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| Rated Capacity | 500 kg to 5,000 kg |
| Maximum Lift Height | 2.0 m to 4.5 m |
| Boom Length | 1.2 m to 3.0 m |
| Working Radius | 0.8 m to 2.5 m |
| Boom Positions | 3 to 5 adjustable positions |
| Boom Configuration | Single-stage or telescopic steel boom |
| Lifting Operation | Manual hydraulic, electric-hydraulic, manual chain hoist, electric wire rope hoist |
| Mobility | Heavy-duty fixed and swivel industrial castors |
| Structure | Fabricated structural steel frame |
| Surface Finish | Industrial painted or corrosion-protected finish |
The Mobile Floor Crane is a portable lifting device designed for precise handling and positioning of industrial loads such as machinery, dies, and tooling. It operates within workshops, factories, and warehouses to facilitate efficient material handling and equipment maintenance without fixed installation constraints. This crane supports flexible workflows by enabling short-distance load movement at the point of use.
The Mobile Floor Crane uses a hydraulic lifting system or manual mechanical hoist to convert applied force into controlled vertical movement. Hydraulic pressure generated by a pump actuates a cylinder or hoist, lifting the boom and load smoothly. The fabricated steel structure ensures stability while the heavy-duty castors enable mobility between work areas, supporting flexible load positioning without permanent mounting.
| Alternative | Key Difference |
|---|---|
| Floor Crane | Floor Cranes typically have fixed bases and may lack the mobility of the Mobile Floor Crane, making them better suited for semi-permanent lifting tasks. |
| Hydraulic Floor Crane | Hydraulic Floor Cranes offer enhanced lifting power and smoother hydraulic operation but generally have less flexibility in mobility compared to manual or semi-powered Mobile Floor Cranes. |
| Jib Crane | Jib Cranes provide fixed or semi-fixed pivoting lifting within a defined radius, suitable for repetitive point lifts but less adaptable to workshop-wide load transfers than Mobile Floor Cranes. |
| Wall Mounted Jib Crane | Wall Mounted Jib Cranes require building-mounted installation, limiting portability but offering dedicated lifting at fixed points, unlike the fully mobile Mobile Floor Crane. |
| Pillar Mounted Jib Crane | Pillar Mounted Jib Cranes offer a fixed rotation point with stable load support but lack the flexible positioning capability of Mobile Floor Cranes that can transport loads across workshop areas. |
| Gantry Crane | Gantry Cranes provide overhead lifting capability with a larger working range but require more installation space and infrastructure than the compact, floor-based Mobile Floor Crane. |
| Electric Pallet Stacker | Electric Pallet Stackers are specialized for palletized load movement and stacking but are less suited for irregular or heavy component positioning tasks where Mobile Floor Cranes excel. |
| Overhead Crane | Overhead Cranes provide high-capacity, long-span lifting in fixed installations, contrasting with the Mobile Floor Crane’s compact, flexible, and portable usage within workshops. |
Trusted by manufacturers, warehouses and industrial facilities across India for quality, reliability and after-sales excellence.
The Mobile Floor Crane from Nio Equipment is a portable industrial lifting device for raising, positioning, and moving machinery, dies, motors, tooling, and heavy components at the point of use. Its mobile chassis allows the crane to serve multiple work areas without permanent mounting or dedicated overhead lifting infrastructure. It is particularly relevant where maintenance and production teams need controlled lifting close to machines, assembly stations, tool rooms, or warehouse staging areas.
Unlike fixed lifting equipment, the crane can be moved into position near a load and aligned with the required lifting point. A hook with a safety latch connects to a suitable sling or attachment, after which the selected hydraulic or hoist mechanism raises the load within the rated capacity and configured working radius. The load can then be positioned locally or transported over a short, clear route on the crane's industrial castors.
Depending on configuration, lifting may be performed by a manual hydraulic system, electric-hydraulic system, manual chain hoist, or electric wire rope hoist. Hydraulic versions use pump-generated pressure to actuate the lifting mechanism, while controlled lowering supports a smooth and deliberate descent. Manual and powered hoist arrangements provide alternative lifting control for different load characteristics, operating frequencies, and positioning requirements.
The Mobile Floor Crane supports workflows that would otherwise require several people, temporary lifting arrangements, or access to a fixed crane. Typical tasks include removing a motor from a machine, positioning a gearbox for installation, presenting tooling to an assembly point, and transferring a component between adjacent work areas. Adjustable boom geometry helps the hook reach around machine frames or into restricted service areas while remaining within the engineered load chart.
The crane is intended primarily for indoor industrial environments with smooth, level floors and clear maneuvering space. Workshops, factories, tool rooms, maintenance departments, and warehouses can use it for moderate-duty, short-distance handling where compact equipment access is important. Corrosion-protected finishes may be specified for particular conditions, but the equipment is generally not intended for harsh outdoor service or travel over uneven surfaces.
Maintenance teams can position the crane beside production machinery to remove and reinstall heavy service components. The adjustable boom can be selected around the required height, radius, and machine access envelope, allowing motors, guards, pumps, or assemblies to be lifted clear in a controlled manner. Mobile deployment also reduces dependence on a permanently installed lifting point for routine servicing.
In die and mold operations, the crane can support die changes, tool removal, and controlled placement onto suitable stands or transfer equipment. Hook-based handling accommodates appropriately rigged loads with shapes that may not suit conventional pallet-handling equipment. Boom reach, base profile, load center, and available clearance should be reviewed because die weight and geometry directly affect stability.
Motors, gearboxes, pumps, and related drive components often require accurate alignment during installation or replacement. The Mobile Floor Crane allows the suspended component to be raised and presented near its mounting position while technicians guide final placement. Controlled lowering assists with bolt-hole alignment and reduces the risk of impact damage to shafts, housings, and machine interfaces.
Tool rooms can use the crane to relocate heavy jigs, fixtures, dies, and production tooling between storage, inspection, maintenance, and issue areas. Its compact mobile base supports access where an overhead crane may not be available or practical. Suitable rigging and a clear travel path remain necessary when moving irregularly shaped tooling.
The crane can present components, fixtures, or subassemblies at an assembly station when handling by hand would be unsafe or inefficient. Its adjustable boom positions allow the lifting geometry to be adapted to different workstations, provided the selected position remains within the applicable capacity. This makes the equipment useful for production support tasks that vary in location or component type.
Fabricated parts, machined components, and work-in-progress assemblies can be transferred over short distances between adjacent production areas. The stable base and heavy-duty castors support controlled local movement on suitable floors, while the hook interface enables handling of loads with approved lifting points. The crane is not intended as a substitute for long-distance transport equipment.
Within receiving, staging, storage, and dispatch zones, the crane can position appropriately rigged crates, containers, packaged goods, or maintenance loads. It is most useful where the load must be lifted from above or placed with greater precision than pallet equipment can provide. Palletized loads require a compatible and engineered attachment arrangement rather than direct unsupported hook handling.
The Mobile Floor Crane can assist with positioning smaller machines, supporting equipment, and heavy plant components during layout changes or installation work. A project review should confirm load weight, center of gravity, lifting points, route clearance, and floor condition before movement begins. Where loads approach 5,000 kg or have an unusual center of gravity, application-specific engineering is required.
The lifting mechanism carries the vertical load that would otherwise require manual effort or improvised handling methods. This helps reduce labor dependency for heavy component movement and supports better ergonomics during maintenance, assembly, and tooling operations. Operators can concentrate on controlled guidance and placement rather than physically raising the load.
Because the crane can be relocated to the machine requiring service, teams do not need to wait for access to a fixed lifting station for every routine task. Faster deployment can shorten component removal and installation workflows, helping limit equipment downtime. Serviceable lifting components also support practical upkeep within an industrial maintenance program.
Adjustable boom positions and controlled lifting allow components to be presented at the height and radius required by the task. This is valuable when installing motors, positioning tooling, or aligning assemblies where uncontrolled movement could damage the load or surrounding equipment. The stable base, parking brakes, and controlled lowering function contribute to deliberate placement.
A mobile crane does not occupy a permanent lifting zone in the same way as a fixed jib or dedicated floor-mounted system. It can be stored when not in use and brought to different work areas as production or maintenance priorities change. A customized base arrangement can further address restricted aisles, machine legs, and available operating space.
Capacity, boom geometry, lifting mechanism, base arrangement, counterweight layout, and surface protection can be selected around the intended duty. Matching these elements to actual load and facility conditions avoids relying on a generic crane geometry that may provide poor access. Engineering selection also helps establish an appropriate safety margin for the expected load profile.
Controlled lifting and lowering reduce abrupt contact between components and their mounting or storage surfaces. Accurate positioning is especially useful for machined parts, tooling, pumps, motors, and other loads with sensitive interfaces. The benefit depends on correct rigging, operator competence, and operation within the crane's configured capacity and reach.
Available rated capacities extend from 500 kg to 5,000 kg, with maximum lift heights from 2.0 m to 4.5 m depending on the engineered configuration. Boom lengths may range from 1.2 m to 3.0 m, while working radii range from 0.8 m to 2.5 m. Capacity at a particular boom position must be confirmed because increasing reach changes the lifting geometry and stability requirement.
The crane may use a single-stage or telescopic steel boom with three to five adjustable positions. These positions allow the hook location to be adapted for machine access, load pickup, and final placement. Reinforced boom support is available for demanding applications, subject to the required capacity, reach, and operating cycle.
Manual hydraulic, electric-hydraulic, manual chain hoist, and electric wire rope hoist arrangements are supported. A manual hydraulic configuration can operate without an external electrical supply, while powered variants require compatible electrical infrastructure and control integration. Selection should account for lifting frequency, positioning precision, available utilities, and the characteristics of the load.
A fabricated structural steel frame forms the primary load-supporting chassis and provides a stable base for the boom assembly. Heavy-duty fixed and swivel industrial castors allow movement across smooth, level floors, while parking brakes stabilize the crane during lifting and lowering. Base width, leg profile, and counterweight arrangement can be engineered around access and stability requirements.
The crane uses a lifting hook with a safety latch to connect to correctly selected slings, chains, or load-specific attachments. This interface supports machinery and components with suitable lifting points, including irregular tooling and fabricated assemblies. Rigging equipment must be rated for the load and arranged so that the center of gravity remains controlled.
Supported safety provisions include overload protection, a controlled lowering valve, hydraulic hose protection, a mechanical boom lock, castor parking brakes, and a safety latch hook. These measures address overload, unintended descent, boom security, crane movement, and load retention. Emergency stop controls depend on the selected powered configuration and should be defined during engineering review.
The fabricated structure may receive an industrial painted finish or corrosion-protection treatment suited to the operating environment. Paint color and protective treatment can be selected for indoor, humid, or application-specific conditions. Surface protection does not convert the crane into equipment for unrestricted harsh outdoor use, so environmental exposure should be assessed before specification.
Automotive plants and component workshops use mobile lifting equipment for motors, gearboxes, engine parts, assembly fixtures, and production tooling. The crane can support line maintenance, component transfer, fixture positioning, and machine installation work without requiring every station to have a fixed lifting system. Adjustable boom geometry is useful where guarded equipment or dense production layouts restrict access.
General engineering facilities handle a changing mix of fabricated parts, machined components, tooling, fixtures, and work-in-progress assemblies. A Mobile Floor Crane supports relocation between machining, inspection, assembly, and maintenance areas when loads have suitable lifting points. Configurable capacity and reach allow the crane to be matched to the facility's component range and aisle conditions.
Machine tool builders and service departments frequently position spindle assemblies, motors, pumps, gearboxes, tooling, and machine subassemblies. These loads often require precise presentation rather than simple horizontal transport. Controlled lowering and adjustable boom positions help technicians align components with mounting interfaces while avoiding contact with finished machine surfaces.
Fabrication shops can use the crane to move welded assemblies, fixtures, formed components, and heavy workshop tools. Hook-based handling is useful for irregular loads when an appropriate lifting arrangement has been established. The frame, boom reach, and base profile should be selected around the load center and the space available near welding, machining, or assembly stations.
Warehouse and logistics operations may require controlled lifting in receiving, maintenance, staging, storage, and dispatch zones. The crane can position crates, containers, packaged loads, or operational equipment when overhead lifting is required and suitable rigging is available. It complements rather than replaces pallet trucks or stackers, which remain better suited to routine pallet movement and longer travel.
Pump and motor manufacturers handle cast housings, rotors, drive units, gearboxes, and completed assemblies across production and service workflows. The crane can transfer these components between assembly stands, test areas, maintenance benches, and packaging locations over short distances. Accurate lifting and lowering support alignment while helping reduce damage to shafts, flanges, and machined faces.
Die and mold facilities require controlled handling of dense, irregularly shaped tools during manufacture, inspection, maintenance, and changeover. The Mobile Floor Crane can lift correctly rigged dies and tooling where its capacity, working radius, and base geometry suit the task. Applications involving offset centers of gravity or loads near the upper capacity range should receive a specific stability and rigging review.
Plant maintenance teams encounter varied loads across production, utilities, workshops, and stores, making fixed lifting points impractical for every task. A portable floor crane can be assigned to machinery servicing, pump maintenance, motor replacement, gearbox installation, and plant component positioning. Choice of manual or powered lifting allows the configuration to reflect task frequency and available infrastructure.
Nio Equipment evaluates the load, lift height, working radius, access conditions, and operating workflow rather than treating every requirement as the same standard crane. This is important because boom extension, load center, base geometry, and floor conditions directly influence safe operation. Engineering input is particularly valuable for unusual centers of gravity, restricted machine access, or loads approaching the supported capacity limit.
The Mobile Floor Crane can be customized for load capacity, boom length, lift height, working radius, adjustment positions, base arrangement, and counterweight layout. Nio Equipment can therefore align the crane geometry with aisle clearance, machine legs, pickup points, and placement locations. Telescopic boom and additional boom-position options may be selected where the application requires greater flexibility.
Nio Equipment supports manual hydraulic, electric-hydraulic, manual chain hoist, and electric wire rope hoist configurations. This allows buyers to select a mechanism suited to operating frequency, positioning needs, power availability, and maintenance capability. Powered systems and specialized control requirements remain subject to project-specific engineering.
As an India-based manufacturer of material handling and hydraulic lifting equipment, Nio Equipment combines equipment design with in-house manufacturing capability. The fabricated frame, reinforced boom options, castor arrangement, protective finish, and service access can be considered as part of one application-focused design. This supports practical integration into workshops, factories, and warehouses rather than selection based only on headline capacity.
Nio Equipment can support site planning for floor condition, crane footprint, boom clearance, travel path, electrical provision, and maintenance access. Consultation is recommended where lift heights exceed 4.5 m, loads approach or exceed 5,000 kg, floors are uneven, or the required lifting geometry falls outside standard ranges. In such cases, the review can also determine whether a jib crane, gantry crane, or another lifting system would be more appropriate.
Installation, commissioning, and after-sales support are available to help establish correct setup, functional verification, and operator understanding. Nio Equipment can also account for maintenance accessibility when configuring hydraulic, hoist, structural, and castor components. This lifecycle approach helps procurement and engineering teams plan not only the initial lift requirement but also inspection, servicing, and continued safe operation.
Although the Mobile Floor Crane requires no fixed mounting, its operating area must provide a level, stable concrete floor capable of supporting the crane and load. The route should be checked for joints, slopes, debris, thresholds, and surface damage that could interfere with castor movement. Uneven or non-standard floors require engineering consultation because they can affect maneuverability and stability.
The intended path from pickup to placement should be reviewed before the crane is selected or commissioned. Planning should consider load dimensions, suspended clearance, doorway width, aisle restrictions, nearby machinery, pedestrian activity, and turning space. The crane is intended for short-distance movement, so facility-wide transport should be assigned to more suitable material handling equipment.
Adequate clearance is required for boom extension, vertical lifting, and safe approach to the load. The configured lift height, boom length, working radius, and adjustment positions should be checked against machine frames, overhead services, storage structures, and final placement points. Restricted access may require a customized base width, leg profile, telescopic boom, or counterweight arrangement.
Manual hydraulic and manual chain hoist configurations generally do not require an external electrical supply. Electric-hydraulic and electric wire rope hoist versions require a suitable power connection and safe cable routing that does not obstruct crane movement. Control location, isolation, and any configuration-dependent emergency stop function should be established during project engineering.
The working area should be well lit, free from loose materials, and arranged to prevent unauthorized personnel from entering the lifting zone. Floor markings, safety signage, and defined travel routes help separate crane movement from pedestrians and other mobile equipment. Sufficient space should also be retained for operators to control the crane without standing beneath or directly in front of a suspended load.
The facility should provide access for inspection of the hydraulic pump, hoses, fittings, boom pivots, hoist components, castors, brakes, and structural fasteners. The crane should be stored where the boom can be placed in its rest position and where maintenance can be performed safely. Electrical variants also require access to controls and wiring for periodic inspection.
Before operational release, the assembled crane should be checked for correct boom setting, fastener security, hydraulic or hoist function, brake operation, hook condition, and safety-device performance. Functional testing should confirm smooth lifting, controlled lowering, and stable movement within the supplied equipment documentation. Operators should receive training on the specific configuration, load limits, inspection requirements, and emergency procedures.
Routine visual inspection should identify hydraulic leakage, damaged hoses, loose fasteners, worn castors, deformed structural members, or an impaired hook latch before operation. The operator should also check that the boom lock and castor brakes engage correctly. Any abnormal condition should be reported and evaluated before the crane lifts a load.
Hydraulic versions require periodic oil-level checks and inspection of the pump, cylinder, hoses, fittings, and protective routing. Leakage, damaged hose covers, irregular lowering, or reduced lifting response may indicate a condition requiring service. Hydraulic fluid maintenance and component replacement should follow the equipment documentation and actual operating conditions.
The fabricated frame, boom, adjustment holes, pivots, weld areas, and counterweight supports should be inspected for cracking, deformation, corrosion, or unusual wear. Fastener torque and locking arrangements should be verified periodically. Loads should not be applied if structural damage or an unauthorized modification is found.
Castor wheels should rotate and swivel freely without excessive play, flat spots, damaged tread, or loose mounting hardware. Parking brakes must hold the crane stationary during lifting and lowering. Wheel and brake condition is particularly important because debris or wear can affect load control even on an otherwise suitable floor.
Hooks, safety latches, lifting chains, and wire ropes should be checked for wear, distortion, corrosion, or damage according to the installed lifting system. Manual and electric hoist components should operate smoothly without unusual noise, vibration, or intermittent motion. Worn load-bearing components should be removed from service rather than repaired through unapproved methods.
Boom pivots, joints, and other designated moving points require lubrication to limit friction and wear. Periodic operational tests should verify overload protection, controlled lowering, brake engagement, boom locking, and powered controls where fitted. Maintenance frequency should reflect the duty cycle, load environment, exposure to dust, and recommendations in the supplied documentation.
Inspection findings, repairs, fluid service, component replacement, and safety-device testing should be recorded for traceability. Records help maintenance teams identify recurring wear and plan preventive work before reliability declines. Only competent personnel should service load-bearing, hydraulic, hoist, or electrical systems.
Operators should be trained in crane positioning, boom adjustment, load attachment, hydraulic or hoist operation, controlled travel, and emergency response. Training must cover the specific crane configuration rather than relying only on general material handling experience. The Mobile Floor Crane is intended for material loads and must not be used to lift or transport personnel.
Every lift must remain within the capacity applicable to the selected boom position, lift height, and working radius. The load weight and center of gravity should be known before attachment, including the weight of slings or specialized handling accessories. Overload protection provides an important safeguard but does not replace correct lift planning.
The load should be connected through approved lifting points using properly rated slings, chains, or attachments. The safety latch must close correctly, and the rigging arrangement should prevent the load from shifting, rotating unexpectedly, or slipping during lifting. A trial lift close to the floor can be used to verify balance before further elevation or movement.
Lifting should take place on a smooth, level, stable surface with castor parking brakes engaged as required. The base and legs must be positioned without interference from machine foundations, floor obstacles, or nearby equipment. Side pulling, dragging a suspended load, and operating beyond the designed working radius can create unsafe loading conditions.
Loads should be kept as low as practical during short-distance movement, with a clear route and controlled travel speed. Personnel must remain clear of the suspended load, pinch points, castor paths, and potential swing areas. The crane should not be used for long-distance transport, on uneven floors, or where adequate maneuvering clearance is unavailable.
Overload protection, the controlled lowering valve, mechanical boom lock, hose protection, parking brakes, and hook latch should be checked as part of the inspection program. Powered arrangements may be configured with emergency stop controls depending on the application. Safety functions must not be bypassed, defeated, or altered without authorization and engineering review.
Before maintenance, the crane should be unloaded, placed in a stable rest condition, and isolated from hydraulic, mechanical, or electrical energy as applicable. The boom and load-supporting parts must be mechanically secured where work could expose personnel to unintended movement. Damaged equipment should be clearly identified and kept out of service until inspected and released by competent personnel.