Abstract: Provided is a method for inspecting at least a portion of a downhole conveyance device. The method, in one embodiment, includes providing a downhole conveyance device, and providing an ultrasonic defect inspection system adjacent the downhole conveyance device. The method, in this embodiment, further includes detecting defects in the downhole conveyance device using the ultrasonic defect inspection system, wherein the detecting includes transmitting ultrasonic waves from the ultrasonic defect inspection system toward the downhole conveyance device, and obtaining defect data by sensing disruptions in the reflected ultrasonic waves caused by defects in the downhole conveyance device.

Abstract: Provided is a method for inspecting at least a portion of a downhole conveyance device. The method, in one embodiment, includes providing a downhole conveyance device, and providing providing an ultrasonic defect inspection system adjacent the downhole conveyance device. The method, in this embodiment, further includes detecting defects in the downhole conveyance device using the ultrasonic defect inspection system, wherein the detecting includes transmitting ultrasonic waves from the ultrasonic defect inspection system toward the downhole conveyance device, and obtaining defect data by sensing disruptions in the reflected ultrasonic waves caused by defects in the downhole conveyance device.

Abstract: A perforation gun. The perforation gun comprises a tool body, the tool body defining at least one shouldered hole wherein the shouldered hole comprises a hole through a wall of the tool body and a shoulder that is thinner than the wall of the tool body and at least one perforating explosive charge disposed within the tool body.

Abstract: A perforation gun. The perforation gun comprises a tool body, the tool body defining at least one shouldered hole wherein the shouldered hole comprises a hole through a wall of the tool body and a shoulder that is thinner than the wall of the tool body and at least one perforating explosive charge disposed within the tool body.

Abstract: A micro device programming system is provided which permits fast placement of a plurality of unprogrammed micro devices and fast removal of a plurality of programmed micro devices. The system includes a circuit board having electronic components connected to a backplane having a plurality of backplane contacts thereon electrically connected to the circuit board contacts. The flat surface of the backplane is held in a fixed relationship with the flat surface of the circuit board leaving a space for passage of a tape transporting the micro devices under the backplane. A socket adapter has a predetermined plurality of in line sockets capable of holding the plurality of micro devices over the backplane with the plurality of backplane contacts exposed through the sockets.

Abstract: A pick and place system is provided with an actuator is responsive to the connection to an air power source to move to a pick-up position. The actuator moves a fork-type link which in turn moves a probe to compliantly move to pick up a micro device upon connection to the air power source. A replaceable precisor precisely aligns the micro device relative to the probe and a floating seal disposed around the probe and resting on the replaceable precisor seals the probe to the replaceable precisor. A system control, connectable to the electrical power source, is connected to the pneumatic and supply valves for selectively, electrically actuating the pneumatic and supply valves.

Abstract: A pick and place system is provided with an actuator is responsive to the connection to an air power source to move to a pick-up position. The actuator moves a fork-type link which in turn moves a probe to compliantly move to pick up a micro device upon connection to the air power source. A replaceable precisor precisely aligns the micro device relative to the probe and a floating seal disposed around the probe and resting on the replaceable precisor seals the probe to the replaceable precisor. A system control, connectable to the electrical power source, is connected to the pneumatic and supply valves for selectively, electrically actuating the pneumatic and supply valves.

Abstract: A feeder/programming/buffer operating system is provided which controls a feeder mechanism, a programming mechanism, an electronic handling mechanism, a pneumatic handling mechanism, and a plurality of sensors. The operating system programs programmable devices and makes the feeder/programming/buffer system substantially independent of a production assembly system with which it is capable of being integrated yet fully responsive to the requirements of the production assembly system.

Abstract: A pick and place system is provided which is connectable to an air and an electrical power source. The system has a pick and place unit including an actuator responsive to the connection to the air power source to move to a pick-up position. The actuator moves a coupler which in turn moves a probe to compliantly move to a pick-up position. The probe is responsive to a connection to the air power source to pick up the micro device. A pneumatic valve connected to the actuator is capable of electrical actuation to connect the air power source to the actuator and a supply valve connected to the probe is capable of electrical actuation to remove the power source from the probe. Deactivation of the pneumatic valve moves the actuator and probe to a raised position. A system control, connectable to the electrical power source, is connected to the pneumatic and supply valves for selectively, electrically actuating the pneumatic and supply valves.

Abstract: A holding connector system is provided for connecting a microdevice feeder to an assembly line table having a plurality of alignment pins. A connector body having a slot provided therein engages one of the plurality of alignment pins and a table recess in the connector body holds it to the assembly line table. A threaded knob secures the connector body to the assembly line table. The microdevice feeder is provided with an alignment plate, which has fingers engaging the alignment pins to cause the microdevice feeder to be properly aligned with the assembly line table. A clamping plate on the microdevice feeder engages a portion of the connector body, which holds down the microdevice feeder.

Abstract: A microdevice reject handling system is provided for in a microdevice processing/feeder system. The feeder mechanism is immediately adjacent to the processing mechanism for receiving and moving microdevices away from the processing mechanism. It uses a conveyor which has a dead space in which microdevices cannot be placed by a robotic transport system, which moves microdevices from the processing mechanism to the feeder mechanism. The microdevice reject handling system is partially positioned in the feeder mechanism dead space for receiving rejected microdevices. It includes a reject bin with a storage portion for storing rejected microdevices beside the feeder mechanism and rests on a bracket containing an optical sensor system for determining when the storage portion is full.