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µ-Slide Tissue Engineering, sticky-Slide Tissue Engineering
µ-Slide Tissue Engineering, sticky-Slide Tissue Engineering
For microfabricated tissue models and organ-on-a-chip applications or bioprinting
- Microfluidic Platform for 3D microenvironments or light-induced 2D/3D microfabrication and patterning
- Microfluidic channel slide with fluidic access by standard Luer ports for seamless pump integration
- Compatible with fluidic photocrosslinkable hydrogels (i.e. as GelMA, PEG-DA, collagen, or hyaluronic acid) or extracellular matrices
- µ-Slide Tissue Engineering: Microscopy slide with high-quality #1.5 Polymer Coverslip Bottom for advanced imaging
- sticky-Slide Tissue Engineering: Highly versatile: sticky side can be mounted on a variety of coverslips or other bottom materials
The central workspace and side channels can be structured using photocrosslinkable hydrogels, defining the locations for the cell/tissue model and fluidic access.
Applications
Tissue and Organ-on-a-Chip Models
- Custom 3D structures: Fabricate microchannels, bifurcations, or flow barriers by photoinduced polymerization using photocrosslinkable hydrogels such as GelMA, PEG-DA, collagen, or hyaluronic acid.
- Tissue and organ models: Build microscale models of tissues (e.g., vascular networks or tumor microenvironments) for studying cell behavior, drug effects, or tissue regeneration.
- Generation of topographic surfaces: Mimic tissue microenvironments by replicating the structure and stiffness of native tissue.
- Bioprinted functional architectures: Create complex 3D tissue architectures through precise bioprinting of cells and hydrogels directly into the central workspace.
Microfluidics
- High-precision microfluidics: Seamlessly integrate the ibidi Pump System to control perfusion of microchannels and hydrogel structures.
- Modeling interstitial flow: Mimic how fluids move through tissues to study how cells sense and respond to shear stress.
- Gradient formation: Generate gradients in 3D by dynamic perfusion.
- Dynamic microenvironments: Use controlled perfusion to maintain cell viability and mimic changing physiological conditions.
µ-Slide Tissue Engineering, sticky-Slide Tissue Engineering
For microfabricated tissue models and organ-on-a-chip applications or bioprinting
- Microfluidic Platform for 3D microenvironments or light-induced 2D/3D microfabrication and patterning
- Microfluidic channel slide with fluidic access by standard Luer ports for seamless pump integration
- Compatible with fluidic photocrosslinkable hydrogels (i.e. as GelMA, PEG-DA, collagen, or hyaluronic acid) or extracellular matrices
- µ-Slide Tissue Engineering: Microscopy slide with high-quality #1.5 Polymer Coverslip Bottom for advanced imaging
- sticky-Slide Tissue Engineering: Highly versatile: sticky side can be mounted on a variety of coverslips or other bottom materials
The central workspace and side channels can be structured using photocrosslinkable hydrogels, defining the locations for the cell/tissue model and fluidic access.
Applications
Tissue and Organ-on-a-Chip Models
- Custom 3D structures: Fabricate microchannels, bifurcations, or flow barriers by photoinduced polymerization using photocrosslinkable hydrogels such as GelMA, PEG-DA, collagen, or hyaluronic acid.
- Tissue and organ models: Build microscale models of tissues (e.g., vascular networks or tumor microenvironments) for studying cell behavior, drug effects, or tissue regeneration.
- Generation of topographic surfaces: Mimic tissue microenvironments by replicating the structure and stiffness of native tissue.
- Bioprinted functional architectures: Create complex 3D tissue architectures through precise bioprinting of cells and hydrogels directly into the central workspace.
Microfluidics
- High-precision microfluidics: Seamlessly integrate the ibidi Pump System to control perfusion of microchannels and hydrogel structures.
- Modeling interstitial flow: Mimic how fluids move through tissues to study how cells sense and respond to shear stress.
- Gradient formation: Generate gradients in 3D by dynamic perfusion.
- Dynamic microenvironments: Use controlled perfusion to maintain cell viability and mimic changing physiological conditions.
Would like to obtain more info and learn more of its applications?