Abstract: The present disclosure relates to exclusion rings for use in processing a semiconductor substrate in a processing chamber, such as a chemical vapor deposition chamber. The exclusion ring includes an alignment structure that cooperates with an alignment structure on a platen on which the exclusion ring will rest during processing of the wafer. The first alignment structure includes a guiding surface which promotes the reception of and positioning of the second alignment structure within the first alignment structure. Methods of utilizing the described exclusion rings are also described.

Abstract: The present disclosure is directed to workpiece support for supporting a workpiece during semiconductor processing. The workpiece support includes one or more support frame bodies including a plurality of spaced apart spacers on a first surface of the support frame bodies. The spacers include a first surface spaced apart from the first surface of the support frame body. The spacing between the first surface of the spacers and the first surface of the support frame body results in the underside of the workpiece contacting the spacers but not contacting the first surface of the support frame body. Portions of the underside of the workpiece that do not contact the first surface of the support frame body are less susceptible to damage or accumulation of unwanted debris.

Abstract: The present disclosure relates to exclusion rings for use in processing a semiconductor substrate in a processing chamber, such as a chemical vapor deposition chamber. The exclusion ring includes an alignment structure that cooperates with an alignment structure on a platen on which the exclusion ring will rest during processing of the wafer. The first alignment structure includes a guiding surface which promotes the reception of and positioning of the second alignment structure within the first alignment structure. Methods of utilizing the described exclusion rings are also described.

Abstract: The present disclosure relates to a method of chemical vapor deposition (CVD). In some embodiments, a process gas is applied into a vacuum chamber. The process gas is guided downstream the vacuum chamber through a shower head arranged under the gas import, where the process gas is redirected to be laterally unevenly distributed under the shower head. A density of the process gas increases from a center region to a peripheral region of the vacuum chamber. The process gas is then deposited onto a first substrate to form a precursor material with an uneven thickness profile as a result of uneven distribution of the process gas. The shower head has multiple control zones each having a plurality of holes disposed through the shower head.

Abstract: The present disclosure relates to a chemical vapor deposition apparatus and associated methods. In some embodiments, the CVD apparatus has a vacuum chamber and a gas import having a gas import axis through which a process gas is imported into the vacuum chamber and being arranged near an upper region of the vacuum chamber. At least one exhaust port is arranged near a bottom region of the vacuum chamber. The CVD apparatus also has a shower head arranged under the gas import having a plurality of holes formed there through. The shower head redistributes the process gas to form a precursor material with an uneven thickness that matches a remove profile of a subsequent CMP process. As a result, planarity of the formed layer after the CMP process is improved.

Abstract: The present disclosure relates to a method of chemical vapor deposition (CVD). In some embodiments, a process gas is applied into a vacuum chamber. The process gas is guided downstream the vacuum chamber through a shower head arranged under the gas import, where the process gas is redirected to be laterally unevenly distributed under the shower head. A density of the process gas increases from a center region to a peripheral region of the vacuum chamber. The process gas is then deposited onto a first substrate to form a precursor material with an uneven thickness profile as a result of uneven distribution of the process gas. The shower head has multiple control zones each having a plurality of holes disposed through the shower head.

Abstract: The present disclosure relates to a chemical vapor deposition apparatus and associated methods. In some embodiments, the CVD apparatus has a vacuum chamber and a gas import having a gas import axis through which a process gas is imported into the vacuum chamber and being arranged near an upper region of the vacuum chamber. At least one exhaust port is arranged near a bottom region of the vacuum chamber. The CVD apparatus also has a shower head arranged under the gas import having a plurality of holes formed there through. The shower head redistributes the process gas to form a precursor material with an uneven thickness that matches a remove profile of a subsequent CMP process. As a result, planarity of the formed layer after the CMP process is improved.

Abstract: The present disclosure relates to a chemical vapor deposition apparatus and associated methods. In some embodiments, the CVD apparatus has a vacuum chamber and a gas import having a gas import axis through which a process gas is imported into the vacuum chamber and being arranged near an upper region of the vacuum chamber. At least one exhaust port is arranged near a bottom region of the vacuum chamber. The CVD apparatus also has a shower head arranged under the gas import having a plurality of holes formed there through with at least two different diameters or densities. The shower head redistributes the process gas to form a precursor material with an uneven thickness that matches a remove profile of a subsequent CMP process. As a result, planarity of the formed layer after the CMP process is improved.

Abstract: The present disclosure relates to a chemical vapor deposition apparatus and associated methods. In some embodiments, the CVD apparatus has a vacuum chamber and a gas import having a gas import axis through which a process gas is imported into the vacuum chamber and being arranged near an upper region of the vacuum chamber. At least one exhaust port is arranged near a bottom region of the vacuum chamber. The CVD apparatus also has a shower head arranged under the gas import having a plurality of holes formed there through with at least two different diameters or densities. The shower head redistributes the process gas to form a precursor material with an uneven thickness that matches a remove profile of a subsequent CMP process. As a result, planarity of the formed layer after the CMP process is improved.

Abstract: An electromagnetic detection device is provided. The electromagnetic detection device includes an induction coil, a converter, and a controller. The induction coil is utilized to sense an RF signal and generate a sensing RF signal by electromagnetic induction of the induction coil which is proportional to the RF signal. The RF signal is transmitted to a shower head to perform a semiconductor process on a wafer for manufacturing an IC in association with the RF signal. The converter is utilized to convert the sensing RF signal into a DC signal. The controller is utilized to determine whether the semiconductor process is normal or abnormal according to the DC signal during the semiconductor process. The semiconductor process will be terminated when the semiconductor process is determined as abnormal.