mRNA display selects multivalent glycopeptides that tightly recognize broadly neutralizing HIV antibodies like PGT128, resolving weak epitope mimicry.
Segment polypeptide variant libraries into functional groups to reduce screening time and cost while maintaining identification accuracy.
Affinity pre-clearance removes high-abundance albumin to resolve low-abundance markers, enabling reproducible 2-DE gel electrophoresis.
Expression vectors display tagged peptides to construct complete peptide libraries, reducing synthesis costs and production yield issues.
Sortase A cleavage separates fusion proteins into individually paired VH and VL domains, reducing purification complexity compared to DNA-based libraries.
Segmenting protein domains into single substitution libraries reduces library size and screening time while maintaining assessment precision.
Antibodies bind cleaved inflammatory caspase substrates via specific peptide motifs for targeted detection.
Bacterial display segments coronavirus antigens into specific peptide motifs to resolve diagnostic accuracy and test complexity contradictions.
A method selecting human antibody frameworks from a virtual germline database to resolve immunogenicity risks while retaining antigen-binding affinity.
Antigen binding proteins recognize HLA-peptide complexes on tumor cells.
A peptide microarray uses segmented regions to enable high-throughput biomolecular detection with precise feature placement.
Targeting specific antigen-contacting residues in antibody variable regions to generate libraries with improved affinity and specificity.
Quantifying RINF mRNA expression levels in biological samples to classify patients and assess treatment efficacy.
Converting L-peptides to D-enantiomers preserves binding specificity while resolving protease degradation and immunogenicity bottlenecks.
Three-dimensional microarray surfaces immobilize small molecules and proteins via diazirine photoactivation.
Segmentation and extraction principles accelerate development of activatable antibodies by separating target-binding regions from self-blocking peptides.
Antigen panel detects immunoreactivity in serum samples, resolving low sensitivity and specificity of conventional single-marker screening methods.
A receptor linked to a hygroscopic polymer enables specific molecular binding interactions.
Separate translation of H and L chain mRNAs resolves competition for ribosomes, improving mRNA recovery and display efficiency.
Automated multi-module instruments produce cell surface display libraries for rapid antigen identification.
Camelid VHH molecules bind transferrin receptors to transport therapeutic agents across the blood-brain barrier via receptor-mediated transcytosis.
DNA-mediated transcriptional amplification resolves sensitivity limits in high-throughput microarrays.
Incorporating unnatural amino acids into polypeptide libraries normalizes expression levels across variants.
A biochip uses a protective layer protruding part to define an opening that exposes the reaction region.
A multivalent glycan microarray platform uses branched polymers to display glycans in multiple spatial dimensions.
Specific serum proteins enable early diagnosis and prognosis prediction in hemorrhagic shock patients.
A patterned peptide microarray platform synthesizes millions of peptides on a wafer to enable high-throughput screening of therapeutic antibodies.
Modifying tRNA D- and T-arms stabilizes loops to overcome low expression levels of consecutive non-proteinogenic amino acids.
Segmenting CDR3 from naïve B-cells and CDR1/CDR2 from memory B-cells resolves the diversity versus functionality trade-off in natural libraries.
Parallel chromatographic purification of MHC molecule subsets using stepped gradient elution eliminates concentration steps and reduces protein losses.
Reactive force field molecular dynamics simulates structural fluctuations to grow ligands, improving binding stability against static design limitations.
Concatenated Pumilio protein modules target arbitrary RNA sequences without modifying native structures, enabling precise cellular manipulation.
Segmented CH2 and Fc domains resolve size versus half-life trade-off, enabling targeted cancer cell killing with prolonged circulation.
Incorporating antigen binding loops in CH1 and CL regions resolves the trade-off between limited conventional binding sites and increased structural complexity.
A high-throughput device applies sub-physiological voltages across lipid matrices to stabilize membrane protein conformations during crystallization.
Quantitative analysis of specific transferrin glycosylation patterns enables differential diagnosis of Alzheimer's disease from other dementias.
Multi-arm cyclic peptide constructs resolve low binding affinity in Chikungunya diagnostics by segmenting capture agents into independent arms.
Segmented barcoding with unique molecular identifiers corrects amplification biases, enabling accurate quantification of highly and lowly expressed proteins.
A peptoid compound detection chip functionalized with specific subunits enables high-affinity binding to EpCAM proteins on circulating tumor cells.
A phage display library enriched with human scFv antibodies featuring variable heavy chain CDR H3 sequences of 18 to 24 amino acids.
Single-cell sorting isolates antigen-specific T cells using barcoded MHC display moieties for rapid receptor sequencing.
Emulsion-based splicing by Overlap Extension PCR overcomes phage display gene loss and hybridoma labor intensity to yield high-quality libraries.
A long DH expression cassette introduces heterologous gene segments to produce antibodies with extended HCDR3 regions.
Recessed array plate isolates hanging drops to prevent merging and enable high-throughput screening.
A recombinant single domain antibody library replaces camelid-specific amino acids with human counterparts to maintain scaffold stability.
Bicyclic peptide ligands bind IL-17 cytokines using covalent scaffold attachment, resolving conformational flexibility and rapid degradation issues.
Banking HLA homozygous induced pluripotent stem cell lines reduces treatment time by providing a ready source of immunologically compatible cells.
Transferring genetic material to barcoded surfaces preserves spatial context lost during sequencing, enabling high-resolution gene detection.
Primers with 2 to 12 fold degenerate codons generate variant nucleic acid sequences, reducing library size and screening effort.