The reverse-read configuration of QuantSeq, generating reads toward the poly(A) site rather than away from it. This orientation is the one to choos...

Counts one fragment per transcript from the 3′ end, so reads map directly to expression level and far less sequencing depth is needed than whole-tr...

Counts one fragment per transcript from the 3′ end, so reads map directly to expression level and far less sequencing depth is needed than whole-tr...

Counts one fragment per transcript from the 3′ end, so reads map directly to expression level and far less sequencing depth is needed than whole-tr...

Counts one fragment per transcript from the 3′ end, so reads map directly to expression level and far less sequencing depth is needed than whole-tr...

Counts one fragment per transcript from the 3′ end, so reads map directly to expression level and far less sequencing depth is needed than whole-tr...

Counts one fragment per transcript from the 3′ end, so reads map directly to expression level and far less sequencing depth is needed than whole-tr...

Counts one fragment per transcript from the 3′ end, so reads map directly to expression level and far less sequencing depth is needed than whole-tr...

Counts one fragment per transcript from the 3′ end, so reads map directly to expression level and far less sequencing depth is needed than whole-tr...

Gene expression profiling from formalin-fixed, paraffin-embedded material, where RNA is typically degraded and conventional whole-transcriptome app...

Gene expression profiling from formalin-fixed, paraffin-embedded material, where RNA is typically degraded and conventional whole-transcriptome app...

Gene expression profiling from formalin-fixed, paraffin-embedded material, where RNA is typically degraded and conventional whole-transcriptome app...

Gene expression profiling from formalin-fixed, paraffin-embedded material, where RNA is typically degraded and conventional whole-transcriptome app...

Gene expression profiling from formalin-fixed, paraffin-embedded material, where RNA is typically degraded and conventional whole-transcriptome app...

A configurable version of the QuantSeq workflow for targeted panels, where custom primers direct library construction to regions of interest rather...

A configurable version of the QuantSeq workflow for targeted panels, where custom primers direct library construction to regions of interest rather...

Sample barcoding is introduced during reverse transcription, so libraries can be pooled almost immediately and processed as one. For large screenin...

Whole-transcriptome sequencing from FFPE material. Library size is adjusted without fragmentation, which preserves uniform coverage across transcri...

Whole-transcriptome sequencing from FFPE material. Library size is adjusted without fragmentation, which preserves uniform coverage across transcri...

Whole-transcriptome sequencing from FFPE material. Library size is adjusted without fragmentation, which preserves uniform coverage across transcri...

Whole-transcriptome sequencing from FFPE material. Library size is adjusted without fragmentation, which preserves uniform coverage across transcri...

Whole-transcriptome library preparation with integrated RiboCop rRNA depletion, capturing both coding and non-coding RNA. Fragmentation-free size a...

Whole-transcriptome library preparation with integrated RiboCop rRNA depletion, capturing both coding and non-coding RNA. Fragmentation-free size a...

Whole-transcriptome library preparation with integrated RiboCop rRNA depletion, capturing both coding and non-coding RNA. Fragmentation-free size a...