Buying Guides & Expert Answers

Choose a gantry crane capacity that exceeds your heaviest load with margin, rounding up to the next standard rating (1, 2, 3, or 5 tons for most shop gantries). Include the weight of the hoist, rigging, and any lifting attachments in the load, never just the bare part. Then match the span and height to your work, and confirm the floor can carry the concentrated wheel loads.

Load center is the horizontal distance from the face of the forks (or lifting point) to the center of gravity of the load. For a uniform load, it's half the load's length in the direction of travel. Equipment capacity is rated at a standard load center, and capacity drops as the load center increases.

To use a manual pallet jack: fully lower the forks, roll them squarely into the pallet's fork openings, pump the handle to raise the load just enough to clear the floor, then pull (don't push) to steer. Lower slowly with the release lever. Manual jacks have no brakes, never use them on ramps.

Material handling equipment is the broad family of tools and machines used to move, position, store, and protect materials through a warehouse, factory, or job site. It spans four categories: transport (pallet jacks, stackers, cranes, hoists), positioning (lift tables, slings, spreader bars), unit-load formation (pallets, containers), and storage (racking, shelving).

Choose a lifting sling by matching it to the load and environment: the load's weight (the sling's rating must exceed the tension in each leg), its shape and surface sensitivity, the temperature and chemicals present, sharp edges, and how the sling will be rigged. In short, chain for heat and severe duty, wire rope for rugged everyday lifting, and synthetics for delicate loads.

A gantry crane is a horizontal bridge beam carried on two legs that roll on floor tracks or casters, so the whole crane can be moved to the load. It delivers heavy lifting capacity without any building support structure, which makes it more flexible and generally cheaper than a fixed bridge crane. Portable and adjustable models suit shops, yards, and jobs where lifting happens at changing locations.

A gantry crane is a bridge on wheeled legs that rolls on the floor, giving heavy capacity and mobility with no building structure, at lower cost. A bridge (overhead) crane runs on permanent elevated runway rails supported by the building, covering an entire bay for the heaviest, highest-throughput work. Choose a gantry for mobility and lower cost, a bridge for maximum whole-bay capacity when you can build the structure.

A pallet stacker is a walk-behind material handling machine that lifts a pallet up a vertical mast to racking or storage height, typically 50 to 150 inches. Unlike a pallet jack, which only raises a load a few inches to move it along the floor, a stacker puts loads up. It comes in manual, semi-electric, and fully electric versions and bridges the gap between a pallet jack and a forklift.

A spreader bar is a rigid beam hung under the hook that holds two or more lifting points apart. It keeps the sling legs vertical instead of angled, which protects the load from crushing forces and keeps long or wide items level and stable during a lift.

A pallet jack is a wheeled device that slides two forks under a pallet, raises the load a few inches off the floor with a hydraulic pump, and rolls it horizontally to another spot. Also called a pallet truck or pump truck, it's the most basic and common piece of material handling equipment, typically rated around 4,500 to 5,500 lb.

A pallet jack works with a hydraulic pump. Pumping the handle drives a piston that forces hydraulic fluid into a lifting cylinder, raising the forks and the pallet a few inches off the floor. A release lever opens a valve to lower the load, and the same handle steers the front wheels. It's a simple, durable mechanism with no engine on a manual unit.

A manual pallet jack typically costs $200 to $600, with heavy-duty models up to about $800. Electric pallet jacks cost far more, commonly $2,000 to $5,500 for a standard walk-behind, and over $10,000 for premium rider units. For occasional use, renting runs roughly $50 to $60 per day plus delivery.

A standard pallet jack lifts only a few inches, just enough to clear the floor for transport. The forks sit around 3 inches off the ground lowered and rise to roughly 7 to 8 inches (about 200 mm) fully raised. A pallet jack moves loads at floor level; to lift a pallet up to storage height, you need a pallet stacker instead.

A manual pallet jack typically weighs 150 to 200 lb, with heavy-duty models exceeding 230 lb. The weight is mostly steel forks and the hydraulic mechanism, which makes them durable. Electric pallet jacks weigh far more, often 570 lb or more, because of the battery and motor.

Rigging equipment is the gear used to connect, support, and control a load during a lift. It includes slings (wire rope, chain, synthetic web, and round), plus hardware like shackles, hooks, eye bolts, turnbuckles, and hoist rings, and below-the-hook devices such as spreader bars. It's the critical link between a crane's hook and the load, so it must be rated and regularly inspected.

Rigging equipment must be inspected before each shift (and as needed during use) under OSHA 29 CFR 1926.251, and formally inspected at least once a year by a competent person under ASME B30.9 and OSHA 1910.184. Severe service requires more frequent inspection, monthly to quarterly. Any defective equipment must be removed from service immediately.

To use a spreader bar, connect the crane hook to two slings that angle down to the bar's two ends, then run separate slings straight down from those end pick points to the load. The bar holds the lift points apart so the lower slings stay vertical, which prevents the inward crushing force that angled slings would put on a wide load.

An electric (powered) pallet jack typically costs $2,000 to $5,500 for a standard walk-behind unit. The real-world range is wider, roughly $900 for basic models to $7,000 and up, with premium rider units exceeding $10,000. That's several times the cost of a manual pallet jack, which runs $200 to $600.

You can rent a pallet jack from major equipment renters like Home Depot Tool Rental, United Rentals, and Sunbelt Rentals, which stock manual and hydraulic pallet jacks rated around 5,000 to 6,000 lb. Daily rates run roughly $50 to $60 plus delivery, though exact prices are quoted by location. For regular use, buying a manual jack is usually cheaper.

The difference is vertical lift. A pallet jack lifts a load only 7 to 8 inches to move it along the floor, while a pallet stacker has a mast that lifts pallets up to racking or storage height, 50 to 150 inches. Use a jack to move pallets, and a stacker to put them up. Jacks are cheaper; stackers do more.

A manual pallet stacker typically costs $1,000 to $3,000, a semi-electric stacker $2,900 to $5,000, and a fully electric stacker $7,000 to $30,000 or more, driven by capacity, lift height, and features. That's more than a pallet jack but far less than a forklift, which is a big part of a stacker's appeal.

A manual (or semi-electric) pallet stacker is cheaper and simpler, best for light or occasional stacking. A fully electric stacker costs more but powers both drive and lift, dramatically boosting productivity and cutting operator fatigue for frequent, heavy, or long-distance work. Choose based on how often and how hard you stack, not just the purchase price.

Lifting slings are the flexible connectors that wrap or hook onto a load and attach it to a crane or hoist. The four main types are wire rope, alloy chain, synthetic web, and synthetic round, each suited to different loads and environments. Choosing the right one, and rigging it at a safe angle, is the foundation of a safe lift.

As a sling leg moves from vertical toward horizontal, the tension in it rises sharply for the same load, reducing its usable capacity. The rated capacity is multiplied by the load-angle factor (the sine of the angle from horizontal): 1.0 at 90°, 0.866 at 60°, 0.707 at 45°, and 0.500 at 30°. Angles below 30° from horizontal must never be used.

Inspect lifting slings before each use (a visual check by the user every shift) and formally at least once a year by a designated person, per OSHA 1910.184 and ASME B30.9. Look for the damage specific to each sling type, remove any defective sling from service immediately, and confirm every sling has a legible capacity tag.

A lifting shackle is a U- or bow-shaped metal connector closed by a removable pin, the primary link joining slings, hooks, and the load in rigging. The main body types are anchor (bow) and chain (D) shackles, and the pin types are screw-pin and bolt-type. Choose by the load direction, permanence, and working load limit, and always read the WLL stamped on the body.

Use a screw-pin shackle for temporary connections you make and break often, where the threaded pin's convenience helps. Use a bolt-type shackle (bolt, nut, and cotter pin) for permanent or long-term installations, and any connection subject to movement, rotation, torque, or vibration that could unthread a screw pin. Bolt-type can be used anywhere a screw-pin can.

Size a shackle by its working load limit and its fit. First, choose a shackle whose WLL, stamped on the body, exceeds the load or the tension in each sling leg, with margin. Then confirm the jaw and pin fit the sling eye and fittings without pinching, with the load bearing on the bow. Never estimate capacity by eye, always read the stamp.

CM (Columbus McKinnon) and Crosby are the two dominant US shackle brands, and both make forged, quenched-and-tempered alloy-steel shackles that stamp the working load limit on the body and offer material certificates. Crosby's G-209 and G-2130 part numbers are the industry shorthand; CM's Super Strong line is comparably trusted. Both are top-tier, spec-comparable choices.

A hoist is a device that raises, lowers, and holds a suspended load using a chain or wire rope driven by a lifting mechanism, with a load-holding brake and a high safety factor. Hoists are split by lifting medium (chain vs wire rope) and by power source (manual hand-chain, electric, or air), plus the lever hoist for multi-directional pulling and lifting.

A manual (hand-chain) hoist is simpler, portable, needs no power, and costs less, best for infrequent, light, or remote lifting. An electric chain hoist uses a motor for fast, low-effort, repetitive lifting, best for frequent, heavy, or production work, at a higher price and with a power supply and more maintenance. Choose by how often and how hard you'll lift.

A lever hoist (come-along) is worked by a back-and-forth hand lever and lifts or pulls in any direction, vertical, horizontal, or angled, making it ideal for rigging and tensioning. A hand-chain hoist is worked by pulling a loop of chain and is optimized for two-handed vertical lifting. Use a lever hoist for multi-directional, one-handed work and a chain hoist for controlled vertical lifts.

A chain hoist uses load chain and suits lighter loads, tight spaces, and precise vertical lifts; it's compact, portable, and lower cost. A wire rope hoist uses steel cable and suits heavier, continuous, harsh-duty lifting with higher lift heights and a longer service life, but it costs more and is less mobile. Choose chain for versatility and light-to-moderate loads, wire rope for heavy, continuous work.

Choose a hoist by capacity (round up to the next standard rating above your heaviest load), lift height and headroom, duty classification (matched to how often you lift), power source (manual, electric, or air), and suspension (fixed hook or trolley). Getting the capacity and duty right matters most, since underspecifying either shortens the hoist's life or endangers the lift.

A jib crane has a horizontal boom (the jib) mounted to a vertical column or wall that rotates to sweep a load through an arc, with a hoist and trolley running along the boom. Floor-mounted (freestanding) jibs rotate up to 360 degrees; wall- or column-mounted jibs typically rotate 180 to 200 degrees and save floor space. They're ideal for localized, repetitive lifting at a workstation.

A davit crane is a lightweight, portable crane with a boom (often telescoping, with adjustable angle) on a vertical support, usually driven by a hand or electric winch. Unlike a fixed jib crane, a davit can be moved between mounting sockets, making it ideal for confined-space, marine, truck-bed, and multi-location lifting where portability and flexible mounting matter more than heavy capacity.

A jib crane is a heavier, fixed crane for repetitive lifting at one workstation, mounted to a foundation or wall and rotating a load through an arc. A davit crane is lighter, portable, and moves between mounting sockets, ideal for marine, confined-space, and multi-location lifting. Rough rule: above about 2 tons or 5 meters of reach, choose a jib; within those limits, a davit may be better.

A jib crane uses a rotating boom to cover one or two workstations with lighter loads. A gantry crane is a bridge on wheeled legs that rolls on the floor, giving mobility and heavy capacity without building support. A bridge (overhead) crane runs on permanent elevated runway rails to cover an entire bay for the heaviest, highest-throughput work. Choose by coverage area, capacity, and whether you can build permanent structure.

A winch is a drum-and-cable device that spools wire rope or synthetic line to pull, tension, or position heavy loads, driven by an electric motor, an engine, hydraulics, or a hand crank. The main types are electric, hand (manual), hydraulic, and air (pneumatic tugger). Critically, a winch built for horizontal pulling is not automatically safe for overhead lifting, use only a lifting-rated winch or a hoist overhead.

A hand winch is simple, portable, needs no power, and costs less, best for light-to-moderate loads, remote sites, and occasional or backup use. An electric winch spools the line by motor for fast, low-effort work, best for heavy or frequent pulling where power is available, at a higher price and with duty-cycle limits. Choose by load, frequency, and whether you have power.

A winch rated for horizontal pulling is NOT automatically safe for overhead lifting. Pulling winches are built with a lower safety factor (often around 3:1) and may lack the redundant, automatic load-holding brake that overhead lifting requires. For any vertical or overhead lift, use only equipment specifically rated for lifting, a hoist or a purpose-built lifting winch, never a pulling-only winch.

Choose a winch by rated line pull (comfortably above your maximum load, including friction and slope, with margin), the rope's breaking strength (1.5 to 2 times the rated pull), the drum-layer effect (capacity is highest on the bare drum and drops as line builds up), the duty cycle, and the mounting. Most important: confirm the winch is rated for your application, pulling or overhead lifting.

Cargo control equipment secures loads for transport: ratchet and cam-buckle straps, transport chain and chain binders, and the anchor points that tie it all down. The governing rule is the Working Load Limit (WLL), never break strength, and under FMCSA rules the combined WLL of your tie-downs must be at least half the cargo's weight. Choose straps for most loads and chain for heavy or rough cargo.

A ratchet strap is a tie-down made of polyester webbing with a geared ratchet mechanism that cranks the strap tight to secure cargo. It has a fixed end (the ratchet plus a short webbing tail and end fitting) and an adjustable end (the long webbing that feeds through the ratchet). Common widths, 1, 2, and 4 inches, carry rising Working Load Limits, and the assembly's rating is set by its weakest part.

Hook both ends to rated anchor points, then thread the loose webbing up through the slot in the ratchet's center mandrel from the bottom and pull out the slack until the strap is taut by hand. Pump the handle to ratchet up tension until the strap is snug (it shouldn't press down easily), but don't over-ratchet. Take a few wraps on the mandrel, protect sharp edges, and re-check after a few miles.

A ratchet strap uses a geared ratchet to crank high, secure tension, best for heavy and valuable cargo. A cam-buckle strap tightens by hand-pull only through a spring-loaded cam, applying lighter, self-limiting tension that can't over-tighten, best for delicate or crushable loads. Rule of thumb: heavy load or high tension needed, choose a ratchet; light or crushable cargo, choose a cam buckle.

A chain binder, or load binder, is the device that removes slack from a transport chain and applies high tension to lock cargo to a truck or trailer deck. The two types are the lever (snap) binder, which is fast but stores dangerous energy and can snap back, and the ratchet binder, which tensions gradually and is safer. Always match the binder's grade and Working Load Limit to the chain.

A lever (snap) binder is fast and cheap but stores large energy in its handle and can snap back violently if it slips or is released under load, causing serious injury. A ratchet binder tensions gradually through a screw and gear, storing far less energy and posing much lower kickback risk, so it's the safer choice. Choose the ratchet binder for safety; the lever binder only for experienced users who value speed.

Grade 70 transport chain, also called trucker's chain, is a heat-treated, high-strength carbon-steel chain made specifically for tie-down and towing, with a gold chromate finish and embossed 7/70/700 markings. It's the industry-standard tie-down chain, about 20% stronger than Grade 43. Critically, carbon-steel chains (Grade 30, 43, 70) are never for overhead lifting, only alloy chain (Grade 80 and up) may lift loads.

Under FMCSA rules (49 CFR 393.106), the combined (aggregate) Working Load Limit of the tie-downs securing a load must be at least 50% of the cargo's weight. You also need a minimum number of tie-downs based on the load's length and weight. The securement is limited by its weakest component, and every tie-down must be marked with its WLL.

Fall protection is the equipment and systems that prevent or safely arrest a fall from height. A Personal Fall Arrest System (PFAS) has three parts, an anchorage, a full-body harness, and connectors (lanyard or SRL), often summarized as the ABCD: Anchorage, Body support, Connectors, Descent/rescue. OSHA requires it at 4 feet in general industry and 6 feet in construction.

A full-body harness is fall-arrest body wear made of webbing worn over the shoulders, chest, and thighs, with load-bearing D-rings and buckles that distribute a fall's arrest forces across the strongest parts of the body. It's the only body support OSHA permits for fall arrest, body belts are prohibited because they concentrate force dangerously on the waist. The dorsal (back) D-ring is the primary fall-arrest attachment.

Inspect a safety harness before every use. Flex the webbing into an inverted U along its full length to reveal cuts, frays, abrasion, burns, or chemical damage; check all stitching (including load-indicator stitching) for pulled, cut, or burned threads; examine the D-rings, buckles, and grommets for cracks, distortion, corrosion, or malfunction; and confirm the labels are present and legible. Remove the harness from service if anything is questionable.

A shock-absorbing (energy-absorbing) lanyard is a fall-arrest connector with a built-in energy absorber, a pack that tears away and deploys under load, to decelerate a falling worker and reduce the force transmitted to their body. It's typically 6 feet long and connects a harness to an anchor. OSHA limits the system to 6 feet of free fall, 1,800 lb maximum arrest force, and 3.5 feet of deceleration distance.

A shock-absorbing lanyard is simple and economical but allows significant fall distance, so it needs ample clearance below (roughly 18 feet for a 6-foot lanyard). A self-retracting lifeline (SRL) stays taut and locks like a seatbelt on a sudden pull, arresting the fall in a much shorter distance and giving more mobility, so it's preferred where clearance is limited. Choose by your available fall clearance.

A self-retracting lifeline (SRL) is a fall-arrest connector with a spring-loaded web or cable line on a drum that pays out and retracts to stay taut as the worker moves, and locks almost instantly, like a seatbelt, on a sudden pull. It then arrests the fall over a short distance via an internal energy-management system. SRLs allow much shorter fall distances than lanyards and are classified by how they can be anchored.

A fall-protection anchor point is the rated structural point a fall-arrest system attaches to. OSHA requires each anchorage to support at least 5,000 lb per worker attached, OR be designed and used under a qualified person as part of a system with a safety factor of at least two. The belief that every anchor must be 5,000 lb is a myth, the engineered 2-to-1 alternative is equally valid. Never tie off to unrated structure.

Fall clearance is the minimum vertical distance needed below the anchor so a falling worker stops before hitting a lower level. Add the free-fall distance, the deceleration distance (up to ~3.5 ft), harness stretch (~1 ft), the worker's height below the D-ring (~5 ft), and a safety factor (~3 ft). A 6-foot shock-absorbing lanyard tied off at D-ring height needs roughly 18.5 feet; an SRL needs far less.

OSHA requires fall protection at 4 feet in general industry (29 CFR 1910.28) and 6 feet in construction (29 CFR 1926.501), and at any height above dangerous equipment. A Personal Fall Arrest System must limit free fall to 6 feet, cap arrest force at 1,800 lb with a full-body harness, limit deceleration to 3.5 feet, and use anchors rated at 5,000 lb per worker or an engineered 2-to-1 system.

Warehouse facilities equipment keeps a building safe, organized, and productive: safety barriers, guardrails, and bollards that protect people and racking from forklift impact; pallet racking and shelving that store inventory densely and safely; and packaging equipment like stretch wrappers that unitize loads for shipping. Choosing the right gear means matching barriers to your traffic and racking to your storage needs.

Warehouse safety barriers and guardrails are steel or polymer structures that physically separate forklifts and other vehicles from pedestrians, racking, walls, and equipment. They protect people by segregating foot traffic from vehicle lanes and shield structures by absorbing or blocking forklift impacts before damage or collapse occurs. Impact-rated barriers are specified by the force they can stop at a given speed.

A safety bollard is a short vertical post installed to provide impact protection and traffic guidance, shielding corners, equipment, doorways, and rack ends from vehicle strikes. The main types are fixed/embedded (permanent, maximum stability), removable (allow occasional vehicle access), and flexible polymer (bend and rebound on impact). Steel-core bollards give top protection; polymer ones flex to reduce floor and vehicle damage.

Steel barriers are rigid and lower-cost, but on impact they bend and transfer the collision force into the floor slab and anchors, often needing repair after a strike. Flexible polymer barriers flex, absorb and dissipate the impact, and rebound to their shape, protecting the floor and reducing maintenance, at a higher upfront cost. Choose steel for lowest cost and hard point protection; polymer for repeated impacts and floor protection.

Pallet racking is a steel beam-and-upright structure that stores palletized loads stacked vertically in multiple levels. The main types trade selectivity for density: selective racking gives direct access to every pallet, while drive-in, push-back, and pallet-flow systems pack far more pallets per square foot. Racking is governed by ANSI MH16.1, requires load-capacity plaques, and must be protected from forklift impact and inspected regularly.

Cantilever racking uses horizontal arms projecting from vertical columns, with no front upright, giving an unobstructed run to store long, bulky, or awkwardly shaped loads that don't fit standard pallet racking. It's used for lumber, pipe, tubing, steel, furniture, and rolled goods. Available single- or double-sided, it can take decking to hold bulky non-linear loads.

The main warehouse shelving types are boltless (rivet) shelving, which assembles fast without hardware for general storage; enclosed steel shelving for stockrooms and tool cribs; and wire shelving, which allows airflow and drainage for kitchens, cold storage, and cleanrooms. Shelving handles smaller, hand-stacked items that don't need pallet racking. Choose by load weight, environment, and how often you reconfigure.

A stretch wrapper applies stretch film around a palletized load to unitize it, stabilizing the stack against shifting and toppling in transit and protecting it from dust and moisture. Manual wrapping is done by hand (slow); semi-automatic machines wrap a pallet on a turntable while the operator loads it (~60-90 seconds); automatic systems wrap pallets on a conveyor with no operator. Choose by your shipping volume.

Choose a stretch wrapper by how many pallets you wrap a day. Under about 10 loads a day, hand wrapping or a [handheld wrapper](/products/vestil-hand-held-stretch-wrappers) is fine. From roughly 10 to 100 loads a day, a [semi-automatic turntable](/products/vestil-medium-duty-powered-stretch-wrap-machines) pays for itself in labor and film savings. Above 100 loads a day, an [automatic wrapper](/products/vestil-medium-duty-high-performance-auto-wrap-stretch-wrap-machine) that wraps with no operator is usually the right call. Volume is the main driver; load stability, film cost, and floor space fill in the rest.

Protect pallet racking by guarding the parts forklifts hit and inspecting for damage. [Column guards](/products/rack-upright-guards) shield upright posts at floor level, [end-of-aisle guards](/products/pallet-rack-end-guard) take the hits at row ends, and [back guards](/products/vestil-pallet-rack-back-guards) or netting stop product falling into aisles behind the rack. Under ANSI MH16.1 and RMI guidance, damaged uprights must be unloaded and repaired, not left in service. Guarding plus routine inspection is what keeps racking standing.