ACCREDITATIONS
Clients
RESULTS-ORITNTED Training Description
Course Duration
1 Day
Training Delivery Method
Classroom (Instructor-Led)
Instructors Languages
English / Arabic / Urdu / Hindi / Pashto
Certification Provider
Tamkene Saudi Training Center - Approved by TVTC (Technical and Vocational Training Corporation)
Certificate Validity
2 Years (Extendable with additional training hours)
Course Average Passing Rate
97%
Competency Assessment Criteria
Practical Assessment and Knowledge Assessment
Post Training Reporting
Post Training Report + Candidate(s) Training Evaluation Forms
Training Design Methodology
ADDIE Training Design Methodology
Certificate of Successful Completion
Certification is provided upon successful completion. The certificate can be verified through a QR-Code system.
Course Overview
The telehandler — also known as a telescopic handler — is one of the most versatile pieces of powered industrial equipment deployed across construction, agriculture, logistics, and industrial site environments. Its ability to extend a telescopic boom to reach over obstacles, place materials at height, and operate on rough or uneven terrain makes it an indispensable asset. That same versatility introduces a unique combination of hazards — shifting centre of gravity with boom extension, tip-over risk on gradients, and load capacity variation across boom angles — that demand specific, verified operator competency.
This training course is designed to develop competent telehandler operators who can perform lifting, placing, and material handling operations safely and in full compliance with ANSI/ITSDF B56.6: Safety Standard for Rough Terrain Forklift Trucks, which classifies telehandlers as Class 7 rough terrain telescopic handlers, and OSHA 29 CFR 1910.178(l): Powered Industrial Trucks — Safe Operation, which mandates formal instruction, hands-on training, and documented operator performance evaluation. Participants will develop competency across equipment familiarization, pre-use inspection, load chart interpretation, attachment operation, site hazard management, and emergency response — all reinforced through structured practical exercises conducted under supervision. The course applies Hazard Identification, Risk Assessment, and Risk Control (HIRARC) methodology throughout to develop operators who approach every task with proactive hazard awareness.
Key Learning Objectives
Identify telehandler types, structural components, boom systems, and control functions
Conduct pre-use inspections in accordance with ANSI/ITSDF B56.6 and manufacturer requirements
Interpret load charts and understand capacity variation by boom angle, extension, and attachment type
Apply Hazard Identification, Risk Assessment, and Risk Control (HIRARC) to telehandler operations across varied site environments
Operate telehandlers safely under supervision including boom extension, load handling, gradient travel, and precision placement
Select, attach, and operate telehandler attachments safely including forks, buckets, and working platforms under supervision
Identify and manage site-specific hazards including ground conditions, overhead obstructions, and pedestrian exposure
Respond correctly to telehandler emergencies including tip-over risk, load instability, and mechanical failure
Comply with documentation and operator re-evaluation requirements under OSHA 29 CFR 1910.178(l)
Course Outline
1. Introduction to Telehandler Operations
Overview of telehandlers and their operational applications including (construction material placement at height, pallet handling on rough terrain, agricultural bale handling, and industrial site logistics)
Classification of telehandlers as Class 7 Rough Terrain Trucks under ANSI/ITSDF B56.6: Safety Standard for Rough Terrain Forklift Trucks
Applicable standards and regulatory requirements including (ANSI/ITSDF B56.6, OSHA 29 CFR 1910.178(l), and local site authority requirements for powered industrial truck operation)
Operator responsibilities, authorization requirements, and re-evaluation obligations under OSHA 29 CFR 1910.178(l) including (formal instruction, practical evaluation, and three-year recertification requirement)
Overview of telehandler incidents and primary causes including (tip-overs on gradients, overloads from load chart misinterpretation, boom contact with overhead obstructions, and pedestrian strikes on congested sites)
2. Telehandler Components, Systems, and Controls
Key structural components and their functions including (chassis, telescopic boom sections, carriage and attachment interface, counterweight, and four-wheel drive system)
Steering modes and their application including (front-wheel steer, rear-wheel steer, crab steer, and four-wheel steer — and when each is used for maneuverability and stability)
Boom extension and elevation controls including (single-lever joystick operation, boom crowd and tilt controls, and smooth incremental input for precise load positioning)
Transmission and drive system including (powershift transmission, differential lock engagement for soft ground traction, and axle oscillation for rough terrain stability)
Safety systems and devices including (load moment indicator — LMI, stability warning system, boom angle indicator, and operator restraint system)
Attachment interface including (mechanical quick coupler operation, hydraulic auxiliary line connection, and attachment identification markings)
3. Pre-Use Inspection and Equipment Serviceability
Pre-use inspection requirements in accordance with ANSI/ITSDF B56.6 including (daily pre-shift walkaround, functional control tests, and fluid level checks before each operating period)
Structural and boom inspection including (boom section condition and wear pad clearance, carriage and fork wear assessment, counterweight security, and tyre condition and pressure)
Hydraulic system checks including (fluid level, hose and cylinder condition, boom extension drift test, and auxiliary hydraulic line integrity)
Safety device verification including (LMI function test, stability warning system check, operator restraint condition, and lights and warning beacon operation)
Attachment inspection including (fork blade and heel condition, bucket wear and crack assessment, working platform structural integrity, and coupler locking pin security)
Defect documentation and withdrawal procedures including (tagging out defective equipment, notifying the supervisor, and completing pre-use inspection records)
4. Load Charts, Capacity, and Stability Principles
Load chart structure and interpretation for telehandlers including (capacity tables by boom angle, extension length, and working radius — and how all three interact to determine safe working load)
Load centre concept and its effect on capacity including (standard load centre distance, off-centre load derating, and capacity reduction with extended boom)
Attachment derating including (capacity reduction when using buckets, working platforms, or non-standard forks — and reading attachment-specific capacity charts)
Stability principles for telehandlers including (the stability pyramid, centre of gravity shift with boom extension and elevation, and the effect of gradient and ground conditions on tip-over risk)
Factors reducing telehandler stability including (elevated boom during travel, high-speed cornering, uneven or soft ground surfaces, and off-centre or oversized loads)
5. Safe Telehandler Operation
Pre-operation site assessment including (ground surface and gradient check, overhead clearance confirmation, exclusion zone verification, and pedestrian activity assessment)
Safe travel techniques on site including (boom in lowered stowed position, differential lock use on soft ground, speed restriction on gradients, and pedestrian right-of-way management)
Load pick-up and placement under supervision including (accurate approach alignment, fork engagement depth confirmation, smooth lift and boom extension, and controlled placement with LMI monitoring)
Operating on gradients under supervision including (ascending and descending loaded and unloaded, gradient angle limits per the load chart, and the risk of lateral tip-over on cross-slopes)
Precision placement at height under supervision including (incremental boom control for final positioning, spotter use for blind placements, and confirming load stability before releasing)
End-of-shift procedures including (boom lowering and stowage, attachment removal and storage, system shutdown, and post-shift inspection completion)
6. Attachments, Hazard Management, and Emergency Procedures
Telehandler attachment types and their safe use including (pallet forks for material handling, buckets for loose material, jib attachments for suspended loads, and working platforms for personnel at height — each with applicable capacity derating)
Working platform operation under supervision in accordance with ANSI/ITSDF B56.6 including (platform load limits, operator harness attachment, boom movement restrictions with personnel on platform, and emergency lowering procedures)
Application of HIRARC to telehandler operations including (pre-task hazard identification covering ground conditions, overhead obstructions, pedestrian zones, and load weight verification)
Pedestrian and vehicle segregation on site including (exclusion zones around active telehandler operations, spotter use in restricted visibility areas, and right-of-way protocols at site intersections)
Emergency procedures including (tip-over response — stay restrained, brace, and lean away from fall direction — LMI alarm response, mechanical failure during elevated load, and load drop procedures)
Post-incident actions including (scene isolation, supervisor notification, incident documentation, and participation in root cause investigation)
7. HSE, Quality, and Case Studies
Integration of telehandler operations within the site Health, Safety, and Environment (HSE) management system including (pre-task risk assessments, permit-to-work compliance for working at height with personnel platforms, and incident reporting procedures)
Quality assurance in telehandler operations including (operator authorization records, pre-use inspection logs, attachment inspection documentation, and OSHA 29 CFR 1910.178(l) re-evaluation compliance tracking)
Environmental considerations including (hydraulic fluid spill prevention, tyre track damage management on sensitive ground surfaces, and fuel and fluid storage compliance on site)
Case studies from telehandler incidents in Middle East construction, logistics, and industrial environments including (tip-overs on uncompacted fill material, boom contact with overhead power lines during placement, and overloads from unverified pallet weights) and the importance of proper operator training in preventing fatalities and equipment damage
Group discussion on lessons learned including (root cause findings related to pre-task hazard assessment failures, LMI bypass practices, and inadequate ground condition assessment before entering soft ground areas)
1. Introduction to Telehandler Operations
Overview of telehandlers and their operational applications including (construction material placement at height, pallet handling on rough terrain, agricultural bale handling, and industrial site logistics)
Classification of telehandlers as Class 7 Rough Terrain Trucks under ANSI/ITSDF B56.6: Safety Standard for Rough Terrain Forklift Trucks
Applicable standards and regulatory requirements including (ANSI/ITSDF B56.6, OSHA 29 CFR 1910.178(l), and local site authority requirements for powered industrial truck operation)
Operator responsibilities, authorization requirements, and re-evaluation obligations under OSHA 29 CFR 1910.178(l) including (formal instruction, practical evaluation, and three-year recertification requirement)
Overview of telehandler incidents and primary causes including (tip-overs on gradients, overloads from load chart misinterpretation, boom contact with overhead obstructions, and pedestrian strikes on congested sites)
2. Telehandler Components, Systems, and Controls
Key structural components and their functions including (chassis, telescopic boom sections, carriage and attachment interface, counterweight, and four-wheel drive system)
Steering modes and their application including (front-wheel steer, rear-wheel steer, crab steer, and four-wheel steer — and when each is used for maneuverability and stability)
Boom extension and elevation controls including (single-lever joystick operation, boom crowd and tilt controls, and smooth incremental input for precise load positioning)
Transmission and drive system including (powershift transmission, differential lock engagement for soft ground traction, and axle oscillation for rough terrain stability)
Safety systems and devices including (load moment indicator — LMI, stability warning system, boom angle indicator, and operator restraint system)
Attachment interface including (mechanical quick coupler operation, hydraulic auxiliary line connection, and attachment identification markings)
3. Pre-Use Inspection and Equipment Serviceability
Pre-use inspection requirements in accordance with ANSI/ITSDF B56.6 including (daily pre-shift walkaround, functional control tests, and fluid level checks before each operating period)
Structural and boom inspection including (boom section condition and wear pad clearance, carriage and fork wear assessment, counterweight security, and tyre condition and pressure)
Hydraulic system checks including (fluid level, hose and cylinder condition, boom extension drift test, and auxiliary hydraulic line integrity)
Safety device verification including (LMI function test, stability warning system check, operator restraint condition, and lights and warning beacon operation)
Attachment inspection including (fork blade and heel condition, bucket wear and crack assessment, working platform structural integrity, and coupler locking pin security)
Defect documentation and withdrawal procedures including (tagging out defective equipment, notifying the supervisor, and completing pre-use inspection records)
4. Load Charts, Capacity, and Stability Principles
Load chart structure and interpretation for telehandlers including (capacity tables by boom angle, extension length, and working radius — and how all three interact to determine safe working load)
Load centre concept and its effect on capacity including (standard load centre distance, off-centre load derating, and capacity reduction with extended boom)
Attachment derating including (capacity reduction when using buckets, working platforms, or non-standard forks — and reading attachment-specific capacity charts)
Stability principles for telehandlers including (the stability pyramid, centre of gravity shift with boom extension and elevation, and the effect of gradient and ground conditions on tip-over risk)
Factors reducing telehandler stability including (elevated boom during travel, high-speed cornering, uneven or soft ground surfaces, and off-centre or oversized loads)
5. Safe Telehandler Operation
Pre-operation site assessment including (ground surface and gradient check, overhead clearance confirmation, exclusion zone verification, and pedestrian activity assessment)
Safe travel techniques on site including (boom in lowered stowed position, differential lock use on soft ground, speed restriction on gradients, and pedestrian right-of-way management)
Load pick-up and placement under supervision including (accurate approach alignment, fork engagement depth confirmation, smooth lift and boom extension, and controlled placement with LMI monitoring)
Operating on gradients under supervision including (ascending and descending loaded and unloaded, gradient angle limits per the load chart, and the risk of lateral tip-over on cross-slopes)
Precision placement at height under supervision including (incremental boom control for final positioning, spotter use for blind placements, and confirming load stability before releasing)
End-of-shift procedures including (boom lowering and stowage, attachment removal and storage, system shutdown, and post-shift inspection completion)
6. Attachments, Hazard Management, and Emergency Procedures
Telehandler attachment types and their safe use including (pallet forks for material handling, buckets for loose material, jib attachments for suspended loads, and working platforms for personnel at height — each with applicable capacity derating)
Working platform operation under supervision in accordance with ANSI/ITSDF B56.6 including (platform load limits, operator harness attachment, boom movement restrictions with personnel on platform, and emergency lowering procedures)
Application of HIRARC to telehandler operations including (pre-task hazard identification covering ground conditions, overhead obstructions, pedestrian zones, and load weight verification)
Pedestrian and vehicle segregation on site including (exclusion zones around active telehandler operations, spotter use in restricted visibility areas, and right-of-way protocols at site intersections)
Emergency procedures including (tip-over response — stay restrained, brace, and lean away from fall direction — LMI alarm response, mechanical failure during elevated load, and load drop procedures)
Post-incident actions including (scene isolation, supervisor notification, incident documentation, and participation in root cause investigation)
7. HSE, Quality, and Case Studies
Integration of telehandler operations within the site Health, Safety, and Environment (HSE) management system including (pre-task risk assessments, permit-to-work compliance for working at height with personnel platforms, and incident reporting procedures)
Quality assurance in telehandler operations including (operator authorization records, pre-use inspection logs, attachment inspection documentation, and OSHA 29 CFR 1910.178(l) re-evaluation compliance tracking)
Environmental considerations including (hydraulic fluid spill prevention, tyre track damage management on sensitive ground surfaces, and fuel and fluid storage compliance on site)
Case studies from telehandler incidents in Middle East construction, logistics, and industrial environments including (tip-overs on uncompacted fill material, boom contact with overhead power lines during placement, and overloads from unverified pallet weights) and the importance of proper operator training in preventing fatalities and equipment damage
Group discussion on lessons learned including (root cause findings related to pre-task hazard assessment failures, LMI bypass practices, and inadequate ground condition assessment before entering soft ground areas)
Group Exercises
Team-based site hazard assessment exercise including (evaluating a presented construction site layout for telehandler operational risks, applying HIRARC to identify ground condition, overhead obstruction, and pedestrian conflict hazards, and developing a risk control plan with exclusion zone layout)
Telehandler incident investigation exercise including (analyzing a presented tip-over scenario, identifying direct and root causes using Root Cause Analysis — RCA, and developing a corrective action plan covering operator training, ground assessment procedures, and site supervision improvements)
Gained Core Technical Skills
Ability to identify telehandler components, steering modes, boom systems, and safety devices and explain their operational significance
Proficiency in conducting pre-use inspections in accordance with ANSI/ITSDF B56.6 covering structure, boom, hydraulics, attachments, and safety device function
Competency in reading and interpreting telehandler load charts including capacity variation by boom angle, extension, and attachment type — and identifying the capacity-limiting factor for planned operations
Skill in applying stability principles including centre of gravity shift with boom extension, gradient tip-over risk, and ground condition effects on rated capacity
Ability to execute safe telehandler operations under supervision including load pick-up, boom extension, precision placement at height, and gradient travel with and without load
Proficiency in selecting, attaching, and safely operating telehandler attachments including forks, buckets, jib extensions, and working platforms under supervision
Competency in applying HIRARC to pre-task telehandler risk assessments covering ground conditions, overhead hazards, pedestrian exposure, and load weight verification
Skill in executing correct emergency response procedures including tip-over response, LMI alarm management, and working platform emergency lowering
Understanding of OSHA 29 CFR 1910.178(l) operator authorization, documentation, and three-year re-evaluation requirements for powered industrial truck compliance
Services Geographical Coverage
In Tamkene Training Center or at our client's facility (On-Site), Covering All Saudi Arabia Cities and Locations:
Targeted Audience
Telehandler operators seeking formal competency development and site authorization
Construction, logistics, and industrial site personnel who operate telehandlers as part of their materials handling responsibilities
HSE officers and safety supervisors responsible for powered industrial truck programs and operator authorization
Site supervisors and foremen overseeing telehandler operations and pre-task risk assessment compliance
Equipment managers responsible for telehandler fleet deployment, inspection scheduling, and operator records
Any personnel transitioning from counterbalanced forklift or rough terrain equipment to telehandler operation
Practical Assessment
Supervised pre-use inspection including (completing a full checklist per ANSI/ITSDF B56.6, identifying seeded defects in boom, attachment, and safety devices, and demonstrating correct defect reporting procedures)
Load chart and pre-task assessment practical including (reading the telehandler load chart for a specified scenario, completing a pre-task risk assessment using HIRARC, and confirming the operation is within rated capacity)
Telehandler operation practical under supervision including (site assessment, load pick-up, boom extension to a specified height, precision placement, gradient travel, and correct shutdown and stowage procedures)
Knowledge Assessment
Multiple-choice questions on telehandler types, components, and standards including (ANSI/ITSDF B56.6 Class 7 classification, steering mode selection, LMI function, and OSHA 29 CFR 1910.178(l) re-evaluation frequency)
Load chart interpretation exercise including (determining safe working load for a specified boom angle, extension, and attachment combination — and identifying the capacity-limiting factor)
Hazard identification questions applying HIRARC including (identifying stability risks in a described gradient scenario, selecting pedestrian control measures for a congested site, and determining load chart derating for a jib attachment)
Emergency response questions including (correct tip-over response sequence, LMI alarm action procedure, and working platform emergency lowering steps)
Why Choose This Course
Fully aligned with ANSI/ITSDF B56.6: Safety Standard for Rough Terrain Forklift Trucks and OSHA 29 CFR 1910.178(l) for internationally recognized operator competency
Covers the complete operational cycle from equipment familiarization and pre-use inspection through to load chart interpretation, attachment operation, gradient handling, and emergency response
Addresses the unique stability and capacity challenges of telescopic boom equipment — including boom extension derating and gradient tip-over risk — that distinguish telehandler training from standard forklift programs
Applies HIRARC methodology throughout, developing operators who identify and control hazards before each task
Incorporates Middle East–relevant case studies addressing regional challenges including soft desert ground conditions, extreme heat effects on tyre performance, and overhead power line proximity on active construction sites
Supports organizations in meeting regulatory operator qualification obligations and maintaining a verifiable, audit-ready powered industrial truck safety record
Note: This course outline, including specific topics, modules, and duration, can be customized based on the specific needs and requirements of the client.
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