mhurhangee/ep-ind-claims huggingface dataset:
A method performed at a first user equipment, UE, of a wireless communications network, the method comprising: receiving, by the first UE from a base station, configuration information for the first UE to establish an inter-device session, IDS, between the first UE and a second UE, the configuration information including a first IDS radio network temporary identifier, IDS-RNTI; transmitting, by the first UE, a medium access control, MAC, message to the base station, the MAC message comprising a buffer status report, BSR control element, CE, the BSR MAC CE indicating a total amount of data available to be transmitted across a plurality of logical channels of a logical channel group associated with the IDS between the first UE and the second UE; receiving, by the first UE from the base station, a control message addressed to the first IDS-RNTI, the control message comprising a radio resource identifier, the radio resource identifier indicating a radio resource to be used for transmitting data directly from the first UE to the second UE, and the control message further comprising a resource for an IDS Transmit Control Channel, IDS-TxCCH, for transmission parameter indication with respect to the IDS between the first UE and the second UE; transmitting the data by the first UE over the IDS session using the radio resource indicated by the radio resource identifier; transmitting by the first UE to the second UE a transmission parameter using the indicated IDS-TxCCH resource, wherein the transmission parameter indicates a change in a Modulation and Coding Scheme, MCS, of the IDS session. receiving, by the first UE from a base station, configuration information for the first UE to establish an inter-device session, IDS, between the first UE and a second UE, the configuration information including a first IDS radio network temporary identifier, IDS-RNTI; transmitting, by the first UE, a medium access control, MAC, message to the base station, the MAC message comprising a buffer status report, BSR control element, CE, the BSR MAC CE indicating a total amount of data available to be transmitted across a plurality of logical channels of a logical channel group associated with the IDS between the first UE and the second UE; receiving, by the first UE from the base station, a control message addressed to the first IDS-RNTI, the control message comprising a radio resource identifier, the radio resource identifier indicating a radio resource to be used for transmitting data directly from the first UE to the second UE, and the control message further comprising a resource for an IDS Transmit Control Channel, IDS-TxCCH, for transmission parameter indication with respect to the IDS between the first UE and the second UE; transmitting the data by the first UE over the IDS session using the radio resource indicated by the radio resource identifier; transmitting by the first UE to the second UE a transmission parameter using the indicated IDS-TxCCH resource, wherein the transmission parameter indicates a change in a Modulation and Coding Scheme, MCS, of the IDS session.
A system for monitoring performance of one or more SQL database calls, comprising an analyzer component, an insider component and an interceptor component, wherein the insider component is operable, in response to at least one application executing at least one process that generates the one or more SQL database calls, to: monitor substantially continuously a first set of one or more parameters associated with the at least one process; and communicate the first set of one or more parameters to the analyzer component; wherein the interceptor component is operable to: monitor substantially continuously a second set of one or more parameters associated with the one or more SQL database calls, the second set of one or more parameters including a SQL execution time for the one or more SQL calls; and communicate the second set of one or more parameters to the analyzer component; and wherein the analyzer component is operable to: receive the first set of one or more parameters from the insider component; receive the second set of one or more second parameters from the interceptor component; and identify the at least one process that generated the one or more database SQL calls by correlating the first set of one or more parameters with the second set of one or more parameters, and determining if the SQL execution time exceeds a predetermined threshold value, wherein an identity of the identified at least one process that generated the one or more database calls and an alert notification are displayed. monitor substantially continuously a first set of one or more parameters associated with the at least one process; and communicate the first set of one or more parameters to the analyzer component; monitor substantially continuously a second set of one or more parameters associated with the one or more SQL database calls, the second set of one or more parameters including a SQL execution time for the one or more SQL calls; and communicate the second set of one or more parameters to the analyzer component; and receive the first set of one or more parameters from the insider component; receive the second set of one or more second parameters from the interceptor component; and identify the at least one process that generated the one or more database SQL calls by correlating the first set of one or more parameters with the second set of one or more parameters, and determining if the SQL execution time exceeds a predetermined threshold value, wherein an identity of the identified at least one process that generated the one or more database calls and an alert notification are displayed.
A method performed by a mobile device, said method comprising: transmitting, to a network device via a wireless network, a message in response to detecting a reporting event at the mobile device, wherein the reporting event is indicative of a network condition that decreases a likelihood of the mobile device successfully decoding a reply to the message; and in response to transmitting the message, increasing a signal-to-interference ratio, SIR, target of the mobile device, wherein the SIR target of the mobile device is increased at least partially based on a determination, by said mobile device, as to whether a value of a characteristic of a measured signal is within a specified range within an evaluation time window after detection of the reporting event at the mobile device, wherein the measured signal is received from the network device via the wireless network; wherein the SIR target is increased by transmitting to the network device one or more power control commands; and receiving, from the network device according to the increased SIR target, the reply to the message. transmitting, to a network device via a wireless network, a message in response to detecting a reporting event at the mobile device, wherein the reporting event is indicative of a network condition that decreases a likelihood of the mobile device successfully decoding a reply to the message; and in response to transmitting the message, increasing a signal-to-interference ratio, SIR, target of the mobile device, wherein the SIR target of the mobile device is increased at least partially based on a determination, by said mobile device, as to whether a value of a characteristic of a measured signal is within a specified range within an evaluation time window after detection of the reporting event at the mobile device, wherein the measured signal is received from the network device via the wireless network; wherein the SIR target is increased by transmitting to the network device one or more power control commands; and receiving, from the network device according to the increased SIR target, the reply to the message.
A medical system, comprising: - an implantable medical device comprising an energy storage device for supplying electrical energy to the medical device and a secondary coil for transferring electrical energy to the energy storage device, - a charging device which is designed to charge the energy storage device, the charging device having a primary coil via which electrical energy can be transferred to the energy storage device via the secondary coil of the implantable medical device, characterized in that the charging device comprises a plurality of metal electrodes which are arranged in front of the primary coil and are each assigned to a segment of a housing surface of the charging device, the charging device being designed to use the metal electrodes to calculate an impedance for each segment and to use the impedances to check whether the primary coil is aligned for optimum energy transfer to the secondary coil. - an implantable medical device comprising an energy storage device for supplying electrical energy to the medical device and a secondary coil for transferring electrical energy to the energy storage device, - a charging device which is designed to charge the energy storage device, the charging device having a primary coil via which electrical energy can be transferred to the energy storage device via the secondary coil of the implantable medical device,
A stereo sound encoding method for encoding left and right channels of a stereo sound signal, comprising: down mixing the left and right channels of the stereo sound signal to produce primary and secondary channels; and encoding the primary channel and encoding the secondary channel; wherein encoding the secondary channel comprises analyzing coherence between coding parameters calculated during the secondary channel encoding and coding parameters calculated during the primary channel encoding to decide if the coding parameters calculated during the primary channel encoding are sufficiently close to the coding parameters calculated during the secondary channel encoding to be re-used during the secondary channel encoding. down mixing the left and right channels of the stereo sound signal to produce primary and secondary channels; and encoding the primary channel and encoding the secondary channel; wherein encoding the secondary channel comprises analyzing coherence between coding parameters calculated during the secondary channel encoding and coding parameters calculated during the primary channel encoding to decide if the coding parameters calculated during the primary channel encoding are sufficiently close to the coding parameters calculated during the secondary channel encoding to be re-used during the secondary channel encoding.
A tactile sensation providing apparatus comprising: a touch sensor; a load detection unit configured to detect a pressing load on the touch sensor; a tactile sensation providing unit configured to vibrate a touch face of the touch sensor; a tactile sensation provision control unit configured to control drive of the tactile sensation providing unit; a memory unit configured to store a plurality of parameter tables for providing a tactile sensation; and a main control unit configured to obtain an output of the touch sensor, and control drive of the tactile sensation provision control unit based on the output of the touch sensor, wherein the main control unit is further configured to determine whether a predetermined area of the touch face is touched based on the output of the touch sensor and, when the predetermined area is touched, to transmit a tactile sensation control instruction including information specifying a parameter table among the plurality of parameter tables to the tactile sensation provision control unit, and wherein the parameter table specified by the tactile sensation control instruction corresponds to the predetermined area; characterized in that the tactile sensation provision control unit is further configured to, upon receiving the tactile sensation control instruction from the main control unit, obtain the pressing load detected by the load detection unit and control drive of the tactile sensation providing unit based on the parameter table specified by the tactile sensation control instruction and the pressing load obtained from the load detection unit. a touch sensor; a load detection unit configured to detect a pressing load on the touch sensor; a tactile sensation providing unit configured to vibrate a touch face of the touch sensor; a tactile sensation provision control unit configured to control drive of the tactile sensation providing unit; a memory unit configured to store a plurality of parameter tables for providing a tactile sensation; and a main control unit configured to obtain an output of the touch sensor, and control drive of the tactile sensation provision control unit based on the output of the touch sensor, wherein the main control unit is further configured to determine whether a predetermined area of the touch face is touched based on the output of the touch sensor and, when the predetermined area is touched, to transmit a tactile sensation control instruction including information specifying a parameter table among the plurality of parameter tables to the tactile sensation provision control unit, and wherein the parameter table specified by the tactile sensation control instruction corresponds to the predetermined area; characterized in that the tactile sensation provision control unit is further configured to, upon receiving the tactile sensation control instruction from the main control unit, obtain the pressing load detected by the load detection unit and control drive of the tactile sensation providing unit based on the parameter table specified by the tactile sensation control instruction and the pressing load obtained from the load detection unit.
An electronic device configured to support a first speech-based intelligent agent, comprising: a communication circuit; a processor operatively connected to the communication circuit; and a memory operatively connected to the processor, wherein the memory stores instructions which, when executed, cause the processor to control the electronic device to: receive speech data from a user terminal through the communication circuit, process the speech data to generate text data; identify a device intended to be controlled through analysis of the text data, receive information on an intelligent agent supported by the identified device from a first external server through the communication circuit, and determine whether to transmit the speech data to a second external server supporting a second speech-based intelligent agent based on the information on the intelligent agent supported by the identified device. a communication circuit; a processor operatively connected to the communication circuit; and a memory operatively connected to the processor, wherein the memory stores instructions which, when executed, cause the processor to control the electronic device to: receive speech data from a user terminal through the communication circuit, process the speech data to generate text data; identify a device intended to be controlled through analysis of the text data, receive information on an intelligent agent supported by the identified device from a first external server through the communication circuit, and determine whether to transmit the speech data to a second external server supporting a second speech-based intelligent agent based on the information on the intelligent agent supported by the identified device. receive speech data from a user terminal through the communication circuit, process the speech data to generate text data; identify a device intended to be controlled through analysis of the text data, receive information on an intelligent agent supported by the identified device from a first external server through the communication circuit, and determine whether to transmit the speech data to a second external server supporting a second speech-based intelligent agent based on the information on the intelligent agent supported by the identified device.
An outdoor unit of an air-conditioning apparatus comprising: a fan chamber in which a fan is provided and a machine chamber in which a compressor is provided; a partition plate separating the fan chamber and the machine chamber; and an electrical component unit having a control board on which an electrical component is mounted and a holder that holds the control board, wherein the holder is fixed to an upper part of the partition plate, wherein the partition plate is provided with, in its upper part, a planar receiving surface portion for receiving the holder, wherein the holder is provided with a positioning protrusion protruding downward, characterized in that a cutout portion into which the positioning protrusion is inserted is formed in the receiving surface portion, and wherein at least one inclined surface portion that is inclined downward from the receiving surface portion and guides the positioning protrusion to the cutout portion is provided at an end portion of the receiving surface portion that leads to the cutout portion, wherein the positioning protrusion has a gap between the positioning protrusion and a main body portion holding the control board of the holder, and wherein an upper end portion of the partition plate adjacent to the cutout portion enters the gap when the positioning protrusion is inserted into the cutout portion and a fixing position of the electrical component unit is determined in the upper part of the partition plate. a fan chamber in which a fan is provided and a machine chamber in which a compressor is provided; a partition plate separating the fan chamber and the machine chamber; and an electrical component unit having a control board on which an electrical component is mounted and a holder that holds the control board, wherein the holder is fixed to an upper part of the partition plate, wherein the partition plate is provided with, in its upper part, a planar receiving surface portion for receiving the holder, wherein the holder is provided with a positioning protrusion protruding downward, characterized in that a cutout portion into which the positioning protrusion is inserted is formed in the receiving surface portion, and wherein at least one inclined surface portion that is inclined downward from the receiving surface portion and guides the positioning protrusion to the cutout portion is provided at an end portion of the receiving surface portion that leads to the cutout portion, wherein the positioning protrusion has a gap between the positioning protrusion and a main body portion holding the control board of the holder, and wherein an upper end portion of the partition plate adjacent to the cutout portion enters the gap when the positioning protrusion is inserted into the cutout portion and a fixing position of the electrical component unit is determined in the upper part of the partition plate.
Fixed electrical contact comprising a metal support joined to a precompressed contact pad, characterized in that the precompressed contact pad is joined to the metal support by a cold direct sintering process and comprises: - a contact layer comprising a conductive agent composed: - of silver (Ag), the percentage by weight of silver (Ag) being comprised between 92 and 99% of the total weight; - of nickel (Ni), the percentage by weight of nickel (Ni) being comprised between 0 and 3%; and - of carbon, the percentage by weight of carbon being comprised between 0.5 and 5%, - and a reactive underlayer comprising a pseudo-alloy based on silver (Ag) and copper (Cu) mixed with a pickling agent based on phosphorus, said underlayer having a melting point below that of the contact layer. - a contact layer comprising a conductive agent composed: - of silver (Ag), the percentage by weight of silver (Ag) being comprised between 92 and 99% of the total weight; - of nickel (Ni), the percentage by weight of nickel (Ni) being comprised between 0 and 3%; and - of carbon, the percentage by weight of carbon being comprised between 0.5 and 5%, - of silver (Ag), the percentage by weight of silver (Ag) being comprised between 92 and 99% of the total weight; - of nickel (Ni), the percentage by weight of nickel (Ni) being comprised between 0 and 3%; and - of carbon, the percentage by weight of carbon being comprised between 0.5 and 5%, - and a reactive underlayer comprising a pseudo-alloy based on silver (Ag) and copper (Cu) mixed with a pickling agent based on phosphorus, said underlayer having a melting point below that of the contact layer.
Flexible stent comprising: a helical portion (303, 309) comprising a plurality of side-by-side, individual helical elements helically wound about an axis of said stent, said helical portion (303, 309) being expandable radially upon deployment and compressible, expandable and bendable in a deployed state; and a strut portion (302, 304, 306) on either side of said helical portion (303, 309), said strut portion (302, 304, 306) comprising axially aligned strut elements (305, 16a) having a first end connected to said helical elements of said helical portion, said strut portion (302, 304, 306) being radially expandable upon deployment, the stent further comprising one or more additional said helical portions (303, 309) and one or more additional said strut portions (302, 304, 306), wherein each of said one or more additional said helical portions 303, 309) is respectively connected to a second end of one of said strut portions (304, 306), said helical portions (303, 309) being connected respectively to said strut portions (302, 304, 306) such that each of said helical portions (303, 309) is interposed between a pair of said strut portions (302, 304, 306), wherein a gap (323, 325) length is the distance between two adjacent helical elements of a helical portion (303, 309), and one of said helical portions has a higher ratio of a sum of gap lengths to a length of the helical portion than a ratio of a sum of gap lengths to a length of a second one of said helical portions, and wherein one of said strut portions has less strut elements than a second of said strut portions (302, 304). a helical portion (303, 309) comprising a plurality of side-by-side, individual helical elements helically wound about an axis of said stent, said helical portion (303, 309) being expandable radially upon deployment and compressible, expandable and bendable in a deployed state; and a strut portion (302, 304, 306) on either side of said helical portion (303, 309), said strut portion (302, 304, 306) comprising axially aligned strut elements (305, 16a) having a first end connected to said helical elements of said helical portion, said strut portion (302, 304, 306) being radially expandable upon deployment, the stent further comprising one or more additional said helical portions (303, 309) and one or more additional said strut portions (302, 304, 306), wherein each of said one or more additional said helical portions 303, 309) is respectively connected to a second end of one of said strut portions (304, 306), said helical portions (303, 309) being connected respectively to said strut portions (302, 304, 306) such that each of said helical portions (303, 309) is interposed between a pair of said strut portions (302, 304, 306), wherein a gap (323, 325) length is the distance between two adjacent helical elements of a helical portion (303, 309), and one of said helical portions has a higher ratio of a sum of gap lengths to a length of the helical portion than a ratio of a sum of gap lengths to a length of a second one of said helical portions, and wherein one of said strut portions has less strut elements than a second of said strut portions (302, 304).