In a session devoted to protein aggregation and emerging analytical tools at this year’s PepTalk conference (21-25 Jan 2013, Palm Springs, US), Dr E. Neil Lewis, Chief Technology Officer for Malvern Panalytical, will discuss ‘Recent advances in the integrated measurements of size, high order structure and formulation viscosity of biopharmaceutical formulations’.
The paper he will present is co-authored by Dr Kevin Mattison, Principal Scientist, Bioanalytics, at Malvern Panalytical, who will also be one of the instructors leading Malvern Panalytical’s Dinner Short Course: ‘How to obtain reliable information from light scattering: theory, practical advice and data interpretation’.
Dr Lewis will make his presentation at 12.00pm on Friday 25 January. Malvern Panalytical’s Dinner Short Course takes place on Tuesday 22 January from 4.30 pm until 7.30 pm, where along with Dr Mattison, the Malvern Panalytical instructors will be: David Dolak, MBA, Product Manager, Light Scattering Technologies; Ulf Nobbmann, Ph.D., Product Manager, GPC/SEC Technologies; and Mark Pothecary, Ph.D., Product Manager for Light Scattering Products. Further information and registration details are available via the ‘Short Course’ tab on the PepTalk 2013 website:
As in previous years, Malvern Panalytical is a corporate sponsor for PepTalk, and will be exhibiting from the company’s growing range of solutions for characterizing proteins and their aggregation. On show for the first time will be the new Zetasizer Nano ZSP. Launched in September 2012, this top-of-the-range addition to Malvern Panalytical’s established Zetasizer Nano family enables highly sensitive measurement of zeta potential, for rapid, reliable determination of the electrophoretic mobility of proteins, and subsequent calculation of the key parameter of protein charge. Measuring protein mobility (or zeta potential) by dynamic light scattering is faster and more convenient than conventional methods such as capillary electrophoresis and iso-electric focussing. Furthermore, the Zetasizer Nano ZSP requires only 20 microliters of sample and measures at concentrations down to 1 mg/mL. Further details are available at