GEN-MKT-18-7897-A
Mar 26, 2018 | Blogs, Software, Technology | 0 comments
Often by the time you’re aware of a problem, it’s too late, and disaster has already struck. You’re forced to pick up the pieces—downtime, reduced productivity and lost data.
When your PC goes down, IT comes to the rescue. That’s a reactive approach. In many cases, IT can predict when your PC will fail, based on remote monitoring and diagnostics.
Wouldn’t it be nice if there were a way to fix mass spectrometer issues before they snowballed into an instrument failure? This is where LC-MS remote monitoring comes in.
Mass spec remote monitoring allows your team to observe the current health your system efficiently—from anywhere, at any time. That means fewer surprises and maximized uptime.
Your SCIEX LC-MS systems are compatible with StatusScope® Remote Monitoring service. If you have a service or support contract, you just need to have it turned on by your SCIEX service professional. Enabling the StatusScope service will also require some help from your IT department.
A Case for StatusScope Remote MonitoringWhile most IT teams are familiar with the benefits of remote monitoring, network security and stability are their highest priority. Check out the following FAQ’s to help you explain the StatusScope service to your IT department, and address their concerns.
Question: How can I convince my IT team that StatusScope Remote Monitoring is secure?Answer: The StatusScope Remote Monitoring is unidirectional. This means all communication is initiated from inside your firewall. All communication is outbound-only, through port 443 with end-to-end encryption.
Only instrument operating parameters are monitored. Proprietary data is safe and not transmitted.
Question: What about encryption standards?Answer: All SSL communication supports only strong encryption standards (TLS 1.2 only) with no downgrade negotiation
StatusScope Remote Monitoring only supports Transport Layer Security (TLS 1.2), with no downgrade negotiation. Thus, you can be confident that all your instrument operating parameters are within a highly secure environment.
Question: I need to be sure my research data is secure. How do I ensure it won’t get leaked?Answer: Only instrument operating parameters are monitored. Proprietary data is safe. SCIEX does not collect or retain any analytic or assay information from connected devices.
Question: How do I know SCIEX is a reliable cloud provider?Answer: StatusScope Remote Monitoring is built on the Axeda Machine Cloud platform from PTC Corp, an industry leader in IoT. PTC has Tier 1 data centers in global locations and is ISO 27001 certified. SCIEX is not running its own cloud; all data transactions happen in the PTC cloud.
Question: I like the idea of mass spec remote monitoring services, but how do I convince my IT team to take on the project?Answer: Your IT Team can implement the StatusScope Remote Monitoring Services with little effort. IT only needs to facilitate outbound HTTPS traffic. There is no need to open any new ports. A small number of external IP addresses need to be whitelisted for the StatusScope service to work.
Question: With all the data my research generates, how do I know StatusScope Remote Monitoring will not fill up our bandwidth?Answer: StatusScope requires low bandwidth, similar to someone performing occasional web browsing.
Trifluoroacetic acid (TFA) is emerging as one of the most concerning ultrashort-chain PFAS in Europe’s food supply – particularly in cereals, a staple consumed daily by millions. A report from PAN Europe reveals a widespread and largely unmonitored contamination trend that raises serious questions about food safety, regulatory blind spots, and future monitoring strategies.
PFAS analysis is complex, but expert guidance doesn’t have to be. In this episode of our ‘Ask the PFAS expert series’, we’re joined by Michael Scherer, Application Lead for Food and Environmental, to answer the most pressing questions in PFAS analysis. From why LC-MS/MS systems are the gold standard for analyzing diverse PFAS compounds, to which EU methods deliver reliable results for drinking water, and to practical steps to prevent contamination, Michael shares actionable insights to help laboratories achieve accuracy, consistency, and confidence in their workflows.
During an LC-MS/MS experiment, traditional fragmentation techniques like collision-induced dissociation (CID) have long been the gold standard. Electron-activated dissociation (EAD) is emerging as a transformative tool that enhances structural elucidation, particularly for complex or labile metabolites.
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