Master Your Forklift Training Course: The Ultimate Guide to Warehouse Safety

A comprehensive forklift training course is the fundamental backbone of any secure, compliant, and highly efficient material handling operation. To drastically reduce workplace accidents and prevent severe equipment damage, an effective training program must rigorously cover daily pre-shift inspections, forklift core system mechanics, and strict driver management protocols. Here at Teknect Global Inc., we know firsthand that simply handing over the keys to a new operator is a recipe for disaster; true warehouse efficiency demands continuous education, proactive hazard assessment, and uncompromising safety enforcement.

Over the years, we’ve seen how integrating a robust curriculum with practical forklift safety training transforms a chaotic facility into a well-oiled, highly productive machine. Whether you are managing a small fleet of electric warehousing vehicles or heavy-duty internal combustion lift trucks, empowering your logistics directors and warehouse operators with the right knowledge is your best defense against costly downtime. Let’s dive deep into what a top-tier training protocol actually looks like on the warehouse floor and how it solves your most pressing operational pain points.

Key Takeaways

Daily Inspections are Non-Negotiable: Every single shift must begin with thorough visual and mechanical checks, verifying everything from the rear-view mirrors and horns to the positioning pins and mast bolts before operation.

Mastering the Four Core Systems: Operators must intimately understand the working, electrical, power, and chassis systems to maintain control, stability, and proper load lifting.

Proactive Maintenance Integration: Combining scheduled periodic maintenance with detailed, documented daily checklists ensures your fleet remains compliant with strict annual safety regulations.

Strict Driver Management: Safe driving goes far beyond basic steering; it requires mastering blind-spot navigation, understanding center-of-gravity shifts, and adhering to strict pedestrian yielding protocols.

2. Forklift Safety Training Basics

We know the foundation of warehouse safety starts with mastering the absolute basics of your heavy equipment. Before your operators can execute complex maneuvers, they must fundamentally understand how different vehicle classifications operate and how their internal mechanics handle extreme stress.

Forklift Core Systems Overview

System Category	Primary Function	Key Components	Operational Impact
Working System	Load manipulation	Mast, forks, hydraulics	Determines lifting capacity and stability.
Electrical System	Control and signaling	Displays, lights, sensors	Provides vital feedback and warnings.
Power System	Energy generation	Engine/Battery, counterweight	Drives movement and anchors the vehicle.
Chassis System	Structural support	Transmission, wheels, frame	Dictates maneuverability and floor navigation.

1.1 Types of Material Handling Equipment

Internal Combustion Forklifts: These robust machines run on diesel or propane, providing the immense torque needed for heavy-duty outdoor environments and rough terrain operations. You will typically deploy these rugged powerhouses in lumber yards or construction sites where electric models might struggle with uneven ground conditions.
Electric Forklifts: Powered by heavy lead-acid or modern lithium-ion batteries, these quiet emission-free vehicles are the absolute gold standard for indoor warehouse environments. We always recommend these eco-friendly workhorses for food storage facilities because they eliminate harmful exhaust fumes while delivering exceptionally smooth acceleration.
Warehouse Forklifts and Stackers: Specifically engineered for tight spaces, these specialized machines navigate narrow aisles to optimize your high-density vertical storage layouts. Understanding the specific capabilities of these various types of handling equipment allows your logistics management team to perfectly match the right machine to your facility’s unique spatial constraints.

1.2 Forklift Structure and Core Systems

The Working System Mechanics: This critical lifting apparatus includes the mast, forks, and hydraulic cylinders responsible for physically engaging and elevating your heavy cargo. Operators must continuously monitor this lifting mechanism for smooth operation because any jerking movements indicate severe hydraulic issues that could easily compromise load stability.
The Electrical Display System: This comprehensive network powers all operational lighting, digital dashboards, warning signals, and crucial control inputs throughout the operator cab. A fully functional electrical array ensures your drivers receive immediate visual feedback regarding battery levels and system errors before a minor glitch becomes a major breakdown.
The Dynamic Power System: Serving as the beating heart of the vehicle, this assembly houses the internal combustion engine or primary battery bank, usually mounted directly at the rear. Beyond simply providing driving force, this heavy module strategically doubles as a massive counterweight to keep the vehicle safely grounded during heavy lifting.
The Foundational Chassis System: This durable structural framework accepts kinetic energy from the power plant and translates it into smooth, controlled physical movement across the warehouse floor. It houses the complex transmission and wheel assemblies necessary to guarantee safe maneuverability while supporting massive amounts of overhead inventory weight.

1.3 Load Capacity and Center of Gravity Dynamics

The Stability Triangle Dynamics: When a lift truck is completely empty, its natural center of gravity forms an invisible triangle between the rear axle pivot and the two front drive wheels. The moment your operator picks up a heavy pallet, this delicate balance point aggressively shifts forward, requiring immense skill to prevent catastrophic tip-overs.
Load Center Distance Calculations: You cannot assume a three-ton forklift can magically lift any three-ton object regardless of its strange shape or awkward size configuration. Your operators must strictly calculate the horizontal distance from the fork’s vertical face to the load’s exact center to maximize material handling equipment forklifts efficiency safely.

2. Pre-Shift Forklift Daily Inspections

A rigorous pre-shift inspection is your frontline defense against catastrophic warehouse failures and totally preventable workplace injuries. We highly recommend standardizing this daily procedure so your operations team never accidentally misses a critical structural or mechanical component before hitting the floor.

2.1 Essential Visual and Mechanical Checks

Rearview Mirror and Horn Verification: Your operators must physically inspect all cab mirrors for dangerous blind-spot cracks that could obscure approaching pedestrians during incredibly busy shifts. Simultaneously testing the steering wheel horn ensures the audible warning system is loud enough to pierce through chaotic background warehouse noise.
Mast Bolts and Positioning Pins: Drivers must visually confirm that the heavy steel locking pins securing the forks are perfectly seated and completely free of any structural damage. Failing to verify these tight mast bolt connections could result in sudden fork slippage, immediately dropping thousands of pounds of fragile inventory onto the concrete.
Steering and Braking Assessment: The steering column must rotate smoothly without any stiff resistance, while the floor pedals must deliver immediate, aggressive stopping power upon engagement. We rigorously require teams to execute these standardized forklift daily inspections to catch fading brake lines well before they cause a devastating pedestrian collision.
Lift Control Flexibility Testing: Operators need to raise the empty forks roughly two meters into the air and test multi-directional tilt responsiveness to verify adequate hydraulic fluid pressure. Before lowering the heavy carriage back down, the driver must explicitly pull the handbrake, cut the power, and absolutely ensure no personnel are standing underneath.

2.2 Safety Forklift Proximity Sensor and Alarms

Reversing Buzzer and Blue Lights: Whenever the transmission engages reverse gear, the automated backup buzzer must instantly emit a piercing alarm while projecting a bright blue warning halo three meters behind the vehicle. These dual visual and auditory signals are absolutely critical for alerting distracted workers who might accidentally wander directly into the machine’s dangerous rear swing path.
Advanced Collision Avoidance Alerts: Upgrading your aging fleet with a highly responsive safety forklift proximity sensor adds an intelligent layer of active protection against dangerous human error. These sophisticated radar and camera modules automatically detect nearby foot traffic, instantly warning the driver and sometimes overriding the throttle to prevent fatal crush injuries.

2.3 Identifying Dangerous Fluid Leaks

Hydraulic Line Integrity Checks: Operators must meticulously run their eyes along the thick high-pressure hoses governing the mast elevation to spot dangerous hairline fractures or weeping rubber seals. Even a microscopic pinhole leak can rapidly escalate under intense load pressure, resulting in a sudden and catastrophic loss of vital lifting power.
Ground Stain Identification: Before ever stepping into the cab, drivers need to crouch down and carefully inspect the concrete floor directly beneath the parked vehicle for fresh fluid puddles. Spotting these dark oily stains early allows your maintenance crew to diagnose ruptured gaskets before the expensive engine suffers permanent dry-running damage.
Brake Fluid and Coolant Levels: Maintaining optimal internal reservoir levels ensures the mechanical braking assemblies remain highly responsive during emergency sudden-stop situations on crowded loading docks. If these internal fluid reserves unexpectedly drop below the manufacturer’s recommended baseline, the vehicle must be immediately tagged out and completely grounded until fully serviced.

2.4 Proper Battery Charging Procedures

Ventilation and Cover Management: Before hooking up the heavy industrial cables, the operator must completely open the battery compartment hood to disperse the highly explosive hydrogen gas generated during charging. We strictly mandate maintaining excellent ambient airflow around the entire charging station to rapidly dilute these dangerous fumes and eliminate warehouse combustion risks.
Terminal Connection Safety: Your warehouse staff must meticulously verify that the positive and negative industrial cables are correctly aligned before ever initiating the high-voltage electrical transfer. Reversing this polarity or using frayed connections can instantly generate massive electrical arcs, easily igniting nearby atmospheric gases and destroying expensive power cells.
Over-Discharge Prevention: Running a large battery bank until the vehicle completely stalls out causes irreversible cellular degradation that absolutely ruins the unit’s long-term total lifecycle. Operators must immediately drive the unit to the designated charging bay the absolute second the dashboard capacity warning light begins its continuous low-voltage flashing sequence.
Fire Hazard Mitigation: Keep all metallic hand tools far away from the exposed cell terminals to prevent accidental sparks that could easily trigger an immediate chemical fire. Should highly corrosive electrolyte fluid unexpectedly spill onto the floor, workers must rapidly deploy specialized absorbent cotton pads to neutralize the extremely dangerous chemical burn hazard.
Designated Charging Zones: All energy replenishment must occur strictly inside isolated, flame-free zones purposely designed to safely contain potential electrical sparks or catastrophic thermal runaways. Upgrading these dedicated spaces with automated power-cutoff limiters ultimately ensures your multi-shift fleet safely charges overnight without requiring constant and expensive human supervision.

3. Essential Forklift Operating Procedures

Mastering the physical controls of your equipment is only half the battle; executing flawless forklift operating procedures in a highly congested environment is what truly separates a novice from a seasoned professional. The warehouse floor is a chaotic ecosystem filled with blind corners, steep loading ramps, and unpredictable pedestrian traffic. Implementing strict workplace forklift safety guidelines ensures your operators anticipate these daily hazards rather than just reacting to them, drastically lowering your facility’s overall incident rate.

3.1 Navigating Ramps and Blind Spots

Forward and Reverse on Slopes: When navigating inclines with a bulky load that obstructs frontal vision, operators must drive in reverse while utilizing spotters for guidance. Conversely, when traveling uphill with a load, the forklift must always be driven forward to keep the heavy inventory positioned safely on the upper side of the slope.
Speed Control at Corners: Tight intersections and blind corners drastically increase the risk of severe collisions due to the massive rear-end swing generated by the forklift’s rear-wheel steering. Operators are required to decelerate, sound their horn continuously, and carefully check their mirrors before proceeding through these dangerous low-visibility transition zones.
Preventing Longitudinal Tip-Overs: Attempting a rapid U-turn or braking aggressively while traveling downhill will instantly shift the center of gravity and cause a catastrophic longitudinal rollover. Drivers must exclusively use the low-gear setting, gently pulse the foot brake to manage descent speed, and never allow the vehicle to freely slide down an incline.

3.2 Safe Pallet Stacking Techniques

Centering the Cargo Weight: Before engaging the hydraulics to lift a heavy pallet, the operator must perfectly align both forks and ensure the load is precisely centered against the backrest. The inventory must sit squarely over the forks because uneven weight distribution directly threatens the structural integrity of the mast and causes immediate lateral instability.
Maintaining Safe Travel Height: Once a load is successfully extracted from the racking system, it must be lowered to a clearance of just 15 to 25 centimeters off the concrete floor before moving. Traveling with an elevated load fundamentally breaks the stability triangle, making the vehicle incredibly top-heavy and highly susceptible to tipping over during a routine turn.

3.3 Workplace Forklift Safety Protocols

Zero Tolerance for Personnel Lifting: We strictly enforce a universal ban on using bare forks or makeshift wooden pallets to hoist warehouse staff into the air for high-level maintenance tasks. This extremely dangerous practice is a primary cause of fatal falls, meaning any elevated work requires designated, structurally certified safety cages that lock securely to the mast.
Maintaining Cabin Containment: Operators must remain firmly seated in the designated driving position and absolutely never extend their arms, legs, or head outside the protective overhead guard. Sticking a limb through the mast carriage during operation invites devastating crushing injuries if the hydraulic chains suddenly shift or if the vehicle brushes against a tight racking column.
Prohibiting Reckless Driving: Safety entirely depends on driver attitude; treating a piece of heavy industrial machinery like a recreational toy is grounds for immediate termination on our warehouse floor. We actively monitor for aggressive acceleration, sudden erratic braking, or unnecessary sharp turns, as these negligent behaviors cause accidents regardless of how well the vehicle is maintained.
Strict Overload Prevention: Drivers are explicitly forbidden from attempting to lift cargo that exceeds the specific maximum capacity and load center distance stamped permanently on the manufacturer’s data plate. If a massive load surpasses these strict engineering limits, operators must systematically break down the pallet into smaller, manageable weights rather than risking a dangerous mechanical failure.

3.4 Rollover Protection and Emergency Stops

Cabin Retention During Tip-Overs: If a rollover event begins, the absolute worst decision a driver can make is attempting to unbuckle and jump clear of the falling machine. Operators are trained to brace their feet, grip the steering wheel tightly, and lean heavily in the opposite direction of the fall to remain safely inside the protective roll cage.
Responding to Sudden Brake Failure: Should the mechanical brakes unexpectedly fail while navigating a busy aisle, the operator must immediately sound the horn to scatter nearby pedestrians while cutting the main electrical power. If the vehicle still maintains forward momentum, the driver must pull the emergency handbrake and quickly lower the heavy forks directly to the ground to generate massive stopping friction.
Controlled Emergency Collisions: In the rare event that dropping the carriage fails to halt a runaway vehicle, the driver must consciously steer the forklift toward a solid, inanimate fixture like a concrete pillar. This highly controlled emergency crash stops the machine from plowing into a crowded pedestrian crosswalk, trading equipment damage for human lives when all other braking systems fail.

3.5 Prevent Forklift Accidents in Warehouse

Speed Limitation Enforcement: Factory regulations clearly dictate that forklift travel speeds must never exceed eight kilometers per hour in open zones and three kilometers per hour near busy intersections. We strongly suggest installing mechanical or digital speed limiters that automatically cut engine power if a reckless driver attempts to violate these critical facility speed constraints.
Banning Unauthorized Modifications: Your maintenance team must absolutely never alter the vehicle’s original power source, weld extensions onto the forks, or add unapproved counterweights without written engineering consent. Unsanctioned modifications fundamentally change the machine’s geometric balance, completely voiding the manufacturer’s warranty and creating an incredibly dangerous, unpredictable tool for the operator.
Enforcing Safe Distance Rules: When lifting a load, no warehouse personnel are permitted to stand within a two-meter radius of the mast, nor are they allowed to walk directly beneath elevated forks. Maintaining this strict buffer zone ensures that if a hydraulic line bursts or a pallet unexpectedly shatters, the falling inventory will not strike nearby floor workers.
Parking and Securing Protocols: At the end of a shift, drivers must park the vehicle only in designated, pre-approved zones that do not block emergency fire exits or primary pedestrian walkways. Proper shutdown requires lowering the forks completely to the floor, shifting the transmission into neutral, engaging the parking brake, and formally removing the ignition key.
Strict Elimination of Defective Equipment: If a daily inspection reveals a critical fault like a steering lockup or a massive hydraulic leak, the machine cannot be returned to active service. Operating a heavily damaged vehicle, often referred to as running the forklift while sick, guarantees a catastrophic failure that will ultimately cost far more than a simple proactive repair.

4. Forklift Maintenance Tracking and Planning

Treating your heavy machinery as a long-term investment requires a comprehensive approach to forklift maintenance tracking that goes far beyond simply topping off the engine oil. When you get serious about managing forklift operations, you quickly realize that meticulously documented preventative care is the only reliable way to eliminate devastating mid-shift breakdowns.

Maintenance Type	Frequency	Core Objective	Responsible Party
Visual Check	Daily / Pre-Shift	Identify immediate hazards like leaks or broken pins.	Forklift Operator
Fluid Top-Off	Weekly	Prevent battery sulfation and engine overheating.	Warehouse Technician
Compliance Audit	Annually	Verify structural integrity to TSG N0001-2017 standards.	Certified Engineer

4.1 Daily and Annual Inspection Requirements

Comprehensive Pre-Shift Checklists: Before turning the ignition key, operators are legally required to complete a thorough daily inspection sheet verifying tire pressure, fluid levels, and mast integrity. Documenting these micro-checks at the start of every single shift creates a vital historical baseline that helps mechanics instantly identify when a gradual component degradation becomes a major hazard.
Annual Government Compliance Audits: Beyond routine daily care, your entire fleet must undergo a rigorous, formalized annual inspection mandated by strict national technical safety regulations like TSG N0001-2017. These comprehensive yearly audits are performed by certified third-party engineers who meticulously test structural tolerances and load capacities to ensure the vehicle remains entirely safe for heavy industrial use.
Scheduled Battery Maintenance: For electric fleets, maintenance crews must establish a strict routine for topping off lead-acid battery cells with pure distilled water to prevent internal plate sulfation. Ignoring this critical hydration schedule causes the battery to overheat violently during charging cycles, radically reducing its lifespan and posing a severe chemical fire risk to the facility.

4.2 Documenting Equipment Repairs

Preserving Long-Term Service Records: Every replaced hose, tightened bolt, and swapped engine component must be meticulously logged and permanently attached to the specific vehicle’s master lifecycle file. We mandate preserving all maintenance documentation for a minimum of twelve months to easily verify historical compliance during surprise regulatory safety audits or sudden insurance investigations.
Tracking Auxiliary Loading Gear: Your documentation protocols must extend beyond the forklift itself to encompass all critical auxiliary equipment like dock levelers, safety jacks, and automated trailer restraints. Performing and recording monthly functionality tests on these peripheral loading tools guarantees that the entire logistics chain remains unbroken and safe for your high-volume shipping teams.

4.3 Managing Forklift Operations

Quarantining Failed Machinery: The exact moment a forklift fails any portion of its daily safety inspection, it must be immediately removed from the active rotation and clearly tagged as out-of-service. Operations managers must never bend to production pressure by allowing a compromised machine back onto the floor before a qualified technician completes the necessary documented repairs.
Supervising Attachment Integration: When upgrading a forklift with specialized attachments like paper roll clamps or side-shifters, the operations team must immediately update the vehicle’s capacity data plate. Failing to secure manufacturer approval and retrain drivers on these heavy new attachments creates massive blind spots and drastically reduces the safe working load limit.
Establishing Preventative Timetables: Reactive repairs are an incredible drain on operational budgets, which is why we implement aggressive preventative maintenance schedules based on actual engine hour meters. Swapping out worn hydraulic seals and transmission fluids before they critically fail keeps your warehouse running at peak efficiency and completely eliminates unpredictable, expensive mid-shift equipment breakdowns.
Centralized Fault Reporting Systems: We empower operators to instantly report strange engine noises or minor steering delays directly to the maintenance department through a streamlined digital or paper ticketing system. Capturing this real-time feedback allows mechanics to pre-order necessary replacement parts and schedule strategic downtime, minimizing workflow disruptions during your most critical holiday shipping surges.

5. Forklift Driver Management Systems

Even the most technologically advanced lifting equipment is ultimately at the mercy of the human sitting behind the steering wheel. Securing strict OSHA forklift certification ensures a baseline of competence, but implementing intelligent forklift driver management systems guarantees that this critical training is actually applied out on the facility floor.

5.1 OSHA Forklift Certification Requirements

Mandatory Licensure and Age Limits: Operating a piece of heavy industrial equipment requires a highly specialized technical license, restricting access exclusively to fully capable adults between the ages of 18 and 60. We ensure every single driver possesses this legally mandated special operations certificate before they are ever allowed to touch the ignition key on our warehouse floor.
Rigorous Periodic Re-Certification: A forklift license is never a lifetime pass; drivers are strictly required by safety regulations to submit to a comprehensive re-evaluation and recertification every four years. Operations managers must proactively track these expiration dates and schedule mandatory retraining sessions at least one month in advance to prevent any illegal lapses in driver qualifications.

5.2 Pedestrian and Traffic Yielding Rules

Absolute Pedestrian Right-of-Way: When navigating highly congested aisles, forklift operators must unconditionally stop and yield the right-of-way anytime a pedestrian physically crosses their intended travel path. Drivers must maintain a generous safety gap and make explicit eye contact or use clear hand signals to confirm the pedestrian has safely cleared the danger zone.
Navigating Blind Intersections: The ends of racking aisles and facility entryways are notorious collision hotspots where a driver’s forward visibility is almost completely obstructed by surrounding inventory. Operators are trained to dramatically reduce their speed, continuously sound the vehicle’s horn, and rely heavily on mounted convex mirrors to detect hidden foot traffic before proceeding.
Understanding Braking Limitations: Your drivers must fundamentally accept the harsh physical reality that a heavy forklift carrying a massive load simply cannot stop on a dime like a passenger car. Recognizing this immense momentum requires operators to anticipate traffic flow well in advance, applying gentle, gradual braking rather than relying on dangerous, last-second emergency stops.
Isolating Foot Traffic Channels: To drastically reduce the chances of a fatal collision, warehouse layouts must feature clearly painted, physically segregated walkways that keep pedestrians far away from heavy machinery. Even with these designated paths, workers must never suddenly dart into forklift operational zones, as localized ambient noise often drowns out the vehicle’s reversing safety alarms.

5.3 Forklift Telematics System

Digital Access Control Panels: Modern warehouses utilize smart telematics hubs equipped with RFID or biometric scanners to ensure only currently certified drivers can physically start the engine. This robust security layer completely prevents untrained warehouse staff from taking a forklift on an unauthorized joyride, instantly eliminating a massive liability risk for your business.
Automated Impact Detection: By installing sophisticated G-force sensors directly onto the chassis, operations managers receive instant digital alerts on their smartphones the second a forklift strikes a racking column. This immediate reporting system forces drivers to be held entirely accountable for their actions, stopping them from quietly hiding dangerous structural damage caused by reckless driving.
Data-Driven Productivity Tracking: Advanced fleet software continuously monitors vehicle idle times, travel routes, and lifting frequencies to generate incredibly detailed operational heat maps for your logistics directors. Analyzing this raw data allows us to optimize warehouse layouts, reduce unnecessary vehicle travel distances, and strategically stagger battery charging schedules to maximize overall daily throughput.

Conclusion

Building a resilient warehouse environment requires far more than just handing an operator a manual and a set of keys. A comprehensive forklift training course establishes the vital foundation for accident prevention, equipment longevity, and optimized daily throughput. By rigorously enforcing daily pre-shift inspections, demanding total mastery over the vehicle’s core systems, and implementing strict pedestrian yielding rules, you actively protect your most valuable assets: your people and your inventory.

Here at Teknect Global Inc., we know that integrating advanced forklift safety solutions with continuous education is the only proven method to eliminate catastrophic workplace incidents. The modern warehouse moves faster than ever, and relying solely on human reaction times is no longer sufficient. If you are ready to modernize your fleet management and drastically reduce operational liabilities, we invite you to explore our advanced IoT in logistics hardware. Reach out to our team today for a customized quote on our state-of-the-art telematics and collision avoidance systems, and let us help you engineer a flawlessly safe warehouse floor.

Frequently Asked Questions

How often do forklift operators need to renew their certification? According to strict industrial safety regulations, operators must hold a valid special equipment operator certificate and undergo a comprehensive recertification process every four years. We strongly recommend tracking these expiration dates carefully and submitting renewal applications at least one month prior to expiration to maintain strict legal compliance. For more insights on maintaining this documentation, you can review our forklift certification requirements standards.

What are the primary systems that make up a forklift? Every industrial forklift is built upon four foundational categories: the working system (mast and forks for lifting), the electrical system (displays and warning signals), the power system (engine or battery acting as a counterweight), and the chassis system (transmission and wheels for movement). An operator must understand how all four interact to safely maneuver heavy loads across the facility floor.

What is the proper way to navigate a ramp with a loaded forklift? When transporting a bulky load on an incline, operators must exercise extreme caution to prevent longitudinal tipping. If the cargo obstructs forward visibility, the driver must carefully drive in reverse. When climbing a ramp, the vehicle should travel forward so the heavy inventory remains securely positioned on the upper slope, and the driver must never abruptly accelerate or coast in neutral.

How should operators respond if the brakes suddenly fail? If the mechanical brakes lock up or fail while driving, the operator must instantly sound the horn to warn nearby pedestrians and attempt to shift the vehicle into the opposite directional gear while gently applying the throttle. If these measures fail, the driver is trained to drop the forks directly to the ground to generate immediate friction, or as a last resort, steer the machine into a solid inanimate fixture to force a stop.

Master Your Forklift Training Course: The Ultimate Guide to Warehouse Safety