An assembly includes an attachment arm having an axle extending from a first end of the attachment arm. The attachment arm of the detachable wheel assembly further includes a securing portion forming a second end of the attachment arm, the securing portion of the attachment arm including a pin positioned to extend above a first frame member of a gantry truss and to secure the first frame member between the pin and a portion of the attachment arm. The attachment arm also includes a frame support corresponding to a second frame member of the gantry truss such that the frame support supports the second frame member when the assembly is secured to the gantry truss, and the assembly includes a wheel rotatably attached to the axle of the attachment arm.

A parallel link apparatus includes: a base section; three or more deployment sections that extend radially from the base section and that are pivotable with end parts coupled to the base section being pivot axes; arm sections that are coupled to end parts, of the respective deployment sections, that are on opposite sides of the end parts coupled to the base section, and are pivotable with respect to the deployment sections and expandable and contractible in one direction independently of each other; and a movable section coupled to each of second ends, of the arm sections, that are on opposite sides of first ends, of the arm sections, coupled to the deployment sections.

In some embodiments, a computer peripheral mounting device for connecting a peripheral device to a support, wherein the support defines a thickness, comprises a fixed tubing extending in a longitudinal direction; a clamp coupled to a first end of the fixed tubing; an adjustment mechanism positioned at a second end of the fixed tubing, opposite the first end, and a shaft positioned within the fixed tubing and coupled between the adjustment mechanism and the clamp, wherein the adjustment mechanism is configured to rotate around the longitudinal direction relative to the fixed tubing in order to rotate the shaft within the fixed tubing and without the adjustment mechanism nor the shaft translating along the longitudinal direction relative to the fixed tubing, and wherein rotation of the shaft is configured to cause the distance between the first surface and the second surface to change.

A track mounted workstation assembly is disclosed having a housing including a track and one or more communication or electrical or communication ports, and one or more roller mount assemblies further including a sliding carriage configured to slide along the track. In addition, the mounts may further include wiring and cables configured to communicate with the communication or electrical ports of the track housing at either ends. In addition, the mounts may further include one or more receiving members for receiving one or more articulating arms for monitors, peripherals, and other equipment.

The present disclosure provides an attachable external display screen for use on electronic devices. The display screen may be removably mounted onto a surface of an electronic device to provide the user with an additional display screen. The attachable display screen may utilize a dual sliding mechanism that allows for the display screen to slide out to different lengths relative to the screen of the electronic device. The attachable display screen may also utilize a torque hinge to pivotally couple the display screen to a frame that mounts onto the electronic device. The attachable display screen is rotatable about both the horizontal and vertical axes, which allows a user to tilt and adjust the angle of the display screen.

A mounting assembly includes a mounting block. A first shaft is supported by the mounting block and movable about a first rotational axis and a first extension axis with respect to the mounting block. A second shaft is coupled to the first shaft and movable about a second rotational axis.

An adjustable mount for mounting a component subjected to dynamically-varying loads decouples position adjustment of one axis from position adjustment along the other. The mount includes a frame between base and top plates. The frame has apertures for receiving positioners. The positioners abut sides that extend inward from the plates and into the frame. Actuating a positioners causes it to push its corresponding side. This causes relative motion between the frame and the positioner's corresponding plate. Movement interfaces guide these movements during adjustment and locking interfaces lock the frame and the corresponding plate into position after completion of adjustment.

An exercise apparatus comprises an exercise apparatus body and an image display connected to a front portion of a frame of the exercise apparatus body. The image display can be moved between a first position and at least one second position via a connecting component. When the image display is located at the first position, a display surface of the image display basically faces substantially rearward, and the center point of the display surface is located in the region of the width in the transverse direction of the exercise apparatus body for a user viewing an image to perform a first exercise by using the exercise apparatus in a first exercise area; and when the image display device is located at the second position, the display surface faces substantially rearward, and the center point of the display surface is located outside the region of the width in the transverse direction of the exercise apparatus body for a user viewing the image to perform a second exercise in a second exercise area which is outside the first exercise area.

A tool changing system with rigidity improved belt moving mechanism includes a pedestal, a sliding base, a driving unit, a positioning belt, and a transmission belt. The sliding base is disposed on the pedestal, and reciprocatively moves along a linear direction. The driving unit is disposed on the sliding base. The positioning belt and the transmission belt are disposed on the pedestal and include a gear rack, respectively. A detouring section of the transmission belt is separated from the positioning belt, and transmissibly meshed with the driving wheel of the driving unit. When the driving wheel rotates, the detouring section is driven to continuously shift on the transmission belt, and the sliding base is simultaneously driven to slide on the pedestal along the linear direction. Thus, a combination of the positioning belt and the transmission belt achieves an improved rigidity.

An orbital camera system has at least two extensions that extend from a hub to rotate a camera about a hub in a balanced and low vibration manner. In addition, the exemplary orbital camera system is versatile in configuration having extensions with hinges to allow variations in the configuration. The hub may be powered by a motor that provides smooth rotation even at low speeds. The hub is coupled to a down rod and the motor may be detachably attached to the down rod. A counterweight may be a battery or a battery station that enables detachable attachment of a battery thereto. An illumination light is coupled to the hub to provide uniform light over the imaging area. A focal element and/or a centering light emitter may be configured along the rotational axis for aid in placing an object to be imaged.