What is lifting equipment? An A-Z overview for warehouses and factories.
Lifting equipment is an indispensable group of solutions in modern factories, warehouses, and production lines, where the continuous movement, lifting, and positioning of heavy goods take place every day. Instead of relying on human labor or manual methods that carry numerous risks, today's businesses are increasingly investing in lifting equipment to enhance productivity, ensure occupational safety, and standardize operational processes.
In reality, not everyone fully understands the different types of lifting equipment, their operating principles, and which solution best fits their specific needs. Some places use overhead cranes for assembly tasks that require high precision, while others still manually lift heavy goods, causing physical overload for workers. With experience in consulting and implementing industrial lifting solutions, Vietmani will help you clarify the entire picture of lifting equipment—from concepts, classifications, and practical applications, to the crucial safety standards you need to know before investing.
What is lifting equipment?
Lifting equipment is a collection of machinery and mechanical solutions designed to lift, lower, move, and position goods or heavy objects vertically, horizontally, or both within a specific workspace. These devices help replace or assist human labour in tasks involving heavy loads, high frequency, or demanding high safety and precision.
In actual production, lifting equipment is not merely used for moving things up or down. Depending on the type, the equipment can:
- Move goods within warehouses and factories.
- Precisely position heavy components during assembly.
- Assist workers in handling heavy objects in a near-weightless state.
- Reduce the risk of occupational accidents and injuries.
Simply put, the core role of lifting equipment is to transfer the weight burden from humans to machines, making work safer, more efficient, and more sustainable.
In today's factories, lifting equipment includes various groups such as overhead cranes, hoists, forklifts, hydraulic lift tables, or modern assistive lifting solutions. Each type is designed for a specific purpose, from transporting heavy warehouse goods to supporting high-precision assembly operations.
Common classifications of lifting equipment today
In actual production and logistics, lifting equipment is typically classified based on structure, operating principle, and intended use. Below are the most common groups of lifting equipment today.
Overhead and gantry crane systems

Overhead cranes and gantry cranes are fixed lifting equipment groups, usually installed indoors or in outdoor yards to lift and move heavy loads. They include:
- Single girder overhead cranes: Suitable for light to medium loads, featuring a compact structure and reasonable investment cost. Often used in mechanical workshops, material warehouses, and maintenance areas.
- Double girder overhead cranes: Designed for heavy loads and high working frequencies. Their advantages include high stability and maximum utilisation of factory height, making them suitable for steel mills, foundries, and heavy industrial plants.
- Gantry cranes: Equipped with supporting legs that run on ground rails or wheels, commonly used outdoors, such as in steel yards, container terminals, and construction sites where indoor overhead cranes cannot be installed.
This group is suitable when there is a need to lift heavy loads over a wide working range with repetitive operations.
Hoists – the central lifting mechanism

Hoists are the primary lifting component that can operate independently or be mounted on overhead cranes and suspension beams. There are currently two main types of hoists on the market:
- Electric chain hoists: Compact design, easy to install, suitable for individual workstations or tasks requiring high precision. Typically handles small to medium loads.
- Electric wire rope hoists: Specialised for heavy loads, long lifting distances, and quieter, more durable operation. Common in industrial overhead crane systems.
Hoists are a popular choice when you need to lift and lower vertically, but do not require flexible movement across the floor.
Mobile lifting equipment

This is the most flexible equipment group in warehousing and logistics.
- Hand pallet trucks: The basic solution for moving pallets over short distances, low cost, and easy to use.
- Electric / IC (Internal Combustion) forklifts: Used in warehouses and factories with frequent goods movement needs. Electric forklifts are suited for enclosed warehouses; IC (diesel/gas) forklifts are better for outdoor environments and heavy loads.
- Specialised forklifts: Reach trucks, Very Narrow Aisle (VNA) trucks, pallet stackers... helping to optimise high-tier warehouse space.
This group is ideal when you need to both lift and transport goods across the floor.
Hydraulic lift tables & stationary lifting equipment

Hydraulic lift tables are designed to lift goods to a fixed height, assisting production operations.
- Scissor lift tables: Used in assembly lines and loading/unloading areas, helping workers operate in ergonomic postures.
- Dock levellers: Bridge the height gap between the warehouse floor and the container truck floor, extremely common in logistics.
Suitable for stationary lifting tasks that do not require long-distance transportation.
Industrial Manipulators

Industrial manipulators represent a new generation of lifting equipment, focusing on ergonomics and operational precision.
- Operate on the principle of load balancing (pneumatic or electronic).
- Allow heavy objects to remain in a near-weightless state.
- Workers can move, rotate, and flip heavy components gently and safely.
This solution is especially suitable for component assembly, precise manipulation, and high-frequency tasks where traditional cranes or hoists fall short.
Operating principles of lifting equipment
To choose the right solution, you not only need to know what types of lifting equipment exist, but also understand what principles they operate on. In fact, most lifting equipment today operates based on four main principle groups: mechanical, electrical, hydraulic, pneumatic/electronic for load balancing. Each principle suits a different application scenario.
Mechanical – electrical principles in overhead cranes and hoists
Cranes and hoists are traditional lifting devices that operate using an electric motor combined with a mechanical transmission system.
- The electric motor generates rotary motion.
- The gearbox reduces speed and increases torque.
- The cable drum or chain sprocket converts rotary motion into lifting/lowering motion.
- Electromagnetic brakes hold the load safely when stopped or during a power outage.
For overhead cranes, this principle is expanded to include:
- Lifting/lowering mechanism.
- Trolley travel mechanism.
- Crane travel mechanism on rails.
The advantage of this principle is its heavy load capacity, durable structure, and stable long-term operation. However, the operation is usually a "push button up-down" style, so flexibility and direct control feel are somewhat limited.
Hydraulic principles in lift tables and forklifts
Hydraulic lifting equipment operates on Pascal's law, where fluid pressure is transmitted evenly throughout a closed system. The basic structure includes:
- Hydraulic pump.
- Hydraulic cylinder.
- Control valves and safety valves.
- Hydraulic oil is the transmission medium.
When the pump creates pressure, the oil pushes the piston inside the cylinder upward, thereby:
- Raising the table platform (for scissor lifts).
- Raising the forks (for hand pallet trucks and motorised forklifts).
The hydraulic principle allows for heavy lifting with minimal input force, offering smooth and stable operation. The downside is that lifting speeds are generally slower, and the oil system requires periodic maintenance.
Pneumatic principles in industrial manipulators
Unlike traditional lifting equipment, industrial manipulators use compressed air to balance the load, rather than simply lifting and lowering. Operating principle:
- Compressed air is supplied to the cylinder.
- The air pressure is adjusted to perfectly balance the weight of the object.
- Once balanced, the object essentially floats in mid-air.
At this point, the worker only needs to apply a very small force to:
- Move the object up or down.
- Rotate, flip, or tilt the component.
- Position it precisely into the assembly location.
This principle helps almost eliminate the load burden on the worker's body, making it particularly effective for repetitive tasks on the production line.
Electronic control and smart balancing principles
In more advanced lifting solutions, the system integrates:
- Load cells.
- Electronic control units.
- Servo motors or high-precision force-assist mechanisms.
The device continuously measures the force applied by the operator and responds almost instantly, making control incredibly smooth. Operators can stop the device exactly at the desired position. It also limits load capacity and safe working zones. This principle is typically found in assembly lines requiring high precision and strict safety standards.
Practical applications
In reality, lifting equipment is not a "one-size-fits-all" solution. It is applied flexibly according to industry characteristics, production processes, and working environments.
- In industrial manufacturing plants: Lifting and moving raw materials, positioning heavy parts during assembly... in mechanical, electronic, automotive, plastics, or packaging factories.
- In warehousing and logistics: Lifting pallets onto high racks, moving goods between zones... in warehouses, distribution centres, and logistics hubs.
- In the food and pharmaceutical industries: Lifting raw material bags and containers into mixers, stacking finished cartons onto pallets...
- In assembly and precision manipulation: Assembling machine parts and heavy component clusters, placing products into narrow or hard-to-reach positions...
- In handling sheet materials and bulky goods, Such as sheet metal, glass, wood, stone, or large material rolls.

Safety standards & legal regulations for lifting equipment
Besides technical factors and efficiency, occupational safety and legal compliance are mandatory requirements when using lifting equipment. Many serious incidents occur not because of poor-quality equipment, but due to improper use, lack of inspection, or incorrect operation. Therefore, understanding the system of standards and legal regulations is crucial for any business.
Mandatory technical regulations in Vietnam
According to current regulations in Vietnam, most lifting equipment, such as:
- Overhead cranes, gantry cranes
- Electric hoists
- Forklifts
- Heavy-duty lift tables
...fall under the category of machinery and equipment with strict occupational safety requirements. This means the equipment must undergo safety technical inspections before being put into use and throughout its operational life.
In the lifting equipment sector, the two most important regulatory documents businesses must comply with are:
- National Technical Standards (TCVN) 4244:2005: Regulations on the design, manufacturing, testing, and technical inspection of lifting equipment. This is the technical basis for evaluating structural strength, safety factors, and load capacity.
- National Technical Regulations (QCVN) 07:2012/BLDTBXH: Mandatory occupational safety regulations for lifting equipment during installation, operation, and use. This regulation is legally binding and serves as the basis for authorities to inspect and penalise violations.
Simply put: TCVN focuses on "technical correctness," QCVN focuses on "legal compliance," and businesses must satisfy both.
=> Read more:
- Lifting Equipment Standards – Mandatory regulations businesses must know
- Lifting Equipment Safety Regulations: Latest standard updates for 2026
- Lifting equipment safety codes: Full compilation of the latest QCVN and TCVN
Lifting equipment inspection process
Safety inspection is not a mere formality, but a comprehensive technical evaluation process. A standard lifting equipment inspection process typically includes:

1. Checking technical documentation
- Factory release documents
- Technical specifications
- Previous inspection records (if any)
2. External visual inspection
- Condition of metal structures
- Cables, hooks, chains, brakes
- Electrical systems, emergency stop buttons
3. No-load testing
- Checking the operation of lifting – lowering – moving mechanisms
4. Load testing
- Static and dynamic load testing according to specified ratios
- Evaluating stability and load-holding capability
Upon passing the requirements, the equipment will be:
- Issued an inspection certificate
- Affixed with a safety inspection stamp in a highly visible location
Equipment without a valid inspection stamp is not allowed to be put into use.
Inspection deadlines and cycles
- Initial inspection: after installation is complete, before use
- Periodic inspection: according to the prescribed cycle (usually 1–3 years, depending on the equipment type and usage condition)
- Extraordinary inspection: when the equipment undergoes major repairs, structural changes, or after an incident
Skipping or delaying inspections not only poses accident risks but can also lead to administrative fines or operation suspensions.
Requirements for operators
Besides the equipment, humans are the key element of safety. Lifting equipment operators must:
- Receive appropriate professional training.
- Possess a certificate or safety training confirmation.
- Understand allowable load capacities and operating procedures.
- Strictly adhere to safety rules such as:
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Do not stand under the load.
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Do not overload.
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Do not drag or lift off-centre.
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Do not operate when the equipment shows signs of abnormality.
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=> Read more:
- Regulations on lifting equipment operators under current laws
- Lifting equipment operator certificates – Latest regulations & fines
How to choose lifting equipment that suits your needs
In practice, each type of lifting equipment is designed for a different application. Therefore, selection must be based on the specific operational scenario of each factory. Here are the factors you need to consider before making a decision:
Determine the required lifting load
Load capacity is the first and most crucial factor.
- Determine the maximum weight of the goods or parts to be lifted
- Do not choose equipment that just barely meets the capacity; always include a safety factor
- Consider both static load and dynamic load (during continuous lifting/lowering).
Example: If the heavy object is 80–100 kg, choosing equipment rated for 150–200 kg will ensure stable and more durable operation.
=> Read more:
- What is Lifting Equipment Payload? Details on payload deduction components you need to know
- What is WLL? Distinguishing between WLL, SWL & Calculating lifting loads
Evaluate working frequency and duty cycles
Not all equipment is designed to operate continuously. You must clarify aspects such as:
- How many lifts per day?
- How long is each shift?
- Does the equipment work intermittently or continuously?
For low frequencies, basic lifting equipment works fine. But for continuous production lines, prioritise equipment with high duty cycles, excellent heat dissipation, and superior durability.
Determine the working environment and space
The operating environment directly dictates the type of equipment needed:
- Indoors or outdoors.
- Narrow or wide spaces.
- Humid, dusty, high-temperature, or cleanroom environments.
Determine the Required Flexibility and Precision
You don't always just need to lift and put down. Some applications might require:
- Rotating, flipping, or tilting the part.
- Placing the object into a precise location.
- Continuous worker interaction with the heavy object.
Consider Safety and Ergonomics
Proper lifting equipment not only protects goods but also protects workers by:
- Reducing manual bending, reaching, and lifting.
- Limiting spine, shoulder, and arm injuries.
- Helping workers maintain steady performance over long periods.
This factor is gaining increasing attention from factories, especially in modern production lines.
Calculate Investment and Operational Costs
When choosing lifting equipment, don't just look at the initial purchase price. Consider multiple aspects such as:
- Maintenance and servicing costs.
- Repair and spare parts costs.
- Equipment lifespan.
- Downtime costs in the event of a breakdown.
The Role of On-Site Surveys and Consultation
Finally, Vietmani always recommends that you should not choose lifting equipment based solely on a catalogue, but rather opt for an on-site survey. A practical survey helps to:
- Understand the production process clearly.
- Identify exact bottlenecks that need improvement.
- Propose the right solutions, avoiding wasteful investments.
With experience in deploying multiple lifting solutions in factories and warehouses, Vietmani always prioritises a consulting – accompanying – optimising approach, helping you choose lifting equipment that meets your exact needs, goals, and delivers long-term efficiency.
=> You may be interested in: Criteria for selecting industrial manipulators before investing
Trends in lifting equipment in modern factories
In the context of Industry 4.0, modern factories demand more than just lifting equipment that simply goes "up and down." New trends are reshaping material handling in manufacturing—focusing on automation, safety, flexibility, and the overall efficiency of the production system. Here are the prominent trends in recent years:

Automation and robotics in lifting
One of the clearest trends is the emergence of robots and automated lifting systems in production lines:
- Autonomous Mobile Robots (AMR/AGV) transport goods between areas without direct human control.
- Fully automated lifting systems integrated with conveyors and ERP/WMS help optimise material flow.
This trend minimises errors, increases processing speed, and is suited for high-volume factories requiring speed and precision.
Smart lifting equipment integrated with IoT
With Internet of Things (IoT) technology, traditional lifting equipment is upgraded to:
- Monitor operational status in real-time.
- Report errors and warn of overloads.
- Track usage and maintenance history.
This not only extends equipment lifespan but also reduces maintenance downtime, thereby increasing overall production efficiency.
Transition to clean and efficient energy
Modern factories have increasingly high demands for environmental friendliness and energy efficiency:
- Electric Vehicles (EV forklifts) are replacing internal combustion engine forklifts.
- Overhead crane and hoist systems utilising high-efficiency motors.
- Using energy recovery systems on lifting equipment.
This helps reduce fuel costs and eliminates emissions in enclosed production areas.
Ergonomic design – enhancing operator experience
Ergonomics is becoming a critical criterion when selecting lifting equipment:
- Assistive manipulators allow workers to handle items gently, reducing muscle fatigue and injuries.
- Height-adjustable lift tables help workers operate in proper postures.
- User-friendly control interfaces reduce training time and operational errors.
This human-centric trend helps protect occupational health, creating a safe and sustainable work environment.
Integration with smart management systems
In a smart factory, lifting equipment does not operate in isolation but is connected to manufacturing execution systems (MES/WMS/ERP):
- Tracking equipment location and status in the warehouse.
- Synchronising lifting data to optimize processes.
- Data analysis to plan proactive maintenance.
This integration reduces wait times, increases flexibility, and improves real-time material flow.
Standardisation and "Plug-and-Play" Solutions
Modern factories prioritise modular designs that are easy to install and scalable for the future:
- "Plug-and-play" lifting equipment that is easily integrated.
- Hardware and software that can be upgraded on demand.
- Reduced production downtime during upgrades.
This trend allows businesses to flexibly alter their production processes without spending significant time and money.
In summary, the trend for lifting equipment in modern factories is shifting toward automation, smart tech, safety, and operator-friendliness. No longer just machinery performing lifting and lowering tasks, today's equipment is a dynamic part of smart production systems, contributing to optimised productivity, minimised downtime, and enhanced overall operational quality.
Vietmani - Consulting & supplying genuine industrial manipulator equipment
Vietmani starts with on-site surveys and direct observation. From there, we propose suitable assistive lifting solutions rather than imposing a fixed model. The goal is to help businesses use equipment efficiently and sustainably over the long term.
If you are looking for a reputable consulting and supply unit for assistive lifting equipment—one that understands factories and understands the human operators—Vietmani is ready to partner with you from the survey stage to implementation and solution optimisation.
Contact Vietmani to get advice on the most suitable assistive lifting solution for your business's practical needs. Hotline: 0931 782 489.
About the author
Le Dang Thang
CEO – Founder
Research, design and manufacture of lifting assist equipment – industrial automation solutions
I am Le Dang Thang, Master of Engineering, Founder and CEO of Vietnam Manipulator Joint Stock Company (VIETMANI). I specialize in research, design and manufacture of lifting assist equipment and industrial automation solutions for manufacturing.
With over 15 years of hands-on experience working with production lines, heavy industrial plants, and operating environments with high demands for safety, precision, and efficiency, I focus on solving the core challenges of modern manufacturing: reducing manual labor, improving working conditions for operators, and optimizing long-term efficiency for businesses.
The content I share revolves around technical knowledge, practical implementation experience, technology ownership mindset, and the application of lifting assist equipment in factories. I hope these insights will bring practical value, helping you gain in-depth and useful perspectives in selecting, operating, and developing industrial solutions.
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