Sequential/Parallel Process Reactions TRIZ Cases

Sol-gel connecting layers bond silicon wafers to elastomer supports, absorbing mechanical stress during thinning to prevent breakage.

Covalent silane derivatives enable direct polymer conjugation, resolving storage instability in DNA sequencing flow cells.

An inorganic shell protects a structured nucleic acid template, resolving stability issues while preserving precise functional moiety placement.

Segmented linker arrays reduce background noise and preserve bioreagent activity by isolating binding zones.

A thermally conductive tubular reaction unit houses a sealed filter element to enable automated nucleic acid synthesis.

Segmented monolithic porous supports reduce back pressure and improve resolution by eliminating void volumes between discrete particles.

A piezoelectric dispenser uses a longitudinal transducer to convert radial motion into axial tip movement for precise droplet ejection.

A cross-linked Oligo-dT matrix entraps HLA proteins on microarray surfaces while preserving their native three-dimensional structure.

Stochastic particle introduction into substrate depressions creates ultra-high-density oligomer arrays without precise positioning requirements.

Copper-catalyzed click chemistry ligates oligonucleotides on substrates via light-controlled reactions.

Microwells segment continuous flow into uniform droplets, resolving size inconsistency in series formation.

Track regions with distinct pitch enable Moiré averaging for rapid optical alignment of biochemical array chips.

Patterned substrate with superhydrophilic and superhydrophobic areas creates separated aqueous fluid microdroplets.

An array of sponge-filled capture zones digitizes liquid volumes to enable accurate bacterial detection without complex lab instruments.

A self-contained nucleic acid analysis pouch integrates multiple processing zones to perform sample preparation and amplification within a single closed system.

Replacing solid walls with immiscible liquid barriers enables dense microwell packing while maintaining precise liquid handling and biological compatibility.

A biochip substrate uses photocrosslinking to immobilize biological materials within hydrophilic reaction areas.

Segmented barcode sequences link genomic data to cell phenotypes, resolving information loss during single-cell sequencing.

Base-labile sulfonyl linkers replace succinate chemistry to increase oligonucleotide density and coupling efficiency while simplifying release steps.

Post-ejection camera detection monitors droplet velocity and viscosity, correcting flight path deviations to ensure bioactive substance integrity.

Spatially separated molecular transfer stores enable parallel analysis of sample molecules and their reaction products.

Segmenting the reaction into two stages with distinct catalysts converts sugar alcohols into additional glycols, reducing energy-intensive separation needs.

Surfactant-mediated coalescence of compound droplets mixes small fluid volumes, reducing instrumentation complexity for high-throughput assays.

A fluidic device uses a constriction channel to control nanoparticle size and shape during precipitation.

An integrated instrument merges oligonucleotide synthesis with real-time PCR amplification to streamline molecular analysis workflows.

An integrated analytical instrument processes biological samples using an array tape transducer for dispensing, sealing, and detection.

A static mixer homogenizes reagent and catalyst flows to improve transesterification selectivity and reduce by-product formation.

A single-strand cyclic nucleic acid library construction method merges enzymatic reactions on magnetic beads to increase fragment length.

A cluster array microwell device automates oligonucleotide synthesis using segmented solid phase carriers and passive fluid delivery.

Optimized high shear mixing improves peptide yield and purity while preventing structural damage during solid phase synthesis.

Optical activation directs polymeric chain synthesis within capillary tubes, resolving density-reliability trade-offs in molecular storage.

Segmented reaction columns with dedicated waste channels reduce plumbing complexity while maintaining an inert atmosphere to prevent contamination.

Ligating blunt-ended randomisation oligonucleotides to starter templates via DNA ligase builds diverse peptide encoding libraries.

Grafting dendrimer spacers alongside sequencing primers in gel wells reduces steric hindrance and non-specific binding for improved fluorescence.

Automated flow control system manages reagent selection and fluid transport sequences using integrated selector valves and pumps.

Covalently binding thioether groups via a dialkyl silyl linker creates adjustable contact angles without compromising mechanical stability or transparency.

An integrated tubular reaction device connects multiple chambers via channels to enable automated multi-step biochemical processing.

Centrifugal processing automates liquid removal via S-trap outflows, eliminating manual handling errors and improving synthesis accuracy.

Ellipsometry tracks surface thickness changes at multiple positions to detect truncated probe sequences and improve yield.

Segmented equilibration ports control fluid flow and prevent premature drainage, reducing reagent waste while maintaining synthesis yield.

A solid analysis apparatus uses switching valves to exchange fluids in a flow cell without pressure surges.

Inclined receiving cavity redirects excitation light away from detection path, increasing fluorescent probe exposure and improving gene detection accuracy.

Enzymatic droplet assembly joins short DNA fragments to synthesize long sequences, reducing error rates and costs associated with chemical synthesis.

A pressurized filter separates methionine crystals from mother liquor while maintaining system pressure.

Non-rectilinear fiducial layouts provide stable reference points for precise image registration across successive fluorescent imaging cycles.

A needle-shaped electrode device maintains constant droplet volume through electric field actuation and feedback control.

A reusable flow cell uses linking groups to attach and release target-binding oligonucleotides for multiple sequencing runs.