MRIGlobal’s Post

🔬 Spotlight on Laboratory Safety: CWA 15793 Principles 🧪 As biosafety professionals, we're always striving for excellence in risk management. The CWA 15793 standard offers a robust framework for laboratory biorisk management. Let's break it down: 🔍 Comprehensive Risk Assessment 🛡️ Effective Risk Management 📊 Performance Monitoring 🔒 Biosafety and Biosecurity Integration 👩🔬👨🔬 Personnel Competence 🏗️ Facility Design Optimization 🦠 Good Microbiological Techniques 🚨 Emergency Response Planning 🔐 Information Security 📈 Continual Improvement 📝 Thorough Documentation These principles form the backbone of a strong biorisk management system, ensuring the safety of our personnel and the security of our valuable research. 💡 What's your experience with implementing CWA 15793 in your lab? 🤔 Which principle do you find most challenging to implement? Let's discuss best practices! #Biosafety #LaboratorySafety #RiskManagement #CWA15793 #LabSecurity ``

In the last decades, systematic methodologies were developed for the quantitative assessment of safety risk, namely QRA. In contrast, methodologies currently available for security risk  assessment are only qualitative or semi-quantitative. The development of quantitative methodologies is challenging due to the intentional nature of security-related events, the influence of numerous external factors on security risks, and the inherent unpredictability of such events. The events of 9/11 raised awareness of the importance of security events. So, since then methodologies for security risk assessment in chemical plants were developed. The most important are the SRA (Security Risk Assessment) and the SVA (Security Vulnerability Assessment. The factors typically accounted for in these methodologies include the threat, the attractiveness of the asset to adversaries, the possible consequences and impacts of an incident, and the degree of vulnerability. The risk for security events is a function of the aforementioned factors and it’s defined as an expression of the likelihood that a defined threat will find an asset attractive and successfully commit a malicious act against it, taking advantage of the Vulnerability of a particular target to cause a given set of consequences. Securdomino tool contributes to help management and prevention of major-accidents caused by security-related events in Seveso sites. LIFE Programme #LifeProgramme #LifeProject #Lifeis31 #LifeAmplifier LIFE SECURDOMINO project has received funding from the European Union under Grant Agreement n° LIFE20 ENV/IT/000436 The present announcement reflects only the author’s view. The Agency is not responsible for any use that may be made of the information it contains.

Let's better understand the concept of risk tolerance using practical examples! Reading a book is generally considered a low-risk activity, appealing to individuals with a cautious approach to risk. The primary dangers involve posture-related strains or eye strain from prolonged reading, which are minimal and easily mitigated. People engaging in this activity usually seek safe, calm experiences without the adrenaline or physical risks associated with more intense activities. Ziplining introduces a moderate level of risk, as it involves heights and speed. Participants in this activity demonstrate a balance between caution and the desire for adventure. They accept the calculated risks after assessing safety measures, such as harness checks, operator reliability, and safety protocols. This middle ground shows that people are open to exciting experiences, as long as safety measures and assurances are in place to reduce risk. Skydiving represents a high-risk activity that attracts individuals with a higher tolerance for risk, driven by the pursuit of extreme thrill, overcoming fears, or achieving personal milestones. Participants are aware of the potential dangers, including equipment failure or parachuting mishaps, but choose to proceed, valuing the extraordinary experience and personal achievement over the inherent risks. This group accepts significant risks while striving for extraordinary goals or experiences. Understanding one's risk tolerance is crucial in making decisions that align with personal safety preferences and objectives. Visit www.saltegra.com to learn more!

In the chemical process industry, ensuring safety is crucial but often overshadowed by the pursuit of innovation and efficiency. Traditional risk assessments that focus only on compliance can miss hidden threats posed by complex chemical reactions and unforeseen by-products, leading to potential disasters. Please take a moment to read our Whitepaper on Strategic Risk Assessment for Chemical Processes which offers essential insights and advanced strategies to identify and mitigate these risks. By adopting this comprehensive approach, you can safeguard your operations, protect your workforce, and enhance overall production reliability.

I'm so proud to have participated in writing the 13th chapter of the book "Safety Causation Analysis in Sociotechnical Systems: Advanced Models and Techniques" published by Springer, along with Dr. Omran Ahmadi and Dr. Esmaeil Zarei, Ph.D., CSP. Chapter title: System Safety Causal Analysis Models Considering Risk Influence Factors (RIFs) Abstract: In accident causation, the interaction between human involvement and organizational factors plays a crucial role, often leading to deviations at the organizational level before affecting humans and equipment. Taking a proactive approach to identify and address these organizational-level deviations holds promise in preventing subsequent human and equipment failures. However, traditional risk assessment methods like PHA, HAZOP, FMEA, LOPA, and QRA, while foundational, lack the sufficient capacity to assess safety barrier performance and quantify Risk Influence Factors (RIFs). This gap results in overlooking the impact of organizational factors on the overall risk profile. This chapter aims to fill this gap by exploring models of safety incident origins explicitly designed to integrate RIFs, addressing critical gaps in root cause analysis. These methodologies, mindful of RIFs, provide a comprehensive view covering short- and long-term factors influencing technological systems and human behavior. The modeling of RIFs becomes crucial, offering insights essential for identifying risk prevention and mitigation strategies, along with relevant indicators. The utilization of these indicators for monitoring RIF states is instrumental in uncovering fluctuations directly linked to shifts in the risk scenario. The chapter examined various models and methodologies, including Barrier and Operational Risk Analysis (BORA), Causal Modeling of Air Transportation System (CATS), Hybrid Causal Logic Model (HCL), Accidental Risk Assessment Methodology for Industries (ARAMIS), Integrated Risk (I-Risk) method, Accident Causation using Hierarchical Influence Network (MACHINE), Operational Condition Safety (OTS), and Risk Modeling—Integration of Organizational, Human, and Technical factors (Risk-OMT). It also highlights hybrid methodologies, incorporating diverse tools like Bayesian networks into accident causation modeling. This exploration serves as a guide for an adaptive approach in complex sociotechnical systems. Emphasizing the pivotal role of organizational and management factors in shaping accident dynamics and risk assessments, this work offers a scholarly yet accessible insight into risk assessment methodologies considering RIFs. DOI: https://lnkd.in/dWZ6-qkh

#Risk-#Based #Inspection and #Post-#Explosion #Strategies** In light of the recent incident at the TPC Group plant in Port Neches, Texas, where explosions caused significant damage and forced evacuations, it's critical to revisit our approaches to risk-based inspection (RBI) and post-incident strategies in chemical facilities. **1. Enhancing Risk-Based Inspection (RBI):** RBI frameworks are fundamental for identifying and mitigating risks associated with chemical processing facilities. The incident underscores the importance of robust RBI programs that regularly assess equipment integrity, operational vulnerabilities, and potential hazards. Continuous improvement in RBI methodologies can help prevent catastrophic failures and ensure early detection of deteriorating conditions. **2. Implementing Enhanced Safety Protocols:** Following any major incident, it's imperative to reassess and reinforce safety protocols. This includes reviewing emergency response procedures, conducting thorough risk assessments, and enhancing training programs for employees. Adopting state-of-the-art safety technologies, such as advanced monitoring systems and real-time hazard detection tools, can further bolster preparedness and response capabilities. **3. Strengthening Community Engagement and Communication:** Effective communication with local communities is crucial during emergencies. Establishing transparent communication channels, providing timely updates on incident developments, and conducting outreach programs to educate residents about chemical risks are essential steps. This fosters trust, enhances preparedness, and ensures coordinated responses in collaboration with local authorities. **4. Investing in Resilience and Contingency Planning:** Resilience planning involves anticipating potential scenarios and preparing contingency measures to mitigate their impact. This includes diversifying supply chains, ensuring redundancy in critical infrastructure, and implementing robust business continuity plans. Investing in resilience not only safeguards operations but also minimizes disruption to local communities and ecosystems. **5. Embracing Sustainability and Environmental Stewardship:** Chemical facilities must prioritize sustainability alongside safety. Integrating eco-friendly practices, minimizing environmental footprints, and complying with stringent regulatory standards are imperative. Embracing sustainable practices not only reduces risks but also enhances corporate reputations. **Conclusion:** The incident at TPC Group underscores the need for a proactive and comprehensive approach to safety, risk management, and community engagement in chemical manufacturing. By prioritizing safety, embracing innovation, and fostering resilience, we can collectively mitigate risks, protect lives, and uphold environmental stewardship in our industry. #ChemicalSafety #RiskManagement #EmergencyResponse #CommunityEngagement #EnvironmentalStewardship

❗There are over 100 techniques for risk analysis. ➡️This according to the System Safety Analysis Handbook from the ISSS. 🤔Which one to use, and more importantly when, during the product lifecycle? 👇That is why I am working on this new series just launched on Let's Talk Risk! 🏋️I am doing the heavy lifting so you don't have to. 🤝Join me if you want to master risk analysis and build a solid understanding of system safety for medical devices. ========================== #letstalkrisk #medicaldevices #riskmanagement

Unleash the power of hazard assessment, exposure evaluation, and control banding to fortify your laboratory's safety shield.

In today’s dynamic industrial environment, ensuring safety and operational efficiency is crucial. AsInt, Inc.'s article below explores the transformative impact of the Hazard and Operability Study (HAZOP) on industrial safety and risk management. Let’s team up and take industrial safety and operational excellence to new heights! 🚀 #IndustrialSafety #HAZOP #asint #asintinv #RiskManagement #OperationalEfficiency #SafetyFirst #IndustrialInnovation

Balancing innovation, safety, compliance, risk in life sciences https://bit.ly/46PqPhs