Understanding the difference between hazard and risk is fundamental to effective safety management and enterprise risk strategy. The difference between hazard and risk shapes how organizations identify threats, allocate resources, and implement controls.
While the terms are often used interchangeably, the difference between hazard and risk drives every meaningful decision in occupational safety, ISO 31000 risk management, and OSHA compliance.
| Key Takeaways |
| A hazard is any source, situation, or act with the potential to cause harm. A risk is the combination of the likelihood that a hazard will cause harm and the severity of that harm—two fundamentally different concepts that drive different management actions. |
| ISO 31000:2018 defines risk as the “effect of uncertainty on objectives,” broadening the concept beyond physical safety to include strategic, financial, operational, and reputational dimensions. |
| The Bureau of Labor Statistics recorded 5,070 fatal work injuries in the United States in 2024 and 2.5 million nonfatal injury and illness cases—each one the result of a hazard that was not adequately controlled. |
| OSHA’s hierarchy of controls (elimination, substitution, engineering, administrative, PPE) provides a structured priority for reducing risk from identified hazards—with elimination being the most effective and PPE the least. |
| Risk assessment is the bridge between hazard identification and control implementation: it quantifies which hazards demand immediate action and which can be monitored through KRIs and regular review. |
| OSHA’s 2026 regulatory agenda includes a federal heat illness prevention standard, expanded recordkeeping, and stricter enforcement in high-hazard industries—raising the stakes for organizations that confuse hazard awareness with risk management. |
The Bureau of Labor Statistics reported 5,070 fatal work injuries in the United States in 2024—one worker killed every 104 minutes. Employers reported 2.5 million nonfatal injuries and illnesses, the lowest since 2003 but still staggering in scale.
Behind every one of those statistics sits a fundamental question that too many safety professionals and risk managers still get wrong: what is the difference between hazard and risk? Getting this distinction right is not academic.
The difference between hazard and risk shapes how every safety program operates, and misunderstanding it leads directly to preventable injuries and citations.
Organizations that confuse hazards with risks allocate resources poorly, build incomplete control frameworks, and leave workers exposed to preventable harm.
This confusion extends well beyond workplace safety. In enterprise risk management, the same conceptual error leads teams to catalog threats without assessing probability or impact—producing risk registers full of hazards but empty of actionable intelligence.
This article draws a clear line between hazards and risks, maps both concepts to ISO 31000 and OSHA frameworks, and provides the assessment tools that practitioners need to move from identification to control.
Difference Between Hazard and Risk: Precise Definitions That Drive Action
A hazard is any source, situation, or act with the potential to cause harm—whether injury, illness, property damage, or environmental degradation. OSHA defines a hazard broadly as a dangerous condition or activity that, if left uncontrolled, can cause injury or illness.
ISO 45001 (Occupational Health and Safety Management Systems) uses similar language: a hazard is a source or situation with potential for harm in terms of human injury or ill health.
A risk, by contrast, is the combination of the likelihood that a hazard will cause harm and the severity of that harm. ISO 31000:2018 takes this further, defining risk as the “effect of uncertainty on objectives”—a definition that encompasses safety risks but also strategic, financial, compliance, and reputational risks.
Under COSO ERM, risk is similarly tied to objectives: an uncertain event that, if it occurs, could affect the achievement of organizational goals. This dual framing—safety on one hand, enterprise outcomes on the other—is exactly why the difference between hazard and risk matters at every level of the organization, from frontline supervisors to the board.
The critical insight: a hazard exists whether or not anyone is exposed to it. A chemical stored in a sealed container is still a hazard. The risk only materializes when someone interacts with that hazard—opens the container, inhales the fumes, or spills the substance. This distinction drives everything that follows in assessment and control.
Side-by-Side Comparison: Difference Between Hazard and Risk
| Dimension | Hazard | Risk |
| Definition | A source, situation, or act with potential to cause harm | The likelihood of harm occurring and the severity of its consequences |
| Nature | Inherent property—exists regardless of exposure | Contextual—depends on exposure, vulnerability, and controls in place |
| Example (Physical) | A wet floor in a warehouse | The probability that a worker will slip on the wet floor and sustain a fracture (likelihood × severity) |
| Example (Chemical) | Hydrochloric acid stored on site | The probability of worker exposure through skin contact or inhalation, multiplied by the severity of chemical burns or respiratory damage |
| Example (Strategic) | Market disruption from a new competitor | The probability that market share drops >10% within 12 months, leading to revenue shortfall and talent attrition |
| ISO 31000 Framing | Recognized as a risk source (Clause 6.4.2) | The effect of uncertainty on objectives (Clause 3.1) |
| OSHA Treatment | Identified through workplace inspections and hazard assessments | Evaluated through risk assessment to determine control priorities |
| Management Action | Identify and document | Assess likelihood and impact; select and implement controls; monitor through KRIs |
Categories of Workplace Hazards: A Taxonomy for Risk Practitioners
Effective hazard identification requires a structured taxonomy. OSHA and NIOSH recognize six primary hazard categories, each with distinct characteristics, exposure pathways, and control requirements. Risk practitioners should use this taxonomy to ensure comprehensive coverage in their risk assessment process.
| Hazard Category | Definition | Common Examples | Exposure Pathway | Typical Consequence | Control Priority (Hierarchy) |
| Physical | Energy sources that can cause injury through contact or proximity | Noise, vibration, radiation, temperature extremes, moving machinery, electrical | Direct contact, proximity, environmental exposure | Hearing loss, burns, fractures, electrocution, heat stroke | Engineering controls: machine guarding, noise barriers, ventilation |
| Chemical | Substances that can cause harm through exposure | Solvents, acids, dusts, fumes, gases, pesticides, cleaning agents | Inhalation, skin absorption, ingestion, injection | Respiratory disease, chemical burns, cancer, organ damage | Substitution with less hazardous chemical; enclosed processes; LEV |
| Biological | Living organisms or their products that can cause disease | Bacteria, viruses, fungi, bloodborne pathogens, animal allergens | Inhalation, ingestion, skin contact, needlestick, insect bite | Infection, allergic reaction, respiratory illness, zoonotic disease | Engineering: BSL cabinets; Administrative: vaccination, hand hygiene |
| Ergonomic | Workplace conditions that strain the musculoskeletal system | Repetitive motion, heavy lifting, awkward postures, vibration, static work | Sustained physical activity, poor workstation design | Musculoskeletal disorders, carpal tunnel, chronic back pain | Workstation redesign; job rotation; mechanical lifting aids |
| Psychosocial | Workplace factors affecting mental health and well-being | Excessive workload, bullying, violence, shift work, isolation | Organizational culture, management practices, work design | Stress, anxiety, depression, burnout, PTSD | Administrative: workload management, EAP, anti-violence policies |
| Safety | Conditions that create immediate risk of injury | Unguarded machinery, fall hazards, confined spaces, fire hazards, electrical | Physical interaction with hazardous conditions | Fractures, lacerations, crushing, falls, death | Elimination first; then engineering guards, barriers, lockout/tagout |
From Hazard to Risk: The Assessment Bridge
Hazard identification answers the question “what could cause harm?” Risk assessment answers “how likely is harm, and how bad would it be?” Without this second step, organizations cannot prioritize—every hazard looks equally dangerous. A structured risk assessment matrix converts identified hazards into scored risks that drive resource allocation and control decisions. In short, the difference between hazard and risk is the bridge between identification and prioritized action.
NIOSH uses a three-step process for occupational risk assessment: hazard identification, exposure assessment, and dose-response analysis.
ISO 31000 outlines a broader process: risk identification, risk analysis, and risk evaluation—each building on the previous step. Both approaches share the same logic: you cannot manage what you have not measured.
Organizations that skip risk assessment and jump straight from hazard identification to controls waste resources on low-probability hazards while leaving high-probability ones inadequately addressed.
Risk Scoring Matrix: Translating Hazards into Actionable Risk Levels
| Hazard Example | Likelihood (1-5) | Severity (1-5) | Risk Score | Risk Level & Action |
| Unguarded saw blade in workshop | 5 – Almost Certain | 5 – Fatal / Catastrophic | 25 | Extreme: Stop work immediately; eliminate or engineer out the hazard before resuming operations |
| Chemical fumes in enclosed space | 4 – Likely | 4 – Major injury / Chronic illness | 16 | High: Implement engineering controls (LEV) within 7 days; PPE as interim measure |
| Ergonomic strain from repetitive assembly | 4 – Likely | 3 – Moderate injury / Lost time | 12 | High: Redesign workstation within 30 days; implement job rotation immediately |
| Wet floor near loading dock | 3 – Possible | 3 – Moderate injury | 9 | Medium: Install anti-slip matting and signage within 14 days; add to inspection checklist |
| Low-level noise in office area | 2 – Unlikely | 2 – Minor / First aid only | 4 | Low: Monitor through routine inspections; no immediate action required |
| Tripping hazard from loose cable (seldom-used area) | 2 – Unlikely | 2 – Minor | 4 | Low: Include in next scheduled maintenance cycle; document in risk register |
Risk scores determine the urgency and type of response. A risk appetite statement defines the organization’s threshold for acceptable residual risk. Scores above that threshold require active treatment. Scores below it require monitoring through key risk indicators with defined RAG thresholds.
The Hierarchy of Controls: From Hazard to Managed Risk
NIOSH’s hierarchy of controls is the gold standard for determining how to reduce risk from identified hazards. The hierarchy prioritizes interventions by effectiveness, with elimination being the most reliable and PPE being the least.
OSHA inspectors evaluate whether employers have followed this hierarchy when assessing compliance, and failure to apply higher-order controls when feasible can result in citations—with fines up to $16,550 per serious violation as of January 2025, and $165,514 for willful or repeated violations.
| Control Level | Definition | Example | Effectiveness | Cost Profile | ISO 31000 Alignment |
| Elimination | Physically remove the hazard from the workplace | Redesign process to eliminate manual lifting; remove toxic chemical from formulation | Highest: hazard no longer exists | High upfront; lowest long-term | Risk avoidance (Clause 6.5.2) |
| Substitution | Replace the hazard with a less dangerous alternative | Use water-based paint instead of solvent-based; replace sharp blade with laser cutter | Very High: reduces inherent severity | Moderate upfront; moderate ongoing | Risk reduction (Clause 6.5.2) |
| Engineering Controls | Isolate people from the hazard through physical means | Machine guarding, local exhaust ventilation, blast shields, automated material handling | High: does not rely on worker behavior | Moderate to high upfront; low ongoing | Risk reduction (Clause 6.5.2) |
| Administrative Controls | Change the way people work through procedures and training | Job rotation schedules, safety signage, permit-to-work systems, lockout/tagout procedures | Moderate: relies on consistent human compliance | Low to moderate; ongoing training costs | Risk reduction (Clause 6.5.2) |
| PPE | Protect the worker with personal equipment | Respirators, safety glasses, hard hats, chemical-resistant gloves, hearing protection | Lowest: last line of defense; dependent on proper use | Low per unit; ongoing replacement and training | Risk reduction (Clause 6.5.2) |
OSHA Compliance: Where Hazard Identification Meets Regulatory Risk
The most frequently cited OSHA violations in 2024 were fall protection, hazard communication, lockout/tagout, ladder safety, and respiratory protection—the same categories that have topped the list for multiple years.
Each of these violations represents a hazard that was identified by OSHA but not adequately controlled by the employer. The gap between knowing a hazard exists and managing the risk it creates is exactly where OSHA penalties land.
OSHA’s 2026 regulatory agenda raises the stakes further. Key developments include a federal heat illness prevention standard requiring hydration plans, work-rest schedules, and employee training; expanded recordkeeping obligations for high-hazard industries; updated hazard communication standards aligned with GHS Revision 7; and increased enforcement activity with more frequent inspections.
Organizations that integrate their OSHA compliance risk assessment with their broader enterprise risk management framework will manage this regulatory landscape far more efficiently.
Regulatory Risk Matrix: Mapping Hazard Types to Compliance Requirements
| Hazard Type | Primary OSHA Standard | Key Requirement | Violation Penalty (2025) | KRI to Monitor | Framework Reference |
| Falls from Height | 29 CFR 1926.501 | Fall protection required at 6 feet in construction; guardrails, nets, or personal fall arrest systems | $16,550 serious; $165,514 willful | # of fall protection deficiencies per inspection >0 | ISO 45001 Cl. 8.1.2 |
| Chemical Exposure | 29 CFR 1910.1200 (HazCom) | Safety Data Sheets, labeling per GHS Rev 7, employee training on chemical hazards | $16,550 serious; $165,514 willful | Overdue SDS reviews >0; training completion <95% | OSHA HCS, GHS Rev 7 |
| Machine Energy | 29 CFR 1910.147 (LOTO) | Lockout/tagout procedures for maintenance and servicing of machines | $16,550 serious; $165,514 willful | LOTO audit non-conformances per quarter >2 | ISO 45001 Cl. 8.1.2 |
| Heat Stress | Proposed federal standard (2026) | Hydration plans, work-rest schedules, employee training, acclimatization protocols | TBD—anticipated to align with serious violation penalties | Outdoor temperature alerts >95°F; heat illness reports >0 | OSHA General Duty Clause pending |
| Respiratory Hazards | 29 CFR 1910.134 | Respiratory protection program including fit testing, medical clearance, training | $16,550 serious; $165,514 willful | Overdue fit tests >0; air monitoring exceedances >PEL | NIOSH RELs, OSHA PELs |
| Electrical | 29 CFR 1910 Subpart S | Wiring design, protective grounding, electrical safety-related work practices | $16,550 serious; $165,514 willful | Electrical inspection deficiencies >0; arc flash incidents | NFPA 70E |
Sector-Specific Hazard and Risk Profiles: Where the Numbers Tell the Story
Hazard exposure and risk levels vary dramatically by industry. Agriculture and transportation consistently have the highest fatal injury rates, while healthcare leads in nonfatal injury volume due to patient handling and workplace violence. \
Understanding your sector’s hazard profile allows more targeted allocation of risk mitigation resources and helps prioritize risk register entries.
| Industry | Top Hazard Category | Fatal Injury Rate (per 100K FTE) | Nonfatal Rate (per 100 FTE) | Primary OSHA Focus | Control Priority |
| Agriculture/Forestry | Machinery, vehicles, animals, heat | 21.3 | 4.5 | Tractor rollover protection, heat illness, confined spaces | Engineering: ROPS on tractors; Administrative: heat acclimatization plans |
| Construction | Falls, struck-by, electrocution, caught-in | 9.2 | 2.8 | Fatal Four hazards, silica exposure, scaffolding | Engineering: guardrails, machine guarding; PPE: fall arrest systems |
| Transportation/Warehousing | Vehicle incidents, material handling | 12.5 | 3.8 | Roadway safety, forklift operations, fatigue management | Administrative: hours-of-service rules; Engineering: collision avoidance systems |
| Healthcare | Patient handling, workplace violence, bloodborne pathogens | 0.7 | 3.4 | Safe patient handling, workplace violence prevention, sharps safety | Engineering: mechanical lifts; Administrative: violence prevention programs |
| Manufacturing | Machine guarding, chemical exposure, noise | 2.1 | 2.9 | Lockout/tagout, respiratory protection, noise conservation | Engineering: machine guarding, LEV; Administrative: hearing conservation |
| Oil & Gas/Mining | Explosions, confined spaces, H2S, falls | 9.8 | 2.2 | Process safety management, well control, confined space entry | Engineering: process controls, ventilation; Administrative: permit-to-work |
Closing the Gap: A 90-Day Hazard-to-Risk Management Roadmap
| Phase | Actions | Deliverables | Success Metrics |
| Days 1–30: Hazard Inventory | Conduct comprehensive hazard walk-through of all work areas; classify hazards using the six-category taxonomy; engage frontline workers in hazard identification workshops; review OSHA 300 logs and incident history for recurring hazard patterns | Complete hazard inventory by work area and category; Hazard register with source, location, and affected population; Worker participation records from identification workshops | 100% of work areas inventoried; ≥90% frontline worker participation in hazard ID workshops; All OSHA 300 log entries reviewed for the past 3 years |
| Days 31–60: Risk Assessment & Scoring | Score all identified hazards using likelihood × severity matrix; assign KRIs with RAG thresholds for top 15 hazards; map regulatory requirements to each hazard category; conduct exposure assessments for chemical and physical hazards | Scored risk register with inherent ratings; KRI dashboard with automated alerts; Regulatory compliance matrix by hazard type; Exposure monitoring reports for priority hazards | Top 15 hazards have assigned KRIs with owners; Risk register platform live with scored data; All applicable OSHA standards mapped to relevant hazards |
| Days 61–90: Controls & Monitoring | Implement controls following the hierarchy of controls for all high and extreme risks; develop standard operating procedures for medium risks; conduct training on new controls and emergency procedures; establish quarterly hazard review cadence | Control implementation register with evidence of completion; Updated SOPs for all medium-risk activities; Training completion records; Quarterly review calendar | All extreme and high risks have engineering or elimination controls implemented; Training completion ≥95%; Quarterly hazard review schedule approved by management |
Common Mistakes Managing the Difference Between Hazard and Risk
| Pitfall | Root Cause | Remedy |
| Treating hazard identification as risk management | Organizations equate listing hazards with assessing risk; no scoring or prioritization occurs | Implement a formal risk assessment process using a likelihood × severity matrix; score every identified hazard before allocating control resources |
| Jumping straight to PPE without considering higher-order controls | PPE is visible and easy to implement; engineering controls require capital investment and design effort | Enforce the hierarchy of controls: require documented justification for any risk where PPE is selected before elimination, substitution, or engineering options are exhausted |
| Static hazard registers that are never updated | Hazard register created during initial setup but never revisited; no trigger for re-assessment after incidents, near-misses, or process changes | Require risk register updates after every incident, near-miss, process change, and new equipment installation; schedule quarterly reviews as a governance requirement |
| Excluding frontline workers from hazard identification | Top-down approach where managers identify hazards without consulting workers who face them daily | Implement structured hazard identification workshops with frontline participation; create a no-blame near-miss reporting system; include worker input as a mandatory element of risk assessments |
| Confusing hazard severity with risk level | A highly toxic chemical stored safely is treated as extreme risk, while a moderate hazard with high exposure frequency is underestimated | Risk = likelihood × severity; assess exposure frequency, duration, and existing controls—not just the inherent severity of the hazard in isolation |
| Ignoring psychosocial hazards | Traditional safety programs focus exclusively on physical hazards; psychosocial factors like workload, bullying, and shift patterns are overlooked | Expand hazard taxonomy to include psychosocial categories; use employee surveys and turnover data as leading indicators; align with ISO 45003 (psychological health at work) |
FAQ Section: Difference Between Hazard and Risk
Difference Between Hazard and Risk: Your Questions Answered
Practitioners and students searching for the difference between hazard and risk keep hitting the same eight questions, and most of them sit just outside the scope of the main guide above.
The answers below are kept short on purpose so the page can earn FAQ rich snippets and AI citations, and so a busy safety officer can scan them between site walks. Inline citations point to OSHA, NIOSH, ISO, and ENISA when the definition matters.
Is “danger” the same as a hazard, and where does it sit relative to the difference between hazard and risk?
Danger is informal English. Hazard and risk are technical terms. OSHA’s hazard identification guidance treats hazard as the source with potential to cause harm and risk as the likelihood-times-severity of that harm being realized.
“Danger” tends to mean perceived risk in everyday speech. In any documented safety system or risk register, replace “danger” with the precise term — hazard for the source, risk for the exposure outcome.
What is the difference between a hazard, a risk, and a threat?
Hazard is the source with potential to cause harm; risk is the probability and severity of harm if exposure occurs; threat is the actor or event that could exploit a hazard or vulnerability.
NIST’s Glossary of Risk Terms defines threat as the trigger and risk as the calculated outcome. In safety contexts, “threat” is rare. In cybersecurity, the three terms describe different layers of the same model.
How does the difference between hazard and risk map to ISO 31000 and ISO 45001?
ISO 31000:2018 treats risk as the effect of uncertainty on objectives — broader than safety alone — while ISO 45001:2018 treats hazard as a source of potential injury or ill health, and OH&S risk as the combination of likelihood and severity.
The two standards are compatible: ISO 45001’s hazard-and-risk loop sits inside the wider ISO 31000 enterprise risk framework.
Can a low-likelihood hazard create a high risk in the difference between hazard and risk model?
Yes, and this is where most rookie risk registers fall apart. A chemical release in a populated facility is low frequency but catastrophic in consequence, which produces a high risk score even when the probability is small.
CCOHS guidance makes the same point. Frequency tables alone do not represent risk; consequence severity has to multiply in or the important hazards get filtered out before anyone sees them.
What is the difference between inherent risk and residual risk when applying the hazard-and-risk concept?
Inherent risk is the risk arising from the hazard before any controls are applied. Residual risk is what remains after the hierarchy of controls — elimination, substitution, engineering, administrative, PPE — has been applied.
The NIOSH hierarchy of controls is the canonical reference. A defensible risk register tracks both numbers per hazard so reviewers can see how much risk reduction the controls actually deliver.
What is the difference between hazard analysis and risk assessment as documented processes?
Hazard analysis is just the identification step. It lists the sources of potential harm in a workplace, process, or system.
Risk assessment is the larger workflow that wraps around that list, adding likelihood scoring, severity estimation, comparison to tolerance, and a treatment decision. OSHA’s hazard identification page treats hazard analysis as the input; ISO 31000 frames the full risk assessment as the documented decision.
How does the difference between hazard and risk apply in a cybersecurity context?
In cybersecurity, the equivalent triad is asset, threat, and vulnerability. A vulnerability is the cyber analogue of a hazard — a weakness with potential for harm.
Threats exploit vulnerabilities, and risk is the calculated outcome. ENISA’s risk management glossary and NIST SP 800-30 both use this layered model. The same hazard-and-risk logic translates directly into cyber risk registers.
Who is legally responsible under OSHA for documenting the difference between hazard and risk?
US employers carry the legal duty under the OSHA General Duty Clause (Section 5(a)(1)) to identify hazards and assess risks in workplaces under their control. The duty cannot be delegated to a vendor or consultant.
Practitioners can perform the analysis, but the employer signs the record. Failure to document hazard identification and risk assessment is a frequent root cause of OSHA citations and post-incident litigation.
The Evolving Hazard Landscape: Regulatory and Emerging Trends Through 2027
OSHA’s 2026 agenda signals a regulatory shift toward proactive hazard management. The proposed federal heat illness prevention standard will require employers to implement written heat illness prevention plans, provide hydration stations and shaded rest areas, establish work-rest schedules based on heat index, and train workers and supervisors on heat-related illness recognition.
With at least 43 confirmed worker deaths from heat stress in 2022 alone, this standard addresses a hazard that climate change is making progressively worse.
AI and automation are introducing new hazard categories that traditional safety programs don’t address. Collaborative robots (cobots), autonomous vehicles in warehouses, and AI-driven process controls create novel human-machine interaction hazards.
Organizations need to update their hazard taxonomies and risk assessment matrices to include these technology-driven hazard categories. The AI risk assessment framework provides a starting point for organizations deploying AI in operational environments.
The convergence of occupational health and enterprise risk management is accelerating. ISO 45001 (occupational health and safety) and ISO 31000 (risk management) share common principles: leadership commitment, worker participation, systematic assessment, and continuous improvement.
Organizations that integrate their safety hazard programs with their ERM frameworks gain a unified view of risk—connecting shop-floor hazards to board-level risk appetite in a way that drives consistent funding, governance, and accountability.
The difference between hazard and risk is not a semantic distinction. Organizations that understand the difference between hazard and risk build targeted, cost-effective control programs.
Those that do not waste resources on the wrong priorities and leave workers exposed to preventable harm. The frameworks exist. The data exists. The only question that remains is whether your organization will apply the difference between hazard and risk with the rigor that effective safety governance demands.
Ready to strengthen your hazard identification and risk assessment program? Visit riskpublishing.com for practitioner-grade frameworks, templates, and consulting services.
Explore our risk management consulting services or contact our team to discuss how we can help you build a hazard-to-risk management process that protects your workforce and your objectives. Acting on the difference between hazard and risk is what separates compliant programs from truly resilient ones.
Mastering the difference between hazard and risk transforms safety culture and elevates risk governance. Whether you are mapping hazards in a manufacturing plant or building an enterprise risk register, the difference between hazard and risk should guide every prioritization decision.
Practitioners who internalize the difference between hazard and risk apply the hierarchy of controls more effectively, allocate resources to the threats with the highest probability and severity, and align safety programs with ISO 31000 and OSHA expectations. The difference between hazard and risk is the foundation of every credible risk management framework.
References
1. ISO 31000:2018 Risk Management – Guidelines – International Organization for Standardization
2. OSHA Safety Management – Hazard Identification and Assessment – Occupational Safety and Health Administration
3. BLS Census of Fatal Occupational Injuries 2024 – Bureau of Labor Statistics
4. BLS Employer-Reported Workplace Injuries and Illnesses 2024 – Bureau of Labor Statistics
5. NIOSH Occupational Risk Assessment – National Institute for Occupational Safety and Health
6. ISO 45001:2018 Occupational Health and Safety Management Systems – International Organization for Standardization
7. COSO Enterprise Risk Management Framework – Committee of Sponsoring Organizations
8. OSHA 2024 Workplace Injury and Illness Data – OSHA Injury Tracking Application
9. AFL-CIO Death on the Job Report 2025 – AFL-CIO
10. OSHA 2026 Regulatory Agenda – OSHA Standards Development
11. ISO 45003:2021 Psychological Health and Safety at Work – International Organization for Standardization
12. NFPA 70E Standard for Electrical Safety in the Workplace – National Fire Protection Association
13. ISO Identifying OHS Hazards and Managing Risks – International Organization for Standardization
14. Gartner Quarterly Emerging Risk Report – Gartner, Inc.
15. OSHA Statistics 2025–2026 – EHS Practice
Chris Ekai is a Risk Management expert with over 10 years of experience in the field. He has a Master’s(MSc) degree in Risk Management from University of Portsmouth and is a CPA and Finance professional. He currently works as a Content Manager at Risk Publishing, writing about Enterprise Risk Management, Business Continuity Management and Project Management.