A suspension lift apparatus includes a platform, a plurality of direction changing sheaves and lifting sheaves mounted to the platform, a plurality of cables and a lifting mechanism positioned on the platform. Ends of cables mounted above the platform extend through the sheaves and are coupled at the opposite cable ends to the lifting mechanism disposed on the platform. Actuation of the lifting mechanism causes the platform to rise or descend. The cables are anchorable to a structure such as a ceiling above the platform. The suspension lift apparatus may include legs to provide an overhead anchor point.

A vertical moving method of a vertical moving unit on which a conveyance target object is mounted includes steps of causing a non-electric biasing unit to generate a biasing force to raise the vertical moving unit, causing an electric motor unit to generate a thrust in a direction to raise the vertical moving unit or a thrust in a direction to lower the vertical moving unit, and causing an electromagnetic brake unit to generate a braking force to resist a movement of the vertical moving unit. Independently of presence/absence of the object and a weight of the object, the thrust and/or the braking force is controlled such that the vertical moving unit stops when an external force of overload more than a predetermined value acts on the vertical moving unit during a vertical movement.

A vertical moving method of a vertical moving unit on which a conveyance target object is mounted includes steps of causing a non-electric biasing unit to generate a biasing force to raise the vertical moving unit, causing an electric motor unit to generate a thrust in a direction to raise the vertical moving unit or a thrust in a direction to lower the vertical moving unit, and causing an electromagnetic brake unit to generate a braking force to resist a movement of the vertical moving unit. Independently of presence/absence of the object and a weight of the object, the thrust and/or the braking force is controlled such that the vertical moving unit stops when an external force of overload more than a predetermined value acts on the vertical moving unit during a vertical movement.

A container-handling vehicle includes a lifting shaft having first and second end sections, a motor for rotating the lifting shaft, a lifting frame for releasably connecting to a storage container, and a first pair of lifting bands and a second pair of lifting bands connecting the lifting shaft to the lifting frame. Each lifting band has a first end connected to the lifting shaft and a second end connected to the lifting frame. Each pair of lifting bands has a first lifting band connected at the first end section of the lifting shaft and a second lifting band connected at the second end section of the lifting shaft. The first pair of lifting bands extends in a substantially horizontal direction from the lifting shaft towards a band guiding assembly arranged to change the direction of the first pair of lifting bands to extend in a vertical direction. The second pair of lifting bands extends in a vertical direction from the lifting shaft at the side of the lifting shaft facing away from the band guiding assembly.

A container-handling vehicle includes a lifting shaft having first and second end sections, a motor for rotating the lifting shaft, a lifting frame for releasably connecting to a storage container, and a first pair of lifting bands and a second pair of lifting bands connecting the lifting shaft to the lifting frame. Each lifting band has a first end connected to the lifting shaft and a second end connected to the lifting frame. Each pair of lifting bands has a first lifting band connected at the first end section of the lifting shaft and a second lifting band connected at the second end section of the lifting shaft. The first pair of lifting bands extends in a substantially horizontal direction from the lifting shaft towards a band guiding assembly arranged to change the direction of the first pair of lifting bands to extend in a vertical direction. The second pair of lifting bands extends in a vertical direction from the lifting shaft at the side of the lifting shaft facing away from the band guiding assembly.

The present disclosure discloses a sling mechanism for lifting a container, including a frame body. A supporting wheel is arranged on the frame body, and the supporting wheel comes into contact with a steel rope. A balance mechanism is arranged inside the frame body, a lifting frame is fixedly connected to the steel rope, and a sliding block is slidably connected to the lifting frame. A lifting drum is welded onto the sliding block, a lifting mechanism is arranged inside the lifting drum, and a regulating mechanism is arranged inside the lifting frame. The balance mechanism includes a motor fixedly installed on the frame body, where a rotation shaft of the motor is rotatably connected to the frame body. A gear is welded onto the rotation shaft, and the gear is meshed with a gear rack.

The present disclosure discloses a sling mechanism for lifting a container, including a frame body. A supporting wheel is arranged on the frame body, and the supporting wheel comes into contact with a steel rope. A balance mechanism is arranged inside the frame body, a lifting frame is fixedly connected to the steel rope, and a sliding block is slidably connected to the lifting frame. A lifting drum is welded onto the sliding block, a lifting mechanism is arranged inside the lifting drum, and a regulating mechanism is arranged inside the lifting frame. The balance mechanism includes a motor fixedly installed on the frame body, where a rotation shaft of the motor is rotatably connected to the frame body. A gear is welded onto the rotation shaft, and the gear is meshed with a gear rack.

The invention relates to a lifting apparatus for lifting and lowering vehicles, loads or the like, with a support (17) which is movable up and down and on which support (17) a load receiving means (18) is provided, wherein the load receiving means (18) has at least one supporting arm (21) which is mounted on the support (17) so as to be pivotable about a pivot axis (22), and with a locking device (37), which locking device (37) fixes the supporting arm (21) in an adjusted position with respect to the support (17), wherein the locking device (37) is released in the lowered state of the support (17) and, when the support (17) is raised, is locked and secures the adjusted pivoted position of the supporting arm (21) with respect to the support (17), wherein the locking device (37) comprises at least one actuable adjusting device (38) which is effective for the positioning of the supporting arm (21) in a pivoted position with respect to the support (17) and is automatically transferable into a locking position and fixes the adjusted pivoted position of the support (17).

Wireless portable vehicle lift system incorporating one or more enhanced communication and/or control features. The lift system can incorporate enhanced touch screen-enabled functionalities and/or enhanced wireless communication features.

A suspension lift apparatus includes a platform, a plurality of direction changing sheaves and lifting sheaves mounted to the platform, a plurality of cables and a lifting mechanism positioned on the platform. Ends of cables mounted above the platform extend through the sheaves and are coupled at the opposite cable ends to the lifting mechanism disposed on the platform. Actuation of the lifting mechanism causes the platform to rise or descend. The cables are anchorable to a structure such as a ceiling above the platform. The suspension lift apparatus may include legs to provide an overhead anchor point.