A gripping system for securing a work piece includes a clamp device, a rotary actuator, and a control circuit. The clamp device includes a ball screw mechanism and a jaw portion that has multiple grip fingers. The ball screw mechanism includes a shaft and a holder assembly. The shaft extends through the holder assembly and is configured for displacement along a central axis of the jaw portion. A distal tip of the shaft engages the grip fingers. The control circuit controls the rotary actuator to drive rotation of the shaft relative to the holder assembly, causing displacement of the shaft along the central axis. The displacement of the shaft causes the distal tip of the shaft to force the grip fingers to move in a radial direction away from the central axis to provide a clamp force on the work piece.

This present invention utilizes a shape memory alloy (SMA) to improve on prior art in the design of clamps used for shut off, squeeze off, of plastic pipe which transmits gas or fluid under pressure. More particularly, but not exclusively, the present invention incorporates SMAs as actuators to simplify and improve clamp design for squeeze off of plastic pipe that is used in the transmission of pressurized gas and fluid. This invention may be deployed and operated remotely by the user. This present invention relates specifically to the application of trained SMA tubes, rods, bars, and beams as actuators for clamping and squeeze off of plastic pipe and tubing used to transmit gas or fluid.

a medical fastening device for an electromagnetic sensor with a clamping element and with a sensor mount and to a medical device with such a fastening device, with an electromagnetic sensor and with a medical instrument. The clamping element has a counterpiece and a pressing piece movable relative to the clamping element, wherein the counterpiece has a lateral opening, which frees a free mounting area, which is itself at least partially enclosed by the counterpiece in a frame-like manner. The counterpiece has a depression, which points towards the mounting area and is arranged opposite the pressing piece, wherein the counterpiece is provided with an opening arranged opposite the depression. The pressing piece is movable in the opening in the direction of the depression of the counterpiece.

A clamping assembly includes a body defining a retaining area and at least one coupling element. The body further includes a first leg having an adjustable engagement member and a second leg positioned at an angle less than 90° relative to a horizontal axis. The clamping assembly further includes a rod having a first end coupled to the at least one coupling element of the body. The rod is operative to drive the body in a direction toward the first leg in response to a force directed toward a second end of the rod.

A box clamp comprising a frame member, a clamping screw passing through a portion of the frame member, a nut plate mounted on the clamping screw and movable along the clamping screw when the clamping screw is rotated, and a rocker clamp movably coupled to the frame wherein the nut plate acts on the rocker clamp to raise and extend the rocker clamp from a stowed orientation to a deployed orientation upon rotation of the clamping screw.

A locking assembly for locking a portable electronic device to a work surface. The locking assembly comprises a clamp assembly including an elongated bar that extends between a first end and a second end. The clamp assembly further includes a first jaw and a second jaw movable along the elongated bar for clamping to a work surface between the first and second jaws. A connector extends from a first connector end that is pivotally connected to the locking assembly to a second end that can be connected to the portable electronic device. The connector securing the portable electronic device to the work surface while permitting it to pivot with respect to the locking assembly.

The present disclosure is related to a hold-down for a cable tray. The hold-down may be configured for high-wind situations. The hold-down includes a support clamp for clamping onto a support, and a hold-down arm for holding the cable tray on the support.

The present disclosure is related to a hold-down for a cable tray. The hold-down may be configured for high-wind situations. The hold-down includes a support clamp for clamping onto a support, and a hold-down arm for holding the cable tray on the support.

The present disclosure relates generally to a bi-directional clamp system and method of use. More particularly, a bi-directional clamp with two clamp bars and two clamping assemblies are described herein. The clamp assemblies have a plurality of arms freely movable in response to a material load is described herein.

A modular clamp is described. An example modular clamp includes a clamp assembly and a removable base member. The modular clamp includes multiple rotational aspects located an offset distance from one another and is thus usable to secure workpieces in a variety of positions and orientations while providing access for working thereon. The modular clamp further can be used in a variety of configurations and implementations to achieve a range of different working applications, which is not possible using conventional table clamps.