Hydrolases TRIZ Cases

Episomal replicon delivers donor nucleic acids for precise recombination in bacterial cells.

Measures DDX39B and sIL7R markers to enable early multiple sclerosis identification before neuronal damage occurs.

CRISPR-Cas9 mediated homology-independent targeted integration restores full-length dystrophin by replacing mutated exons 1-19 or 41-55.

Protease enzymes replace sulfur dioxide and prolonged soaking by breaking down protein bonds, reducing processing time while improving starch purity.

Stable retroviral transduction in mammalian cells produces properly folded antibodies with correct glycosylation patterns.

Wireless electronic control unit measures signal strength to determine operator proximity for safe trailer height adjustment.

Lactonase enzymes degrade acyl-homoserine lactone signals to disrupt bacterial communication, reducing soft rot incidence in potatoes without harsh chemicals.

Soybean variety XBP30008 combines disease resistance, drought tolerance, and improved fatty acid profiles through targeted genetic selection.

Quantifying VCP phosphorylation at Ser784 predicts cancer treatment responsiveness, guiding clinical trial selection and therapeutic efficacy evaluation.

Engineered carboxyesterase enzymes replace toxic chemical reagents to synthesize amides directly from esters and amines.

Mutated MATRILINEAL gene increases haploid induction rates, resolving low yield constraints in doubled haploid breeding programs.

Optimized nitrilase catalyzes terephthalonitrile conversion to 4-cyano benzoic acid, suppressing terephthalic acid byproduct formation.

CRISPR intron tagging replaces viral integration biases with programmable guide RNAs, enabling high-throughput proteome analysis via fluorescence.

A lateral flow immunodiagnostic assay detects tenofovir diphosphate in urine samples using specific antibodies.

Engineered trypsin-like serine proteases maintain activity under oxidative and pH stress, resolving stability trade-offs in laundry detergents.

Stable genomic integration of cytotoxic gene sets with inducible control mechanisms eliminates transient transfection variability and reduces DNA reagent costs.

Dual-nuclease systems enable transgene removal, resolving the contradiction between effective disease control and regulatory safety compliance.

Genetically modified plants exude flavones to induce bacterial biofilm formation for enhanced atmospheric nitrogen fixation.

Cas endonuclease protects mutant DNA from exonuclease digestion, enabling detection of rare mutations at 0.01% frequency.

Applying lipid compounds and modifying the PLA2 gene induces haploid production while reducing embryo abortion rates.

An iterative platform synthesizes alpha-functionalized products using thiolase-catalyzed condensation of functionalized acyl-CoA primers and extender units.

Guide oligonucleotides recruit endogenous ADAR enzymes to edit the MECP2 polynucleotide, correcting pathogenic mutations without triggering immune responses.

Segmented OMNI CRISPR nucleases resolve sequence specificity versus off-target activity contradictions through modular design.

Extracellular vesicles transport gene-editing tools to correct JAK2 mutations, addressing the bottleneck of treating myeloproliferative neoplasms.

CRISPR editing corrects SERPINA1 mutations, eliminating toxic proteins and preventing liver damage without repeated injections.

Pre-assembled ribonucleoproteins mediate precise cleavage in filamentous fungus cells, eliminating off-target effects from DNA cassettes.

Engineered santalene synthase mutations boost production rates and molar ratios at neutral pH, resolving low enzymatic activity constraints.

Segmenting CO2 fixation and product synthesis into separate microbial stages overcomes genetic accessibility limits while maintaining high carbon yield.

A fusion polypeptide with a deamidase inhibitory domain enables extracellular separation of the active enzyme using specific endopeptidases.

Mutant Cas9-gRNA complexes bind specific genomic regions via base pairing, isolating target fragments from complex samples to improve sequencing accuracy.

Recombinant microorganisms export 2,4-dihydroxybutyrate using enhanced efflux systems to boost industrial fermentation yields.

Aqueous alkaline buffers stabilize immobilized lipases during transesterification, preventing enzyme denaturation and glycerol accumulation.

Modified polymerases and transporters enable unnatural nucleotide retention, expanding genetic information storage capacity.

Polyamines and specific enzymes enhance abasic DNA degradation, reducing carryover contamination in PCR without inhibiting amplification efficiency.

Cpf1 orthologs use modular crRNA guides to enable scalable genome editing while maintaining high targeting precision.

Ionic liquids dissolve lignin and swell crystalline cellulose, enabling high sugar yields while allowing chemical recovery.

A Cas fusion protein complex directs homology-directed repair using a guide polynucleotide and donor sequence.

Universal expression vectors enable high-efficiency cloning and production of tag-cleavable fusion proteins across multiple host species.

Segmented promoter constructs with synthetic motifs boost polynucleotide expression and heritable edit frequency in plants.

An RNA-mediated base editing system recruits multiple effector proteins to target sites for precise genetic modification.

CRISPR-Cas editing modifies the endogenous STAYGREEN gene in soybeans to generate durable resistance against soybean rust pathogens.

Constriction-induced deformation drives genome editing molecules into the nucleus while minimizing cell death and payload damage.

Engineered hydrolases replace thermal depolymerization, lowering energy consumption while recovering monomers from nylon waste.

Mutated lipase variants maintain catalytic activity in harsh cleaning formulations, resolving interference from surfactants and builders.

Digenome-seq identifies off-target cleavage sites through whole genome sequencing, enabling selection of guide RNAs with high target specificity.

Engineered CRISPR-associated transposase proteins direct donor polynucleotides to specific genomic locations using guide RNA complexes.

Extracting transposase activity from crude cell lysates eliminates purification steps, reducing processing time while maintaining fragmentation efficiency.

CRISPR-edited hPSCs lacking KIF3A or KIF3B produce cilia-free organoids that accurately recapitulate polycystic kidney disease phenotypes.

Embedding a Broccoli aptamer into the guide RNA structure enables direct measurement of expression levels without complex downstream gene activation.