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Closely packed within a 100 x 100mm microfluidic chip, the 7.5m and 1.4m long channels have an internal diameter of 320µm to ensure efficient heat transfer. With a circular cross section, a uniform coating can be evenly applied to the inside surface of the channel, effectively mimicking the stationary phase, to aid separation. The results have been published in Journal of Chromatography A. Professor Alastair Lewis, of the National Centre for Atmospheric Science at the University of York, commented, "We are very pleased with the progress of our development and the excellent support we have received from Dolomite, which helped us to make significant progress. Our research has shown that microfluidics is an enabling technology for the next generation of environmental testing equipment. It provides in-situ environmental monitoring capabilities with the possibility of a more rapid response to adverse changes in air quality." Please read more information in our application note. |








