Sequential/Parallel Process Reactions TRIZ Cases

A dendron architecture flow cell uses peripheral functional groups to attach oligonucleotide primers via chemical bonding.

A split feed reforming process divides hydrotreated naphtha into light, middle, and heavy fractions for separate catalytic treatment.

Three-dimensional polymer networks feature internal channels that expand surface area for analyte access.

Segmenting the exome into a targeted gene panel reduces sequencing time while maintaining detection precision for rare variants.

Porous membranes isolate microwells to prevent cross-contamination during buffer exchange.

A butene-1 polymer composition achieves high melt flow rate using a metallocene catalyst system.

Magnetic nanoparticles manipulate nanopore wells to enable selective nucleotide addition during parallel DNA strand synthesis.

A single reaction tube performs sequential biochemical assays using temperature-controlled enzyme activation and deactivation.

Symmetric dual drive screws center force over partial loads, eliminating external stations and reducing workstation footprint.

Hydrophilic surfaces and staircase channels prevent air pockets and premature wicking, ensuring complete chamber filling for accurate microarray analysis.

Electromagnetic radiation disrupts surface-linked molecules to create high-density single-analyte arrays with controlled deposition chemistry.

Unique electrical parameters in polymer particles resolve device complexity trade-offs for reliable protein quantification.

Continuous flow synthesis paired with genetic algorithm feedback explores product space to identify compounds meeting user specifications.

A microreactor array platform uses a sealing film and injector to deliver reagents into reaction chambers for rapid parallel assays.

A layered substrate with varying thicknesses controls interference patterns to resolve background signal interference in single-analyte arrays.

Photomasks define nucleic acid patterns via photohybridization, eliminating decoding needs for high-fidelity arrays.

Segmented sensing pixels enable precise local temperature control across the array, resolving conflicts between measurement precision and device complexity.

A profilometer scans foundation topology to generate compensated sublayers and toolpaths for additive construction.

Subtractive contact printing patterns receptor arrays via elastomeric stamps, resolving specificity and generality trade-offs in virus library screening.

Biotin-avidin scaffolds direct single polymerase molecules to specific array binding sites, overcoming Poisson-limited loading constraints.

Solid push rods with external vacuum retain macrobeads, eliminating fluid-filled lumens that cause cross-contamination during transfer.

Photoactive coupling formulations enable high-efficiency peptide attachment to substrates through light-activated processes.

A continuous ester manufacturing system uses phase transition distillation to separate alcohol from the reaction mixture efficiently.

Combinatorial synthesizer recycles ambiguous transponders through sequential sorting passes to resolve speed versus precision trade-offs.

Porous attachment layers capture nucleic acid molecules on patterned base pads to enable high-density microarray fabrication.

Variable drainage in a solid phase synthesizer controls reagent flow rates, reducing waste from excessive pressure-driven movement.