mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a Machine-to-Machine, M2M, device in which a subscription resource and a subscription target resource are configured such that the subscription target resource corresponds to a parent resource of the subscription resource, comprising: adding (S1204) condition information to a filtering attribute of the subscription resource, the condition information being used for monitoring whether an operation accessing the subscription target resource is attempted irrespective of whether the operation accessing the subscription target resource is performed; receiving (S1206) a request message from a first entity , the request message comprising first information indicating an address corresponding to the subscription target resource and second information indicating a specific operation to be performed by the device; and when the condition information indicates a retrieval and the specific operation corresponds to the retrieval, sending (S1210) a notification message to a second entity indicated by address information configured in the subscription resource, wherein each of the subscription resource and the subscription target resource represents a data structure which is uniquely addressable using a unique address. adding (S1204) condition information to a filtering attribute of the subscription resource, the condition information being used for monitoring whether an operation accessing the subscription target resource is attempted irrespective of whether the operation accessing the subscription target resource is performed; receiving (S1206) a request message from a first entity , the request message comprising first information indicating an address corresponding to the subscription target resource and second information indicating a specific operation to be performed by the device; and when the condition information indicates a retrieval and the specific operation corresponds to the retrieval, sending (S1210) a notification message to a second entity indicated by address information configured in the subscription resource, wherein each of the subscription resource and the subscription target resource represents a data structure which is uniquely addressable using a unique address.
A user equipment, UE, for transmitting wireless transmissions, wherein the UE is adapted to: receive data packets from an external device which is a local device; transmit the data packets according to a scheduling which allocates transmission resources in a determined time period (P); determine a delay information between the reception of a data packet in the buffer and the transmission of the data packet ; and modify the transmission configuration to switch from a first active configuration to a second active configuration, wherein the active configurations are such that, for each time slot, only one active configuration transmits a data packet including an initial transmission and all the possible redundancy versions, RVs, of the data packet, wherein the UE is to receive a definition of the first active configuration (conf1) and second active configuration (conf2) in a BS's signalling, wherein the UE is configured, when operating at the first active configuration and in case of late arrival of a data packet, to switch to the second active configuration for transmitting the late arrived data packet. receive data packets from an external device which is a local device; transmit the data packets according to a scheduling which allocates transmission resources in a determined time period (P); determine a delay information between the reception of a data packet in the buffer and the transmission of the data packet ; and modify the transmission configuration to switch from a first active configuration to a second active configuration, wherein the active configurations are such that, for each time slot, only one active configuration transmits a data packet including an initial transmission and all the possible redundancy versions, RVs, of the data packet, wherein the UE is to receive a definition of the first active configuration (conf1) and second active configuration (conf2) in a BS's signalling, wherein the UE is configured, when operating at the first active configuration and in case of late arrival of a data packet, to switch to the second active configuration for transmitting the late arrived data packet.
Method for monitoring the loading position and the bearing force of an item to be transported on a loading surface in or on a vehicle, wherein the item to be transported is secured by tensioning means , preferably tensioning belts, on the loading surface, characterized in that - on the loading surface there is provided a mat or substrate comprising a plurality of two-dimensionally positionally accurately determinable sensors for detecting a first measurement variable which correlates with the bearing force acting on the mat, - in that the sensors interact with devices for communicating, preferably wirelessly communicating, the first measurement variables to a central electronic computing unit , in which the starting and output values of the first measurement variables and their initial correlation with one another are stored, wherein afterwards at time intervals the first measurement variables are repeatedly detected again and stored, wherein the respective current first positionally accurately determinable measurement variables are compared with their starting and output values and also their current correlation with one another is compared with their initial correlation with one another and, if predefined threshold or difference values are exceeded, an alarm is triggered. - on the loading surface there is provided a mat or substrate comprising a plurality of two-dimensionally positionally accurately determinable sensors for detecting a first measurement variable which correlates with the bearing force acting on the mat, - in that the sensors interact with devices for communicating, preferably wirelessly communicating, the first measurement variables to a central electronic computing unit , in which the starting and output values of the first measurement variables and their initial correlation with one another are stored,
A sparkling beverage dispensing system for use with a container holding a beverage under pressure above ambient and having a closure at an opening of the container, the system comprising: at least one conduit arranged to deliver pressurized gas into the container and to receive beverage from the container for dispensing; at least one valve fluidly coupled to the at least one conduit to control beverage flow out of the container via the at least one conduit to a dispensing outlet ; a source of pressurized gas , and the at least one valve includes a gas control valve to allow a flow of pressurized gas from the source of pressurized gas into the container via the at least one conduit; and a reservoir arranged to fluidly couple with the dispensing outlet and receive beverage dispensed from the dispensing outlet , the reservoir arranged to hold dispensed beverage under pressure. at least one conduit arranged to deliver pressurized gas into the container and to receive beverage from the container for dispensing; at least one valve fluidly coupled to the at least one conduit to control beverage flow out of the container via the at least one conduit to a dispensing outlet ; a source of pressurized gas , and the at least one valve includes a gas control valve to allow a flow of pressurized gas from the source of pressurized gas into the container via the at least one conduit; and a reservoir arranged to fluidly couple with the dispensing outlet and receive beverage dispensed from the dispensing outlet , the reservoir arranged to hold dispensed beverage under pressure.
A coated transparent pane for a multiple pane insulating glazing unit, the coated transparent pane having opposed first and second major surfaces, the second major surface being for exposure to a between pane space of the glazing unit, and bearing a low-emissivity coating , wherein, the low-emissivity coating comprises, in sequence from the second major surface, a first transparent dielectric film region , a first infrared-reflection film region , a second transparent dielectric film region , a second infrared-reflection film region , a third transparent dielectric film region , a third infrared-reflection film region , and a fourth transparent dielectric film region , the coating having a first reflection-region ratio that is defined as the thickness of the first infrared-reflection film region divided by the thickness of the second infrared-reflection film region, the coating having a second reflection-region ratio defined as the thickness of the second infrared-reflection film region divided by the thickness of the third infrared-reflection film region, both the first and second reflection-region ratios being less than 0.83, and at least one of the first and second reflection-region ratios being less than 0.80, and wherein a thickness of less than 1.90 x 10 -8 m of the first transparent dielectric film has a refractive index of 1.7 or greater.
A computing system, comprising: a set of data center machines running a data center application; and an approval mechanism that performs multi-factor authentication relative to an access request requesting access to one of the set of data center machines, the approval mechanism being configured to perform the multi-factor authentication by performing smartcard authentication based on a unique identifier read from a smartcard and corresponding to the access request, the unique identifier uniquely identifying the smartcard, wherein the approval mechanism comprises unique identifier processing logic that authenticates the smartcard based on the unique identifier that includes a representation of a private key generated on the smartcard. a set of data center machines running a data center application; and an approval mechanism that performs multi-factor authentication relative to an access request requesting access to one of the set of data center machines, the approval mechanism being configured to perform the multi-factor authentication by performing smartcard authentication based on a unique identifier read from a smartcard and corresponding to the access request, the unique identifier uniquely identifying the smartcard, wherein the approval mechanism comprises unique identifier processing logic that authenticates the smartcard based on the unique identifier that includes a representation of a private key generated on the smartcard.
A control method for a component supply system configured to supply components on a stage in a scattered state, the component supply system comprising: a holding tool configured to pick up the component scattered on the stage ; an imaging device configured to image a target component that is a pickup target of the holding tool ; and a control device , the method comprising: calculating, by a first calculating section of the control device , an index value that specifies a size of a side surface of the target component based on image data of the target component captured by the imaging device , wherein the side surface of the target component is a vertical side surface displayed in the captured image data; determining, by a first determining section of the control device , whether the index value calculated by the first calculating section matches a set value; and controlling, by a control section of the control device , movement of the holding tool such that the target component is picked up by the holding tool in a case in which the first determining section determines that the index value matches the set value. a holding tool configured to pick up the component scattered on the stage ; an imaging device configured to image a target component that is a pickup target of the holding tool ; and a control device , the method comprising: calculating, by a first calculating section of the control device , an index value that specifies a size of a side surface of the target component based on image data of the target component captured by the imaging device , wherein the side surface of the target component is a vertical side surface displayed in the captured image data; determining, by a first determining section of the control device , whether the index value calculated by the first calculating section matches a set value; and controlling, by a control section of the control device , movement of the holding tool such that the target component is picked up by the holding tool in a case in which the first determining section determines that the index value matches the set value. calculating, by a first calculating section of the control device , an index value that specifies a size of a side surface of the target component based on image data of the target component captured by the imaging device , wherein the side surface of the target component is a vertical side surface displayed in the captured image data; determining, by a first determining section of the control device , whether the index value calculated by the first calculating section matches a set value; and controlling, by a control section of the control device , movement of the holding tool such that the target component is picked up by the holding tool in a case in which the first determining section determines that the index value matches the set value.
A camera system for generating an eye contact image view of a person with a gaze direction that is offset from a camera position, the camera system comprises: a camera configured to obtain image data of the person; a microphone; a processing circuitry configured to be operatively connected to the camera and configured to: - obtain a camera view of the person from a camera position; - determine a spoken word spoken by the person; - store image data of a facial expression of the person obtained by the camera associated with the spoken word to generate predetermined facial expression data; and further configured to - upon determining that the spoken word has been spoken by the person; - generate a synthetic camera view of the person from a virtual camera position; and - generate a synthetic facial expression of the person when generating the synthetic camera view of the person based on the predetermined facial expression data associated with the spoken word. a camera configured to obtain image data of the person; a microphone; a processing circuitry configured to be operatively connected to the camera and configured to: - obtain a camera view of the person from a camera position; - determine a spoken word spoken by the person; - store image data of a facial expression of the person obtained by the camera associated with the spoken word to generate predetermined facial expression data; and further configured to - upon determining that the spoken word has been spoken by the person; - generate a synthetic camera view of the person from a virtual camera position; and - generate a synthetic facial expression of the person when generating the synthetic camera view of the person based on the predetermined facial expression data associated with the spoken word. - obtain a camera view of the person from a camera position; - determine a spoken word spoken by the person; - store image data of a facial expression of the person obtained by the camera associated with the spoken word to generate predetermined facial expression data; and further configured to - upon determining that the spoken word has been spoken by the person; - generate a synthetic camera view of the person from a virtual camera position; and - generate a synthetic facial expression of the person when generating the synthetic camera view of the person based on the predetermined facial expression data associated with the spoken word.
A goods storage and retrieval system, comprising a multilevel warehouse racking system , and a materials handling vehicle disposed on a vehicle transit surface , wherein: the materials handling vehicle comprises a vehicle body , a fork carriage assembly , a carriage control unit , a picking attachment secured to the fork carriage assembly , and a navigation subsystem , characterized in that the vehicle further comprises a cart engagement subsystem and one or more vehicular controllers in communication with the carriage control unit , the picking attachment , the cart engagement subsystem , and the navigation subsystem ; wherein the goods storage and retrieval system comprises a mobile storage cart and a cart home position , and wherein the cart engagement subsystem comprises a cart engagement field of view ; the one or more vehicular controllers of the materials handling vehicle executes vehicle functions to: (i) use the navigation subsystem to navigate the materials handling vehicle along the vehicle transit surface to a localized engagement position where the cart home position is within the cart engagement field of view ; and (ii) use the cart engagement subsystem to engage the mobile storage cart in the cart home position with the fork carriage assembly . the materials handling vehicle comprises a vehicle body , a fork carriage assembly , a carriage control unit , a picking attachment secured to the fork carriage assembly , and a navigation subsystem , characterized in that the vehicle further comprises a cart engagement subsystem and one or more vehicular controllers in communication with the carriage control unit , the picking attachment , the cart engagement subsystem , and the navigation subsystem ; wherein the goods storage and retrieval system comprises a mobile storage cart and a cart home position , and wherein the cart engagement subsystem comprises a cart engagement field of view ; the one or more vehicular controllers of the materials handling vehicle executes vehicle functions to: (i) use the navigation subsystem to navigate the materials handling vehicle along the vehicle transit surface to a localized engagement position where the cart home position is within the cart engagement field of view ; and (ii) use the cart engagement subsystem to engage the mobile storage cart in the cart home position with the fork carriage assembly . (i) use the navigation subsystem to navigate the materials handling vehicle along the vehicle transit surface to a localized engagement position where the cart home position is within the cart engagement field of view ; and (ii) use the cart engagement subsystem to engage the mobile storage cart in the cart home position with the fork carriage assembly .
A system for the production of a dried product from liquid blood or derivatives, characterized in that it comprises: a plurality of multi-effect evaporators connected in series, wherein each multi-effect evaporator comprises: plate heat exchangers arranged vertically relative to a longitudinal axis of the multi-effect evaporator , evaporation sub-chambers and condensate sub-chambers defined between every two contiguous plate heat exchangers , the evaporation sub-chambers and condensate sub-chambers being arranged in an alternating manner; and a plurality of agitators located in the evaporation sub-chambers , wherein the agitators are attached to a rotating shaft of the multi-effect evaporator ; a heat pump comprising a heat exchanger , the heat exchanger being configured to transfer heat from a hot residual effluent to a fluid that goes through a compressor up to the plurality of multi-effect evaporators ; and a final condenser configured to collect vapor generated by the plurality of multi-effect evaporators . a plurality of multi-effect evaporators connected in series, wherein each multi-effect evaporator comprises: plate heat exchangers arranged vertically relative to a longitudinal axis of the multi-effect evaporator , evaporation sub-chambers and condensate sub-chambers defined between every two contiguous plate heat exchangers , the evaporation sub-chambers and condensate sub-chambers being arranged in an alternating manner; and a plurality of agitators located in the evaporation sub-chambers , wherein the agitators are attached to a rotating shaft of the multi-effect evaporator ; plate heat exchangers arranged vertically relative to a longitudinal axis of the multi-effect evaporator , evaporation sub-chambers and condensate sub-chambers defined between every two contiguous plate heat exchangers , the evaporation sub-chambers and condensate sub-chambers being arranged in an alternating manner; and a plurality of agitators located in the evaporation sub-chambers , wherein the agitators are attached to a rotating shaft of the multi-effect evaporator ; a heat pump comprising a heat exchanger , the heat exchanger being configured to transfer heat from a hot residual effluent to a fluid that goes through a compressor up to the plurality of multi-effect evaporators ; and a final condenser configured to collect vapor generated by the plurality of multi-effect evaporators .
A method for compensating acceleration forces of objects on a surface , comprising: sensing information related to an acceleration on the surface ; and moving the surface to at least partly compensate the acceleration, the method further comprising receiving information related to movement of an object on the surface from a movement sensor , wherein the movement sensor is configured to sense movement of at least one object located on the surface . sensing information related to an acceleration on the surface ; and moving the surface to at least partly compensate the acceleration, the method further comprising receiving information related to movement of an object on the surface from a movement sensor , wherein the movement sensor is configured to sense movement of at least one object located on the surface .
Freewheel comprising a driving part and a driven part which are rotatable around an axis of rotation (AX), said freewheel comprising at least one rotationally connecting member arranged in a connecting space , a driven connecting section of the driven part surrounding a driving connecting section of the driving part , said connecting space being located radially with respect to the axis of rotation (AX) between said driving connecting section and said driven connecting section , said freewheel having at least one lubricating device conveying a lubricating fluid into the connecting space , characterized in that said freewheel comprises at least one barrier with variable geometry depending on a speed of rotation of said driving part about the axis of rotation (AX), said barrier being arranged radially between the driving part and the driven part and longitudinally against the connecting space , said barrier being integral in rotation with the driving connecting section .
A method comprising: (i) contacting a transition metal-based catalyst system with an olefin monomer and an optional olefin comonomer in the polymerization reactor system under polymerization conditions to produce an olefin polymer; and (ii) introducing an amount of a halogenated hydrocarbon compound into the polymerization reactor system to increase a productivity of the olefin polymer; wherein: the halogenated hydrocarbon compound comprises perfluorohexane, hexafluorobenzene, or both; and the transition metal-based catalyst system is a chromium-based catalyst system, a metallocene-based catalyst system, or a combination thereof. (i) contacting a transition metal-based catalyst system with an olefin monomer and an optional olefin comonomer in the polymerization reactor system under polymerization conditions to produce an olefin polymer; and (ii) introducing an amount of a halogenated hydrocarbon compound into the polymerization reactor system to increase a productivity of the olefin polymer; wherein: the halogenated hydrocarbon compound comprises perfluorohexane, hexafluorobenzene, or both; and the transition metal-based catalyst system is a chromium-based catalyst system, a metallocene-based catalyst system, or a combination thereof. the halogenated hydrocarbon compound comprises perfluorohexane, hexafluorobenzene, or both; and the transition metal-based catalyst system is a chromium-based catalyst system, a metallocene-based catalyst system, or a combination thereof.