| Geared Traction Elevator | An electric motor drives a traction sheave connected to ropes and a counterweight through a gearbox. | 250–450 kg | 0.15–0.40 m/s | Up to approximately 15–20 m in many low-rise homes | Usually requires a dedicated shaft, guide rails, overhead space, and a pit; a machine room may be required depending on the design. | Moderate energy use; the counterweight reduces motor load during travel. | Reliable, familiar technology; suitable for multiple floors and frequent daily use. | More structural space, installation work, and maintenance than compact residential systems. | Large private homes, multi-level residences, and buildings requiring regular passenger transport. | High suitability |
| Machine-Room-Less Traction Elevator | A compact gearless or geared traction system places the drive equipment inside or near the hoistway instead of in a separate machine room. | 250–450 kg | 0.15–0.40 m/s | Approximately 10–20 m, depending on the system and local regulations | Typically needs a shaft, pit, overhead clearance, guide rails, and suitable electrical service; no separate machine room is normally needed. | Generally efficient, especially when regenerative or standby energy-saving features are included. | Saves floor area, offers smooth travel, and supports several stops. | Requires accurate building coordination and may still need substantial pit and overhead dimensions. | New-build homes and renovations where a separate machine room is not practical. | Very high suitability |
| Hydraulic Home Elevator | An electric pump moves hydraulic fluid into a cylinder to raise the car; the car descends when fluid is released in a controlled manner. | 250–450 kg | 0.10–0.30 m/s | Usually up to approximately 9–15 m | Often requires a pit and a separate or nearby location for the pump unit; some configurations use a reduced pit or compact cabinet. | Higher energy demand while ascending; low energy demand during descent. Requires hydraulic-fluid inspection and maintenance. | Strong lifting capacity, stable operation, and suitability for low-rise buildings. | Slower travel, possible pump noise, hydraulic-fluid management, and limited practicality for many floors. | Two- or three-storey houses, accessible homes, and low-rise residential projects. | High suitability for low-rise homes |
| Screw-Drive Elevator | An electric motor rotates a screw or threaded drive mechanism that moves the platform or car along a nut assembly. | 250–400 kg | 0.10–0.20 m/s | Usually up to approximately 6–12 m | Often available with a self-supporting structure and limited pit or overhead requirements, depending on the configuration. | Moderate energy use; mechanical components require scheduled lubrication and inspection. | Compact layout, stable movement, and relatively flexible installation for small residential buildings. | Slower speed, audible mechanical operation, and generally limited travel compared with traction systems. | Existing homes, short-rise residences, and projects with restricted construction space. | High suitability for retrofit projects |
| Chain-Drive Elevator | An electric motor moves the car through a chain-based lifting mechanism, often using a compact direct or indirect drive arrangement. | 200–400 kg | 0.10–0.20 m/s | Usually up to approximately 6–12 m | Can be designed with reduced pit and overhead requirements, but still needs a stable support structure and protected travel path. | Moderate energy use; chains, sprockets, and safety components need routine inspection. | Compact, suitable for limited travel, and adaptable to some low-rise installations. | Slower travel and potential mechanical noise; availability and approval requirements vary by country. | Small houses, duplexes, and selected retrofit applications. | Moderate to high suitability |
| Pneumatic Vacuum Elevator | Air pressure differences created by a vacuum pump move a lightweight cylindrical car between levels. | 180–250 kg | Approximately 0.15–0.30 m/s | Typically up to approximately 9–15 m, depending on the system design | Usually self-supporting and does not require a conventional shaft, deep pit, or separate machine room; floor openings and structural anchoring are still necessary. | Uses electricity mainly during upward travel; the car can descend using controlled air pressure. | Minimal construction work, transparent or compact design options, and suitability for some existing homes. | Lower capacity, limited travel, pump noise, and possible restrictions for frequent heavy use. | Existing homes, villas, accessibility upgrades, and homes prioritizing compact installation. | High suitability where local approval is available |
| Platform Lift | A powered platform travels vertically along guide rails and is designed primarily for wheelchair and mobility access. | 225–400 kg | Approximately 0.05–0.15 m/s | Commonly up to approximately 4–10 m | Can be installed with a small enclosure, partial shaft, or external structure; pit and overhead requirements are often reduced. | Generally moderate energy use and simple control requirements. | Accessible, practical for short-rise travel, and often easier to integrate than a full enclosed passenger elevator. | Slower speed, limited cabin comfort, and may not meet the definition of a full passenger elevator in every jurisdiction. | Private homes with wheelchair users, split-level houses, and short vertical routes. | Very high for accessibility projects |
| Through-Floor Lift | A compact lift travels directly through prepared floor openings, usually between two or three levels. | 200–300 kg | Approximately 0.05–0.15 m/s | Usually up to approximately 6–9 m | Designed for small residential footprints; may require limited pit depth and a compact upper landing arrangement. | Generally moderate energy use with simple low-rise operation. | Space-efficient, suitable for retrofit work, and useful where a conventional shaft cannot be constructed. | Limited capacity and travel; floor openings must be carefully reinforced and protected. | Two-storey homes, split-level residences, and accessibility improvements. | High suitability for compact homes |
| Cabin Residential Elevator | A fully enclosed car travels within a dedicated shaft using a traction, hydraulic, screw, or another approved drive system. | 250–450 kg | 0.10–0.40 m/s | Approximately 6–20 m, depending on the selected drive system | Usually requires a shaft, landing doors, guide rails, electrical supply, and coordinated pit and overhead dimensions. | Operating efficiency depends on the drive technology, car weight, travel distance, and frequency of use. | Greater comfort, privacy, weather protection, and suitability for transporting several passengers or goods. | Higher construction cost and more demanding installation requirements than open platform solutions. | New-build houses, luxury residences, and homes with three or more served levels. | Very high suitability |
| Outdoor Home Elevator | A residential elevator is installed outside the main building envelope in a weather-resistant shaft or tower. | 200–450 kg | 0.10–0.40 m/s | Approximately 6–20 m, depending on the drive system | Requires a stable external foundation, weather protection, landing connections, drainage, and compliance with local structural and electrical requirements. | Energy use depends on the selected traction, hydraulic, screw, or platform mechanism; weather protection can affect maintenance needs. | Preserves interior floor area and can connect multiple levels without major indoor remodeling. | Exposure to temperature, moisture, wind, and corrosion; planning permission may be required. | Existing homes, hillside properties, multi-level gardens, and buildings with limited interior space. | High suitability where outdoor planning is permitted |
