The present disclosure is directed toward a system for autonomously landing an unmanned aerial vehicle (UAV) within an unmanned aerial vehicle ground station (UAVGS) and removing a battery assembly from within the UAV while landed. In particular, systems described herein enable a battery arm to engage a battery assembly and remove the battery assembly from within the UAV. Additionally, the battery arm can include one or more sensors that detect a pattern of sensor contacts arranged on an end of the battery assembly. In particular, the sensors on the battery arm can detect and identify the battery assembly based on the particular pattern of sensor contacts on the end of the battery assembly.

A transport safety system (400) for use in airports comprising a status monitor (300) for an airside dolly (200) used to improve airport safety. The status monitor (300) comprises a sensor (303) configured to sense a safety variable of the airside dolly and an output (301) in communication with the sensor (303). The output (303) is configured to provide a status signal in dependence on the sensed safety variable of the airside dolly (200).

A method and a trolley for facilitating a passenger's way through an airport terminal, and improved methods for boarding aircrafts. The trolley may include an interface, such as a boarding card reader, for receiving information identifying the passenger and/or the passenger's flight. Mobile wireless communication means may be provided at the trolley for receiving airport information data, such as flight departure gate, delay or cancellation information, from a computer network within an airport terminal. Data output means are provided to communicate information to the passenger. The trolley may be X-ray compliant. A communication interface may be provided at the trolley for communicating with a portable device, such as a smartphone or equivalent means of the passenger. Individually selected information based on passenger identity, destination, position or past collection of passenger behavior may be disseminated to passengers on an individual basis. Passengers may be allowed to pass a gate for aircraft boarding only when called in accordance with a predetermined boarding sequence on the basis of, e.g., seat number or seat row.

Vertical takeoff and landing vehicles (VTOLs) of the type used for the point-to-point delivery and transport of payloads (e.g., packages, equipment, etc.) and personnel, are significantly stabilized at least during takeoff and landing with present aspects significantly ameliorating or significantly eliminating destabilizing effects, including ground effect, during VTOL takeoff and/or landing. VTOL performance is further improved through the use of increased lift pressure and battery charging during takeoff

An airborne wind turbine system is provided including an aerial vehicle having a fuselage, an electrically conductive tether having a first end secured to the aerial vehicle and a second end secured to a rotatable drum positioned on a tower onto which the tether is wrapped when the aerial vehicle is reeled in, a perch extending from the tower, one or more perch booms attached to the perch panel and pivotably mounted to the tower, wherein when the aerial vehicle is secured to the perch, the aerial vehicle is positionable in a lowered parked position, and wherein the aerial vehicle is movable to a raised parked position caused by rotation of the one or more perch booms with respect to the tower.

A mechanical sweeping mechanism removably affixed to existing ground service equipment (GSE) for the collection and removal of foreign object debris (FOD) in a removable hopper. Movement of a GSE vehicle rotates the independently suspended drive wheels, transmitted by gears/pulleys and chain/belts to power a cylindrical bristle, spinning in the opposite direction of travel, to collect and funnel FOD via a ramp into a removable hopper. Bristle height is adjustable. At least one magnet and skid plate remove metallic FOD.

A mechanical sweeping mechanism removably affixed to existing ground service equipment (GSE) for the collection and removal of foreign object debris (FOD) in a removable hopper. Movement of a GSE vehicle rotates the independently suspended drive wheels, transmitted by gears/pulleys and chain/belts to power a cylindrical bristle, spinning in the opposite direction of travel, to collect and funnel FOD via a ramp into a removable hopper. Bristle height is adjustable. At least one magnet and skid plate remove metallic FOD.

A system and method is provided for improving efficiency of aircraft gate services and reducing time spent by an aircraft parked parallel to an airport terminal wherein aircraft utilities and gate services provided during turnaround are supported by an arrangement of flexibly movable, service and utility-carrying extendable passenger boarding bridges that enable passenger and baggage exchange concurrently with connection of utilities and provision of gate services to the aircraft. Baggage transfer is facilitated by conveyors mounted on one or more loading bridges and designed to provide a direct connection between an aircraft and a terminal. Aircraft are maneuvered by a pilot into and out of a parallel parking location in a forward direction by an engines-off electric taxi system, enabling loading bridge, utility, and service connections to be made to multiple aircraft doors as soon as the aircraft reaches a parking location and then quickly disconnected upon departure.

To allow acquisition of information corresponding to running conditions of a vehicle and presentation of the information to a passenger. A vehicle surroundings monitoring apparatus acquires information on vehicle surroundings while floating a floating body equipped with a sensor including at least an image-taking apparatus in the vehicle surroundings and presents the information to a passenger. The vehicle surroundings monitoring apparatus includes processing means for controlling at least one of a method for acquiring the information on the vehicle surroundings and a method for presenting the information to a passenger in accordance with running conditions of a vehicle.

Disclosed herein is a drone landing system. The drone landing system can provide precise landing guidance for drones through detection of X/Y distances and a Z distance of a drone from a center point of a station using an X/Y-axis camera and a Z-axis camera disposed on the station and through automatic or manual control over the drone using a controller.