mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a measurement structure for measuring alignment of a pattern formed in a layer of patternable material disposed over a substrate using multiple exposure tools having different resolution limits and maximum expose field sizes, wherein the measurement structure includes multiple complementary parts, the method comprising: coating the substrate with a patternable material, exposing an abutting field pattern in the layer of patternable material using a first exposure tool and a first mask holding a unit cell pattern and portions of the multiple complementary parts, wherein the abutting field pattern is stitched in the patternable material and includes plural stitched unit cell patterns and a first portion of the multiple complementary parts; and exposing a periphery pattern in the layer of patternable material that surrounds the stitched abutting field pattern using a second exposure tool and a second mask, wherein the periphery pattern includes a second portion of the multiple complementary parts that is complementary with the first portion of the multiple complementary parts,, wherein a maximum expose field of the first exposure tool is smaller than the maximum expose field of the second exposure tool so that the combination of the stitched abutting field pattern and the periphery pattern forms a complementary measurement structure in the layer of patternable material. coating the substrate with a patternable material, exposing an abutting field pattern in the layer of patternable material using a first exposure tool and a first mask holding a unit cell pattern and portions of the multiple complementary parts, wherein the abutting field pattern is stitched in the patternable material and includes plural stitched unit cell patterns and a first portion of the multiple complementary parts; and exposing a periphery pattern in the layer of patternable material that surrounds the stitched abutting field pattern using a second exposure tool and a second mask, wherein the periphery pattern includes a second portion of the multiple complementary parts that is complementary with the first portion of the multiple complementary parts,, wherein a maximum expose field of the first exposure tool is smaller than the maximum expose field of the second exposure tool so that the combination of the stitched abutting field pattern and the periphery pattern forms a complementary measurement structure in the layer of patternable material.
A remote control device that is configured for use in a load control system comprising a load control device, the load control device configured to control an amount of power delivered to an electrical load that is electrically connected to the load control device, the remote control device comprising: an adapter plate configured to be attached to a yoke of a mechanical switch that controls whether power is delivered to the electrical load, the adapter plate defining a first opening ; a mounting frame that defines a plate, a second opening therethrough and a mounting ring extending from the plate and surrounding the second opening a control unit configured to be attached to the mounting ring, the control unit comprising a user interface and a wireless communication circuit, the control unit configured to translate a user input received via the user interface into a control signal that controls the load control device, and to cause the wireless communication circuit to transmit the control signal; and a faceplate configured to be attached to the adapter plate , the faceplate defining a third opening therethrough, wherein when the mechanical switch is mounted in a wallbox, the mounting frame is attached to the adapter plate and the adapter plate is attached to the faceplate , and wherein when the mechanical switch is mounted in the wallbox, the mounting frame abuts a bezel of the mechanical switch such that the faceplate is spaced away from the bezel of the mechanical switch to enable the mounting ring to extend through the first opening and the third opening, and wherein a portion of the mechanical switch extends through the second opening. an adapter plate configured to be attached to a yoke of a mechanical switch that controls whether power is delivered to the electrical load, the adapter plate defining a first opening ; a mounting frame that defines a plate, a second opening therethrough and a mounting ring extending from the plate and surrounding the second opening a control unit configured to be attached to the mounting ring, the control unit comprising a user interface and a wireless communication circuit, the control unit configured to translate a user input received via the user interface into a control signal that controls the load control device, and to cause the wireless communication circuit to transmit the control signal; and a faceplate configured to be attached to the adapter plate , the faceplate defining a third opening therethrough, wherein when the mechanical switch is mounted in a wallbox, the mounting frame is attached to the adapter plate and the adapter plate is attached to the faceplate , and wherein when the mechanical switch is mounted in the wallbox, the mounting frame abuts a bezel of the mechanical switch such that the faceplate is spaced away from the bezel of the mechanical switch to enable the mounting ring to extend through the first opening and the third opening, and wherein a portion of the mechanical switch extends through the second opening.
A sliding window assembly for a vehicle, said assembly comprising: a track adapted to be coupled to the vehicle ; a sliding panel movable relative to said track between an open position and a closed position; a heating element coupled to said sliding panel for heating said sliding panel ; a conductive cable comprising a first terminal end coupled to a first end of said heating element , a conduit having an interior surface surrounding said conductive cable and an exterior surface being exposed; and a bracket mechanically coupled to said sliding panel and mechanically coupled to said first terminal end of said conductive cable and with said bracket defining a first pocket configured to receive said first terminal end to position said first terminal end into engagement with said first end of said heating element and wherein said conductive cable is configured to move said sliding panel by applying mechanical force to said bracket ; characterized in that : said conductive cable is the sole component within said conduit that is configured to transfer electrical current to energize said heating element and to undergo mechanical force to move said sliding panel relative to said track between said open and closed positions. a track adapted to be coupled to the vehicle ; a sliding panel movable relative to said track between an open position and a closed position; a heating element coupled to said sliding panel for heating said sliding panel ; a conductive cable comprising a first terminal end coupled to a first end of said heating element , a conduit having an interior surface surrounding said conductive cable and an exterior surface being exposed; and a bracket mechanically coupled to said sliding panel and mechanically coupled to said first terminal end of said conductive cable and with said bracket defining a first pocket configured to receive said first terminal end to position said first terminal end into engagement with said first end of said heating element and wherein said conductive cable is configured to move said sliding panel by applying mechanical force to said bracket ; characterized in that : said conductive cable is the sole component within said conduit that is configured to transfer electrical current to energize said heating element and to undergo mechanical force to move said sliding panel relative to said track between said open and closed positions.
A method for transferring a liquid from a storage vessel to a reaction vessel, comprising the steps a) providing the storage vessel, wherein the storage vessel has an inner base and an upper side and is closed in a pressure-sealing manner by a closure and wherein the nature of the storage vessel allows the pressure-sealing plunging of at least two hollow needles, b) pressure-sealing plunging of a first hollow needle which is connected to a flushing-liquid reservoir, and c) pressure-sealing plunging of a second hollow needle which is connected to the reaction vessel, d) introducing flushing liquid from the flushing-liquid reservoir into the storage vessel via the first hollow needle with outward driving of the liquid from the storage vessel into the reaction vessel via the second hollow needle, wherein both hollow needles are in the form of a double needle, in which both hollow needles are joined with the same orientation with parallel arrangement at least along the longitudinal axis. and wherein the first hollow needle has several escape openings at its end so that the jet of liquid exiting therefrom is split so that it is directed in at least two different directions. a) providing the storage vessel, wherein the storage vessel has an inner base and an upper side and is closed in a pressure-sealing manner by a closure and wherein the nature of the storage vessel allows the pressure-sealing plunging of at least two hollow needles, b) pressure-sealing plunging of a first hollow needle which is connected to a flushing-liquid reservoir, and c) pressure-sealing plunging of a second hollow needle which is connected to the reaction vessel, d) introducing flushing liquid from the flushing-liquid reservoir into the storage vessel via the first hollow needle with outward driving of the liquid from the storage vessel into the reaction vessel via the second hollow needle, wherein both hollow needles are in the form of a double needle, in which both hollow needles are joined with the same orientation with parallel arrangement at least along the longitudinal axis. and wherein the first hollow needle has several escape openings at its end so that the jet of liquid exiting therefrom is split so that it is directed in at least two different directions. wherein both hollow needles are in the form of a double needle, in which both hollow needles are joined with the same orientation with parallel arrangement at least along the longitudinal axis. and wherein the first hollow needle has several escape openings at its end so that the jet of liquid exiting therefrom is split so that it is directed in at least two different directions.
A computer implemented method comprising: receiving, by a client , a policy identifying a set of acceptable authentication capabilities; determining a set of client authentication capabilities of the client by reading from a secure storage of the client , a repository of the set of client authentication capabilities; filtering, by the client , the set of acceptable authentication capabilities based on a privacy preference level of a user of the client and the determined set of client authentication capabilities to arrive at a filtered set of one or more authentication capabilities for authenticating the user; and using, by the client , the filtered set of one or more authentication capabilities to authenticate the user over a network. receiving, by a client , a policy identifying a set of acceptable authentication capabilities; determining a set of client authentication capabilities of the client by reading from a secure storage of the client , a repository of the set of client authentication capabilities; filtering, by the client , the set of acceptable authentication capabilities based on a privacy preference level of a user of the client and the determined set of client authentication capabilities to arrive at a filtered set of one or more authentication capabilities for authenticating the user; and using, by the client , the filtered set of one or more authentication capabilities to authenticate the user over a network.
A printer for applying a stamp onto an official document, the printer comprising: - an access level with an inlet for inserting the document into and removing the document from the printer , - a processing level including a print head , and - an inter-level document transport system for moving a document receiving platen between a lower position corresponding to the access level and an upper position corresponding to the processing level such that when the document receiving platen is in the lower position, the top surface of the document receiving platen is substantially aligned with or lower than the bottom of the inlet , and when the document receiving platen is in the upper position, the top surface of the document receiving platen is substantially aligned with the top of the inlet , wherein the access level and the processing level are at least partly arranged on top of each other, characterized in that the inter-level document transport system is a pulley mechanism comprising at least one pulley connected to a motor , and the inter-level document transport system includes at least one spring biasing the document receiving platen . - an access level with an inlet for inserting the document into and removing the document from the printer , - a processing level including a print head , and - an inter-level document transport system for moving a document receiving platen between a lower position corresponding to the access level and an upper position corresponding to the processing level such that when the document receiving platen is in the lower position, the top surface of the document receiving platen is substantially aligned with or lower than the bottom of the inlet , and when the document receiving platen is in the upper position, the top surface of the document receiving platen is substantially aligned with the top of the inlet , wherein the access level and the processing level are at least partly arranged on top of each other, characterized in that the inter-level document transport system is a pulley mechanism comprising at least one pulley connected to a motor , and the inter-level document transport system includes at least one spring biasing the document receiving platen .
A field-effect transistor, such as an FDSOI transistor, comprising: - a substrate 200 covered by a thin surface layer made of a first semi-conducting material, in which a channel region is formed, the channel region being overlaid by a gate structure , the gate structure comprising a gate and insulating spacers lining the sidewalls of the gate, - a source region and a drain region , situated on either side of the insulating spacers , the source region and the drain region being formed from a faceted crystalline structure made of a second crystalline semi-conducting material comprising: - a first layer along the plane 100, non-faceted, in contact with the first semi-conducting material of the channel region , the first layer comprising two main faces parallel to one another and two lateral faces parallel to one another, the main faces being perpendicular to the lateral faces, one of the lateral faces being in contact with one of the spacers , - a second layer faceted along the plane 111, overlapping the first layer , the second layer comprising a first main face and a second main face parallel to one another and two lateral faces, the first main face being in contact with an upper main face of the first layer , the lateral faces forming a 50° to 59° angle, and preferably a 53° angle, with the first main face, the upper main face of the first layer being entirely overlapped by, and in contact with, the first main face of the second layer characterized in that the upper main face of the first layer is completely covered by and in contact with the first main face of the second layer. - a substrate 200 covered by a thin surface layer made of a first semi-conducting material, in which a channel region is formed, the channel region being overlaid by a gate structure , the gate structure comprising a gate and insulating spacers lining the sidewalls of the gate, - a source region and a drain region , situated on either side of the insulating spacers , - a first layer along the plane 100, non-faceted, in contact with the first semi-conducting material of the channel region , the first layer comprising two main faces parallel to one another and two lateral faces parallel to one another, the main faces being perpendicular to the lateral faces, one of the lateral faces being in contact with one of the spacers , - a second layer faceted along the plane 111, overlapping the first layer , the second layer comprising a first main face and a second main face parallel to one another and two lateral faces, the first main face being in contact with an upper main face of the first layer , the lateral faces forming a 50° to 59° angle, and preferably a 53° angle, with the first main face,
A deflector device for a vehicle, comprising: an upper frame , to be arranged along a front edge of an opening formed in a roof of a vehicle, the opening being opened and closed with a movable panel, wherein the upper frame can be raised and lowered with respect to the roof in accordance with an opening and closing operation of the movable panel; and a mesh member , which is coupled to the upper frame and fixed at the front edge of the opening , wherein the mesh member is changed between a deployed state and a stored state in accordance with the raising and lowering of the upper frame , wherein the upper frame includes a front end in a vehicle front-rear direction and a coupling position to which the mesh member is coupled, the upper frame includes a protrusion between the front end and the coupling position, and the protrusion protrudes forward from the upper frame and protrudes downward from the upper frame along the mesh member , the deflector device being characterized in that the protrusion protrudes forward and downward from a region of the upper frame that includes the front end and the coupling position so that the protrusion guides the mesh member to allow the mesh member to be drawn in downward and folded into the stored state when the upper frame is lowered from the deployed state of the mesh member . an upper frame , to be arranged along a front edge of an opening formed in a roof of a vehicle, the opening being opened and closed with a movable panel, wherein the upper frame can be raised and lowered with respect to the roof in accordance with an opening and closing operation of the movable panel; and a mesh member , which is coupled to the upper frame and fixed at the front edge of the opening , wherein the mesh member is changed between a deployed state and a stored state in accordance with the raising and lowering of the upper frame , wherein the upper frame includes a front end in a vehicle front-rear direction and a coupling position to which the mesh member is coupled, the upper frame includes a protrusion between the front end and the coupling position, and the protrusion protrudes forward from the upper frame and protrudes downward from the upper frame along the mesh member ,
An ethylene-vinyl alcohol copolymer resin composition comprising: an ethylene-vinyl alcohol copolymer; and at least one component selected from the group consisting of: (A) not greater than 500 ppm of a cinnamic acid component based on a weight of the resin composition; (B) not greater than 300 ppm of a lubricant based on the weight of the resin composition; (C) not greater than 400 ppm of a boron compound on a boron basis based on the weight of the resin composition; and (D) not greater than 800 ppm of a conjugated polyene compound based on the weight of the resin composition, wherein the ethylene-vinyl alcohol copolymer comprises monomer units including at least an ethylene unit and a vinyl alcohol unit, and a carboxylic acid group and a lactone ring present in terminal structures thereof, and characterized in that a ratio (Y/Z) of a lactone ring content (Y) to a sum (Z) of a carboxylic acid content (X) and the lactone ring content (Y) is not less than 55 %in molar ratio, wherein the amounts of the components (A) to (D) and the ratio (Y/Z) are determined according to the methods of the description. an ethylene-vinyl alcohol copolymer; and at least one component selected from the group consisting of: (A) not greater than 500 ppm of a cinnamic acid component based on a weight of the resin composition; (B) not greater than 300 ppm of a lubricant based on the weight of the resin composition; (C) not greater than 400 ppm of a boron compound on a boron basis based on the weight of the resin composition; and (D) not greater than 800 ppm of a conjugated polyene compound based on the weight of the resin composition, (A) not greater than 500 ppm of a cinnamic acid component based on a weight of the resin composition; (B) not greater than 300 ppm of a lubricant based on the weight of the resin composition; (C) not greater than 400 ppm of a boron compound on a boron basis based on the weight of the resin composition; and (D) not greater than 800 ppm of a conjugated polyene compound based on the weight of the resin composition, wherein the ethylene-vinyl alcohol copolymer comprises monomer units including at least an ethylene unit and a vinyl alcohol unit, and a carboxylic acid group and a lactone ring present in terminal structures thereof, and characterized in that a ratio (Y/Z) of a lactone ring content (Y) to a sum (Z) of a carboxylic acid content (X) and the lactone ring content (Y) is not less than 55 %in molar ratio, wherein the amounts of the components (A) to (D) and the ratio (Y/Z) are determined according to the methods of the description.
A method for oil recovery in a subsurface of an oil reservoir, the method comprising steps of: (a) providing at least one injection well within the subsurface; (b) providing a heat source to continuously heat the subsurface; (c) injecting at least one nutrient into the subsurface through the at least one injection well, the at least one nutrient being based on either specialized knowledge of a microbial seed bank and anaerobic microbial metabolism or presence of a specific microbial community present in a given reservoir; (d) stimulating activity of at least one gas-producing in situ dormant microorganism from an existing microbial seed bank present in situ located in the subsurface to produce a gas pressure; and (e) recovering oil through a production recovery well. (a) providing at least one injection well within the subsurface; (b) providing a heat source to continuously heat the subsurface; (c) injecting at least one nutrient into the subsurface through the at least one injection well, the at least one nutrient being based on either specialized knowledge of a microbial seed bank and anaerobic microbial metabolism or presence of a specific microbial community present in a given reservoir; (d) stimulating activity of at least one gas-producing in situ dormant microorganism from an existing microbial seed bank present in situ located in the subsurface to produce a gas pressure; and (e) recovering oil through a production recovery well.