A stand device includes a base block, a first stand plate, a second stand plate, a third stand plate, a first hinge device that connects the first stand plate to the base block, a second hinge device that connects the first stand plate and the second stand plate, a third hinge device that connects the second stand plate and the third stand plate, and a fourth hinge device that connects the third stand plate to the base block. The stand device is configured so that the rotation axis of the third hinge device is located on an extension of the rotation axis of the first hinge device and the rotation axis of the fourth hinge device is located on an extension of the rotation axis of the second hinge device.

Disclosed herein is a bracket for mounting a tablet shaped device.

One variation of a mobile tripod includes a device case, including a first set of magnetic elements, and a tripod including: a mounting plate defining a leg receptacle and an aperture; a second set of magnetic elements arranged about the leg receptacle and configured to couple to the first set of magnetic elements to retain the mounting plate against the device case; a set of socket sections coupled to the mounting plate, arranged within the aperture, and defining a socket; a leg assembly configured to seat within the leg receptacle in a retracted position and deploy outward from the exterior face of the device case to mount to a base surface in a deployed position; a spherical end, coupled to the leg assembly, and configured to rotate within the socket, encapsulated by the set of socket sections, to pivot the leg assembly between the retracted position and the deployed position.

An installation base includes a main body and a release member. The main body includes a first surface and a second surface on two opposite sides. The first surface is provided with a magnet piece. The release member is arranged on a second surface of the main body, and includes a pressing part, a pivoting part and an operating part. The pivoting part is pivotally connected to the main body in a first direction. The pressing part extends from the pivoting part in a second direction perpendicular to the first direction and protrudes from the main body, and a length of the pressing part in the second direction is greater than a thickness from the first surface to the second surface of the main body. The operating part extends from the pivoting part in the second direction toward a direction opposite to the pressing part.

An assembly for mated dual support stands is presented. The assembly comprises two support stands. Each support stand includes three or more legs operable between a closed conformation and an open conformation, such that in the closed conformation, the two support stands reversibly mate with each other. A support interface is positioned opposite the legs so that the support interface is reversibly attachable to an elongated tube via attachment components. A center adaptor is positioned connected to the support interface on one end and the three or more legs on the opposite end. The center adaptor and support interface are rotatably coupled.

A nail plate driving system for safely and efficiently installing nail plates at various heights. A first handle having an engaging head removably receives a second handle having a magnet. The magnet of the second handle is configured to magnetically secure a metal nail plate to allow a user to position the nail plate in a desired location on a wood member to be striked by the engaging head of the first handle. After the nail plate is secured to the wood member the magnet is removed from the nail plate and the process is repeated with the next nail plate. When not in use, the second handle may be secured within the first handle.

Control rod drives include linearly-moveable control elements inside an isolation barrier. Control rod drives move the control element through a motor and rotor powering a linear screw internal to an isolation barrier. Induction coils may generate magnetic fields and be moveable across a full stroke length of the control element in the reactor. The magnetic fields hold closed a releasable latch to disconnect the control elements from the linear drives. A control rod assembly may join to the control element. The control rod assembly may lock with magnetic overtravel latches inside the isolation barrier to maintain an overtravel position. Overtravel release coils outside the isolation barrier may release the latches to leave the overtravel position. Operation includes moving the magnetic fields and releasable latch together on opposite sides of an isolation barrier to drive the control element to desired insertion points, including full insertion by gravity following de-energization.

A mobile device case apparatus and method are provided that include a frame, a stand, at least one magnet, and rubber coating over the at least one magnet. The frame and stand can be 3D-printed. The frame is configured to secure a mobile device into the frame. The frame includes at least one magnet. The bottom of the stand can have a rubber coating to prevent the case from slipping when the case adheres to a metal. The stand is configured to support the weight of the apparatus and prop the mobile device up for viewing. The stand can also be configured to be a receive a mechanical element of a vehicle such as a wheelchair.

A mounting device includes an internal member and an external member. The internal member includes first magnets disposed in an inner face of the internal member, a shock cavity formed in the inner face of the internal member, and an insert disposed in the shock cavity. The external member is removably coupled to the internal member. The external member includes second magnets disposed in an inner face of the external member. The second magnets are rotatable between a locking position and a release position. The external member also includes a shock ridge formed in the inner face of the external member. The shock ridge is received into the shock cavity and compresses the insert such that impact is dampened during coupling of the internal member to the external member.

A number of magnetically assisted latch mechanisms are presented, where the latching and unlatching action is done with reduced user effort, therefore promoting speed and efficiency without sacrificing the strength of the bond of the connected components. The latching mechanisms are designed to secure panels or other similar small and large mostly flat components. The latching method is done by a rotating component that takes all the separating load once rotated into the locked position. The rotatable lock, or hammer, is also locked itself into position to prevent accidental movement by the hammer.