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| Capacity | 500 kg to 5,000 kg |
| Platform Size | 1200 x 1500 mm to 2000 x 3000 mm |
| Platform Clear Height | 2000 mm to 2200 mm |
| Lift Height | Up to 12 m |
| Lifting Speed | 0.05 to 0.15 m/s |
| Power Supply | 415V, 3-phase, 50 Hz |
| Motor Power | 3.7 kW to 11 kW |
| Number Of Landings | 2 to 4 landings |
| Installation Type | Pit mounted, floor mounted, wall mounted |
| Structure | Fabricated mild steel, optional stainless steel |
The Goods Cum Passenger Lift is a hydraulic-powered industrial lift designed for safely transporting both goods and authorized personnel vertically between facility levels. It is typically installed in factories, warehouses, and logistics centers to streamline material handling alongside occasional human accompaniment. This lift integrates robust load capacity with operational safety features suited for combined industrial transport tasks.
This lift operates on a hydraulic lifting principle where a hydraulic power pack generates fluid pressure. The pressure is transmitted through hoses to hydraulic cylinders that convert fluid power into linear mechanical force. This controlled force raises and lowers the platform steadily with load-bearing capacity. The system uses a rigid mast guide to ensure stable vertical movement and precision positioning at landings.
| Alternative | Key Difference |
|---|---|
| Hydraulic Goods Lift | Designed primarily for goods only transport without provision for accompanying personnel, unlike the Goods Cum Passenger Lift. |
| Industrial Goods Lift | Focuses on robust goods movement with less emphasis on safe passenger carriage compared to the combined functionality of the Goods Cum Passenger Lift. |
| Warehouse Goods Lift | Optimized for heavy pallet and bulk material transfer in warehouse settings, typically without attendant passenger movement. |
| Pit Mounted Goods Lift | Installation is restricted to pit foundations, offering less location flexibility than the pit, floor, or wall mounted options of the Goods Cum Passenger Lift. |
| Single Mast Goods Lift | Simpler, usually smaller platform designs with single mast support, possibly less stable for combined goods and passenger loads. |
| Double Mast Goods Lift | Provides enhanced stability with two masts but often intended solely for goods, without the combined passenger functionality. |
| Vertical Reciprocating Conveyor (VRC) | Primarily mechanized for goods only transport with conveyor loading, lacking provision for authorized personnel transport. |
| Wall Mounted Goods Lift | Specialized installation on wall structures limiting platform size and capacity, typically without accommodating passengers. |
Trusted by manufacturers, warehouses and industrial facilities across India for quality, reliability and after-sales excellence.
The Goods Cum Passenger Lift is a hydraulic industrial lift for controlled vertical movement of goods together with authorized accompanying personnel. It serves factories, warehouses, mezzanine areas, cold-storage facilities, and logistics operations where materials must move between fixed levels without repeated unloading or manual transfer. The design combines an industrial load platform, guided vertical travel, landing access controls, and operator-accessible controls for mixed-load workflows.
In a multi-level facility, the lift can connect receiving, storage, production, packaging, maintenance, and dispatch areas into a more direct material route. Pallets, trolleys, raw materials, components, work-in-progress, finished goods, and maintenance equipment can remain on the same load interface while moving between landings. This reduces dependence on manual carrying, routine crane handling, or indirect forklift routes between floors.
A hydraulic power pack generates fluid pressure that acts through hoses and cylinders to raise or lower the platform. Rigid mast guides stabilize platform travel, while the hydraulic arrangement provides smooth starting and stopping for goods and authorized personnel. At the selected landing, the platform is positioned and automatically levelled to support controlled loading, unloading, and trolley or pallet movement.
The lift can be engineered for rated capacities from 500 kg to 5,000 kg, with the selected rating accounting for goods, handling equipment, and accompanying personnel. Available platform sizes range from 1200 x 1500 mm to 2000 x 3000 mm, with clear heights from 2000 mm to 2200 mm. Travel can be configured up to 12 m across two to four landings, subject to the building layout and project engineering.
The preferred operating context is an indoor industrial environment with stable electrical power, controlled access, secure landing areas, and trained operators. The product is particularly relevant where moderate intermittent movement is required between production and storage levels, or where personnel must accompany a load for positioning, inspection, or handling purposes. Extreme outdoor exposure, unusually high cycle frequency, travel beyond 12 m, or more than four landings requires separate engineering evaluation or a different lifting solution.
Raw materials received or stored on one level can be transferred to production floors without breaking the load into smaller manually handled units. The platform can be sized around pallets, bins, trolleys, or production supply containers, allowing an authorized attendant to accompany the load when operational control is required. This arrangement supports more orderly replenishment while reducing repeated lifting and repositioning.
Manufacturing plants can use the lift to move work-in-progress kits, components, assemblies, and fabricated parts between machining, assembly, inspection, and finishing areas. Guided platform travel helps keep mixed or irregular production loads stable during vertical movement. By connecting process levels directly, the lift can reduce intermediate staging and avoid unnecessary transfers between handling devices.
Warehouses commonly use vertical space for reserve stock, packaging materials, order bins, or slower-moving inventory. A floor-mounted, pit-mounted, or wall-mounted configuration can connect the mezzanine with receiving, picking, or dispatch areas, depending on structural and access conditions. Authorized personnel may accompany the goods where the approved operating procedure requires direct handling at the destination.
Palletized inventory can be moved between storage levels, receiving zones, staging floors, and loading areas using a platform selected for the pallet footprint and handling method. The rated load calculation must include the pallet, goods, trolley or pallet-handling equipment, and accompanying personnel. Suitable landing alignment and automatic levelling support safer transitions onto and off the platform.
Where production lines and component stores occupy different floors, the Goods Cum Passenger Lift can support scheduled delivery of parts, packaging, consumables, and sub-assemblies. Platform controls allow authorized personnel to remain with the load when needed for line-side placement or material identification. PLC, HMI, remote operation, or plant interface options may be configured where coordinated workflow control is required.
Cartons, crates, containers, and completed products can be transferred from production or packaging levels to storage and dispatch areas. Maintaining the load on a trolley or pallet can reduce product contact and the possibility of damage from repeated manual handling. This application is useful where floor layout prevents a direct same-level route from packing to finished-goods storage.
Maintenance teams can use the lift to move tools, fixtures, spare parts, service trolleys, and equipment between plant levels. Authorized technicians can accompany the load when permitted by the operating procedure, reducing the need to carry equipment through stairways or arrange routine crane lifts. Platform dimensions and capacity should be based on the largest expected service load and its center-of-gravity characteristics.
Cold-storage and food-handling operations can apply the lift to cartons, crates, packaged products, and packaging supplies moving between processing, storage, and dispatch levels. Environmental conditions, condensation exposure, cleaning practices, and corrosion risks must be reviewed during selection. Stainless steel construction or other environmental preparation can be specified where supported by the application and engineering assessment.
The combined platform enables goods, handling equipment, and authorized personnel to travel together between fixed levels. Loads can remain palletized, containerized, or trolley-mounted instead of being unloaded and reloaded at each stage. Fewer transfers can improve workflow continuity and reduce opportunities for handling damage.
Smooth hydraulic starting and stopping, rigid mast guidance, and automatic landing levelling support controlled platform travel. These characteristics are important when moving components, packaged goods, fixtures, or loads that may shift under abrupt motion. Interlocked access points and dedicated platform controls further organize movement between landings.
A properly selected industrial goods lift replaces repeated manual carrying and can reduce the labor required to reposition loads between floors. Personnel can focus on loading, destination handling, inspection, or production tasks rather than physically transporting material through stairways. The resulting benefit depends on the facility layout, operating frequency, and integration with existing material-handling processes.
The lift helps make mezzanine and upper-floor areas practical for storage, production support, packaging, or maintenance activities. Vertical movement can reduce reliance on long ramps or indirect vehicle routes that consume operational floor space. Pit-mounted, floor-mounted, and wall-mounted layouts provide flexibility when fitting the lift into an existing building.
Capacity, platform dimensions, mast arrangement, landing count, installation layout, controls, and construction material can be selected around the intended workflow. This avoids treating materially different pallet, trolley, and personnel requirements as a single standard application. Engineering the lift around actual loads and access conditions supports better usability, maintainability, and total cost of ownership.
The lift uses a hydraulic power pack, hoses, and cylinders to convert fluid pressure into linear lifting force. Motor power ranges from 3.7 kW to 11 kW, depending on the engineered capacity and configuration, with a specified supply of 415V, three-phase, 50 Hz. The hydraulic system is suited to smooth platform acceleration and deceleration within a lifting-speed range of 0.05 to 0.15 m/s.
A fabricated platform travels within a rigid mast-guided structure to maintain alignment and resist unwanted lateral movement. Single-mast or double-mast construction can be selected according to platform geometry, load distribution, and required structural rigidity. The structure is fabricated in mild steel, with stainless steel available for applications requiring different environmental or hygiene-related construction.
The configurable load range is 500 kg to 5,000 kg, and the rating must cover the combined operating load rather than goods alone. Lift travel can extend up to 12 m and serve two to four landings. Because platform size, travel, load distribution, and structural forces interact, the final arrangement is determined through project-specific engineering.
Platform dimensions can range from 1200 x 1500 mm to 2000 x 3000 mm, with a clear height from 2000 mm to 2200 mm. Selection should account for pallet or trolley dimensions, load overhang, personnel standing space, loading direction, and landing gate clearance. Custom sizing within the supported range enables the platform to fit both the load interface and available shaft or building space.
Upper and lower limit switches control terminal travel, while automatic landing levelling aligns the platform for loading and unloading. Operator-accessible platform controls support authorized accompaniment, and emergency stop devices provide an immediate means of halting operation. PLC, HMI touchscreen, remote-control functions, fault detection, and Industry 4.0 interfaces may be configured for applications requiring plant-level coordination.
Interlocked landing gates restrict access when the platform is not safely positioned, and overload protection prevents operation beyond the engineered load limit. A hydraulic hose burst valve controls descent following hose failure, while mechanical safety locks and hydraulic pressure relief contribute to platform security. Light curtain protection, platform guardrails, travel limit devices, and safety warnings address access and perimeter hazards.
Pit-mounted installation can provide a convenient loading transition where civil preparation is available. Floor-mounted and wall-mounted layouts can be considered where pit depth, floor construction, or access constraints favor an alternative approach. Each arrangement requires adequate mast support, foundation capacity, landing protection, platform clearance, and maintenance access.
Manufacturing facilities can use the lift for raw materials, components, work-in-progress, finished goods, and production supplies moving between process levels. It can connect stores, machining, assembly, packaging, and dispatch areas where same-floor material flow is not possible. Platform dimensions and landing positions can be matched to the plant's trolleys, pallets, and production support routes.
Automotive component plants frequently move engine parts, chassis assemblies, tooling fixtures, sub-assemblies, and spare parts between storage and production areas. The guided platform supports organized vertical transfer while authorized personnel accompany loads requiring direct control or identification. Double-mast construction may be evaluated for larger platforms or demanding load-distribution conditions.
Engineering workshops can transfer machined components, fabricated parts, tooling sets, fixtures, and work-in-progress kits between machining, assembly, inspection, and storage floors. These loads may be dense or irregular, making capacity, center of gravity, and platform layout important selection factors. The lift reduces the need to arrange crane handling for every routine cross-level movement.
Warehouses can apply the lift to palletized inventory, receiving stock, order bins, shipping containers, and packaging supplies. It can connect receiving docks, mezzanine storage, picking zones, staging areas, and dispatch floors while supporting an authorized attendant where required. This makes upper-level storage more accessible without relying solely on manual carrying or indirect forklift routes.
FMCG and packaging operations handle frequent flows of cartons, crates, packaging materials, production supplies, and finished product boxes. A Goods Cum Passenger Lift can link packaging stores, production support areas, finished-goods floors, and dispatch staging. Smooth hydraulic travel and controlled landing access are useful where packed products must be moved without unnecessary handling.
Food, beverage, and cold-storage facilities can move packaged products, crates, cartons, containers, and secondary packaging between processing, storage, and shipping levels. Material selection and environmental preparation should reflect temperature, moisture, cleaning, and corrosion exposure. Stainless steel construction can be considered where application requirements justify it, subject to engineering evaluation.
Pharmaceutical operations can use the lift for packaged products, cartons, containers, secondary packaging, and production support materials. The system can connect controlled storage, packaging, and finished-goods areas while reducing interruptions caused by cross-level handling. Construction finish, access arrangements, cleaning requirements, and integration with site procedures must be established for the specific facility.
Logistics centers can move receiving shipments, stored inventory, dispatch pallets, and staging materials between operational levels. A platform matched to standard load carriers can support continuous movement from receiving to storage and onward to dispatch preparation. Landing count, travel height, operating frequency, and controls should be selected around the facility's actual routing and peak workflow.
Nio Equipment approaches the Goods Cum Passenger Lift as an engineered material-handling system rather than a generic platform. Capacity selection can account for goods, handling equipment, load distribution, and authorized personnel, while platform and mast choices can reflect the available building space. This is especially relevant for non-standard pallets, restricted pits, unusual landing access, or mixed production workflows.
Nio Equipment can configure load capacity, platform dimensions, single-mast or double-mast construction, installation layout, and multi-level landing arrangements within the supported product range. Mild-steel or optional stainless-steel construction can be considered according to the operating environment. Weatherproof preparation, custom finishes, and enhanced environmental construction remain subject to application review.
The lift can be configured with operator-accessible controls and, where required, PLC, HMI touchscreen, remote operation, or Industry 4.0 interfaces. Nio Equipment can evaluate these options in relation to landing interlocks, production sequencing, material calls, and existing plant controls. Defining integration requirements during engineering helps avoid disconnected control arrangements at installation.
Nio Equipment supports application assessment, manufacturing, installation planning, commissioning, and after-sales service across India. Site-specific planning can address foundations, mast support, power-unit placement, landing gates, travel clearances, and maintenance access. Early consultation is particularly useful when pit depth is restricted, loads approach the upper capacity range, or the project involves more demanding operating conditions.
Nio Equipment specializes in material handling equipment, hydraulic lifting equipment, and industrial lifting systems. That manufacturing focus supports coordination between the fabricated structure, hydraulic drive, load platform, controls, and safety functions required for a Goods Cum Passenger Lift. Buyers can therefore evaluate the equipment as part of their wider factory or warehouse material-flow plan rather than as an isolated lifting device.
Installation planning should begin with a survey of the goods route, floor levels, loading directions, landing access, and surrounding equipment. Engineers should identify the largest and heaviest loads, handling devices used on the platform, expected accompanying personnel, and operating frequency. Restricted pit depth, non-standard pallets, high cycle demand, or unusual landing geometry should be identified before the layout is finalized.
Rated capacity must include goods, pallets or trolleys, handling equipment, and all authorized personnel expected on the platform. Platform length, width, and clear height should allow the load to remain within the protected envelope without interfering with gates, controls, or light curtains. Load distribution and center of gravity also influence whether a single-mast or double-mast arrangement is appropriate.
The lift requires a level, reinforced base or pit capable of supporting the equipment and operating loads. Pit-mounted systems need adequate pit depth, drainage consideration where applicable, and accurate coordination with the finished floor level. Floor-mounted or wall-mounted versions still require engineered anchoring and stable structural support for the mast, so existing walls or slabs should not be assumed suitable without assessment.
Each of the two to four landings requires clear loading space, controlled access, and correctly aligned interlocked gates. The platform travel zone must remain free of building obstructions, services, stored materials, and traffic conflicts. Loading approaches should allow pallets or trolleys to enter and exit without unsafe turning, excessive gradients, or interference with authorized personnel.
The installation requires a stable 415V, three-phase, 50 Hz electrical supply appropriate for a motor rating between 3.7 kW and 11 kW. Space must be reserved for the hydraulic power unit, control panel, wiring routes, and safe maintenance access. Any PLC, HMI, remote operation, or plant-control interface should be defined early so control responsibilities and interlocks can be engineered coherently.
Platform movement clearances, landing barriers, gates, perimeter protection, and operator access must be coordinated with the building layout. Guarding should prevent entry into the travel zone while preserving safe loading, unloading, inspection, and maintenance access. Outdoor exposure, corrosive conditions, cold environments, or washdown-related concerns require project-specific construction and protection review.
Commissioning should verify smooth travel, landing accuracy, load response, controls, hydraulic operation, gate interlocks, limit switches, overload protection, emergency stops, light curtain operation, and other installed safety devices. Functional testing must be completed with the supporting structure, electrical connections, and hydraulic system in their final condition. Operators and maintenance personnel should receive equipment-specific instruction before the lift enters service.
Operators should observe the platform, mast, gates, guardrails, and loading surfaces for visible damage, contamination, or obstruction. Unusual noise, vibration, jerking, drift, slow response, or inconsistent landing alignment should be reported rather than accepted as normal operation. Inspection frequency should reflect operating hours, load conditions, and the maintenance guidance supplied with the equipment.
Periodic maintenance should check hydraulic oil level and condition, hoses, fittings, cylinders, seals, and the power unit for leakage or damage. Hydraulic filters and oil should be serviced according to operating conditions and the equipment documentation rather than an assumed universal interval. Hose deterioration or leakage requires prompt attention because hydraulic integrity directly affects controlled lifting and descent.
Mast guides and other specified moving points require cleaning and lubrication to preserve smooth platform travel. Structural fasteners, mast supports, weld areas, the platform frame, guardrails, and foundation connections should be examined for looseness, wear, deformation, or corrosion. Any structural defect should be assessed by qualified personnel before the lift returns to operation.
Electrical connections, control panels, platform controls, limit switches, levelling devices, sensors, and control wiring require periodic functional checks. Landing accuracy should remain consistent so that pallets, trolleys, and personnel do not encounter an unsafe step at the threshold. Fault indications or intermittent control behavior should be investigated using the equipment documentation and approved service procedures.
Maintenance should include functional testing of landing gate interlocks, overload protection, emergency stops, the hydraulic hose burst valve, light curtains, mechanical safety locks, and installed pressure-relief functions. Safety devices must not be bypassed to maintain production availability. After maintenance or adjustment, affected functions should be retested before normal operation resumes.
A service record should document inspections, identified defects, corrective work, hydraulic servicing, component replacement, and safety-device tests. Trend information can help maintenance teams identify recurring levelling, leakage, fastening, or guide-wear issues before they cause extended downtime. Replacement parts and procedures should remain consistent with the engineered lift configuration.
The lift is intended for industrial goods movement with authorized accompanying personnel, not unrestricted public passenger service. Operators should be trained in loading, platform controls, landing access, emergency response, and the limitations of the installed configuration. Access to controls and landing gates should be managed to prevent use by untrained personnel.
Every load assessment must include the weight of goods, pallets, trolleys, equipment, and accompanying personnel. The combined total must remain within the engineered capacity, even when individual items appear comparatively light. Overload protection is a safeguard, but it does not replace accurate load planning or responsible operation.
Loads should be stable, centered as intended by the design, and contained within the platform envelope. Pallets, wheeled trolleys, tools, and irregular components must be prevented from rolling, shifting, or contacting gates and protective devices during travel. Personnel should occupy the designated safe area and keep clear of load movement and platform edges.
Interlocked landing gates should remain closed and unobstructed except during safe loading and unloading at the correct level. Operators must verify platform alignment before moving a trolley, pallet, or person across the threshold. Light curtains, gates, guardrails, and other protective systems must not be blocked, defeated, or used as load restraints.
Before use, the operator should check for visible hydraulic leakage, damaged gates, obstructed travel areas, abnormal platform position, and active fault indications. Emergency stops, access controls, and safety warnings must remain visible and accessible. Operation should stop if unusual movement, noise, levelling error, or safety-device malfunction is observed.
Inspection or maintenance within hazardous areas requires isolation of electrical and hydraulic energy using the site's approved lockout procedure. The platform must be mechanically secured where required, and maintenance personnel must not rely solely on hydraulic pressure to support it. Unauthorized changes to controls, mast supports, capacity settings, gates, or safety circuits can invalidate the engineered operating basis and must not be made.