Abstract: As described and shown, a handle adapter for manipulating an orthopedic tool optionally including a frame optionally having a receptacle, a first slot, a second slot a coupling assembly and an actuation assembly. The frame having a proximal end portion and a distal end portion. The distal end portion optionally including the receptacle, the first slot, the second slot, the coupling assembly and the actuation assembly. The receptacle configured to receive a trunnion of the orthopedic tool. The first slot communicating with the receptacle. The first slot can be partially formed by a first ramp and a second ramp. The second slot spaced from the first slot. The coupling assembly received by the first slot and the second slot. The coupling assembly translates within the first slot and the second slot. The actuation assembly coupled to the coupling assembly and configured to drive the coupling assembly into engagement with the trunnion.

Abstract: A reamer adapter may include a main body having a recess and a plurality of slots communicating with the recess. The reamer adapter may include at least a first spring coupled to the main body and positioned in one of the plurality of slots. The first spring can be configured to engage a cross-member of a reamer head and force the cross-member to engage with a part of the main body that forms the one of the plurality of slots.

Abstract: Disclosed herein are rasp adapters, rasp systems, and method of use thereof. The rasp adapter can include a body and a retention element. The body can define a body cavity, a handle opening, and a trunnion bore. The retention element can be located within the body cavity and can include a knuckle and a heal. The knuckle can be located proximate to and movable into and out of the trunnion bore. The heal can be located proximate the handle opening. Movement of the retention element due to a force applied to the heal can cause movement of the retention element and movement of the knuckle into the trunnion bore.

Abstract: Disclosed herein are rasp adapters, rasp systems, and method of use thereof. The rasp adapter can include a body and a retention element. The body can define a body cavity, a handle opening, and a trunnion bore. The retention element can be located within the body cavity and can include a knuckle and a heal. The knuckle can be located proximate to and movable into and out of the trunnion bore. The heal can be located proximate the handle opening. Movement of the retention element due to a force applied to the heal can cause movement of the retention element and movement of the knuckle into the trunnion bore.

Abstract: Disclosed herein are rasp adapters, rasp systems, and method of use thereof. The rasp adapter can include a body and a retention element. The body can define a body cavity, a handle opening, and a trunnion bore. The retention element can be located within the body cavity and can include a knuckle and a heal. The knuckle can be located proximate to and movable into and out of the trunnion bore. The heal can be located proximate the handle opening. Movement of the retention element due to a force applied to the heal can cause movement of the retention element and movement of the knuckle into the trunnion bore.

Abstract: Disclosed herein are a system and method for attaching an implant, such as an acetabular cup, to an adapter connector without requiring rotation of the connector or the implant, to allow for easy connection, manipulation, and insertion of the implant into a patient. An adapter connector or adapter inserter can include a collet and a collet spreader. The collet can include an exterior surface and an interior surface. The exterior surface can define a protuberance sized to engage an indentation in an adapter. The interior surface can define a collet cavity. The collet spreader can be located at least partially within the collet cavity. The collet spreader can include a flared surface and an engagement surface. The flared surface can be located at a first end of the collet spreader and arranged to engage the interior surface of the collet so as to cause the collet to expand.

Abstract: A vehicle-mounted access system includes a fixed base structure including a plurality of track channels; a plurality of movable hinge carriages configured to move along the plurality of track channels; an inclinable access structure pivotably connected to the movable hinge points and connected to lifting masts by forward tension elements, lifting masts connected to the fixed base structure by rear tension elements and pivotably connected to the fixed base structure; an actuator connected between the movable hinge carriages and the fixed base structure, the actuator configured to move the movable hinge carriages to raise the distal end of the inclinable access structure via the forward tension elements, the lifting mast, and the rear tension elements.

Abstract: Disclosed herein are a system and method for attaching an implant, such as an acetabular cup, to an adapter connector without requiring rotation of the connector or the implant, to allow for easy connection, manipulation, and insertion of the implant into a patient. An adapter connector or adapter inserter can include a collet and a collet spreader. The collet can include an exterior surface and an interior surface. The exterior surface can define a protuberance sized to engage an indentation in an adapter. The interior surface can define a collet cavity. The collet spreader can be located at least partially within the collet cavity. The collet spreader can include a flared surface and an engagement surface. The flared surface can be located at a first end of the collet spreader and arranged to engage the interior surface of the collet so as to cause the collet to expand.

Abstract: An in-flight charging system includes a first electric air vehicle, a second electric air vehicle, an elevated power supply system (EPSS) and a flexible tension member coupled to the first electric air vehicle and coupled to the second electric air vehicle. The flexible tension member provides power from the second electric vehicle to the first electric vehicle. The EPSS further includes one or more current carrying conductors, wherein the second electric air vehicle travels along the one or more current carrying conductors and receives power transferred from the one or more current carrying conductors.

Abstract: A vehicle-mounted access system includes a fixed base structure including a plurality of track channels; a plurality of movable hinge carriages configured to move along the plurality of track channels; an inclinable access structure pivotably connected to the movable hinge points and connected to lifting masts by forward tension elements, lifting masts connected to the fixed base structure by rear tension elements and pivotably connected to the fixed base structure; an actuator connected between the movable hinge carriages and the fixed base structure, the actuator configured to move the movable hinge carriages to raise the distal end of the inclinable access structure via the forward tension elements, the lifting mast, and the rear tension elements.

Abstract: An in-flight charging system includes a first electric air vehicle, a second electric air vehicle, an elevated power supply system (EPSS) and a flexible tension member coupled to the first electric air vehicle and coupled to the second electric air vehicle. The flexible tension member provides power from the second electric vehicle to the first electric vehicle. The EPSS further includes one or more current carrying conductors, wherein the second electric air vehicle travels along the one or more current carrying conductors and receives power transferred from the one or more current carrying conductors.