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| Capacity | 500 kg to 5,000 kg |
| Platform Size | 1000x1000 mm to 2500x3000 mm |
| Lift Travel | 500 mm to 3,000 mm |
| Collapsed Height | 300 mm to 750 mm |
| Turntable Diameter | 900 mm to 2,500 mm |
| Turntable Rotation | 90°, 180° or 360° |
| Rotation Speed | 1 to 3 rpm |
| Lifting Speed | 0.05 to 0.12 m/s |
| Power Supply | 230V single-phase, 415V three-phase or battery |
| Hydraulic Motor Power | 2.2 kW to 11 kW |
Turntable Scissor Lift is a hydraulic lifting device with integrated rotation used to elevate and orient industrial loads. It is commonly installed within automated production lines or material handling systems to facilitate efficient load positioning. This equipment enables precise vertical movement combined with controlled rotation, optimizing space and process flow.
The Turntable Scissor Lift operates on hydraulic power which drives the scissor arm assembly to produce vertical lifting and lowering of the platform. Hydraulic pressure is applied through cylinders to expand or contract the scissors, raising or lowering the platform steadily. An integrated turntable mounted on the platform allows controlled rotation of the load, coordinating lifting and turning functions within a compact unit.
| Alternative | Key Difference |
|---|---|
| Hydraulic Scissor Lift Table | Provides vertical lifting without integrated rotation, suitable where load orientation changes are not required. |
| Manual Scissor Lift Table | Operated manually and lacks powered lifting and rotation, best for low frequency or lighter load applications. |
| Pit Mounted Scissor Lift | Installed flush with floor level offering low collapsed height but generally without load rotation capability. |
| Rail Mounted Scissor Lift | Incorporates horizontal movement along rails in addition to lifting, but usually does not include a turntable rotation function. |
| Mobile Scissor Lift | Offers portability and flexible positioning but typically does not integrate load rotation or fixed automation interfaces. |
| Double Scissor Lift | Delivers higher lifting height and capacity but generally lacks integrated turntable function for load reorientation. |
| Scissor Lift With Conveyor | Includes conveyor integration for material flow but does not inherently provide load rotation capabilities. |
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The Turntable Scissor Lift is a hydraulic industrial lifting system that combines vertical elevation with controlled load rotation. It is designed for pallets, components, fixtures, containers and other industrial loads that must be raised to a working or transfer height and then oriented for the next process. By integrating these movements into one machine, the equipment can replace separate lifting and repositioning steps within production, packaging, inspection and material handling workflows.
Hydraulic cylinders expand and contract the fabricated scissor arm assembly to raise or lower the supported platform. A turntable mounted above the lifting structure uses a rotary drive to orient the load through a selected 90°, 180° or 360° rotation range. Lift and rotation functions can be coordinated through the control system so that movement occurs only when the platform and surrounding process are in a safe operating state.
The equipment is particularly relevant where a load arrives in one orientation but must leave in another, or where access to different sides of a component is required. Typical examples include aligning pallets between conveyors, presenting assemblies to operators, feeding machine cells and positioning packaged goods for transfer. The compact combination of lifting and rotation helps organize material flow without adding a separate rotator beside the lift.
A Turntable Scissor Lift is generally intended for fixed installation on a level, stable industrial floor in a clean indoor environment. It may be floor-mounted or pit-mounted, depending on the required loading level and its relationship with conveyors, workstations or surrounding traffic routes. Outdoor, washdown or corrosive applications require project-specific environmental protection, which may include weatherproof treatment, galvanizing or stainless steel construction.
Available configurations cover capacities from 500 kg to 5,000 kg, platform sizes from 1000x1000 mm to 2500x3000 mm and lift travel from 500 mm to 3,000 mm. Selection must account for more than nominal payload weight because load distribution, centre of gravity, rotational clearance and operating frequency affect equipment design. Engineering review is especially important for irregular loads, restricted sites, high-cycle duties or payloads approaching the maximum capacity.
Pallets entering a production or storage area may need to be turned before they can align with a conveyor, aisle or downstream handling device. The lift raises the pallet to the transfer elevation and rotates it to the required orientation without repeated forklift repositioning. This application is useful where controlled pallet indexing supports orderly material flow and reduces congestion around transfer points.
At intersecting or differently aligned conveyors, the Turntable Scissor Lift can act as a lift-and-orient transfer station. The platform can be positioned at the required level, rotated to match the receiving direction and coordinated with surrounding equipment through PLC or sequenced controls. Platform dimensions, installation height and control interfaces must be engineered around the conveyor geometry and transferred load.
Components, tooling fixtures and work-in-progress assemblies can be elevated to a practical working height and rotated to present different faces to an operator. This reduces the need for workers to reach around heavy parts or manually turn loaded fixtures. Foot-switch, remote or HMI controls may be configured according to the workstation layout and required operating sequence.
Machined components, fabricated parts and production pallets can be positioned beside a machine or automated cell at a defined elevation and orientation. The combined motion helps prepare a load for robot access, fixture loading or controlled transfer into the next operation. Where the cell uses interlocked automation, control logic and safety interfaces require application-specific integration.
Packaging operations often require cartons, crates or finished-goods pallets to change direction between packing, wrapping, inspection and dispatch stages. A rotary scissor lift platform can elevate and orient these loads while maintaining a compact equipment footprint. Stainless steel or other process-compatible platform surfaces may be selected where cleanability or product handling conditions require them.
Inspection personnel may require access to several sides of a component, container or palletized assembly without repeatedly moving the load. Controlled turntable movement allows the item to be presented for dimensional checks, visual examination or process verification at a suitable height. Stable platform support throughout lift travel assists repeatable positioning, although the load must remain secure and balanced during rotation.
In receiving, staging and dispatch areas, the equipment can elevate and reorient pallets or shipping containers before transfer to another handling route. Pit-mounted arrangements may provide a near-level interface with surrounding floors or conveyors, while floor-mounted units can serve raised work or transfer positions. The fixed installation is best suited to repeatable flow points rather than duties requiring frequent equipment relocation.
Raw materials, support equipment and work-in-progress loads can be transferred between defined production elevations while being aligned for the next operation. This supports workflows in which components move from fabrication to assembly, inspection or packaging through a controlled route. The equipment is most effective when load dimensions, arrival orientation and downstream position are predictable.
Combining hydraulic lifting and turntable rotation in one unit removes the need to transfer a load between separate elevating and rotating devices. Fewer intermediate handling steps can reduce staging delays and simplify the arrangement of a workstation or conveyor junction. The result is a more direct load path for processes that require both height adjustment and orientation change.
The platform can bring pallets or components to a more practical working elevation and rotate the required face toward the operator. This limits unnecessary bending, reaching and manual repositioning of heavy industrial loads. Ergonomic improvement still depends on appropriate platform height, control placement, access space and the characteristics of the handled item.
Smooth hydraulic movement and controlled rotation support repeatable presentation of loads at assembly, transfer, packaging and inspection points. When integrated with PLC or sequenced controls, the equipment can coordinate with upstream and downstream processes rather than relying entirely on manual timing. This can help reduce transfer bottlenecks and maintain more consistent material movement through the facility.
A single lift-and-rotate station can perform two material positioning functions within a compact installation area. Pit mounting can also align the platform with adjacent floor-level equipment where site conditions permit. Adequate sweep clearance must still be reserved for the rotating load, so floor-space benefits should be confirmed through layout and load-envelope review.
Capacity, platform dimensions, lift travel, rotation range, controls, mounting arrangement and surface material can be matched to the application. This flexibility allows the equipment to address different pallet footprints, workstation heights, automation requirements and environmental conditions. Project-specific configuration can improve usability while avoiding unnecessary features that do not contribute to the intended process.
The lifting motion is generated by hydraulic cylinders acting on the scissor arm assembly. As hydraulic pressure extends the mechanism, the platform rises vertically; controlled contraction lowers it to the starting or transfer level. Supported lifting speeds range from 0.05 to 0.12 m/s, with the final selection dependent on capacity, travel and application requirements.
A heavy-duty fabricated steel scissor structure supports the platform through the specified lift travel. Platform support and base-frame design are engineered around rated capacity, platform dimensions and expected load distribution. Loads with an offset centre of gravity or uneven footprint require review because nominal weight alone does not define structural demand.
The integrated turntable is available in diameters from 900 mm to 2,500 mm and can be configured for 90°, 180° or 360° rotation. Rotation speed is within a supported range of 1 to 3 rpm, enabling controlled orientation rather than high-speed rotary processing. Support bearings and the rotary drive motor maintain movement while the turntable motion interlock prevents rotation under unsafe conditions.
Rated capacities extend from 500 kg to 5,000 kg, while available lift travel ranges from 500 mm to 3,000 mm. Platform dimensions can range from 1000x1000 mm to 2500x3000 mm, with collapsed heights from 300 mm to 750 mm. The actual combination of capacity, platform size, travel and collapsed height is subject to engineering evaluation rather than independent selection of each maximum value.
Supported power arrangements include 230V single-phase, 415V three-phase or battery supply. Hydraulic motor power ranges from 2.2 kW to 11 kW and is selected according to lifting demand and operating configuration. The service-accessible hydraulic power pack should be positioned so technicians can inspect oil, hoses, valves and electrical connections without obstructing the operating area.
The equipment may be configured with PLC, HMI, remote, foot-switch or wireless controls for manual, sequenced or automated use. Control architecture can coordinate elevation, rotational position and transfer readiness with conveyors or production machinery. Advanced interfaces, unique communication requirements or high-frequency operating sequences should be reviewed during application engineering.
Safety provisions include an emergency stop, overload protection, hydraulic hose burst valve, upper and lower limit switches and photoelectric safety sensors. A turntable motion interlock restricts rotation when defined safety conditions are not satisfied, while a maintenance safety prop secures the elevated structure during service. Protective guarding, control lockout and the safety perimeter must be arranged to suit the installation and risk assessment.
Platform surfaces may be configured in chequered plate, mild steel or stainless steel to address grip, cleanability and process compatibility. Available environmental treatments include custom paint, hot-dip galvanizing, weatherproof protection and stainless steel construction. These choices must be matched to contamination, corrosion, moisture and cleaning conditions at the operating site.
Automotive plants use pallets, fixtures, tooling and component containers that often require controlled presentation between assembly operations. The lift can raise and rotate these loads for fixture orientation, cell feeding, parts transfer or assembly-line pallet reorientation. Application-specific platform sizing and automation controls help coordinate the equipment with repeatable production sequences.
General manufacturing workflows move raw materials, fabricated parts and work-in-progress loads between machining, assembly, inspection and packaging stages. A Turntable Scissor Lift can elevate the load to the receiving process and orient it without a separate manual turning step. This supports organized material movement where load routes and workstation interfaces are defined.
Machined components, fabricated assemblies, tooling and fixtures may be heavy, offset or difficult to reposition by hand. The equipment can present these loads for assembly, inspection or transfer while reducing repeated manual adjustment. Because metalworking loads can have concentrated or uneven weight distribution, structural and platform design should be confirmed through engineering review.
Receiving, storage, order preparation and dispatch areas frequently require pallets or shipping containers to change direction at fixed transfer points. The lift can align loads with conveyors, staging lanes or raised handling positions while supporting controlled vertical movement. It is best suited to repeatable stations where fixed installation provides greater value than mobile equipment.
Packaging and logistics processes handle cartons, crates, production pallets and transport containers across packing, staging and dispatch zones. Integrated rotation can align a pallet for wrapping, labelling, inspection or movement onto a differently oriented conveyor. Sequenced controls may be applied where the lift must coordinate with automated packaging or transfer equipment.
Consumer goods facilities move packaged products, containers and packaging materials between production support, secondary packaging and dispatch operations. The platform can raise and orient these loads to maintain orderly transitions between process stages. Surface finish and environmental configuration can be selected according to cleanability, product handling and indoor operating requirements.
Nio Equipment approaches the Turntable Scissor Lift as an engineered material handling station rather than an isolated lifting component. Load shape, weight distribution, transfer elevation, rotation angle and downstream interface can be considered together during configuration. This is particularly valuable for restricted layouts, irregular loads or applications close to the upper capacity and travel ranges.
Nio Equipment provides in-house fabrication and assembly for industrial lifting and material handling equipment. This capability supports coordination between the fabricated scissor structure, hydraulic lifting system, turntable assembly and load platform. A manufacturing-oriented approach also helps align structural design with the approved capacity, platform footprint and installation arrangement.
The equipment can be customized for load and platform sizing, rotation range, floor or pit mounting, control method, platform surface and environmental finish. Power supply and hydraulic motor selection can also be matched to project requirements within the supported specification ranges. Each option can therefore be evaluated for practical process value instead of being treated as a universal requirement.
Nio Equipment supports controls engineering for PLC, HMI, remote, foot-switch and wireless operating arrangements. This allows lifting, rotation and transfer signals to be considered alongside the mechanical equipment during project planning. Where advanced automation or unique interfaces are required, the control sequence can be reviewed as part of the application-specific design.
Installation planning can address foundations, pit geometry, rotational clearance, operator access, power availability and interfaces with conveyors or workstations. Nio Equipment also provides installation and commissioning support to verify equipment function in the intended process. This coordinated approach helps engineering and procurement teams identify civil, electrical and safeguarding requirements before production use.
Nio Equipment provides after-sales support for the hydraulic, structural, rotational and control elements of the lift. Service-accessible power-pack design assists inspection and troubleshooting, while product-specific guidance supports preventive maintenance and safety-device testing. Responsive technical coordination is especially relevant where the equipment forms part of a production line or automated material flow system in India.
Installation planning should begin with a review of the complete material route, including load arrival, loading method, required elevation, rotation direction and discharge position. The assessment should document maximum load weight, dimensions, distribution and rotational envelope. Irregular loads, restricted clearances, unusually frequent cycles or travel near 3,000 mm warrant detailed engineering consultation.
The lift requires a level, stable and adequately reinforced foundation capable of supporting the equipment, rated payload and operational forces. Floor condition and structural capacity should be verified before placement rather than assumed from the general building rating. Anchor arrangements, base-frame alignment and surrounding floor tolerances are determined from the approved project layout and installation documentation.
A floor-mounted installation simplifies civil work but retains the selected collapsed height above the surrounding floor. Pit mounting can align the platform with adjacent conveyors or work areas, provided the pit offers adequate depth, structural support and safe access provisions. Drainage, edge protection and maintenance access should be considered during pit design according to site conditions.
The layout must reserve sufficient lateral clearance for both the turntable and the full swept envelope of the load. Clearance should account for overhanging pallets, offset centres of gravity and nearby columns, guards, conveyors or operator stations. Safe loading, unloading and egress zones should remain clear throughout lifting and rotational movement.
The selected 230V single-phase, 415V three-phase or battery arrangement must match the site utility plan and project configuration. Electrical connections require appropriate grounding, isolation and protection, while the hydraulic power pack needs accessible placement for inspection and service. Conveyor interlocks, PLC communication and external control interfaces should be defined before commissioning.
Barriers, protective guards, sensors and access control should be arranged around the hazards created by scissor movement and turntable rotation. The appropriate perimeter depends on operator interaction, adjacent equipment and whether the installation is manual or automated. Photoelectric safety sensors and motion interlocks must be positioned and validated as part of the project-specific safeguarding strategy.
Commissioning should be completed by trained personnel after mechanical, hydraulic and electrical installation checks. Functional testing should verify lifting and lowering, rotational direction, travel limits, controls, emergency stopping, overload response and safety interlocks. Trials should progress under controlled conditions and confirm alignment with conveyors, workstations or machine cells before production release.
Periodic inspection should identify hydraulic leaks, damaged hoses, loose fasteners, platform damage and unusual wear around the base and scissor mechanism. Operators should also note abnormal noise, vibration, uneven movement or changes in stopping position. Early investigation of these conditions helps prevent minor defects from affecting load stability or production availability.
Hydraulic oil condition and level should be checked according to operating conditions and the equipment documentation. Hoses, fittings, cylinders and visible sealing areas require inspection for abrasion, deterioration or leakage. The hose burst valve and related hydraulic safety devices should remain free from unauthorized adjustment and be functionally checked by qualified personnel.
Scissor arms, pivot points, base-frame connections and platform supports should be examined for deformation, cracking, wear or looseness. Pivot points and turntable bearings require appropriate lubrication to support smooth movement and control mechanical wear. Lubricant type and service frequency should follow the supplied maintenance documentation and actual operating environment.
The control panel, cables, connectors and operator devices should be inspected for damage and secure connection. Upper and lower limit switches, photoelectric sensors and rotation interlocks require periodic functional testing and calibration where applicable. Any inconsistent stopping point or unintended control response should be corrected before normal operation resumes.
The platform surface should remain clean, structurally sound and suitable for secure loading. Turntable bearings, support components and rotary drive connections should be checked for excessive play, unusual resistance or irregular rotation. Accumulated debris should be removed because contamination can interfere with movement, sensing and load seating.
Before work begins, electrical and hydraulic energy sources must be isolated according to the facility lockout procedure. The maintenance safety prop must secure the raised platform whenever service requires access beneath or within the lifting mechanism. Maintenance records should document inspections, findings, adjustments and replaced parts to support consistent preventive maintenance planning.
Only trained and authorized personnel should operate the Turntable Scissor Lift or enter its controlled movement area. Operators need to understand the control sequence, emergency stop, rotation interlock and safe loading procedure for the installed configuration. The equipment is intended for industrial load handling and must not be used for personnel transportation.
Every load must remain within the rated capacity and be assessed for weight distribution, footprint and centre of gravity. The load should be positioned securely on the turntable so that elevation or rotation does not cause shifting, overhang contact or instability. Irregular, fragile or unevenly distributed loads require engineering review and may need a customized platform interface.
Loading and unloading should occur only at designated positions and after the platform has stopped. Personnel, forklifts and movable equipment must remain outside the lift and rotation envelope during motion. Access control, guards and photoelectric sensors should be maintained so they cannot be bypassed during routine production.
Upper and lower limit switches restrict platform travel, while overload protection prevents operation beyond the configured load limit. The hydraulic hose burst valve is intended to prevent uncontrolled descent following a hose failure. The turntable motion interlock permits rotation only when established safety conditions are satisfied, reducing the risk of unintended movement.
Operators should know the location and function of the emergency stop before beginning work. If unusual movement, obstruction, load instability or control malfunction occurs, motion should be stopped and the area secured. Operation must not resume until qualified personnel have identified and corrected the cause.
Maintenance must never be performed beneath an unsupported elevated platform. Electrical power and stored hydraulic energy should be isolated under the facility lockout and tagout procedure, and the maintenance safety prop should be correctly engaged. Safety switches, guards and control logic must not be altered without an authorized engineering review.
Automated cells, conveyor interfaces and restricted-floor installations can introduce hazards beyond those of the lift itself. Safeguarding should therefore consider transfer equipment, pinch points, load overhang, operator access and interactions with other machinery. Final arrangements must be established through site assessment, integration planning and commissioning tests for the actual operating process.