mhurhangee/patent-ind-claim-en huggingface dataset:
A network node comprising: a transceiver for communication with at least one User Equipment, UE, , the network node being configured to: - receive an at least one uplink beacon corresponding to the at least one UE, characterised by - determine a group comprising at least a first UE and a second UE , based on received uplink beacons from the first UE and the second UE , - determine uplink beacon reconfiguration for each UE in the group, comprising: ∘ information specifying a group uplink beacon, and ∘ information specifying a UE configuration for the UEs of the group, indicating each UE of the group either as being a UE for sending said group uplink beacon, or as a UE for receiving said group uplink beacon. a transceiver for communication with at least one User Equipment, UE, , the network node being configured to: - receive an at least one uplink beacon corresponding to the at least one UE, - receive an at least one uplink beacon corresponding to the at least one UE, characterised by - determine a group comprising at least a first UE and a second UE , based on received uplink beacons from the first UE and the second UE , - determine uplink beacon reconfiguration for each UE in the group, comprising: ∘ information specifying a group uplink beacon, and ∘ information specifying a UE configuration for the UEs of the group, indicating each UE of the group either as being a UE for sending said group uplink beacon, or as a UE for receiving said group uplink beacon. - determine a group comprising at least a first UE and a second UE , based on received uplink beacons from the first UE and the second UE , - determine uplink beacon reconfiguration for each UE in the group, comprising: ∘ information specifying a group uplink beacon, and ∘ information specifying a UE configuration for the UEs of the group, indicating each UE of the group either as being a UE for sending said group uplink beacon, or as a UE for receiving said group uplink beacon. ∘ information specifying a group uplink beacon, and ∘ information specifying a UE configuration for the UEs of the group, indicating each UE of the group either as being a UE for sending said group uplink beacon, or as a UE for receiving said group uplink beacon.
An electronic oral hygiene system for monitoring brushing and compliance with a tooth brush regime, the electronic oral hygiene system comprising: an oral hygiene device including a handle and a head ; a motion sensor configured to output motion data indicative of motion of the oral hygiene device ; a memory for storing the motion data output by the motion sensor ; a control system configured to determine a position of the head of the oral hygiene device in a mouth of a user and a brush stroke type used in each section of the mouth of the user by comparing the motion data to previously recorded calibration data using a trained machine learning algorithm; and a first mobile device configured to display a schematic of a dentition for the user including an amount of time spent brushing each section of the mouth of the user and the brush stroke type used in each section of the mouth of the user. an oral hygiene device including a handle and a head ; a motion sensor configured to output motion data indicative of motion of the oral hygiene device ; a memory for storing the motion data output by the motion sensor ; a control system configured to determine a position of the head of the oral hygiene device in a mouth of a user and a brush stroke type used in each section of the mouth of the user by comparing the motion data to previously recorded calibration data using a trained machine learning algorithm; and a first mobile device configured to display a schematic of a dentition for the user including an amount of time spent brushing each section of the mouth of the user and the brush stroke type used in each section of the mouth of the user.
A computer-implemented method of predicting action labels for a video stream, comprising: receiving the video stream; calculating an optical flow of a current frame and a next frame of the video stream; producing motion information from the optical flow; using a lower-layer recurrent neural network, RNN, of a stratified network to generate an attention map of the current frame of the video stream from a first previous hidden state from the lower-layer RNN, a second previous hidden state from an upper-layer RNN of the stratified network, and the motion information; and using the upper-layer RNN to predict an action label for the current frame from the motion information, the second previous hidden state, and the attention map applied to a frame feature map of the current frame. receiving the video stream; calculating an optical flow of a current frame and a next frame of the video stream; producing motion information from the optical flow; using a lower-layer recurrent neural network, RNN, of a stratified network to generate an attention map of the current frame of the video stream from a first previous hidden state from the lower-layer RNN, a second previous hidden state from an upper-layer RNN of the stratified network, and the motion information; and using the upper-layer RNN to predict an action label for the current frame from the motion information, the second previous hidden state, and the attention map applied to a frame feature map of the current frame.
A polyester film comprising: a base layer made of a polyester resin; and a coating layer stacked on one surface or both surfaces of the base layer, wherein the coating layer is formed by coating an aqueous coating composition including a composition containing a silane coupling agent represented by the following Chemical Formula 1 and water, and an inorganic particle dispersion solution on the base layer, and drying the composition, and a pH difference between the composition containing a silane coupling agent and water and the inorganic particle dispersion solution is less than 3, and the aqueous coating composition has a pH of 8 or more or 5 or less. In Chemical Formula 1, X is a straight-chain, branched-chain, or cyclic C 1 -C 12 hydrocarbon group having one or at least two functional groups selected from a vinyl group, an epoxy group, an amino group, a methacrylic group, an acrylic group, and a mercapto group, and R 1 to R 3 are each independently C 1 -C 5 alkyl.) a base layer made of a polyester resin; and a coating layer stacked on one surface or both surfaces of the base layer, wherein the coating layer is formed by coating an aqueous coating composition including a composition containing a silane coupling agent represented by the following Chemical Formula 1 and water, and an inorganic particle dispersion solution on the base layer, and drying the composition, and a pH difference between the composition containing a silane coupling agent and water and the inorganic particle dispersion solution is less than 3, and the aqueous coating composition has a pH of 8 or more or 5 or less. In Chemical Formula 1, X is a straight-chain, branched-chain, or cyclic C 1 -C 12 hydrocarbon group having one or at least two functional groups selected from a vinyl group, an epoxy group, an amino group, a methacrylic group, an acrylic group, and a mercapto group, and R 1 to R 3 are each independently C 1 -C 5 alkyl.)
A wireless power transmitting device comprising: a power transmission circuit ; and a processor, wherein the processor is configured to: control the power transmission circuit to wirelessly transmit power having a first intensity to a first area around the wireless power transmitting device and to wirelessly transmit power having an intensity below a threshold value to a second area associated with the first area, wherein the first intensity is equal to or greater than the threshold value, decrease an intensity of the power being transmitted to the first area from the first intensity to a second intensity less than the first intensity when an obstacle is detected in the second area, decrease an intensity of the power being transmitted to the first area from the second intensity to a third intensity less than the second intensity when it is detected that the obstacle has entered the first area from the second area. a power transmission circuit ; and a processor, wherein the processor is configured to: control the power transmission circuit to wirelessly transmit power having a first intensity to a first area around the wireless power transmitting device and to wirelessly transmit power having an intensity below a threshold value to a second area associated with the first area, wherein the first intensity is equal to or greater than the threshold value, decrease an intensity of the power being transmitted to the first area from the first intensity to a second intensity less than the first intensity when an obstacle is detected in the second area, decrease an intensity of the power being transmitted to the first area from the second intensity to a third intensity less than the second intensity when it is detected that the obstacle has entered the first area from the second area.
A non-transitory machine-readable storage medium storing instructions that, when executed by a processor , cause the processor to: receive object data representing an object to be manufactured by an additive manufacturing process comprising using a fusing agent that absorbs electromagnetic radiation to cause build material to fuse, the object data comprising data representing a plurality of planar surfaces of the object; process the object data to determine, for each of the plurality of planar surfaces, an angle between the respective planar surface and a plane of a reference surface of an additive manufacturing apparatus; and select a manufacturing orientation of the object on the basis of the angles determined for the plurality of planar surfaces and a further property of the object different to the determined angles; wherein the further property of the object comprises a two-dimensional extent of the object parallel to the plane of the reference surface when the object has a respective orientation. receive object data representing an object to be manufactured by an additive manufacturing process comprising using a fusing agent that absorbs electromagnetic radiation to cause build material to fuse, the object data comprising data representing a plurality of planar surfaces of the object; process the object data to determine, for each of the plurality of planar surfaces, an angle between the respective planar surface and a plane of a reference surface of an additive manufacturing apparatus; and select a manufacturing orientation of the object on the basis of the angles determined for the plurality of planar surfaces and a further property of the object different to the determined angles; wherein the further property of the object comprises a two-dimensional extent of the object parallel to the plane of the reference surface when the object has a respective orientation.
A hollow golf club head comprising: a face portion that forms a striking face ; a crown portion that forms a crown outer surface and a crown inner surface ; a sole portion that forms a sole outer surface and a sole inner surface ; and a hosel portion , wherein the crown portion includes a crown atypically-shaped portion and a crown rib that is disposed on the crown inner surface , the crown atypically-shaped portion is a crown projection that forms a projection on the crown outer surface while forming a recess on the crown inner surface , or a crown recess that forms a recess on the crown outer surface while forming a projection on the crown inner surface , the crown rib is disposed on a crown center side relative to a center (C1) of the crown atypically-shaped portion , the crown rib is disposed on the crown center side relative to an entirety of the crown atypically-shaped portion , and the crown rib is located apart from the crown atypically-shaped portion . a face portion that forms a striking face ; a crown portion that forms a crown outer surface and a crown inner surface ; a sole portion that forms a sole outer surface and a sole inner surface ; and a hosel portion , wherein the crown portion includes a crown atypically-shaped portion and a crown rib that is disposed on the crown inner surface , the crown atypically-shaped portion is a crown projection that forms a projection on the crown outer surface while forming a recess on the crown inner surface , or a crown recess that forms a recess on the crown outer surface while forming a projection on the crown inner surface , the crown rib is disposed on a crown center side relative to a center (C1) of the crown atypically-shaped portion , the crown rib is disposed on the crown center side relative to an entirety of the crown atypically-shaped portion , and the crown rib is located apart from the crown atypically-shaped portion .
A control system comprising: one or more processors configured to determine when to extend a life span of an engine by applying an additional restorative coating to the engine based on one or more monitored parameters of the engine, the monitored parameters including a condition of a previously applied restorative coating , the one or more processors configured to determine, based on an optical response of the previously applied restorative coating, a presence and/or amount of a changed phase or analyte and to determine the condition of the previously applied restorative coating, wherein the one or more processors also are configured to direct application of the additional restorative coating based on the one or more monitored parameters of the engine. one or more processors configured to determine when to extend a life span of an engine by applying an additional restorative coating to the engine based on one or more monitored parameters of the engine, the monitored parameters including a condition of a previously applied restorative coating , the one or more processors configured to determine, based on an optical response of the previously applied restorative coating, a presence and/or amount of a changed phase or analyte and to determine the condition of the previously applied restorative coating, wherein the one or more processors also are configured to direct application of the additional restorative coating based on the one or more monitored parameters of the engine.
A method for adaptively controlling a transmitter field in an Electronic Article Surveillance ("EAS") detection system, comprising: detecting, by at least one first proximity sensor , whereby the first proximity sensor is arranged to point both in a front-field and a back-field of a first pedestal of the EAS detection system , a presence of a first person located in proximity to the first pedestal of the EAS detection system ; determining a first distance from the first proximity sensor to the first person; and using the first distance to adaptively control the transmitter field of the EAS detection system ; characterized by determining a second distance from a second proximity sensor , whereby the second proximity sensor is arranged to point both in a front-field and a back-field of a second pedestal of the EAS detection system , to the first person; and determining if the first and second distances are the same; or detecting a presence of a second person located in proximity to the second pedestal of the EAS detection system while the first person is located in proximity to the first pedestal ; determining a second distance from the second pedestal to the second person; and determining if the first and second distances are the same. detecting, by at least one first proximity sensor , whereby the first proximity sensor is arranged to point both in a front-field and a back-field of a first pedestal of the EAS detection system , a presence of a first person located in proximity to the first pedestal of the EAS detection system ; determining a first distance from the first proximity sensor to the first person; and using the first distance to adaptively control the transmitter field of the EAS detection system ; characterized by determining a second distance from a second proximity sensor , whereby the second proximity sensor is arranged to point both in a front-field and a back-field of a second pedestal of the EAS detection system , to the first person; and determining if the first and second distances are the same; or detecting a presence of a second person located in proximity to the second pedestal of the EAS detection system while the first person is located in proximity to the first pedestal ; determining a second distance from the second pedestal to the second person; and determining if the first and second distances are the same.
A process for producing polyurethanes comprising mixing (a) polyisocyanate, (b) polymeric compounds having isocyanate-reactive groups, (c) optionally catalysts, (d) compounds of general formula W-Kw-NH-C(O)-CH 2 -Q and optionally (e) blowing agents, (f) chain-extenders and/or crosslinking agents and (g) auxiliaries and/or additives to afford a reaction mixture and reacting the reaction mixture to afford polyurethane, wherein W- represents a cyclic amine which may be substituted and which is bonded to -Kw- via a nitrogen atom. -Kw- represents a linear or branched-chain hydrocarbon radical, N represents a nitrogen atom, C represents a carbon atom, O represents an oxygen atom and H represents a hydrogen atom and -Q represents cyanide (-CN) or an electronegative radical of general formula -C(O)-R 2 and -R 2 represents a radical selected from the group consisting of -NH 2 , -NH-R 3 -NR 4 R 5 , -OR 6 or -R 7 , wherein -R3, -R 4 , -R 5 , -R 6 and -R 7 are independently selected from the group consisting of aliphatic, araliphatic or aromatic hydrocarbons which may be substituted. (a) polyisocyanate, (b) polymeric compounds having isocyanate-reactive groups, (c) optionally catalysts, (d) compounds of general formula W-Kw-NH-C(O)-CH 2 -Q and optionally (e) blowing agents, (f) chain-extenders and/or crosslinking agents and (g) auxiliaries and/or additives to afford a reaction mixture and reacting the reaction mixture to afford polyurethane, wherein W- represents a cyclic amine which may be substituted and which is bonded to -Kw- via a nitrogen atom. -Kw- represents a linear or branched-chain hydrocarbon radical, N represents a nitrogen atom, C represents a carbon atom, O represents an oxygen atom and H represents a hydrogen atom and -Q represents cyanide (-CN) or an electronegative radical of general formula -C(O)-R 2 and -R 2 represents a radical selected from the group consisting of -NH 2 , -NH-R 3 -NR 4 R 5 , -OR 6 or -R 7 , wherein -R3, -R 4 , -R 5 , -R 6 and -R 7 are independently selected from the group consisting of aliphatic, araliphatic or aromatic hydrocarbons which may be substituted.
A vehicle lamp comprising: a first light guide including a first light guiding portion having a first light emitting surface formed thereon and a first light incident surface formed at at least one end in a light guide direction; a second light guide including a second light guiding portion having a second light emitting surface formed thereon and a second light incident surface formed at at least one end in the light guide direction; and a first reflector characterized in that the first reflector is configured to reflect a part of light emitted from the first light emitting surface , wherein the first light guiding portion and a part of the second light guiding portion are disposed on opposite sides in a light emitting direction across the first reflector , the first light guiding portion is positioned on the light emitting direction side of the second light guiding portion , and a part of the second light guiding portion is positioned outside the first light guiding portion in the light guide direction, such that light can be emitted by the second light guiding portion without being shielded by the first reflector . a first light guide including a first light guiding portion having a first light emitting surface formed thereon and a first light incident surface formed at at least one end in a light guide direction; a second light guide including a second light guiding portion having a second light emitting surface formed thereon and a second light incident surface formed at at least one end in the light guide direction; and a first reflector characterized in that the first reflector is configured to reflect a part of light emitted from the first light emitting surface , wherein the first light guiding portion and a part of the second light guiding portion are disposed on opposite sides in a light emitting direction across the first reflector , the first light guiding portion is positioned on the light emitting direction side of the second light guiding portion , and a part of the second light guiding portion is positioned outside the first light guiding portion in the light guide direction, such that light can be emitted by the second light guiding portion without being shielded by the first reflector .
A computer program product comprising a software executable by a computer system to cause the computer system to perform a method for controlling dispensing of at least one combined spinal-epidural analgesia in intermittent doses over discrete predefined time periods, comprising the steps of: initiating the dispensing of the combined spinal-epidural analgesia in intermittent doses at a first background dosage rate of 5ml/h; dispensing a signal-induced dose of the combined spinal-epidural analgesia, in response to an input signal from a signalling device; and resetting the intermittent doses to a time period of 30 minutes; if no further signal within the reset time limit, the delivery of the intermittent doses is reset to a time period of 60 minutes; or if there was a second input signal within 60 minutes of the first signal induced dose, the frequency of intermittent doses is increased having a time period of 30 minutes; and if there was a third input signal within 60 minutes of the first signal induced dose, the frequency of intermittent doses is increased having a time period of 20 minutes; and if there was a fourth input signal within 60 minutes of the first signal induced dose, the frequency of intermittent doses is increased having a time period of 15 minutes; if there are no further input signals for a following 60 minutes, the frequency of intermittent doses is increased each 60 minute period in the reverse order from the time interval of 15 minutes to 20 minutes to 30 minutes and then to 60 minutes where an input signal is not received. initiating the dispensing of the combined spinal-epidural analgesia in intermittent doses at a first background dosage rate of 5ml/h; dispensing a signal-induced dose of the combined spinal-epidural analgesia, in response to an input signal from a signalling device; and resetting the intermittent doses to a time period of 30 minutes; if no further signal within the reset time limit, the delivery of the intermittent doses is reset to a time period of 60 minutes; or if there was a second input signal within 60 minutes of the first signal induced dose, the frequency of intermittent doses is increased having a time period of 30 minutes; and if there was a third input signal within 60 minutes of the first signal induced dose, the frequency of intermittent doses is increased having a time period of 20 minutes; and if there was a fourth input signal within 60 minutes of the first signal induced dose, the frequency of intermittent doses is increased having a time period of 15 minutes; if there are no further input signals for a following 60 minutes, the frequency of intermittent doses is increased each 60 minute period in the reverse order from the time interval of 15 minutes to 20 minutes to 30 minutes and then to 60 minutes where an input signal is not received.