A load balancing arm for a medical device support system. The load balancing arm includes a proximal hub, an adjustable bearing element, a support arm, a spring and a link. A distal end of the support arm is configured to support a medical device load and a proximal end is pivotably mounted to a main bearing element for pivotable movement about a main pivot axis. The spring extends within a cavity of the support arm and is mounted to exert a biasing force between the main pivot axis and a distal end of the spring. The link has a proximal end pivotably mounted to the adjustable bearing element for pivotable movement about an adjustable pivot axis, and a distal end pivotably mounted to the distal end of the spring such that the biasing force exerted by the spring is transmitted through the link to the adjustable bearing element.

A system for protecting cables and lines is provided. The system includes a telescopic C-arm and a cable carrier. The telescopic C-arm includes an outer C-arm, an inner C-arm, an outer carriage, and an inner carriage. The outer C-arm, on an outer surface of the outer C-arm, is arranged in a displaceable manner along the outer carriage. The inner C-arm, on an outer surface of the inner C-arm, is arranged in a fixed or displaceable manner on the inner carriage. The inner carriage is arranged in a displaceable manner along an inner surface of the outer C-arm. The cable carrier connects the outer carriage and the inner carriage. The cable carrier accommodates the cables and the lines and is configured to move freely between the outer C-arm and the inner C-arm.

A motor and a gimbal having the same. The motor includes a stator and a rotor, and further includes a connection shaft. The rotor is fixedly connected with the connection shaft, the connection shaft is rotatably connected with the stator through a bearing, and the connection shaft is provided in an axial direction thereof with a central through hole. The present disclosure further discloses a gimbal using the motor described above. In an embodiment, it is able to avoid the problem that a signal wire is wound and exposed outside the motor or the gimbal, solve the problem that the signal wire could be released or rewound with the positive or negative rotation of the motor, and reduce the length of the wire.

A wall mount module includes a first bracket, a second bracket, a first cover, a second cover, a first conducting member, a second conducting member and a power cable. The first bracket has a first hole formed thereon and the second bracket has a second hole formed thereon. The first cover is disposed on the first bracket and the second cover is disposed on the second bracket. The first conducting member is disposed between the first cover and the first bracket and exposed through the first hole. The second conducting member is disposed between the second cover and the second bracket and exposed through the second hole. The power cable is connected to the first conducting member and the second conducting member.

A display apparatus with decreased thickness for displaying images includes a frame, a display panel received in the frame, a circuit module, and at least one fixing portion. The display panel displays images. The circuit module is outside of the frame, and provides signals and voltages to the display panel for driving the display module to display the images. The at least one fixing portion is used for fixing the circuit module on a surface of the frame away from the display panel. The circuit module is rotatably inserted into the at least one fixing portion.

The present disclosure relates generally to universal pole mounting brackets for mounting telecommunications enclosures used in fiber optic distribution systems. The pole mounting brackets are adapted to mount telecommunications enclosures to a structure, such as, a post. A pole mounting bracket can include a central support section that includes a first end and an opposite, second end. The central support section can be elongated along a longitudinal axis between the first end and the second end. The pole mounting bracket can also include a first lateral support member transversely aligned relative to the central support section and a second lateral support member transversely aligned relative to the central support section. The first and second lateral support members can each define a plurality of apertures for receiving mounting structures adapted to operatively connect at least two different types of enclosures to the first and second lateral support members.

A mounting assembly includes a base; a post extending from the base, the post defining a vertical axis; a beam mounted on the post and being pivotable about the vertical axis, the beam comprising a first portion extending in a first horizontal direction and terminating in a first end, and a second portion extending in a second horizontal direction opposite of the first direction and terminating in a second end; an equipment mounting bracket at the first end; a latch along the beam and having an engaged position and release position, wherein in the engaged position the latch prevents the beam from pivoting; and a latch release along the second portion of the beam. A method of accessing equipment mounted on the mounting assembly includes actuating the latch release such that the latch moves from the engaged position to the release position; and rotating the beam about the vertical axis.

The invention is an articulated funnel holder and a method, the articulated funnel holder comprising a magnetic tray supporting a J-shaped support arm that attaches at one end to the magnetic tray and at another end to a pivoting device, the pivoting device further connects to one mast end of telescopic mast to move the telescopic mast between raised and lowered positions relative to the magnetic tray, a remaining mast end removably supports a funnel ring that removably receives and supports a funnel, wherein the articulated funnel holder moves between an open operative position and compact storage position; wherein articulated funnel holder in the compact storage position places the telescopic mast and the one or more funnel rings within a storage area as defined by edges of the magnetic tray.

Disclosed is a holding device having a support base for holding an electric device and a driving member for driving the support base. Upon mounting the electronic device on the holding device, the holding device has at least two stable states, and the holding device stores a preset time duration for transitioning from the first stable state to the second stable state. The holding device further includes a control circuit, which, in response to a time during which the holding device transitions from the first stable state to the second stable state exceeds the preset time duration, controls the driving member to stop or reduce a power output.

A spring clutch arm assembly includes a moveable arm comprising a retracted configuration and a deployed configuration, a fixed shaft, and a spring portion comprising a moving portion with a distal end and a coil portion wrapped around the fixed shaft. The moveable arm may include a moveable member. The distal end may be attached to the moveable member. The moveable arm may be held in the deployed configuration by the spring portion.