mhurhangee/patent-ind-claim-en huggingface dataset:
An information processing apparatus comprising: a shape information acquiring means configured to acquire shape information of a surrounding environment of a moving apparatus measured by a sensor mounted in the moving apparatus ; a position and posture acquiring means configured to acquire position and posture information of the sensor ; a correction state acquiring means configured to acquire a performance state relating to a process of correcting the position and posture information; characterized by a priority level determining means configured to determine a priority level of a partial area for generating a map; and a map generating means configured to generate the map on the basis of the shape information and the position and posture information acquired at the time of acquisition of the shape information, wherein the map generating means generates the map in order from a partial area of which the priority level is high in accordance with the performance state. a shape information acquiring means configured to acquire shape information of a surrounding environment of a moving apparatus measured by a sensor mounted in the moving apparatus ; a position and posture acquiring means configured to acquire position and posture information of the sensor ; a correction state acquiring means configured to acquire a performance state relating to a process of correcting the position and posture information; characterized by a priority level determining means configured to determine a priority level of a partial area for generating a map; and a map generating means configured to generate the map on the basis of the shape information and the position and posture information acquired at the time of acquisition of the shape information, wherein the map generating means generates the map in order from a partial area of which the priority level is high in accordance with the performance state.
A method of monitoring a Random Access Response, RAR, applied to a user terminal and comprising: sending a random access preamble to a base station ; monitoring a RAR sent by the base station, at a time position of a downlink beam corresponding to the random access preamble ; characterized in that the monitoring the RAR sent by the base station at the time position of the downlink beam corresponding to the random access preamble comprises: detecting position information of the downlink beam corresponding to the random access preamble; determining, according to the position information, a receiving time position of the downlink beam corresponding to the random access preamble in a RAR window; and monitoring, at the receiving time position, the RAR sent by the base station; or detecting position information of the downlink beam corresponding to the random access preamble; determining, according to the position information, a receiving time position of the downlink beam corresponding to the random access preamble; setting a RAR window according to the receiving time position; and monitoring the RAR sent by the base station, through the RAR window. sending a random access preamble to a base station ; monitoring a RAR sent by the base station, at a time position of a downlink beam corresponding to the random access preamble ; characterized in that the monitoring the RAR sent by the base station at the time position of the downlink beam corresponding to the random access preamble comprises: detecting position information of the downlink beam corresponding to the random access preamble; determining, according to the position information, a receiving time position of the downlink beam corresponding to the random access preamble in a RAR window; and monitoring, at the receiving time position, the RAR sent by the base station; or detecting position information of the downlink beam corresponding to the random access preamble; determining, according to the position information, a receiving time position of the downlink beam corresponding to the random access preamble; setting a RAR window according to the receiving time position; and monitoring the RAR sent by the base station, through the RAR window. detecting position information of the downlink beam corresponding to the random access preamble; determining, according to the position information, a receiving time position of the downlink beam corresponding to the random access preamble in a RAR window; and monitoring, at the receiving time position, the RAR sent by the base station; or detecting position information of the downlink beam corresponding to the random access preamble; determining, according to the position information, a receiving time position of the downlink beam corresponding to the random access preamble; setting a RAR window according to the receiving time position; and monitoring the RAR sent by the base station, through the RAR window.
A first connector part for establishing a fluid connection with a second connector part according to any of claims 4 to 7, wherein the first connector part is part of an infusion site interface comprising an infusion cannula ; a valve (1 11, 311, 411) for establishing a fluid connection, wherein the valve comprises a valve seat , the valve seat comprising a valve chamber , and a circular opening with a circumferential sealing lip ; a valve member , the valve member being provided in the valve chamber, and being able to sealingly close the circular opening of the valve seat when being pushed against the circular opening; and a resilient element that subjects the valve member to a bias force pushing the valve member against the circular opening of the valve seat; wherein the valve seat further comprises a circumferential wall around the circular opening, located on the side of the circular opening opposite to the valve chamber; characterized in that the circumferential wall forms a concave receptacle for receiving a corresponding connection cone of a second connector part, the concave receptacle having the shape of a truncated cone and facing away from the valve chamber, the circular opening being located in the centre of the concave receptacle, and wherein the concave receptacle has a first cone angle α in regard to a longitudinal axis of the cone, wherein the first cone angle α is larger than a second cone angle β of the second connector part and the difference between first cone angle α and second cone angle β is smaller or equal about 20°, advantageously is smaller or equal about 15°, and more advantageously lies between about 5° and about 15°.
A cut-off device comprising: a conductive element and a movable piston , the piston being able to move between a first position in which the current passes in the conductive element and a second position in which the current is cut off, the piston being configured to break the conductive element when moving from its first position to its second position, the piston being positioned in a receiving cavity of a receiving element when said piston is in its second position, the receiving element further comprises at least one additional cavity separate from the receiving cavity and linked to said receiving cavity by at least one channel , said at least one channel being open when the conductive element is broken by the piston , characterized in that the at least one channel is obturated by the piston when said piston is in its second position.
A safety arrangement with a light curtain for detecting objects in a monitoring area with an arrangement of beam axes which are each formed by a transmitter emitting light beams and at least one associated receiver wherein the monitoring area is monitored with the beam axes, or with an area scanner , in which light beams emitted by a transmitter sweep over the monitoring area , characterised in that the monitoring area is subdivided into at least one protective area and at least one muting control area , wherein the safety arrangement is set up so that muting functions of the safety arrangement are controlled as a function of object detection in the muting control area , a safety output signal is only generated in the event of object detection in the protection area if no muting is activated, and in the event of object detection in the muting control area , a safety output signal is generated neither when muting is activated nor when muting is not activated.
A gear unit having a first housing part and a second housing part , wherein the first and second housing parts are connected at least non-positively by means of a clamping ring , characterised in that a clamping screw is screwed with its threaded portion into an axially directed threaded bore of a clamping flange , such that the clamping flange is pulled axially towards the first housing part and thus presses on the clamping ring , a screw head of the clamping screw lies against the side of a bearing flange which faces away from the first housing part , the clamping screw being guided through a bore which is axially uninterrupted through the bearing flange and through the first housing part , the first housing part being arranged axially between the clamping flange and the bearing flange .
A delivery device for delivering a stented prosthetic heart valve including a valve structure carried by a stent frame configured to self-expand from a collapsed condition to a normal, expanded condition, the delivery device comprising: an inner shaft forming a first lumen ; a spindle associated with the inner shaft , wherein the spindle defines a first hole open to the first lumen and an exterior of the spindle ; a first cord slidably disposed within the first lumen for selectively cinching a stented prosthetic heart valve ; and a lateral control feature (132a, 132b, 132c; 202a, 202b, 202c, 356, 408a, 408b, 462, 464, 466, 510, 512, 514, 530, 532, 534) configured to bias the spindle to a selected lateral location relative to a stented prosthetic heart valve tethered to the spindle in a tethered and expanded state; wherein the lateral control feature (132a, 132b, 132c; 202a, 202b, 202c) includes a steering mechanism for spatially steering the spindle relative to the inner shaft . an inner shaft forming a first lumen ; a spindle associated with the inner shaft , wherein the spindle defines a first hole open to the first lumen and an exterior of the spindle ; a first cord slidably disposed within the first lumen for selectively cinching a stented prosthetic heart valve ; and a lateral control feature (132a, 132b, 132c; 202a, 202b, 202c, 356, 408a, 408b, 462, 464, 466, 510, 512, 514, 530, 532, 534) configured to bias the spindle to a selected lateral location relative to a stented prosthetic heart valve tethered to the spindle in a tethered and expanded state; wherein the lateral control feature (132a, 132b, 132c; 202a, 202b, 202c) includes a steering mechanism for spatially steering the spindle relative to the inner shaft .
A method for providing a porous carbon film on a silicon substrate involving the steps of: • providing a silicon surface with a surface structure including a nanotapered array, • depositing catalyst metal particles on said nanotapered silicon surface, • providing a per se known carbon nanotube growth on said tapered surface from said catalysts. • providing a silicon surface with a surface structure including a nanotapered array, • depositing catalyst metal particles on said nanotapered silicon surface, • providing a per se known carbon nanotube growth on said tapered surface from said catalysts.
A processor of a user equipment, UE , configured to perform operations comprising: receiving secondary cell, SCell, activation configuration information from a first cell; receiving a medium access control, MAC, control element, CE, from the first cell, wherein the MAC CE indicates that a SCell state is to be changed from a deactivated state to an activated state, wherein the MAC CE comprises a single-octet bitmap comprising seven C i fields and one reserved bit, wherein a C i field indicates an activation status of a SCell with SCell index i ; and receiving aperiodic reference signals from a secondary cell, SCell, wherein the reception of the aperiodic reference signals is triggered by the MAC CE and characterized in that the MAC CE comprises a trigger state, TS, field common to all component carriers, CCs, and indicates whether each CC is to utilize SCell activation with aperiodic reference signals or a synchronization signal block, SSB, based SCell activation. receiving secondary cell, SCell, activation configuration information from a first cell; receiving a medium access control, MAC, control element, CE, from the first cell, wherein the MAC CE indicates that a SCell state is to be changed from a deactivated state to an activated state, wherein the MAC CE comprises a single-octet bitmap comprising seven C i fields and one reserved bit, wherein a C i field indicates an activation status of a SCell with SCell index i ; and receiving aperiodic reference signals from a secondary cell, SCell, wherein the reception of the aperiodic reference signals is triggered by the MAC CE and characterized in that the MAC CE comprises a trigger state, TS, field common to all component carriers, CCs, and indicates whether each CC is to utilize SCell activation with aperiodic reference signals or a synchronization signal block, SSB, based SCell activation.
Method for providing a spare computer channel for a faulty computer channel of a rail vehicle, - wherein the rail vehicle has two computers , which represent a redundant 2-by-2 system in each case, - wherein each of the computers has two computer channels, - wherein the two computers are interconnected via a network , wherein a control computer is connected to the network, and thus to the two computers , and has the spare computer channel , - in which the control computer connected to the computers via the network ascertains which of the two computer channels of one of the computers is faulty, - by the two computer channels transmitting at least some of their memory content to the control computer , - by the control computer determining which of the computer channels is faulty on the basis of the transmitted memory content, - in which the control computer provides the spare computer channel for the faulty computer channel via the network , - so that the computer with the faulty computer channel is once again redundantly equipped with two functioning computer channels. - wherein the rail vehicle has two computers , which represent a redundant 2-by-2 system in each case, - wherein each of the computers has two computer channels, - wherein the two computers are interconnected via a network , wherein a control computer is connected to the network, and thus to the two computers , and has the spare computer channel , - in which the control computer connected to the computers via the network ascertains which of the two computer channels of one of the computers is faulty, - by the two computer channels transmitting at least some of their memory content to the control computer , - by the control computer determining which of the computer channels is faulty on the basis of the transmitted memory content, - in which the control computer provides the spare computer channel for the faulty computer channel via the network , - so that the computer with the faulty computer channel is once again redundantly equipped with two functioning computer channels.
A method performed by a user equipment, UE , in wireless communication system, the method comprising: receiving, from a base station , system information, SI, for an initial access, the SI including information associated with one or more other SI; transmitting , to the base station , a preamble for a random access; receiving , from the base station , a random access response as a response to the preamble for the random access, the random access response including an uplink grant; transmitting , to the base station , an uplink message based on the uplink grant, wherein the uplink message includes information for indicating other SI, and the other SI is identified based on the information associated with one or more other SI included in the SI for the initial access; and receiving , from the base station , the other SI corresponding to the information for indicating other SI, wherein the other SI is different from the SI for the initial access. receiving, from a base station , system information, SI, for an initial access, the SI including information associated with one or more other SI; transmitting , to the base station , a preamble for a random access; receiving , from the base station , a random access response as a response to the preamble for the random access, the random access response including an uplink grant; transmitting , to the base station , an uplink message based on the uplink grant, wherein the uplink message includes information for indicating other SI, and the other SI is identified based on the information associated with one or more other SI included in the SI for the initial access; and receiving , from the base station , the other SI corresponding to the information for indicating other SI, wherein the other SI is different from the SI for the initial access.
A method for authentication and key management for applications, AKMA, for a terminal device in a wireless communication network, the method being performed by the terminal device , the method comprising: responsive to a successful authentication of the terminal device with an authentication server function, AuSF , during a primary authentication session for the terminal device, obtaining a first key ; receiving an authentication response message from the AuSF, wherein the authentication response message comprises at least one of a plurality of bootstrapping security parameters, wherein the parameters comprise a second key derived from the first key , and a temporary identifier, and wherein the temporary identifier identifies the terminal device and the bootstrapping security parameters; and communicating with an AKMA Application Function, AKMA AF using the at least one of the bootstrapping security parameters to be authenticated by an AKMA Authentication Function, AAuF . responsive to a successful authentication of the terminal device with an authentication server function, AuSF , during a primary authentication session for the terminal device, obtaining a first key ; receiving an authentication response message from the AuSF, wherein the authentication response message comprises at least one of a plurality of bootstrapping security parameters, wherein the parameters comprise a second key derived from the first key , and a temporary identifier, and wherein the temporary identifier identifies the terminal device and the bootstrapping security parameters; and communicating with an AKMA Application Function, AKMA AF using the at least one of the bootstrapping security parameters to be authenticated by an AKMA Authentication Function, AAuF .
Play structure for children and adolescents comprising at least one spatial element , wherein - the spatial element is formed by supports and connecting elements , - each edge length of a spatial element corresponds to the length of a support , - at the corners of the spatial element , the supports are connected to each other by means of a connecting element , wherein the supports are attached to the connecting element , characterized in that the connecting elements are attached to the end faces of the supports . - the spatial element is formed by supports and connecting elements , - each edge length of a spatial element corresponds to the length of a support , - at the corners of the spatial element , the supports are connected to each other by means of a connecting element , wherein the supports are attached to the connecting element , characterized in that
Device for impregnating strand-like fiber bundles with a polymer melt, in which device a plurality of fiber bundles , which are inserted in parallel with one another into a slot-like infeed of an impregnation unit , are guided through between two guide plates , which have undulating surfaces , and are arranged so as to be complementary to one another at a defined spacing, and are discharged from the impregnation unit via their outlet , the fiber bundles being saturated with the polymer melt while passing through the impregnation unit , which polymer melt following the slot-like infeed is introduced between the guide plates into the passage , characterized in that the impregnation unit is formed from at least two sub-units arranged in parallel, which are coupled laterally to each other, and in each case contain a slot-like infeed and an outlet for a defined number of fiber bundles in each case, the passages each comprising an inlet for polymer melt.
A device , comprising: an optical module comprising: an array (20; 20') of pixels configured to capture image data; and a first memory (28; 28') storing identification information associated with the optical module without storing calibration information for controlling the optical module ; a second memory storing the calibration information, the second memory located outside said optical module ; means for generating (U1) and transmitting (U2) a request for updated calibration information for controlling the optical module to a datastore located outside the device, the request comprising the identification information and a timestamp providing information as to when the calibration information was last updated; means for receiving (U3) the updated calibration information associated with the identification information from the datastore outside the device and storing (U4) the updated calibration information in said second memory ; and means for calibrating (U5) the optical module with the updated calibration information. an optical module comprising: an array (20; 20') of pixels configured to capture image data; and a first memory (28; 28') storing identification information associated with the optical module without storing calibration information for controlling the optical module ; a second memory storing the calibration information, the second memory located outside said optical module ; means for generating (U1) and transmitting (U2) a request for updated calibration information for controlling the optical module to a datastore located outside the device, the request comprising the identification information and a timestamp providing information as to when the calibration information was last updated; means for receiving (U3) the updated calibration information associated with the identification information from the datastore outside the device and storing (U4) the updated calibration information in said second memory ; and means for calibrating (U5) the optical module with the updated calibration information.