Health and Safety Engineers, Except Mining Safety Engineers and Inspectors
SOC Code: 17-2111.00
Architecture & EngineeringHealth and Safety Engineers design systems, processes, and procedures to protect people from illness, injury, and property damage in workplaces and consumer products. With a median salary of $109,660, this profession combines engineering expertise with regulatory knowledge to create safer environments across every industry. These professionals are essential to organizations seeking to prevent costly accidents, comply with OSHA regulations, and foster cultures of safety that protect workers and the public.
Salary Overview
Median
$109,660
25th Percentile
$85,400
75th Percentile
$136,150
90th Percentile
$166,670
Salary Distribution
Job Outlook (2024–2034)
Growth Rate
+4.4%
New Openings
1,500
Outlook
As fast as average
Key Skills
Knowledge Areas
What They Do
- Investigate industrial accidents, injuries, or occupational diseases to determine causes and preventive measures.
- Conduct research to evaluate safety levels for products.
- Evaluate product designs for safety.
- Conduct or coordinate worker training in areas such as safety laws and regulations, hazardous condition monitoring, and use of safety equipment.
- Maintain and apply knowledge of current policies, regulations, and industrial processes.
- Recommend procedures for detection, prevention, and elimination of physical, chemical, or other product hazards.
- Report or review findings from accident investigations, facilities inspections, or environmental testing.
- Evaluate potential health hazards or damage that could occur from product misuse.
Tools & Technology
★ = Hot Technology (in-demand)
Education Requirements
Typical entry-level education: Bachelor's Degree
Related Careers
Top Career Pivot Targets
View all 39 →Careers with the highest skill compatibility from Health and Safety Engineers, Except Mining Safety Engineers and Inspectors.
A Day in the Life
A health and safety engineer's day typically begins with reviewing incident reports, near-miss data, and safety metrics from operations. They conduct workplace inspections and job hazard analyses, walking production floors, construction sites, or office environments to identify potential risks in equipment, processes, and worker behaviors. A significant portion of the day involves designing or recommending engineering controls—such as machine guards, ventilation systems, fall protection, or ergonomic workstation modifications—that eliminate or reduce hazards at the source. They analyze technical data from noise measurements, air quality sampling, and equipment performance to assess risk levels and prioritize corrective actions. Meetings with management, operations teams, and regulatory agencies are frequent, as engineers present findings, propose safety improvements, and coordinate implementation timelines. Developing and delivering safety training programs for employees is a regular responsibility. They also review product designs and manufacturing processes for consumer safety compliance. Documentation and record-keeping for OSHA, EPA, and other regulatory bodies rounds out the workday.
Work Environment
Health and safety engineers split their time between office and field environments, with the ratio varying by employer and specialization. Office work involves data analysis, report writing, regulatory research, and safety program development using computational tools and databases. Field work takes engineers into manufacturing plants, construction sites, laboratories, warehouses, and outdoor worksites where they observe operations, conduct measurements, and evaluate hazards firsthand. The role requires wearing appropriate personal protective equipment during site visits, which may include hard hats, safety glasses, steel-toed boots, and hearing protection. Travel between facilities is common for engineers supporting multiple sites or working in consulting. Most positions follow standard business hours, but incident investigations and emergency response situations can require immediate availability. The work carries significant responsibility, as engineering decisions directly affect worker safety and regulatory compliance. Despite the weight of this responsibility, the role is generally less physically demanding than many engineering specialties and offers a collegial professional environment.
Career Path & Advancement
Health and safety engineering typically requires a bachelor's degree in engineering—commonly industrial, mechanical, chemical, or environmental engineering—with coursework or concentration in occupational safety. Some professionals enter the field with engineering degrees in other disciplines and earn graduate certificates or master's degrees in occupational safety and health. Graduating from an ABET-accredited program is important for career advancement and professional licensure. Early career engineers work under the supervision of experienced professionals, gaining practical experience in hazard identification, risk assessment, and safety system design. Earning the Certified Safety Professional designation from the Board of Certified Safety Professionals is considered the gold standard credential and significantly enhances career prospects. Engineers can advance to senior safety engineer, safety director, and vice president of environmental health and safety positions. Some specialize in consulting, advising multiple organizations on safety compliance and risk management. Academic and research positions at universities and government agencies like NIOSH are available for those with advanced degrees.
Specializations
Health and safety engineering spans numerous specializations aligned with specific industries and hazard types. Process safety engineers focus on preventing catastrophic events in chemical plants, refineries, and industrial facilities through hazard and operability studies and process hazard analyses. Fire protection engineers design suppression systems, egress routes, and building features to prevent and mitigate fire-related losses. Ergonomic engineers study human-machine interactions to reduce musculoskeletal injuries and improve workplace comfort and productivity. Construction safety engineers develop site-specific safety plans, fall protection systems, and excavation protocols for building projects. Product safety engineers evaluate consumer products for compliance with safety standards and design defects that could cause injury. Environmental safety engineers address hazards related to air quality, water contamination, and hazardous waste management. Nuclear safety engineers ensure that radiation exposure is minimized and nuclear facilities operate within strict regulatory parameters. Transportation safety engineers analyze vehicle, aviation, or rail systems to prevent accidents and improve crash survivability.
Pros & Cons
Advantages
- ✓High median salary well above the national average for all occupations
- ✓Meaningful work directly protecting human health and safety
- ✓Strong job demand across virtually every industry sector
- ✓Blend of office and field work provides variety
- ✓Professional certifications enhance credibility and earning potential
- ✓Growing influence in organizational decision-making and leadership
- ✓Lower physical demands compared to many other engineering roles
Challenges
- ✗Heavy responsibility as safety failures can result in injuries or fatalities
- ✗Organizational resistance to safety recommendations that increase costs
- ✗Complex and constantly evolving regulatory landscape to keep current with
- ✗Incident investigations can be stressful and emotionally difficult
- ✗Potential for adversarial relationships when enforcing safety standards
- ✗Requires continuous professional development and certification maintenance
- ✗Travel requirements can be significant for multi-site or consulting roles
Industry Insight
Health and safety engineering is experiencing growing importance as organizations recognize that proactive safety management reduces costs, improves productivity, and protects reputation. Regulatory complexity continues to increase, with new OSHA standards, EPA regulations, and international safety requirements expanding the scope of compliance obligations. Data analytics and predictive safety models are transforming how engineers identify and address risks before incidents occur, moving the profession from reactive to proactive. Wearable technology such as fatigue monitors, heat stress sensors, and proximity detection systems are providing real-time safety data that engineers integrate into protection strategies. The rise of automation and robotics in manufacturing introduces new safety challenges around human-robot collaboration that require engineering solutions. Mental health and psychological safety in the workplace are emerging areas where safety engineers are expanding their influence. Sustainability and safety are increasingly linked, with green building standards and environmental compliance creating interdisciplinary opportunities. The Bureau of Labor Statistics projects stronger than average growth for this occupation, driven by continued emphasis on workplace safety and regulatory compliance.
How to Break Into This Career
Aspiring health and safety engineers should pursue an engineering degree from an ABET-accredited program, ideally with electives or a minor in occupational safety, industrial hygiene, or risk management. Internships and co-op programs with manufacturers, construction firms, insurance companies, or government agencies provide invaluable practical experience. Joining student chapters of the American Society of Safety Professionals during college builds professional networks and awareness of career opportunities. Entry-level positions may be titled safety engineer, loss control engineer, or EHS specialist, depending on the employer and industry. Passing the Fundamentals of Engineering exam during or shortly after college sets the foundation for eventually earning a Professional Engineer license. Studying for and obtaining the Associate Safety Professional credential early in your career demonstrates commitment to the profession. Engineers from other disciplines looking to transition into safety should seek roles that combine their existing engineering expertise with safety responsibilities. Demonstrating analytical thinking, communication skills, and a genuine concern for worker wellbeing impresses hiring managers across all industries.
Career Pivot Tips
Engineers from other disciplines have the most natural pathway into health and safety engineering. Mechanical, chemical, industrial, and electrical engineers already possess the technical foundation and analytical methods used in safety analysis and control design. Military officers and NCOs with force protection, weapons safety, or occupational health experience bring structured risk assessment skills and leadership that translate directly. Industrial hygienists can expand into safety engineering by adding engineering design skills to their existing hazard assessment expertise. Insurance loss control professionals understand risk quantification, claims data analysis, and client advisory functions that parallel corporate safety roles. Quality engineers and managers share many tools and methodologies with safety engineering, including root cause analysis, failure mode effects analysis, and statistical process control. Construction managers with strong safety records can transition into dedicated safety engineering roles, particularly in the construction sector. Project management skills from any field support the planning, budgeting, and cross-functional coordination that safety program implementation demands. Human factors and psychology professionals bring valuable perspectives on behavioral safety and organizational culture change.
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