Abstract: A method for the automated docking of a passenger boarding bridge to an aircraft parked in a stand includes, determining a target position with respect to a door of the aircraft, to which target position a bridgehead of the passenger boarding bridge is to be moved, and moving the bridgehead to dock with the door of the aircraft based on the determined target position.

Abstract: A set of pallets for transportation systems for transporting passengers and/or goods may include a pulling pallet that pulls a pulled pallet. The pulled and pulling pallets may articulate relative to one another about an axis substantially perpendicular to a direction of displacement of a continuous belt formed by such sets of pallets. The set of pallets may have a support surface for supporting passengers and/or goods, as well as a functional surface opposite the support surface. The functional surface may include a balance having a first end articulated to the functional surface according to an axis substantially perpendicular to the direction of displacement and a second end opposite the first end that has a one or more coupling devices that form a coupling joint between one or more devices that pull the pulling pallet along a trajectory followed by the continuous belt.

Abstract: A turning system for a belt transport system, wherein the belt of the same is formed by a plurality of pallets and the transport system has a turn input stretch and a turn output stretch, arranged on the same horizontal plane. The turning system has a curved stretch, which connects the turn input and output, the curved stretch being arranged on the same horizontal plane as the turn input and output.

Abstract: An example drive system for a transportation system may include an actuator for transmitting an actuation motion from a motor, a first pulling device configured to transmit a pulling motion from the actuator to moving parts of the transportation system in a transition speed section situated between an embarking/disembarking zone and a middle zone, a second pulling device configured to transmit a pulling motion from the first pulling device to the moving parts of the transportation system in a high-speed section in a middle zone of the transportation system. In some examples, the first pulling device may be a carriage.

Abstract: Example drive systems for handrails of walkways and moving stairs may comprise a plurality of carriages. In some examples, each carriage may comprise a body with several leading rollers that roll along a guide that defines a handrail path. The carriage may further comprise a locking/release mechanism for selectively coupling the carriage to a drive chain of the handrail. The locking/release mechanism may comprise a hook configured to move between an engagement position wherein the carriage is coupled to the drive chain and a disengagement position wherein the carriage is uncoupled from the drive chain. In some cases, a position of the hook may be controlled by a wheel that travels along a cam profile.

Abstract: An example set of palettes for transportation systems for transporting passengers and/or goods may include a pulling palette that pulls a pulled palette. The pulled and pulling palettes may articulate relative to one another about an axis substantially perpendicular to a direction of displacement of a continuous belt formed by such sets of palettes. The set of palettes may have a support surface for supporting passengers and/or goods, as well as a functional surface opposite the support surface. The functional surface may include a balance having a first end articulated to the functional surface according to an axis substantially perpendicular to the direction of displacement and a second end opposite the first end that has a one or more coupling devices that form a coupling joint between one or more devices that pull the pulling palette along a trajectory followed by the continuous belt.

Abstract: An example drive system for a transportation system may include an actuator for transmitting an actuation motion from a motor, a first pulling device configured to transmit a pulling motion from the actuator to moving parts of the transportation system in a transition speed section situated between an embarking/disembarking zone and a middle zone, a second pulling device configured to transmit a pulling motion from the first pulling device to the moving parts of the transportation system in a high-speed section in a middle zone of the transportation system. In some examples, the first pulling device may be a carriage.

Abstract: A turning system for a belt transport system, wherein the belt of the same is formed by a plurality of pallets and the transport system has a turn input stretch and a turn output stretch, arranged on the same horizontal plane. The turning system has a curved stretch, which connects the turn input and output, the curved stretch being arranged on the same horizontal plane as the turn input and output.

Abstract: A braking system for escalators and moving walkways, includes a braking device (3) with a main brake (30) of the type which is released when there is no voltage in its electric activator, and an auxiliary brake (31) of the type which is closed when there is no voltage in its electric activator. A controller (1) controls the braking device (3), prepared for obtaining the load of the escalator or moving walkway, and calculates the braking torque required for each braking device (3) depending on the load and activating the braking device (3) for obtaining the corresponding torque while braking when a braking command is received. The auxiliary brake is activated (32) for taking the escalators or moving walkway to a safe position when there is a system failure.

Abstract: A bidirectional moving walkway with a tightening system for tightening the band of pallets of the walkway includes two tightening units (6, 6?) arranged at each end of the moving walkway and each including a locking system for locking the movable frame (7) of each end tightening unit (6, 6?). Two drive units (3, 3?) are each arranged at either end of the moving walkway. The locking system of each tightening unit (6, 6?) of either end of the walkway is configured for locking the operation of the tightening unit (6, 6?) when the drive unit (3, 3?) of its same end is operated, such that the moving walkway always works with the tightening unit operated by the passenger entrance end and locked by the passenger exit end.

Abstract: A bidirectional moving walkway with a tightening system for tightening the band of pallets of the walkway includes two tightening units (6, 6?) arranged at each end of the moving walkway and each including a locking system for locking the movable frame (7) of each end tightening unit (6, 6?). Two drive units (3, 3?) are each arranged at either end of the moving walkway. The locking system of each tightening unit (6, 6?) of either end of the walkway is configured for locking the operation of the tightening unit (6, 6?) when the drive unit (3, 3?) of its same end is operated, such that the moving walkway always works with the tightening unit operated by the passenger entrance end and locked by the passenger exit end.

Abstract: A drive system for driving moving walkways, includes a drive unit (2-2?) arranged at each end of the walkway (1), a controller (3-3?) for controlling each drive unit and overall control (4) for controlling the set of drive units (3-3?).

Abstract: The invention relates to a data and energy transmission system for telescopic boarding bridges with an inner section (2) joined to a first structure (4) and an outer section (3) connected to a second structure (5). The system has conductor rails (6) along the inner section (2) of the telescopic tunnel (1) connected to the first structure (4), and at least one pantograph mechanism (7) for electrically connecting the conductor rails (6) with the second structure (5), which is in permanent contact with said conductor rails (6) sliding along such rails accompanying the extension and retraction of the telescopic tunnel (1). There are additionally data transmission means connected to the first structure (4) and to the second structure (5).

Abstract: The invention relates to a data and energy transmission system for telescopic boarding bridges with an inner section (2) joined to a first structure (4) and an outer section (3) connected to a second structure (5). The system has conductor rails (6) along the inner section (2) of the telescopic tunnel (1) connected to the first structure (4), and at least one pantograph mechanism (7) for electrically connecting the conductor rails (6) with the second structure (5), which is in permanent contact with said conductor rails (6) sliding along such rails accompanying the extension and retraction of the telescopic tunnel (1). There are additionally data transmission means connected to the first structure (4) and to the second structure (5).