Heating Or Cooling Apparatus TRIZ Cases

Thermal convection flow drives mixing in a fluidic chamber, enabling enzyme-free nucleic acid amplification that eliminates bulky temperature cycling equipment.

Water bath heating prevents reagent evaporation while the capillary gap ensures uniform specimen coverage during automated testing.

A self-enclosed insulating ring with low thermal conductivity blocks heat loss through the objective turret, maintaining sample temperature.

A thermal interface arrangement uses thermally insulating biasing members to engage a heated body while resisting heat transfer to the support structure.

A multi-sample container disposal module integrates a transition mechanism and laser printing head to automate barcode application on rotating containers.

Active temperature regulation preserves electrolyte integrity and extends sensor operability during harsh ambient storage.

Magnetic elements couple the rotating base plate to the cover, resolving temperature stability trade-offs during rapid sample rotation.

Novel primers enable simultaneous detection of multiple Salmonella serovars, reducing diagnosis time from days to hours while maintaining high specificity.

Micropore array segments test solution into discrete droplets, eliminating complex external optomechanical systems and reducing manufacturing costs.

Microfluidic chip integrates plasma separation and optical cavity PCR for viral RNA amplification.

An extraction cell holder with adjustable heating jaws enables linear insertion of the sample container for secure clamping.

A microfluidic device arranges droplets in a grid array using pressure differentials to position fluid objects within specific pots.

An integrated cartridge automates nucleic acid extraction and electrophoresis within a single device.

A lamp testing device uses induction heating and image processing to identify pathogens via isothermal amplification.

Segmented thermal blocks with localized Peltier control reduce non-uniformity below 0.25 C, resolving decoupled equilibria in rapid cycling.

Multi-zone temperature control with superconducting thermal bodies resolves the contradiction between quantitative detection accuracy and device complexity.

An insulating cover structure minimizes environmental heat transfer to maintain constant reaction container temperatures during parallel processing.

Inclined sidewalls and a hydrophobic layer improve injection efficiency and retention stability for low-concentration nucleic acid detection.

Acoustic heating electrodes replace inefficient metal blocks, enabling localized thermal control and transparent observation in microfluidic chips.

Preheated thermal blocks minimize temperature overshoot during PCR cycling, ensuring precise DNA amplification.

Replacing mechanical sensors with fluorescence feedback eliminates thermal lag in PCR solutions, ensuring precise temperature control.

A micro-thermocycler uses a displacement unit to move a thermo-controlled element between heating and cooling positions.