Heating Or Cooling Apparatus TRIZ Cases

A liquid testing device uses gravity and absorbent material to isolate secondary chambers from a primary sample reservoir.

A heating and magnet module uses a movable carrier plate to apply magnetic fields only during separation, reducing particle agglomeration and drying time.

Modular cartridge system automates genetic profiling to resolve portability constraints in field settings.

An integrated heating electrode replaces bulky external equipment, resolving device complexity and cost while ensuring precise PCR amplification.

A pre-heater assembly uses a thermal coupling body with moderate conductivity to suppress parasitic heat flow and improve fluid pre-heating efficiency.

Modular cartridge system integrates nucleic acid isolation with amplification chambers to enable automated sample processing.

Integrated conductive members in the container wall eliminate intervening heat transfer materials, enabling rapid thermal cycling of microfluidic arrays.

Dynamic user-definable protocols allow Lab Developed Tests on automated analyzers without static preloaded constraints.

A digital PCR method calculates melting temperature to distinguish target gene droplets from empty ones.

Segmented tubule design with a reagent introduction port expands the menu of available assays by allowing users to deposit custom primers and probes.

Individual pressure regulators isolate each fluidic circuit to control carrier oil flow, preventing collisions and coalescence from velocity variations.

Segmented heater banks dynamically adjust thermal energy to eliminate temperature gradients and prevent cell damage during cryobag thawing.

A heating element bonded to an extraction nucleic acid enables rapid sample processing.

A molecular barrier coating protects conductive organic polymers from moisture ingress, ensuring reliable droplet actuation.

Segmented disposable tubes with pre-loaded reagents eliminate manual processing steps, reducing contamination risks and enabling immediate diagnosis.

Self-contained assay pouches integrate sample preparation and nucleic acid amplification zones to enable rapid pathogen detection.

Recombinase-mediated strand invasion achieves exponential DNA amplification at constant temperature, eliminating complex thermal cycling equipment.

Pump loops move fluid through static heating zones to accelerate PCR thermal cycling while minimizing energy loss and thermal degradation.

A single sample slug occupies the thermal zone to decouple PCR cycling from melt analysis, eliminating thermal gradients that degrade amplification efficiency.

An integrated sensor within the heating block monitors working chamber temperatures to resolve non-uniform heat distribution and invasive measurement conflicts.

Spaced optical axes in the reaction processor minimize excitation light noise and interference between detection devices.

A linear dispensing head moves magnetic particles between containers to separate and resuspend target materials.

Automated sample-to-answer system extracts and amplifies nucleic acid using integrated modules, reducing profiling time from days to under two hours.

Molecular profiling identifies specific expression and mutation profiles to match candidate treatments against unique cancer characteristics.

A microfluidic manifold captures cells using magnetic beads for precise identification and gentle retrieval.

Vapor-based elution and temperature-controlled sealing isolate samples to prevent cross-contamination during chain sampling.

Segmented unit cells and extraction channels minimize crosstalk from leftover primers to enhance sample throughput.

Filtration membrane separates non-cellular fraction from intact cells to reduce genomic contamination during long-term storage.

A hydrocarbon film covers aqueous solutions to prevent aerosol formation during robotic sample handling.

A microfluidic device captures maternal DNA from saliva using a solid-state membrane for automated amplification and detection.

Intermittent light interrogation reduces free electron generation from semiconductive materials, preventing false signals in nucleic acid testing.

Multi-zone heating and sample movement eliminate cooling delays, resolving the contradiction between rapid diagnosis and complete amplification.

A temperature-controlled internal environment processes biological specimens within isolated chambers to maintain precise staining conditions.

A DSLR camera with CMOS sensor and LED excitation sources captures fluorescence signals within microfluidic channels.

A microfluidic device automates nucleic acid analysis through integrated cell lysis and amplification chambers.

Complementary coupling geometries enable multiple orientations to correct orbital radius variations and ensure homogeneous treatment results.

Inductive heating of a rotatable platform eliminates slow conductive cycling and temperature differentials in thermocyclers.

Segmented thermal cycler zones enable independent temperature control for each reaction vessel, eliminating the need for multiple sequential test series.