mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communication, the method comprising: updating , at a data concentrator , a first encryption key to a second encryption key to encrypt communication between the data concentrator and a plurality of wireless nodes (20a-20n), wherein the data concentrator comprises a first transceiver and a second transceiver ; encrypting the second encryption key using the first encryption key; communicating , via the first transceiver , the second encryption key to a first wireless node ; decrypting, by the first wireless node , the encrypted second encryption key using the first encryption key; updating, at the first wireless node , the first encryption key to the second encryption key; decrypting first data transmissions received from the first wireless node via the first transceiver using the first encryption key; decrypting the first data transmissions received from the first wireless node via the second transceiver using the second encryption key; and verifying that the first wireless node updated to the second encryption key based upon successfully decrypting the first data transmissions from the first wireless node via the second transceiver using the second encryption key. updating , at a data concentrator , a first encryption key to a second encryption key to encrypt communication between the data concentrator and a plurality of wireless nodes (20a-20n), wherein the data concentrator comprises a first transceiver and a second transceiver ; encrypting the second encryption key using the first encryption key; communicating , via the first transceiver , the second encryption key to a first wireless node ; decrypting, by the first wireless node , the encrypted second encryption key using the first encryption key; updating, at the first wireless node , the first encryption key to the second encryption key; decrypting first data transmissions received from the first wireless node via the first transceiver using the first encryption key; decrypting the first data transmissions received from the first wireless node via the second transceiver using the second encryption key; and verifying that the first wireless node updated to the second encryption key based upon successfully decrypting the first data transmissions from the first wireless node via the second transceiver using the second encryption key.
A toothed belt for synchronous transmission comprising a plurality of tooth parts that are disposed at predetermined intervals along the longitudinal direction and comprise a rubber composition (A) as a base material, and a back side that has a cord embedded therein and comprises a rubber composition (B) as a base material, wherein the cord comprises a Lang-twisted carbon fiber and is formed in a diameter of 1.1 mm or more and 2.5 mm or less and the rubber composition (B) constituting the back side has a hardness of from 80 degrees to 89 degrees in JIS-A hardness; characterized in that the rubber composition (A) constituting the tooth parts has a hardness of from 92 degrees to 96 degrees in JIS-A hardness. wherein the cord comprises a Lang-twisted carbon fiber and is formed in a diameter of 1.1 mm or more and 2.5 mm or less and the rubber composition (B) constituting the back side has a hardness of from 80 degrees to 89 degrees in JIS-A hardness; characterized in that the rubber composition (A) constituting the tooth parts has a hardness of from 92 degrees to 96 degrees in JIS-A hardness.
An apparatus for photochemical water splitting, comprising a device for absorbing solar visible radiation, the device comprising: a. a plurality of nanowires , wherein the nanowires contain between 15% and 50% indium, said nanowires having at least a top surface and a bottom surface; characterized in that the device comprises b. a metal contact layer , having at least a top surface and a bottom surface, and said bottom surface of the metal contact layer being affixed to the top surface of each nanowire; and in that the device further comprises: c. a supporting layer , having at least a top surface and a bottom surface and being affixed to the top surface of the metal contact layer, wherein the supporting layer has one or more holes, said holes situated from the top surface of the supporting layer through the bottom surface of the supporting layer , said holes having a diameter and a depth, and wherein the location of each hole corresponds to an exposed area of the metal contact layer ; and wherein when the device is exposed to optical energy, said device can absorb said optical energy. a. a plurality of nanowires , wherein the nanowires contain between 15% and 50% indium, said nanowires having at least a top surface and a bottom surface; characterized in that the device comprises b. a metal contact layer , having at least a top surface and a bottom surface, and said bottom surface of the metal contact layer being affixed to the top surface of each nanowire; c. a supporting layer , having at least a top surface and a bottom surface and being affixed to the top surface of the metal contact layer, wherein the supporting layer has one or more holes, said holes situated from the top surface of the supporting layer through the bottom surface of the supporting layer , said holes having a diameter and a depth, and wherein the location of each hole corresponds to an exposed area of the metal contact layer ; and wherein when the device is exposed to optical energy, said device can absorb said optical energy.
A control method of a smart card , said smart card including a microcontroller , a fingerprint sensor and a light-emitting element , an operation of said smart card including a plurality of indication periods (Ti1~Ti5), said light-emitting element indicating operation statuses of said smart card in said plurality of indication periods (Ti1~Ti5), characterized in that the control method comprises the steps of: generating a light source control signal (LC); and controlling a current (Is) supplied to said light-emitting element by said microcontroller according to said light source control signal (LC), wherein a first indication period (Ti1) of said plurality of indication periods (Ti1~Ti5) comprises at least one power-saving period (P1~P4), and said current (Is) supplied to said light-emitting element is decreased or zero in said at least one power-saving period (P1~P4), wherein each of said power-saving periods (P1~P4) corresponds to a high current consumption of said microcontroller , said fingerprint sensor or said smart card , and each of said power-saving period (P1~P4) is so short that a user will feel that said light emitting element is always lightened in said first indication period (Ti1). generating a light source control signal (LC); and controlling a current (Is) supplied to said light-emitting element by said microcontroller according to said light source control signal (LC), wherein a first indication period (Ti1) of said plurality of indication periods (Ti1~Ti5) comprises at least one power-saving period (P1~P4), and said current (Is) supplied to said light-emitting element is decreased or zero in said at least one power-saving period (P1~P4), wherein each of said power-saving periods (P1~P4) corresponds to a high current consumption of said microcontroller , said fingerprint sensor or said smart card , and each of said power-saving period (P1~P4) is so short that a user will feel that said light emitting element is always lightened in said first indication period (Ti1).
An isotope transfer electrochemical cell for separating isotopes comprising: an anode plate and a cathode plate ; a proton exchange membrane ; gas diffusion layers positioned on either side of the proton exchange membrane , which together with the proton exchange membrane form a membrane electrode assembly; and a housing containing the anode and cathode plates in operable arrangement with the membrane electrode assembly, and defining a gas feed inlet , a product outlet , an outlet for excess gas, and internal flow paths for transfer of gases and fluids on either side of the membrane electrode assembly; wherein at least the anode gas diffusion layer comprises a catalyst layer . an anode plate and a cathode plate ; a proton exchange membrane ; gas diffusion layers positioned on either side of the proton exchange membrane , which together with the proton exchange membrane form a membrane electrode assembly; and a housing containing the anode and cathode plates in operable arrangement with the membrane electrode assembly, and defining a gas feed inlet , a product outlet , an outlet for excess gas, and internal flow paths for transfer of gases and fluids on either side of the membrane electrode assembly; wherein at least the anode gas diffusion layer comprises a catalyst layer .
A vacuum insulation panel, comprising: core material for a vacuum insulation panel, consisting of porous aluminosilicate having an argon adsorption Brunauer-Emmett-Teller (BET) surface area of 300 m 2 /g or more and an external specific surface area (ESA) of 150 m 2 /g or more, wherein the ESA of the porous aluminosilicate is determined from gas sorption experiments as a difference between the BET surface area of the porous aluminosilicate and the specific surface area from micropores, wherein the micropore is a pore having a pore size of less than 2 nm and the specific surface area of the micropore is estimated from t-plot method, wherein the porous aluminosilicate has pores satisfying the following Equation 1: V meso / V micro > 3.0 wherein V meso represents a Barrett-Joyner-Halenda (BJH) cumulative volume of a mesopore having a pore size of 2 nm to 300 nm, and V micro represents a volume of a micropore having a pore size of less than 2 nm, as calculated from argon adsorption Brunauer-Emmett-Teller (BET) surface area by the t-plot method; and an outer shell material sealing and covering the core material. wherein V meso represents a Barrett-Joyner-Halenda (BJH) cumulative volume of a mesopore having a pore size of 2 nm to 300 nm, and V micro represents a volume of a micropore having a pore size of less than 2 nm, as calculated from argon adsorption Brunauer-Emmett-Teller (BET) surface area by the t-plot method; and an outer shell material sealing and covering the core material.
A process for producing leather, wherein methanesulfonic acid (MSA) is used in the pickling step at a pH value above or equal to 4.
An anaerobically curable one-part composition comprising: (a) at least one (meth)acrylate component; (b) an anaerobic cure inducing component; and (c) a toughening agent which is (i) a combination of a styrene butadiene block copolymer and methacrylate functionalised polybutadiene, wherein the weight ratio of the methacrylate functionalised polybutadiene to the styrene butadiene block copolymer is from 1:5 to 5:1. (a) at least one (meth)acrylate component; (b) an anaerobic cure inducing component; and (c) a toughening agent which is (i) a combination of a styrene butadiene block copolymer and methacrylate functionalised polybutadiene, wherein the weight ratio of the methacrylate functionalised polybutadiene to the styrene butadiene block copolymer is from 1:5 to 5:1.
Adjustment set for mounting a frame , in particular a window frame, on a soffit , wherein the adjustment set has a first adjustment device , which is configured for attaching to the frame in such a way that, in the attached state, a lateral outer surface of the first adjustment device is substantially exposed with respect to the frame ; and a second adjustment device , which is configured to be attached to the soffit ; wherein the first adjustment device and the second adjustment device are configured correspondingly to each other in such a way that by connecting connection structures of the first adjustment device and the second adjustment device and by relatively moving the first adjustment device and the second adjustment device , a total height (D) of the connected first and second adjustment devices and thus a distance between the frame and the soffit are adjustable; wherein the first adjustment device has an anti-rotation structure for protection against a rotating of the first adjustment device , when the first adjustment device and the second adjustment device are connected to each other and moved relative to each other, in particular when the second adjustment device is moved for screwing to the first adjustment device ; wherein the anti-rotation structure is adapted to provide the protection against a rotating of the first adjustment device without physical engagement with the frame ; characterized in that the anti-rotation structure has at least one groove in the first adjustment device for engagement by at least one thwart of the frame ; wherein the adjustment set has at least one of the following features: at least one of the at least one groove is formed in a front face of the first adjustment device , which front face faces the frame ; at least one of the at least one groove is formed in a lateral surface of the first adjustment device . at least one of the at least one groove is formed in a front face of the first adjustment device , which front face faces the frame ; at least one of the at least one groove is formed in a lateral surface of the first adjustment device .
System with a valve device (4, 4', 4", 4"') for a pneumatically operated brake system of a vehicle, - wherein the brake system comprises said valve device (4, 4', 4", 4"') and at least one brake and - wherein a pneumatic brake pressure that can be delivered to the brake can be adjusted by means of said valve device (4, 4', 4", 4"'), characterized in that - the system comprises at least two variants of said valve device (4, 4', 4", 4"'), which can be used alternatively in the brake system , - wherein a first variant of the value device (4, 4', 4", 4"') is in the form of a modulator for use on an electronically controlled embodiment of the brake system , - wherein a second variant of the value device (4, 4', 4", 4"') is designed for use in a pneumatically controlled embodiment of the brake system and - wherein the variants of the valve device (4, 4', 4", 4"') comprise mechanical fixing points designed identically to each other and pneumatic interfaces designed identically to each other. - wherein the brake system comprises said valve device (4, 4', 4", 4"') and at least one brake and - wherein a pneumatic brake pressure that can be delivered to the brake can be adjusted by means of said valve device (4, 4', 4", 4"'), characterized in that - the system comprises at least two variants of said valve device (4, 4', 4", 4"'), which can be used alternatively in the brake system , - wherein a first variant of the value device (4, 4', 4", 4"') is in the form of a modulator for use on an electronically controlled embodiment of the brake system , - wherein a second variant of the value device (4, 4', 4", 4"') is designed for use in a pneumatically controlled embodiment of the brake system and - wherein the variants of the valve device (4, 4', 4", 4"') comprise mechanical fixing points designed identically to each other and pneumatic interfaces designed identically to each other.
A sealing arrangement for a gas turbine, comprising: a transition duct having an upstream end and a downstream end , the transition duct comprising an aft frame that circumferentially surrounds the downstream end of the transition duct ; a stage one nozzle spaced apart from the aft frame and defining a gap therebetween; and a sealing assembly extending across the gap , the sealing assembly characterized by comprising: a seal link extending across the gap and magnetically coupled to the aft frame at an upstream end and magnetically coupled to the stage one nozzle at a downstream end , wherein the upstream end of the seal link is coupled to the aft frame via a first magnetic ball socket joint , and wherein the downstream end of the seal link is coupled to the stage one nozzle via a second magnetic ball socket joint . a transition duct having an upstream end and a downstream end , the transition duct comprising an aft frame that circumferentially surrounds the downstream end of the transition duct ; a stage one nozzle spaced apart from the aft frame and defining a gap therebetween; and a sealing assembly extending across the gap , the sealing assembly characterized by comprising: a seal link extending across the gap and magnetically coupled to the aft frame at an upstream end and magnetically coupled to the stage one nozzle at a downstream end , wherein the upstream end of the seal link is coupled to the aft frame via a first magnetic ball socket joint , and wherein the downstream end of the seal link is coupled to the stage one nozzle via a second magnetic ball socket joint . a seal link extending across the gap and magnetically coupled to the aft frame at an upstream end and magnetically coupled to the stage one nozzle at a downstream end , wherein the upstream end of the seal link is coupled to the aft frame via a first magnetic ball socket joint , and wherein the downstream end of the seal link is coupled to the stage one nozzle via a second magnetic ball socket joint .
A computer implemented process for providing an operating program in the form of a mobile application (MAPP) that is executable on a mobile device (MD) for interactions such as operation, monitoring, configuration and/or diagnosis, with an application program (DA) of an automation device (D) for the operation and/or monitoring of a machine (M) or installation, characterized by the fact, that the mobile application (MAPP) is generated from an application description (DAD) of the application program (DA) of the automation device; wherein the application description (DAD) of the application program (DA) is loaded in an application generator system (APPGS); wherein the application description (DAD) is analyzed as regards its structure and its contents, and is broken down in segments; wherein component descriptions (UICD, DCD, FCD, STCD) are created out of the segments of the application description, and the component-descriptions (UICD, DCD, FCD, STCD) are selected by a user, which are necessary for the interaction of the mobile application with the application program (DA) running on the automation device (AD), wherein the component descriptions (UICD, DCD, FCD, STCD) are analyzed as regards the application-specific software artifacts (ADSI) and/or mobile-device-specific software artifacts, including at least deployment rules (MDR) or dependency (MDEP); wherein the application-specific software artifacts (EOBJ, EMOD, ECOM, ESERV) necessary for the automatic generation of the mobile application (MAPP) and/or the mobile-device-specific software artifacts (MDSR, MDEP) necessary for the automatic generation of the mobile application (MAPP) are selected and are downloaded from storage (DS1, DS2); wherein application components (MUIC, MDC, MFC, MSTC) are created from the selected and loaded application-specific software artifacts (EOBJ, EMOD, ECOM, ESERV) and/or the selected and loaded mobile-device-specific software artifacts (MDR, MDEP) and wherein a source code for the mobile application, executable on the mobile device, is generated out of the application components (MUIC, MDC, MFC, MSTC).
An indoor unit of an air conditioner comprising: a panel body encasing side portions and a top portion of the air conditioner and configured to mount a front panel; a rear housing encasing a rear portion of the air conditioner; and the front panel located in front of the panel body and closely connected to the panel body, wherein the rear housing , the panel body and the front panel define an inner cavity of the air conditioner; an air outlet is provided at a lower portion of the front panel ; and an air deflector is provided on the front panel or the panel body , and is configured to open and close the air outlet , an air baffle rib is provided at a top portion of the air outlet , and extends from the top portion of the air outlet towards the air outlet ; and the air baffle rib is configured as an elongated rib-like member attached closely to the top portion of the air outlet in a horizontal direction, and has a horizontal width dimension smaller than or equal to a width dimension of the air outlet , characterized in that , the panel body is provided with a notch for mounting the front panel and a rabbet for fixing the rear housing , the air baffle rib is formed by extending the panel body towards the top of the air outlet , and a water film region is formed between a bottom portion of the front panel and the air baffle rib .
A method of safe access control , comprising: a) A room access control module of a hotel room determining that a user has presented an access credential ; b) the room access control module reading the room and safe access information from the credential and determining privileges based thereon; c) in case of invalid room access information the room access control module maintaining room access control under secure conditions; d) in case of valid room access information, the room access control module determining if access to the safe within the room is allowed, using the safe access information; e) if access to the safe within the room is not allowed, the room access control module allowing access to the room, but not activating access to the safe ; f) if access to the safe within the room is allowed the room access control module activating access to the safe by sending directly or wirelessly instructions to the safe access control module of an in-room safe to inform the safe access control module to allow access to the credential; g) the safe access control module determining that a user has presented an access credential ; h) the safe access control module authenticating safe access based on the presented access credential by checking that both h1) the credential is allowed safe access and h2) access to the safe was activated by the room access control module . a) A room access control module of a hotel room determining that a user has presented an access credential ; b) the room access control module reading the room and safe access information from the credential and determining privileges based thereon; c) in case of invalid room access information the room access control module maintaining room access control under secure conditions; d) in case of valid room access information, the room access control module determining if access to the safe within the room is allowed, using the safe access information; e) if access to the safe within the room is not allowed, the room access control module allowing access to the room, but not activating access to the safe ; f) if access to the safe within the room is allowed the room access control module activating access to the safe by sending directly or wirelessly instructions to the safe access control module of an in-room safe to inform the safe access control module to allow access to the credential; g) the safe access control module determining that a user has presented an access credential ; h) the safe access control module authenticating safe access based on the presented access credential by checking that both h1) the credential is allowed safe access and h2) access to the safe was activated by the room access control module .