Study guide
5.1 Performance Gaps and Training Necessity
BCSP CIT Certified Instructional Trainer Study Guide 2026
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1 Credential and Training Standards
1.1 BCSP CIT Credential Scope, Exam Logistics & Recertification 1.2 ANSI/ASSP Z490 Criteria for Accepted EHS Training Practices
2 Adult Learning and Learning Access
2.1 Foundations of Andragogy: Knowles' Adult Learning Assumptions in Safety 2.2 Learner Literacy, ESL Accommodations & Plain Language Compliance 2.3 Opening a Course: Administrative Items and Learning Expectations
3 Communication and Facilitation
3.1 Verbal & Nonverbal Facilitation Techniques in Safety Training 3.2 Active Listening, Socratic Questioning & Teach-Back Verification 3.3 Feedback Frameworks, Corrective Coaching & Psychological Safety
4 Conflict and Instructional Technology
4.1 Managing Challenging Classroom Dynamics, Resistance & Conflict 4.2 Instructional Media, Presentation Tools & Technology Contingencies
5 Performance Needs and Existing Training
5.1 Performance Gaps and Training Necessity 5.2 Evaluating Existing Training and Interventions
6 Organizational, Task and Hazard Analysis
6.1 Organizational and Job Task Analysis 6.2 Hazard Analysis, KSAs and Task Evidence
7 Audience, Baseline and Prerequisites
7.1 Defining the Audience and Its Learning Needs 7.2 Baseline Knowledge and Prior-Learning Credit 7.3 Verifying Prerequisites and Readiness for Training
8 Applicable Training Requirements
8.1 OSHA Training Frameworks, General Duty Clause & Consensus Standards 8.2 Mandated Safety Programs: Lockout/Tagout, Confined Space & Fall Protection 8.3 Chemical & Biological Hazards: HazCom, Bloodborne & Respiratory Protection
9 Systematic and Iterative Design
9.1 ADDIE and the Systematic Approach to Training 9.2 SAM, Agile Development and Prototypes
10 Objectives and Learning Outcomes
10.1 Writing Observable ABCD Objectives 10.2 SMART, Objective Hierarchies and Stakeholder Consensus
11 Learning Domains and Practice
11.1 Cognitive Learning and Revised Bloom Taxonomy 11.2 Psychomotor, Affective and Constructive Alignment 11.3 Experiential Learning Cycles (Kolb), Adult Discovery & Instructional Scaffolding
12 Delivery Choices and Program Economics
12.1 Modality Matrix: Classroom ILT, E-Learning, Microlearning, Hands-On & OJT 12.2 Cost Classification and Worked Budgets 12.3 Resource Feasibility and Cost-Benefit Decisions
13 Developing and Validating Course Components
13.1 Lesson Plan Architecture: Components of Comprehensive Trainer & Participant Guides 13.2 Job Aids and Performance Support 13.3 SME Selection, Credible Sources and Validation
14 Development Planning and External Providers
14.1 Implementing the Instructional Development Plan 14.2 Deciding When and How to Outsource Development
15 Pilots and Recoverable Records
15.1 Representative Pilots and Course Revision 15.2 Record Retention, Privacy and Recovery
16 Implementation Environments and Logistics
16.1 Physical Classroom Design, Seating Arrangements, Ergonomics & Environmental Controls 16.2 Field, Shop & Hands-On Training: Safety Briefings, PPE Verification & Live Demonstration Safety 16.3 Virtual Instructor-Led Training (VILT), Technical Contingency Planning & Remote Engagement 16.4 Scheduling, Logistics and Course Time Management
17 Assessment and Remediation
17.1 Formative and Summative Assessment Tools 17.2 Assessment Criteria, Alignment and Remediation
18 Items, Performance and Standards
18.1 Writing Clear Items and Plausible Distractors 18.2 Item Analysis and Assessment Data 18.3 Performance Checklists and Evaluator Calibration 18.4 Standard Setting and the Angoff Calculation
19 Evaluation Models, Surveys and Learning Data
19.1 Evaluation Models and Feedback Surveys 19.2 Learning Outcomes and Evaluation Data
20 Transfer and Behavior Evidence
20.1 Transfer of Learning and Work Conditions 20.2 Behavior Observations and Change Reporting
21 Results, ROI and Improvement Reports
21.1 Organizational Results and Causal Limits 21.2 ROI, Course Improvement and Training Reports
5.1 Performance Gaps and Training Necessity
Key Takeaways Explain This Topic AI
A performance gap compares required performance with actual evidence.
Knowledge, resources, procedures and incentives can create mixed causes.
Required training remains necessary while noninstructional barriers are corrected.
Last updated: October 2026
Performance Gap Analysis & Determining Training Necessity
The fundamental premise of occupational health and safety instruction is that training is a targeted intervention, not an end in itself. When workplace safety discrepancies arise—whether manifested in rising incident rates, near-miss logs, or safety audit non-conformances—the default administrative reaction across many organizations is immediate and reflexive: mandate remedial safety training. This pervasive organizational reaction, often termed the training reflex , presumes that every performance failure originates from an absence of knowledge or understanding among workers. However, professional instructional trainers recognize that misapplying training to a non-training problem is wasteful, demoralizing to adult learners, and actively hazardous to operational safety.
The Anatomy of a Workplace Performance Discrepancy
A performance discrepancy (or performance gap) represents the measurable difference between an established operational or safety standard and the actual behavior exhibited on the shop floor or job site: Performance Gap = Desired Performance Standard − Actual Operational Performance \text{Performance Gap} = \text{Desired Performance Standard} - \text{Actual Operational Performance} Performance Gap = Desired Performance Standard − Actual Operational Performance
In safety-critical environments, performance discrepancies appear in diverse operational contexts:
Chemical processing technicians failing to record secondary containment sump liquid levels at required thirty-minute intervals.
Warehouse personnel operating powered industrial trucks without sounding horns at blind aisle intersections.
Maintenance personnel bypassing a two-step zero-energy verification procedure during lockout/tagout (LOTO) protocols.
Before allocating capital, instructor hours, and employee labor to curriculum design, the instructional trainer must conduct a thorough performance gap analysis . The objective of this diagnostic process is not merely to verify that a discrepancy exists, but to discover its root etiology: Is the gap caused by a genuine knowledge or skill void, or does it stem from poor workstation ergonomics, defective equipment, contradictory production incentives, or ineffective supervisory enforcement?
The Mager and Pipe Performance Analysis Model
The classic diagnostic framework formulated by Robert Mager and Peter Pipe provides safety instructional trainers with a systematic, sequential decision tree to analyze human performance problems. Rather than assuming that education is the default remedy, the model forces safety professionals to examine environmental and systemic factors first.
Important
Ask whether the worker knows how to perform the task and whether the workplace allows the required performance. Knowledge, resources and incentives can create mixed causes. Maintain required training while correcting noninstructional barriers.
The Mager and Pipe diagnostic sequence follows a logical, step-by-step evaluation:
1. Identify the Specific Discrepancy and Economic Importance
The analysis begins by isolating the exact observable behavior that deviates from standard. General claims such as "workers lack a safety mindset" are discarded in favor of precise, objective descriptions: "Machine operators are disabling the optical light curtains on Stamping Press 3." The analyst then evaluates whether the discrepancy warrants correction. In safety and environmental health, where regulatory citations, severe injury, or catastrophic process releases may occur, the cost of inaction almost always justifies intervention.
2. Differentiating Skill Deficiencies from Execution Deficits
The analyst applies the life-or-death litmus test:
Skill Deficiency ("Cannot Do"): If offered maximum reward or facing ultimate urgency, the worker genuinely cannot execute the task. They lack the procedural knowledge, cognitive comprehension, or physical motor coordination required. Here, an instructional intervention is necessary.
Execution Deficit ("Could Do But Does Not"): If the worker possesses the ability and knowledge to perform safely when scrutinized, the discrepancy is an execution deficit. Forcing workers into a classroom to lecture them on rules they already understand breeds cynicism and leaves the physical workplace hazard uncontrolled.
3. Diagnosing Skill Deficiencies
When a genuine skill deficiency is identified, the trainer must not immediately build a full-length classroom course. Three diagnostic sub-questions must be answered:
Has the employee ever performed the task successfully in the past? If yes, the skill has decayed due to lack of use. The solution is not comprehensive initial training, but brief practice drills, procedural refreshers, or feedback mechanisms.
Is the skill used frequently on the job? If the skill is critical but rarely executed (such as deploying an emergency ammonia vapor scrubber or donning a self-contained breathing apparatus during a hazmat spill), human memory naturally fades. Rather than relying on annual lectures, organizations must implement job aids , laminated step-by-step checklists, and recurring simulation drills.
Can the task be simplified? Can complex multi-step chemical calculations be replaced by a visual nomogram or automated software calculation, eliminating the need for extensive training?
4. Diagnosing Execution and Environmental Deficits
When workers possess the requisite skills but fail to perform, the trainer analyzes the operational ecosystem:
Are desired safe behaviors punishing? Wearing heavy, unvented chemical splash goggles in a hot, humid washdown room causes rapid lens fogging, physically blinding the worker. In this scenario, following the safety rule produces physical discomfort and visual impairment.
Are undesired unsafe shortcuts rewarding? Disabling an interlocked gate allows an injection molding operator to shave six seconds per part, enabling them to meet production quotas and earn piece-rate bonuses without supervisor reprimand.
Does performance matter at all? When management fails to recognize or reward consistent compliance while quietly celebrating workers who meet aggressive production targets by cutting safety corners, workers quickly conclude that safety is purely cosmetic.
Are there physical or environmental obstacles? Are personal protective equipment (PPE) dispensers empty, are designated tools damaged, or does poor facility illumination obscure warning indicators?
Key takeaways
A performance gap compares required performance with actual evidence.
Knowledge, resources, procedures and incentives can create mixed causes.
Required training remains necessary while noninstructional barriers are corrected.