top of page
Tamkene Wide Logo .png
Tamkene Wide Logo .png

Dropped Objects Training Course

Dropped Objects Training Course aligned with international standards including DROPS Recommended Practice and ANSI/ISEA 121

Main Service Location

Course Title

Dropped Objects

Course Duration

1 Day

Training Delivery Method

Classroom (Instructor-Led) or Online (Instructor-Led)

Assessment Criteria

Knowledge Assessment

Service Category

Training, Assessment, and Certification Services

Service Coverage

In Tamkene Training Center or On-Site: Covering Saudi Arabia (Dammam - Khobar - Dhahran - Jubail - Riyadh - Jeddah - Tabuk - Madinah - NEOM - Qassim - Makkah - Any City in Saudi Arabia) - MENA Region

Course Average Passing Rate

98%

Post Training Reporting 

Post Training Report + Candidate(s) Training Evaluation Forms

Certificate of Successful Completion

Certification is provided upon successful completion. The certificate can be verified through a QR-Code system.

Certification Provider

Tamkene Saudi Training Center - Approved by TVTC (Technical and Vocational Training Corporation)

Certificate Validity

3 Years (Extendable)

Instructors Languages

English / Arabic / Urdu / Hindi

Interactive Learning Methods

3 Years (Extendable)

Training Services Design Methodology

ADDIE Training Design Methodology

ADDIE Training Services Design Methodology (1).png

Course Outline

1. Dropped Object Fundamentals

1.1. Definition and Classification
  • Object definition including (falling items, dislodged materials, and detached components)

  • Incident types including (static drops, dynamic drops, and shifting objects)

  • Failure mechanisms including (detachment causes, displacement sources, and dislodgment origins)

  • Energy factors including (gravitational influence, acceleration effects, and impact force)

  • Industry-specific considerations including (sector variations, field differences, and domain particularities)


1.2. Statistical Impact
  • Incident frequency including (occurrence rates, prevalence statistics, and incidence measurements)

  • Injury severity including (consequence classification, impact categorization, and effect magnitude)

  • Operational disruption including (productivity interruption, process disturbance, and activity interference)

  • Financial implications including (cost consequences, expense ramifications, and monetary effects)

  • Preventability assessment including (avoidance potential, mitigation opportunity, and elimination possibility)


2. Regulatory Framework

2.1. Standards and Guidelines
  • International standards including (global requirements, worldwide specifications, and universal directives)

  • Industry guidelines including (sector recommendations, field advisories, and trade suggestions)

  • Regional regulations including (territorial mandates, geographical statutes, and local ordinances)

  • Certification requirements including (qualification necessities, validation obligations, and verification demands)

  • Documentation provisions including (recording specifications, notation directives, and registration requirements)


2.2. Employer and Employee Responsibilities
  • Management obligations including (leadership duties, directorship responsibilities, and administration requirements)

  • Supervision requirements including (oversight obligations, monitoring duties, and surveillance responsibilities)

  • Worker duties including (employee obligations, personnel responsibilities, and staff requirements)

  • Compliance verification including (adherence confirmation, conformity validation, and accordance certification)

  • Accountability systems including (responsibility frameworks, liability structures, and answerability arrangements)


3. Hazard Identification

3.1. Potential Sources
  • Static items including (fixed equipment, stationed tools, and stationary materials)

  • Temporary installations including (provisional arrangements, interim setups, and short-term placements)

  • Environmental factors including (weather influences, natural elements, and atmospheric conditions)

  • Vibration effects including (oscillation impacts, tremor consequences, and fluctuation results)

  • Process operations including (activity dynamics, function movements, and procedure vibrations)


3.2. Workplace Assessment
  • Height considerations including (elevation factors, altitude aspects, and level elements)

  • Personnel exposure including (worker presence, staff attendance, and employee positioning)

  • Equipment vulnerability including (machinery susceptibility, tool exposure, and apparatus jeopardy)

  • Critical systems including (essential operations, vital functions, and crucial processes)

  • Transition areas including (transfer zones, changeover regions, and conversion sectors)


4. Risk Assessment Methodology

4.1. Assessment Techniques
  • Severity determination including (consequence evaluation, impact estimation, and effect appraisal)

  • Probability analysis including (likelihood assessment, occurrence estimation, and frequency evaluation)

  • Exposure consideration including (presence factors, positioning elements, and location aspects)

  • Calculation methods including (risk scoring, hazard rating, and danger grading)

  • Prioritization strategies including (ranking techniques, sequencing approaches, and ordering methodologies)


4.2. Documentation and Communication
  • Assessment recording including (evaluation documentation, appraisal notation, and examination registration)

  • Risk mapping including (danger charting, hazard mapping, and threat plotting)

  • Communication methods including (information dissemination, notification approaches, and advisory techniques)

  • Review frequency including (reassessment intervals, reevaluation periods, and reexamination frequency)

  • Stakeholder involvement including (participant inclusion, interested party engagement, and affected entity integration)


5. Prevention Technologies

5.1. Primary Prevention Systems
  • Engineered solutions including (design provisions, constructed arrangements, and fabricated systems)

  • Mechanical barriers including (physical obstacles, material impediments, and substantial hindrances)

  • Permanent securing including (fixed attachment, enduring fastening, and durable connection)

  • Material selection including (substance choice, component decision, and composition determination)

  • Design integration including (incorporation strategies, inclusion approaches, and insertion methodologies)


5.2. Secondary Prevention Systems
  • Tethering systems including (attachment methods, connection approaches, and fastening techniques)

  • Toe boards including (edge barriers, perimeter blocks, and boundary restrictions)

  • Netting arrangements including (mesh systems, web configurations, and network setups)

  • Containment solutions including (enclosure provisions, confinement arrangements, and retention systems)

  • Warning measures including (notification elements, alert components, and caution constituents)


6. Tool Tethering and Securing

6.1. Tethering Equipment Selection
  • Lanyard types including (cable varieties, cord assortments, and line selections)

  • Attachment points including (connection locations, fastening positions, and linkage places)

  • Weight capacity including (load tolerance, mass capability, and heaviness endurance)

  • Material characteristics including (composition properties, substance attributes, and matter traits)

  • Compatibility verification including (suitability confirmation, appropriateness validation, and adequacy certification)


6.2. Tethering Techniques
  • Attachment methods including (connection approaches, fastening techniques, and linking procedures)

  • Tool modification including (equipment adaptation, implement alteration, and device adjustment)

  • Transfer procedures including (handover protocols, exchange methods, and changeover practices)

  • Height optimization including (elevation positioning, altitude placement, and level situation)

  • Security verification including (attachment confirmation, fastening validation, and connection certification)


7. Small Parts Management

7.1. Component Identification
  • Critical fasteners including (essential connectors, crucial attachments, and vital joints)

  • High-risk elements including (dangerous parts, hazardous components, and perilous pieces)

  • Inventory management including (part tracking, component accounting, and element monitoring)

  • Categorization methods including (classification techniques, sorting approaches, and arrangement methodologies)

  • Tracking systems including (monitoring mechanisms, surveillance arrangements, and observation setups)


7.2. Securing Methods
  • Thread-locking including (rotational prevention, turning obstruction, and spin hindrance)

  • Safety wire including (wire securing, metallic fastening, and strand attachment)

  • Split pins including (clevis fasteners, cotter connections, and forked attachments)

  • Specialized hardware including (particular fittings, specific attachments, and unique fasteners)

  • Verification techniques including (confirmation methods, validation approaches, and certification procedures)


8. Exclusion Zone Management

8.1. Zone Determination
  • Risk assessment including (hazard evaluation, danger appraisal, and threat estimation)

  • Area calculation including (space determination, region computation, and dimension reckoning)

  • Peripheral extension including (boundary expansion, edge enlargement, and perimeter increase)

  • Height factors including (elevation aspects, altitude elements, and level considerations)

  • Wind influence including (air-current effects, breeze impacts, and gust consequences)


8.2. Implementation Techniques
  • Barrier systems including (obstruction arrangements, impediment setups, and hindrance configurations)

  • Signage requirements including (notification necessities, advisory obligations, and warning demands)

  • Access control including (entry regulation, admittance management, and ingress governance)

  • Monitoring methods including (observation techniques, surveillance approaches, and inspection methodologies)

  • Communication protocols including (information procedures, notification methods, and advisory practices)


9. Inspection and Audit Procedures

9.1. Equipment and Tool Inspection
  • Visual examination including (sight assessment, visual verification, and ocular inspection)

  • Functional testing including (operation evaluation, performance examination, and action assessment)

  • Damage identification including (harm recognition, injury detection, and impairment discovery)

  • Wear assessment including (deterioration evaluation, erosion estimation, and degradation appraisal)

  • Rejection criteria including (discard standards, removal parameters, and elimination guidelines)


9.2. Workplace Audit Techniques
  • Systematic approach including (methodical procedure, structured process, and organized technique)

  • Compliance verification including (adherence confirmation, conformity validation, and accordance certification)

  • Documentation review including (record examination, notation assessment, and registration evaluation)

  • Personnel practices including (worker methods, employee techniques, and staff approaches)

  • Improvement identification including (enhancement recognition, betterment detection, and advancement discovery)


10. Weather and Environmental Considerations

10.1. Weather Impact Assessment
  • Wind effects including (air current influences, breeze impacts, and gust consequences)

  • Precipitation factors including (rain elements, snow aspects, and ice components)

  • Temperature considerations including (heat factors, cold elements, and thermal aspects)

  • Visibility implications including (sight factors, vision elements, and view aspects)

  • Forecast integration including (prediction incorporation, forecast inclusion, and projection assimilation)


10.2. Environmental Adaptation
  • Seasonal adjustments including (periodic modifications, cyclical alterations, and recurring adaptations)

  • Extreme condition including (severe circumstance, harsh situation, and intense condition)

  • Equipment selection including (gear choice, apparatus determination, and device decision)

  • Schedule modification including (timing adjustment, planning alteration, and arrangement modification)

  • Enhanced monitoring including (increased surveillance, amplified observation, and intensified inspection)


11. Program Implementation

11.1. Development Strategy
  • Policy creation including (guideline development, directive formulation, and rule generation)

  • Procedural design including (method development, technique creation, and approach formulation)

  • Resource allocation including (asset assignment, means distribution, and material apportionment)

  • Timeline establishment including (schedule determination, duration assignment, and period designation)

  • Goal setting including (objective designation, aim establishment, and target definition)


11.2. Roll-Out Techniques
  • Communication strategy including (information approach, notification methodology, and advisory technique)

  • Training implementation including (education execution, instruction performance, and teaching application)

  • Phased introduction including (staged presentation, graduated implementation, and incremental initiation)

  • Feedback mechanisms including (response systems, reaction arrangements, and reply frameworks)

  • Adjustment provisions including (modification allowances, alteration provisions, and change accommodations)


12. Training and Awareness

12.1. Training Methodologies
  • Classroom instruction including (theoretical education, conceptual teaching, and notional instruction)

  • Practical demonstration including (hands-on presentation, active exhibition, and functional display)

  • Scenario-based including (situation-centered, circumstance-focused, and condition-oriented)

  • Video integration including (visual incorporation, pictorial inclusion, and multimedia assimilation)

  • Assessment techniques including (evaluation methods, examination approaches, and testing procedures)


12.2. Awareness Campaigns
  • Visual materials including (graphic resources, pictorial assets, and optical media)

  • Toolbox talks including (brief discussions, short presentations, and concise meetings)

  • Incident sharing including (occurrence distribution, event communication, and accident dissemination)

  • Recognition programs including (acknowledgment systems, appreciation arrangements, and commendation frameworks)

  • Continuous reinforcement including (ongoing emphasis, persistent stress, and continued accentuation)


13. Incident Investigation

13.1. Investigation Procedure
  • Initial response including (first reaction, immediate action, and prompt operation)

  • Evidence collection including (proof gathering, confirmation accumulation, and verification assembly)

  • Witness interviews including (observer questioning, spectator interrogation, and bystander inquiry)

  • Event reconstruction including (occurrence recreation, incident restoration, and situation reproduction)

  • Documentation methods including (recording techniques, notation approaches, and registration procedures)


13.2. Root Cause Analysis
  • Causation determination including (origin identification, source recognition, and cause discovery)

  • Contributing factors including (supporting elements, aiding aspects, and assisting components)

  • System deficiencies including (arrangement shortcomings, organization inadequacies, and configuration failings)

  • Corrective actions including (remedial measures, rectification steps, and adjustment operations)

  • Prevention strategies including (avoidance approaches, hindrance methods, and forestalling techniques)


14. Case Studies and Lessons Learned

14.1. Incident Analysis
  • High-profile cases including (notable occurrences, significant events, and prominent incidents)

  • Industry-specific including (sector-particular, field-specific, and domain-exclusive)

  • Causation patterns including (origin tendencies, source trends, and cause inclinations)

  • Consequence examination including (result inspection, outcome investigation, and effect examination)

  • Prevention opportunities including (avoidance possibilities, hindrance prospects, and forestalling occasions)


14.2. Success Stories
  • Implementation examples including (application instances, execution illustrations, and performance demonstrations)

  • Measurable results including (quantifiable outcomes, calculable consequences, and determinable effects)

  • Adoption approaches including (embracement strategies, acceptance methods, and reception techniques)

  • Cultural integration including (organizational assimilation, institutional absorption, and corporate incorporation)

  • Sustainability factors including (continuation elements, persistence aspects, and endurance components)

Targeted Audience

  • Construction workers and supervisors

  • Oil and gas personnel

  • Manufacturing employees

  • Maintenance and facility staff

  • Telecommunications technicians

  • Wind energy workers

  • Offshore personnel

  • Safety professionals and specialists

  • Project managers and supervisors

  • Training and human resource professionals

Knowledge Assessment

  • Hazard identification including (danger recognition, risk detection, and threat awareness)

  • Prevention systems including (protection arrangements, safeguard configurations, and defense setups)

  • Tethering techniques including (securing methods, fastening approaches, and attaching procedures)

  • Inspection procedures including (examination protocols, assessment methods, and verification techniques)

  • Incident investigation including (occurrence examination, event inquiry, and situation exploration)

Key Learning Objectives

  • Implement effective dropped object hazard identification procedures

  • Apply appropriate risk assessment and evaluation techniques

  • Execute proper tool tethering and securing operations

  • Implement effective prevention system selection methodologies

  • Perform appropriate inspection and audit procedures

  • Apply comprehensive exclusion zone planning principles

  • Implement proper prevention program development techniques

  • Recognize high-risk conditions and initiate appropriate actions

  • Implement appropriate incident investigation procedures

  • Apply continuous improvement principles for enhanced dropped object prevention

Course Overview

This comprehensive Dropped Objects Training Course provides participants with essential knowledge and practical competencies required for implementing effective prevention measures in diverse workplace environments. 


The course follows industry guidelines including DROPS Recommended Practice and ANSI/ISEA 121, focusing on hazard recognition, risk assessment, prevention technologies, proper tethering techniques, and implementation strategies vital for preventing dropped object incidents. Participants will develop both theoretical understanding and practical abilities necessary to implement proper prevention practices that enhance workplace safety, reduce incidents, and protect personnel and equipment.

Practical Assessment

  • Tool tethering including (equipment securing, implement attachment, and device fastening)

  • Equipment inspection including (apparatus examination, gear assessment, and instrument verification)

  • Barrier establishment including (perimeter installation, boundary setup, and border arrangement)

  • Incident investigation including (occurrence analysis, event examination, and situation exploration)

Why Choose This Course?

  • Comprehensive coverage of dropped object principles aligned with DROPS Recommended Practice and ANSI/ISEA 121

  • Focus on practical techniques for immediate application

  • Integration of industry requirements and operational best practices

  • Development of essential skills for effective prevention programs

  • Emphasis on hazard recognition and proactive prevention

  • Balanced theoretical knowledge and practical application

  • Realistic scenario-based learning and assessment methodology

  • Fulfillment of industry training requirements

  • Preparation for implementing effective prevention programs

  • Development of skills applicable across diverse industry sectors and working environments

Note: This course outline, including specific topics, modules, and duration, can be customized based on the specific needs and requirements of the client.

bottom of page