mhurhangee/patent-ind-claim-en huggingface dataset:
A CMOS-based sensing device comprising: a substrate comprising an etched portion; a first dielectric region located on the substrate , wherein the first dielectric region comprises a first dielectric membrane region formed directly over an area of the etched portion of the substrate; a flow sensor formed completely within the first dielectric membrane region ; and a pressure sensor formed completely within said first dielectric membrane region . a substrate comprising an etched portion; a first dielectric region located on the substrate , wherein the first dielectric region comprises a first dielectric membrane region formed directly over an area of the etched portion of the substrate; a flow sensor formed completely within the first dielectric membrane region ; and a pressure sensor formed completely within said first dielectric membrane region .
A method comprising: receiving, by a wireless device, one or more radio resource control messages comprising configuration parameters for a plurality of cells, wherein the configuration parameters comprise: at least one first parameter indicating a first power saving mode associated with a cross-slot scheduling for a first cell of the plurality of cells; and at least one second parameter indicating a second power saving mode associated with a cross-slot scheduling for a second cell of the plurality of cells, wherein the second cell is different from the first cell; receiving downlink control information, DCI, indicating the first power saving mode associated with the cross-slot scheduling for the first cell; and based on a determination that physical downlink shared channel, PDSCH, resources are associated with the cross-slot scheduling for the first cell: receiving, via at least one PDSCH resource, of the PDSCH resources associated with the cross-slot scheduling for the first cell, and based on application of the at least one first parameter associated with the cross-slot scheduling for the first cell, at least one downlink transport block . receiving, by a wireless device, one or more radio resource control messages comprising configuration parameters for a plurality of cells, wherein the configuration parameters comprise: at least one first parameter indicating a first power saving mode associated with a cross-slot scheduling for a first cell of the plurality of cells; and at least one second parameter indicating a second power saving mode associated with a cross-slot scheduling for a second cell of the plurality of cells, wherein the second cell is different from the first cell; at least one first parameter indicating a first power saving mode associated with a cross-slot scheduling for a first cell of the plurality of cells; and at least one second parameter indicating a second power saving mode associated with a cross-slot scheduling for a second cell of the plurality of cells, wherein the second cell is different from the first cell; receiving downlink control information, DCI, indicating the first power saving mode associated with the cross-slot scheduling for the first cell; and based on a determination that physical downlink shared channel, PDSCH, resources are associated with the cross-slot scheduling for the first cell: receiving, via at least one PDSCH resource, of the PDSCH resources associated with the cross-slot scheduling for the first cell, and based on application of the at least one first parameter associated with the cross-slot scheduling for the first cell, at least one downlink transport block .
A milling machine , particularly a road milling machine, a stabiliser, a recycler, a surface miner or the like, have a replaceable milling drum , wherein various types of milling drum can be associated with the milling machine , and having a control unit for controlling the milling machine , wherein the machine parameters of the milling machine can be set by means of the control unit , characterised in that , at least one means which is designed to detect at least one characteristic feature of the milling drum is associated with the milling machine , that the at least one means is connected to the control unit and that the control unit is designed to specify a value to be set and/or a setting range indirectly or directly according to the characteristic feature for at least one machine parameter suitable for the milling task to be carried out.
A hot-melt coating method, in which disperse material is coated with a coating material to form a product consisting of surface-stable individual parts, characterized in that the coating material has a composition with at least 98 % by weight of one or more polyglycerol fatty acid esters each obtainable by complete or partial esterification of a linear or branched polyglycerol containing two to eight glycerol units with one or more fatty acid, each containing 6 to 22 carbon atoms, as the main constituent as a percentage by weight, wherein the gas or gas mixture used simultaneously to the spraying of the coating material has a temperature only 1°C to 3°C below the solidification temperature of the coating material during the spraying. the coating material has a composition with at least 98 % by weight of one or more polyglycerol fatty acid esters each obtainable by complete or partial esterification of a linear or branched polyglycerol containing two to eight glycerol units with one or more fatty acid, each containing 6 to 22 carbon atoms, as the main constituent as a percentage by weight, wherein the gas or gas mixture used simultaneously to the spraying of the coating material has a temperature only 1°C to 3°C below the solidification temperature of the coating material during the spraying.
A method for facilitating acquisition of metadata associated with a content, comprising: detecting one or more watermarks from a multimedia content received at a receiver device; and transmitting a request for metadata associated with the received multimedia content, the request transmitted using a hypertext transfer protocol, HTTP, for delivery to a metadata server and formed using a uniform resource locator, URL, wherein at least one of the detected one or more watermarks includes a payload that comprises a server code and an interval code that identifies an interval of the multimedia content that includes the one or more detected watermarks, wherein the URL includes a first section that includes a domain name associated with the detected server code, and a second section that includes the detected interval code, wherein the first section of the URL triggers the receiver device to employ the domain name service, DNS, protocol to obtain an internet protocol, IP, address of the metadata server, wherein the request for metadata is transmitted to the IP address and contains an HTTP query including the interval code; and receiving a response to the request, the response including metadata associated with the multimedia content. detecting one or more watermarks from a multimedia content received at a receiver device; and transmitting a request for metadata associated with the received multimedia content, the request transmitted using a hypertext transfer protocol, HTTP, for delivery to a metadata server and formed using a uniform resource locator, URL, wherein at least one of the detected one or more watermarks includes a payload that comprises a server code and an interval code that identifies an interval of the multimedia content that includes the one or more detected watermarks, wherein the URL includes a first section that includes a domain name associated with the detected server code, and a second section that includes the detected interval code, wherein the first section of the URL triggers the receiver device to employ the domain name service, DNS, protocol to obtain an internet protocol, IP, address of the metadata server, wherein the request for metadata is transmitted to the IP address and contains an HTTP query including the interval code; and receiving a response to the request, the response including metadata associated with the multimedia content.
A metal-silicon carbide-based composite material comprising: a composite part including a silicon carbide-based porous body constituted by a plurality of silicon carbide particles, and a metal that is infiltrated in the silicon carbide-based porous body; and first and second surface layers which contain a metal and coat both main surfaces of the composite part , wherein the metal contains at least one kind selected from the group consisting of aluminum and magnesium, characterized in that the amount of particles having a particle size of 300 μm or more in the plurality of silicon carbide particles is 5% by volume or less. a composite part including a silicon carbide-based porous body constituted by a plurality of silicon carbide particles, and a metal that is infiltrated in the silicon carbide-based porous body; and first and second surface layers which contain a metal and coat both main surfaces of the composite part , wherein the metal contains at least one kind selected from the group consisting of aluminum and magnesium,
A turbine for a gas turbine comprising a blade , a vane and an abradable lip attached to the blade or to the vane , wherein the blade and the vane are separated by an axial gap and the abradable lip extends part of the distance across the axial gap ; the turbine being characterized by comprising an abrasive layer attached on the other side of the axial gap from the abradable lip .
Switchgear apparatus for high-voltage or medium-voltage technology, comprising: at least one connection designed for being connected to a high-voltage or medium-voltage conductor , in particular cable and/or gas-insulated conductor and/or overhead line conductor, wherein the switchgear apparatus contains at least one busbar which forms the node of a high-voltage, medium-voltage or low-voltage grid and is connectable to other grid nodes via switching devices; a sensor system designed to determine a plurality of different physical and/or chemical measurement values relating to the switchgear apparatus and/or relating to the conductor and/or the surroundings; a communication system , operating in particular wirelessly, which is designed to receive the measurement values from the sensor system and to transmit them to an entity in a network, characterized in that the communication system is designed to allow bidirectional communication so as to obtain sensor configuration data and to communicate them to the sensor system , said data configuring the sensor system with regard to protection function and/or measurement function and/or sensitivity and/or sampling rate, and to obtain control data comprising control signals to components of the switchgear apparatus and to transmit them to the components of the switchgear apparatus in order to control operation of the switchgear apparatus, in order thus to establish or to interrupt a connection to the high-voltage or medium-voltage conductor. at least one connection designed for being connected to a high-voltage or medium-voltage conductor , in particular cable and/or gas-insulated conductor and/or overhead line conductor, wherein the switchgear apparatus contains at least one busbar which forms the node of a high-voltage, medium-voltage or low-voltage grid and is connectable to other grid nodes via switching devices; a sensor system designed to determine a plurality of different physical and/or chemical measurement values relating to the switchgear apparatus and/or relating to the conductor and/or the surroundings; a communication system , operating in particular wirelessly, which is designed to receive the measurement values from the sensor system and to transmit them to an entity in a network, characterized in that the communication system is designed to allow bidirectional communication so as to obtain sensor configuration data and to communicate them to the sensor system , said data configuring the sensor system with regard to protection function and/or measurement function and/or sensitivity and/or sampling rate, and to obtain control data comprising control signals to components of the switchgear apparatus and to transmit them to the components of the switchgear apparatus in order to control operation of the switchgear apparatus, in order thus to establish or to interrupt a connection to the high-voltage or medium-voltage conductor.
A method comprising: (a) moving an aliquot of first reagent fluid from a first reagent fluid reservoir into a fluidic device ; (b) after step (a), moving a volume of unused common fluid buffer from a common fluid buffer source into the fluidic device where it is used; (c) after step (b), moving at least a portion of the volume of common fluid buffer moved in step (b) and used in the fluidic device back from the fluidic device into a first dedicated fluid buffer reservoir ; (d) after step (c), moving an aliquot of second reagent fluid from a second reagent fluid reservoir into the fluidic device ; (e) after step (d), moving a volume of unused fluid buffer from the common fluid buffer source into the fluidic device where it is used; and (f) after step (e), moving at least a portion of the volume of fluid buffer moved in step (e) and used in the fluidic device , back from the fluidic device into a second dedicated fluid buffer reservoir ; (g) after step (f), moving an aliquot of the first reagent fluid into the fluidic device ; (h) after step (g), moving a volume of fluid buffer into the fluidic device , wherein at least a portion of the volume of fluid buffer is moved from the first dedicated fluid buffer reservoir and has been used in the fluidic device . (a) moving an aliquot of first reagent fluid from a first reagent fluid reservoir into a fluidic device ; (b) after step (a), moving a volume of unused common fluid buffer from a common fluid buffer source into the fluidic device where it is used; (c) after step (b), moving at least a portion of the volume of common fluid buffer moved in step (b) and used in the fluidic device back from the fluidic device into a first dedicated fluid buffer reservoir ; (d) after step (c), moving an aliquot of second reagent fluid from a second reagent fluid reservoir into the fluidic device ; (e) after step (d), moving a volume of unused fluid buffer from the common fluid buffer source into the fluidic device where it is used; and (f) after step (e), moving at least a portion of the volume of fluid buffer moved in step (e) and used in the fluidic device , back from the fluidic device into a second dedicated fluid buffer reservoir ; (g) after step (f), moving an aliquot of the first reagent fluid into the fluidic device ; (h) after step (g), moving a volume of fluid buffer into the fluidic device , wherein at least a portion of the volume of fluid buffer is moved from the first dedicated fluid buffer reservoir and has been used in the fluidic device .
A method of measuring a dynamic crosstalk occurring in a three-dimensional, 3D, display by using a camera that simulates a dynamic movement of user's eyes, said 3D display displaying a left image to the left eye of the user and a right image to the right eye of the user according to binocular viewpoints, the method comprising: controlling a driver configured to cause the camera to move in a direction and at a velocity that simulate the dynamic movement; at either one or both of a left eye position and a right eye position of the user , capturing a stereo pattern image output through the 3D display , by the camera while the camera is in the dynamic movement; measuring the dynamic crosstalk occurring by the 3D display based on the stereo pattern image captured by the camera ; and compensating for the dynamic crosstalk based on a position of the camera moved by the dynamic movement. controlling a driver configured to cause the camera to move in a direction and at a velocity that simulate the dynamic movement; at either one or both of a left eye position and a right eye position of the user , capturing a stereo pattern image output through the 3D display , by the camera while the camera is in the dynamic movement; measuring the dynamic crosstalk occurring by the 3D display based on the stereo pattern image captured by the camera ; and compensating for the dynamic crosstalk based on a position of the camera moved by the dynamic movement.
A controlling method of a dishwasher including a washing tub defining a space in which one or more dishes are placed, a storage unit movable from the washing tub, a driving unit provided in a lower unit of the washing tub for injecting wash water to the storage unit, a door opening/closing the washing tub, and a drying module for drying the dishes, the controlling method comprising: a washing step (S120) for washing one or more dishes by using the wash water; a rinsing step (S140) for rinsing the washed dishes; and a drying step (S150) for drying the rinsed dishes; and a dry maintaining determining step (S160) for determining selection of a dry maintaining step (S200) after the drying step (S150); and the dry maintaining step (S200) for intermittently drying the dishes to maintain a dried state of the dishes, wherein the dry maintaining step (S200) intermittently operates a drying module of the dishwasher for a preset time period. a washing step (S120) for washing one or more dishes by using the wash water; a rinsing step (S140) for rinsing the washed dishes; and a drying step (S150) for drying the rinsed dishes; and a dry maintaining determining step (S160) for determining selection of a dry maintaining step (S200) after the drying step (S150); and the dry maintaining step (S200) for intermittently drying the dishes to maintain a dried state of the dishes, wherein the dry maintaining step (S200) intermittently operates a drying module of the dishwasher for a preset time period.
Current limiter device having - a superconducting coil element , - a cryostat within which the superconducting coil element is arranged, - at least one current supply line for connecting the superconducting coil element to an external circuit - and at least one feedthrough through an outer wall of the cryostat and through which the current supply line is fed, - wherein the current supply line comprises at least one first line part which extends between the feedthrough and the superconducting coil element , - wherein the first line part has at least one first conductor element and one second conductor element , - wherein the first conductor element is designed as a normally conducting metallic conductor element and the second conductor element is designed as a superconducting conductor element connected in parallel therewith, - characterized in that the first conductor element is formed as a conductor element having a cross-sectional area of at least 10 mm 2 . - a superconducting coil element , - a cryostat within which the superconducting coil element is arranged, - at least one current supply line for connecting the superconducting coil element to an external circuit - and at least one feedthrough through an outer wall of the cryostat and through which the current supply line is fed, - wherein the current supply line comprises at least one first line part which extends between the feedthrough and the superconducting coil element , - wherein the first line part has at least one first conductor element and one second conductor element , - wherein the first conductor element is designed as a normally conducting metallic conductor element and the second conductor element is designed as a superconducting conductor element connected in parallel therewith, - characterized in that the first conductor element is formed as a conductor element having a cross-sectional area of at least 10 mm 2 .
A propulsion system for a tiltrotor aircraft , comprising: an engine disposed below a wing , wherein the engine comprises an output drive along an engine longitudinal axis, and wherein the wing comprises a leading edge, a trailing edge, a top surface and a bottom surface and a central axis that runs substantially parallel to the leading edge and the trailing edge, wherein the top and bottom surfaces of the wing define a wing thickness therebetween; a rotatable proprotor assembly disposed on the top surface of the wing , wherein the proprotor assembly comprises a rotor mast , a plurality of rotor blades coupled to the rotor mast , and an input drive operable to accept a drive force generated by the engine output drive, and wherein the proprotor mast , and plurality of rotor blades are disposed around a common longitudinal proprotor axis ; and a first gearbox disposed in a drive path between the engine output drive and the proprotor input drive, wherein the first gearbox is operable to transfer a drive force from the engine output drive to the proprotor input drive, wherein an interconnect drive system of the propulsion system traverses the wing thickness proximate an aft section of the wing . an engine disposed below a wing , wherein the engine comprises an output drive along an engine longitudinal axis, and wherein the wing comprises a leading edge, a trailing edge, a top surface and a bottom surface and a central axis that runs substantially parallel to the leading edge and the trailing edge, wherein the top and bottom surfaces of the wing define a wing thickness therebetween; a rotatable proprotor assembly disposed on the top surface of the wing , wherein the proprotor assembly comprises a rotor mast , a plurality of rotor blades coupled to the rotor mast , and an input drive operable to accept a drive force generated by the engine output drive, and wherein the proprotor mast , and plurality of rotor blades are disposed around a common longitudinal proprotor axis ; and a first gearbox disposed in a drive path between the engine output drive and the proprotor input drive, wherein the first gearbox is operable to transfer a drive force from the engine output drive to the proprotor input drive, wherein an interconnect drive system of the propulsion system traverses the wing thickness proximate an aft section of the wing .
A method for operating a Session Management Function, SMF, the method comprising: receiving, from to an Access and mobility Management Function, AMF, a request message for establishment of a Protocol Data Unit, PDU, session, based on a handover of a PDU session between a non-3rd Generation Partnership Project, non-3GPP, access and a 3GPP access; transmitting, to the AMF, a Session Management, SM, context status notify message, based on the establishment of the PDU session being failed, wherein the SM context status notify message enable the AMF to update an access type related to the PDU session based on the SM context status notify message. receiving, from to an Access and mobility Management Function, AMF, a request message for establishment of a Protocol Data Unit, PDU, session, based on a handover of a PDU session between a non-3rd Generation Partnership Project, non-3GPP, access and a 3GPP access; transmitting, to the AMF, a Session Management, SM, context status notify message, based on the establishment of the PDU session being failed, wherein the SM context status notify message enable the AMF to update an access type related to the PDU session based on the SM context status notify message.