Used WATERS / MICROMASS UL QTOF2 #178239 for sale

WATERS / MICROMASS UL QTOF2 is a sophisticated spectrometer designed to precisely analyze molecules in extreme detail. This advanced spectrometer makes use of a recent type of mass spectrometry technology known as an Ultima equipped ion trap (Ultratrap). This technology utilizes a narrow-pulsed beam of ions to quickly, efficiently and accurately measure the masses and chemical structure of molecules. The primary components of WATERS UL QTOF2 include the ion trap, electron multiplier, quadrupole mass analyzer, and a time-of-flight (TOF) detector. The ion trap is used to facilitate the capture of the mass and the chemical structure of molecules within the sample. The electron multiplier is then used to accelerate the ions, allowing them to be focused on the TOF detector. The TOF detector uses the propagation time of the ions to measure the mass spectral data. Finally, the quadrupole mass analyzer allows for precise data analysis, by scanning ions over a predetermined mass range. MICROMASS UL QTOF2 can be used to provide detailed and accurate analysis of complex molecules, including proteins and metabolites. This spectrometer is capable of measuring the masses and chemical structure of molecules more quickly and accurately than previous spectrometer models. Additionally, UL QTOF2 offers unprecedented resolution and accuracy by combining the ion trap and TOF technologies into a single system. WATERS / MICROMASS UL QTOF2 can be used toanalyze molecules from a variety of samples, from medical and environmental samples to food and beverage samples. This spectrometer is also invaluable for research and development in the pharmaceutical and clinical sectors, as it allows for accurate and precise detection of bioactive molecules. Additionally, WATERS UL QTOF2 can be used for monitoring drug efficacy and toxicity within clinical trials. Overall, MICROMASS UL QTOF2 spectrometer is a state-of-the-art analyti-cal tool used to accurately detect the mass and chemical structure of small molecules. This technology boasts superior accuracy and resolution than its predecessors, making it an ideal choice for many applications in the pharmaceutical research and clinical industries.