Workflow Breakthroughs That are Improving Data Quality and Efficiency
Others | 2020 | Agilent TechnologiesInstrumentation
In pharmaceutical manufacturing and quality control, fast and accurate analytical workflows are essential for ensuring product safety, regulatory compliance, and operational efficiency. Emerging spectroscopy technologies offer risk reduction, data integrity enhancements, and dramatic reductions in test times, shifting routine analyses from hours or days to minutes.
This review surveys four breakthrough spectroscopic approaches introduced by Agilent Technologies. The aim is to highlight their impact on raw material identification, tablet imaging, content uniformity, and solid-state quantitation in pharmaceutical QA/QC.
Instrumentation and techniques presented include:
Each technique delivers substantial workflow improvements:
These technologies streamline pharmaceutical workflows by:
Emerging directions include integration of artificial intelligence for spectral interpretation, further miniaturization of portable instruments, multimodal imaging combining Raman and IR data, and development of predictive models to accelerate method development. Enhanced connectivity to laboratory information management systems (LIMS) and cloud-based compliance frameworks will further optimize data integrity and regulatory reporting.
Agilent’s suite of advanced spectroscopic tools delivers transformative gains in pharmaceutical QA/QC by combining rapid analyses, robust data quality, and simplified operation. These workflow breakthroughs enable faster drug development, safer manufacturing, and confident decision-making without compromising analytical rigor.
UV–VIS spectrophotometry
IndustriesPharma & Biopharma
ManufacturerAgilent Technologies
Summary
Significance of the Topic
In pharmaceutical manufacturing and quality control, fast and accurate analytical workflows are essential for ensuring product safety, regulatory compliance, and operational efficiency. Emerging spectroscopy technologies offer risk reduction, data integrity enhancements, and dramatic reductions in test times, shifting routine analyses from hours or days to minutes.
Objectives and Study Overview
This review surveys four breakthrough spectroscopic approaches introduced by Agilent Technologies. The aim is to highlight their impact on raw material identification, tablet imaging, content uniformity, and solid-state quantitation in pharmaceutical QA/QC.
Methodology and Instrumentation
Instrumentation and techniques presented include:
- Cary 3500 Multizone UV-Vis Spectrophotometer: simultaneous measurement of standards and samples across four temperature zones without consumables, with permanent optical alignment and rapid data acquisition (250 points/s).
- 8700 Laser Direct Infrared (LDIR) Chemical Imaging System: quantum cascade laser–based imaging for high-resolution mapping of API and excipient distribution on tablet surfaces in minutes, with optional ATR accessory for submicron resolution.
- RapID Portable Raman Spectrometer with Spatially Offset Raman Spectroscopy (SORS): handheld probe for non-destructive through-container raw material identification, capable of penetrating opaque or colored packaging and yielding results in seconds.
- TRS 100 Transmission Raman Spectrometer: quantitative content uniformity, assay, and polymorph analysis of intact tablets or capsules in seconds, with no sample preparation or consumables and limit of quantitation below 1% for crystallinity.
Main Results and Discussion
Each technique delivers substantial workflow improvements:
- Cary 3500 achieves concurrent calibrations and sample measurements in under five seconds, eliminating variability from sequential testing and providing precise temperature-dependent reaction kinetics.
- 8700 LDIR produces chemical images of generic tablets in under one hour, detecting APIs and excipients with pixel sizes down to 10 µm and mapping component distribution automatically.
- RapID SORS enables immediate raw material verification without opening containers, drastically reducing sampling time and risk of contamination in GMP environments.
- TRS 100 quantifies API concentration and crystallinity with a one-second spectrum, matching ssNMR sensitivity and outperforming XRD in speed and LOQ.
Benefits and Practical Applications
These technologies streamline pharmaceutical workflows by:
- Reducing analysis time and handling steps, leading to higher throughput and faster batch release.
- Minimizing human error and environmental variability through simultaneous measurements and automated data processing.
- Eliminating consumables, solvents, and waste, aligning with green chemistry principles.
- Supporting diverse use cases, from enzymatic reaction monitoring and stability studies to formulation development and raw material screening.
Future Trends and Opportunities
Emerging directions include integration of artificial intelligence for spectral interpretation, further miniaturization of portable instruments, multimodal imaging combining Raman and IR data, and development of predictive models to accelerate method development. Enhanced connectivity to laboratory information management systems (LIMS) and cloud-based compliance frameworks will further optimize data integrity and regulatory reporting.
Conclusion
Agilent’s suite of advanced spectroscopic tools delivers transformative gains in pharmaceutical QA/QC by combining rapid analyses, robust data quality, and simplified operation. These workflow breakthroughs enable faster drug development, safer manufacturing, and confident decision-making without compromising analytical rigor.
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