Shimadzu has developed the LCMS-8030 to enable researchers to detect more target analytes with greater sensitivity in hundreds of samples per day.
The instrument combines the power of triple quadrupole mass spectrometry with high speed to provide an accompaniment to its UHPLC systems.
The LCMS-8030 features ultrafast multiple reaction monitoring (MRM) transitions, enabling data acquisition with up to 500 different channels per second.
The improvements to the electronics provide ultrafast mass spectrum measurement speeds of 15,000 u/sec without sacrificing sensitivity or resolution, and ultra-fast polarity switching (15msec) for the most information without signal deterioration.
Patented UFsweeper technology accelerates ions out of the collision cell by forming a pseudo-potential surface.
The result is high-efficiency collision-induced dissociation (CID) and ultra-fast ion transport, reducing the sensitivity losses and cross talk observed on other systems.
In addition, higher radio frequency (RF) power capability minimises pauses between each transition.
When coupled with Shimadzu's Nexera UHPLC, the LCMS-8030 can provide reliable and accurate detection of peaks only one second wide, maximising UHPLC performance.
With a polarity switching time of 15msec, ultra-fast triple quadrupole measurement time can be realised.
The combination of the LCMS-8030 with Nexera also brings together the latest hardware on the same platform.
The unified platform provides qualitative and quantitative analysis, increased productivity and accelerated workflows for high-throughput analysis.
Automated optimisation of analytical conditions for each quantitative target compound, which is the key to high-sensitivity analysis, allows unattended, overnight operation.
In addition, all software operations are handled seamlessly, reducing PC conflicts and the need for user intervention.
Its robust design allows maximum uptime, resulting in a system that can handle most complex matrices.
Maintenance of the desolvation line without breaking vacuum minimises instrument downtime.
