mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining a control plane node, comprising: obtaining (S101), by a terminal, indication information, wherein the indication information is used to indicate a network slice to which the terminal belongs; and sending (S102), by the terminal, the indication information comprised in an access layer request message to a radio access network node for determining, based on the indication information, a control plane node corresponding to the network slice for the terminal; wherein the obtaining (S101), by a terminal, indication information, comprises: obtaining (S101a), by the terminal, the indication information preconfigured in the terminal; and wherein the indication information is a standardized identifier of the network slice. obtaining (S101), by a terminal, indication information, wherein the indication information is used to indicate a network slice to which the terminal belongs; and sending (S102), by the terminal, the indication information comprised in an access layer request message to a radio access network node for determining, based on the indication information, a control plane node corresponding to the network slice for the terminal; wherein the obtaining (S101), by a terminal, indication information, comprises: obtaining (S101a), by the terminal, the indication information preconfigured in the terminal; and wherein the indication information is a standardized identifier of the network slice.
A method , performed in an accessory device , for communicating an operating state of an ostomy appliance , wherein the ostomy appliance comprises a base plate , the base plate comprising a first adhesive layer and one or more electrodes configured to measure electrical properties of the first adhesive layer , and wherein the accessory device comprises an interface configured to communicate with one or more devices of an ostomy system , the one or more devices comprising a monitor device having a first interface for electrically and/or mechanically connecting the monitor device to the ostomy appliance , wherein the ostomy appliance is configured to be placed on a skin surface of a user, characterized in that the method comprises: - obtaining monitor data representative of the measurement of the electrical properties of the first adhesive layer from the monitor device , the monitor data being indicative of a condition of the first adhesive layer ; - communicating an operating state of the ostomy appliance , based on the monitor data, via the interface . - obtaining monitor data representative of the measurement of the electrical properties of the first adhesive layer from the monitor device , the monitor data being indicative of a condition of the first adhesive layer ; - communicating an operating state of the ostomy appliance , based on the monitor data, via the interface .
A photoacoustic imaging apparatus comprising: a light source configured to irradiate a subject with light , an acoustic converting unit configured to receive an acoustic wave generated by irradiating the subject with the light and to convert the acoustic wave to an electrical signal; and a processing unit configured to determine a surface shape of the subject , to generate first image data from the electrical signal, to determine an internal light intensity distribution corresponding to inside the subject on the basis of a surface illuminance distribution of the light incident on the subject and the determined surface shape of the subject , and to generate second image data on the basis of the electrical signal and the internal light intensity distribution corresponding to inside the subject , wherein the processing unit is adapted to acquire the generated second image data to display an image based on the said second image data. a light source configured to irradiate a subject with light , an acoustic converting unit configured to receive an acoustic wave generated by irradiating the subject with the light and to convert the acoustic wave to an electrical signal; and a processing unit configured to determine a surface shape of the subject , to generate first image data from the electrical signal, to determine an internal light intensity distribution corresponding to inside the subject on the basis of a surface illuminance distribution of the light incident on the subject and the determined surface shape of the subject , and to generate second image data on the basis of the electrical signal and the internal light intensity distribution corresponding to inside the subject , wherein the processing unit is adapted to acquire the generated second image data to display an image based on the said second image data.
A recovery unit adapted to receive a radio frequency, RF, power and generate a DC power in response, the recovery unit comprising: at least one antenna for receiving the RF power; an RF-to-DC converter for generating the DC power; and an impedance matching/transformation circuit disposed between the at least one antenna and the RF-to-DC converter and adapted to provide impedance matching between the antenna and the RF-to-DC converter ; characterized by : an RF load/matching circuit coupled to the RF-to-DC converter and adapted to block the RF signal from reaching an output terminal of the RF-to-DC converter; a DC-to-DC converter coupled to the output terminal of the RF-to-DC converter ; and an amplitude/power detector . at least one antenna for receiving the RF power; an RF-to-DC converter for generating the DC power; and an impedance matching/transformation circuit disposed between the at least one antenna and the RF-to-DC converter and adapted to provide impedance matching between the antenna and the RF-to-DC converter ; characterized by : an RF load/matching circuit coupled to the RF-to-DC converter and adapted to block the RF signal from reaching an output terminal of the RF-to-DC converter; a DC-to-DC converter coupled to the output terminal of the RF-to-DC converter ; and an amplitude/power detector .
A work machine , comprising: a control device configured to control the work machine and: store, in a storage , a plurality of types of setting information that are set for setting items relating to functions of the work machine ; the control device is further configured to: among the plurality of types of setting information, associate one or more types of selected setting information with one another, as one lower group, and store, in the storage , a plurality of the lower groups; and among the plurality of lower groups stored in the storage , associate one or more selected lower groups with one upper group, and store, in the storage , a plurality of the upper groups, wherein the work machine further comprises: an upper-group selector controlled by the control device and configured to select one of the upper groups stored in the storage ; and a lower-group selector controlled by the control device and configured to select one of the lower groups associated with the one of the upper groups, wherein the control device is configured to control the work machine based on the one or more types of selected setting information associated with one another as the one of the lower groups. store, in a storage , a plurality of types of setting information that are set for setting items relating to functions of the work machine ; the control device is further configured to: among the plurality of types of setting information, associate one or more types of selected setting information with one another, as one lower group, and store, in the storage , a plurality of the lower groups; and among the plurality of lower groups stored in the storage , associate one or more selected lower groups with one upper group, and store, in the storage , a plurality of the upper groups, among the plurality of types of setting information, associate one or more types of selected setting information with one another, as one lower group, and store, in the storage , a plurality of the lower groups; and among the plurality of lower groups stored in the storage , associate one or more selected lower groups with one upper group, and store, in the storage , a plurality of the upper groups, an upper-group selector controlled by the control device and configured to select one of the upper groups stored in the storage ; and a lower-group selector controlled by the control device and configured to select one of the lower groups associated with the one of the upper groups, wherein the control device is configured to control the work machine based on the one or more types of selected setting information associated with one another as the one of the lower groups.
Method for operating a vehicle on a road network when transferring computing power from the vehicle to at least one edge cloud computer (ECC) in order to prevent sudden crashes of executable applications (APP) when connection to the at least one edge cloud computer (ECC) is interrupted, comprising the following steps: 1) detecting at least one foreign vehicle on the road network , 2) emitting a request (A1) to the at least one foreign vehicle as to whether the foreign vehicle can provide computing power (R2) that can be used as external computing power (R2) for at least one application (APP) of the vehicle , characterized in that has at least one further step. 3) assigning the at least one application (APP) of the vehicle to the external computing power (R2) on the basis of a response (A2) from the foreign vehicle to the request (A1), in that the at least one application (APP) of the vehicle comprises a plurality of applications (APP), and in that the plurality of applications (APP) each receive a prioritization and are executed in the order of their prioritization with the aid of internal computing power (R1) of the vehicle and/or the external computing power (R2) of the at least one foreign vehicle . 1) detecting at least one foreign vehicle on the road network , 2) emitting a request (A1) to the at least one foreign vehicle as to whether the foreign vehicle can provide computing power (R2) that can be used as external computing power (R2) for at least one application (APP) of the vehicle , characterized in that has at least one further step. 3) assigning the at least one application (APP) of the vehicle to the external computing power (R2) on the basis of a response (A2) from the foreign vehicle to the request (A1), in that the at least one application (APP) of the vehicle comprises a plurality of applications (APP), and in that the plurality of applications (APP) each receive a prioritization and are executed in the order of their prioritization with the aid of internal computing power (R1) of the vehicle and/or the external computing power (R2) of the at least one foreign vehicle . in that the at least one application (APP) of the vehicle comprises a plurality of applications (APP), and in that the plurality of applications (APP) each receive a prioritization and are executed in the order of their prioritization with the aid of internal computing power (R1) of the vehicle and/or the external computing power (R2) of the at least one foreign vehicle .
An information transmission method applied to a terminal device, the method comprises: receiving (S210) a first downlink control information, DCI, wherein the first DCI indicates the terminal device to send feedback information corresponding to a first downlink channel group within a target time unit; characterized in that , receiving (S220) a second DCI, wherein the second DCI indicates the terminal device to send feedback information corresponding to a second downlink channel group within the target time unit, wherein the second downlink channel group comprises the first downlink channel group and another downlink group; sending (S230) target feedback information within the target time unit, wherein the target feedback information comprises the feedback information corresponding to the second downlink channel group. receiving (S210) a first downlink control information, DCI, wherein the first DCI indicates the terminal device to send feedback information corresponding to a first downlink channel group within a target time unit; characterized in that , receiving (S220) a second DCI, wherein the second DCI indicates the terminal device to send feedback information corresponding to a second downlink channel group within the target time unit, wherein the second downlink channel group comprises the first downlink channel group and another downlink group; sending (S230) target feedback information within the target time unit, wherein the target feedback information comprises the feedback information corresponding to the second downlink channel group.
A method implemented in a wireless device , WD, the method comprising: determining (S136) a first uplink control information, UCI, and a second UCI, the first UCI associated with a first sub-slot and a first physical uplink control channel, PUCCH, resource and the second UCI associated with a second sub-slot and a second PUCCH resource, and the first and second sub-slots being comprised within a slot; determining (S138) that there is an overlap in time within the slot between a physical uplink shared channel, PUSCH, and at least one of the first UCI associated with the first sub-slot and the second UCI associated with the second sub-slot; and determining (S140) to transmit the first UCI, the second UCI and the PUSCH within the slot based at least in part on the determined overlap in time, wherein determining to transmit comprises: combining the first UCI and the second UCI; and multiplexing the combined first and second UCIs with the PUSCH for transmission. determining (S136) a first uplink control information, UCI, and a second UCI, the first UCI associated with a first sub-slot and a first physical uplink control channel, PUCCH, resource and the second UCI associated with a second sub-slot and a second PUCCH resource, and the first and second sub-slots being comprised within a slot; determining (S138) that there is an overlap in time within the slot between a physical uplink shared channel, PUSCH, and at least one of the first UCI associated with the first sub-slot and the second UCI associated with the second sub-slot; and determining (S140) to transmit the first UCI, the second UCI and the PUSCH within the slot based at least in part on the determined overlap in time, wherein determining to transmit comprises: combining the first UCI and the second UCI; and multiplexing the combined first and second UCIs with the PUSCH for transmission. combining the first UCI and the second UCI; and multiplexing the combined first and second UCIs with the PUSCH for transmission.
Electronic battery sensor comprising at least one first capture means for capturing measured values and a battery model for determining an internal resistance (Ri) of a battery , - wherein each measured value comprises contemporaneous information relating to at least two corresponding measurement variables, namely the battery current I Batt and the battery voltage (U Batt ), and - wherein two successive measured values form one measurement pair , characterized in that the battery sensor comprises at least one selection means which is configured to select at least one measurement pair as a selection pair from a particular number of measurement pairs and to make it available to the battery model for the purpose of determining the internal resistance (R i ), - wherein the number of measurement pairs is greater than the number of selection pairs . - wherein each measured value comprises contemporaneous information relating to at least two corresponding measurement variables, namely the battery current I Batt and the battery voltage (U Batt ), and - wherein two successive measured values form one measurement pair , characterized in that the battery sensor comprises at least one selection means which is configured to select at least one measurement pair as a selection pair from a particular number of measurement pairs and to make it available to the battery model for the purpose of determining the internal resistance (R i ), - wherein the number of measurement pairs is greater than the number of selection pairs .
A method for cranking an internal combustion engine, the engine coupled to a permanent magnet machine comprising a rotor having a plurality of permanent magnets poles, and a stator having a plurality of phase windings disposed on the stator, each phase winding including a plurality of coils, the method comprising the steps of: (a) receiving a start signal; (b) determining an initial position of the rotor with respect to a stator phase winding; (c) applying a pulse-width-modulated PWM signal to the stator winding corresponding to determined initial position of the rotor; characterised by (d) determining a threshold value of the stator current variation; (e) measuring current of the stator winding in response to applied pulse-width-modulated signal to determine current variation; (f) if current variation is more than the threshold value: determining updated rotor position, applying a pulse-width-modulated signal to the stator winding corresponding to the updated rotor position; and repeating steps (d) - (f); and (g) if current variation is less than the threshold value: applying a pulse-width-modulated signal to the stator winding corresponding to the last updated rotor position and repeating steps (d) - (g). (a) receiving a start signal; (b) determining an initial position of the rotor with respect to a stator phase winding; (c) applying a pulse-width-modulated PWM signal to the stator winding corresponding to determined initial position of the rotor; characterised by (d) determining a threshold value of the stator current variation; (e) measuring current of the stator winding in response to applied pulse-width-modulated signal to determine current variation; (f) if current variation is more than the threshold value: determining updated rotor position, applying a pulse-width-modulated signal to the stator winding corresponding to the updated rotor position; and repeating steps (d) - (f); and (g) if current variation is less than the threshold value: applying a pulse-width-modulated signal to the stator winding corresponding to the last updated rotor position and repeating steps (d) - (g).
A Ground Based Augmentation System (GBAS) comprising: one or more Global Navigation Satellite Systems (GNSS) reference receivers configured to receive signals from multi-frequency GNSS satellites ; at least one processing module coupled to the one or more GNSS reference receivers ; at least one aircraft communication device coupled to the at least one processing module; wherein the at least one processing module is configured to determine a true electron count (TEC) along a line of sight of a first GNSS satellite of a plurality of observable multi-frequency GNSS satellites based on the received signals from the multi-frequency GNSS satellites to determine a current quality metric of the ionosphere; wherein the at least one processing module is further configured to determine at least one overbounded Vertical Ionosphere Gradient standard deviation sigma-vig (σ vig ) when the current quality metric of the ionosphere meets a threshold; wherein the at least one processing module is further configured to define one or more valid iono regions at a given finite period in time (T1) where at least one overbounded Vertical Ionosphere Gradient standard deviation sigma-vig (σ vig ) is applicable; and wherein the at least one processing module is further configured to cause the at least one aircraft communication device to communicate to an aircraft's GNSS receiver the at least one overbounded Vertical Ionosphere Gradient standard deviation sigma-vig (σ vig ) and a list of GNSS single and multi-frequency satellites that have pierce points in the valid iono regions . one or more Global Navigation Satellite Systems (GNSS) reference receivers configured to receive signals from multi-frequency GNSS satellites ; at least one processing module coupled to the one or more GNSS reference receivers ; at least one aircraft communication device coupled to the at least one processing module; wherein the at least one processing module is configured to determine a true electron count (TEC) along a line of sight of a first GNSS satellite of a plurality of observable multi-frequency GNSS satellites based on the received signals from the multi-frequency GNSS satellites to determine a current quality metric of the ionosphere; wherein the at least one processing module is further configured to determine at least one overbounded Vertical Ionosphere Gradient standard deviation sigma-vig (σ vig ) when the current quality metric of the ionosphere meets a threshold; wherein the at least one processing module is further configured to define one or more valid iono regions at a given finite period in time (T1) where at least one overbounded Vertical Ionosphere Gradient standard deviation sigma-vig (σ vig ) is applicable; and wherein the at least one processing module is further configured to cause the at least one aircraft communication device to communicate to an aircraft's GNSS receiver the at least one overbounded Vertical Ionosphere Gradient standard deviation sigma-vig (σ vig ) and a list of GNSS single and multi-frequency satellites that have pierce points in the valid iono regions .
A process for preparing a recycled industrial process fluid containing a dissolved phenolic biocide and at least one amine, said process comprising: (a) treating an aqueous fluid collected after use in metal working, metal rolling or metal removal process, said collected fluid comprising water, a phenolic biocide, at least one amine and, optionally, a surfactant, an emulsifier, a lubricant, a thickener or an oil, with: (i) ultrafiltration to remove particulates from said fluid that are greater than about 6 nm in diameter; and (ii) mechanical vapor recompression to obtain components of the after-use fluid that azeotrope or distill with water; and (b) collecting recoverable material comprising water, dissolved phenolic biocide and at least one amine, wherein the recoverable material is in a form suitable for re-use. (a) treating an aqueous fluid collected after use in metal working, metal rolling or metal removal process, said collected fluid comprising water, a phenolic biocide, at least one amine and, optionally, a surfactant, an emulsifier, a lubricant, a thickener or an oil, with: (i) ultrafiltration to remove particulates from said fluid that are greater than about 6 nm in diameter; and (ii) mechanical vapor recompression to obtain components of the after-use fluid that azeotrope or distill with water; and (i) ultrafiltration to remove particulates from said fluid that are greater than about 6 nm in diameter; and (ii) mechanical vapor recompression to obtain components of the after-use fluid that azeotrope or distill with water; and (b) collecting recoverable material comprising water, dissolved phenolic biocide and at least one amine, wherein the recoverable material is in a form suitable for re-use.