Shimadzu?s LCMS-8050 triple quadrupole LC-MS/MS meets the growing demand for trace-level quantitation in clinical research and other markets. It incorporates proprietary ultrafast technologies as well as a newly developed ion source and collision cell technology.
Shimadzu’s LCMS-8050 triple quadrupole LC-MS/MS meets the growing demand for trace-level quantitation in clinical research and other markets. It incorporates proprietary ultrafast technologies as well as a newly developed ion source and collision cell technology.
Trace level quantitation of multiple compounds
Shimadzu’s LCMS-8050 triple quadrupole LC-MS/MS meets the growing demand for trace-level quantitation in clinical research and other markets. It incorporates proprietary ultrafast technologies as well as a newly developed ion source and collision cell technology. As the flagship model of Shimadzu’s UFMS (Ultra-Fast Mass Spectrometry) product line, the LCMS-8050 features high sensitivity, high data quality and the world’s fastest data acquisition rates.
Delivering attogram-level (10-18 grams) sensitivity and possessing unsurpassed ruggedness, the LCMS-8050 achieves its improved sensitivity through two important technologies:
The world’s fastest data acquisition rates
The newly engineered high voltage power supply enables a maximum scan rate of 30,000 u/sec and a 5 msec polarity switching time, making the LCMS-8050 combined with Nexera UHPLC the ideal platform for laboratory productivity. It is now possible to include 1,000 events with up to 32 channels per event for a maximum of 32,000 MRMs per analysis.
User-friendly operation and easy maintenance
The LabSolutions LCMS Version 5.60 software provides seamless integration of HPLC and MS control. An automated MRM optimization routine allows unattended optimization of multiple compounds.
For more information please visit www.shimadzu.eu
Diving Deep into Carrier-Based Formulation and Process Optimization
December 23rd 2024Carrier-based formulations for dry powder inhalers are carefully designed to transport extremely small particles into the lungs. Jet milling can be used to micronize these particles, with both high and low shear mixing processes used to formulate mixtures capable of carrying the fine API particles into the deep lung. This paper looks at the requirements for pulmonary delivery via carrier-based inhaled powder formulations, and how jet milling can be used to manufacture effective and stable materials for these formulations