mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: one or more processors in communication with a memory that stores a first image of an object taken from a first geographic location and orientation and object position data representing surface geographic locations of the object in the first image, the one or more processors being configured to: receive an identification of the object in the first image; select a second image of the object, the second image being taken from a second geographic location and orientation different from the first geographic location and orientation; determine at least one polygon on the first image, the at least one polygon including a plurality of vertices and encompassing a region of the first image, each vertex of the plurality of vertices being associated with a pixel of the first image and a geographic location shown at the pixel; determine at least one intermediate geographic location and orientation that is closer in location and orientation to the second geographic location and orientation than is the first geographic location and orientation; determine at least one intermediate image corresponding to each of the at least one intermediate geographic location and orientation by positioning a vertex of the plurality of vertices of the at least one polygon within the at least one intermediate image based on the geographic location associated with the vertex relative to the corresponding intermediate geographic location and orientation, each of the at least one intermediate image representing the object in the first image from a perspective of the corresponding intermediate geographic location and orientation; and provide the at least one intermediate image for display before display of the second image. receive an identification of the object in the first image; select a second image of the object, the second image being taken from a second geographic location and orientation different from the first geographic location and orientation; determine at least one polygon on the first image, the at least one polygon including a plurality of vertices and encompassing a region of the first image, each vertex of the plurality of vertices being associated with a pixel of the first image and a geographic location shown at the pixel; determine at least one intermediate geographic location and orientation that is closer in location and orientation to the second geographic location and orientation than is the first geographic location and orientation; determine at least one intermediate image corresponding to each of the at least one intermediate geographic location and orientation by positioning a vertex of the plurality of vertices of the at least one polygon within the at least one intermediate image based on the geographic location associated with the vertex relative to the corresponding intermediate geographic location and orientation, each of the at least one intermediate image representing the object in the first image from a perspective of the corresponding intermediate geographic location and orientation; and provide the at least one intermediate image for display before display of the second image.
An insulated multi-tool comprising a pair of opposing jaws , a pair of opposed handles operatively connected to the pair of opposing jaws relative to a pivot to force the jaws into a clamping position about an object, at least one of the opposed handles having a tool-receiving pocket , at least one tool stored in the tool receiving pocket , the at least one tool pivotally attached relative to the tool receiving pocket for movement between a stored position in which the at least one tool is stored within the tool receiving pocket and an open, use position in which the at least one tool is located relative to at least one of the opposed handles for use, wherein the pair of opposed handles are electrically insulated from both the pair of opposing jaws and each at least one tool , and characterized in that an annular isolating member is provided between each at least one tool in the tool-receiving pocket and between the outermost tools on either end and an inside of the respective tool receiving pocket such that each at least one tool is electrically insulated from the jaws and handles .
A method comprising: receiving a signal generated by a foot-based sensor during athletic activity performed by a user, wherein the signal comprises a plurality of samples; processing the signal based on a rolling standard deviation; identifying, from analysis of the rolling standard deviation processed signal, a sequence of three samples in the signal that corresponds to a physical foot-step taken by the user, wherein the sequence of three samples includes a first heelstrike sample , a toe-off sample and a second heelstrike sample ; and determining a pace of the user based on an elapsed time between at least two of the first heelstrike, toe-off and second heelstrike samples. receiving a signal generated by a foot-based sensor during athletic activity performed by a user, wherein the signal comprises a plurality of samples; processing the signal based on a rolling standard deviation; identifying, from analysis of the rolling standard deviation processed signal, a sequence of three samples in the signal that corresponds to a physical foot-step taken by the user, wherein the sequence of three samples includes a first heelstrike sample , a toe-off sample and a second heelstrike sample ; and determining a pace of the user based on an elapsed time between at least two of the first heelstrike, toe-off and second heelstrike samples.
A method for servicing a dual-stage, separated gas/fluid shock strut , comprising: measuring a servicing temperature; charging a secondary gas chamber with a first quantity of compressed gas, until the secondary gas chamber is charged to a pre-determined secondary chamber pressure which corresponds to the servicing temperature; pumping an oil into an oil chamber of the dual-stage, separated gas/fluid shock strut subsequent to the secondary gas chamber being charged with the first quantity of compressed gas; and charging a primary gas chamber with a second quantity of compressed gas; wherein the primary gas chamber is fluidly separated from the oil chamber via a first separator piston and the secondary gas chamber is fluidly separated from the oil chamber via a second separator piston . measuring a servicing temperature; charging a secondary gas chamber with a first quantity of compressed gas, until the secondary gas chamber is charged to a pre-determined secondary chamber pressure which corresponds to the servicing temperature; pumping an oil into an oil chamber of the dual-stage, separated gas/fluid shock strut subsequent to the secondary gas chamber being charged with the first quantity of compressed gas; and charging a primary gas chamber with a second quantity of compressed gas; wherein the primary gas chamber is fluidly separated from the oil chamber via a first separator piston and the secondary gas chamber is fluidly separated from the oil chamber via a second separator piston .
A network control apparatus configured to control a radio network through which a terminal can access a plurality of backhaul networks in a mobile network, wherein the radio network includes a plurality of base stations , wherein each of the plurality of base stations is configured by a combination of a radio section and a baseband section which are included in the radio network, wherein a first baseband section and a second baseband section are connected respectively to a first backhaul network and a second backhaul network, characterized by comprising: a first means configured to acquire a communication load on each of the plurality of backhaul networks, wherein a first communication load of the first backhaul network is equal to or higher than a predetermined threshold and a second communication load of the second backhaul network is lower than a predetermined threshold; and a second means configured to control the radio network based on the first and second communication loads by instructing a base station of the plurality of base stations to change a destination baseband section of a radio section from the first baseband section connected to the first backhaul network to the second baseband section connected to the second backhaul network. a first means configured to acquire a communication load on each of the plurality of backhaul networks, wherein a first communication load of the first backhaul network is equal to or higher than a predetermined threshold and a second communication load of the second backhaul network is lower than a predetermined threshold; and a second means configured to control the radio network based on the first and second communication loads by instructing a base station of the plurality of base stations to change a destination baseband section of a radio section from the first baseband section connected to the first backhaul network to the second baseband section connected to the second backhaul network.
A piezoelectric device comprising a membrane comprising fibres and at least one oxide with piezoelectric properties in the form of spherical nanoparticles, nanowires, nanotubes, nanobelts or nanorods, having an average size comprised between 1 nm and 100 nm; characterized in that : the fibres are of a polyhydroxyalkanoate, PHA, having average diameter comprised between 100 nm and 2000 nm, the at least one oxide has at least one binding agent on its surface; and the at least one binding agent is a hydrophilic binder or a lipophilic binder. the fibres are of a polyhydroxyalkanoate, PHA, having average diameter comprised between 100 nm and 2000 nm, the at least one oxide has at least one binding agent on its surface; and the at least one binding agent is a hydrophilic binder or a lipophilic binder.
A method of providing an extended layer 2 network comprising a plurality of layer 2 networks connected using Overlay Transport Virtualization, OTV, each of the layer 2 networks being assigned a single logical identifier called a site virtual Media Access Control, MAC, S-VMAC, address, the method comprising: receiving , at a first network edge device in a first layer 2 network within the extended layer 2 network, a data packet specifying a first destination, MAC, address; accessing, on the first network edge device, a MAC address table, the MAC address table storing said single S-VMAC address for each remote layer 2 network, to determine that the first destination MAC address is an S-VMAC address, said S-VMAC address being associated with a second network edge device in a second layer 2 network within the extended layer 2 network and to determine switching information including an interface identifier to identify a destination interface corresponding to the S-VMAC address for forwarding the data packet to the second network edge device, wherein the S-VMAC address is dynamically assigned to the second network device within the extended layer 2 network; and forwarding the data packet using the identified interface to the second network edge device, wherein the second network edge device is configured to determine a second destination MAC address for the data packet based on a destination Internet Protocol, IP, address specified in the data packet, and is further configured to replace the first destination MAC address in the data packet with the determined second destination MAC address and is further configured to forward the data packet to a destination device associated with the determined second destination MAC address. receiving , at a first network edge device in a first layer 2 network within the extended layer 2 network, a data packet specifying a first destination, MAC, address; accessing, on the first network edge device, a MAC address table, the MAC address table storing said single S-VMAC address for each remote layer 2 network, to determine that the first destination MAC address is an S-VMAC address, said S-VMAC address being associated with a second network edge device in a second layer 2 network within the extended layer 2 network and to determine switching information including an interface identifier to identify a destination interface corresponding to the S-VMAC address for forwarding the data packet to the second network edge device, wherein the S-VMAC address is dynamically assigned to the second network device within the extended layer 2 network; and forwarding the data packet using the identified interface to the second network edge device, wherein the second network edge device is configured to determine a second destination MAC address for the data packet based on a destination Internet Protocol, IP, address specified in the data packet, and is further configured to replace the first destination MAC address in the data packet with the determined second destination MAC address and is further configured to forward the data packet to a destination device associated with the determined second destination MAC address.
An electroporation catheter comprising: a shaft having a proximal end and a distal end ; and an electroporation assembly (120, 120', 120") located at the distal end of the shaft , the electroporation assembly (120, 120', 120") having at least a first electrode , a second electrode proximally located relative to the first electrode , said electroportaion catheter further comprising and a non-conductive portion , the non-conductive portion having a first end and a second end , wherein the first end is connected to the shaft and wherein the second end extends radially outward from the first end , characterised in that said second electrode is located along the shaft . a shaft having a proximal end and a distal end ; and an electroporation assembly (120, 120', 120") located at the distal end of the shaft , the electroporation assembly (120, 120', 120") having at least a first electrode , a second electrode proximally located relative to the first electrode , said electroportaion catheter further comprising and a non-conductive portion , the non-conductive portion having a first end and a second end , wherein the first end is connected to the shaft and wherein the second end extends radially outward from the first end , characterised in that said second electrode is located along the shaft .
A method comprising: analyzing, by a vehicle apparatus , sensor data collected as the vehicle apparatus traverses at least a portion of a road network, the sensor data captured by one or more sensors onboard a vehicle , the vehicle apparatus being onboard the same vehicle, the sensor data being analyzed in at least near real time with respect to the capturing of the sensor data by the one or more sensors; detecting , based on the analyzing of the sensor data and by the vehicle apparatus, an inconsistency between the sensor data and map data stored in a memory; responsive to the detected inconsistency satisfying a vehicle-to-vehicle criterion, generating , by the vehicle apparatus, a notification message comprising an indication of the detected inconsistency, wherein the detected inconsistency satisfies the vehicle-to-vehicle criterion, if the detected inconsistency is likely to affect the performance and/or result of one or more navigation functions that could be performed by a vehicle apparatus if the vehicle apparatus was in the vicinity of the detected inconsistency; and continuously and/or periodically transmitting , by the vehicle apparatus and via a short or medium range communication protocol, the notification message for a predefined period of time and/or within a predefined distance of the location of the detected inconsistency. analyzing, by a vehicle apparatus , sensor data collected as the vehicle apparatus traverses at least a portion of a road network, the sensor data captured by one or more sensors onboard a vehicle , the vehicle apparatus being onboard the same vehicle, the sensor data being analyzed in at least near real time with respect to the capturing of the sensor data by the one or more sensors; detecting , based on the analyzing of the sensor data and by the vehicle apparatus, an inconsistency between the sensor data and map data stored in a memory; responsive to the detected inconsistency satisfying a vehicle-to-vehicle criterion, generating , by the vehicle apparatus, a notification message comprising an indication of the detected inconsistency, wherein the detected inconsistency satisfies the vehicle-to-vehicle criterion, if the detected inconsistency is likely to affect the performance and/or result of one or more navigation functions that could be performed by a vehicle apparatus if the vehicle apparatus was in the vicinity of the detected inconsistency; and continuously and/or periodically transmitting , by the vehicle apparatus and via a short or medium range communication protocol, the notification message for a predefined period of time and/or within a predefined distance of the location of the detected inconsistency.
Pneumatic vehicle tyre having a tread with at least one profile rib , which is delimited on at least one side by a circumferential groove running in a straight line in plan view, which, over the tread circumference, is composed of a sequence of at least two pitches (L, M, K) with different circumferential lengths (l L , l M , l K ), and which has an encircling rib flank on the circumferential groove , wherein in each pitch on the rib flank at the profile rib periphery there is formed a circumferentially elongate recess , which, at the profile rib periphery, has a respective shorter boundary edge and longer boundary edge than said shorter boundary edge and which is delimited by two boundary surfaces , adjoining the boundary edges , and a base surface , wherein the boundary edges and the boundary surfaces form a respective angle (γ) of 100° to 160° in plan view, characterized in that the recess in the circumferential groove has a maximum circumferential length (l 1 ), determined at the profile rib periphery, of 70% to 100% of the circumferential length (l L , l M , l K ) of the respective pitch (L, M, K), wherein the longer boundary edge of the recess runs at an angle (β) of up to 8° in relation to the circumferential direction in plan view, and wherein, radially on the inside of the recess and spaced apart therefrom on the rib flank , there is formed a circumferentially elongate projection with a maximum circumferential length (l 2 ) of 30% to 50% of the circumferential length (l L , l M , l K ) of the respective pitch (L, M, K).
A topical skincare composition comprising: a. a Centella asiatica extract, wherein the Centella asiatica extract comprises two or more triterpenes selected from the group consisting of asiaticoside, asiatic acid, madecassoside, and mixtures thereof; b. a Populas alba bark extract; and c. a dermatologically acceptable carrier, wherein the Centella asiatica extract and the Populas alba bark extract are in a weight ratio of 1:3 to 200:1, preferably 1:2 to 100:1, more preferably 1:1.1 to 9:1. a. a Centella asiatica extract, wherein the Centella asiatica extract comprises two or more triterpenes selected from the group consisting of asiaticoside, asiatic acid, madecassoside, and mixtures thereof; b. a Populas alba bark extract; and c. a dermatologically acceptable carrier, wherein the Centella asiatica extract and the Populas alba bark extract are in a weight ratio of 1:3 to 200:1, preferably 1:2 to 100:1, more preferably 1:1.1 to 9:1.
Main module for a command and reporting system , comprising a control unit , a device interface for coupling to at least two command and reporting devices (12, 12.1, 12.2, 12.3, 12.n) in a line topology, a bus interface for connecting to a higher-level control unit , wherein the control unit is designed with the device interface to control the at least two command and reporting devices (12, 12.1, 12.2, 12.3, 12.n) separately by means of a command signal , characterised in that the command signal has a target cell and an incrementable counting cell for device-address-free delivery at the respective command and reporting device (12, 12.1, 12.2, 12.3, 12.n) wherein the value in the target cell defines the command and reporting device (12, 12.1, 12.2, 12.3, 12.n), for which the command signal is intended, and wherein the counting cell is filled with an initial value when the command signal is sent from the device interface , which upon receipt of the command signal by a command and reporting device (12, 12.1, 12.2, 12.3, 12.n) is increased by one increment in each case, so that the command signal originating from the main module is forwarded from one command and reporting device to the next until the command signal (12, 12.1, 12.2, 12.3, 12.n) is identified and processed by the intended command and reporting device (12, 12.1, 12.2, 12.3, 12.n).
A system comprising: a first apparatus for wireless communication at a first UE of a plurality of sidelink UEs , the apparatus comprising: means for receiving, from a second UE , via the transceiver, a groupcast signal comprising a time and frequency resource allocation assigned to the plurality of sidelink UEs including the first UE and the at least one other sidelink UE; and means for communicating, with a remote apparatus on a first resource included in the resource allocation, via the transceiver, a first relay signal comprising at least a first portion of the groupcast signal; a second apparatus for wireless communication at at least one other sidelink user equipment, UE, of the plurality of sidelink UEs, the second apparatus comprising: means for receiving, from the second UE , the groupcast signal comprising the time and frequency resource allocation assigned to the plurality of sidelink UEs including the first UE and the at least one other sidelink UE; and means for communicating, with the remote apparatus on a second resource included in the resource allocation, a second relay signal comprising at least a second portion of the groupcast signal. a first apparatus for wireless communication at a first UE of a plurality of sidelink UEs , the apparatus comprising: means for receiving, from a second UE , via the transceiver, a groupcast signal comprising a time and frequency resource allocation assigned to the plurality of sidelink UEs including the first UE and the at least one other sidelink UE; and means for communicating, with a remote apparatus on a first resource included in the resource allocation, via the transceiver, a first relay signal comprising at least a first portion of the groupcast signal; means for receiving, from a second UE , via the transceiver, a groupcast signal comprising a time and frequency resource allocation assigned to the plurality of sidelink UEs including the first UE and the at least one other sidelink UE; and means for communicating, with a remote apparatus on a first resource included in the resource allocation, via the transceiver, a first relay signal comprising at least a first portion of the groupcast signal; a second apparatus for wireless communication at at least one other sidelink user equipment, UE, of the plurality of sidelink UEs, the second apparatus comprising: means for receiving, from the second UE , the groupcast signal comprising the time and frequency resource allocation assigned to the plurality of sidelink UEs including the first UE and the at least one other sidelink UE; and means for communicating, with the remote apparatus on a second resource included in the resource allocation, a second relay signal comprising at least a second portion of the groupcast signal. means for receiving, from the second UE , the groupcast signal comprising the time and frequency resource allocation assigned to the plurality of sidelink UEs including the first UE and the at least one other sidelink UE; and means for communicating, with the remote apparatus on a second resource included in the resource allocation, a second relay signal comprising at least a second portion of the groupcast signal.