Abstract: A method of passivating an integrated circuit (IC) is provided. An insulating layer is formed onto the IC. An adhesion layer is formed onto a surface of the insulating layer by treating the surface of the insulating layer with a gas. A first passivation layer is formed upon the adhesion layer, the first passivation layer and the gas including at least one common chemical element.

Abstract: A method of manufacturing liquid crystal devices on a silicon substrate is disclosed. Such a method is accomplished by preparing a silicon substrate having a plurality of die arranged in an array with scribe streets between the dies, and alignment marks within designated scribe streets; preparing a glass substrate having scribe lines, alignment marks within designated scribe lines and openings for filing liquid crystal; attaching the glass substrate to the silicon substrate using the alignment marks on the glass substrate and on the silicon substrate to form a silicon-glass assembly; filling liquid crystal, via the openings on the glass substrate, into a cell gap of each die on the silicon-glass assembly, and sealing the openings on each die to form a liquid crystal device; and separating liquid crystal devices from the silicon-glass assembly along the scribe lines on the glass substrate.

Abstract: A method of manufacturing liquid crystal devices on a silicon substrate is disclosed. Such a method is accomplished by preparing a silicon substrate having a plurality of die arranged in an array with scribe streets between the dies, and alignment marks within designated scribe streets; preparing a glass substrate having scribe lines, alignment marks within designated scribe lines and openings for filing liquid crystal; attaching the glass substrate to the silicon substrate using the alignment marks on the glass substrate and on the silicon substrate to form a silicon-glass assembly; filling liquid crystal, via the openings on the glass substrate, into a cell gap of each die on the silicon-glass assembly, and sealing the openings on each die to form a liquid crystal device; and separating liquid crystal devices from the silicon-glass assembly along the scribe lines on the glass substrate.

Abstract: A method of exposing a bond pad includes: providing an integrated circuit having a bond pad, a first passivation layer overlying an area portion of the bond pad, and a second passivation layer overlying the first passivation layer; removing a portion of the second passivation layer above the area portion of the bond pad exposing an area of the first passivation layer; curing the second passivation; and etching a portion of the exposed area of the first passivation layer to expose the top surface of the bond pad. A method of coupling an integrated circuit chip to a chip package is also disclosed as is a method of probing the bond pads of an integrated circuit. A probe card is further disclosed, including a probe assembly coupled to a printed circuit board, the probe assembly having a sloped sidewall portion with a plurality of probing beams extending from the sidewall portion.

Abstract: A method of passivating an integrated circuit (IC) is provided. An insulating layer is formed onto the IC. An adhesion layer is formed onto a surface of the insulating layer by treating the surface of the insulating layer with a gas. A first passivation layer is formed upon the adhesion layer, the first passivation layer and the gas including at least one common chemical element.

Abstract: A wafer cutting apparatus which includes a wafer saw, a detector, and a control unit. The detector detects a variable of a wafer being sawed. The control unit utilizes the variable to control the saw.

Abstract: A method of passivating an integrated circuit (IC) is provided. An insulating layer is formed onto the IC. An adhesion layer is formed onto a surface of the insulating layer by treating the surface of the insulating layer with a gas and gas plasma. A first passivation layer is formed upon the adhesion layer, the first passivation layer and the gas and gas plasma including at least one common chemical element.

Abstract: A method of testing an integrated circuit device including depositing a solder bump on a surface of a bond pad on an integrated circuit device, heat treating the solder bump, and testing the integrated circuit device by probing the solder bump.

Abstract: A method of exposing a bond pad includes: providing an integrated circuit having a bond pad, a first passivation layer overlying an area portion of the bond pad, and a second passivation layer overlying the first passivation layer; removing a portion of the second passivation layer above the area portion of the bond pad exposing an area of the first passivation layer; curing the second passivation; and etching a portion of the exposed area of the first passivation layer to expose the top surface of the bond pad. A method of coupling an integrated circuit chip to a chip package is also disclosed as is a method of probing the bond pads of an integrated circuit. A probe card is further disclosed, including a probe assembly coupled to a printed circuit board, the probe assembly having a sloped sidewall portion with a plurality of probing beams extending from the sidewall portion.

Abstract: An integrated circuit passivation layer including a first passivation layer portion of silicon nitride treated with nitrous oxide and a second passivation layer portion of polyimide. Also, a method of passivating an integrated circuit wafer including depositing a first passivation layer over the top surface of an integrated circuit wafer having a scribe street area between adjacent integrated circuit device portions, depositing a second passivation layer over the first passivation layer, and patterning the first passivation layer and the second passivation layer to expose the scribe street area.

Abstract: A process for the formation of a planar epitaxial cobalt silicide and for the formation of shallow conformal junctions for use in semiconductor processing. A cobalt silicide and titanium nitride bilayer is formed. The titanium nitride layer is chemically removed. Ions with or without a dopant are then implanted into the cobalt silicide layer. During the ion implantation, at least a portion of the cobalt silicide layer is transformed into an amorphous cobalt silicon mixture while the non-amorphous portion remains single crystal. If the ion implantation contains dopants, then after the implantation is completed, both the amorphous and non-amorphous portions of the cobalt silicide layer contain the dopants. The substrate is then annealed in either an ambient comprising a nitrogen gas or in an oxidizing ambient. During the anneal, the amorphous portion of the silicon substrate recrystallizes into a single crystal cobalt silicide layer.