TY - JOUR
T1 - The Past, Present, and Future of Tubular Melt Electrowritten Constructs to Mimic Small Diameter Blood Vessels – A Stable Process?
AU - Bartolf-Kopp, Michael
AU - Jungst, Tomasz
N1 - Publisher Copyright:
© 2024 The Authors. Advanced Healthcare Materials published by Wiley-VCH GmbH.
PY - 2024/7/26
Y1 - 2024/7/26
N2 - Melt Electrowriting (MEW) is a continuously growing manufacturing platform. Its advantage is the consistent production of micro- to nanometer fibers, that stack intricately, forming complex geometrical shapes. MEW allows tuning of the mechanical properties of constructs via the geometry of deposited fibers. Due to this, MEW can create complex mechanics only seen in multi-material compounds and serve as guiding structures for cellular alignment. The advantage of MEW is also shown in combination with other biotechnological manufacturing methods to create multilayered constructs that increase mechanical approximation to native tissues, biocompatibility, and cellular response. These features make MEW constructs a perfect candidate for small-diameter vascular graft structures. Recently, studies have presented fascinating results in this regard, but is this truly the direction that tubular MEW will follow or are there also other options on the horizon? This perspective will explore the origins and developments of tubular MEW and present its growing importance in the field of artificial small-diameter vascular grafts with mechanical modulation and improved biomimicry and the impact of it in convergence with other manufacturing methods and how future technologies like AI may influence its progress.
AB - Melt Electrowriting (MEW) is a continuously growing manufacturing platform. Its advantage is the consistent production of micro- to nanometer fibers, that stack intricately, forming complex geometrical shapes. MEW allows tuning of the mechanical properties of constructs via the geometry of deposited fibers. Due to this, MEW can create complex mechanics only seen in multi-material compounds and serve as guiding structures for cellular alignment. The advantage of MEW is also shown in combination with other biotechnological manufacturing methods to create multilayered constructs that increase mechanical approximation to native tissues, biocompatibility, and cellular response. These features make MEW constructs a perfect candidate for small-diameter vascular graft structures. Recently, studies have presented fascinating results in this regard, but is this truly the direction that tubular MEW will follow or are there also other options on the horizon? This perspective will explore the origins and developments of tubular MEW and present its growing importance in the field of artificial small-diameter vascular grafts with mechanical modulation and improved biomimicry and the impact of it in convergence with other manufacturing methods and how future technologies like AI may influence its progress.
KW - biofabrication
KW - biomimicry
KW - mechanical analysis
KW - melt electrowriting
KW - tissue-engineered vascular grafts
UR - http://www.scopus.com/inward/record.url?scp=85190361014&partnerID=8YFLogxK
U2 - 10.1002/adhm.202400426
DO - 10.1002/adhm.202400426
M3 - Article
C2 - 38607966
AN - SCOPUS:85190361014
SN - 2192-2640
VL - 13
JO - Advanced Healthcare Materials
JF - Advanced Healthcare Materials
IS - 19
M1 - 2400426
ER -