Avery Dennison Corporation

Applied Materials, Inc.

Avery Dennison Retail Information Services, LLC

Streaming Sales LLC

Xiao-Ming He

Ramin Heydarpour

Dong-Tsai Hseih

Yi-Hung Chiao

Kuolih Tsai

Alan Morgenthau

Li Shu

Jennifer Y Sun

Yukihiko Sasaki

David Nicholas Edwards

Scott Wayne Ferguson

Liviu Dinescu

Cheng-Hsuan Chou

Dmitry Lubomirsky

Senh Thach

Toan Q Tran

Kaushal Gangakhedkar

Xiaowei Wu

Tae Won Kim

Laksheswar Kalita

Disclosed are rare earth metal containing silicate coatings, coated articles (e.g., heaters and susceptors) or bodies of articles and methods of coating such articles with a rare earth metal containing silicate coating.

Erosion resistant metal silicate coatings

Disclosed herein is an article comprising one or more channels and a multi-layer protective coating on the one or more channels. The multi-layer protective coating includes an anodization layer comprising a plurality of cracks and a plurality of pores, a sealing layer on the anodization layer, and a top layer on the sealing layer. The sealing layer comprises a metal oxide, the seals the plurality of cracks and the plurality of pores, and has a porosity of approximately 0%. The top layer comprises a rare earth oxide, a rare earth fluoride, or a rare earth oxyfluoride, has a different material composition than the sealing layer, and has a porosity of approximately 0%.

Plasma resistant multi-layer architecture for high aspect ratio parts

Methods comprise performing two or more thermal cycles on an article comprising a body and a ceramic coating. Each thermal cycle of the two or more thermal cycles comprise heating the ceramic article to a target temperature at a first ramping rate. Each thermal cycle further comprises maintaining the article at the target temperature for a first duration of time and then cooling the article to a second target temperature at a second ramping rate. The method further comprises submerging the article in a bath for a second duration of time to remove the particles from the ceramic coating.

Methods of minimizing particles on wafer from plasma spray coatings

A method of applying a multi-layer plasma resistant coating on an article comprises performing plating or ALD to form a conformal first plasma resistant layer on an article, wherein the conformal first plasma resistant layer is formed on a surface of the article and on walls of high aspect ratio features in the article. The conformal first plasma resistant coating has a porosity of approximately 0% and a thickness of approximately 200 nm to approximately 1 micron. One of electron beam ion assisted deposition (EB-IAD), plasma enhanced chemical vapor deposition (PECVD), aerosol deposition or plasma spraying is then performed to form a second plasma resistant layer that covers the conformal first plasma resistant layer at a region of the surface but not at the walls of the high aspect ratio features.

Multi-layer plasma erosion protection for chamber components

A method for labeling fabrics, such as fabric garments, and a heat-transfer label well-suited for use in the method. In one embodiment, the heat-transfer label includes (a) a support portion; and (b) a transfer portion, the transfer portion being positioned over the support portion for transfer of the transfer portion from the support portion to an article of fabric under conditions of heat and pressure, the transfer portion including (i) an ink design layer; (ii) a heat-activatable adhesive layer; and (iii) an RFID device.

Method for labeling fabrics and heat-transfer label well-suited for use in said method

A label assembly and method of using the same to label articles durably, yet removably. In one embodiment, the method includes providing an image removing laminate. The image removing laminate includes (i) a remover support, and (ii) a remover layer secured to the remover support, the remover layer, upon being activated by at least one of heat and light, being bondable to an ink image on a garment in such a way that the bonding between the remover layer and the ink image is stronger than the bonding between the ink image and the garment. The method then includes bonding the remover layer of the image removing laminate to the ink image on the garment and, then, detaching the ink image from the garment by separating the image removing laminate away from the garment.

Label assembly and method of using the same to label articles durably yet removably

A method for labeling fabrics, such as fabric garments, and a heat-transfer label well-suited for use in said method. In one embodiment, the heat-transfer label comprises (i) a support portion, the support portion comprising a carrier and a release layer; (ii) a wax layer, the wax layer overcoating the release layer; and (iii) a transfer portion, the transfer portion comprising an adhesive layer printed onto the wax layer and an ink design layer printed onto the adhesive layer. Preferably, at least a portion of the ink design layer is printed using a variable printing technique, such as thermal transfer printing.

Heat-transfer label well-suited for labeling fabrics and methods of making and using the same

A label assembly and method of using the same to label articles durably, yet removably. In one embodiment, the label assembly is used to label fabric articles, such as clothing, and comprises (a) an image forming laminate for forming an image on the fabric article, the image forming laminate comprising an ink layer, the ink layer being bondable to the fabric article; and (b) an image removing laminate for removing the image from the fabric article, the image removing laminate comprising a remover layer, the remover layer, upon being activated by heat and/or light, being bondable to the ink layer of the image forming laminate; (c) whereby, upon bonding of the image removing laminate to the ink layer, the bonding between the image removing laminate and the ink layer is stronger than the bonding between the ink layer and the fabric article.

Plasma resistant coating materials, plasma resistant coatings and methods of forming such coatings on hardware components. In one embodiment, hardware component is an electrostatic chuck (ESC) and the plasma resistant coating is formed on a surface of the ESC. The plasma resistant coatings are formed by methods other than thermal spraying to provide plasma resistant coatings having advantageous material properties.

Plasma resistant coatings for plasma chamber components

A method for labeling fabrics, such as fabric garments, and a heat-transfer label () well-suited for use in said method. In one embodiment, the heat-transfer label () comprises (i) a support portion (), the support portion () comprising a carrier () and a release layer (); (ii) a wax layer (), the wax layer overcoating the release layer (); and (iii) a transfer portion (), the transfer portion () comprising an adhesive layer () printed directly onto the wax layer () and an ink design layer () printed directly onto the adhesive layer (). Each of the adhesive layer () and the ink design layer includes a non-cross-linked PVC resin. The ink design layer may be screen printed onto the adhesive layer () or may be printed onto the adhesive layer () using thermal transfer printing, ink jet printing or laser printing.

Heat transfer label for fabric with thermochromic ink and adhesive surface roughness

Methods for roll-to-roll deposition of optically transparent and high conductivity metallic thin films are disclosed. In general, a method according to the present invention comprises: (1) providing a flexible plastic substrate; (2) depositing a multi-layered conductive metallic film on the flexible plastic substrate by a thin-film deposition technique to form a composite film; and (3) collecting the composite film in continuous rolls. Typically, the thin conductive metallic film is an InCeO&#x2014;Ag&#x2014;InCeO film. Typically, the thin-film deposition technique is DC magnetron sputtering. Another aspect of the invention is a composite film produced by a method according to the present invention. Still another aspect of the invention is a composite film comprising InCeO&#x2014;Ag&#x2014;InCeO film formed on a flexible plastic substrate, wherein the composite film has a combination of properties including: transmittance of at least 90% throughout the visible region; an electrical resistance of no greater than about 10 &#x3a9;/square; a root-mean-square roughness of no greater than about 2.5 nm; and an interlayer adhesion between the InCeO/Ag/InCeO metallic film and the remainder of the composite film that is sufficiently great to survive a 180&#xb0; peel adhesion test.

Method for roll-to-roll deposition of optically transparent and high conductivity metallic thin films

Substrates having films are used to produce flat panel displays and similar devices. Various embodiments of transparent conductive films and methods for the same for flat panel displays and similar devices are disclosed herein.

Growing community of inventors

Arcadia, CA, United States of America

Xiao-Ming He