Sequential/Parallel Process Reactions TRIZ Cases

Parallel microwell droplet merging avoids single-stream failures and enables scalable optical barcode screening of molecular combinations.

A UV-crosslinkable anchor chain fixes nucleic acid probes to untreated solid supports, improving attachment while limiting probe damage.

Amplitude-modulated fluorescence lets one light source and one detector identify four nucleobases faster with less light exposure and simpler optics.

A rack-mount DNA archive uses glass-to-metal hermetic sealing and robotics to raise storage density, retention, and scalability.

Patterned gel-filled wells confine single nucleic acid species to boost sequencing density, reduce amplification variability, and lower processing cost.

A coaxial needle and guide bracket automate vial piercing and venting, preventing needle damage, vial lift, and contamination during drug reconstitution.

A nine-stage microreaction flow route for (+)-biotin cuts batch reaction time, improves mixing and heat transfer, and raises automation.

Distinct cleavable and un-cleavable primer regions improve nucleic acid clustering and paired-end sequencing accuracy.

Separated channel and via plates simplify solvent-compatible assembly and scale combinatorial small-molecule synthesis.

Patterned bonding regions add adhesive surface area in flow cells, boosting shear and compressive bond strength to prevent fluid leakage.

A helical capillary PCR path across denaturation and annealing zones cuts manual handling, space, and cycle time for GMP DNA production.

Stable TAPBPR-bound peptide-deficient MHC-I complexes enable low-background peptide exchange and large multimer libraries for T cell screening.

Computer-controlled droplet printing enables precise 3D placement and stable interfaces to build large self-supporting droplet networks.

Selective etching replaces polishing to form patterned polymer sequencing surfaces with less polymer waste and lower-cost high-throughput use.

Integrated catalyst units and a liquid extractor enable sampling at different reaction times without column replacement or steady-state delays.

Simultaneous transport and faster site amplification create clonal nucleic acid populations, avoiding emulsion handling and complex image registration.

Patterned photopolymerized 3D flow-cell structures isolate cells, cut cross-contamination, and raise sequencing throughput.

Complementary nucleic acid strands transfer multiple high-resolution patterns onto soft or curved substrates for 2-D material manufacturing.

Hybrid microfluidic delivery and photolithography build molecular arrays with sub-10 micron spatial precision, high multiplexing, and stable barcode attachment.

Pressure differentials, filters, and liquid level sensing keep parallel enzymatic polynucleotide synthesis running despite enzyme aggregation and transfer blockage.

Orthogonal cleavage regions in a flow cell separate forward and reverse strand fluorescence, enabling simultaneous paired-end sequencing and cleaner base calling.

Slit barrier sections flex with fluid volume in microarray chambers, limiting evaporation and maintaining probe coverage during hybridization.

Separate gas lines and check-valve flow prevent reagent cross-contamination and corrosion in automated solid-phase carbohydrate synthesis.