| 1 | Match the rated load to the vehicle Select the platform according to the heaviest expected vehicle, passengers, and any accessories or equipment carried inside the vehicle. | Hydraulic platform Traction platform Scissor platform | Common rated load Approximately 2,500–5,000 kg for passenger-car applications. Platform width Commonly about 2,500–3,000 mm, subject to vehicle dimensions and local code. | Hydraulic systems generally provide high lifting force and smooth low-speed movement. Traction systems can handle frequent operation efficiently when properly balanced. | Confirm structural load paths, slab strength, anchoring points, and clearance around the vehicle. The supporting structure must be designed for both static and dynamic loads. | Advantages: Better safety margin and longer service life when correctly sized.
Limitation: Oversizing may increase construction cost, power demand, and space requirements. | Residential garages, commercial parking facilities, vehicle showrooms, and service buildings. |
| 2 | Choose the lift type for the available space Compare the required pit depth, overhead clearance, platform arrangement, and whether the vehicle must enter and exit from one or both sides. | Vertical car elevator Scissor lift Four-post platform | Typical travel Approximately 3–15 m for low- to medium-rise vehicle movement. Access arrangement Single-side or through-car access, depending on the building layout. | Hydraulic and screw-driven systems are often suitable for compact low-rise installations. Traction systems are commonly selected for greater travel or frequent cycling. | A pit may range from shallow construction to more than 1 m, depending on the design. Overhead clearance is also required for the raised platform and vehicle. | Advantages: Correct lift type can reduce excavation and structural alterations.
Limitation: A compact design may reduce usable platform dimensions or access flexibility. | Existing buildings with restricted excavation space, multi-level parking, and compact urban sites. |
| 3 | Compare the drive system and duty cycle Estimate daily cycles, peak traffic periods, expected operating speed, and the available electrical supply before selecting the drive. | Hydraulic drive Traction drive Screw drive | Typical operating speed Approximately 0.1–0.3 m/s for many vehicle platforms; project requirements may vary. Duty cycle Low-frequency private use through high-frequency commercial operation. | Hydraulic: high load capacity and smooth movement, but heat generation may occur during intensive use.
Traction: efficient for repeated travel and larger rises, but requires careful balancing and maintenance.
Screw: precise and compact, but generally better suited to moderate speeds and controlled duty cycles. | Check power supply, motor-room or cabinet location, ventilation, noise limits, and emergency lowering provisions. Three-phase power may be required for larger systems. | Advantages: Drive selection can improve energy performance and operating reliability.
Limitation: Actual energy use depends on load, travel height, cycle frequency, controls, and standby mode. | Hydraulic for heavy, low-rise lifting; traction for frequent or taller travel; screw drive for compact and moderate-duty installations. |
| 4 | Verify vehicle and platform dimensions Measure the longest, widest, tallest, and heaviest vehicle expected, including roof accessories and open doors where relevant. | Standard platform Extended platform Through-loading platform | Common clear platform size Approximately 2,500–3,000 mm wide and 5,000–6,000 mm long. Vehicle height allowance Often about 2,000–2,400 mm, depending on the vehicle class and enclosure. | The drive system does not replace the need for adequate platform clearance. Guide rails, gates, barriers, and safety equipment must remain outside the vehicle envelope. | Allow additional space for entry alignment, door opening, mirrors, wheel guides, drainage, lighting, and pedestrian separation. | Advantages: Accurate dimensions reduce loading errors and improve user confidence.
Limitation: A larger platform can require a larger shaft, pit, structural opening, and budget. | Facilities serving mixed vehicle types, including SUVs, vans, electric vehicles, and larger passenger cars. |
| 5 | Assess the site and building structure Conduct a site survey before final design to identify soil, groundwater, slab, shaft, access, and construction constraints. | Pit-mounted system Pitless system Self-supporting shaft system | Important site factors Pit depth, overhead height, shaft dimensions, floor loading, wall strength, drainage, and access for delivery. | Hydraulic equipment may need a power unit and hydraulic lines. Traction systems may require overhead machinery or a dedicated machine space. Screw systems may need a strong vertical support structure. | Check groundwater, waterproofing, seismic conditions, wind exposure for external shafts, fire separation, ventilation, and the route for transporting major components. | Advantages: Early site verification prevents redesign and costly civil work.
Limitation: Existing structures may require reinforcement or a custom shaft arrangement. | New construction when a shaft can be planned early; pitless or external systems where excavation is difficult. |
| 6 | Prioritize safety and code compliance Confirm that the equipment includes appropriate protection for vehicle movement, platform travel, gate operation, and emergency situations. | Enclosed car elevator Guarded platform Automatic gate system | Safety functions to specify Interlocked landing gates, overload protection, emergency stop controls, anti-fall protection, level monitoring, obstruction detection, and emergency lowering or rescue access. | All drive types require mechanical safety devices, controlled stopping, limit switches, and a documented maintenance program. Electrical controls should be protected against moisture and unauthorized operation. | Coordinate with local building, fire, electrical, accessibility, and occupational-safety requirements. The final design should be reviewed by qualified professionals where required. | Advantages: Proper safeguards reduce risks to drivers, pedestrians, vehicles, and maintenance personnel.
Limitation: Safety components and compliance inspections can increase initial cost and installation time. | All installations, especially public, commercial, residential-shared, and high-traffic facilities. |
| 7 | Evaluate lifecycle cost and maintenance access Compare purchase price with civil work, installation, energy, inspections, spare parts, downtime, and planned maintenance. | Low-maintenance configuration High-cycle commercial system Weather-protected system | Maintenance planning Regular inspection and servicing should follow the manufacturer’s instructions and applicable local regulations. Expected service factors Usage frequency, environmental exposure, corrosion protection, component availability, and technician access. | Hydraulic systems require attention to fluid condition, seals, hoses, and leakage control. Traction systems require inspection of ropes, sheaves, brakes, and balancing components. Screw systems require lubrication and wear checks. | Provide safe access to the machine room, control cabinet, cylinders, ropes, guide rails, and pit. Protect outdoor equipment from rain, dust, freezing temperatures, and corrosion. | Advantages: Serviceable equipment can reduce downtime and improve long-term operating value.
Limitation: The lowest initial price may result in higher civil, energy, or maintenance costs over time. | Commercial parking, apartment buildings, fleet facilities, and any site where service interruption is costly. |
