Microbiological Testing/Measurement TRIZ Cases

Plant tissue composition supplies endogenous cellulase enzymes, reducing exogenous enzyme costs while increasing glucose production by up to 500%.

Segmented breeding of homozygous inbred lines resolves genetic non-uniformity, ensuring consistent performance for pepper hybrid SV3936PS.

SLAF-seq technology extracts SNP markers from Goji berry DNA to determine evolutionary primitive ancestry across diverse germplasms.

A hydrodynamic system separates particles by size using cylindrical illumination confocal spectroscopy for detection.

NUN 76520 MEM melon variety overcomes uniformity trade-offs by combining inbred lines to achieve disease resistance and consistent yield.

Measuring N-myristoyltransferase 2 levels in blood samples identifies colorectal cancer candidates using specific antibodies or nucleic acid sequences.

Capillary electrophoresis releases encapsulated biomolecules directly within a polymer matrix buffer for immediate fluorescent detection.

A gated amperometric method applies sequential excitation and relaxation pulses to determine analyte concentration in solution samples.

A PDE4D7 expression risk score stratifies prostate cancer patients to guide therapy selection between active surveillance and intervention.

Lettuce variety 79-330 RZ achieves disease resistance and leaf uniformity via parameter changes, reducing crop losses.

DNA sequencing amplification detects microsatellite mutations to calculate mutational load for disease progression risk assessment.

Extract human DNA from tied-off thread ends in historical textiles while preserving structural integrity.

Targeting the C1MBP 17_2 locus with molecular markers resolves unpredictable firmness by reducing juice leakage and extending shelf life.

A recombinase enzyme forms a mini-circle structure to stabilize polynucleotides within rAAV vectors for high-throughput gene regulatory element analysis.

Replacing mechanical ligation with isothermal strand displacement prevents chimeric reads and barcode swapping, increasing sequencing yield by 55%.

An oligonucleotide adapter attaches to DNA fragments via linear amplification and probe hybridization.

A microfluidic device captures pathogens via a filter to enable direct detection without incubation.

Gene expression analysis evaluates informative genes to resolve indeterminate bronchoscopy results and improve diagnostic accuracy.

Molecular marker selection accelerates maize inbred PH25KJ development by replacing multi-generational phenotypic screening with DNA-based trait identification.

A DNA nanoarray fabrication method uses streptavidin-coated substrates and biotin-tagged oligonucleotides to immobilize unique sequences on microscale spots.

A dual-substrate sandwich system captures analytes from both sides of a biological sample to improve spatial resolution.

Magnetic spacers prevent signal quenching, boosting detection sensitivity five to ten times.

Direct injection of lipid nanoparticle formulations onto reverse phase columns with ion pairing agents resolves coeluting RNA peaks without extraction.

PH1MRP maize achieves disease resistance and yield via segmentation and preliminary action to resolve uniformity trade-offs.

A convolutional neural network analyzes reaction array plate images to identify manufacturing defects.

Molecular marker-assisted selection accelerates breeding time for disease resistance while maintaining genetic uniformity in the PH25RY maize line.

Segmenting general monitoring into patient-specific components by comparing tumor and normal tissue genomes to track therapy response.

Merging separation functions into one pad eliminates uneven blood flow and incomplete separation errors common in multi-layered test strips.

A modified allele specific primer with a noncomplementary third base reduces false positives while maintaining high reaction efficiency.

Decoupling target sequence detection from Cas cleavage activation eliminates amplification-induced mutations while maintaining single base discrimination.

Analyzing CpG methylation status in the 2213 amplicon region identifies non-classical monocytes directly from whole blood samples.

Molecular markers identify reduced tassel skeletonization alleles, resolving the contradiction between breeding complexity and trait identification accuracy.

An electrochemical biosensor detects target RNA using a nanocomposite electrode and Cas13a trans-cleavage activity.

A semi-permeable membrane dispersion system uses microfluidic channels to regulate active ingredient release into the atmosphere.

A plasma glucose measurement method calculates liquid content ratios to derive accurate concentrations from hemolyzed whole blood samples.

Assays using specific primers and probes target multiple viral genome regions for accurate variant identification.

Gravitational field-flow fractionation isolates intact fetal erythroblasts from maternal blood samples.

A gene expression assay calculates MLS scores from specific markers to identify mismatch repair deficiency.

JH6530 maize inbred plant enables hybrid seed production that balances yield improvement with regional uniformity across the Corn Belt.

Circularized nucleic acid templates enable exponential rolling circle amplification, resolving low yield and high equipment complexity in diagnostic assays.

Detergent and chelator formulations stabilize nucleic acids at room temperature while inactivating pathogens.

Simultaneous HLA typing and TCR profiling reduces diagnostic time and cost while detecting down-regulated tumor alleles.

Sodium bisulfite treatment and selective PCR amplify methylated cfDNA to identify multiple carcinoma types with high sensitivity.

Segmenting the genome into targeted regions reduces sequencing complexity while maintaining detection accuracy for cardiometabolic disease risks.

A control unit extracts measurement values from the saturated state of a nucleic acid amplification reaction to determine success or failure.

Magnetic nanoparticles capture target bacteria and separate within a highly viscous medium under a magnetic field.

Single-stranded adaptors preserve DNA ends using loop-like structures formed by specific ligase activity.