Apparatus Sterilization TRIZ Cases

Removing Matrigel scaffolds prevents polarity reversal and enables direct apical access for host-pathogen studies.

Microfluidic constrictions deform anucleate cells to enable direct intracellular antigen entry.

Automated UV-C sterilization units traverse sample chambers to eliminate manual dismantling and reduce sterilization time.

Magnetic coupling replaces drive belts in an orbital shaker, reducing maintenance effort while minimizing vibrations and contamination risks.

Standard unbent steel plates weld onto a rotating cage structure, reducing transport costs and construction time.

An inductively heatable cannula with a heat-resistant sheath enables sterile connections without clean rooms, reducing contamination risk.

Nested module layout reduces analyzer footprint while maintaining detection sensitivity by merging functional components into a compact vertical arrangement.

Slitting yarn from compressed nanofiber webs creates microenvironments for cell proliferation.

Extruding a cross-linkable hydrogel layer around a sacrificial inner filament enables precise small luminal diameters for vascular implants.

Segmented isolator module with hermetic glove interface maintains aseptic environment while reducing structural complexity and material costs.

Spring-loaded drain actuator base automatically opens and closes sterility cassette ports, eliminating manual labor and back pressure issues.

A cell culture module uses a three-layer porous polymer film to enable high-density anchorage-dependent cell growth.

A bioreactor hydrocyclone decouples dilution rate from pressure drop via a secondary circulation loop, maintaining separation efficiency at low flow rates.

Pre-sized trap volume captures full sample while bi-directional pump reverses flow to purge lines, eliminating wastage.

Mixing astrocytes with pluripotent stem cells in a container with an electrode array prevents neuron separation from the culture surface during transport.