Heating Or Cooling Apparatus TRIZ Cases

A movable drawer device positions fluidic channels to enable precise biological sample handling and incubation.

Dynamic magnet positioning overcomes centrifugal force limitations, enabling precise bead transport across all radial zones.

A sliding PCR chip moves reaction chambers sequentially over a linear heater array to enable parallel thermal processing.

A test cartridge structural member actuates a pretreatment membrane to filter and condition biological samples.

Flexible multi-chambered receptacle transfers liquid contents between interconnected chambers while retaining gas bubbles to enable portable nucleic acid testing.

A molecular diagnostics apparatus uses a magnetic unit to induce current in power supply coils for the detection module.

A self-contained microfluidic chip system uses smartphone optics to detect proteins and nucleic acids rapidly.

Vaporization component rapidly pushes digital PCR solution into oil to form droplets, overcoming slow formation speeds and high oil consumption limits.

Dynamic thermal zones reduce dead time and chip area by allowing single locations to serve multiple temperature functions during droplet reactions.

A reagent storage fan moves air between housing spaces to maintain cooling.

A PCR vessel integrates a reagent cassette that melts during heating to release pre-measured components into the reaction chamber.

Immunoassay-based detection isolates breath samples to identify recent THC use while avoiding false positives from residual body fluids.

Centripetal force drives fluid flow through nested chambers to extract nucleic acids, reducing equipment complexity while maintaining detection accuracy.

A disposable analytical device integrates a pump element with depot and process chambers to transfer reagents through a closed fluidic circuit.

A rotary incubation system uses a thermal conductive plate and insulating platform for precise temperature management.

An imaging analyzer uses magnetic selection and photoelectric detection to isolate targets without wash steps.

Capillary-driven opposables minimize evaporation losses and contamination while maintaining consistent staining specificity.

A plasmon resonance instrument uses force feedback and optical detection to seal a flow cell against a sensor chip.

A portable detection unit adjusts assay parameters using GPS location data to enable accurate biological agent analysis.

Automated molecular operating system integrates transport and temperature control modules to sequence nucleic acid extraction and amplification steps.

A self-contained microfluidic apparatus uses a pneumatic manifold to transport fluids through integrated reservoirs and reaction chambers.

A microfluidic device moves picoliter partitions through thermal zones.

Plungers force reagents through films into channels, resolving precision versus complexity trade-offs in viscous sample processing.

A microfluidic reaction card uses a micropump and channel network to transport liquid aliquots from a sealed vessel into a collection well.

Distributed UV-LED sources eliminate optical shadowing while safety checks prevent unauthorized irradiation during decontamination.

A fluidic cartridge automates nucleic acid liberation and library construction using integrated reagent compartments.

Eliminates slow water-in-oil emulsion steps by transferring amplification to a solid surface platform, accelerating throughput for commercial applications.

A processor modulates an ultrasonic transducer at 2800 kHz to lyse cells, reducing infectious disease screening time from hours to under ten minutes.

Internal fins and a Peltier element minimize thermal mass to resolve slow heating dynamics while maintaining uniform temperature distribution.

A microfluidic cartridge conveys biological samples through integrated channels using a dedicated pump apparatus.

A nucleic acid detection chip integrates magnetic nanoparticles and photoelectric conversion elements for automated sample processing.

A microfluidic device spatially separates reaction reagents within a single chamber using thermally dissolvable films to enable multiplexed nucleic acid testing.

Side-wall optical detection minimizes interference from specimen residues at the tube bottom, enhancing signal reliability and reducing apparatus volume.

Independent thermal zones on a droplet-based microfluidic device reduce reagent consumption and cycle time while preventing bubble formation during PCR.

Multi-step microchannel device produces droplets with varying diameters through sequential geometric steps, resolving complexity in molecular diagnostics.

Micropillar-based picoreactors isolate single cells for parallel PCR analysis, resolving throughput bottlenecks in medical diagnostics.

A nucleic acid capturing device with a binding agent extracts biomolecules from liquid samples.

An elastomeric membrane cartridge forms fluid channels by pushing unsealed portions apart to create precise flow paths.

Integrated microfluidic cartridge automates sample processing via capillary action and magnetic actuation, reducing contamination risks from manual handling.

Segmentation isolates single cells in droplets while molecular barcoding resolves heterogeneity lost in bulk analysis.

Dual temperature sensors feed data to a testing device for self-diagnosis, resolving sensor drift issues without external calibration equipment.

An ellipsoidal reflector focuses infrared radiation on the probe tip, reducing thermal inertia and improving measurement accuracy.

Segmenting detection across independent mini-reactors generates kinetic curves, resolving the trade-off between quantification precision and device complexity.

Segmented manifolds and thermal controllers maintain consistent calibration by isolating cooling air from exposed liquids during PCR processes.

Circular pushing units dispense reagents into integrated chambers, eliminating infrastructure requirements while maintaining diagnostic accuracy.

A lifting device vertically moves a thermal module to align optical detection components with reaction vessels in nucleic acid amplification systems.

Removing the vent flow channel prevents sample solution loss during high temperature heating, maintaining accurate nucleic acid testing results.

An opto-fluidic apparatus sorts particles using optical forces applied under flow conditions.

A dual-mode reference electrode generates actuation voltage and resistive heat to manipulate droplets in microfluidic systems.

A microfluidic device partitions samples into chambers of varying volumes to accommodate diverse analyte concentrations within a single platform.