CeeTox and CDI Collaborate
News Jan 01, 2013
CeeTox and Cellular Dynamics International (CDI) have announced the introduction of a new, highly predictive cardiac safety screening service that utilizes human induced pluripotent stem (iPS) cell-derived cardiomyocytes.
The Cardiac Arrhythmia Assessment Screen™ (CAAS) combines CeeTox’s expertise with in vitro toxicity screening and CDI’s iCell® Cardiomyocytes to provide a comprehensive profile of drug-induced cardiac toxicity early in the drug development cycle.
Cardiotoxicity is the leading cause for late-stage drug attrition and market withdrawal, and the FDA mandates cardiotoxic safety data on drug candidates prior to entering clinical development.
Currently used animal models, non-cardiac cell lines transformed to mimic heart cells, and cadaveric cells do not truly recapitulate human response and are therefore more likely to miss adverse side effects.
CDI’s iCell Cardiomyocytes are highly pure, fully functional human cardiac cells derived from induced pluripotent stem cells (iPSCs). They are manufactured in reproducibly high quality and quantity to provide a more reliable, relevant and predictive in vitro model.
CeeTox’s CAAS provides a fast, real-time assessment of drug-induced cardiac arrhythmias and biochemical cytotoxicity, thus enabling researchers to monitor both acute and longer-term effects, in contrast to the single time point results obtained with other assays.
Dr. James McKim, Chief Scientific Officer and CeeTox founder, said, “CeeTox’s CAAS is an affordable addition to cardiac safety screening panels done during lead optimization, prior to candidate selection. More sensitive, predictable in vitro screens such as this that have direct implications for hazard identification and risk assessment can save drug developers valuable time and money.”
“Increasingly researchers are publishing on the more predictive power of our iCell products in safety testing and discovery, and we’re working closely with a number of pharma companies to develop assays that will become part of their standard screening platforms,” said Chris Parker, Chief Commercial Office.
Parker continued, “We’re gratified to work with CeeTox as the first CRO to incorporate human iPSC-derived tissue cells as a standard human in vitro model into their screening services, thus reducing the use of animals in testing and providing a more predictive model of in vivo human response.”
Innate Reaction of Hematopoietic Stem Cells to Severe InfectionsNews
Researchers at the University of Zurich have shown for the first time that hematopoietic stem cells detect infectious agents themselves and begin to divide, without signals from growth factors.READ MORE
Using Milk Protein to 3D-Imprint Muscle and Bone CellsNews
Researchers from the University of Canterbury are replicating a 3D imprint of cells onto films made of milk protein. The films then gradually degrade, leaving the grown tissue behind.READ MORE
Comments | 0 ADD COMMENT
EMBL Course: Transgenic Animals - Micromanipulation Techniques
Apr 10 - Apr 11, 2018
EMBO Practical Course: Extracellular Vesicles: From Biology to Biomedical Applications
Apr 09 - Apr 13, 2018
EMBO | EMBL Symposium: Tissue Self-Organisation: Challenging the Systems
Mar 11 - Mar 14, 2018
EMBL Course: Brillouin Microscopy: Emerging Tool for Probing Mechanical Properties of Living Cells
Jan 17 - Jan 19, 2018