Abstract: Embodiments of the present disclosure generally relate to a lift pin assembly used for de-chucking substrates. The lift pin assembly includes a base and one or more lift pin holders. Each lift pin holder includes a first portion and a second portion. The first portion is coupled to the base by a metal connector and the second portion is coupled to the first portion by a metal connector. A resistor is disposed in the first portion of the lift pin holder. The second portion includes a lift pin support for supporting a lift pin. The lift pin, the lift pin support, and the metal connectors are electrically conductive. The base is connected to a reference voltage, such as the ground, forming a path for the residual electrostatic charge in the substrate from the substrate to the reference voltage.

Abstract: Implementations described herein provide a chamber lid assembly. In one embodiment, a chamber lid assembly includes a heater embedded in a dielectric body forming a boundary of a processing chamber, wherein the heater has one or more heating zones that are independently controlled.

Abstract: Implementations described herein provide a chamber lid assembly. In one embodiment, a chamber lid assembly includes a heater embedded in a dielectric body forming a boundary of a processing chamber, wherein the heater has one or more heating zones that are independently controlled.

Abstract: An electrostatic chuck assembly with improved thermal uniformity and stability is disclosed herein. The electrostatic chuck assembly includes a puck having a chucking electrode disposed therein and a cooling base connected to the puck. The cooling base is formed a first material and includes a top surface, a first cooling channel, a second cooling channel configured to flow coolant therethrough independent of flow through the first cooling channel, and a first thermal spreading element aligned with the first cooling channel and disposed between the first cooling channel and the puck. The first thermal spreading element is formed from a second material that has a thermal conductivity higher than a thermal conductivity of the first material.

Abstract: An electrostatic chuck assembly with improved thermal uniformity and stability is disclosed herein. The electrostatic chuck assembly includes a puck having a chucking electrode disposed therein and a cooling base connected to the puck. The cooling base is formed a first material and includes a top surface, a first cooling channel, a second cooling channel configured to flow coolant therethrough independent of flow through the first cooling channel, and a first thermal spreading element aligned with the first cooling channel and disposed between the first cooling channel and the puck. The first thermal spreading element is formed from a second material that has a thermal conductivity higher than a thermal conductivity of the first material.

Abstract: Implementations described herein provide a lift pin actuator. The lift pin actuator has a housing. The housing has an interior volume. A track is disposed in the interior volume and coupled to the housing. A center shaft is at least partially disposed in the interior volume of the housing. A guide is movably coupled to the track. At least one internal bellows is disposed in the interior volume, the internal bellows form a seal between the center shaft and the housing. An elastic member is disposed in the interior volume and configured to apply a force that retracts the center shaft into the housing. An inlet port is configured to introduce fluid into the interior volume between the internal bellows and the housing. The fluid generates a force opposing the elastic member to extend the center shaft relative to the housing.

Abstract: Embodiments of the present disclosure generally relate to a lift pin assembly used for de-chucking substrates. The lift pin assembly includes a base and one or more lift pin holders. Each lift pin holder includes a first portion and a second portion. The first portion is coupled to the base by a metal connector and the second portion is coupled to the first portion by a metal connector. A resistor is disposed in the first portion of the lift pin holder. The second portion includes a lift pin support for supporting a lift pin. The lift pin, the lift pin support, and the metal connectors are electrically conductive. The base is connected to a reference voltage, such as the ground, forming a path for the residual electrostatic charge in the substrate from the substrate to the reference voltage.

Abstract: Implementations described herein provide a lift pin actuator. The lift pin actuator has a housing. The housing has an interior volume. A track is disposed in the interior volume and coupled to the housing. A center shaft is at least partially disposed in the interior volume of the housing. A guide is movably coupled to the track. At least one internal bellows is disposed in the interior volume, the internal bellows form a seal between the center shaft and the housing. An elastic member is disposed in the interior volume and configured to apply a force that retracts the center shaft into the housing. An inlet port is configured to introduce fluid into the interior volume between the internal bellows and the housing. The fluid generates a force opposing the elastic member to extend the center shaft relative to the housing.

Abstract: Plasma generation source employing dielectric conduit assemblies having removable interfaces and related assemblies and methods are disclosed. The plasma generation source (PGS) includes an enclosure body having multiple internal surfaces forming an internal chamber having input and output ports to respectively receive a precursor gas for generation of plasma and to discharge the plasma. A dielectric conduit assembly may guide the gas and the plasma away from the internal surface where particulates may be generated. The dielectric conduit assembly includes a first and second cross-conduit segments. The dielectric conduit assembly further includes parallel conduit segments extending from the second cross-conduit segment to distal ends which removably align with first cross-conduit interfaces of the first cross-conduit segment without leaving gaps. In this manner, the dielectric conduit assembly is easily serviced, and reduces and contains particulate generation away from the output port.

Abstract: Plasma generation source employing dielectric conduit assemblies having removable interfaces and related assemblies and methods are disclosed. The plasma generation source (PGS) includes an enclosure body having multiple internal surfaces forming an internal chamber having input and output ports to respectively receive a precursor gas for generation of plasma and to discharge the plasma. A dielectric conduit assembly may guide the gas and the plasma away from the internal surface where particulates may be generated. The dielectric conduit assembly includes a first and second cross-conduit segments. The dielectric conduit assembly further includes parallel conduit segments extending from the second cross-conduit segment to distal ends which removably align with first cross-conduit interfaces of the first cross-conduit segment without leaving gaps. In this manner, the dielectric conduit assembly is easily serviced, and reduces and contains particulate generation away from the output port.