Abstract: A chemical mechanical planarization for indium phosphide material is provided in which at least one opening is formed within a dielectric layer located on a substrate. An indium phosphide material is epitaxially grown within the at least one opening of the dielectric layer which extends above a topmost surface of the dielectric layer. The indium phosphide material is planarized using at least one slurry composition to form coplanar surfaces of the indium phosphide material and the dielectric layer, where a slurry composition of the at least one slurry composition polishes the indium phosphide material selective to the topmost surface of the dielectric layer, and includes an abrasive, at least one pH modulator and an oxidizer, the at least one pH modulator including an acidic pH modulator, but lacks a basic pH modulator, and where the oxidizer suppresses generation of phosphine gas.

Abstract: A chemical mechanical planarization for indium phosphide material is provided in which at least one opening is formed within a dielectric layer located on a substrate. An indium phosphide material is epitaxially grown within the at least one opening of the dielectric layer which extends above a topmost surface of the dielectric layer. The indium phosphide material is planarized using at least one slurry composition to form coplanar surfaces of the indium phosphide material and the dielectric layer, where a slurry composition of the at least one slurry composition polishes the indium phosphide material selective to the topmost surface of the dielectric layer, and includes an abrasive, at least one pH modulator and an oxidizer, the at least one pH modulator including an acidic pH modulator, but lacks a basic pH modulator, and where the oxidizer suppresses generation of phosphine gas.

Abstract: A chemical mechanical planarization for indium phosphide material is provided in which at least one opening is formed within a dielectric layer located on a substrate. An indium phosphide material is epitaxially grown within the at least one opening of the dielectric layer which extends above a topmost surface of the dielectric layer. The indium phosphide material is planarized using at least one slurry composition to form coplanar surfaces of the indium phosphide material and the dielectric layer, where a slurry composition of the at least one slurry composition polishes the indium phosphide material selective to the topmost surface of the dielectric layer, and includes an abrasive, at least one pH modulator and an oxidizer, the at least one pH modulator including an acidic pH modulator, but lacks a basic pH modulator, and where the oxidizer suppresses generation of phosphine gas.

Abstract: Method for chemical mechanical planarization is provided, which includes: forming a dielectric layer containing at least one opening, the dielectric layer is located on a substrate; epitaxially growing a germanium material within the at least one opening of the dielectric layer, the germanium material extending above a topmost surface of the dielectric layer; and planarizing the germanium material using at least one slurry composition to form coplanar surfaces of the germanium material and the dielectric layer, where a slurry composition of at least one slurry composition polishes the germanium material selective to the topmost surface of the dielectric layer, and includes an abrasive, at least one pH modulator, and an oxidizer, the at least one pH modulator including an acidic pH modulator, and lacking a basic pH modulator.

Abstract: Method for chemical mechanical planarization is provided, which includes: forming a dielectric layer containing at least one opening, the dielectric layer is located on a substrate; epitaxially growing a germanium material within the at least one opening of the dielectric layer, the germanium material extending above a topmost surface of the dielectric layer; and planarizing the germanium material using at least one slurry composition to form coplanar surfaces of the germanium material and the dielectric layer, where a slurry composition of at least one slurry composition polishes the germanium material selective to the topmost surface of the dielectric layer, and includes an abrasive, at least one pH modulator, and an oxidizer, the at least one pH modulator including an acidic pH modulator, and lacking a basic pH modulator.

Abstract: A chemical mechanical planarization for a Group III arsenide material is provided in which at least one opening is formed within a dielectric layer located on a substrate. A Group III arsenide material is epitaxially grown within the at least one opening of the dielectric layer which extends above a topmost surface of the dielectric layer. The Group III arsenide material is planarized using at least one slurry composition to form coplanar surfaces of the Group III arsenide material and the dielectric layer, where a slurry composition of the at least one slurry composition polishes the Group III arsenide material selective to the topmost surface of the dielectric layer, and includes an abrasive, at least one pH modulator and an oxidizer, the at least one pH modulator including an acidic pH modulator, but lacks a basic pH modulator, and where the oxidizer suppresses generation of an arsine gas.

Abstract: Method for chemical mechanical planarization is provided, which includes: forming a dielectric layer containing at least one opening, the dielectric layer is located on a substrate; epitaxially growing a germanium material within the at least one opening of the dielectric layer, the germanium material extending above a topmost surface of the dielectric layer; and planarizing the germanium material using at least one slurry composition to form coplanar surfaces of the germanium material and the dielectric layer, where a slurry composition of at least one slurry composition polishes the germanium material selective to the topmost surface of the dielectric layer, and includes an abrasive, at least one pH modulator, and an oxidizer, the at least one pH modulator including an acidic pH modulator, and lacking a basic pH modulator.

Abstract: A chemical mechanical planarization for a Group III arsenide material is provided in which at least one opening is formed within a dielectric layer located on a substrate. A Group III arsenide material is epitaxially grown within the at least one opening of the dielectric layer which extends above a topmost surface of the dielectric layer. The Group III arsenide material is planarized using at least one slurry composition to form coplanar surfaces of the Group III arsenide material and the dielectric layer, where a slurry composition of the at least one slurry composition polishes the Group III arsenide material selective to the topmost surface of the dielectric layer, and includes an abrasive, at least one pH modulator and an oxidizer, the at least one pH modulator including an acidic pH modulator, but lacks a basic pH modulator, and where the oxidizer suppresses generation of an arsine gas.

Abstract: A chemical mechanical planarization for indium phosphide material is provided in which at least one opening is formed within a dielectric layer located on a substrate. An indium phosphide material is epitaxially grown within the at least one opening of the dielectric layer which extends above a topmost surface of the dielectric layer. The indium phosphide material is planarized using at least one slurry composition to form coplanar surfaces of the indium phosphide material and the dielectric layer, where a slurry composition of the at least one slurry composition polishes the indium phosphide material selective to the topmost surface of the dielectric layer, and includes an abrasive, at least one pH modulator and an oxidizer, the at least one pH modulator including an acidic pH modulator, but lacks a basic pH modulator, and where the oxidizer suppresses generation of phosphine gas.

Abstract: Method for chemical mechanical planarization is provided, which includes: forming a dielectric layer containing at least one opening, the dielectric layer is located on a substrate; epitaxially growing a germanium material within the at least one opening of the dielectric layer, the germanium material extending above a topmost surface of the dielectric layer; and planarizing the germanium material using at least one slurry composition to form coplanar surfaces of the germanium material and the dielectric layer, where a slurry composition of at least one slurry composition polishes the germanium material selective to the topmost surface of the dielectric layer, and includes an abrasive, at least one pH modulator, and an oxidizer, the at least one pH modulator including an acidic pH modulator, and lacking a basic pH modulator.

Abstract: An assembly including a main wafer having a body with a front side and a back side and a plurality of blind electrical vias terminating above the back side, and a handler wafer, is obtained. A step includes exposing the blind electrical vias to various heights on the back side. Another step involves applying a first chemical mechanical polish process to the back side, to open any of the surrounding insulator adjacent the end regions of the cores remaining after the exposing step, and to co-planarize the via conductive cores, the surrounding insulator adjacent the side regions of the cores, and the body of the main wafer. Further steps include etching the back side to produce a uniform standoff height of each of the vias across the back side; depositing a dielectric across the back side; and applying a second chemical mechanical polish process to the back side.

Abstract: A glass mold polishing structure and method. The method includes providing a polishing tool comprising mounting plate, a chuck plate over and mechanically attached to the mounting plate, and a pad structure over and mechanically attached to the chuck plate. A retaining structure is attached the chuck plate. A glass mold comprising a plurality of cavities is placed on the pad structure and within a perimeter formed by the retaining structure. A vacuum device is attached to the chuck plate. The vacuum device is activated such that a vacuum is formed and mechanically attaches the glass mold to the pad structure. The polishing tool comprising the glass mold mechanically attached to the pad structure is placed over and in contact with the polishing pad. The polishing tool comprising the glass mold is rotated. The glass mold is polished as a result of the rotation.

Abstract: An assembly including a main wafer having a body with a front side and a back side, and a handler wafer, is obtained. The main wafer has a plurality of blind electrical vias terminating above the back side. The blind electrical vias have conductive cores with surrounding insulator adjacent side and end regions of the cores. The handler wafer is secured to the front side of the body of the main wafer. An additional step includes exposing the blind electrical vias on the back side. The blind electrical vias are exposed to various heights across the back side. Another step involves applying a first chemical mechanical polish process to the back side, to open any of the surrounding insulator adjacent the end regions of the cores remaining after the exposing step, and to co-planarize the via conductive cores, the surrounding insulator adjacent the side regions of the cores, and the body of the main wafer.

Abstract: A glass mold polishing structure and method. The method includes providing a polishing tool comprising mounting plate, a chuck plate over and mechanically attached to the mounting plate, and a pad structure over and mechanically attached to the chuck plate. A retaining structure is attached the chuck plate. A glass mold comprising a plurality of cavities is placed on the pad structure and within a perimeter formed by the retaining structure. A vacuum device is attached to the chuck plate. The vacuum device is activated such that a vacuum is formed and mechanically attaches the glass mold to the pad structure. The polishing tool comprising the glass mold mechanically attached to the pad structure is placed over and in contact with the polishing pad. The polishing tool comprising the glass mold is rotated. The glass mold is polished as a result of the rotation.

Abstract: A semiconductor micro-electromechanical system (MEMS) switch provided with noble metal contacts that act as an oxygen barrier to copper electrodes is described. The MEMS switch is fully integrated into a CMOS semiconductor fabrication line. The integration techniques, materials and processes are fully compatible with copper chip metallization processes and are typically, a low cost and a low temperature process (below 400° C.). The MEMS switch includes: a movable beam within a cavity, the movable beam being anchored to a wall of the cavity at one or both ends of the beam; a first electrode embedded in the movable beam; and a second electrode embedded in an wall of the cavity and facing the first electrode, wherein the first and second electrodes are respectively capped by the noble metal contact.

Abstract: A semiconductor micro-electromechanical system (MEMS) switch provided with noble metal contacts that act as an oxygen barrier to copper electrodes is described. The MEMS switch is fully integrated into a CMOS semiconductor fabrication line. The integration techniques, materials and processes are fully compatible with copper chip metallization processes and are typically, a low cost and a low temperature process (below 400° C.). The MEMS switch includes: a movable beam within a cavity, the movable beam being anchored to a wall of the cavity at one or both ends of the beam; a first electrode embedded in the movable beam; and a second electrode embedded in an wall of the cavity and facing the first electrode, wherein the first and second electrodes are respectively capped by the noble metal contact.

Abstract: Sealing a via using a soventless, low viscosity, high temperature stable polymer or a high solids content polymer solution of low viscosity, where the polymeric material is impregnated within the via at an elevated temperature. A supply chamber is introduced to administer the polymeric material at an elevated temperature, typically at a temperature high enough to liquefy the polymeric material. The polymeric material is introduced through heated supply lines under force from a pump, piston, or a vacuum held within said supply chamber.

Abstract: Sealing a via using a soventless, low viscosity, high temperature stable polymer or a high solids content polymer solution of low viscosity, where the polymeric material is impregnated within the via at an elevated temperature. A supply chamber is introduced to administer the polymeric material at an elevated temperature, typically at a temperature high enough to liquefy the polymeric material. The polymeric material is introduced through heated supply lines under force from a pump, piston, or a vacuum held within said supply chamber.

Abstract: A semiconductor micro-electromechanical system (MEMS) switch provided with noble metal contacts that act as an oxygen barrier to copper electrodes is described. The MEMS switch is fully integrated into a CMOS semiconductor fabrication line. The integration techniques, materials and processes are fully compatible with copper chip metallization processes and are typically, a low cost and a low temperature process (below 400° C.). The MEMS switch includes: a movable beam within a cavity, the movable beam being anchored to a wall of the cavity at one or both ends of the beam; a first electrode embedded in the movable beam; and a second electrode embedded in an wall of the cavity and facing the first electrode, wherein the first and second electrodes are respectively capped by the noble metal contact.

Abstract: A semiconductor micro-electromechanical system (MEMS) switch provided with noble metal contacts that act as an oxygen barrier to copper electrodes is described. The MEMS switch is fully integrated into a CMOS semiconductor fabrication line. The integration techniques, materials and processes are fully compatible with copper chip metallization processes and are typically, a low cost and a low temperature process (below 400°0 C.). The MEMS switch includes: a movable beam within a cavity, the movable beam being anchored to a wall of the cavity at one or both ends of the beam; a first electrode embedded in the movable beam; and a second electrode embedded in an wall of the cavity and facing the first electrode, wherein the first and second electrodes are respectively capped by the noble metal contact.