Latest Posters

This poster highlights how this technology can provide accurate detection of genetic variants and variant-associated methylation in colorectal cancer samples.

This poster highlights a cutting-edge sequencing technology which can simultaneously resolve all four genetic bases alongside cytosine modification status.

This poster presents a solution that can offer results in less than 1.5 days, producing sequencing-ready libraries from total nucleic acid samples.

Obtaining enough synthetic mRNA for clinical use has long been a hurdle in treating conditions like cancer and infectious diseases.. Current mRNA production methods involve complex purification steps and chemicals, limiting large-scale manufacturing.

Despite the valuable transcriptomic information provided by probe-based spatial assays, detecting immune cell infiltration can pose challenges

There is more to DNA than A, C, G and T, epigenetics plays a causal role in cell fate, aging and disease development. Genetic and methylation data together on the same read allow us to get a more complete picture of genome biology. Constrained to measuring four states of information, existing NGS- based technologies sacrifice genetic for methylation calling.

This poster demonstrates how a novel, precise and highly controlled iPSC reprogramming technology overcomes these limitations and enables the generation of mature cell types and isogenic models of neurodegenerative disease.

Increased demand has led to an overwhelming volume of LC-MS/MS data and a requirement for analytical software that can simplify its interpretation. This poster highlights a new, comprehensive software solution capable of eliminating the otherwise overwhelming efforts of manual data interpretation.

Formaldehyde fixed & paraffin-embedded (FFPE) tissue blocks are one of the most commonly used and archived sample types. However, some preservation approaches can result in the degradation of RNA and hinder transcriptome profiling .

Patient-derived induced pluripotent stem cells (iPSCs) enable generation of in vitro models that can recapitulate human disease phenotypes. However, conventional human iPSC differentiation protocols are often lengthy, inconsistent and difficult to scale.