The field of tissue engineering faces the persistent challenge of replicating the complex and diverse environments in which cells naturally exist. Traditional techniques often use gels to suspend cells between posts, easing tissue growth but complicating efforts to study how multiple tissue types
Recent advancements in multi-directional collagen tissue engineering are promising to redefine the future of bioengineering and regenerative medicine. Collagen, a cornerstone protein in the human body, is essential for maintaining structural integrity and mechanical strength in various tissues.
In recent years, the synthetic peptide TB-500, a counterpart to Thymosin Beta-4 (Tβ4), has garnered considerable interest for its promising role in various biological research applications. Its potential influence on tissue repair, inflammation modulation, and disease modeling has made it a subject
Jada Okaikoi, an exemplary biomedical engineering student, has recently been recognized for her groundbreaking endeavors in tissue engineering and 3D bioprinting, with a notable focus on women's health research. Thanks to receiving a National Science Foundation Graduate Research Fellowship, she has
In the rapidly evolving landscape of aging and regenerative medicine, innovative approaches and compounds like Cartalax peptide are attracting considerable attention. As researchers strive to deepen their understanding of the mechanisms underlying cellular aging and tissue repair, Cartalax—an
In recent years, the field of tissue engineering has witnessed groundbreaking advancements, one of which is the development of 3D-printed collagen scaffolds by researchers at the University of Pittsburgh. This innovative technology, named CHIPS—collagen-based, high-resolution, internally perfusable
