As an SH&E systems manager I know the advantages of integrating Safety Management Systems (SMS) with environmental and quality management systems. Combining these systems not only improves safety performance but also enhances overall operational efficiency and compliance. Let me show you how this integration can transform your organization.

Integrating a Safety Management System (SMS) with Environmental and Quality Management Systems offers multiple benefits, including streamlined compliance, reduced risks, cost savings, and improved organizational efficiency. This integration promotes a holistic approach to managing workplace safety, environmental impacts, and product quality.

By combining SMS with environmental and quality programs, organizations can align their efforts to protect employees, the environment, and product integrity. In this post, we’ll explore how integration works, the key benefits, and the steps you can take to build a cohesive management system that supports safety, environmental sustainability, and quality assurance (ISO, 2015).

How Integration Works: Uniting Safety, Environment, and Quality Systems

Integrating Safety Management Systems (SMS), Environmental Management Systems (EMS), and Quality Management Systems (QMS) is about more than just merging policies. It involves aligning processes, goals, and metrics to create a unified approach that addresses health and safety, environmental sustainability, and product quality. This integration is often facilitated by management standards like ISO 45001 (for safety), ISO 14001 (for environmental management), and ISO 9001 (for quality management). Each standard shares common principles such as risk management, continuous improvement, and leadership commitment (Al-Zaben & Hamid, 2024). By aligning these systems, organizations can:

• Standardize processes across safety, environmental, and quality domains.
• Create a holistic approach to managing risks and meeting regulatory requirements.
• Improve efficiency by eliminating redundancies and overlapping efforts.

Key Benefits of Integration

1. Streamlined Compliance and Reporting One of the most significant benefits of integrating SMS with EMS and QMS is the ability to streamline compliance with regulations and standards. Instead of managing separate systems for safety, environmental, and quality requirements, organizations can:

1. Consolidate reporting processes, reducing the burden of maintaining multiple records and reports.
2. Ensure that all systems adhere to the same risk assessment, audit, and corrective action processes, simplifying regulatory compliance.

For example, instead of conducting separate audits for safety and environmental performance, an organization can perform integrated audits that cover both areas, reducing time and resources needed for compliance.

• Improved Risk Management By integrating these systems, companies can take a more comprehensive approach to risk management. Risks related to safety, environmental impact, and product quality often overlap. When organizations manage these risks in silos, they may miss critical connections. Integrating SMS, EMS, and QMS allows for:

2. A unified risk management framework that identifies and mitigates risks across all areas.
3. More effective use of data from various domains to predict and prevent incidents.

For instance, a manufacturing facility might have environmental risks related to chemical usage that also pose safety hazards. Managing these risks through a single, integrated system ensures that safety and environmental controls work together seamlessly.

• Cost Savings and Operational Efficiency Integration reduces duplication of efforts, leading to significant cost savings. Instead of running multiple systems with separate processes, audits, and training programs, organizations can:

3. Combine resources to reduce administrative and operational costs.
4. Improve efficiency by aligning safety, environmental, and quality goals, minimizing delays, and streamlining workflows.

For example, a company that integrates its safety and environmental training programs can offer cross-training to employees, saving time and improving workforce competency in both areas.

• Enhanced Continuous Improvement Integrated systems create a stronger foundation for continuous improvement. When safety, environmental, and quality programs are managed together, organizations can more easily track performance and identify opportunities for improvement. Continuous improvement is a core component of standards like ISO 45001, 14001, and 9001, and integration allows for:

4. Easier identification of cross-functional improvements that enhance safety, environmental, and quality outcomes.
5. Greater alignment between leadership, employees, and departments in driving continuous improvement efforts.

For example, implementing a corrective action in one area—such as upgrading ventilation to improve air quality—can have positive effects on both safety and environmental outcomes.

• Improved Organizational Culture and Engagement Integration fosters a more collaborative and engaged workforce. When safety, environmental, and quality objectives are aligned, employees at all levels of the organization understand the interconnections and take greater ownership of their roles in maintaining a safe, sustainable, and high-quality operation. This holistic approach can:

5. Improve employee engagement by demonstrating a commitment to safety, sustainability, and quality.
6. Foster a culture of accountability, where everyone plays a role in achieving the organization’s integrated goals.

For example, a team that recognizes the impact of environmental practices on both safety and product quality will be more proactive in adhering to safety and quality standards.

Steps to Integrate SMS with Environmental and Quality Programs

1. Assess Current Systems Start by assessing your existing safety, environmental, and quality management systems. Identify areas where processes overlap or where there are redundancies. Conduct a gap analysis to determine where integration can bring the most value .
2. Align Goals and Objectives Set common goals and objectives for safety, environmental, and quality management. Ensure that these objectives align with your organization’s overall strategy and values. Integrated systems work best when they share common metrics for success, such as reducing incidents, minimizing waste, and improving product quality .
3. Develop Integrated Processes Create standardized processes that apply across all three systems. For example, develop a unified risk management process that evaluates safety, environmental, and quality risks. Streamline training programs, audits, and corrective actions to cover multiple areas at once .
4. Leverage Technology Use digital tools to support integration. Many modern software platforms allow for the management of safety, environmental, and quality programs from a single interface. These tools help consolidate data, streamline reporting, and facilitate real-time tracking of performance across all systems .
5. Monitor, Review, and Improve Once the systems are integrated, continually monitor their performance. Conduct regular audits and reviews to ensure that the integrated processes are working effectively and that they continue to meet regulatory requirements. Use data from all areas to drive improvements across safety, environmental, and quality domains .

Conclusion Integrating Safety Management Systems with Environmental and Quality Programs provides multiple advantages, including streamlined compliance, improved risk management, cost savings, and enhanced operational efficiency. By aligning these systems, organizations can foster a culture of safety, sustainability, and quality, leading to long-term success and resilience. Start by assessing your current systems, setting shared goals, and developing unified processes that bring all aspects of safety, environment, and quality under one cohesive management strategy.

References

Al-Zaben, A. A. A., & Hamid, S. R. (2024). A systematic review of integrated management system frameworks: Dimensions and implication for sustainable management of construction and demolition waste. Multidisciplinary Reviews, 8(1), 2025010. https://doi.org/10.31893/multirev.2025010

Shams, K. H., Talapatra, S., Islam, F., & Abedin, A. (2023). Identification of benefits from integrated management systems (IMS) to achieve sustainability: A systematic literature review. World Journal of Advanced Research and Reviews, 20(02), 514–529. https://doi.org/10.30574/wjarr.2023.20.2.2243

International Organization for Standardization. (ISO) (2015). ISO 9001:2015 Quality management systems — Requirements. ISO. https://www.iso.org/standard/62085.html

International Organization for Standardization. (2015). ISO 14001:2015 Environmental management systems — Requirements with guidance for use. ISO. https://www.iso.org/standard/60857.html

As a safety professional with years of experience in high-risk industries, I’ve seen how effective safety management systems can significantly improve organizational performance. ANSI Z-10.2019 is one of the most comprehensive safety management standards available in the U.S., providing a structured approach to improving workplace safety and reducing risk. Let’s explore how this standard can transform your safety management approach and keep your workforce safe.

ANSI Z-10.2019 is a voluntary consensus standard that provides organizations with a framework for implementing an effective occupational health and safety management system (OHSMS). The 2019 updates emphasize leadership engagement, worker participation, risk-based approaches, and the alignment with international standards like ISO 45001.

Adopting ANSI Z-10.2019 doesn’t just help you comply with safety regulations—it can elevate your organization’s safety performance and culture. The latest updates provide additional tools to integrate safety into your overall business strategy. In this post, we’ll break down the key elements of the standard and explain how it can benefit your organization.

Key Requirements of ANSI Z-10.2019

The ANSI Z-10 standard provides a comprehensive and flexible framework for managing workplace safety and health systems. This standard emphasizes the importance of integrating safety at all organizational levels, with leadership commitment and worker engagement at its core. Key components of the standard include leadership and worker participation, a risk-based approach, and safety planning (ANSI, 2019).

1. Leadership and Worker Participation

One of the central aspects of ANSI Z-10.2019 is its focus on leadership commitment and worker participation. The effective implementation of safety management systems (OHSMS) depends heavily on leadership’s ability to foster a culture that integrates safety into strategic decision-making, ensuring the provision of necessary resources. Moreover, the active participation of workers, especially those closest to potential hazards, enhances the identification and mitigation of risks, contributing to a stronger safety culture (Rahmi & Ramdhan, 2021).

Additionally, there is anecdotal evidence that underscore that leadership and worker involvement are key drivers in building a sustainable safety climate. They highlight that competency in safety management among both workers and leaders is essential for fostering safety culture, reducing risks, and enhancing overall organizational performance (Rahman et al., 2022).

2. Risk-Based Approach

ANSI Z-10 emphasizes a risk-based approach to safety, requiring organizations to continuously identify, evaluate, and control workplace hazards. This systematic approach ensures that safety measures are responsive to changes in the work environment (ANSI_ASSP_Z10_0_2019). Research points out that factors such as management commitment, employee involvement, and continuous improvement are critical in maintaining the effectiveness of risk management strategies (Rahmi & Ramdhan, 2021).

3. Planning for Safety

The ANSI Z-10 standard mandates that organizations develop clear safety objectives, responsibilities, and performance measures as part of their safety management plans. This approach includes hazard identification, resource allocation, and compliance with regulatory requirements. Rahman et al. (2022) emphasize the importance of clear planning in safety management, as it aligns resources and objectives to ensure regulatory compliance and improve safety performance (Rahman et al., 2022).

The 2019 Updates: What’s New?

1. Alignment with ISO 45001

The 2019 revision of ANSI Z-10 brought the standard into alignment with ISO 45001, allowing organizations to streamline their safety management systems across global operations. This alignment helps companies achieve consistency in managing occupational health and safety risks. Alignment with international standards such as ISO 45001 is critical for organizations operating in multiple jurisdictions, ensuring compliance with diverse regulatory requirements (Rahmi & Ramdhan, 2021).

2. Focus on Occupational Health

The revised standard also broadens its scope to address occupational health risks, including psychosocial hazards such as stress and mental health. This update reflects the growing recognition of occupational health as an integral part of workplace safety. As Rahman et al. (2022) point out, maintaining employee well-being is not just about preventing physical injuries but also about addressing mental health and stress management as part of a comprehensive safety strategy (Rahman et al., 2022).

Benefits of Implementing ANSI Z-10.2019

1. Improved Safety Performance

By adopting a structured safety management system as outlined in ANSI Z-10.2019, organizations can significantly reduce workplace incidents and injuries. Proactive risk management, as emphasized in the standard, helps organizations prevent accidents before they occur (Rahmi & Ramdhan, 2021).

2. Increased Employee Engagement

Engaging employees in the safety process leads to better hazard detection and higher morale. When workers feel that their safety concerns are taken seriously, they are more likely to actively participate in maintaining a safe work environment (Rahman et al., 2022).

3. Enhanced Compliance and Reputation

Adhering to ANSI Z-10 not only ensures compliance with OSHA regulations but also enhances an organization’s reputation. Companies that demonstrate a commitment to safety through recognized standards are better positioned to build trust with stakeholders.

Benefits of Implementing ANSI Z-10.2019

Adopting ANSI Z-10.2019 offers numerous advantages, beyond mere compliance with safety regulations. Here’s how your organization can benefit:

1. Improved Safety Performance
   By implementing a structured safety management system, organizations can reduce workplace incidents and injuries. ANSI Z-10.2019 encourages proactive risk management, which helps prevent accidents before they occur.
2. Increased Employee Engagement
   Engaging workers in the safety process not only improves hazard detection but also boosts morale. When employees feel that their safety concerns are taken seriously, they are more likely to participate actively in maintaining a safe work environment.
3. Cost Savings
   Effective safety management systems lead to fewer accidents and associated costs, such as workers’ compensation claims, legal fees, and downtime. In addition, adopting ANSI Z-10 can lead to insurance savings as many insurers offer reduced premiums to companies with robust safety programs ​(ASSP, 2019).
4. Enhanced Compliance and Reputation
   While ANSI Z-10 is a voluntary standard, following its guidelines ensures that your organization remains compliant with OSHA regulations and other relevant safety laws. Moreover, adhering to a recognized standard demonstrates your commitment to safety, which can enhance your company’s reputation with clients and stakeholders.

How to Get Started with ANSI Z-10.2019

If you’re considering implementing ANSI Z-10 in your organization, here are some practical steps to get started:

1. Conduct a Gap Analysis
   Begin by assessing your current safety management practices and identifying areas where they fall short of ANSI Z-10 requirements. This gap analysis will help you understand what changes are needed to bring your organization into compliance.
2. Engage Leadership and Workers
   Ensure that top management is committed to the process and that workers are actively involved. A successful OHSMS requires buy-in from every level of the organization.
3. Develop and Implement Your OHSMS
   Use the Plan-Do-Check-Act (PDCA) model to develop your system. This includes planning your safety objectives, implementing risk controls, monitoring safety performance, and continually improving the system​ (ANSI_ASSP_Z10_0_2019).
4. Monitor and Adjust
   Once your system is in place, regularly review its performance and make adjustments as necessary. Continuous improvement is a fundamental principle of ANSI Z-10, ensuring that your safety management system evolves with the needs of your organization.

HOP in ANSI Z-10

Human and Organizational Performance (HOP) principles into an Occupational Health and Safety Management System (OHSMS), ANSI Z-10 emphasizes the interaction between workers and their environment, addressing safety from a systems perspective. Human Organizational Performance (HOP) is fundamentally aligned with the systems approach, acknowledging that humans are fallible, and errors are often the result of system deficiencies rather than individual failings (ASSP, 2019). By focusing on identifying and mitigating systemic risks, HOP encourages a proactive, adaptive safety culture.

The inclusion of HOP principles in the OHSMS allows for better hazard detection and resolution through worker engagement and leadership involvement. This participatory approach ensures that workers, who are closest to the hazards, contribute to risk assessments and safety planning, a key feature of ANSI Z-10. Additionally, HOP stresses the importance of learning from incidents, which aligns with the OHSMS’s emphasis on continual improvement through feedback loops.

By incorporating HOP, organizations foster a dynamic interaction between safety, work processes, and human behaviors, ultimately leading to reduced incidents and a resilient safety culture. This systemic approach is critical for managing modern workplace hazards, where the complexity of interactions demands more than traditional safety compliance.

Conclusion

ANSI Z-10.2019 offers a powerful framework for improving occupational health and safety performance. By integrating safety into business processes, actively engaging workers, and adopting a risk-based approach, organizations can reduce workplace hazards and promote a culture of safety. The 2019 updates make ANSI Z-10 even more relevant, aligning it with global standards and emphasizing the importance of occupational health and psychosocial risk management.

References

American Society of Safety Professionals. (ASSP) (2019). ANSI/ASSP Z10.0-2019 Occupational health and safety management systems. American Society of Safety Professionals.

American Society of Safety Professionals. (2019). ANSI/ASSP Z10.0-2019 guidance manual: Occupational health and safety management systems. ASSP.

Rahman, F. A., Arifin, K., Abas, A., Mahfudz, M., Basir Cyio, M., Khairil, M., Ali, M. N., Lampe, I., & Samad, M. A. (2022). Sustainable safety management: A safety competencies systematic literature review. Sustainability, 14(14), 6885. https://doi.org/10.3390/su14116885

Rahmi, A., & Ramdhan, D. H. (2021). Factors affecting the effectiveness of the implementation of OHSMS: A systematic literature review. Journal of Physics: Conference Series, 1933(1), 012021. https://doi.org/10.1088/1742-6596/1933/1/012021

OSHA says that identifying and mitigating hazards in the workplace is crucial to maintaining a safe environment (OSHA, n.d.). In the Army we used Activity Hazard Analysis (AHA) to identify and control hazards. Conducting an AHA systematically helps ensure you’re taking proactive measures to prevent incidents. If you’ve been looking for a reliable way to assess and mitigate hazards using FM 385, I can guide you through the process, step by step (U.S. Army Corps of Engineers, 2014).

An Activity Hazard Analysis (AHA) is a systematic process used to identify potential hazards associated with a specific task, assess the risks, and implement controls to mitigate those risks. Following the guidelines set out in FM 385 ensures that hazards are addressed before work begins, helping to create a safer work environment.

Activity Hazard Analyses (AHA) are not just about compliance; they’re about creating safer, more efficient workplaces. With the right approach, you can ensure that your workers are protected from the start. Let’s walk through the AHA process as outlined by FM 385 and explore how to implement it effectively in your organization.

Step 1: Understanding the Basics of Activity Hazard Analysis

An Activity Hazard Analysis (AHA) involves breaking down a task into its components, identifying the hazards associated with each step, and implementing controls to mitigate those hazards. The AHA process is essential for high-risk activities and is mandated by many regulatory frameworks, including FM 385-1-1, which outlines safety standards for federal projects and construction.

The key components of an AHA include:

1. Task Breakdown: Clearly define the steps of the task or activity.
2. Hazard Identification: Identify potential hazards for each step.
3. Risk Assessment: Evaluate the likelihood and severity of each hazard.
4. Control Measures: Implement controls to mitigate the identified risks.
5. Review and Monitoring: Continuously monitor the activity to ensure controls are effective.

Step 2: Conducting a Task Breakdown

To start an AHA, you need to break the task down into manageable steps. This allows you to analyze each part of the activity for potential hazards. The task breakdown should be detailed enough to capture the risks at each stage but not so granular that it becomes overwhelming. For example, if the task is “roof installation,” the breakdown might include steps such as setting up scaffolding, carrying materials to the roof, and securing roofing tiles.

• Pro Tip: Involve the people who regularly perform the work in this process. They have invaluable insight into the nuances that others might overlook.

Step 3: Identifying Hazards

Once the task is broken down, the next step is to identify the potential hazards associated with each activity. Hazards can be physical, chemical, biological, or ergonomic, depending on the nature of the task. Common hazards include:

• Falls from height during roofing activities.
• Chemical exposure when handling hazardous materials.
• Repetitive strain injuries in tasks that require heavy lifting.

For each task step, list out every possible hazard. Be thorough, as even seemingly minor risks can escalate into major incidents without proper controls.

Step 4: Assessing the Risks

With the hazards identified, it’s time to assess the risk of each one. Risk assessment typically involves two factors:

1. Likelihood: How likely is it that the hazard will cause an incident?
2. Severity: How severe would the consequences be if the hazard led to an incident?

Using a risk matrix, you can classify risks as low, medium, or high. This prioritization helps determine which hazards need immediate attention and which can be managed with standard controls.

• Example: If workers are installing roofing tiles at height, the risk of falling might be classified as high, given the likelihood and severity of a fall-related injury.

Step 5: Implementing Control Measures

Once the risks have been assessed, the next step is to put control measures in place to mitigate those risks. The hierarchy of controls should guide this process, starting with the most effective methods. The Hierarchy of Controls is a systematic approach to minimizing or eliminating hazards in the workplace. It ranks controls from the most effective to the least effective. Here are the levels, starting with the most preferred method:

1. Elimination
   Completely remove the hazard.
   This is the most effective method, as it physically removes the hazard from the workplace. For example, replacing a hazardous chemical with a non-hazardous one.
2. Substitution
   Replace the hazard with something less dangerous.
   Substitution involves replacing the hazardous substance, process, or material with a safer alternative. For example, using a less toxic chemical in a process.
3. Engineering Controls
   Isolate people from the hazard.
   This includes physical changes to the workplace or the environment to reduce exposure. Examples include machine guards, ventilation systems, and noise-dampening materials.
4. Administrative Controls
   Change the way people work.
   These controls focus on altering how work is performed to reduce risks. Examples include rotating shifts to reduce exposure times, implementing standard operating procedures (SOPs), training, and signage.
5. Personal Protective Equipment (PPE)
   Protect the worker with protective gear.
   PPE is considered the least effective because it does not eliminate the hazard and relies on proper use by employees. Examples include gloves, safety glasses, hard hats, and respirators.

For example, if the hazard is falling from heights, the control measures might include using fall protection systems, ensuring guardrails are in place, and requiring workers to wear harnesses.

Note: The Hierarchy of Controls displayed as an inverted pyramid. The most effective control, Elimination, is at the top, followed by the less effective methods down to Personal Protective Equipment (PPE) at the bottom.

Step 6: Review and Continuous Monitoring

The AHA doesn’t end once control measures are implemented. Ongoing review and monitoring are critical to ensure that the controls are working effectively. Supervisors should regularly inspect the worksite, check equipment, and talk to workers to confirm that safety measures are being followed.

If new hazards emerge during the task, the AHA should be revisited, and additional controls should be implemented as necessary. Continuous monitoring ensures that safety measures adapt to changing conditions and prevent complacency from setting in.

Additional Considerations for Activity Hazard Analysis

1. Documentation
   Documenting the AHA process is essential for accountability and compliance. The documentation should include the task breakdown, identified hazards, risk assessments, and the control measures implemented. This not only ensures compliance with FM 385 but also serves as a reference for future AHAs and safety audits.
2. Worker Involvement
   Involving workers in the AHA process promotes a safety culture and ensures that the analysis reflects real-world conditions. Workers are more likely to follow safety procedures if they have contributed to the process and understand the reasoning behind the controls.
3. Training
   Effective training is essential to ensure that workers understand the AHA and how to implement the control measures. Training sessions should include hands-on demonstrations of PPE use, emergency procedures, and safe work practices specific to the task at hand.

Conclusion

Performing a comprehensive Activity Hazard Analysis (AHA) using FM 385 is a critical step in ensuring workplace safety. By systematically identifying hazards, assessing risks, and implementing control measures, you can prevent incidents before they happen. Remember, an AHA is a living document that requires continuous review and adaptation. By actively involving workers, maintaining proper documentation, and staying vigilant, you can create a safer work environment and meet the highest safety standards.

References

U.S. Army Corps of Engineers. (2014). Safety and health requirements manual (EM 385-1-1). U.S. Army Corps of Engineers. https://www.usace.army.mil/Safety-and-Occupational-Health/Safety-and-Health-Requirements-Manual/

Occupational Safety and Health Administration (OSHA). (n.d.). Hazard Identification and Control Best Practices. https://www.osha.gov/safety-management/hazard-Identification

As a safety professional, I know navigating the complexities of federal and State-Specific Safety Regulations can be overwhelming. While OSHA sets the standard for workplace safety nationwide, many states have their own occupational safety programs that go beyond federal requirements. Understanding these key differences is essential for ensuring compliance across multiple locations. Let me guide you through the critical distinctions between federal OSHA regulations and state-specific programs.

Federal OSHA regulations provide baseline workplace safety requirements across the U.S., but 22 states operate their own OSHA-approved safety programs with additional or stricter requirements. Employers must comply with both federal and state regulations, depending on their location.

Staying compliant with safety regulations is a key responsibility for employers, but it can be tricky when state and federal rules differ. States with their own OSHA-approved plans often impose higher standards, meaning companies need to stay updated on state-specific regulations to avoid penalties. Let’s explore some of the most significant differences between federal OSHA requirements and state-run programs.

Federal OSHA vs. State-Run Programs: An Overview

The Occupational Safety and Health Administration (OSHA) is responsible for ensuring workplace safety for most private sector employees in the United States. However, under Section 18 of the Occupational Safety and Health (OSH) Act, individual states are permitted to operate their own OSHA-approved State Plans, provided these plans are “at least as effective” as the federal OSHA program (OSHA, n.d.). Currently, 22 states and jurisdictions have OSHA-approved State Plans, covering both public and private sector workers, while six additional states and one U.S. territory offer coverage only for public sector workers (OSHA, n.d.).

Key Differences Between Federal and State OSHA Programs

1. State-Specific Standards While state programs must meet or exceed federal OSHA standards, many have developed additional regulations tailored to specific hazards within their jurisdictions. For example, California (Cal/OSHA) has rigorous standards for heat illness prevention, wildfire smoke exposure, and ergonomics, which surpass federal regulations (OSHA, n.d.). Similarly, Washington’s Division of Occupational Safety and Health (DOSH) has implemented unique standards around agricultural safety and chemical exposure.
2. Broader Coverage for Public Sector Employees Federal OSHA exclusively covers private sector employees, but many state plans extend protections to public sector employees, including those working for state and local governments. States like New York and North Carolina ensure that public employees receive the same protections as those in the private sector (OSHA, n.d.).
3. State-Specific Enforcement Policies States with their own OSHA-approved plans may set their own enforcement and penalty structures, sometimes resulting in stricter penalties and more frequent inspections compared to federal OSHA. For instance, Michigan’s MIOSHA program is known for implementing stricter penalties for repeat offenders (OSHA, n.d.).

Key State-Specific Regulations to Watch

1. Heat Illness Prevention (California) One of the most prominent state-specific standards is California’s Heat Illness Prevention Standard, which requires employers to provide water, shade, and rest breaks to employees working in hot environments. This standard is stricter than any current federal OSHA requirements, which lack specific regulations for heat illness prevention.
2. Ergonomics (Washington) Washington has implemented mandatory ergonomic regulations that require employers to assess and mitigate ergonomic hazards in the workplace, aiming to reduce musculoskeletal injuries in industries like healthcare and manufacturing.
3. Wildfire Smoke Protection (California and Oregon) With the rise of wildfires, both California and Oregon have introduced regulations to protect workers from wildfire smoke, mandating air quality monitoring and requiring employers to provide respiratory protection when necessary.

Navigating Compliance Across Multiple States

For businesses operating across multiple states, keeping track of state-specific OSHA requirements is crucial. Here are some steps to ensure compliance:

1. Stay Informed of State-Specific Regulations Regularly review state OSHA websites for updates on regulations and enforcement policies. OSHA monitors and evaluates the performance of state plans annually through the Federal Annual Monitoring Evaluation (FAME) process to ensure state programs remain at least as effective as federal OSHA (OSHA, n.d.).
2. Adapt Safety Programs to Regional Requirements Tailor safety management systems (SMS) to meet the most stringent requirements across all operating regions. If your business operates in a state like California, applying the stricter heat illness prevention standards across all locations may be beneficial for consistency.
3. Training and Auditing Regularly train employees on state-specific regulations and incorporate these into your safety audits. For instance, ensure employees in California understand and comply with heat illness prevention requirements.

Conclusion

Understanding the differences between federal OSHA regulations and state-run programs is key to maintaining compliance and ensuring workplace safety across the United States. With some states implementing more stringent safety standards, staying informed and adapting your safety programs to local regulations will help you mitigate risks and avoid costly penalties. By staying proactive, your organization can create a safer environment for all employees, regardless of location.

References

Occupational Safety and Health Administration (OSHA). (n.d.). State plans. Retrieved from https://www.osha.gov/stateplans

Occupational Safety and Health Administration (OSHA). (n.d.). Quick facts and information about state plans. Retrieved from https://www.osha.gov/stateplans/overview

Occupational Safety and Health Administration (OSHA). (n.d.). Federal annual monitoring and evaluation (FAME) reports. Retrieved from https://www.osha.gov/stateplans/fame-reports

As a safety professional, I understand how challenging it can be to create a comprehensive safety training program that not only meets regulatory requirements but also engages employees and addresses the specific needs of your organization. A well-designed training program can significantly improve safety performance and reduce incidents. Let me guide you through the key steps to building an effective safety training program for your workforce.

An effective safety training program combines regulatory compliance with engaging, practical training that addresses the specific risks and needs of your workforce. Key elements include needs assessment, goal setting, customized content, interactive training methods, and continuous evaluation (OSHA, 2023).

Creating a successful safety training program requires more than just checking off compliance boxes—it’s about fostering a culture of safety. In this guide, we’ll walk through the steps to build a program that not only educates but also empowers your employees to stay safe on the job.

Step 1: Conduct a Needs Assessment

Before developing any safety training program, it’s crucial to understand the specific safety risks and training needs within your organization. A comprehensive needs assessment helps identify gaps in knowledge, skills, and procedures.

1. Assess Workplace Hazards: Conducting a needs assessment is crucial in identifying workplace hazards. A detailed review of the workplace environment can help pinpoint specific risks associated with the industry, including ergonomic concerns, chemical exposure, and machinery-related hazards. For high-risk industries such as construction or manufacturing, identifying fall risks or machinery accidents should be prioritized. This type of preventive assessment is a foundational step in reducing the likelihood of accidents (Jozan et al., 2023) .
2. Review Incident Reports and Audits: Past incident reports and internal audits provide valuable insight into recurring safety issues. By identifying these patterns, organizations can better focus their training efforts on problem areas, such as recurring accidents or near-misses, ensuring a targeted approach to safety improvements (Seo et al., 2022) .
3. Involve Workers in the Process: Engaging workers in the development of safety programs is essential for ensuring the relevance of training. Workers can offer firsthand knowledge of potential safety concerns, and involving them fosters greater compliance and engagement with safety protocols (Jozan et al., 2023).

Step 2: Set Clear, Measurable Goals

1. Define Learning Objectives: Learning objectives should focus on the specific skills employees are expected to demonstrate following the training, such as compliance with safety standards and hazard mitigation techniques. Clear learning objectives enhance the effectiveness of training by targeting specific competencies relevant to workplace safety (Barati Jozan et al., 2023).
2. Align Goals with Regulatory Requirements: Aligning safety training with OSHA, NIOSH, or EPA regulations ensures legal compliance and enhances the relevance of training. This approach also helps organizations meet industry standards and prevent potential violations (Seo et al., 2022).
3. Set Benchmarks for Success: Establishing benchmarks like incident rate reductions or audit improvements is critical for assessing the effectiveness of safety programs. Regular reviews ensure the training addresses the correct issues and meets organizational needs (Barati Jozan et al., 2023).

Step 3: Develop Customized Training Content

1. Use Industry-Specific Examples: Customizing safety content to address industry-specific risks, such as fall prevention or machinery hazards, improves engagement and relevance. Tailored examples help employees understand how to apply safety principles in their specific context (Barati Jozan et al., 2023).
2. Incorporate Hands-On Learning: Hands-on training methods, such as using PPE or practicing safety drills, are crucial for reinforcing safety behaviors in high-risk industries. Providing practical, on-the-job training ensures that workers are well-prepared for real-world scenarios (Barati Jozan et al., 2023).
3. Use a Blended Learning Approach: Blended learning, which combines digital modules with in-person exercises, is increasingly used in occupational health and safety training. E-learning offers flexibility, while in-person exercises ensure practical application of safety skills (Barati Jozan et al., 2023).

Step 4: Make Training Interactive and Engaging

1. Incorporate Role-Playing and Simulations: Role-playing and simulations create immersive learning experiences, allowing employees to practice responding to potential hazards. This interactive method helps learners apply theoretical knowledge to practical scenarios (Seo et al., 2022).
2. Use Gamification: Gamification, such as incorporating quizzes and competitions, enhances engagement and motivates learners to absorb critical safety information. This technique also fosters healthy competition and can improve training retention (Barati Jozan et al., 2023).
3. Encourage Group Discussions: Group discussions help contextualize safety training by encouraging employees to share their experiences. Peer-to-peer learning reinforces safety culture and encourages employees to adopt shared responsibility for safety (Seo et al., 2022).

Step 5: Evaluate and Improve the Program Continuously

1. Use Feedback Surveys: Post-training feedback from employees is an invaluable tool for identifying gaps and improving future training sessions. Surveys provide insights into areas that need further clarification or enhanced focus (Barati Jozan et al., 2023).
2. Monitor Key Metrics: Tracking metrics such as incident rates and training completion rates provides a quantitative measure of training effectiveness. Regularly evaluating these metrics helps ensure that safety training reduces risk (Barati Jozan et al., 2023).
3. Update Training Content Regularly: To remain compliant with new regulations and best practices, training content should be reviewed and updated at least annually. This ensures that the organization is prepared for evolving safety challenges (Seo et al., 2022).

Conclusion

Building an effective safety training program requires a thorough understanding of your organization’s unique risks, clear goals, and engaging content. By conducting a needs assessment, setting measurable objectives, developing customized training, and continually evaluating its effectiveness, you can create a program that not only meets regulatory requirements but also fosters a culture of safety. With the right training program in place, you’ll empower your workforce to prevent accidents and maintain a safer work environment.

Sources:

Barati Jozan, G., Moschion, D., Zacher, H., Braun, S., & Parker, S. K. (2023). Workplace safety leadership: The role of leadership in preventing accidents and ensuring safety. BMC Public Health, 23(16114), 1-16. https://doi.org/10.1186/s12889-023-16114-8

Seo, H. J., Do, B., & Rhee, S. Y. (2024). Effective managers of workplace safety: A topic taxonomy of manager’s safety competency. Safety Science, 176, 106528. https://doi.org/10.1016/j.ssci.2024.106528

Occupational Safety and Health Administration (OSHA). (2023). Training. https://www.osha.gov/training

As a safety professional with extensive experience in workplace safety, I know how critical it is to integrate ergonomics into daily operations. Musculoskeletal disorders (MSDs) are a leading cause of workplace injuries, but by incorporating ergonomic practices, you can significantly reduce these risks. Let me show you how to protect your workers and improve productivity.

Ergonomics focuses on designing workstations, tools, and tasks to fit the physical capabilities of workers, reducing the risk of musculoskeletal disorders (MSDs). Implementing ergonomic practices can prevent injuries, improve efficiency, and create a safer, more comfortable work environment (Odebiyi & Okafor, 2022)​.

By understanding the importance of ergonomics and implementing practical strategies, you can protect your employees from common workplace injuries like back strain, carpal tunnel syndrome, and tendonitis. Let’s explore how ergonomic solutions can reduce MSDs and contribute to overall workplace safety.

The Role of Ergonomics in Preventing Musculoskeletal Disorders (MSDs)

Ergonomics involves designing work environments that accommodate workers’ physical needs, rather than forcing workers to adapt to poorly designed tasks. When tasks are not aligned with the worker’s physical capabilities, repetitive movements, awkward postures, and excessive force can lead to musculoskeletal disorders (MSDs) such as back pain, carpal tunnel syndrome, and tendinitis (Odebiyi & Okafor, 2022)​. These conditions are among the most common causes of lost workdays, workers’ compensation claims, and long-term disability (OSHA, 2023).

Ergonomic interventions, such as improving workstation design, providing the right tools, and encouraging good posture, can significantly reduce the risk of these injuries. By focusing on prevention, employers can enhance worker safety and productivity while lowering healthcare and compensation costs (Koirala & Nepal, 2022)​.

Strategies for Integrating Ergonomics into Workplace Safety

1. Conduct an Ergonomic Assessment
   The first step in integrating ergonomics into workplace safety is conducting a thorough ergonomic assessment. This involves analyzing workstations, tools, and workflows to identify potential hazards that may contribute to MSDs (Odebiyi & Okafor, 2022). During this assessment, consider the following:
   • Posture: Are workers forced to maintain awkward or unnatural positions for extended periods?
   • Repetition: Do tasks require repetitive motions that could lead to strain?
   • Force: Are workers required to exert significant force when lifting, pushing, or pulling?
     Identifying these risks helps employers prioritize areas for ergonomic improvements​.
2. Redesign Workstations for Comfort and Efficiency
   One of the most effective ways to reduce the risk of MSDs is by redesigning workstations to fit the physical capabilities of workers. Adjustable chairs, desks, and monitors allow workers to maintain neutral postures, reducing strain on muscles and joints. For example:
   • Ensure that workers’ desks and chairs are adjustable to support proper posture.
   • Place frequently used items within easy reach to minimize repetitive stretching or twisting.
   • Provide footrests, wrist rests, and other supportive equipment as needed​.
     By adjusting workstations to better suit individual workers, you can create a more comfortable and productive work environment.
3. Incorporate Ergonomic Tools and Equipment
   Ergonomic tools, such as adjustable keyboards, anti-fatigue mats, and ergonomic lifting devices, can significantly reduce the risk of injury. For instance, workers in manufacturing environments may benefit from tools that reduce the need for repetitive motions, while office workers may need ergonomic chairs and keyboards to prevent strain (OSHA, 2023). Choosing the right ergonomic tools is essential for addressing the specific needs of different tasks.
4. Implement Proper Lifting Techniques and Training
   In industries like construction, warehousing, and manufacturing, improper lifting techniques are a leading cause of back injuries. Training workers in proper lifting techniques—such as bending at the knees, keeping loads close to the body, and avoiding twisting motions—can significantly reduce these risks. Using ergonomic lifting aids like dollies, hoists, and forklifts minimizes the physical strain on workers during heavy lifting tasks​.
5. Encourage Breaks and Job Rotation
   Another strategy to reduce the risk of MSDs is to encourage regular breaks and implement job rotation. Long periods of repetitive tasks or static postures can lead to muscle fatigue and injury. Scheduling short breaks allows workers to stretch and rest their muscles, reducing fatigue and preventing strain​.
6. Monitor and Continuously Improve Ergonomic Practices
   Ergonomics is not a one-time fix but an ongoing process. After implementing ergonomic interventions, it’s essential to monitor the effectiveness of these changes and make adjustments as needed. Regular feedback from workers can help identify new issues or areas for improvement (Koirala & Nepal, 2022).

The Benefits of Ergonomics for Worker Safety and Productivity

1. Reduced Injuries and Healthcare Costs
   Ergonomics directly addresses the root causes of MSDs, leading to a decrease in injuries. Fewer injuries mean fewer workers’ compensation claims, less time lost due to injury, and lower healthcare costs (OSHA, 2023)​.
2. Increased Worker Productivity and Efficiency
   When workers are comfortable and free from pain, they are more productive. Ergonomic workstations allow employees to work more efficiently without strain or fatigue, leading to improved performance and higher job satisfaction.
3. Improved Employee Morale and Retention
   Employees appreciate when their health and safety are prioritized. By investing in ergonomics, employers can boost morale and reduce turnover. Workers who feel supported are more likely to stay with the company and contribute to a positive work environment (Koirala & Nepal, 2022)​.

Conclusion

Ergonomics is an essential component of workplace safety, helping to reduce musculoskeletal disorders and improve worker well-being. By conducting ergonomic assessments, redesigning workstations, providing the right tools, and encouraging safe practices, employers can create a safer, more productive environment. Investing in ergonomics not only protects your workforce but also improves efficiency and reduces costs in the long run.

References

Koirala, R., & Nepal, A. (2022). A Literature Review on Ergonomics, Ergonomics Practices, and Employee Performance. Quest Journal of Management and Social Sciences, 4(2), 273–288. https://doi.org/10.3126/qjmss.v4i2.50322

O. Odebiyi, D., & Arinze Chris Okafor, U. (2023). Musculoskeletal Disorders, Workplace Ergonomics and Injury Prevention. IntechOpen. https://doi.org/10.5772/intechopen.106031

Occupational Safety and Health Administration (OSHA). (2023). Ergonomics and Workplace Safety Guidelines. https://www.osha.gov/ergonomics

I’ve tried several delivery methods for safety orientation throughout my career. The best orientations engage people. How do you do that? You can accomplish this by requiring someone to present the information interactively. Avoid the temptation to pop in a video and require participants to complete a quiz.

Safety orientation is essential for several reasons. Informing people of the hazards they will be exposed to is required by OSHA regulation, 1926.21 Safety training, and education (1926.21 – Safety Training and Education. | Occupational Safety and Health Administration, n.d.). Safety orientation communicates organizational safety climate and culture, expected behavior attitude and norms towards safety, and the work methods developed to control exposures.

Let’s dive deeper into safety orientation and discuss what we should include in orientation and some delivery methods.

What to include and how to deliver Safety Orientation

Safety orientation can be divided into four categories Employee, Supervisor, Subcontractor, and Visitor Safety Orientation. While it is possible to use one orientation for everyone entering the work site, each group needs different information levels. For instance, a visitor may not need to know your work-at-height procedure because you do not allow unauthorized persons in areas with at-height work risks. Supervisors need to understand the team’s expectations, but they also need to know how to integrate safety into managing activities. Look at some boilerplate content that should be reviewed during a safety orientation.

All orientations should include the following:

Emergency Action Plan – what to do if something unexpected happens.

Hazardous Communication – are there any hazardous materials in the vicinity, and where are the SDSs located if something happens?

Authorization – who is authorized to be where, and what are they allowed to do?

After Emergency Action Plan, Hazardous Communication, and Authorization have been addressed, each orientation category should cover more in-depth information based on the anticipated exposures.

Employee Safety Orientation

Employees are the people that are at the highest risk of an event occurring. These are the people who are doing the work. There are a couple of approaches to orientation for employees. Many organizations have developed work rule orientation checklists. The project supervisor or their representative reviews the checklist, the employee signs that they understand the rules, and they go to work. Some organizations have gotten a little more sophisticated and moved to video orientation with a quiz after. Most progressive organizations use a mentoring system with on-the-job training and interactive material that provides multiple learning channels for employees to absorb the expectations.

Employee orientation should start by meeting the team and team leader (supervisor). The team should each play a part in orientation. For example, one person could walk the emergency evacuation route and show the learner where the meeting point or the tornado shelter is. Another team member could show the learner where hazardous materials are stored and how to find and read a related SDS. Another team member could review the work process and the safeguards, including what PPE is needed and why. Requiring the learner to record the information provides multiple learning channels. The supervisor’s role becomes one of verifying learning by reviewing the content with the new employee at the end of each day.

Supervisors Safety Orientation

Supervisors should be required to attend the same orientation as employees but should include teach-back and feedback opportunities. Supervisors’ orientation includes the technical aspects of managing exposures to risk, e.g., guardrail height requirements, when to use a personal air monitoring device, or what triggers a required confined space, but also requires a range of soft skills to engage their team. According to the National Safety Council Supervisors’ Safety Manual (2009), supervisors should understand safety management principles. Supervisors need to have communication skills, understand how to get employee involvement, have the skills needed to inspect work areas for potential and actual hazards and participate in, if not lead, incident investigations. Supervisor orientation should include how to lead safely.

Subcontractor Safety Orientation

Subcontractor orientation can be tricky if you work with a risk-averse organization. Many companies and contractors require some form of prequalification that includes a review of safety metrics and maybe a review of safety policies and procedures. Subcontractor orientation does not necessarily need to be as in-depth as employee orientation. Still, it should communicate any life-saving rules, known hazards, the available items above, and specific hazards on the job site. Be careful not to set up an orientation that could be interpreted as directing work. For instance, stating that the project requires fall protection at four feet or above is not the same as saying that to access heights, you must complete an at heights work survey approved by the hosting or sponsoring employers’ supervisor as an approver of work method. I recommend that legal counsel review any orientation given to non-employees. That said, the best-in-class organizations provide orientation and training for subcontractors and vendor supervisors.

Visitor Safety Orientation

While most visitors may be on location for an hour or less, they still have the potential to be exposed to hazards. At a minimum, visitors should be aware of where they are authorized and, by the same token, not authorized to be at your location. It is also important that visitors understand what to do if an emergency were to occur. Many organizations develop pamphlets or videos for visitor orientation. This method is better than doing nothing, but who reads pamphlets and pays attention to videos? Visitor orientation is a perfect opportunity to introduce your culture of safety. Every visitor should be assigned a sponsor. The sponsor should walk the visitor through the safety requirements for a visit. For instance, if you need to walk the job site or plant, a specific path of travel must be followed, specific PPE may be required, and there may be hazardous chemicals that visitors need to recognize.

How long should orientation be?

That depends on the audience. The U.S. Department of Energy (DOE) workers’ orientation is designed for 8 hours of initial training (CPWR – The Center for Construction Research and Training, 2019). If you google that question, most responses say thirty minutes to an hour. Safety training is an ongoing process, and I view orientation as the start of that training. Your orientation should be long enough to communicate expectations and hazards associated with the work. Orientation, like new miner safety orientation or hazardous waste remediation workers, maybe fifteen minutes or forty hours. It all depends on the hazards present in the workplace.

Conclusion

Safety orientation isn’t a five-minute meeting before someone starts on a worksite. Safety orientation takes time and is an ongoing process. It’s more than communicating a list of do’s and don’ts. Safety orientation establishes the worksite climate by engaging people and setting an example by modeling desired behaviors and actions.

References

1926.21—Safety training and education. | Occupational Safety and Health Administration. (n.d.). Retrieved August 27, 2022, from https://www.osha.gov/laws-regs/regulations/standardnumber/1926/1926.21

CPWR – The Center for Construction Research and Training (2019). Safety Orientation for DOE Construction Workers. https://www.cpwr.com/wp-content/uploads/publications/Safety-Orientation-Student-Manual-02_04_19.pdf

National Safety Council. (2009). Supervisors’ safety manual. National Safety Council

Understanding MSDs, Employer Responsibilities, and Effective Measures for a Safe Workplace

In this article, we will answer the top five questions asked when searching for ergonomics related to occupational safety. Ergonomics is essential for ensuring the health and safety of employees, as poor ergonomics can lead to musculoskeletal disorders, repetitive stress injuries, and other health problems. Using data from the Bureau of Labor Statistics (BLS) and OSHA requirements, we will discuss the definition and causes of musculoskeletal disorders, an employer’s responsibilities for ergonomics, common ergonomic hazards in the workplace, the benefits of ergonomics, and practical measures for implementing an ergonomics program. By understanding ergonomics and following OSHA’s guidelines, employers can prevent workplace injuries and ensure a safe working environment for their employees.

This article discusses the definition and causes of musculoskeletal disorders, an employer’s ergonomics responsibilities, common ergonomic workplace hazards, the benefits of ergonomics, and practical measures for implementing an ergonomics program. Ergonomics plays a crucial role in ensuring the health and safety of employees, and following OSHA’s guidelines is essential for preventing workplace injuries and creating a safe working environment.

Ergonomics is the study of how people interact with their work environment, and it plays a crucial role in ensuring the health and safety of employees. Poor ergonomics can lead to musculoskeletal disorders, repetitive stress injuries, and other health problems. In this article, we will answer the top five questions asked when searching for ergonomics related to occupational safety, using data from the Bureau of Labor Statistics (BLS) and OSHA requirements.

What are musculoskeletal disorders, and how are they related to ergonomics?

Musculoskeletal disorders (MSDs) are injuries and disorders that affect the muscles, nerves, tendons, ligaments, and joints. Various factors, including repetitive motions, forceful exertions, awkward postures, and vibrations, can cause them.

Ergonomics plays a crucial role in preventing MSDs by designing work environments that minimize stress on the body. This can include adjusting workstations, tools, and equipment to fit the needs of individual employees.

What are an employer’s responsibilities for ergonomics?

Employers have several responsibilities for ergonomics, including:

• Identifying and assessing ergonomic hazards in the workplace
• Developing and implementing a written ergonomics program that includes employee training and injury prevention measures
• Providing appropriate equipment and tools that are ergonomically designed
• Providing appropriate personal protective equipment (PPE) and ensuring that it is used properly
• Conducting regular ergonomic evaluations and making necessary adjustments

What are some common ergonomic hazards in the workplace?

According to the BLS, some common ergonomic hazards in the workplace include:

• Awkward postures, such as bending, reaching, and twisting
• Repetitive motions, such as typing or using a mouse
• Forceful exertions, such as lifting or carrying heavy objects
• Contact stress, such as pressing against hard surfaces
• Vibration, such as from power tools or machinery

Employers should conduct an ergonomic hazard assessment to identify potential hazards in the workplace and implement measures to prevent them.

What are the benefits of ergonomics in the workplace?

The benefits of ergonomics in the workplace include:

• Reduced risk of MSDs and other injuries
• Increased productivity and efficiency
• Improved employee morale and job satisfaction
• Reduced absenteeism and turnover
• Reduced healthcare and workers’ compensation costs

By designing ergonomically sound work environments, employers can create a safe and healthy environment that benefits employees and the organization.

What are some practical measures for implementing an ergonomics program?

There are several measures that employers can take to implement an effective ergonomics program, including:

• Conducting an ergonomic hazard assessment to identify potential hazards in the workplace
• Providing appropriate equipment and tools that are ergonomically designed
• Providing appropriate personal protective equipment (PPE) and ensuring that it is used properly
• Conducting regular ergonomic evaluations and making necessary adjustments
• Providing training and education to employees on ergonomics topics
• Encouraging employee participation in the ergonomics program

Conclusion

Ergonomics plays a crucial role in ensuring the health and safety of employees. Employers have several responsibilities for ergonomics, including identifying and assessing ergonomic hazards, developing and implementing a written ergonomics program, and providing appropriate equipment and tools. By implementing effective measures for ergonomics, employers can prevent workplace injuries and improve productivity and efficiency.

This article explores the concept of safety and the various definitions used in the occupational safety and health field. While some cultures do not have a safe word, agreeing that safety means being free from harm and recognizing hazards is fundamental. The article delves deeper into the definitions of safety used by leading organizations such as the American Society of Safety Professionals (ASSP), Behavior-Based Safety (BBS), Human Performance (HP), National Safety Council (NSC), Safety Management System (SMS), and Systems Safety Engineering. These definitions highlight the importance of hazard identification, risk management, and ongoing attention to maintain safety. Ultimately, the article emphasizes the need to define safety within an organization’s safety management system to ensure that risks and hazards are eliminated or controlled to acceptable levels, protecting individuals from physical, emotional, and psychological harm in the workplace and other settings.

What does it mean to be safe, or what does safety mean? Some cultures do not have a word for safe or safety. Instead, what would be closer described as secure or security? If we cannot agree on what safe or safety means, how can we ever achieve it?

First, we must agree on the meaning of safe and safe. There are several definitions used in the occupational safety and health field. Safety is not getting hurt or the presence of controls. At a fundamental level, we can agree that safety means free from harm, and safety means free from the recognized hazards that cause harm. Nevertheless, doesn’t it mean more than being free from harm or hazards that cause harm?

Let us dive deeper and discuss some of the leading definitions of safety. This article examines how ASSP, BBS, HP, NSC, and Safety System Engineering define safety.  

American Society of Safety Professionals (ASSP)

The American Society of Safety Professionals (ASSP) defines safety as the “state in which the risk of harm to persons or property damage is reduced to, and maintained at or below, an acceptable level through a continuing process of hazard identification and risk management.” This definition emphasizes the importance of identifying potential hazards and implementing measures to reduce the risk of harm to an acceptable level.

Behavior-Based Safety (BBS)

Behavior-Based Safety (BBS) is an approach that emphasizes the role of human behavior in safety. According to the BBS philosophy, safety results from behaviors that reduce or eliminate the risk of injury or illness. BBS focuses on identifying and changing unsafe behaviors through positive reinforcement and coaching.

One source that discusses this definition is “The Handbook of Behavior-Based Safety” by E. Scott Geller and Robert A. Brinkerhoff. In this book, the authors describe BBS as “a process that creates a safety partnership between management and employees that continually focuses people’s attentions and actions on theirs, and others, daily safety behavior.” (Geller & Brinkerhoff, 2010, p. 5).

Human Performance (HP)

Human Performance is an approach to safety that recognizes human error is inevitable and seeks to identify and address the underlying causes of error. According to the Human Performance Improvement Handbook by the US Department of Energy, safety is defined as “the state in which the risk of harm to persons or property damage is reduced to, and maintained at or below, an acceptable level through a continuing process of hazard identification and risk management.” This definition emphasizes the need for ongoing attention to hazards and risks to maintain safety.

National Safety Council (NSC)

The National Safety Council (NSC) defines safety as “the state in which risks and hazards are eliminated or controlled to acceptable levels so that people are not harmed.” This definition includes ensuring individuals are free from physical, emotional, and psychological harm in the workplace and other settings.

Safety Management System (SMS)

The ANSI/AIHA Z10-2012 standard for Occupational Health and Safety Management Systems defines safety as the “freedom from unacceptable risk of harm.” It includes the prevention of injuries and illnesses, protection of the physical and psychological well-being of workers, and the preservation of property and the environment.

The ISO Safety Management System (SMS) defines safety as “freedom from unacceptable risk of harm.” This definition considers the risk of harm from a particular activity or situation. It emphasizes the need to manage risks to an acceptable level rather than eliminating them.

Systems Safety Engineering

Systems Safety Engineering is an approach to safety that focuses on designing and operating systems to identify and mitigate hazards. It involves a systematic process of hazard identification, risk assessment, and risk mitigation to reduce the likelihood of accidents and minimize their impact.

One definition of systems Safety Engineering comes from the Department of Defense Standard Practice for System Safety (MIL-STD-882E), defined as “a specialty of system engineering that supports programs in managing risk to the system, people, and environment throughout the life cycle of the system.

Conclusion

The meaning of safety is not universal and can vary between cultures and contexts. However, at a fundamental level, safety means freedom from harm or recognized hazards that cause harm. Different organizations and approaches to safety may have varying definitions of safety. Still, they all emphasize the importance of hazard identification, risk management, and ongoing attention to maintain safety. Defining safety and safety management within an organization’s safety management system is crucial to achieving a shared understanding and a culture of safety. Ultimately, safety is a continuing process that requires collaboration between management and employees to ensure the well-being of individuals and property.

References

American Society of Safety Professionals (ASSP). (2021). Definition of Safety. Retrieved from https://www.assp.org/about/definition-of-safety

American National Standards Institute. (2012). Occupational health and safety management systems. ANSI/AIHA Z10-2012.

Christ, G., (2022). NSC 2015: Redefining Safety – Living in the Context, Not the Consequence. Ehstoday.com. https://www.ehstoday.com/safety-leadership/article/21917131/nsc-2015-redefining-safety-living-in-the-context-not-the-consequence

Geller S. E. (2001). How to Get More People Involved in Behavior-Based Safety: Selling an Effective Process. Cambridge Center. http://www.behavior.org/resources/332.pdf

Geller, E. S., & Brinkerhoff, R. A. (2010). The handbook of behavior-based safety. CRC Press.

International Organization for Standardization. (2018). ISO 45001:2018 Occupational Health and Safety Management Systems – Requirements with guidance for use. https://www.iso.org/standard/63787.html

Lawrence, J. W. (1996). Software safety hazard analysis. Lawrence Livermore National Laboratory. https://www.osti.gov/servlets/purl/201805

National Safety Council. (2021). NSC Safety Glossary. Retrieved from https://www.nsc.org/-/media/NSC/Document/NSC-Safety-Glossary.ashx

US Department of Energy. (2010). Human Performance Improvement Handbook, Volume 1: Concepts and Principles. Washington, DC: Office of Health, Safety and Security.

United States Department of Defense. (2012). Standard Practice for System Safety (MIL-STD-882E).