Ludwig, T. D. & Laske, M. M. (2023)
Abstract / Context
Behavioral safety = mature, empirically supported branch of Organizational Behavior Management (OBM) applying Applied Behavior Analysis (ABA) to occupational safety.
Aim: prevent harm & reduce human suffering by manipulating environmental variables that occasion safe behavior and reduce at-risk behavior.
Paper reviews: - Core components of behavioral safety process.
Extensions of modern OBM methodologies (e.g., Behavioral Systems Analysis – BSA).
Best practices mined from Cambridge Center for Behavioral Studies (CCBS) accredited programs.
Human & Financial Burden of Occupational Injuries
2019 U.S. Bureau of Labor Statistics (BLS):- 5,333 work-related deaths.
888,220 lost-time injuries.
2.8 million total injuries annually (National Safety Council, 2021).
Individual costs (lifetime):- Nondisabling injury: $10,000.
Disabling injury: $30,000.
Lost earnings: $42,100-$68,100 (workers’ comp replaces 32%-41%).
Organizational costs (Liberty Mutual 2021): $58.61 billion annually.- Avg. cost per fatality: $1.22 million.
Avg. cost per medical-consultation injury: $42,000.
Indirect costs
approximately 4 times direct costs -> $171 billion (2019).
Societal burden: 40 % of families adjust work/school to compensate for injured member’s lost function.
Safety Management Systems vs. Behavioral Safety
Safety Management System (SMS): policies, procedures, activities aimed at proactive hazard mitigation.
Weakness of many SMSs: focus on lagging indicators (injuries) → blame worker (“human error”).
Empirical link between at-risk behavior & injury:- Reber & Wallin (1983): correlation.
Company audit (McSween 1995): behavior primary cause in 80-90% injuries.
Myers et al. (2010): behaviors leading cause in 96% injuries.
Behavioral Safety = preventative, data-driven approach shaped by Skinnerian contingencies + Deming’s quality philosophy.
Historical Foundations
Seminal research:- Smith, Anger, Uslan (1978).
Komaki, Barwick, Scott (1978).
Fellner & Sulzer-Azaroff (1984).
Commercially popularised as “Behavior-Based Safety” (BBS) by Agnew & Snyder, Geller, Krause (1990s-2000s).
Concept Clarifications
Behavior = “acts or actions by an individual observable by others” (Geller 1996).
Maxim: “No-name / No-blame” ➔ data used to improve systems, not punish individuals.
Adaptive Behavioral Safety Process (ABSP) – 7 Iterative Steps
Risk Analysis & Pinpointing- Identify high-risk tasks, Serious Injury & Fatality (SIF) potential.
SME workshops, incident data, diagnostic frameworks (Ezerins et al. 2022).
Pinpoints = specific, observable, measurable behaviors (response class vs. discrete operant).
Direct Observation- Trained peers use checklists (binary safe / at-risk) to sample behavior in vivo.
Observer Effect: observers improve own safety performance (Alvero & Austin 2004).
Immediate Performance Feedback- Peer-to-peer conversation right after task.
Effective when: immediate, individualised, behaviour-specific.
Group postings for additional reinforcement (e.g., % safe charts).
Reinforcing Engagement in the Process- Participation critical: observation counts predictor of injury reduction.
Avoid coercive quotas/lotteries (risk of “pencil-whipping”).
Provide paid time, simplify cards, communication-skills training.
Trending & Functional Analysis- Aggregate data → trend lines; thresholds (less than 95% safe, less than 90% safe) trigger deeper analysis.
ABC analysis for proximal contingencies; Behavioral Systems Analysis for distal interlocking contingencies (IBCs) & metacontingencies.
Behavior Change Interventions- Hierarchy of controls preferred: Eliminate hazard → Engineer out behavior → Isolate → PPE/Rules → Behavioral contingencies.
Interventions may target:- Training-to-fluency (Binder & Sweeney 2002) (Fluency = Accuracy + Speed).
Environmental redesign, tool availability, scheduling, maintenance, procurement, HR policies.
Consequence strategies: frequent reinforcement, goal setting, public feedback, group celebrations.
Evaluation & Iteration- Time-series assessment of % safe, observation rates, injury metrics.
Cycle restarts: if intervention ineffective → revisit Step 5; if hazards eliminated / behavior mastered → identify new risks.
Measurement & Formulas
Binary scoring on observation cards ➔ %Safe = (Safe occurrences / (Safe + At-risk)) * 100.
OSHA Recordable Incident Rate (ORIR): ORIR = (Recordable Cases * 200,000) / Hours Worked per 100 FTE.
Empirical Evidence & CCBS Accreditation
CCBS Commission (since 2005) audits programs via document review, on-site observation, interviews; standards demand:1. ABA foundations.
Process integrity.
Demonstrated injury reduction vs. baseline & industry average (3+ years).
Aggregate Results (Table 2 in article)
23 accredited programs → all show lower injury rates 5 yrs post-implementation.
Example averages:- SuperValu MRDC: 22.22 to 4.47 (per 100 FTE).
Western Energy: 6.61 to 1.92.
Case Examples
SuperValu CAM (Distribution Centers)- Pinpoint “high-elevation fork-lift pulldown” improved from 65% to over 95%.
Multiple baseline: MRDC implementation (1999) followed by SERF (2005) showed replicated injury decline.
Sustained zero-injury years despite turnover & volume surges.
SDR Coating Co.- Participation curve: low initial sampling → doubled counts within months, plateau 40-60 % workforce involvement by year 3.
Marathon Petroleum Refineries (5 sites)- Observation rates inversely correlated with ORIR across all facilities.
Program names: AWARE, Circle of Safety, FUELS.
Western Energy Mine – BESAFE- Injury rate from approximately 6/100 to 0 within 5 yrs; below MSHA industry benchmark.
Practical / Philosophical Insights
Environmentalism misunderstood: ABA targets environment and behavior; mislabeling of BBS as worker-blaming ignores systemic focus.
No-Name policy protects culture; names unnecessary because environment controls recurrence.
Over-engineering hazards (extra PPE, paperwork) increases response cost; better to simplify tasks or eliminate hazards.
Behavioral safety extends beyond workplace: probable generalisation to home/community safety behaviors.
Connections to Broader OBM & Systems Thinking
Uses classical PM tools (ABC, feedback, goal-setting) integrated with systems mapping (BSA, metacontingencies).
Echoes Deming’s PDSA cycle; aligns with Quality & Lean by emphasising continuous data-driven improvement.
Ethical & Equity Considerations
Emphasis on reducing human suffering – humanitarian imperative, not merely cost control.
Recognition of women pioneers (e.g., Judith Komaki, Beth Sulzer-Azaroff) crucial for inclusive historiography.
Transparency & worker involvement mitigate power imbalances and fear of surveillance.
Limitations & Critiques
Some union/academic critiques (Howe 2001; DeJoy 2005): fear of blaming worker; authors rebut that well-designed ABA programs focus on environment.
Risk of data falsification (“pencil-whipping”) if quotas/incentives misapplied.
Participation asymptote (~40-60 %) suggests diminishing returns; newer evidence (Spigener et al. 2022) indicates quality > quantity.
Future Directions / Challenges
Targeting Serious Injury & Fatality (SIF) precursors, process-safety events, and new tech hazards.
Applying advanced analytics, real-time data dashboards, predictive modelling.
Integrating behavioral safety with ESG (Environmental, Social, Governance) & sustainability metrics.
Key Take-Home Messages
Behavioral safety’s 7-step Adaptive Process operationalises ABA in industrial contexts, yielding robust injury reductions.
Peer involvement, immediate feedback, systemic analysis, and rigorous evaluation are non-negotiable components.
Well-implemented programs yield both humanitarian benefits and significant cost savings, validating ABA as a tool for social good.