The NanoLC 400 series enables a full range of analytical workflows that drive the identification of novel biomarkers or the quantification of small molecules and biologics to advance precision medicine research.
This front-end system consistently delivers accurate retention times, reproducible injection down to 200 nL and covers a broad range of flow rates.
Status: Discontinued and fully supported
The M5 MicroLC system is the perfect balance of sensitivity and robustness, giving you the potential to optimize your crucial workflows, today and into the future.
NanoLC 415 for basic direct-to-column or trap-and-elute workflows
NanoLC 425 for more advanced 2D workflows
Compatible with the OptiFlow Turbo V column oven. Column oven provides excellent retention time reproducibility by ensuring consistent column temperature
Multiple flow rate options with user-interchangeable plug-and-play flow modules to switch between nanoflow (100 nl/min - 1 µl/min) and microflow (1 - 10, or 5 -50 µl/min)
SCIEX's innovative multifluidic flow control technology, for consistent, accurate retention times without flow-splitting
Integrated and controlled with SCIEX Analyst software
NanoLC Systems System Integration Test and Data Log
LC-MS/MS 技术平台
Technical note
Comprehensive Quantification with Qualitative Confirmation using the TripleTOF 5600 System
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Impact of High-Resolution MRM Analysis on Complex Proteomes
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Significant gains in quantitative sensitivity using microflow chromatography
Technical note
Assessing Impact of Extended Gradient Lengths for Microflow SWATH Acquisition
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Configuring the nanoLC™ 425 System for Nano and Micro LC-MS
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Micro flow chromatography: A key for more sensitive Met ID
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High Reproducibility for Proteomics with NanoLC™ 400 system
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Nitrosamine Disinfection Byproducts in Drinking Water, LC-MS
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Simplifying the Use of Ion Libraries During Data Processing of SWATH® Acquisition Proteomics Data
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Digitizing the Proteomes From Big Tissue Biobanks
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Exploring the Sensitivity Differences for Peptide Quantification in the Low Flow Rate Regime
Technical note
Application of SWATH Based Quantitative Proteomics in Biological Study