Abstract: An inductor integrated in a semiconductor device comprises a first and second lower electrical trace, an upper electrical trace, aligned at a first end with a first end of the first lower electrical trace and at a second end with a second end of the second lower electrical trace, a first via intercoupling the first end of the upper electrical trace with the first end of the first lower electrical trace, and a second via intercoupling the second end of the upper electrical trace with the second end of the second lower electrical trace.

Abstract: Another embodiment of the instant invention is a method of fabricating a conductive interconnect for providing an electrical connection between a first conductor and a second conductor for an electrical device formed in a semiconductor substrate, the method comprising the steps of: forming a dielectric layer (layer 226 of FIG. 2a) on the first conductor (conductor 222 of FIG. 2a), the dielectric layer having at least one opening which exposes the first conductor; forming a layer of an oxygen-sensitive material (layer 234 of FIG.

Abstract: An embodiment of the instant invention is a method of fabricating an electronic device formed on a semiconductor wafer, the method comprising the steps of: forming a layer of a first material (layer 622 of FIG. 6a) over the substrate; forming a photoresist layer (layer 626 of FIG. 6b) over the layer of the first material; patterning the layer of the first material; removing the photoresist layer after patterning the layer of the first material; and subjecting the semiconductor wafer to a plasma which incorporates a gas which includes hydrogen or deuterium so as to remove residue from the first material. Preferably, the step of removing the photoresist layer is performed by subjecting the semiconductor wafer to the plasma which incorporates a gas which substantially includes hydrogen or deuterium.

Abstract: A cleanup process that uses a dilute fluorine in oxygen chemistry in a downstream plasma tool to remove organic and inorganic polymeric residues (116).

Abstract: An embodiment of the instant invention is a method of fabricating an electronic device formed on a semiconductor wafer, the method comprising the steps of: forming a layer of a first material (layer 622 of FIG. 6a) over the substrate; forming a photoresist layer (layer 626 of FIG. 6b) over the layer of the first material; patterning the layer of the first material; removing the photoresist layer after patterning the layer of the first material; and subjecting the semiconductor wafer to a plasma which incorporates a gas which includes hydrogen or deuterium so as to remove residue from the first material. Preferably, the step of removing the photoresist layer is performed by subjecting the semiconductor wafer to the plasma which incorporates a gas which substantially includes hydrogen or deuterium.

Abstract: An embodiment of the instant invention is a method of fabricating an electronic device formed on a semiconductor wafer, the method comprising the steps of: forming a layer of a first material (layer 622 of FIG. 6a) over the substrate; forming a photoresist layer (layer 626 of FIG. 6b) over the layer of the first material; patterning the layer of the first material; removing the photoresist layer after patterning the layer of the first material; and subjecting the semiconductor wafer to a plasma which incorporates a gas which includes hydrogen or deuterium so as to remove residue from the first material. Preferably, the step of removing the photoresist layer is performed by subjecting the semiconductor wafer to the plasma which incorporates a gas which substantially includes hydrogen or deuterium.

Abstract: A versatile system for reducing electromagnetic interference resulting from an inductor (300) formed within an integrated circuit is disclosed, including an inductor layer (310) having conductive elements (326) about its perimeter, first (306) and second (308) isolation layers disposed upon on opposite sides of the inductor layer and having conductive elements (326) about their perimeters, and first (302) and second (304) shield layers surrounding the first and second isolation layers, respectively, and coupled together by the conductive elements (326) of the isolation and inductor layers.

Abstract: An embodiment of the instant invention is a method of fabricating an electronic device formed on a semiconductor wafer, the method comprising the steps of: forming a layer of a first material (layer 622 of FIG. 6a) over the substrate; forming a photoresist layer (layer 626 of FIG. 6b) over the layer of the first material; patterning the layer of the first material; removing the photoresist layer after patterning the layer of the first material; and subjecting the semiconductor wafer to a plasma which incorporates a gas which includes hydrogen or deuterium so as to remove residue from the first material. Preferably, the step of removing the photoresist layer is performed by subjecting the semiconductor wafer to the plasma which incorporates a gas which substantially includes hydrogen or deuterium.

Abstract: An embodiment of the instant invention is a method of fabricating an electronic device formed on a semiconductor wafer, the method comprising the steps of: forming a layer of a first material (layer 622 of FIG. 6a) over the substrate; forming a photoresist layer (layer 626 of FIG. 6b) over the layer of the first material; patterning the layer of the first material; removing the photoresist layer after patterning the layer of the first material; and subjecting the semiconductor wafer to a plasma which incorporates a gas which includes hydrogen or deuterium so as to remove residue from the first material. Preferably, the step of removing the photoresist layer is performed by subjecting the semiconductor wafer to the plasma which incorporates a gas which substantially includes hydrogen or deuterium.

Abstract: A versatile system for reducing electromagnetic interference resulting from an inductor (300) formed within an integrated circuit is disclosed, including an inductor layer (310) having conductive elements (326) about its perimeter, first (306) and second (308) isolation layers disposed upon on opposite sides of the inductor layer and having conductive elements (326) about their perimeters, and first (302) and second (304) shield layers surrounding the first and second isolation layers, respectively, and coupled together by the conductive elements (326) of the isolation and inductor layers.

Abstract: An inductor integrated in a semiconductor device is disclosed, comprising a first and second lower electrical trace, an upper electrical trace, aligned at a first end with a first end of the first lower electrical trace and at a second end with a second end of the second lower electrical trace, a first via intercoupling the first end of the upper electrical trace with the first end of the first lower electrical trace, and a second via intercoupling the second end of the upper electrical trace with the second end of the second lower electrical trace.

Abstract: A structure and method to direct the via 270 etch to the top of the interconnect 210, by using a sidewall layer 240, preferably. TiN, and thus preventing the etching down the side of the interconnect 210 and exposure of materials residing between the interconnects 210.

Abstract: A structure and method to direct the via 270 etch to the top of the interconnect 210, by using a sidewall layer 240, preferably TiN, and thus preventing the etching down the side of the interconnect 210 and exposure of materials residing between the interconnects 210.