Hydrolases TRIZ Cases

A split Cas enzyme reconstitutes upon molecular dimerization to generate a ribonucleoprotein signal boost for high-throughput screening.

Engineered phytase variants introduce specific disulfide bridges to enhance enzyme thermostability for industrial applications.

Phosphoketolase converts 2-hydroxyaldehyde to acyl phosphate, resolving redox and energetic constraints in renewable bioprocesses.

A TraC effector protein forms complexes with guide RNAs to enable targeted DNA binding and cleavage.

A compact genetic element enables rapid conditional allele generation via CRISPR insertion.

Microbial compositions degrade cyanuric acid into ammonia and carbon dioxide using specific hydrolase enzymes.

Cas12a-crRNA duplex cleaves target nucleic acids to trigger electrochemical signal transduction via ssDNA reporters.

Engineered CAR-T cells identify genes mediating anti-tumor responses through CRISPR screening.

Sucrose phosphorylase transforms glucose into separable glucosylglycerol, resolving purity constraints in industrial fructose manufacturing.

Alternating two parallel enzymation tanks eliminates batch interruptions, enabling automated continuous oat base production.

Variant Csy4 endoribonucleases enable direct RNA sequencing to eliminate cDNA conversion biases that limit sequence detection accuracy.

Fusing multiple domains into a single CcmC protein reduces genomic load while maintaining carbon fixation reliability.

Merging phytase action with lactic acid fermentation minimizes lipid oxidation while enhancing mineral bioavailability.

Targeted amino acid substitutions at positions 27, 227, 231, and 233 enhance the in-detergent stability of lipolytic enzymes.

Engineered Escherichia coli strain boosts L-valine titer and sugar-acid conversion rate by redirecting pyruvate flux away from the tricarboxylic acid cycle.

Isothermal amplification followed by sequence-specific nuclease cleavage resolves non-specific product interference.

A combined reaction system recycles fatty acid ester by-products as raw materials for interesterification processes.

Npro autoprotease cleaves fusion proteins within inclusion bodies under chaotropic conditions.

Gs12-10 endonuclease overcomes Cas12a PAM restrictions to expand editable genomic sites.

Targeted amino acid substitutions at positions 9, 15, 68, 218, and 245 boost catalytic activity while maintaining thermal stability for tough stain removal.

Dual gene deletions in Pasteurella multocida overcome single-mutation safety limits, delivering broad protection against multiple serogroups.

A modified lipolytic enzyme resolves racemic mixtures to produce pure S-enantiomers.

Segmenting the Cpf1 protein into two polypeptides resolves the trade-off between editing precision and system complexity by enabling controlled dimer formation.

Smac Cas9 variants recognize minimal adenine-rich PAM sequences to enable precise gene modification.

MSCs transfer processing bodies to myeloid cells, resolving variable immunomodulation success by revealing the intermediary suppression mechanism.

Expressing bacterial heparosan synthases in recombinant yeast overcomes animal-derived contamination risks while enabling precise sulfation pattern control.

Targeted knockout of the ZmPLD3 gene via CRISPR/Cas9 accelerates pure line development by boosting haploid induction efficiency.

Cas nuclease cleavage and adaptor ligation produce linear DNA resistant to exonuclease digestion, extending molecular lifetime without complex purification.

Enzyme-triggered polypeptide polymerization increases EV release by 50% while avoiding time-consuming ultracentrifugation bottlenecks.

CRISPR editing of wheat PPO1 and PPO2 genes reduces browning without lowering flour yield.

A recombinant DNA polymerase extends synthesis from mismatched base pairs using 5'-3' exonuclease activity.

Latent thermophilic nuclease activates at elevated temperatures to degrade recombinant DNA without damaging biological compounds.

Hybrid CRISPR-transposase systems resolve specificity and efficiency trade-offs by combining precise targeting with high recombination rates.

Segmented repair templates with 5' overhangs enable sticky-ended ligation and homology-directed repair, resolving low integration accuracy in genome editing.

Engineered PNGase F mutants replace low-affinity lectins to resolve broad glycan recognition limits.

Replacing asparagine with threonine at position 283 blocks glycosylation, resolving stability and yield trade-offs in industrial detergent applications.

Genetic modifications balance redox states with xylose isomerase to maintain cellular robustness while enabling efficient anaerobic acetate consumption.

Dehalogenase enzymes resolve costly racemic mixtures by selectively hydrolyzing S-enantiomers, achieving 90-99% enantiomeric excess for industrial production.

Engineered enzyme surface loops optimize energy transfer networks to enhance catalytic activity and structural stability.

Algorithm evaluates guide sequences against transcript support, predicted frameshift efficiency, and off-target scores to resolve selection complexity.

Virus-free CRISPR-Cas9 integration of chimeric antigen receptors enables precise targeting of uPAR on senescent cells for neurodegenerative disease treatment.

Site-directed mutagenesis of immunogenic epitopes on Cas proteins reduces immune responses without compromising nuclease activity or target specificity.

CRISPR-Cas9 systems disrupt the D4Z4 repeat region to silence DUX4, addressing the root cause of FSHD pathology.

Linear recombinant DNA constructs with long homology arms enable precise donor sequence integration into Bacillus genomes using Cas9 endonuclease systems.

Recombinant DNA constructs modify plant genetics to enhance drought tolerance beyond conventional breeding limits.

Engineered nucleases replace random mutagenesis with precise double-stranded DNA breaks, enabling targeted gene deletions and controlled fatty acid reduction.

Lipid nanoparticles deliver mRNA encoding Cas9 and guide RNA to the brain, correcting target SNPs while minimizing off-target genomic effects.

Transient expression of sequence-specific nucleases modifies whole plant genomes without tissue culture.

Cas12a cleaves target DNA within a ternary complex, generating fluorescence signals that enable rapid detection without thermal cycling or amplification.