mhurhangee/patent-ind-claim-en huggingface dataset:
A multilayer cathode comprising: (a) a conductive layer , the conductive layer being electrically connected as a bus; (b) a layer comprising at least one source of alkali metal ions, alkaline earth metal ions, or lanthanide ions of the formula M n X m ; and (c) a conductive metal layer comprising at least one conductive metal species, wherein M is independently at each occurrence an alkali metal ion, an alkaline earth metal ion, or a lanthanide metal ion, wherein X is independently at each occurrence an anion selected from the group consisting of hydroxide, sulfide, selenide, telluride, sulfite, bisulfite, sulfate, bisulfate, phosphite, hydrogenphosphite, phosphate, hydrogenphosphate, nitrite, perchlorate, perchlorite, BF 4 - , PF6 - , phosphonate, sulfonate, boronate, carbonate, bicarbonate, and organic carboxylate, wherein n and m are independently integers from 1 to about 20; wherein the multilayer cathode additionally comprises: (b') an additional layer comprising at least one source of alkali metal ions, alkaline earth metal ions, or lanthanide ions of the formula M n X m , and at least one conductive metal, the conductive metal being the same or different as the conductive metal species of the conductive metal layer ; and wherein the source of alkali metal ions, alkaline earth metal ions, or lanthanide ions present in the layer and in the additional layer are the same or different, wherein the layer is positioned between the conductive layer and the conductive metal layer and the additional layer is positioned between the conductive metal layer and the layer . (a) a conductive layer , the conductive layer being electrically connected as a bus; (b) a layer comprising at least one source of alkali metal ions, alkaline earth metal ions, or lanthanide ions of the formula M n X m ; and (c) a conductive metal layer comprising at least one conductive metal species,
A system for directly measuring the depth of an individual high aspect ratio etched feature on a wafer , the wafer having an etched surface and a non-etched surface , said system comprising: a) a reflectometer that is positioned to face the non-etched surface of the wafer, said reflectometer having means for producing a focused incident light of multiple optical frequencies that is applied to the non-etched surface of the wafer, and means for receiving and processing a reflected light that is also applied from the non-etched surface of the wafer, wherein said reflectometer produces an output signal representative of the intensity of Fabry-Perot interference fringes in the reflected light for each of the multiple optical frequencies, b) an analog-to-digital converter ADC that converts the output signal to a corresponding digital data signal , and c) a computer , that in combination with software , has means for processing the digital data signal and to display the depth of the high aspect ratio etched feature of the wafer. a) a reflectometer that is positioned to face the non-etched surface of the wafer, said reflectometer having means for producing a focused incident light of multiple optical frequencies that is applied to the non-etched surface of the wafer, and means for receiving and processing a reflected light that is also applied from the non-etched surface of the wafer, wherein said reflectometer produces an output signal representative of the intensity of Fabry-Perot interference fringes in the reflected light for each of the multiple optical frequencies, b) an analog-to-digital converter ADC that converts the output signal to a corresponding digital data signal , and c) a computer , that in combination with software , has means for processing the digital data signal and to display the depth of the high aspect ratio etched feature of the wafer.
A terminal comprising: a coding section that separately encodes first uplink control information, UCI, and second UCI, wherein the first UCI includes transmission acknowledgement information of a downlink shared channel in at least one cell, and the second UCI includes channel state information in at least one cell; and a transmission section that transmits the first UCI and the second UCI using an uplink control channel, wherein, in each slot, an encoded bit sequence of the first UCI is mapped to a first symbol set of the uplink control channel without being multiplexed with an encoded bit sequence of the second UCI, and both of an encoded bit sequence of the first UCI and the encoded bit sequence of the second UCI are mapped to a second symbol set of the uplink control channel different from the first symbol set, wherein, in each slot, two symbols of the second symbol set are adjacent to the first symbol set, and subcarriers and symbols of the first UCI are determined according to a predetermined pattern based on the number of bits after encoding of the first UCI. a coding section that separately encodes first uplink control information, UCI, and second UCI, wherein the first UCI includes transmission acknowledgement information of a downlink shared channel in at least one cell, and the second UCI includes channel state information in at least one cell; and a transmission section that transmits the first UCI and the second UCI using an uplink control channel, wherein, in each slot, an encoded bit sequence of the first UCI is mapped to a first symbol set of the uplink control channel without being multiplexed with an encoded bit sequence of the second UCI, and both of an encoded bit sequence of the first UCI and the encoded bit sequence of the second UCI are mapped to a second symbol set of the uplink control channel different from the first symbol set, wherein, in each slot, two symbols of the second symbol set are adjacent to the first symbol set, and subcarriers and symbols of the first UCI are determined according to a predetermined pattern based on the number of bits after encoding of the first UCI.
A network configuration method, applicable to a first electronic device, wherein the first electronic device is connected to a 5G wireless fidelity, Wi-Fi, network of a router, and the method comprises: discovering a second electronic device by scanning, wherein the second electronic device supports a 2.4G Wi-Fi network; and sending to the second electronic device, a service set identifier and a password of the wireless network to which the first electronic device is currently connected if service set identifiers and passwords of the 5G Wi-Fi network and a 2.4G Wi-Fi network of the router are the same; wherein the sending comprises obtaining a device configuration file of the router; and sending to the second electronic device, the service set identifier and the password of the wireless network to which the first electronic device is currently connected if a field value corresponding to a first function is extracted from the device configuration file of the router, wherein the first function represents that the service set identifiers and the passwords of the 5G Wi-Fi network and the 2.4G Wi-Fi network of the router are the same, and the first electronic device is allowed to be connected to the 5G Wi-Fi network or the 2.4G Wi-Fi network when the first function is enabled; wherein the first function is a dual frequency optimization function or a dual frequency integration function. discovering a second electronic device by scanning, wherein the second electronic device supports a 2.4G Wi-Fi network; and sending to the second electronic device, a service set identifier and a password of the wireless network to which the first electronic device is currently connected if service set identifiers and passwords of the 5G Wi-Fi network and a 2.4G Wi-Fi network of the router are the same; wherein the sending comprises obtaining a device configuration file of the router; and sending to the second electronic device, the service set identifier and the password of the wireless network to which the first electronic device is currently connected if a field value corresponding to a first function is extracted from the device configuration file of the router, wherein the first function represents that the service set identifiers and the passwords of the 5G Wi-Fi network and the 2.4G Wi-Fi network of the router are the same, and the first electronic device is allowed to be connected to the 5G Wi-Fi network or the 2.4G Wi-Fi network when the first function is enabled; wherein the first function is a dual frequency optimization function or a dual frequency integration function.
An airfoil comprising: an airfoil section having a ceramic airfoil wall that defines a suction side and a pressure side , and an interior cavity in the airfoil section ; and a rib spanning across the interior cavity and connecting the suction side and the pressure side , characterized in that the rib has a thermal conductance element that is configured to conduct heat away from the suction side and the pressure side and into the rib to maintain the rib at a relatively higher temperature, the rib including a forward side ceramic matrix composite skin , an aft side ceramic matrix composite skin , and the thermal conductance element being between the forward side ceramic matrix composite skin and the aft side ceramic matrix composite skin . an airfoil section having a ceramic airfoil wall that defines a suction side and a pressure side , and an interior cavity in the airfoil section ; and a rib spanning across the interior cavity and connecting the suction side and the pressure side , characterized in that the rib has a thermal conductance element that is configured to conduct heat away from the suction side and the pressure side and into the rib to maintain the rib at a relatively higher temperature, the rib including a forward side ceramic matrix composite skin , an aft side ceramic matrix composite skin , and the thermal conductance element being between the forward side ceramic matrix composite skin and the aft side ceramic matrix composite skin .
An apparatus for attaching functional elements , e.g. of metal, to a component , in particular to a component comprising fiber-reinforced plastic, using a setting head, wherein the functional element has a contact surface provided with adhesive , characterized in that the apparatus is configured to apply the adhesive within the setting head before the attachment of the functional element to the component at the functional element, and in that an injection system is provided to apply the adhesive in ring shape or in droplet form onto the contact surface within the setting head , and in that the injection system is arranged in the region of a mouth piece of a removable supply passage for the functional elements in the setting head . the apparatus is configured to apply the adhesive within the setting head before the attachment of the functional element to the component at the functional element, and in that an injection system is provided to apply the adhesive in ring shape or in droplet form onto the contact surface within the setting head , and in that the injection system is arranged in the region of a mouth piece of a removable supply passage for the functional elements in the setting head .
Vehicle operable by motor power and/or pedal force, in particular electric bicycle, comprising - a crank drive with a bottom bracket shaft , - a chain ring which outputs a driving torque for the vehicle to a chain , and - an electric drive , characterized by - a conical ring transmission for infinitely variably changing a transmission ratio, - wherein the conical ring transmission and the electric drive are arranged on the crank drive , and - wherein the conical ring transmission is connected to the crank drive and configured in such a manner that a torque produced by a cyclist is transmitted to the chain ring , and - wherein the electric drive is arranged inside one of the cones of the conical ring transmission . - a crank drive with a bottom bracket shaft , - a chain ring which outputs a driving torque for the vehicle to a chain , and - an electric drive , characterized by - a conical ring transmission for infinitely variably changing a transmission ratio, - wherein the conical ring transmission and the electric drive are arranged on the crank drive , and - wherein the conical ring transmission is connected to the crank drive and configured in such a manner that a torque produced by a cyclist is transmitted to the chain ring , and - wherein the electric drive is arranged inside one of the cones of the conical ring transmission .
A computer-implemented depth sensing method, comprising: obtaining image data for a plurality of images from multiple viewpoints, wherein the image data for the plurality of images comprises a reference image and at least one alternate view image; generating a raw depth map containing depth estimates for pixels within the reference image using the image data for the reference image and the image data for the at least one alternate view image using a first depth estimation process, and a confidence map describing reliability of depth estimates contained within the raw depth map ; and generating a regularized depth map by: computing a secondary depth map containing depth estimates for pixels within the reference image using a second depth estimation process, wherein the second depth estimation process is different from the first depth estimation process; and computing a first composite depth map by selecting depth estimates from the raw depth map and the secondary depth map , where a depth estimate for a pixel in the reference image is selected from the raw depth map when the depth estimate is indicated as being reliable by the confidence map and from the secondary depth map when the depth estimate is indicated as being unreliable by the confidence map . obtaining image data for a plurality of images from multiple viewpoints, wherein the image data for the plurality of images comprises a reference image and at least one alternate view image; generating a raw depth map containing depth estimates for pixels within the reference image using the image data for the reference image and the image data for the at least one alternate view image using a first depth estimation process, and a confidence map describing reliability of depth estimates contained within the raw depth map ; and generating a regularized depth map by: computing a secondary depth map containing depth estimates for pixels within the reference image using a second depth estimation process, wherein the second depth estimation process is different from the first depth estimation process; and computing a first composite depth map by selecting depth estimates from the raw depth map and the secondary depth map , where a depth estimate for a pixel in the reference image is selected from the raw depth map when the depth estimate is indicated as being reliable by the confidence map and from the secondary depth map when the depth estimate is indicated as being unreliable by the confidence map . computing a secondary depth map containing depth estimates for pixels within the reference image using a second depth estimation process, wherein the second depth estimation process is different from the first depth estimation process; and computing a first composite depth map by selecting depth estimates from the raw depth map and the secondary depth map , where a depth estimate for a pixel in the reference image is selected from the raw depth map when the depth estimate is indicated as being reliable by the confidence map and from the secondary depth map when the depth estimate is indicated as being unreliable by the confidence map .
A first network node having a data flow table identifying forwarding rules to be applied to incoming data packets; wherein the first network node is configured to allow for manipulation of the data flow table via control messages received via a control connection to a software defined network, SDN, controller; wherein the first network node is further configured to determine an occurrence of a network event, wherein the network event is that no control connection to the SDN controller is available or that the control connection to the SDN controller has failed ; wherein the first network node determines that no control connection to the SDN controller is available or that the control connection to the SDN controller has failed, when a transmission path of the control connection to the SDN controller involves other network nodes, by using a failure detection protocol to detect a link layer failure, and wherein the link layer failure is determined by periodically issuing keepalive messages between connected ports of the first network node and neighboring network nodes, and when a number of expected keepalive messages of a neighboring network node over which the first network node sends control messages to the SDN controller are not received within a time frame a link layer failure is determined between the first network node and the neighboring network node; wherein the first network node is further configured: to establish a control connection to a second network node in response to determining that no control connection between the first network node and the SDN controller is available or that the control connection between the first network node and the SDN controller has failed; to exchange control messages with the second network node via the control connection; and to relay information from the first network node to the SDN controller via the established control connection to the second network node, the information related to the network event and comprising control messages of the first network node to the SDN controller. to establish a control connection to a second network node in response to determining that no control connection between the first network node and the SDN controller is available or that the control connection between the first network node and the SDN controller has failed; to exchange control messages with the second network node via the control connection; and to relay information from the first network node to the SDN controller via the established control connection to the second network node, the information related to the network event and comprising control messages of the first network node to the SDN controller.
A method for detecting time series data, wherein the method is applied to a data transmission system and comprises: determining(S11), based on data information carried in time series data from a data source device, whether missing of time series data occurs in a data receiving process, wherein the data information comprises time information and/or sequence numbers; if missing of time series data occurs, storing(S12) data information of the missing time series data; determining whether a missing data subscription event is set in a subscription resource created in advance; and if the missing data subscription event exists, determining(S13) whether a preset trigger condition for a data missing notification that is preset in the missing data subscription event is currently satisfied; and if the trigger condition for a data missing notification is satisfied, sending(S14) data missing notification information to a target device. determining(S11), based on data information carried in time series data from a data source device, whether missing of time series data occurs in a data receiving process, wherein the data information comprises time information and/or sequence numbers; if missing of time series data occurs, storing(S12) data information of the missing time series data; determining whether a missing data subscription event is set in a subscription resource created in advance; and if the missing data subscription event exists, determining(S13) whether a preset trigger condition for a data missing notification that is preset in the missing data subscription event is currently satisfied; and if the trigger condition for a data missing notification is satisfied, sending(S14) data missing notification information to a target device.
A fuselage assembly for an aircraft comprising: a fuselage skin , wherein the fuselage skin has an inner side and an outer side , a stringer extending longitudinally along the fuselage , wherein the stringer is on the inner side of the fuselage skin ; the stringer defining a fluid channel , and wherein the fluid channel is configured to form at least part of a distribution duct of a cabin air distribution system , the fuselage assembly comprising a frame , the frame extending in a hoop-wise arrangement; characterised in that the frame includes a stringer receiving opening , the stringer defining the fluid channel extends through the stringer receiving opening in a perpendicular direction, and a stiffener is disposed on the frame and extends around the opening to provide structural support to the frame in the proximity of the opening . a fuselage skin , wherein the fuselage skin has an inner side and an outer side , a stringer extending longitudinally along the fuselage , wherein the stringer is on the inner side of the fuselage skin ; the stringer defining a fluid channel , and wherein the fluid channel is configured to form at least part of a distribution duct of a cabin air distribution system , the fuselage assembly comprising a frame , the frame extending in a hoop-wise arrangement; characterised in that the frame includes a stringer receiving opening , the stringer defining the fluid channel extends through the stringer receiving opening in a perpendicular direction, and a stiffener is disposed on the frame and extends around the opening to provide structural support to the frame in the proximity of the opening .
A control device (DC) for an electric circuit (CE) comprising a current generator (GC) connected in parallel to a first electric energy store (SE1), to a consumption network (RA1), comprising at least one electric energy consuming member (OCj), and to a DC/DC type switching converter (CV), located between said first electric energy store (SE1) and said consumption network (RA1), and connected in series to a second electrical energy storage device (SE2), comprising i) an interruption module (MI) suitable for being connected in series between, on the one hand, said current generator (GC) and said first electrical energy storage device (SE1) and, on the other hand, said converter (CV) and said consumption network (RA1), and comprising at least two interruption means (Mlk), on the one hand, each comprising at least one main switch (IP) with at least three states and a diode (DI) connected in parallel, and, on the other hand, connected in series with said diodes (DI) mounted in opposite ways, and ii) control means (MC) arranged to control the respective states of said main switches (IP) as a function of at least input parameters which are voltage measurements taken on either side of said interrupter module (MI), operating instructions of said main switches (IP) and of said converter (CV), and a transfer mode of said converter (CV), in order to reduce electromagnetic disturbances induced by said converter (CV).