Tissue engineering adhesive microfluidic channel glass slide

Tissue engineering adhesive microfluidic channel glass slide80238 80238-90 80238-120

Sticky Slide Tissue Engineering Adhesive Bottom Microfluidic SlidesMicrochannel adhesive glass slides suitable for organ chip detection, tissue modeling, and 3D bioprinting

• Microfluidic platform for direct 3D bioprinting or photo induced 2D/3D microfabrication into channels

• Bottom less channel glass slide with standard Luer interface for fluid access, facilitating seamless connection to pump systems

• Highly versatile: The adhesive surface can be installed on various cover slips or other bottom materials

Application fields:

1. Tissue and organ chip model

• Functional structure of bioprinting: through direct and precise bioprinting of cells and hydrogels toWorkplace, creating complex 3D organizational structures

• Tissue and organ models: Construct microscopic tissue models (such as organ chips) for studying cell behavior, drug effects, or tissue regeneration.

Customized 3D structures: Manufacturing microchannels, branching structures, or flow barriers through bioprinting technology; Or combined with the cover glass substrate, photocrosslinking hydrogel is used to realize photoinduced polymerization molding.

2. Microfluidic technology

High precision microfluidics: When installed on the substrate, the ibidi fluid shear system (ibidi pump system) can be seamlessly integrated to precisely control the flow of microchannels and 3D structures.

Simulate interstitial flow: Simulate the movement of fluids in tissues and study how cells perceive and respond to shear stress. The porous or fibrous structure of bioprinting can customize flow resistance and matrix permeability, accurately replicating natural tissue characteristics.

Gradient formation: Generate concentration gradients in a 3D environment through dynamic perfusion.

Dynamic microenvironment: Using controlled perfusion to maintain cell viability and simulate changing physiological conditions.

3. Microscopic imaging technology

Suitable for cell monitoring using bright field, phase contrast, and wide field fluorescence microscopes for inverted microscopes.

Long term live cell imaging and delayed research.

Confocal microscopy, two-photon microscopy, FRAP, FRET, FLIM, and LSFM.

Specification parameters:

Technical features:

1. Precision, quality, and biocompatibility

• Has two workspaces, with parallel channels on both sides of each workspace

Adhesive bottom surface, easy to install onto ibidi coverslips, standard glass microscope slides, or other materials

Open workspace supports direct 3D bioprinting (before installation)

• Compatible with biological ink, fluid photo crosslinked hydrogel or extracellular matrix

• Compatible with staining and fixing solutions

• Compatible with immersion in oil

Made of non-toxic and biocompatible materials

• Aseptic independent packaging

When used in conjunction with # 1.5 ibidi polymer coverslips or # 1.5H glass coverslips,Compatible with high-resolution fluorescence microscope

• Better performance when used in conjunction with the ibidi Micro Illumination System

• Standard Ruhr interface: compatible with various fluids and infusion devices(such as the ibidi fluid shear force system)

2. Product version

• Also provided: µ - Slide Tissue Engineering Microfluidic Slide, a closed microchannel slide with a # 1.5 ibidi polymer cover at the bottom of the slide

How does stick slide tissue engineering adhesive microfluidic slide work?

Working principle of stick slide tissue engineering adhesive microfluidic slides

This slide provides a flexible platform for designing and studying complex 2D and 3D tissue models under controlled fluid conditions. This slide is made up of one中央The workspace is composed of parallel channels on both sides. Before installing the stick slide tissue engineering adhesive microfluidic onto the bottom material, the workspace is open for direct bioprinting. After installation, photocrosslinked hydrogels can be polymerized to form specific patterns through the ibidi Micro Illumination System or similar equipment. This slide design can be seamlessly integrated with the ibidi fluid shear system to achieve controllable perfusion, simulate physiological blood flow, and nutrient transport.

What are the applications of stick slide tissue engineering adhesive microfluidic slides in?

Sticky Slide tissue engineering adhesive based microfluidic slides are designed specifically for bioprinters, enabling the construction of advanced 2D and 3D cell culture experiments that require real tissue environments and fluid control, such as:

• Tissue and organ modeling

• Flow and perfusion research

• Gradient formation experiment

How to perform bioprinting on stick slide tissue engineering adhesive microfluidic slides?

Sticky Slide tissue engineering adhesive microfluidic slides can be easily placed on the construction platform of 3D bioprinters. itsThe open workspace can directly print biological ink, hydrogel and cells. This makes sample preparation highly flexible, such as extruding structured scaffolds, printing perfusion channels, or placing multi material tissue constructs, all of which can be completed before sealing the slide to a cover glass or other substrate.

Is the stick slide tissue engineering adhesive microfluidic slide compatible with the ibidi pump system?

Compatible. After installing the stick slide tissue engineering adhesive microfluidic slide on the bottom material, it can be easily connected to pump systems such as the ibidi pump system through a Ruhr connector, achieving precise control of perfusion rate and flow field distribution. This configuration can simulate physiological conditions such as blood flow, interstitial flow, or dynamic shear stress, and supports parallel perfusion of channels to achieve complex flow field scenarios.

Is stick slide tissue engineering adhesive microfluidic slide suitable for microscopic observation and live cell imaging?

When conducting microscopic observations, stick slide tissue engineering adhesive microfluidic slides should be mounted on optical grade high-quality coverslips, such as # 1.5 ibidi polymer coverslips or # 1.5H glass coverslips. In combination with ibidi Stage Top Incubators or other incubators, physiological conditions for live cell imaging can be maintained.

Do we need an ibidi micro lithography irradiation system to use stick slide tissue engineering adhesive microfluidic slides?

Sticky Slide tissue engineering adhesive microfluidic slides are designed for direct bioprinting of 3D structures in the workspace before installation on the slide base. But after installation at the bottom of the cover glass, 2D or 3D light construction can be performed using the ibidi Micro Illumination System or other light induction techniques.

Application example:

Place the ibidi stick slide tissue engineering adhesive microfluidic slides on a 3D printer. Open design supports flexible sample preparation (such as applying bio ink and cells through bioprinting technology)

Packaging information:

Tissue engineering adhesive microfluidic channel glass slideofItem No.