Hydrolases TRIZ Cases

Reducing mediator complex subunits in engineered immune cells improves migration through dense stroma while maintaining anti-tumor specificity.

GC-rich DNA binding domains in hyperactive transposases increase transgene insertion efficiency and stability while avoiding viral immunogenicity.

Homology arms direct CRISPR-mediated insertion to safe harbor loci, resolving the trade-off between targeting precision and transduction efficiency.

Secondary guide RNAs target indel products created by end joining pathways, recycling resistance alleles to improve gene drive efficiency.

Replacing endogenous genes with human mutations creates porcine models that accurately represent ophthalmic architecture for testing gene therapies.

Disabling galactinol synthase reduces raffinose and stachyose, increasing sucrose and metabolizable energy for monogastric animals.

Lanthanide complexes replace unstable arrestin markers, enabling high-throughput detection of early receptor internalization events.

Y239H mutations in SaCas9 reduce off-target activity while maintaining on-target efficiency, enabling broader genomic targeting.

Mixing heat-resistant enzymes with polymers enables complete aqueous degradation while maintaining mechanical strength.

A reversibly modified RNase H enzyme composition enables hot start nucleic acid detection in a single reaction mix.

Sequence-specific tracrRNA recruits a CRISPR nuclease to sensed RNA, resolving the trade-off between detection precision and off-targeting effects.

Asymmetric nickase strategy deletes specific DNA regions from one homologous chromosome, preventing unintended mutations and random integration.

Modified RhtB transporters increase O-phosphoserine secretion to resolve low export efficiency limits on cysteine production yields.

RNA-guided helicase unwinds chromatin to overcome restrictive structures and boost fetal hemoglobin expression.

CRISPR-Cas9 mediated cleavage and repair mechanisms knock out the NMT gene in Eimeria tenella, enabling functional studies for vaccine development.

Cps1 and Cps2 endonucleases eliminate the need for trans-activating crRNA, simplifying genome editing systems while evading pre-existing human immune responses.

Anaerobic conditions prevent DHPG oxidation during cephradine synthesis, reducing cephalexin contamination.

A 4-methylumbelliferyl ester substrate enables rapid fluorescence measurement of contaminating lipase activity in recombinant protein samples.

Novel esterase variants with specific amino acid substitutions catalyze polyethylene terephthalate breakdown.

Recombinant methanotrophic bacteria display chimeric S-layer polypeptides on their cell surface to immobilize heterologous proteins.

A UCH-L1 biomarker assay measures protein levels in biological samples to detect traumatic brain injury severity.

Specific protease hydrolysis resolves turbidity and separation bottlenecks while maintaining high protein purity.

Mutant penicillin G acylase enzymes with specific amino acid substitutions reduce hydrolysis of activated side chains while maintaining high synthetic activity.

CRISPR-Cas9 editing of Kunitz trypsin inhibitor genes eliminates heat treatment needs and preserves essential amino acids.

Introducing ionizable amino acid residues into the hydrophobic interior of proteins to create artificial pH-sensitive conformational switches.

A molecular complex recruits cell-endogenous enzymes to edit targeted DNA sequences without introducing external proteins.

A segmented Atg4B protease fragment enables precise cleavage of fusion protein tags in recombinant expression systems.

Endogenous enzymatic pathways synthesize luciferin within cells, eliminating exogenous addition and resolving membrane penetration limits.

Over-expressing chloroplast-targeted glucuronolactonase increases ascorbate content in Arabidopsis plants.

A CRISPR nickase and ligase system incorporates nucleic acid sequences via ligation to enhance editing precision.

Amino acid substitutions at positions 123, 158, 180, 272, 307, and 316 stabilize mannanase against high temperatures and detergents.

Co-precipitating biocatalysts with silicate matrices using organic templates creates stable silica biocomposites.

tRNA-derived polynucleotides degrade nascent RNA in the nucleus, resolving cytoplasmic targeting limits.