Abstract:
A method of forming patterned features on a substrate is provided. The method includes positioning a plurality of masks arranged in a mask layout over a substrate. The substrate is positioned in a first plane and the plurality of masks are positioned in a second plane, the plurality of masks in the mask layout have edges that each extend parallel to the first plane and parallel or perpendicular to an alignment feature on the substrate, the substrate includes a plurality of areas configured to be patterned by energy directed through the masks arranged in the mask layout. The method further includes directing energy towards the plurality of areas through the plurality of masks arranged in the mask layout over the substrate to form a plurality of patterned features in each of the plurality of areas.
Abstract:
Embodiments of the present disclosure generally relate to methods and materials for optical device fabrication. More specifically, embodiments described herein provide for optical film deposition methods and materials to expand the process window for amorphous optical film deposition via incorporation of dopant atoms by suppressing the crystal growth of optical materials during deposition. By enabling amorphous films to be deposited at higher temperatures, significant cost savings and increased throughput are possible.
Abstract:
Embodiments of the present disclosure relate to methods for positioning masks in a propagation direction of a light source. The masks correspond to a pattern to be written into a photoresist layer of a substrate. The masks are positioned by stitching a first mask and a second mask. The first mask includes a set of first features having first feature extensions extending therefrom at first feature interfaces. The second mask includes a set of second features having second feature extensions extending therefrom at second feature interfaces. Each first feature extension stitches with each corresponding second feature extension to form each stitched portion of a first stitched portion of the first pair of masks. The stitched portion of the first pair of masks defines a portion of the pattern to be written into the photoresist layer.
Abstract:
Implementations described herein relate to apparatus for post exposure processing. More specifically, implementations described herein relate to field-guided post exposure process chambers and cool down/development chambers used on process platforms. In one implementation, a plurality of post exposure process chamber and cool/down development chamber pairs are positioned on a process platform in a stacked arrangement and utilize a shared plumbing module. In another implementation, a plurality of post exposure process chamber and cool down/development chambers are positioned on a process platform in a linear arrangement and each of the chambers utilize an individually dedicated plumbing module.
Abstract:
Systems and methods herein are related to the formation of optical devices including stacked optical element layers using silicon wafers, glass, or devices as substrates. The optical elements discussed herein can be fabricated on temporary or permanent substrates. In some examples, the optical devices are fabricated to include transparent substrates or devices including charge-coupled devices (CCD), or complementary metal-oxide semiconductor (CMOS) image sensors, light-emitting diodes (LED), a micro-LED (uLED) display, organic light-emitting diode (OLED) or vertical-cavity surface-emitting laser (VCSELs). The optical elements can have interlayers formed in between optical element layers, where the interlayers can range in thickness from 1 nm to 3 mm.
Abstract:
Embodiments described herein generally relate to biomedical devices including a porous layer forming a support structure for a biological probe and methods of making the same. The porous layer can be a porous silicon containing layer. The pore size can be adjusted such that various size biological probes can be incorporated into the pores. Further, the porous silicon containing layer can be used to support a biofunctionalizing layer.
Abstract:
Embodiments described herein relate to methods and apparatus for performing immersion field guided post exposure bake processes. Embodiments of apparatus described herein include a chamber body defining a processing volume. A pedestal may be disposed within the processing volume and a first electrode may be coupled to the pedestal. A moveable stem may extend through the chamber body opposite the pedestal and a second electrode may be coupled to the moveable stem. In certain embodiments, a fluid containment ring may be coupled to the pedestal and a dielectric containment ring may be coupled to the second electrode.
Abstract:
Embodiments described herein relate to apparatus and methods for processing a substrate. In one embodiment, a cluster tool apparatus is provided having a transfer chamber and a pre-clean chamber, a self-assembled monolayer (SAM) deposition chamber, an atomic layer deposition (ALD) chamber, and a post-processing chamber disposed about the transfer chamber. A substrate may be processed by the cluster tool and transferred between the pre-clean chamber, the SAM deposition chamber, the ALD chamber, and the post-processing chamber. Transfer of the substrate between each of the chambers may be facilitated by the transfer chamber which houses a transfer robot.
Abstract:
Methods disclosed herein provide apparatus and method for applying an electric field and/or a magnetic field to a photoresist layer without air gap intervention during photolithography processes. In one embodiment, an apparatus includes a processing chamber comprising a substrate support having a substrate supporting surface, a heat source embedded in the substrate support configured to heat a substrate positioned on the substrate supporting surface, an electrode assembly configured to generate an electric field in a direction substantially perpendicular to the substrate supporting surface, wherein the electrode assembly is positioned opposite the substrate supporting surface having a downward surface facing the substrate supporting surface, wherein the electrode assembly is spaced apart from substrate support defining a processing volume between the electrode assembly and the substrate supporting surface, and a confinement ring disposed on an edge of the substrate support or the electrode assembly configured to retain an intermediate medium.
Abstract:
A method and apparatus for exposing a photoresist in the presence of an electric field using a high power continuous wave source as a radiation source is disclosed herein. In one embodiment, a processing region includes a stage, a translation mechanism, a continuous wave electromagnetic module, and plurality of electrode assemblies. The continuous wave electromagnetic module includes a continuous wave electromagnetic radiation source in the form of a high power continuous wave electromagnetic laser. An electric field is applied to the surface of the substrate using the plurality of electrode assemblies while the continuous wave electromagnetic radiation source selectively irradiates the surface of the substrate.