Mass Spectrometry Data Processing with Adaptive Qualifier Ion Tolerance

The patent merges absolute toleration mode and relative toleration mode into a unified identification range determination system. The system automatically selects between these modes based on which provides a broader identification range, thereby combining the advantages of both approaches while maintaining automation. This resolves the contradiction by integrating multiple tolerance modes into a single automated decision-making framework.

The system dynamically changes the tolerance parameter based on the selected mode (absolute or relative). By automatically adjusting which tolerance parameter is applied based on the calculated identification ranges, the system maintains flexibility without requiring manual intervention. This parameter adaptation enables automated operation while managing the complexity of multiple tolerance modes.

The system performs self-service by automatically determining identification ranges and evaluating qualifier ion ratios without requiring operator intervention. The automated process calculates identification ranges based on selected tolerance modes and automatically determines whether measured qualifier ion ratios fall within these ranges. This eliminates the need for operators to manually verify multiple qualifier ions, thereby maintaining high reliability while significantly reducing operational workload.

The system provides automated feedback by comparing measured qualifier ion ratios against calculated identification ranges and automatically determining identification results. This feedback mechanism handles multiple qualifier ions systematically, providing clear identification outcomes without requiring operators to perform complex visual determinations. The feedback loop maintains reliability through systematic evaluation while easing operational burden.

The system dynamically selects between absolute toleration mode and relative toleration mode based on which mode produces a broader identification range. This dynamic selection ensures that the system adapts to different analytical scenarios automatically. When absolute toleration provides sufficient coverage, it is used for simplicity; when relative toleration provides broader coverage, it is automatically selected to enhance reliability. This dynamic adaptation resolves the contradiction between ease of operation and reliability.

The system creates a composite approach by combining both absolute and relative toleration modes into a unified identification system. Rather than relying on a single mode, the system evaluates both and selects the most appropriate one, creating a composite solution that leverages the strengths of both approaches. This composite strategy ensures broad identification range coverage while maintaining operational simplicity through automated mode selection.

The patent replaces manual calculation and evaluation mechanisms with automated computational processing. The system automatically performs the complex calculations required for relative toleration mode, including calculating identification ranges based on relative tolerances and comparing measured ratios against these ranges. This substitution of automated computation for manual calculation reduces the perceived complexity for operators while maintaining the reliability benefits of broader identification ranges.

The system performs self-service by automatically executing the complex calculations and mode selections required for reliable identification. The automated process handles all computational aspects of relative toleration mode without requiring operator intervention, thereby providing broad identification range coverage while masking the underlying calculation complexity from the user. This self-service approach maintains reliability through comprehensive calculation while preserving ease of operation.