GEN-MKT-18-7897-A
Dec 11, 2017 | Blogs, Software, Technology | 0 comments
The latest releases of Analyst Software 1.7 and SCIEX OS Software 1.4 introduce a new licensing model called concurrent licensing. If you want flexibility and cost savings when purchasing and using your processing software, concurrent licensing is for you.
How does it work? Concurrent licenses float through the network and are passed from user to user, machine to machine. In other words, access to the software can be granted based on the number of licenses expected to be used at the same time.
So what, you ask? Good question.
The concurrent licensing model can be significantly less costly for your organization than the single device model. This means your tier 2 and tier 3 lab analyst with lower software utilization rates can now share access easily especially when access is not needed at the same time. Get a Better Understanding of Concurrent Software Licenses >
By choosing the concurrent licensing model, your organization can be more:
Enjoy the benefits of SCIEX software solutions and take full advantage of the flexible licensing model for your processing software.
For more questions on licensing, get in touch with our software sales specialists >
Ultra‑low reporting limits, expanding target lists, and the constant risk of background contamination mean that even small missteps before injection can compromise data integrity. PFAS can be introduced at nearly every stage of prep, from sampling containers and PPE to SPE cartridges, filters, solvents, and lab consumables, making contamination control as critical as analyte recovery.
In monoclonal antibody (mAb) development, assessment of purity and integrity of the protein in question is critical. CE‑SDS is the gold standard assay and is routinely run from analytical development through QC and lot release. It’s trusted because it consistently delivers quantitative, size‑based insight into purity and fragmentation, and it fits naturally into regulated environments.
In drug discovery and development, Metabolite Identification (Met ID) plays a critical role in understanding biotransformation pathways, ensuring safety, and meeting regulatory requirements. Advanced mass spectrometry techniques have revolutionized this process, particularly through electron-based fragmentation methods such as Electron Activated Dissociation (EAD) and Electron Transfer Dissociation (ETD). While both techniques leverage electron interactions to generate informative fragment ions, they differ significantly in mechanism, performance, and suitability for Met ID workflows.
Posted by
You must be logged in to post a comment.
Share this post with your network