Abstract: A semiconductor sensor including a plurality of pixels, each of which includes a fluorescent molecule layer and a photosensitive layer. The fluorescent molecule layer converts light incident on the pixel to surface plasmons. The photosensitive layer generates a light detection signal representative of an intensity of light incident on the pixel in response to the surface plasmons in a region of the sensor which is close enough to the surface of the pixels that electronic crosstalk between the pixels does not occur.

Abstract: A semiconductor integrated circuit structure and method for fabricating. The semiconductor integrated circuit structure includes a light sensitive device integral with a semiconductor substrate, a cover dielectric layer disposed over the light sensitive device, and a lens-formation dielectric layer disposed over the cover dielectric layer. Light is transmittable though the cover dielectric layer, and through the lens-formation dielectric layer. The lens-formation dielectric layer forms an embedded convex microlens. The microlens directs light onto the light sensitive device.

Abstract: A semiconductor integrated circuit structure and method for fabricating. The semiconductor integrated circuit structure includes a light sensitive device integral with a semiconductor substrate, a cover dielectric layer disposed over the light sensitive device, and a lens-formation dielectric layer disposed over the cover dielectric layer. Light is transmittable though the cover dielectric layer, and through the lens-formation dielectric layer. The lens-formation dielectric layer forms an embedded convex microlens. The microlens directs light onto the light sensitive device.

Abstract: A semiconductor integrated circuit structure and method for fabricating. The semiconductor integrated circuit structure includes a light sensitive device integral with a semiconductor substrate, a cover dielectric layer disposed over the light sensitive device, and a lens-formation dielectric layer disposed over the cover dielectric layer. Light is transmittable through the cover dielectric layer; and through the lens-formation dielectric layer. The lens-formation dielectric layer forms an embedded convex microlens. The microlens directs light onto the light sensitive device.

Abstract: A shallow semiconductor sensor with a fluorescent molecule layer that eliminates optical and electronic crosstalk.

Abstract: A semiconductor integrated circuit structure and method for fabricating. The semiconductor integrated circuit structure includes a light sensitive device integral with a semiconductor substrate, a cover dielectric layer disposed over the light sensitive device, and a lens-formation dielectric layer disposed over the cover dielectric layer. Light is transmittable though the cover dielectric layer; and through the lens-formation dielectric layer. The lens-formation dielectric layer forms an embedded convex microlens. The microlens directs light onto the light sensitive device.

Abstract: An integrated circuit metallization structure using a titanium/aluminum alloy, and a method to generate such a structure, provide reduced leakage current by allowing mobile impurities such as water, oxygen, and hydrogen to passivate structural defects in the silicon layer of the IC. The titanium layer of the structure is at least partially alloyed with the aluminum layer, thereby restricting the ability of the titanium to getter the mobile impurities within the various layers of the IC. Despite the alloying of the titanium and aluminum, the metallization structure exhibits the superior contact resistance and electromigration properties associated with titanium.

Abstract: An integrated circuit metallization structure using a titanium/aluminum alloy, and a method to generate such a structure, provide reduced leakage current by allowing mobile impurities such as water, oxygen, and hydrogen to passivate structural defects in the silicon layer of the IC. The titanium layer of the structure is at least partially alloyed with the aluminum layer, thereby restricting the ability of the titanium to getter the mobile impurities within the various layers of the IC. Despite the alloying of the titanium and aluminum, the metallization structure exhibits the superior contact resistance and electromigration properties associated with titanium.

Abstract: An integrated circuit metallization structure using a titanium/aluminum alloy, and a method to generate such a structure, provide reduced leakage current by allowing mobile impurities such as water, oxygen, and hydrogen to passivate structural defects in the silicon layer of the IC. The titanium layer of the structure is at least partially alloyed with the aluminum layer, thereby restricting the ability of the titanium to getter the mobile impurities within the various layers of the IC. Despite the alloying of the titanium and aluminum, the metallization structure exhibits the superior contact resistance and electromigration properties associated with titanium.

Abstract: A system for integrating a composite dielectric layer in an integrated circuit to facilitate fabrication of a high density multi-level interconnect with external contacts. The composite dielectric layer comprises of a polymer layer which normally comprises a polyimide that is deposited using conventional spin-deposit techniques to form a planarized surface for deposition of an inorganic layer typically comprising silicon dioxide or silicon nitride. The inorganic layer is etched using standard photoresist techniques to form an inorganic mask for etching the polymer layer. A previously deposited inorganic layer functions as an etch stop to allow long over etches to achieve full external contacts which, in turn, allows high density interconnect systems on multiple levels.

Abstract: A process is described for electrically interconnecting electronic devices located on a surface through one or more planar linking layers consisting of conductors and dielectrics. A three-step additive process is disclosed for forming each planar linking layer. The process may be repeated in order to form the multiple linking layers required for complex VLSI circuits. Each layer is formed by a three step process of applying a uniform dielectric, removing the dielectric where the interconnections, including vias and lines, are to be made and then selectively depositing a conductor to form the interconnections.