3d cell culture scaffolds
Backed by research, built for rigor, VivoTex 3D scaffolds enable trusted regenerative medicine studies, cancer research, and preclinical drug development.
VivoTex 3D Scaffolds: Precision In Your Research
Designed with precision and adaptable to your research needs, VivoTex 3D scaffolds offer customizable architectures that replicate native tissue environments with consistency and control.
Need something specific? VivoTex scaffolds can be customized in architecture, porosity, and mechanics to match your experimental models. Learn more about customization.
Ready to try our scaffolds? Contact us and we'll send you a sample kit.
Technology Highlights
Fully Customizable
Tunable architecture, fiber diameter, and porosity for diverse tissue models.
Precision at Scale
Lab-grade fabrication accuracy maintained in scalable production.
Sterile & Ready to Use
Pre-sterilized scaffolds integrate seamlessly into existing workflows.
Engineered Accuracy
Micron-level control over fiber placement for reproducible results.
How Researchers Use VivoTex Scaffolds
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Box Pattern
GEOMETRY / DESIGN
Rectilinear grid with uniform pores (e.g. ~150 µm).
STRENGTHS
Highly reproducible, easy seeding and imaging; strong baseline models.
trade-offs
Limited directional guidance for anisotropic tissues.
USE CASES / TISSUES
Epithelial barrier models, organoids, baseline comparisons.
Box Pattern With Catching Fibers
GEOMETRY / DESIGN
Same grid design with stabilizing “catching” fibers spanning pore gaps.
STRENGTHS
Maintains spheroid / organoid stability in long-term culture; reduces movement during handling.
trade-offs
Extra fibers can slightly obstruct imaging and migration paths.
USE CASES / TISSUES
Long-term tumor spheroid culture, drug testing in 3D aggregates.
Aligned Pattern
GEOMETRY / DESIGN
Parallel fibers oriented in one direction; controlled fiber alignment.
STRENGTHS
Strong cues for cell alignment and elongation; mimics anisotropic ECM.
trade-offs
Less isotropic; biased growth may not suit mixed populations.
USE CASES / TISSUES
Muscle, tendon, neural, vascular alignment studies.
Aligned Pattern With Catching Fibers
GEOMETRY / DESIGN
Aligned scaffold with added cross-support fibers.
STRENGTHS
Combines directional guidance with scaffold stability; supports extended culture.
trade-offs
Higher fiber density may limit imaging clarity.
USE CASES / TISSUES
Long-term aligned tissue regeneration, mixed alignment + structure models.
Isotropic Pattern
GEOMETRY / DESIGN
Randomized, Multi-angle fibers producing decagon / omnidirectional pore geometries.
STRENGTHS
Mimics heterogeneous ECM; uniform diffusion; versatile for non-directional growth.
trade-offs
Lacks alignment cues; less suited for tissues requiring order.
USE CASES / TISSUES
Skin / epithelial models, barrier testing, wound healing.
VivoTex Custom 3D Scaffolds: Tailored to Suit Your Needs
VivoTex scaffolds can be tailored to replicate specific tissue environments, giving researchers control over architecture, porosity, fiber diameter, and mechanical properties. This flexibility enables precise experimental models for diverse applications—from regenerative studies to oncology and drug discovery.
Ready to try our scaffolds? Contact us and we'll send you a sample kit.
PROBLEM
Current in-vitro models are costly, inconsistent, fail to replicate complex tissue environments, and are overly reliant on animal studies that lack human relevance, limiting reproducibility and predictive outcomes.
SOLUTION
VivoTex MEW scaffolds are reproducible, customizable, and biologically relevant, providing cost-effective human-relevant models that replicate complex tissues and deliver more predictive results.
PROBLEM
Current in-vitro models are costly, inconsistent, fail to replicate complex tissue environments, and are overly reliant on animal studies that lack human relevance, limiting reproducibility and predictive outcomes.
SOLUTION
VivoTex MEW scaffolds are reproducible, customizable, and biologically relevant, providing cost-effective human-relevant models that replicate complex tissues and deliver more predictive results.
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