A cable transportation system with at least one haul cable has a supporting structure with a tubular portion defining an axis of rotation; a pulley extending about the axis of rotation; and a bearing assembly, which is connected to the pulley and the tubular portion to enable the pulley to rotate about the axis of rotation with respect to the supporting structure, and has a first and second bearing arranged concentrically and in series, so as to ensure rotation of the pulley about the axis of rotation and with respect to the supporting structure utilizing at least the first or second bearing.

A cable transportation system with at least one haul cable has a supporting structure with a tubular portion defining an axis of rotation; a pulley extending about the axis of rotation; and a bearing assembly, which is connected to the pulley and the tubular portion to enable the pulley to rotate about the axis of rotation with respect to the supporting structure, and has a first and second bearing arranged concentrically and in series, so as to ensure rotation of the pulley about the axis of rotation and with respect to the supporting structure utilizing at least the first or second bearing.

A passenger transportation system having at least one rail extending along a path; at least one trolley movable along the rail; an actuating device having a linear electric motor, in turn having at least one slide fitted to the trolley, and a linear stator extending at least partly along the path, and having an elongated body, and a quantity of power windings embedded in the elongated body; and a quantity of sensors configured to control the position of the trolley, the sensors being fitted to the elongated body and so positioned as to minimize noise generated by the power windings on the sensors.

Method (200) for controlling an installation for transporting vehicles by at least one continuously moving cable, the method comprising a step of determining at least one oscillation (201) of at least one cable and/or one of the vehicles as a function of at least one parameter chosen from an average tension of the cable, an average speed of the cable, a distance between two successive vehicles, and an average mass carried by the vehicles, a step of generating a database (202) which connects a value of the oscillation to a combination of the average tension of the cable, the average speed of the cable, the distance between two successive vehicles, and the average mass carried by the vehicles, and a step of reducing the oscillation (203) by varying any of the parameters.

Method (200) for controlling an installation for transporting vehicles by at least one continuously moving cable, the method comprising a step of determining at least one oscillation (201) of at least one cable and/or one of the vehicles as a function of at least one parameter chosen from an average tension of the cable, an average speed of the cable, a distance between two successive vehicles, and an average mass carried by the vehicles, a step of generating a database (202) which connects a value of the oscillation to a combination of the average tension of the cable, the average speed of the cable, the distance between two successive vehicles, and the average mass carried by the vehicles, and a step of reducing the oscillation (203) by varying any of the parameters.

A cable transportation system cable return pulley has a hub, which is configured to rotate about an axis of rotation and has a plurality of lateral coupling sides lying along respective coplanar straight lines crosswise to the axis of rotation; and a main body, which is coupled to the hub, has an annular seat configured to house the cable, and a quantity of sectors equal to the quantity of lateral coupling sides of the hub, and wherein each sector is coupled to the hub and to the adjacent sectors solely along two of the straight lines.

A cable transportation system cable return pulley has a hub, which is configured to rotate about an axis of rotation and has a plurality of lateral coupling sides lying along respective coplanar straight lines crosswise to the axis of rotation; and a main body, which is coupled to the hub, has an annular seat configured to house the cable, and a quantity of sectors equal to the quantity of lateral coupling sides of the hub, and wherein each sector is coupled to the hub and to the adjacent sectors solely along two of the straight lines.

A cable car system includes vehicles that are clamped to a hauling cable along the route and decoupled from the hauling cable upon entering the stations. The vehicles are moved through the stations by control tires which are coupled to one another by gear mechanisms and driven via a supporting pulley for the hauling cable. The control tires are mounted on a supporting frame on at least one supporting structure. The rotation of the supporting pulley that drives the control tires is derived from the hauling cable by way of a drive belt. The drive belt runs over the supporting pulley, which is mounted on a pivotable rocker, and over at least one control tire. The pivotable rocker is mounted on the supporting structure for the supporting frame, or the pivotable rocker is mounted on a supporting structure to which the supporting frame is not attached.

A system, method and device for moving gondola cabins in a single vertical loop so as to pass above and below with end stations turning wheels placed vertically. The hauling ropes operate in a vertical loop and permit the vertical circulation of the cabins between stations with passenger boarding and deboarding of the cabins in the stations at two different levels. The system may be twinned to provide two parallel, horizontally adjacent systems operating on common towers to double the capacity of a single system. Both the single and twinned systems possess a smaller footprint than conventional horizontal transport systems.

In a continuously moving cableway installation (9), a haul rope (13b) extends as a closed loop defining a transportation path (12). Suspended vehicles (14) can be connected to the rope by means of automatic coupling devices (24). Along the rope path, passenger stations (10) are provided, each providing ramps (22) to cause the clamping or release of the automatic coupling devices (24), fixed power supply conductors (30), and overhead rails (28). Mounted on board each vehicle (14) are: a motor-driven trolley (20), an electrical contact (30a) to contact one of the power supply conductors (30) in the passenger stations (10), an electric power battery (43), and an electric motor (42) with driving wheels (40) associated thereto, which are suitable for rolling on the overhead rails (28) in order to move the vehicle within and proximate to the passenger stations.