When I first started working in the lifting auxiliary tools industry, I’ll admit I bought into a common misconception: these tools were only meant for vertical lifting—for hoisting pallets, construction materials, or heavy machinery straight up off the ground. It wasn’t until a client in the logistics sector reached out with a problem that I realized how wrong I was. They needed to move long, awkward steel beams across a warehouse floor without scratching their surfaces or putting their workers at risk of back injuries. At the time, our catalog was full of vertical lifting clamps, chain slings, and vacuum lifters for vertical loads. But we had a few under-the-radar tools, like adjustable spreader bars and horizontal lifting beams, that no one was really using for horizontal moves. That project changed everything for me—and it’s why I want to demystify today’s question: Can lifting auxiliary tools actually be used for lifting objects in a horizontal position? Lifting Auxiliary Tools
Let’s start with a basic fact that’s easy to overlook: not every heavy load moves best straight up. Industries from aerospace, shipbuilding, and energy to warehousing, construction, and even event management deal with items that are long, rigid, or delicate—think steel I-beams, wind turbine blades, aircraft fuselage sections, oversized pipe spools, or even prefabricated building panels. These objects are designed to rest horizontally, and lifting them vertically can put uneven stress on their structure. For example, a 40-foot steel beam suspended straight up at one end will bend at the unsupported middle, causing internal stress that could lead to cracks or even failure. That’s where horizontal lifting comes in, and that’s where lifting auxiliary tools step in as more than just accessories—they’re engineered solutions.
First, let’s talk about the tools built specifically for this. Adjustable spreader bars are the workhorses here. Unlike a simple chain sling, a spreader bar is a rigid, horizontal beam with multiple attachment points along its length. These points let you adjust the distance between lifting slings to match the length of your load, distributing the weight evenly. For the steel beam project my client had, we used a spreader bar with three adjustable attachment points spaced to match the beam’s center of gravity. That kept the beam perfectly horizontal during the lift, eliminated bowing, and reduced the tension on the slings by 15% compared to a standard vertical lift. It wasn’t just a one-off fix either—after that, we saw spreader bars used for everything from moving wind turbine blades (which can be over 100 feet long) to positioning large sections of ship hulls in dry docks.
Another key tool for horizontal lifting is the horizontal lifting beam, sometimes called a lifting beam or an I-beam lifter. What sets this apart from a basic spreader bar is its built-in load distribution design, often with rotating lifting lugs at both ends that connect to your crane or hoist. This is critical for loads that need to be rotated after lifting—like an aircraft fuselage section that needs to be moved from a horizontal transport truck to a vertical assembly line. The rotating lugs let you smoothly swing the beam and its load into a vertical position without putting uneven stress on the fuselage’s thin metal walls. I’ve also seen horizontal lifting beams paired with suction cups for delicate loads, like marble slabs or tempered glass, where you can’t use clamps that might leave marks. The horizontal beam keeps the load stable while the suction cups distribute the weight evenly across the slab’s surface, preventing breaks during lifting and transport.
But here’s a point that causes a lot of confusion: not every horizontal lift uses a dedicated horizontal tool. You can adapt some vertical lifting auxiliary tools for horizontal use, as long as you follow safety guidelines. For example, a chain sling designed for vertical lifting can be configured as a bridle sling to lift a load horizontally. Instead of attaching both ends of the sling to a single vertical point, you split the sling into two legs, each attached to an end of the load, and connect the top of the sling to the crane hook. This creates a triangle that keeps the load horizontal. The key here is calculating the sling angle—most vertical slings are rated for 90-degree lifts, but when you use them at a 30 to 45-degree angle for horizontal lifting, their load capacity decreases. I always tell clients to check the manufacturer’s load rating chart before adapting a tool this way; one client in construction learned this the hard way when they tried to lift a 10-foot concrete pipe with a standard vertical chain sling at a 20-degree angle, and the sling stretched beyond its limit, dropping the pipe and damaging a forklift.
Still, even with adapted tools, there are limits. Lifting auxiliary tools are not one-size-fits-all, and using the wrong tool for a horizontal lift can lead to safety hazards or load damage. Let’s break down when to go for a dedicated tool versus an adapted one. Dedicated horizontal tools are best for loads over 5,000 pounds, loads longer than 20 feet, delicate loads (like aircraft components or medical equipment), or loads that need to be rotated post-lift. Adapted vertical tools work for smaller, simpler loads—like moving a 2,000-pound wooden beam in a small workshop where you don’t need a heavy spreader bar. I once had a small manufacturing client who tried to use a vertical clamp for a horizontal lift of aluminum extrusion, and the clamp’s sharp jaws left permanent scratches on the extrusion, costing them $2,000 in rejected parts. That’s why I always emphasize: when the load’s value or size matters, invest in the right tool.
Safety is another non-negotiable part of this conversation. Lifting auxiliary tools, whether used for vertical or horizontal lifts, have strict standards set by organizations like OSHA in the U.S. and ISO 12107 globally. For horizontal lifting, there are two key safety checks I never skip: verifying the center of gravity (CG) of the load and ensuring the tool has a sufficient working load limit (WLL) for the total weight. The CG is the point where the load’s weight is evenly balanced—if your spreader bar or sling isn’t aligned with the CG, the load will tip or bend. For example, a long steel I-beam has its CG at its midpoint, but a pipe spool with fittings at one end has a CG shifted toward the heavier end. That means you need to adjust the attachment points on your spreader bar to match the CG, not just the length of the load. I’ve seen workers ignore this step, leading to loads swinging wildly during lifts, which is a top cause of workplace injuries in the lifting industry.
Maintenance also plays a role in how well a tool works for horizontal lifting. A spreader bar with bent attachment points, or a chain sling with frayed links, won’t distribute weight evenly, even if it’s rated for the load. We perform annual inspections on all our tools, and I advise clients to do the same—especially if they’re using tools for horizontal lifts that put extra stress on attachment points. Horizontal lifts put tension on both ends of a tool at the same time, whereas vertical lifts put tension only at the top, so wear and tear often happens faster in the attachment areas.
Let’s talk about real-world applications to make this concrete. Last year, we supplied horizontal lifting beams to a wind energy company that needed to move 80-foot wind turbine blades from production lines to transport trucks. The blades are tapered, so their CG shifts from the root (thicker end) to the tip (thinner end). Our horizontal lifting beams have adjustable lifting lugs that let them shift the attachment points to match the CG of each blade, keeping the blade perfectly horizontal during transport. Before using these beams, the company had 12% of blades get damaged during lifting due to uneven stress; after switching, that number dropped to less than 1%. Another client: a movie studio that needed to move oversized movie props, like a 50-foot model of a spaceship, across a studio lot. We used a spreader bar with padded slings to avoid scratching the fiberglass hull, and the prop was lifted and moved without a single scratch.
A common question I get from new clients is, “Are horizontal lifts as safe as vertical lifts?” The short answer is: when done right, yes. The key is using the correct tool for the job, calculating load and CG, and following safety standards. For small, low-value loads, an adapted vertical tool works, but for larger, high-value, or delicate loads, a dedicated horizontal lifting tool is worth the investment. I’ve seen too many companies cut corners and end up with damaged goods, delayed projects, or even workplace accidents that could have been avoided with the right tool.
So going back to our original question: Can lifting auxiliary tools be used for lifting objects in a horizontal position? The answer is a resounding yes—when selected, configured, and used correctly. Lifting auxiliary tools aren’t just for vertical lifting anymore. They’re versatile, adjustable, and engineered to handle the unique demands of horizontal loads, helping industries move heavy, long, or delicate items safely and efficiently.
If you’re working on a project that involves horizontal lifting—whether it’s moving long beams, delicate aerospace components, or oversized wind parts—don’t guess at the tool you need. Lifting auxiliary tools are specialized, and getting the right one makes all the difference in safety, cost, and project timelines. Reach out to our team to discuss your specific load requirements, so we can help you select the ideal tool for your needs.
Electric Hoist References
- Occupational Safety and Health Administration (OSHA). 2023. "Lifting and Rigging Standards."
- International Organization for Standardization (ISO). 2020. "Lifting accessories — Spreader beams and beams for lifting — Safety requirements."
- American Society of Mechanical Engineers (ASME). 2022. "Standard for Lifting Devices and Lifting Appliances."
- National Institute for Occupational Safety and Health (NIOSH). 2021. "Manual Material Handling Guidelines for Back Injury Prevention."
- European Agency for Safety and Health at Work (EU-OSHA). 2022. "Safe Lifting and Handling of Heavy Loads in Construction and Manufacturing."
Hebei Hengtai Crane Machinery Manufacturing Co., Ltd.
As one of the leading lifting auxiliary tools manufacturers in China, we warmly welcome you to buy bulk discount lifting auxiliary tools in stock here from our factory. All customized products are with high quality and low price. For more cheap products, contact us now.
Address: Weigezhuang Village, Donglu Township, Qingyuan District, Baoding City, Hebei Province
E-mail: hbht@cnhengtai.com
WebSite: https://www.cnhengtai.com/
