Sequential/Parallel Process Reactions TRIZ Cases

See how a screened sol-gel composition immobilizes proteins on untreated substrates, maintainin

See how DMF or DMAC solvent extraction removes disperse and indigo dyes from polyester and cott

See how DMF or DMAC solvents remove disperse and indigo dyes from polyester and cotton waste te

A screened silane sol composition immobilizes probes on untreated PMMA, gold, and silicon surfaces while preserving protein activity and assay specificity.

Alternating metal oxide and silicon oxide regions improve DNB adsorption stability, cut non-specific binding, and boost sequencing output.

Automated synthesis, analysis, incubation, and bioassay modules cut fragmented drug discovery time while improving compound screening throughput.

Hexagonal fluorescent fiducials improve registration of successive sequencing images, helping dense arrays maintain accurate site alignment.

Multiple pixel charge storage regions enable more frequent charge collection and faster readout in integrated circuits for point-of-care analysis.

Multiple pixel charge storage regions enable simultaneous collection and readout, increasing charge transfer speed with manageable power use.

Multiple known-good biological chips are bonded on a substrate with a hydrophobic co-planar filler to improve microfluidic yield and reliability.

Overlapping charge collection and readout across sequential storage regions raises transfer frequency while limiting readout noise in integrated pixels.

Wafer-level bonded flow cell arrays use hydrophilic and hydrophobic surface patterning to cut fabrication cost and improve sequencing surface use.

Alternating transition metal oxide and silicon oxide regions improve DNB binding stability, suppress background adsorption, and raise sequencing output.

Precise spin-cell dispensing and automated wafer handling cut reagent use and contamination in custom oligonucleotide biochip synthesis.

Alternating metal oxide and silicon oxide regions improve sequencing chip stability, specific adsorption, and resistance to heat and humidity.

Offset fluorescent fiducials improve image registration on dense sequencing arrays, reducing alignment errors and image-processing burden.

Separating vacuum sections into a parallel queue lets reagent extraction and delivery run across different plates, cutting multi-plate synthesis time.

A rotating multi-position valve simplifies sequencing fluid routing, cutting valve count, reagent use, size, and system complexity.

Fluorinated carrier fluids and spacers keep aqueous plugs separate, enabling low-reagent membrane protein crystallization and screening.

Automated modules and robotic transfer replace manual DNA and RNA handling to lower cost and reduce quality variation.

Asymmetric DNA oligo counts and error-correcting codes enable multi-file storage with lower sequencing burden and stronger error resilience.

A DNA file system uses asymmetric oligo counts and error-correcting codes to store multiple files with lower sequencing cost.

Parallel well arrays align multiple bio-reaction substrates with step-specific reagents to raise throughput, cut batch variation, and reduce actuation complexity.

Chaperone-bound peptide-deficient MHC-I complexes prevent aggregation during peptide exchange and enable low-background T cell multimer screening.

Light-controlled photoresist patterning enables stable oligonucleotide attachment, high-fidelity barcoding, and small-feature nucleic acid arrays.

Independent row sealing and drainage cut reagent waste, shorten synthesis cycles, and protect nascent DNA strands in plate-based synthesis.

Extra short coupling cycles at 3′-end inefficiency motifs help parallel enzymatic polynucleotide synthesis maintain more uniform yields.

Adaptive pressure, agitation, filtration, and liquid-level sensing keep parallel enzymatic polynucleotide synthesis stable despite aggregation and foaming.

A compact in-line UV flow cell tracks peptide deprotection in real time, cutting repeat cycles, reagent waste, and bubble-related errors.

Oligonucleotide barcodes convert protein binding events into sequencing counts, enabling high-throughput single-cell proteomics with many markers.

Core-row reagent immersion and template-based signal simplification cut sequencing data volume while preserving base identification accuracy.

Heated amino acid recirculation through a resin-packed column speeds SPPS, cuts solvent and reagent use, and enables real-time monitoring.

Alternating helical blades split a single synthesis flow path to reduce dead zones, lower reaction equivalents, and improve nucleic acid yield.

Internal waveguide light triggers photochemistry only at nanowell bottoms, avoiding polishing damage and improving flow cell surface patterning.

Addressable electrodes and digital fluidics enable dense DNA storage with faster polynucleotide synthesis and lower reagent use.

Round sacrificial feet let planar microparticles release mechanically from the substrate, boosting yield while protecting surface functionalization.

Compartmentalized in vitro transcription and RNA tagging preserve single-cell resolution while avoiding PCR bias in genomic sample analysis.

Hydrophobic barriers and pinning regions keep materials in active flow-cell areas, preventing mixing and protecting bonding accuracy.

Compartmented supports confine polar volumes while apolar flow enables reliable amphipathic membrane array formation for high-throughput analysis.

Parallel microfluidic reagent partitioning and mixing enables fast gene library synthesis with low error rates for longer oligonucleotides.

Separate secondary-air compression lets nitric acid plants bleach at lower pressure, avoid NOx compressor stress, and expand capacity.

Spatial indexing on a rotating open substrate identifies nucleic acid sources without barcode sequencing while immersion optics improves detection stability.

Direct azido organosilane functionalization replaces hydrogel coatings to simplify sequencing substrate fabrication and improve surface stability.

A closed, sensor-monitored amplification and purification workflow enables rapid point-of-need nucleic acid production with high purity and less waste.

Flexible barrier sections with slits adapt to fluid volume in microarray chambers, limiting evaporation while keeping probes covered.

On-substrate sequencing feedback selects accurate nucleic acid fragments for assembly, reducing errors in long template-independent synthesis.

Addressable electrodes and digital fluidics localize DNA synthesis to raise sequence density, cut cycle time, and improve reagent use.

Spatially resolved arrays and tag sequencing identify reactive candidate agents at high throughput while avoiding cross-contamination.

A slot-die coater keeps nanoparticle suspension flow and concentration stable, enabling precise loading into flow cell depressions.

Dielectrophoretic microwells trap and barcode single cells, linking sequencing data to phenotypic interactions in high-throughput assays.

Microfluidic droplets barcode nucleic acids from lysed single cells, enabling high-throughput analysis with lower error and rare-cell detection.

Target capture beads hybridize with selected DNA regions in a flow cell, enriching library fragments and reducing wasted sequencing reads.

A porous substrate covalently captures single-cell or viral biomolecules for parallel multiplex detection with repeated probing and quantification.

Orthogonal cleavage in hydrogel-patterned flow cell depressions separates primer regions to balance cluster intensities and improve sequencing reproducibility.

Resolved substrate loci and parallel microfluidics enable fast gene library synthesis with error rates below 1/500 nucleotides.

Hydraulic dampers in a parallelized millireactor network absorb flow pulsations, ensuring stable volumetric throughput and consistent substrate conversion.