Silent phage carriers with genetic barcodes enable pooled screening of synergistic ligand binding while avoiding steric interference.
A pooled NGS library with capture probes and indexed adaptors enables targeted and whole-genome analysis in one run, improving quality, cost, and turnaround.
3' end blocking and exonuclease cleanup stop unincorporated adapters from priming cluster amplification, sharply reducing index hopping.
Blocker nucleotides added at the 3' end of AbSeq oligonucleotides stop unwanted polymerase extension and improve protein-gene analysis accuracy.
Barcoded transposome tagging preserves DNA contiguity during fragmentation, enabling variant, phasing, and methylation analysis without extra purification.
Partially complementary blocking oligonucleotides suppress nonspecific binding and background fluorescence in multiplex biological sample analysis.
Nucleic acid barcoding transfers protein recognition events into sequencing-readable tags, improving multiplexed analysis accuracy and throughput.
Partially complementary blocking oligonucleotides curb nonspecific label binding and background fluorescence in high-plex sample analysis.
Binary fluorophore coding expands HiPR-FISH multiplexing and improves single-cell mapping of densely packed microbial communities.
In situ spatial tags stay linked to dissociated cells, enabling single-cell sequencing that preserves tissue location without complex arrays.
Microfluidic droplets isolate sandwich assays to limit cross-reactivity and non-specific adsorption while enabling multiplex detection from small samples.
Bead-specific indexing and high-throughput sequencing replace colony screening to rapidly recover correctly assembled nucleic acids.