Syngene has released GeneTools V4 (a) 1D gel image analysis software including new rapid, accurate band matching features.
Syngene has released new software and validation information for its Dyversity, G:BOX and GeneGnome range of image analysis systems.
Syngene has updated its image acquisition software, GeneSnap Version 7.02, which is available free of charge to GeneSnap customers.
Syngene has released its Dymension software for automated 2D protein gel analysis, which now includes common spot outlines, a revolutionary algorithm for automatically detecting presence or absence of proteins in large data sets.
Syngene, which manufactures image-analysis solutions, has introduced a new range of GeneGnome automated image analysers, designed for imaging chemiluminescent samples.
The new system comes complete with a 16-bit cooled camera inside a compact, light-tight cabinet, and a new white-light source for the added flexibility of imaging coloured markers. The camera is fully integrated to a processor and flat-screen monitor for easy viewing and offers fast and accurate molecular weight analysis.
The automotive sector is undergoing a period of rapid and disruptive transformation from both a business and technical standpoint.
Estimates suggest that the global laboratory informatics market, valued at $2.6 billion in 2019, will witness CAGR of 7.5 per cent over the next five years, reaching $3.8 billion in 2024[1].
Modern drug discovery and development workflows incorporate a growing range of automated, high-throughput technologies that can generate data on a truly impressive scale.
‘This will be the life sciences century … because of personalised medicine, information technology, and knowledge on biological systems,’ said Fred Hassan, a partner of Warburg Pincus and former CEO of Schering-Plough.
With data rates increasing and more complex challenges arising in life sciences, Panasas’ Jim Donovan and Dale Brantly discuss the benefits of using HPC for these workloads
As the complexity of both HPC hardware and the challenges that scientists are trying to solve using HPC systems increases, ensuring a system is utilised efficiently is necessary to deliver a computing service with value for money and a high research output.
Architectural specialisation is one option to continue to improve performance beyond the limits imposed by the slow down in Moore’s Law.
As not only the HPC industry but the larger computing ecosystem tries to overcome the slowdown and eventual end of transistor scaling described by Moore’s Law, scientists and researchers are implementing programmes that will define the technologies and new materials needed to supplement, or repla
