Geometry Matters
Our MEW Scaffolds can be customized to your applications and tissue type, providing an ECM environment where cell morphology and proliferation can be finely tuned.
VivoTex is Versatile
Whether you are experimenting with single cell elongated tissue where vascularization is paramount
VivoTex is Effective
Or with Human MSCs Spheroids, where Differentiation is Critical, VivoTex Scaffolds can help to Improve Your Experimental Outcomes
VivoTex Works Well with Others
Our MEW Scaffolds can be used in hybrid configurations, for example, with soft hydrogels to provide mechanical structures and support to achieve in vivo-like bio mimicry
VivoTex is Easier
Our Scaffolds improve handleability, is stable at room temperature, promotes consistent seeding & harvesting, and is easy to stain and image
VivoTex is Pioneering the Future of 3D Cell Culture Research with Melt Electrowriting
Melt electrowriting is transforming the landscape of tissue engineering discovery and innovation. This advanced 3D printing technique enables the creation of highly precise and customizable microfiber scaffolds at the human cellular scale, opening new frontiers in:
Regenerative Medicine
Empowering researchers to regenerate complex tissue structures with unparalleled accuracy.
Cancer Research
Enabling groundbreaking studies into tumor growth, metastasis, and targeted treatments.
Drug Discovery
Revolutionizing how drugs are tested and screened using realistic in-vitro models.
Tissue Areas
While MEW is a foundational technology, it has been shown in studies to be particularly effective in these areas
Musculoskeletal
Advancing musculoskeletal research with 3D scaffolds that replicate the structural and
mechanical cues of native bone, tendon, and muscle tissue
Skin
Enabling skin research and regeneration with 3D scaffolds that mimic the architecture
and signaling environment of native dermal and epidermal layers
Epithelial
Supporting epithelial research with 3D scaffolds that recreate barrier structures and
promote physiologically relevant cell organization and function
MEW Inventor Paul Dalton Launches New Venture
Paul Dalton and colleague Ievgenii Liashenko has launched VivoTex in collaboration with the University of Oregon’s Knight Campus for Accelerating Scientific Impact. This initiative aims to revolutionize biomedical research and tissue engineering. By leveraging MEW’s precision and versatility, the team is set to develop next-generation scaffolds for applications in regenerative medicine, drug discovery, and in-vitro modeling, driving transformative advancements in healthcare and research.
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Be a part of this movement. Reach out for samples of our proven designs.
Go here for our sample protocol.