An elevator car includes a floor base, which is stiff in bending, with a metallic base structure in which a support element of plastics material is arranged. The support element is formed as an integral mold body and is produced by means of an injection-molding method.

An elevator system includes a hoistway and an elevator car suspended in the hoistway via a suspension member and drivable along the hoistway. The elevator car includes an elevator car panel and a battery pocket positioned in the elevator car panel. A battery is removably positioned in the battery pocket. The battery and the battery pocket are configured such that inspection, maintenance and/or repair of the battery is performed without entry into the hoistway of the elevator system. A method of servicing an elevator system includes driving an elevator car along a hoistway and stopping the elevator car near a selected elevator landing floor. A battery is at least partially removed from a battery pocket at the elevator car via a technician located at the selected elevator landing floor for inspection, maintenance, replacement and/or repair.

A system for protecting an elevator including a plurality of wall panels. The system includes a first plurality of hangers each having a suspension portion and a hanger portion. A protective sheet having a plurality of holes along an edge thereof is fastened to the suspension portions by a plurality of snap fasteners inserted through both the aperture of a hanger and a hole of the plurality of holes. The hanger portion engages an upper edge portion of a wall panel of the plurality of wall panels. In some uses, the protective sheet is positioned between the suspension portion and the wall panel of the plurality of wall panels. The hanger portion may be embodied as a hook and the snap fasteners may be embodied as plastic rivets.

An elevator car comprising a passenger cab and a robot cab, the robot cab is configured to accommodate at least one autonomous robot; wherein the robot cab includes: a robot cab controller configured to receive elevator call requests from the at least one autonomous robot and a coupling mechanism configured to couple the robot cab to the passenger cab.

An elevator includes an elevator car movable in a shaft and a counterweight. The counterweight is connected by suspension apparatus guided over deflecting rollers of a deflecting unit. The counterweight deflecting unit includes a cover arrangement, for covering the deflecting rollers, that is a plastic folding part formed from an erectable blank. The blank has a cover and side walls surrounded by folding lines or edges, wherein the cover and the side walls, in a starting position, lie on a common plane and wherein the cover and the side walls, in an end position, form a cover portion, a front side wall, a rear side wall and transverse side walls, the side walls adjoining the cover portion at right angles.

Elevator systems including an elevator car having a car door sill and car apron assembly movable along an elevator shaft having a pit floor, are provided. The car apron assembly includes a collapsible guard with at least one guard element that is moveable from a deployed state to a compressed state. In the compressed state the at least one guard element is positioned within the car door sill. A guard frame is fixedly connected to the at least one guard element by one or more reinforcement elements, a translating member is arranged at each end of the guard frame, and a guide member fixedly connected to the elevator car. The collapsible guard is urged from the deployed state toward the compressed state as the guard element contacts the pit floor, and when transitioning from the deployed state to the compressed state, the translating member translates along the guide member.

A running system for an elevator. The running system comprises a car (21), running rails (1), and a driving mechanism, the car (21) is moved on the running mils by means of the driving mechanism, and the running system does not comprises a traction part. Further disclosed is a multi-car elevator running system: the running system is provided with a plurality of cats (21) and at least two set of running rails (1), and each set of running rails (1) can be used for the movement of line cars (21); the running system is further provided with at least one switching mechanism and driving mechanism, the car (21) is moved on the running rails (1) by means of the driving mechanism, different running rails (1) are connected by means of the switching mechanism, and the car (21) is switched to the different running rails (1) by means of the switching mechanism. By means of the configurations, the safety of the elevator during running can be enhanced, the high-speed running of the cars can be implemented, and the speed requirement of a high-rise elevator cart be satisfied.

An elevator car enclosure (106) which defines a volume (142) for receiving a load to be transported, wherein the elevator car enclosure (106) is formed from a single moulded body.

An elevator system includes a car that ascends and descends a hoist way, a power feeding device installed at a specific power feeding point of the hoist way, a power receiving device that receives power from the power feeding device when the car stops at the power feeding point, a battery that is charged by the received power, and an elevator control panel that controls ascent and descent of the car. When the remaining capacity of the battery is equal to or less than a predetermined capacity, the elevator control panel performs a rescue operation of a passenger in the car, and after the rescue operation, performs an automatic search operation of searching for a power feeding point where the power feeding device is installed according to the remaining capacity of the battery.

A safety exit assembly for an elevator car and an elevator system. The safety exit assembly includes: a door panel, which is configured to open and close a safety exit of the elevator car, and which has an upper surface and a lower surface; a moving assembly, which includes a guide block provided on a lower surface of the door panel, and a guide rail which guides the door panel to move downward and translate through a cooperation with the guide block; a drive assembly, which drives the door panel to reciprocate along the guide rail; and a locking assembly, which includes an unlocking element provided on an upper surface of the door panel; wherein the unlocking element is electrically connected to the drive assembly, and an unlocking action of the unlocking element triggers the drive assembly to drive the door panel to move until the safety exit is opened.