Understanding “State of the Art” in Medical Device Risk Management
Definition and Fundamental Concepts
The term “state of the art” refers to the most advanced or current stage of technological development. In the context of medical device regulation, this concept carries significant weight in risk management and compliance activities across all major regulatory jurisdictions.
ISO 14971:2019, “Medical devices—Application of risk management to medical devices,” provides the authoritative definition in its clause 3.28:
“State of the art: The developed stage of technical capability at a given time as regards products, processes and services, based on the relevant consolidated findings of science, technology and experience.”
This definition represents the combined knowledge and best practices that are generally acknowledged and accepted in medicine and technology at a specific point in time. Importantly, it must be emphasized that state of the art does not necessarily mean the most technologically advanced solution. It refers to generally recognized good practices and standard technology in medicine, rather than cutting-edge innovations such as artificial intelligence, robotics, or experimental methodologies that may be emerging in academic research institutions.
When designing and developing medical devices, manufacturers must base their work on the current state of the art. Regulatory authorities consistently expect companies to incorporate the latest information into their quality systems and to periodically review their product designs, manufacturing processes, risk analyses, and overall risk management approaches. This expectation reflects a fundamental regulatory principle: continuous improvement through the integration of current knowledge.
Elements Encompassed by State of the Art
The concept of state of the art in medical device regulation encompasses a comprehensive range of knowledge and information sources:
Current regulatory requirements: The most recent requirements issued by regulatory agencies in relevant jurisdictions (FDA, EMA, PMDA, UKCA, and others).
International standards: The latest consensus standards from ISO, IEC, and other recognized standards organizations applicable to the device category.
Safety information: Current adverse event data, incident reports, and information from post-market surveillance activities that reflect real-world device performance and safety profiles.
Competitive intelligence: Information from competitor devices in the market, including recall notices, regulatory actions, and reported defects or failures.
Clinical and therapeutic developments: New treatment methodologies, alternative therapeutic approaches, and advances in medical practice that may affect the clinical context in which the device operates.
Technology and infrastructure advances: Developments in manufacturing equipment, materials science, analytical instrumentation, software capabilities, cybersecurity frameworks, and other technological innovations relevant to the device.
Safety Information Gathering and Management
In Japan, the collection and management of safety information for marketed devices follows the regulatory framework established by the GVP Ordinance (Good Vigilance Practice: the Ordinance on Standards for Post-Marketing Safety Management of Pharmaceuticals, Medical Devices, etc.). Under this regulatory structure, the safety information management division within the manufacturer bears responsibility for systematically collecting and evaluating safety data throughout the device’s lifecycle.
When manufacturers develop improved or modified versions of existing medical devices, they typically reference the predicate or predecessor device. However, a critical distinction must be understood here: the applicable baseline for comparison in regulatory submissions is not the risk management status of the predicate device at the time of its original approval. Rather, it must be the risk management profile that has been updated throughout the predicate device’s commercial lifecycle, incorporating all post-market surveillance data and new safety information discovered since market introduction.
This distinction is essential for regulatory compliance. When an applicant claims that a new or improved device demonstrates equivalence to a predicate device with respect to safety and effectiveness, the comparison must reflect the current, updated understanding of the predicate device’s risk profile—not its risk profile frozen at the moment of original approval. The predicate device itself will have undergone continuous risk management updates throughout its lifecycle as new safety data accumulates and becomes integrated into the manufacturer’s understanding. This dynamic approach ensures that regulatory decisions are based on current knowledge rather than outdated information.
Evolution of Benefit-Risk Analysis Requirements
Medical devices are inherently beneficial when they improve patient outcomes or healthcare delivery, but they carry inherent risks. During the design and development phase, manufacturers must conduct a rigorous benefit-risk analysis when unacceptable residual risks cannot be eliminated through design improvements or protective measures alone.
However, a critical reality confronts all medical device manufacturers: the benefit-risk ratio established during development can deteriorate after a device reaches the market. This deterioration occurs through two complementary mechanisms. On one hand, risks may increase as unforeseen hazards become apparent through real-world use—hazards that could not have been predicted during the development phase regardless of the quality of the risk analysis. On the other hand, benefits may decline as the clinical and competitive environment evolves. Better-performing devices may be developed and introduced to the market, pharmaceutical treatments may become available as alternatives to devices, or new technological solutions may emerge that provide superior clinical outcomes.
As a result of this dynamic evolution, a benefit-risk ratio that was judged acceptable and justified during development may become unacceptable following market introduction as the underlying ratios shift. Therefore, manufacturers must continuously monitor and reassess the benefit-risk relationship of their marketed devices. This reassessment requires ongoing collection and analysis of state of the art information, enabling manufacturers to determine whether their device’s benefit-risk profile remains acceptable under current conditions.
Post-Market Risk Management: From Reactive to Proactive Oversight
Historically, many manufacturers have adopted a largely passive approach to post-market risk management. Once the development phase concludes and manufacturing begins, companies seldom undertake fundamental re-evaluations of design, manufacturing processes, or risk analysis methods unless mandated by a specific regulatory action or significant adverse event. This reactive posture often reflects resource constraints and the understandable desire to avoid disruption to ongoing manufacturing and commercial operations.
However, the regulatory environment is increasingly demanding more proactive and systematic post-market monitoring. Recent guidance—particularly the Medical Device Coordination Group’s 2025 guidance on post-market surveillance (MDCG 2025-10)—clarifies that manufacturers must engage in “active” rather than purely “passive” information gathering. This distinction has major practical implications. Passive surveillance relies primarily on waiting for information to arrive through regulatory reports, customer complaints, or other unsolicited channels. Active surveillance, by contrast, requires that manufacturers deliberately and systematically solicit information from multiple sources to monitor market performance and identify emerging patterns.
The reality is that vast amounts of potentially relevant information exist beyond the manufacturer’s immediate complaint-handling system. Scientific literature, peer-reviewed publications, conference presentations, information from competitor products, clinical registries, user feedback, regulatory databases (such as EUDAMED in Europe), and benchmarking data from similar products all contain valuable insights that can inform understanding of the device’s safety and performance. Manufacturers increasingly face regulatory expectation—and potential enforcement focus—based on their ability to demonstrate that they have implemented documented procedures for systematically accessing these information sources and incorporating the resulting insights into their risk management processes.
This represents a fundamental shift from a compliance perspective: the question is no longer simply “Did adverse events occur that we learned about?” but rather “Did we actively attempt to learn about all available safety and performance information?” Regulatory audits and inspections now commonly assess whether manufacturers have established formal processes for monitoring scientific literature, tracking regulatory intelligence about competitor devices, implementing user feedback mechanisms, and conducting systematic market surveillance. The absence of such structured processes creates significant compliance risk.
Regulatory Expectations and Manufacturer Responsibilities
Regulatory authorities—whether the FDA in the United States, the European Commission and Notified Bodies under the EU MDR, the PMDA in Japan, or other jurisdictions—are increasingly focused on evaluating how effectively manufacturers monitor and incorporate state of the art developments into their quality systems and risk management processes. This evaluation has become a central component of regulatory oversight, particularly during inspections and in post-marketing surveillance audits.
The core question that regulators ask is: “Does this manufacturer have systematic processes in place to continuously monitor the state of the art, and do they use this information to update and improve their product designs, manufacturing processes, quality systems, and risk analyses?” A manufacturer that can demonstrate ongoing engagement with state of the art developments—through documented literature reviews, participation in standards committees, analysis of competitor products, systematic tracking of regulatory actions and recall notices, and periodic benefit-risk re-evaluations—projects a profile of proactive, scientifically grounded device management.
Conversely, a manufacturer that appears to operate a static quality system, with infrequent updates to risk assessments and limited evidence of deliberate state of the art monitoring, invites regulatory scrutiny and may face warning letters, enforcement actions, or recalls rooted in the discovery that superior alternatives or risk mitigation strategies existed but were not incorporated.
Implementing Effective State of the Art Monitoring
For medical device manufacturers, the practical implication is clear: state of the art monitoring is not an optional or secondary activity. It is a core component of lifecycle risk management and a fundamental expectation of regulators worldwide.
Effective implementation requires that manufacturers establish documented procedures addressing:
- Scientific and Technical Literature Monitoring: Systematic approaches to identifying and reviewing relevant published research, clinical studies, and technical publications that may affect the understanding of device safety, effectiveness, or technological alternatives. This may include subscription to literature databases, participation in professional associations, and engagement with scientific advisors.
- Regulatory Intelligence: Organized tracking of regulatory decisions, guidance documents, enforcement actions, and recall notices affecting the same device category or similar technologies. Regulatory databases like FDA’s MAUDE database, EUDAMED, and others provide crucial information about how competitors’ devices perform in real-world use and what safety issues have emerged.
- Benchmark and Competitive Analysis: Periodic systematic evaluation of competing or similar devices to understand technological advances, performance improvements, and emerging solutions that may represent the current state of the art and affect the relative positioning of the manufacturer’s device.
- User and Stakeholder Feedback: Active solicitation of information from healthcare providers, patients, distributors, trainers, and other end-users through surveys, focus groups, training feedback mechanisms, and other structured approaches. This feedback often reveals safety concerns, usability issues, and unmet clinical needs before they appear in formal adverse event reporting systems.
- Risk Management and Benefit-Risk Re-Evaluation: Periodic (at minimum annually, and more frequently for higher-risk devices or when significant new information emerges) review and update of the risk management file and benefit-risk assessments based on accumulated post-market data. These updates ensure that the current benefit-risk profile reflects current knowledge and remains acceptable.
- Integration into Quality Management: Formal mechanisms to ensure that state of the art findings are reviewed by appropriate cross-functional teams and, where warranted, drive changes to product designs, labeling, instructions for use, training materials, manufacturing processes, or quality systems.
Conclusion
The concept of state of the art represents far more than a regulatory compliance requirement. It reflects a fundamental principle of medical device safety: that the knowledge, technology, and best practices available at any given time must inform the design, manufacture, monitoring, and continuous improvement of medical devices. Manufacturers that embrace state of the art monitoring as a core element of their quality and risk management systems are better positioned to ensure patient safety, maintain regulatory compliance, and sustain competitive advantage in a rapidly evolving industry. Those that treat it as a secondary or optional activity do so at significant risk to patient safety and regulatory standing.
Comment