mhurhangee/patent-ind-claim-en huggingface dataset:
A method of updating a semantic map, comprising: acquiring a semantic map to be matched, the map comprising nodes and routes between adjacent nodes; sorting the nodes to form a node list according to a generation sequence of the nodes; comparing a selected node in the node list with nodes on a stored map to acquire a most approximate node as a matching node, wherein the selected node in the node list is called a node to be matched, and a node compared with the node to be matched is called a matched node; wherein the step of comparing the selected node in the node list with the nodes in the stored map to acquire the most approximate node as the matching node comprises: comparing the node to be matched in the node list with the matched nodes in the stored map, and taking a matched node satisfying the following conditions as the matching node: a route connected with the node to be matched matches at least one route connected with the matched node, and a length difference between the two matching routes is less than a predetermined length difference; merging the node to be matched, if matched, and the matching node which match each other to obtain a merged node, and replacing the matching node with the merged node to form a new node; and when a matching node is not acquired in the step of comparing the selected node in the node list with the nodes in the stored map to acquire the most approximate node as the matching node, adding the selected node to the stored map. acquiring a semantic map to be matched, the map comprising nodes and routes between adjacent nodes; sorting the nodes to form a node list according to a generation sequence of the nodes; comparing a selected node in the node list with nodes on a stored map to acquire a most approximate node as a matching node, wherein the selected node in the node list is called a node to be matched, and a node compared with the node to be matched is called a matched node; wherein the step of comparing the selected node in the node list with the nodes in the stored map to acquire the most approximate node as the matching node comprises: comparing the node to be matched in the node list with the matched nodes in the stored map, and taking a matched node satisfying the following conditions as the matching node: a route connected with the node to be matched matches at least one route connected with the matched node, and a length difference between the two matching routes is less than a predetermined length difference; merging the node to be matched, if matched, and the matching node which match each other to obtain a merged node, and replacing the matching node with the merged node to form a new node; and when a matching node is not acquired in the step of comparing the selected node in the node list with the nodes in the stored map to acquire the most approximate node as the matching node, adding the selected node to the stored map.
An accessory (100; 40; 70) configured to be detachably mountable to an image pickup apparatus including a first mount portion (201, A) including a plurality of first bayonet claw portions (201a-201c), and a plurality of first terminals (203a-203k, 203m), the accessory (100; 40; 70) comprising: a second mount portion (301, B) including a plurality of second bayonet claw portions (301d-301f) configured to enable engagement with the plurality of first bayonet claw portions (201a-201c); and a plurality of second terminals (303a-303k, 303m) configured to enable contact with the plurality of first terminals (203a-203k, 203m) and provided at positions that are different from positions of the plurality of second bayonet claw portions (301d-301f), the number of the plurality of second terminals (303a-303k, 303m) is twelve, characterised in that when viewed in a central axis direction of the second mount portion (301, B), a plurality of half lines that extend from the central axis of the second mount portion (301, B) and pass through a predetermined plurality of second terminals (303f-303k) that are used in communication between the image pickup apparatus and the accessory (100; 40; 70) and through a predetermined second terminal that determines whether the accessory (100; 40; 70) is mounted on the image pickup apparatus or not, among the plurality of second terminals (303a-303k, 303m), all pass through a predetermined second bayonet claw portion among the plurality of second bayonet claw portions (301d-301f). a second mount portion (301, B) including a plurality of second bayonet claw portions (301d-301f) configured to enable engagement with the plurality of first bayonet claw portions (201a-201c); and a plurality of second terminals (303a-303k, 303m) configured to enable contact with the plurality of first terminals (203a-203k, 203m) and provided at positions that are different from positions of the plurality of second bayonet claw portions (301d-301f), the number of the plurality of second terminals (303a-303k, 303m) is twelve, characterised in that when viewed in a central axis direction of the second mount portion (301, B), a plurality of half lines that extend from the central axis of the second mount portion (301, B) and pass through a predetermined plurality of second terminals (303f-303k) that are used in communication between the image pickup apparatus and the accessory (100; 40; 70) and through a predetermined second terminal that determines whether the accessory (100; 40; 70) is mounted on the image pickup apparatus or not, among the plurality of second terminals (303a-303k, 303m), all pass through a predetermined second bayonet claw portion among the plurality of second bayonet claw portions (301d-301f).
A method at a terminal, comprising receiving, from a component of said terminal, data related to an application, identifying, in said data, storage data intended for cloud storage, and selecting, for said storage data, a transmission path of a plurality of transmission paths to said cloud storage, wherein said each of said plurality of transmission paths to said cloud storage bypasses an application server hosting said application. receiving, from a component of said terminal, data related to an application, identifying, in said data, storage data intended for cloud storage, and selecting, for said storage data, a transmission path of a plurality of transmission paths to said cloud storage, wherein said each of said plurality of transmission paths to said cloud storage bypasses an application server hosting said application.
A monitoring device for securing access to a danger zone with a safety sensor which is designed to monitor a monitoring area, wherein a safety function can be triggered by means of the safety sensor when an object is detected, wherein a radar sensor is arranged upstream of the safety sensor, by means of which a spatial area of the access is monitored, wherein non-safety-critical objects can be distinguished from safety-critical objects by means of the radar sensor , and wherein the safety function of the safety sensor is bypassed if only one non-safety-critical object is detected in the spatial area by means of the radar sensor , characterised in that two safety sensors are provided, which are arranged on both sides of the spatial area monitored by the radar sensor , in that a non-safety-critical object can be moved through the monitoring area of a first safety sensor into the spatial area monitored by the radar sensor , and in that the safety function of the second safety sensor is only bypassed when the radar sensor detects a non-safety-critical object in the spatial area monitored by the radar sensor , when the radar sensor detects that only the non-safety-critical object is present in the spatial area , the non-safety-critical object being able to enter the spatial area because the safety function of the first safety sensor is bypassed by an external muting function.
An automotive headlamp system, comprising light sources, a primary optical element , an automotive signal lamp structure, and a secondary optical element , which are arranged in sequence along the light emitting direction, wherein the automotive signal lamp structure includes a light-transmitting portion and a rotating shaft ; characterized in that the light-transmitting portion comprises a plurality of light-transmitting plates , and the plurality of light-transmitting plates are different in material and/or shape, each light-transmitting corresponds to a different signaling function; all the light-transmitting plates are mounted on the same rotating shaft and can be driven to rotate by the rotating shaft so that, by means of rotation, light from the light source exits by means of the primary optical element , then selectively passes through one of the light-transmitting plates or does not pass through any one of the light-transmitting plates , and then is projected by means of the secondary optical element to achieve a corresponding signal lamp function or lighting function.
A heel unit (10; 110) for a touring binding, comprising a binding body (12; 112) that is suitable for immobilising a heel portion of a touring boot in a downhill position of the heel unit (10; 110) and for releasing the heel portion of the touring boot in a touring position of the heel unit (10; 110) such that the touring boot can be raised away from the heel unit (10; 110), and a climbing aid (20; 120) that is movable between an active position and a passive position, wherein, in the touring position of the heel unit (10; 110), the climbing aid (20; 120) supports the heel portion of the touring boot at a predetermined height above a sliding board plane in its active position, wherein the climbing aid (20; 120) is urged over its entire path of movement into the active position and is lockable in the passive position by a resilient element, and characterised in that the climbing aid (20; 120) is mounted such that it is pivotal on the heel unit (10; 110), in particular on the binding body (12; 112). a binding body (12; 112) that is suitable for immobilising a heel portion of a touring boot in a downhill position of the heel unit (10; 110) and for releasing the heel portion of the touring boot in a touring position of the heel unit (10; 110) such that the touring boot can be raised away from the heel unit (10; 110), and a climbing aid (20; 120) that is movable between an active position and a passive position, wherein, in the touring position of the heel unit (10; 110), the climbing aid (20; 120) supports the heel portion of the touring boot at a predetermined height above a sliding board plane in its active position, wherein the climbing aid (20; 120) is urged over its entire path of movement into the active position and is lockable in the passive position by a resilient element, and characterised in that the climbing aid (20; 120) is mounted such that it is pivotal on the heel unit (10; 110), in particular on the binding body (12; 112).
Refrigeration appliance apparatus which is a subassembly of a refrigeration appliance , with at least one housing unit (12a-b) which defines at least one intermediate space (14a-b) and which has at least one housing element (16a-b) which delimits the intermediate space (14a-b) at least partially, and with at least one insulation element (18a-b) which is arranged inside the intermediate space (14a-b) in at least one assembled state, wherein the housing unit (12a-b) is designed as a separating plate, wherein the housing unit (12a-b) is provided for resting on projections and/or for inserting in grooves, wherein the housing unit (12a-b) designed as a separating plate is provided to divide at least one receiving compartment for food of a refrigeration appliance into at least two temperature regions in the assembled state, wherein there is at least one fastening element , which in the assembled state fastens the insulation element (18a-b) and the housing element (16a-b) to one another at least by a material bond, wherein the fastening element (20a-b) is designed as an adhesive layer and that the fastening element (20a-b) is designed as a planar element and, in the at least one assembled state, the fastening element (20a-b) extends over a proportion of at least 60 %, advantageously of at least 70 %, particularly advantageously of at least 80 %, preferably of at least 90 % and particularly preferably of at least 95 % of a surface of the housing element (16a-b) which faces the insulation element (18a-b) in the assembled state and/or of a surface of the insulation element (18a-b) which faces the housing element (16a-b) in the assembled state, and wherein the insulation element (18a-b) is designed as a preformed element.
A method for determining end of service life for a disposable face mask, the method comprising: determining a correlation between the exhalation from a user and the use life of the mask; determining a color change standard for the color changing indicator chemicals at the end of the use life of the mask; and incorporating color changing indicator chemicals into the disposable face mask, wherein the color changing indicator chemicals are configured to react with one or more of water and carbon dioxide from a user's exhalation to indicate end of service life, and wherein the indicator chemicals are incorporated into a nonwoven fabric material by adding fibers of the indicator chemicals into the nonwoven fabric material . determining a correlation between the exhalation from a user and the use life of the mask; determining a color change standard for the color changing indicator chemicals at the end of the use life of the mask; and incorporating color changing indicator chemicals into the disposable face mask, wherein the color changing indicator chemicals are configured to react with one or more of water and carbon dioxide from a user's exhalation to indicate end of service life, and wherein the indicator chemicals are incorporated into a nonwoven fabric material by adding fibers of the indicator chemicals into the nonwoven fabric material .
Sensor positioning system for a bioprocess engineering unit , wherein a container , in particular a single-use container, is provided for receiving a biological medium, which container in the installed state extends in an axial direction (X) from an upper container end to a lower container end , wherein a holder is provided for holding the container in the installed state, wherein a sensor is provided, which is to be fixed to the container , characterized in that a positioning aid device is provided for positioning the sensor to be fixed in a predefined position on the container , in that the positioning aid device comprises a positioning aid , which is or can be mounted directly on the container or next to the container on the holder and can be brought into different height positions and/or circumferential positions relative to at least one reference point (P) provided on the container and/or holder , and in that the positioning aid device comprises a technical storage medium or analogue print medium with an assignment list , in which a predefined height position and/or circumferential position of the positioning aid is assigned to each of a plurality of bioprocess engineering applications. wherein a container , in particular a single-use container, is provided for receiving a biological medium, which container in the installed state extends in an axial direction (X) from an upper container end to a lower container end , wherein a holder is provided for holding the container in the installed state, wherein a sensor is provided, which is to be fixed to the container , characterized in that a positioning aid device is provided for positioning the sensor to be fixed in a predefined position on the container , in that the positioning aid device comprises a positioning aid , which is or can be mounted directly on the container or next to the container on the holder and can be brought into different height positions and/or circumferential positions relative to at least one reference point (P) provided on the container and/or holder , and in that the positioning aid device comprises a technical storage medium or analogue print medium with an assignment list , in which a predefined height position and/or circumferential position of the positioning aid is assigned to each of a plurality of bioprocess engineering applications.
Hose , comprising a tubular hose wall , a plurality of first sensor lines , a plurality of second sensor lines and an evaluation unit , wherein the hose wall comprises an elastomer base material with an embedded strengthening member , wherein the first and second sensor lines are embedded into the base material , wherein the first sensor lines are arranged distributed in an annular, first layer section of the hose wall , which first layer section forms the inner side of the hose wall , wherein the second sensor lines are arranged distributed in an annular, second layer section of the hose wall, which second layer section is formed radially on the outside with respect to the first layer section , wherein each of the sensor lines is electrically coupled by means of an associated first end directly or indirectly to the evaluation unit , wherein each of the sensor lines is electrically coupled by means of an associated second end directly or indirectly to the evaluation unit , wherein the evaluation unit is designed to detect the electrical conductivity and/or throughflow capability of each of the sensor lines , wherein the evaluation unit is designed to determine a circumferential position and radial direction position of a point of wear on the inner side of the hose wall on the basis of the detected electrical conductivity and/or throughflow capability of the sensor lines , characterized in that the strengthening member is of electrically conductive design and forms the return line. a tubular hose wall , a plurality of first sensor lines , a plurality of second sensor lines and an evaluation unit , wherein the hose wall comprises an elastomer base material with an embedded strengthening member , wherein the first and second sensor lines are embedded into the base material , wherein the first sensor lines are arranged distributed in an annular, first layer section of the hose wall , which first layer section forms the inner side of the hose wall , wherein the second sensor lines are arranged distributed in an annular, second layer section of the hose wall, which second layer section is formed radially on the outside with respect to the first layer section , wherein each of the sensor lines is electrically coupled by means of an associated first end directly or indirectly to the evaluation unit , wherein each of the sensor lines is electrically coupled by means of an associated second end directly or indirectly to the evaluation unit , wherein the evaluation unit is designed to detect the electrical conductivity and/or throughflow capability of each of the sensor lines , wherein the evaluation unit is designed to determine a circumferential position and radial direction position of a point of wear on the inner side of the hose wall on the basis of the detected electrical conductivity and/or throughflow capability of the sensor lines , characterized in that the strengthening member is of electrically conductive design and forms the return line.
A lithium aluminosilicate glass comprising: from 55 mol% to 75 mol% SiO 2 ; from 10 mol% to 18 mol% Al 2 O 3 ; from 3.5 mol% to 9.5 mol% B 2 O 3 ; from 7 mol% to 14 mol% Li 2 O; from 0 mol% to 5 mol% NazO; from 0.05 mol% to 0.5 mol% SnO 2 ; and from 0 mol% to 4 mol% P 2 O 5 , wherein Li 2 O(mol%)/R 2 O(mol%) is in a range from 0.1 to 0.4 and R 2 O = Li 2 O + Na 2 O + K 2 O + Rb 2 O + CszO. from 55 mol% to 75 mol% SiO 2 ; from 10 mol% to 18 mol% Al 2 O 3 ; from 3.5 mol% to 9.5 mol% B 2 O 3 ; from 7 mol% to 14 mol% Li 2 O; from 0 mol% to 5 mol% NazO; from 0.05 mol% to 0.5 mol% SnO 2 ; and from 0 mol% to 4 mol% P 2 O 5 , wherein Li 2 O(mol%)/R 2 O(mol%) is in a range from 0.1 to 0.4 and R 2 O = Li 2 O + Na 2 O + K 2 O + Rb 2 O + CszO.
An inkjet printing composition comprising: (a) an aqueous liquid vehicle; (b) at least a pigment; (c) at least a nitrile polymer emulsion comprising at least one of carboxylated acrylonitrile butadiene styrene polymer emulsion. (a) an aqueous liquid vehicle; (b) at least a pigment; (c) at least a nitrile polymer emulsion comprising at least one of carboxylated acrylonitrile butadiene styrene polymer emulsion.
A method performed by a user equipment , UE, the method comprising: establishing a connection to a Radio Access Network , RAN, via a network node , the connection providing communications between the UE and the network node using a Signaling Radio Bearer 1, SRB1, configured with a New Radio, NR, Packet Data Convergence Protocol, PDCP, configuration; receiving a Radio Resource Control, RRC, connection re-establishment message; and re-establishing the connection to the RAN, the re-establishing including applying a Long-Term Evolution, LTE, PDCP configuration to the SRB1. establishing a connection to a Radio Access Network , RAN, via a network node , the connection providing communications between the UE and the network node using a Signaling Radio Bearer 1, SRB1, configured with a New Radio, NR, Packet Data Convergence Protocol, PDCP, configuration; receiving a Radio Resource Control, RRC, connection re-establishment message; and re-establishing the connection to the RAN, the re-establishing including applying a Long-Term Evolution, LTE, PDCP configuration to the SRB1.
A method performed by a network node , the method comprising: identifying (S905), by the network node , a location to be allocated for a multicast message within a transmission subframe based on at least information identifying the transmission subframe, wherein identifying (S905) the location for the multicast message comprises identifying the location based on a combination of at least a physical cell identifier, PCI, and the information identifying the transmission subframe, wherein the multicast message is a system information block; and transmitting (S910), by the network node , the multicast message at the identified location in the transmission subframe. identifying (S905), by the network node , a location to be allocated for a multicast message within a transmission subframe based on at least information identifying the transmission subframe, wherein identifying (S905) the location for the multicast message comprises identifying the location based on a combination of at least a physical cell identifier, PCI, and the information identifying the transmission subframe, wherein the multicast message is a system information block; and transmitting (S910), by the network node , the multicast message at the identified location in the transmission subframe.
A method comprising: receiving audio data comprising a spoken word associated with a text source, wherein the audio data comprises a first segment of the audio data having a first duration and a second segment of the audio data having a second duration; the method being characterised by further comprising: comparing the audio data with data of the text source, wherein the first segment of the audio data corresponds with the data of the text source; calculating, by a processing device, a correspondence measure between the second segment of the audio data and the data of the text source; and responsive to determining the correspondence measure satisfies a threshold, transmitting a signal to cease comparing audio data with the data of the text source. comparing the audio data with data of the text source, wherein the first segment of the audio data corresponds with the data of the text source; calculating, by a processing device, a correspondence measure between the second segment of the audio data and the data of the text source; and responsive to determining the correspondence measure satisfies a threshold, transmitting a signal to cease comparing audio data with the data of the text source.