Cableway installation (10), comprising at least a housing (11) suitable to carry passengers and equipped with a safety device (12) which is movable between an access configuration and a safety configuration.

The installation (10) comprises: radiation emitting means (13); reflecting means (14), adapted to reflect said radiation; receiving means (15), adapted to receive a reflection of said radiation emitted by said reflecting means (14).

The emitting means (13), the reflecting means (14) and the receiving means (15) are arranged in such a way that, in at least a predefined operating condition, the emitting means (13) are facing the reflecting means (14), to irradiate them, and the reflecting means (14) are facing the receiving means (15) to reflect the radiation towards them.

The reflecting means (14) are fixed to the safety device (12) so as to reflect the radiation differently depending on whether the safety device (12) is in the access configuration or in the safety configuration.

Cableway installation (10), comprising at least a housing (11) suitable to carry passengers and equipped with a safety device (12) which is movable between an access configuration and a safety configuration.

The installation (10) comprises: radiation emitting means (13); reflecting means (14), adapted to reflect said radiation; receiving means (15), adapted to receive a reflection of said radiation emitted by said reflecting means (14).

The emitting means (13), the reflecting means (14) and the receiving means (15) are arranged in such a way that, in at least a predefined operating condition, the emitting means (13) are facing the reflecting means (14), to irradiate them, and the reflecting means (14) are facing the receiving means (15) to reflect the radiation towards them.

The reflecting means (14) are fixed to the safety device (12) so as to reflect the radiation differently depending on whether the safety device (12) is in the access configuration or in the safety configuration.

An aerial ropeway hazard sensing system including a radar sensing unit mounted at a position along a ropeway that generates radar data representative of predetermined ropeway conditions proximate the radar sensing unit, and a processor that analyzes data from the radar sensing unit to detect predetermined hazard conditions and to generate a hazard detection signal indicative thereof. A method of performing an aerial ropeway safety function comprises using radar to detect a hazard condition and generating a hazard detection signal in response thereto; generating a control signal in response to the hazard detection signal; and initiating a safety with the control signal.

An aerial ropeway hazard sensing system including a radar sensing unit mounted at a position along a ropeway that generates radar data representative of predetermined ropeway conditions proximate the radar sensing unit, and a processor that analyzes data from the radar sensing unit to detect predetermined hazard conditions and to generate a hazard detection signal indicative thereof. A method of performing an aerial ropeway safety function comprises using radar to detect a hazard condition and generating a hazard detection signal in response thereto; generating a control signal in response to the hazard detection signal; and initiating a safety with the control signal.

This seat includes a guard-rail able to occupy a lowered first extreme position and a raised second extreme position, and means for locking the guard rail when it is in a lowered position. The locking means include a bistable electromagnet provided with a rod that is able to move between a stable first position in which the rod allows the guard rail to lock in the lowered position by interposing an obstacle in the upward path described by a guard rail element to pass from the lowered position to the raised position, and a stable second position in which the rod allows the guard rail to unlock so that it can be moved into the raised position by moving the obstacle away from the upward path described by the guard rail element.

This seat includes a guard-rail able to occupy a lowered first extreme position and a raised second extreme position, and means for locking the guard rail when it is in a lowered position. The locking means include a bistable electromagnet provided with a rod that is able to move between a stable first position in which the rod allows the guard rail to lock in the lowered position by interposing an obstacle in the upward path described by a guard rail element to pass from the lowered position to the raised position, and a stable second position in which the rod allows the guard rail to unlock so that it can be moved into the raised position by moving the obstacle away from the upward path described by the guard rail element.

Cableway installation including at least one vehicle designed to be hauled by the cable, a loading terminal including a boarding area where passengers are positioned to board the vehicle, a drive motor of the vehicle in the boarding area, image acquisition device generating at least one image representative of the vehicle and of the passengers in the boarding area, and an electronic control unit configured to determine a surveillance area around the vehicle and the positions of the passengers, in the at least one representative image, and to generate a speed setpoint for the motor according to the positions of the passengers in the surveillance area.

The invention refers to a chairlift loading apparatus comprising at least two adjacent timing gates for regulating a flow of persons passing through said timing gates, the loading apparatus comprising a high-risk situation detection system comprising: a detection device capable of determining the presence of a potential person passing through each of the timing gates and determining whether the potential person is taller than a predetermined height; and a data processing unit configured to determine, from the data from the detection device, the existence of a high-risk situation when a person who is shorter than the predetermined height is detected in front of a given gate of the adjacent gates, and no person who is taller than the predetermined height is detected in front of one of the adjacent gates.

In order to enhance the safety of a cableway, in particular when a cable car passes through a cableway support of the cableway, according to the present teaching a detection device having at least one evaluation unit and at least two sensors connected to the evaluation unit is provided on at least one cableway support. A first sensor is located in the entry area of the cableway support in order to detect the presence of a cable car in a detection area of the first sensor. A second sensor is located in the exit area of the cableway support in order to detect the presence of a cable car in a detection area of the second sensor. The detection device is provided in order to detect a number of cable cars between the first sensor and the second sensor and to generate a fault signal when the detected number exceeds a predefined maximum number.

In order to enhance the safety of a cableway, in particular when a cable car passes through a cableway support of the cableway, according to the present teaching a detection device having at least one evaluation unit and at least two sensors connected to the evaluation unit is provided on at least one cableway support. A first sensor is located in the entry area of the cableway support in order to detect the presence of a cable car in a detection area of the first sensor. A second sensor is located in the exit area of the cableway support in order to detect the presence of a cable car in a detection area of the second sensor. The detection device is provided in order to detect a number of cable cars between the first sensor and the second sensor and to generate a fault signal when the detected number exceeds a predefined maximum number.