For chromatography and mass spectrometry

Instrument intelligence empowers devices and systems with the autonomy and capacity to operate effectively in diverse and changing environments, by making real-time decisions, responding to changing conditions, and performing tasks without supervision.
In your lab, instrument intelligence refers to the cumulative technologies that allow analytical instruments to self-monitor expected settings, dynamically identify changes in analytical performance, automatically adjust behavior to extend instrument uptime, or flag the need for operator intervention. These innovations can revolutionize routine chromatography and mass spectrometry workflows by streamlining laboratory processes, automating routine activities, and significantly improving efficiency and productivity.
Instrument intelligence allows labs to free up scientists’ time to focus on science rather than routine maintenance or troubleshooting of instruments. Intelligent instruments, combined with software featuring workflow intelligence make chromatography and mass spectrometry more accessible to nonexperts, leading to less manual intervention and higher lab productivity.
Several key factors contribute to the effectiveness of instrument intelligence in chromatography and mass spectrometry.

For years, troubleshooting analytical instruments like chromatography systems or mass spectrometers meant removing covers and manually measuring electronic setpoints. This was time consuming, required a service engineer on site, and only provided a snapshot in time. Modern computing and embedded digital microprocessors have revolutionized this process.
Today, many analytical instruments contain distributed sensors that provide real-time feedback and visibility beyond anything available before. This is telemetry, the ability of the system to measure something remotely and monitor system health without needing an engineer on-site.
Instrument intelligence is becoming increasingly important as devices and sensors generate vast amounts of data that need to be processed and acted upon quickly. Here are some key trends related to telemetry used in instrument intelligence:
AI and machine learning: Advances in artificial intelligence (AI) and machine learning enable devices to extract valuable insights from telemetry data autonomously. AI algorithms can detect patterns, anomalies, and correlations in real-time, enabling devices to adapt their behavior or trigger alerts without operator intervention. An example of this is the Agilent SWARM autotune for your LC/MS system.
Predictive analytics: Instrument intelligence facilitates predictive analytics, where devices use historical data to forecast future trends or events. This capability is particularly valuable in applications such as predictive maintenance or early maintenance feedback, where devices can anticipate equipment failures allowing for users to schedule repairs proactively, reducing downtime and costs.
Resource optimization: Instruments with on-board intelligence can optimize resource usage by making localized decisions based on sensor data and predefined rules. For example, in smart energy systems, devices can adjust power consumption or generation in response to fluctuating demand or renewable energy availability, maximizing efficiency and sustainability. Scheduled tune is another example of maximizing the productivity in the mass spectrometry lab.