Navigating Constant Change With Flexible Quality Systems

MasterControl

/@MasterControlVideo

Published: February 3, 2021

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This video provides an in-depth exploration of navigating constant change within the life sciences industry through the adoption of flexible, digital quality systems. Presented by MasterControl's senior product managers, Aaron Wright and Kim Jackson, the webinar begins by establishing the post-COVID "new normal" where constant change and unforeseen external forces necessitate resilience and agility. The core argument is that moving from paper-based or siloed digital systems to a connected, cloud-first Quality Management System (QMS) is no longer a "nice-to-have" but a critical "must" for survival and growth in regulated environments.

The presentation progresses by detailing how digitalization resolves common quality pains, such as communication breakdowns and disruptions, by providing structured, accessible data. It then emphasizes how a connected platform enhances organizational agility and resilience, citing examples like adapting to remote regulatory inspections and managing supply chain disruptions during the pandemic. A significant portion of the discussion focuses on the power of holistic, data-driven decision-making, moving beyond gut feelings to leverage integrated quality and risk data. The speakers introduce the concept of a "culture of quality," where quality is seen as everyone's responsibility, not just a department's, and how connected data and metrics can foster this culture, driving continuous improvement and business thriving.

Key themes include the critical role of risk management as a living, breathing process, not merely a paperwork exercise, and the limitations of unstructured data in identifying crucial patterns. The video highlights the transformative potential of machine learning (ML) and artificial intelligence (AI) in sifting through vast amounts of data to find patterns, predict potential issues (like recalls or equipment failures), and guide root cause analysis. While AI can perform the "heavy lifting" of pattern recognition, the human element remains vital for contextualizing insights and making final decisions. The discussion also touches on the financial implications, framing digital transformation as a strategic investment that reduces the "cost of poor quality" and accelerates revenue generation.

Key Takeaways:

  • Digitalization is Essential for Quality: The shift from paper-based or unstructured digital documents (e.g., shared Excel files) to a structured, cloud-based QMS is imperative. This move resolves common quality pains by improving communication, collaboration, minimizing disruptions, and maximizing the quality of work, especially in a remote or constantly changing environment.
  • Connected Platforms Drive Agility and Resilience: A unified, connected QMS platform allows companies to respond rapidly to unforeseen changes, such as global pandemics or regulatory shifts. It streamlines processes like regulatory inspections (now often virtual) and enables quick root cause analysis for deviations, making the organization more adaptable and resilient.
  • Holistic Data-Driven Decision Making: Relying on gut feelings is no longer sufficient. A connected platform provides access to integrated data from all parts of the organization—manufacturing, quality control, operations, supply chain—enabling context-based, data-driven decisions that impact strategic direction and daily operations.
  • Risk Management as a Living Process: Risk assessment and mitigation should be an ongoing, analytical tool, not a one-and-done paperwork exercise. Standards like ISO 14971 and EU MDR emphasize continuous analysis of risk, including post-market surveillance, and the critical thinking behind risk plans, rather than just documentation.
  • Unstructured Data is a Barrier to Insight: Critical information and research connections are often trapped in unstructured documents, preventing effective pattern recognition and data-driven insights. This hinders the ability to connect process changes to product impacts or identify systemic hazards.
  • Machine Learning and AI for Pattern Recognition: AI and ML are crucial for sifting through large volumes of data to identify patterns that humans might miss. These technologies can provide predictive analytics for post-market complaints, likely root causes, and potential equipment failures, guiding proactive interventions.
  • Humans Provide Context for AI Insights: While AI excels at finding correlations and patterns, it cannot perform root cause analysis or attribute meaning to data. Human expertise is essential to contextualize AI-generated insights, make informed decisions, and develop actionable strategies.
  • Quality is Everyone's Responsibility: A true "culture of quality" means that every employee, from the manufacturing line to the C-suite, understands and contributes to meeting quality standards. Empowering frontline personnel to report events directly, without intermediaries, fosters ownership and improves data accuracy.
  • Digital Transformation is a Strategic Investment: The upfront cost of implementing a digital QMS and AI solutions is an investment that yields significant returns. It reduces the "cost of poor quality" (e.g., scrap, recalls, regulatory fines, PR damage) by enabling prevention over cure, improving efficiency, and accelerating time to market.
  • Global Data Connectivity Prevents Redundancy: For multi-site, multi-product organizations, a single, connected data lake prevents individual sites from repeating root cause analyses or making decisions in silos. It allows for the surfacing of global trends and commonalities, driving consistent improvements across the enterprise.
  • Continuous Improvement Through Risk Mitigation: By continuously feeding risk mitigations and their implementation into the QMS, organizations can measure the effectiveness of these actions and drive ongoing improvement. This moves beyond the "As Low As Reasonably Practical" (ALARP) mindset to a constant pursuit of enhanced safety and quality.

Key Concepts:

  • Cloud-first mindset: Prioritizing cloud-based solutions for all systems, especially quality management, to ensure accessibility, scalability, and collaboration.
  • Next normal: The evolving state of business operations and quality management practices in response to ongoing global changes and disruptions.
  • Holistic data-driven decision making: Integrating data from all organizational functions (e.g., manufacturing, quality, supply chain) to make comprehensive and informed business decisions, moving beyond isolated departmental insights or gut feelings.
  • Culture of quality: An organizational environment where quality is embedded in every job role and responsibility, rather than being solely the domain of a specific quality department.
  • Signal-to-noise ratio: The challenge of identifying meaningful data patterns and insights amidst a large volume of irrelevant or less critical information, particularly in post-market surveillance.
  • Cost of Quality: A business metric that quantifies the expenses associated with preventing, detecting, and remediating quality issues, emphasizing the long-term savings from upfront investments in quality systems.

Examples/Case Studies:

  • COVID-19 Pandemic: Used as the primary example of a "year like no other" that accelerated the need for digital transformation, remote operations (e.g., virtual regulatory inspections), and resilient supply chains in the life sciences industry.
  • Machinist Calibration Failures: An example of how machine learning could identify patterns where a specific machinist performing equipment calibration across multiple sites consistently leads to equipment failures months later.
  • Post-Market Complaint Trends: Illustrates how connected data can provide deeper insights into post-market complaints, identifying specific products manufactured at particular locations or lines that are experiencing issues, thereby guiding immediate root cause analysis.
  • Process Validation & Predictive Maintenance: Discusses moving from fixed engineering assessments (e.g., a hood failing at 60 days) to real-time predictive analytics that might show consistent failure at 47 days, allowing for proactive maintenance and risk mitigation.