Micron Technology Incorporated

Zyvex Instruments, LLC

Zyvex Labs, LLC

Robert J Folaron

Jay C Nelson

Warren M Farnworth

David R Hembree

John O Jacobson

Lelan D Warren

Jennifer L Folaron

Alan G Wood

James M Wark

Christof Baur

Richard E Stallcup

George Dee Skidmore

John Neal Randall

Philip C Foster

Jingping Peng

Jun-Fu Liu

Adam Hartman

Matthew D Ellis

Aaron Geisberger

Kenneth Bray

Kimberly Tuck

A patterned layer is formed by removing nanoscale passivating particle from a first plurality of nanoscale structural particles or by adding nanoscale passivating particles to the first plurality of nanoscale structural particles. Each of a second plurality of nanoscale structural particles is deposited on each of corresponding ones of the first plurality of nanoscale structural particles that is not passivated by one of the plurality of nanoscale passivating particles.

Patterned atomic layer epitaxy

An apparatus including a positioner control device, a measuring device and a control routine. The positioner control device is communicatively coupled to a chamber of a charged particle beam device (CPBD) and is configured to individually manipulate each of a plurality of probes within the CPBD chamber to establish contact between ones of the plurality of probes and corresponding ones of a plurality of contact points of a sample positioned in the CPBD chamber. The measuring device is communicatively coupled to the CPBD and the positioner control device and is configured to perform one of a measurement and a detection of a characteristic associated with one of the plurality of contact points. The control routine is configured to at least partially automate control of at least one of the CPBD, the positioner control device and the measuring device.

Charged particle beam device probe operation

A method including, in one embodiment, severing a sample at least partially from a substrate by cutting the substrate with a focused ion beam (FIB), capturing the substrate sample by activating a grasping element, and separating the captured sample from the substrate. The captured sample may be separated from the substrate and transported to an electron microscope for examination.

Method, system and device for microscopic examination employing fib-prepared sample grasping element

A method and apparatus of assembling and disassembling semiconductor dice to be tested from the components of a temporary test package. A computer-controlled vision system is employed to align the dice with the temporary test package bases, and an automated robot arm system is employed to retrieve and assemble the dice with the various package components. The invention has particular utility in the burn-in and other pre-packaging testing of dice to establish known good dice (KGD).

Apparatus for automatically positioning electronic dice within component packages

Method for automatically positioning electronic die within component packages

A method for positioning a semiconductor die within a temporary package, including forming a representation of at least a portion of a semiconductor die, moving the semiconductor die to a location proximate a temporary package, and comparing the representation of the at least a portion of the semiconductor die to a representation of at least a portion of the temporary package. The compared representations are then used to define movement of a die moving assembly, in order to move the die to place the semiconductor die and the temporary package into a desired relationship to one another. A restraining device is then secured to the temporary package to retain the semiconductor die in the desired relationship to the temporary package.

Method for positioning a semiconductor die within a temporary package

Method and apparatus for automatically positioning electronic dice within component packages

Method and apparatus for automatically positioning electronic dice with

An apparatus for automatically positioning electronic dice within temporary packages to enable continuity testing between the dice bond pads and the temporary package electrical interconnects is provided. The apparatus includes a robot having a programmable robot arm with a gripper assembly, die and lid feeder stations, a die inverter, and a plurality of cameras. The cameras take several pictures of the die and temporary packages to precisely align the die bond pads with the temporary package electrical interconnects. A predetermined assembly position is located along a conveyor that conveys a carrier between a first position, corresponding to an inlet, and a second position, corresponding to an outlet. The die, a restraining device and temporary package are assembled at the predetermined assembly position and tested for continuity therebetween. The apparatus further includes a fifth camera which locates the die at a wafer handler. The apparatus has a control mechanism including a microprocessor and program routines that selectively control the robot arm (i) to move the gripper assembly to the lid feeder station to pick up a lid, (ii) to move the gripper assembly along with the lid to pick up the die, (iii) to move the gripper assembly along with the lid and the die to a position to be photographed by the fine die camera, and (iv) to move the lid and the die to the predetermined assembly position located along the conveyor. The method and apparatus may also be used for disassembly.

Method and apparatus for automatically positioning electronic dice

A method and apparatus of assembling and disassembling semiconductor dice to be tested from the components of a temporary test package. A computer-controlled vision system is employed to align the dice with the temporary test package bases, and an automated robot arm system is employed to retrieve and assemble the dice with the various package components. The invention has particular utility in the burn-in and other pre-packaging testing of die to establish known good dice (KGD).

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Plano, TX, United States of America

Robert J Folaron