A monitor support assembly comprising a base designed to rest on an ambient floor surface, the base having a rear end, an upright frame structure mounted to and extending vertically upward from the base spaced forward of the rear end, the frame structure including first and second vertical members and at least a top frame member that extends horizontally between the first and second vertical members, a shroud assembly mounted to the upright frame structure including at least a first central wall member and first and second additional wall members, the first and second additional wall members extending from the first and second lateral edges in the same direction, the first central wall member and the additional wall members forming a receiving space, and a mounting plate mountable to the rear surface of a displays screen and releasably supported by the upright frame structure within the receiving space wherein a depth dimension of the receiving space is sufficient to accommodate a display screen mounted therein via the mounting plate.

A device stand may include a base having a support portion and a connector portion. An upper surface of the connector portion may include at least one coupling mechanism that is configured to engage with a corresponding feature of a keyboard housing to secure the base with the keyboard housing. The device stand may include a first support member coupled with the support portion. The device stand may include a second support member coupled with the support portion and laterally spaced apart from the first support member to form a channel between the first support member and the second support member. The channel may be sized to receive a computing device.

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 box stand has an upper chamber with an upper chamber hollow. The upper chamber is hollow having a first upper chamber face and a second upper chamber face as well as an upper chamber front face and a pair of upper chamber side faces. A lower chamber has a lower chamber hollow. The lower chamber has a closed position and an open position. The lower chamber is at least partially detached from the upper chamber in the open position. The lower chamber is rigidly attached to the upper chamber in the closed position. The lower chamber hollow has a pair of lower chamber side faces as well as a lower chamber front face. A first side interface is formed between the upper chamber and the lower chamber.

A device for assisting individuals having impaired motor skill to actuate a selectable region of touch screen input of a portable computing device. The touch screen is secured in a housing, which includes an operator hand support structure. The hand support include a member for placement of the palm of the operator and allowing the palm to move the hand support structure to a selectable one of a plurality of regions of the touch screen and pivot downwardly to assist the operator to touch activate the touch screen input at the selected region. The device further includes a faceplate, which is positionable over the touch screen and has openings corresponding to the input regions of the touch screen input without interfering with the movement of the hand support. The sidewalls of the faceplate are of sufficient height to assist the operator's actuation of the intended region of the touch screen and inhibiting the operator from unintentional actuation of an adjacent region. The housing still further includes tabletop support for positioning the touch screen input at one of a plurality of selectable angles to facilitate ease of operation. The tabletop support can be repositioned to enclose the touch screen input.

Ultraportable support (A, B, B, C, D, E), comprising at least two feet (2) attached by means of hinges (3) allowing rotation of said feet (2), a locking system (5) of the hinges (3) allowing to maintain the feet (2) into different angular positions, the support further comprises at least two straps (4) whose width is substantially constant over the entire length, each of the straps (4) being attached to the two opposed feet (2) at a location of the foot distant from the hinges (3).

Disclosed is a support frame, comprising: a base plate for supporting the support frame; a connecting plate for attaching to and fixing the base plate; a back plate, wherein a first bending part is provided between the back plate and the connecting plate; a support plate, wherein a second bending part is provided between the support plate and the back plate, a third bending part is provided between the support plate and the base plate, and the first, second and third bending parts are parallel; and when the support frame is bent and deformed through the first, second and third bending parts, the support plate and the back plate are erected, the connecting plate is attached and connected to the base plate, and an included angle is formed between the support plate and the back plate. A support assembly is further disclosed.

A motorized desktop stand unit having a main surface assembly designed to accommodate a monitor or laptop and a secondary surface assembly designed to accommodate a keyboard. The desktop stand unit also has a frame assembly having an upper frame and a lower frame. An elevation mechanism is provided between the upper frame and lower frame. A switch provided in the main surface assembly, when actuated, causes the elevation mechanism to adjust the space between the upper frame and lower frames, changing the height of the main surface assembly.

A lift structure with adjustment assistance optimized based on ergonomics includes a top, a base, an X-shaped cross arm and a gas spring, wherein the X-shaped cross arm includes a first directional arm and a second directional arm; wherein one end of the gas spring rotates around a second rotating shaft fixed relative to the first directional arm, and the other end rotates around a third rotating shaft fixed relative to the second directional arm, and the first, second and third rotating axes being parallel with each other; and wherein at the reference height, in a plane where an axis of the gas spring is located and is perpendicular to the respective rotating axes, the axis of the gas spring is tangent to a circumference centered on the first rotating shaft and having a set radius, with a tangent point being located on the second rotating shaft.

Stands for collapsible work stands and related methods are described. In some implementations, a stand may be configured to support electronics for a user, featuring a base structure designed to rest on a generally horizontal surface. The stand may include a pair of stanchions, each with a proximate end secured by the base and extending upward to a distal end, with the first stanchion tilting away from the user and the second stanchion being generally parallel to the first. A first platform may be provided to hold electronics, with a height adjustment mechanism allowing the platform's horizontal position to be adjusted along the stanchions. A second platform with its own height adjustment mechanism may be configured to hold additional electronics. Both platforms' positions may be adjustable between the proximate and distal ends of the stanchions, providing a versatile and user-friendly work stand.