert, Ulrich Rothbauer
wiley +1 more source
Tissue engineering: part 2 [Frontiers of biomedical engineering]
Educação Superior::Engenharias::Engenharia BiomédicaPresents a course about the basic concepts of biomedical engineering with the Professor of Chemical and Biomedical Engineering at Yale University, W. Mark Saltzman.
Saltzman, W. Mark
core
Peripheral nerve tissue engineering
Peripheral nerve injury is a frequent clinical problem and causes loss of motor and sensory functions for patients. Though some inherent regeneration capacity exists, this is often very limited in the cases of nerve tissue gaps.
Vijay Kumar Kuna +3 more
core +1 more source
Unlocking the potential of cell‐permeable nanobodies for intracellular applications
This review outlines current strategies for delivery of nanobodies into cells and highlights recent examples of functional applications. By addressing and manipulating intracellular targets, these molecules hold great potential for treating cancer, respiratory diseases and neurological disorders, making this a vibrant area of research in the biomedical
Mariona Gené‐Verdés +2 more
wiley +1 more source
Tissue engineering: part 2 [Frontiers of biomedical engineering]
Educação Superior::Engenharias::Engenharia BiomédicaPresents a course about the basic concepts of biomedical engineering with the Professor of Chemical and Biomedical Engineering at Yale University, W. Mark Saltzman.
Saltzman, W. Mark
core
Laser ice scaffolds modeling for tissue engineering [PDF]
Tissue engineering is one of the most exciting and rapidly growing areas in biomedical engineering that offers vast potential for changing traditional approaches to meeting many pharmaceutics and critical health care needs.
Meglinski, I. V. +14 more
core +1 more source

