- Cancer Biology & Biomarkers
- Chromatography & Mass Spectrometry
- Contract Research, Clinical Trials and Outsourcing
- Drug Discovery
- Drug Targets
- Flow Cytometry
- Informatics & Lab Automation
- Ingredients, Excipients and Dosages
- Microbiology & RMMs
- NIR, PAT & QbD
- Raman Spectroscopy
- Screening, Assays & High-Content Analysis
- Thermal Processing
Merck Sharp and Dohme - Articles and news items
The application of High Content Screening for in vitro toxicity testing is a relatively new approach in the preclinical research phase of drug development. A battery of tests have been developed for screening on general parameters such as cytotoxicity, while more dedicated assays are available with respect to the identification of genotoxicity, phospholipidosis, steatosis and cholestasis. All these tests are very beneficial within the pharmaceutical industry for the selection of appropriate candidates for drug development as well as for reduction of the attrition rate.
High content screening (HCS) is quickly growing in popularity within the field of in vitro toxicity testing. The maturity of HCS equipment and software has made HCS accessible for many technicians and scientists working in the area of cellular and molecular biology. Although this technique was introduced in the mid 1990’s, the simplification in the use of the software programs, the growth in computer storage capacities as well as the improved qualities of resolution of the digital microscopic cameras has largely increased the accessibility of this equipment. At the start of HCS technology, many scientists were sceptical about this technique as image-based mathematical algorithms had to be written for the analysis.
HCS has been implemented as a key technology to address complex biology associated with CNS drug targets. This review will describe a new generation of HCS assays including multiplexed HCS assays with biochemical markers, novel techniques for studying receptor internalisation and the application of HCS to neural network cultures that have facilitated CNS drug discovery.
In spite of an increased understanding of brain mechanisms in recent years, there has been a lack of major new drugs being registered for psychiatric and neurological conditions1,2. To prioritise drug discovery resources and provide early proof-of-concept studies for novel compounds and mechanisms, the pharmaceutical industry is increasingly focusing on trying to identify and develop early biological markers (biomarkers).
In drug discovery for CNS diseases, the use of complex neural cell culture systems offers many advantages. Innovations in high content screening enable us to identify compounds which affect key cell biological properties in such cultures. We can bridge the divide between kinetic and endpoint screening by use of another novel technology, RNAi.
ABB Analytical Measurement ACD/Labs ADInstruments Ltd Advanced Analytical Technologies GmbH Analytik Jena AG Astell Scientific Ltd B&W Tek Bachem AG Bibby Scientific Limited Bio-Rad Laboratories BioNavis Ltd Biopharma Group Black Swan Analysis Limited Butterworth Laboratories Ltd CAPSUGEL NV Charles Ischi AG | Kraemer Elektronik Cherwell Laboratories CI Precision Cobalt Light Systems Coulter Partners CPC Biotech srl Dassault Systèmes BIOVIA DiscoverX Edinburgh Instruments Enterprise System Partners (ESP) Eurofins BioPharma Product Testing EUROGENTEC F.P.S. Food and Pharma Systems Srl GE Analytical Instruments IDBS JEOL Europe Kaiser Optical Systems Inc. L.B. Bohle Maschinen + Verfahren GmbH Lab M Ltd. LabWare Linkam Scientific Instruments Limited Lonza MA Business Metrohm Molins Technologies Multicore Dynamics Ltd Nanosurf New England Biolabs, Inc. Ocean Optics Panasonic Biomedical Sales Europe B.V. Peak Scientific ReAgent Russell Finex Limited Source BioScience Takara Clontech Tornado Spectral Systems Tuttnauer Viavi Solutions, Inc Watson-Marlow Fluid Technology Group Wickham Laboratories Limited Xylem Analytics YMC Europe GmbH Yusen Logistics