A hinge is coupled to a first component and a second component. The hinge supports the second component for movement relative to the first component between a closed position covering an opening through the first component and an opened position displaced from the opening. The hinge includes a first bracket coupled to the second component, a second bracket coupled to the first component, a support link coupled to the first and second brackets, and a control link coupled to the first and second brackets. Rotation of the support link relative to the first bracket causes rotation of the first component relative to the second component and relative to the support link.

A gooseneck hinge assembly includes a first gooseneck hinge portion having a first portion first end coupled to a first surface, a first portion second end having a first portion aperture to receive a pin, and a first gooseneck curve between the first portion first end and the first portion second end. The assembly further includes a second gooseneck hinge portion being a mirror image of the first hinge portion and having a second portion first end coupled to the first surface, a second portion second end having a second portion aperture to receive the pin, and a second gooseneck curve between the second portion first end and the second portion second end. The assembly further includes the pin coupled to a second surface and to extend through the first portion aperture and the second portion aperture to facilitate rotation of the second surface relative to the first surface.

The disclosure provides a bonnet hinge structure. The bonnet hinge structure pivotally supports the bonnet to the vehicle body from the rear end of the bonnet, and includes: a lower hinge member fixed to the vehicle body; an upper hinge member fixed to the bonnet fixing portion of the bonnet, and pivotally connected to the lower hinge member in a manner of being able to rotate to a first height relative to the lower hinge member in the up-down direction of the vehicle body; and a rotation suppressing portion provided with a deviation restricting member. When the upper hinge member is deformed in the left-right direction of the vehicle body, the deviation restricting member comes into contact with the upper hinge member at a position of the second height lower than the first height from the top of the upper hinge member, and prevents the upper hinge member from rotating.

A hinge cover assembly (10) for a hinge having an elongate hinge arm has first and second cover members (20, 22) mountable about the hinge arm so as to completely encircle the hinge arm over at least part of its length. The first cover member (20) has a channel portion (24) which surrounds the arm on three sides and the second cover member (22) is mountable to the first enclose the arm on the other side. The first cover member (20) has locking projections (46) on the inner surface of a side wall that engage in apertures in the hinge arm. The cover assembly (10) is particularly suited for use with a swan neck hinged used to mount a boot lid to a vehicle body. A housing portion (32) of the first cover member encapsulates a mounting structure of the hinge and may have a clip formation for clamping an edge region of a trim panel mounted to the boot lid.

Locking hinge apparatus for aircraft doors are disclosed. An example locking hinge apparatus includes a hinge base to couple to a frame of an aircraft. A hinge gooseneck is to pivotally couple a door to the hinge base. The hinge gooseneck is to allow the door to move between a closed position and an open position relative to the frame. A lever is pivotally coupled to the hinge base. The lever is to pivot relative to the hinge base between a first rotational direction and a second rotational direction opposite the first rotational direction. The lever includes a lock to engage a portion of the hinge gooseneck to prevent rotational movement of the door relative to the frame when the door is in the open position. A biasing element is to urge the lever in the first rotational direction.

An apparatus for automatically opening and closing a trunk lid includes an actuator having a first end configured to be coupled to a vehicle body and a second end configured to be coupled to a hinge arm coupled to the trunk lid, a closing trigger link having a first end rotatably coupled to the actuator, an opening trigger link rotatably coupled to the closing trigger link, a spring assembling pin having a first end coupled to the closing trigger link and the opening trigger link, and a spring having a first end coupled to a second end of the spring assembling pin, and a second end configured to be coupled to the vehicle body or a panel configured to be mounted on the vehicle body.

A power trunk device includes a hinge arm coupled to a trunk lid and configured to be rotatably coupled to a vehicle body panel to define a trunk space, the hinge arm being configured to open and close the trunk lid, a torsion bar link rotatably coupled to a middle of the hinge arm, a torsion bar connected between the torsion bar link and the vehicle body panel in front of the hinge arm, the torsion bar being configured to provide elastic force in a direction in which the trunk lid is opened, and an electric drive unit connected between the hinge arm and the torsion bar, the electric drive unit being configured to be moved together with the hinge arm while providing rotational force to the hinge arm.

The disclosure provides a bonnet hinge structure. The bonnet hinge structure pivotally supports the bonnet to the vehicle body from the rear end of the bonnet, and includes: a lower hinge member fixed to the vehicle body; an upper hinge member fixed to the bonnet fixing portion of the bonnet, and pivotally connected to the lower hinge member in a manner of being able to rotate to a first height relative to the lower hinge member in the up-down direction of the vehicle body; and a rotation suppressing portion provided with a deviation restricting member. When the upper hinge member is deformed in the left-right direction of the vehicle body, the deviation restricting member comes into contact with the upper hinge member at a position of the second height lower than the first height from the top of the upper hinge member, and prevents the upper hinge member from rotating.

The present disclosure provides an aircraft door system including an aircraft door configured to translate from a closed position to an open position. The aircraft door system further includes a plurality of door pressure stops positioned along a length of the aircraft door and a handle coupled to the aircraft door. A rotation of the handle causes a first translation of the aircraft door in an inward direction and a forward direction. The aircraft door system further includes a hinge system coupled to the aircraft door. An outward force applied to the aircraft door causes a second translation of the aircraft door in an outward direction and a forward direction. The hinge system causes the aircraft door to translate such that the aircraft door remains parallel to the aircraft fuselage throughout an entirety of the second translation until the aircraft door reaches the open position.

Disclosed is a hinge assembly for rotatably mounting a trunk lid to a vehicle body. The hinge assembly for a trunk lid of a vehicle, includes a hinge arm configured to be coupled to the trunk lid, a hinge bracket configured to be coupled to a vehicle body and having a hinge shaft, the hinge arm being rotatably coupled to the hinge bracket, a torsion bar configured to be coupled to the hinge arm and to provide an elastic force to the hinge arm in an opening direction, and a cushion assembly provided at one end of the hinge arm adjacent to the hinge shaft and configured to adjust a rotation speed of the hinge arm in response to the elastic force of the torsion bar.