Abstract: Disclosed is a coil assembly and an electromagnetic cooking appliance. The coil assembly includes: a coil base, including a bottom wall and a side wall; a first coil and a second coil, fixedly located at the bottom wall and the side wall respectively; and a plurality of magnetic stripe supporters, located at the coil base along a circumferential direction. Each magnetic stripe supporter includes a first mounting part, a second mounting part, and a connecting part connected to the first mounting part and the second mounting part. The coil assembly in the disclosure can effectively reduce the mounting space for the magnetic stripe supporter, and prevent the interference between the magnetic stripe supporter and the circuit board supporter in the electromagnetic cooking appliance.

Abstract: A substrate support for supporting a substrate in a substrate processing system includes a baseplate and a ceramic layer arranged above the baseplate. An outer perimeter of the ceramic layer is surrounded by an edge ring. An outer radius of the ceramic layer is greater than an inner radius of the edge ring such that an outer edge of the ceramic layer extends below the edge ring.

Abstract: A substrate support for supporting a substrate in a substrate processing system includes a baseplate and a ceramic layer arranged above the baseplate. An outer perimeter of the ceramic layer is surrounded by an edge ring. An outer radius of the ceramic layer is greater than an inner radius of the edge ring such that an outer edge of the ceramic layer extends below the edge ring.

Abstract: A substrate support includes a baseplate, a ceramic layer arranged on the baseplate, a bond layer arranged in a first gap between the baseplate and the ceramic layer, a channel formed through the baseplate, the bond layer, and the ceramic layer, and a plug arranged in the channel. The plug includes a lower portion arranged in the baseplate and an upper portion arranged in the ceramic layer. The lower portion includes a pocket and sidewalls surrounding the pocket. The upper portion extends below the ceramic layer and the first gap into the pocket, the sidewalls of the lower portion overlap the upper portion, and a second gap between the upper portion and the lower portion is located within the pocket of the lower portion below the first gap.

Abstract: A substrate support includes a conductive baseplate arranged to support a ceramic layer. The conductive baseplate includes a first cavity extending along an axis perpendicular to a horizontal plane defined by the conductive baseplate. A coupling assembly is arranged within the first cavity. The coupling assembly includes a gear configured to rotate about the axis. A pin arranged within the first cavity extends along the axis through the gear and into a second cavity below the conductive baseplate. Rotation of the gear causes the pin to move upward or downward relative to the conductive baseplate. The pin is retained within the second cavity when the gear is rotated to cause the pin to move downward into the second cavity.

Abstract: A pin lifter assembly for a substrate support in a substrate processing system includes a lift pin having a shaft, an upper end, and a lower end, and an insert arranged around the lift pin. The insert defines a gap between the insert and the lift pin. A clamp assembly is arranged around the lower end of the lift pin. The lower end of the lift pin is secured within the clamp assembly such that the clamp assembly prevents vertical movement of the lift pin relative to the clamp assembly. The clamp assembly is configured to allow horizontal movement of the lower end of the lift pin within the clamp assembly.

Abstract: A plasma confinement apparatus, and method for confining a plasma are described and which includes, in one form of the invention, a plurality of electrically insulated components which are disposed in predetermined spaced relation, one relative to the others, and surrounding a processing region of a plasma processing apparatus, and wherein a plurality of passageways are defined between the respective insulated components; and at least one electrically conductive and grounded component forms an electrical field shielding for the processing region.

Abstract: A substrate support includes a conductive baseplate arranged to support a ceramic layer. The conductive baseplate includes a first cavity extending along an axis perpendicular to a horizontal plane defined by the conductive baseplate. A coupling assembly is arranged within the first cavity. The coupling assembly includes a gear configured to rotate about the axis. A pin arranged within the first cavity extends along the axis through the gear and into a second cavity below the conductive baseplate. Rotation of the gear causes the pin to move upward or downward relative to the conductive baseplate. The pin is retained within the second cavity when the gear is rotated to cause the pin to move downward into the second cavity.

Abstract: A substrate support includes a baseplate, a ceramic layer arranged on the baseplate, a bond layer arranged in a first gap between the baseplate and the ceramic layer, a channel formed through the baseplate, the bond layer, and the ceramic layer, and a plug arranged in the channel. The plug includes a lower portion arranged in the baseplate and an upper portion arranged in the ceramic layer. The lower portion includes a pocket and sidewalls surrounding the pocket. The upper portion extends below the ceramic layer and the first gap into the pocket, the sidewalls of the lower portion overlap the upper portion, and a second gap between the upper portion and the lower portion is located within the pocket of the lower portion below the first gap.

Abstract: A substrate support for supporting a substrate in a substrate processing system includes a baseplate and a ceramic layer arranged above the baseplate. An outer perimeter of the ceramic layer is surrounded by an edge ring. An outer radius of the ceramic layer is greater than an inner radius of the edge ring such that an outer edge of the ceramic layer extends below the edge ring.

Abstract: A pin lifter assembly for a substrate support in a substrate processing system includes a lift pin having a shaft, an upper end, and a lower end, and an insert arranged around the lift pin. The insert defines a gap between the insert and the lift pin. A clamp assembly is arranged around the lower end of the lift pin. The lower end of the lift pin is secured within the clamp assembly such that the clamp assembly prevents vertical movement of the lift pin relative to the clamp assembly. The clamp assembly is configured to allow horizontal movement of the lower end of the lift pin within the clamp assembly.

Abstract: A plasma confinement apparatus, and method for confining a plasma are described and which includes, in one form of the invention, a plurality of electrically insulated components which are disposed in predetermined spaced relation, one relative to the others, and surrounding a processing region of a plasma processing apparatus, and wherein a plurality of passageways are defined between the respective insulated components; and at least one electrically conductive and grounded component forms an electrical field shielding for the processing region.

Abstract: A plasma confinement apparatus, and method for confining a plasma are described and which includes, in one form of the invention, a plurality of electrically insulated components which are disposed in predetermined spaced relation, one relative to the others, and surrounding a processing region of a plasma processing apparatus, and wherein a plurality of passageways are defined between the respective insulated components; and at least one electrically conductive and grounded component forms an electrical field shielding for the processing region.

Abstract: A yttria insulator ring for use in a plasma processing apparatus is provided to minimize arcing between the apparatus and a ground extension, while also increasing a mean time between cleanings (MTBC). The yttria insulator ring may be located between a ground extension and a plasma generation zone, or gap, of the chamber of the apparatus, as well as between an edge ring and the ground extension. Compared to a quartz ring, the yttria insulator ring can also provide improved semiconductor substrate uniformity because of improved RF coupling as a result of decreased reactivity and increased dielectric constant.

Abstract: A plasma confinement apparatus, and method for confining a plasma are described and which includes, in one form of the invention, a plurality of electrically insulated components which are disposed in predetermined spaced relation, one relative to the others, and surrounding a processing region of a plasma processing apparatus, and wherein a plurality of passageways are defined between the respective insulated components; and at least one electrically conductive and grounded component forms an electrical field shielding for the processing region.

Abstract: A yttria insulator ring for use in a plasma processing apparatus is provided to minimize arcing between the apparatus and a ground extension, while also increasing a mean time between cleanings (MTBC). The yttria insulator ring may be located between a ground extension and a plasma generation zone, or gap, of the chamber of the apparatus, as well as between an edge ring and the ground extension. Compared to a quartz ring, the yttria insulator ring can also provide improved semiconductor substrate uniformity because of improved RF coupling as a result of decreased reactivity and increased dielectric constant.