Abstract:
Embodiments of the present disclosure generally relate to a batch processing chamber that is adapted to simultaneously cure multiple substrates at one time. The batch processing chamber includes multiple processing sub-regions that are each independently temperature controlled. The batch processing chamber may include a first and a second sub-processing region that are each serviced by a substrate transport device external to the batch processing chamber. In addition, a slotted cover mounted on the loading opening of the batch curing chamber reduces the effect of ambient air entering the chamber during loading and unloading.
Abstract:
A system to form a dielectric layer on a substrate from a plasma of dielectric precursors is described. The system may include a deposition chamber, a substrate stage in the deposition chamber to hold the substrate, and a remote plasma generating system coupled to the deposition chamber, where the plasma generating system is used to generate a dielectric precursor having one or more reactive radicals. The system may also include a precursor distribution system that includes at least one top inlet and a plurality of side inlets. The top inlet may be positioned above the substrate stage and the side inlets may be radially distributed around the substrate stage. The reactive radical precursor may be supplied to the deposition chamber through the top inlet. An in-situ plasma generating system may also be included to generate the plasma in the deposition chamber from the dielectric precursors supplied to the deposition chamber.
Abstract:
A gas distribution plate for a plasma reactor has a dielectric front plate and a dielectric back plate bonded together, with gas injection orifices extending through the front plate and gas supply channels in the surface of front plate facing the back plate. The back plate is joined to a heat reflective plate, or the back plate itself is formed of a heat reflective material, such as Beryllium Oxide.
Abstract:
Plasma process chambers employing distribution grids having focusing surfaces thereon enabling angled fluxes to reach a substrate, and associated methods are disclosed. A distribution grid is disposed in a chamber between the plasma and a substrate. The distribution grid includes a first surface facing the substrate and a focusing surface facing the plasma. A passageway extends through the distribution grid, and is sized with a width to prevent the plasma sheath from entering therein. By positioning the focusing surface at an angle other than parallel to the substrate, an ion flux from the plasma may be accelerated across the plasma sheath and particles of the flux pass through the passageway to be incident upon the substrate. In this manner, the angled ion flux may perform thin film deposition and etch processes on sidewalls of features extending orthogonally from or into the substrate, as well as angled implant and surface modification.
Abstract:
A plasma reactor has a microwave source including a microwave window with a channel extending through the window and a coolant source for flowing a coolant through the channel. The coolant is a liquid that does not absorb microwave power.
Abstract:
Substrate processing systems are described that have a capacitively coupled plasma (CCP) unit positioned inside a process chamber. The CCP unit may include a plasma excitation region formed between a first electrode and a second electrode. The first electrode may include a first plurality of openings to permit a first gas to enter the plasma excitation region, and the second electrode may include a second plurality of openings to permit an activated gas to exit the plasma excitation region. The system may further include a gas inlet for supplying the first gas to the first electrode of the CCP unit, and a pedestal that is operable to support a substrate. The pedestal is positioned below a gas reaction region into which the activated gas travels from the CCP unit.
Abstract:
A method includes flowing an evaporated low vapor pressure organic molecule (OM) into a processing chamber including a substrate. The method further includes depositing, in the processing chamber, the low vapor pressure OM onto at least a portion of the substrate at a first temperature and a first pressure to form a self-assembled monolayer (SAM) on at least the portion of the substrate. The method further includes annealing, in the processing chamber, the SAM on at least the portion of the substrate at a second temperature and a second pressure. The second pressure is greater than the first pressure and the second temperature is greater than the first temperature.
Abstract:
Embodiments of the disclosure relate to an apparatus and method for processing semiconductor substrates. In one embodiment, a processing system is disclosed. The processing system includes an outer chamber that surrounds an inner chamber. The inner chamber includes a substrate support upon which a substrate is positioned during processing. The inner chamber is configured to have an internal volume that, when isolated from an internal volume of the outer chamber, is changeable such that the pressure within the internal volume of the inner chamber may be varied.
Abstract:
The present disclosure relates to high pressure processing apparatus for semiconductor processing. The apparatus described herein include a high pressure process chamber and a containment chamber surrounding the process chamber. A high pressure fluid delivery module is in fluid communication with the high pressure process chamber and is configured to deliver a high pressure fluid to the process chamber.