The latest news from academia, regulators
research labs and other things of interest
Posted: Sep 15, 2010
BioScale Unveils the ViBE Protein Analysis Workstation at the BioProcess International Conference
(Nanowerk News) BioScale Inc., an innovative life science company that develops, manufactures and promotes novel analytical tools enabling advancements in protein research, will unveil the ViBE™ Protein Analysis Workstation at the BioProcess International Conference September 21-23, 2010 in Providence, RI, booth number 916. In addition, the results of a comparison study conducted by Millipore Corporation measuring the concentration of Chinese Hamster Ovary (CHO) HCP contaminants in 102 bioprocess samples will be presented in a poster session on Wednesday, September 22, from 12-2:30 PM. The poster is entitled: "Performance of the BioScale ViBE™ Workstation Host Cell Protein Assay."
"The pharmaceutical industry is rapidly changing its emphasis from purely small molecule drugs to a blend of small molecule and protein based therapeutics," commented Chip Leveille, BioScale's Chief Operating Officer. "As more biologic drugs are introduced into the pipeline, the industry will need to retool its quality control and production processes. We believe BioScale's ViBE platform is ideally suited for the growing needs of the pharmaceutical industry to provide world-class protein measurement within an easy-to-use workstation format."
According to a report issued in May 2010 by the Biotechnology Industry Organization, there are currently more than 200 FDA-approved biologic therapies and vaccines with more than 600 others in the development pipeline. The need to assure product safety and quality by biopharma companies necessitates better tools to ensure that impurities and titer are analyzed quickly and accurately. The ViBE Workstation is a powerful new productivity tool capable of performing several important BioProcess applications including Host Cell Protein assays, Protein A residual contaminant and product titer analysis -- all on one platform. Combining traditional assay formats with proprietary detection technology, the ViBE enables higher quality results, faster assay development and improved process workflow with limited manual intervention.
Powered by AMMP™ Technology, the ViBE platform enables advancements in protein research. AMMP (Acoustic Membrane MicroParticle) technology is a unique mechanical integration of magnetic microparticles, a universal sensor and acoustic science delivering a proprietary, non-optical protein detection and quantitation technique that is highly robust and versatile, with ease of methods transfer from traditional assay formats. The ViBE Workstation is the ideal tool for reliable, unattended sample analysis including reagent additions, incubation and real-time results with walkaway operation and is well suited for a variety of applications including bioprocess engineering and manufacturing assays and biomarker discovery and development.
ViBE Protein Analysis Workstations are currently being used by major pharmaceutical and biotech companies and in world-renowned research institutes to perform a wide range of protein analysis applications not only with more sensitive, reproducible data, but with the power to work in complex samples more quickly and efficiently than ever before. For more information or to get a copy of the poster presentation contact firstname.lastname@example.org, call 617-301-6000, or visit the company's website at www.bioscale.com.
BioScale is a life science company that develops, manufactures and promotes a proprietary protein analysis technology to accelerate the discovery, development and production of biological and pharmaceutical products. BioScale's innovative ViBE platform enables highly-sensitive detection and quantitation of proteins in complex samples used in pre- clinical and clinical research, bioprocess, patient point-of-care and personalized medicine applications. Founded in 2002, the Company is headquartered in Cambridge, MA. For more information, visit www.bioscale.com.