Sequential/Parallel Process Reactions TRIZ Cases

A rewritable DNA storage system uses unique address sequences to enable random access to data blocks.

A reactive distillation column merges reaction and separation steps to lower production costs and complexity.

An apparatus with a stripping wall peels the anti-static cover tape from a bead carrier to expose wells individually, resolving static handling issues.

Integrated masking element apertures and waveguides route light to detectors, resolving signal overlap in multi-vessel PCR systems.

Ordered well arrays on a patterned substrate increase feature density and detection sensitivity without adding optical components.

A high density assay device uses hydrophobic partitions to isolate wells and prevent spill over between adjacent compartments.

Controlled cleavage of double-stranded nucleic acids creates single-stranded templates, resolving hybridization inefficiencies caused by bridged structures.

Immobilized DNA strands on a substrate enable high-density storage by using PCR amplification to reduce synthesis costs and energy consumption.

Soft-embossing transfers biomolecules from micropillars to hydrogel microwells, resolving poor distribution precision in conventional spotting.

Segmenting reactions into droplets lowers reagent costs while maintaining high-throughput automated assembly.

Switching to visible light prevents UV damage during PNA microarray synthesis, maintaining nucleic acid stability while improving spatial resolution.

Porous Boc-TOTA polymer particles resolve steric hindrance and toxicity issues in solid phase oligonucleotide synthesis.

Automated apparatus transfers solid building blocks via gas stream to reaction vessel for iterative polymer synthesis.

A microarray replication method creates spatially limited effective areas on a carrier to bind amplified molecular copies.

Multi-plane microarrays stack features at distinct elevations to increase packing density without requiring high-resolution optics.

Orthogonal protecting groups segment attachment processes to resolve stability issues in randomized microarray manufacturing.

Capillary-driven lateral flow strips enable simultaneous biomarker quantification, eliminating complex imaging systems and reducing assay process complexity.

A boronic ester metathesis reaction exchanges substituents on dioxaborolane rings to generate diverse compound libraries.

A porous membrane with nozzle units forms dispersed phase droplets that migrate into a mobile phase to create polymer shells.

Sequential injection across parallel batch reactors achieves stable semi-continuous ester production, eliminating downtime between batches.

A DNA-based thermometer uses fluorescent dye emission to map temperature distributions across micro-scale regions.

A microfluidic device uses segmented chambers and flexible covers to capture target molecules and reporter compounds for biochemical analysis.

Segmenting sample preparation into parallel microcapsule reactions improves productivity while managing method complexity through controlled reagent release.

Thermal control of capillary units compensates for manufacturing tolerances, eliminating manual calibration while ensuring accurate flow distribution.

A carbon surface biochip substrate replaces glass to eliminate autofluorescence and non-specific adsorption while enabling covalent biomolecule immobilization.

Segmenting a microfluidic probe head into multiple layers reduces labor-intensive assembly and deep etching complexity while maintaining mechanical stability.

DNA arrays guide RNA polymerase to synthesize complementary RNA sequences, resolving the trade-off between high density and manufacturing complexity.

A continuous acid loop converts chain-terminating SO2 into reactant SO3, sustaining optimal concentrations for high-yield MSA production.

Electrowetting on dielectric devices automate enzymatic synthesis, overcoming phosphoramidite length limits.

Segmented nanoliter reactions in a microarray plate resolve the trade-off between deep proteome profiling depth and large sample size requirements.

External pressure sensors monitor parallel batch reactor vessels to prevent side reactions and maintain homogeneity.

A submerged spotter deposits lipid substances onto a surface while maintaining the biomolecules in a liquid environment.

A microarray incubation chamber uses a hydrophilic surface to draw liquid samples into the interior for complete filling.

Separate gas channels equilibrate pressure after delivery, preventing overflow and under-wetting in multiplexed chemical synthesis.

A continuous flow process converts 1-chloro-2-substituted-3-fluorobenzene to boronic acids using sequential reactor stages.

A microfluidic fluid network with a flow cell array and circulation line introduces test reagents into reaction chambers.

An extraction tool isolates specific biochemical clusters from a microarray substrate by applying targeted energy.

Immobilizing antigens on a substrate recovers lost specificity information from bulk electrophoresis, enabling precise diagnosis and treatment stratification.

A 96-well pegboard captures tagged proteins from cell lysates using conjugated binding compounds for rapid sample processing.

Staged hybridisation identifies and discards erroneous fragments to maintain a pool of error-free sequences for subsequent assembly steps.

Electron beam plasma treatment modifies polystyrene surfaces with hydroxyl groups and organosilane layers to enable stable biomolecule attachment.

Binding site mediators enable controlled analyte loading into array regions, resolving low density and high reagent waste from random distribution.

Spring-biased manifolds form sealed fluid connections during automated positioning to resolve reliability trade-offs in microarray processing.

Real-time detection of molecular accumulations enables precise manufacturing control, reducing waste and ensuring consistent microarray quality.

Enzymatic template-dependent synthesis replaces chemical methods to eliminate random base errors while maintaining parallel microchip production.

Norbornene-functionalized hydrogel arrays enable rapid screening of pro-tubulogenic agents through controlled crosslinking density.

A concavo-convex analysis plate uses a selective reflection layer to detect analytes through structural color changes.

A hydrogel coating layer slows sequencing template diffusion in patterned flow cells to support monoclonal cluster formation.

Spatially heterogeneous polymer scaffolds enable multi-dimensional nucleic acid detection through sequential hybridization.