Thermo Fisher Scientific GeneChip Rabbit Gene 1.1 ST Array Plate

Applied Biosystems™ GeneChip™ Rabbit Gene 1.1 ST Array Plate

The GeneChip™ Rabbit Gene 1.1 ST Array Plate enables you to:

• Measure expression across the entire gene with higher resolution and accuracy than classical 3'-biased microarray solutions
• Obtain accurate and reproducible data using multiple independent measurements for each transcript
• Process up to 96 samples on a single array plate with the GeneTitan™ Instrument

Development of the Gene Expression Microarrays

Model and applied research organisms are valuable for comparative genomics, evolutionary biology, and understanding molecular mechanisms underlying human disease and agricultural improvement.
Gene 1.1 ST Array Plates have been developed for a wide range of model and applied organisms, offering whole-transcript coverage.
These designs were developed in collaboration with leading researchers such as:

• Alan Archibald (Roslin Institute, Porcine Gene 1.1 ST Array design)
• Leonard Zon and Yi Zhou (Children’s Hospital Boston, Harvard Medical School, Zebrafish Gene 1.1 ST Array design)

Key Benefits

• Highest transcript coverage — up to 26 probes per transcript for confident expression measurements
• Whole-transcriptome analysis — detect transcript isoforms missed by 3'-biased designs
• High data correlation — achieve R > 0.99 inter- and intra-array signal correlation
• Convenient format — process up to 96 samples simultaneously with minimal manual handling

Proven Performance

Gene 1.1 ST Array Plates provide whole-transcriptome coverage using the latest genomic content and highest probe coverage (up to 26 probes across the full gene).
This ensures accurate detection and higher resolution than classical 3'-biased microarrays, enabling identification of:

• Splice variants
• Non-polyadenylated transcripts
• Transcripts with alternative polyadenylation sites
• Truncated transcripts

Content Profile

Gene 1.1 ST Array Plates deliver comprehensive coverage of the transcribed genome.
Each transcript is interrogated by up to 26 unique 25-mer probes, covering up to 650 bases per transcript.
This high probe density ensures superior performance, data confidence, and the ability to update experimental data as genomic knowledge advances.

Specifications