mhurhangee/ep-ind-claims huggingface dataset:
A method for a User Equipment, in the following also referred to as UE, to configure sidelink discontinuous reception, in the following also referred to as DRX, for sidelink groupcast communication associated with a group, comprising: obtaining or being configured with a sidelink DRX configuration for the sidelink groupcast communication associated with the group, wherein the sidelink DRX configuration comprises at least one of an on-duration timer length used for determining an on-duration for each sidelink DRX cycle and/or a cycle length used for determining a length of each sidelink DRX cycle; deriving or determining a time to start of on-duration for each sidelink DRX cycle or start of each sidelink DRX cycle based on at least an identifier associated with the group; and monitoring a sidelink control channel, associated with the group, based on the sidelink DRX configuration and the time to start of on-duration for each sidelink DRX cycle or start of each sidelink DRX cycle, characterized in that the time to start of on-duration for each sidelink DRX cycle or start of each sidelink DRX cycle is derived or determined based on a derived value of "(part of the identifier) modulo (the cycle length)" or a derived value of "(the identifier) modulo (the cycle length)". obtaining or being configured with a sidelink DRX configuration for the sidelink groupcast communication associated with the group, wherein the sidelink DRX configuration comprises at least one of an on-duration timer length used for determining an on-duration for each sidelink DRX cycle and/or a cycle length used for determining a length of each sidelink DRX cycle; deriving or determining a time to start of on-duration for each sidelink DRX cycle or start of each sidelink DRX cycle based on at least an identifier associated with the group; and monitoring a sidelink control channel, associated with the group, based on the sidelink DRX configuration and the time to start of on-duration for each sidelink DRX cycle or start of each sidelink DRX cycle, characterized in that the time to start of on-duration for each sidelink DRX cycle or start of each sidelink DRX cycle is derived or determined based on a derived value of "(part of the identifier) modulo (the cycle length)" or a derived value of "(the identifier) modulo (the cycle length)".
A gas turbine engine, comprising: a fan; and a braking system configured to selectively engage the fan during ground windmilling to apply a first level of braking to slow rotation of the fan and, when the rotation of the fan sufficiently slows, apply a second level of braking more restrictive than the first level of braking, wherein the braking system includes a brake, and the fan includes a disc, the brake configured to selectively engage the disc to apply the first level of braking to slow rotation of the fan, characterised in that: the braking system further includes a pawl, and the disc includes a slot, the pawl configured to selectively engage the slot to apply the second level of braking and to substantially lock the fan against rotation. a fan; and a braking system configured to selectively engage the fan during ground windmilling to apply a first level of braking to slow rotation of the fan and, when the rotation of the fan sufficiently slows, apply a second level of braking more restrictive than the first level of braking, wherein the braking system includes a brake, and the fan includes a disc, the brake configured to selectively engage the disc to apply the first level of braking to slow rotation of the fan,
A computer-implemented method of identifying a validly determined respiration rate, the method comprising: determining (101,102) a respiration rate and a confidence level associated with the respiration rate from a waveform signal representative of a recorded respiration episode; associating the respiration rate with one of at least first and second classes, the classes being associated with respective different confidence level thresholds; wherein at least one of the classes is a first range of respiration rates, wherein at least one of the classes is a second range of respiration rates, wherein the first range comprises a normal respiration rate range of a patient and the second range comprises a respiration rate range outside said normal respiration rate range and wherein the confidence level threshold associated with the first class is lower than that associated with the second class and if the confidence level exceeds a confidence level threshold associated with the class with which the respiration rate is associated, determining that the respiration rate is valid and outputting the determined respiration rate; or if the confidence level is below the confidence level threshold associated with the class with which the respiration rate is associated, determining that the respiration rate is invalid and outputting an invalid result notification. determining (101,102) a respiration rate and a confidence level associated with the respiration rate from a waveform signal representative of a recorded respiration episode; associating the respiration rate with one of at least first and second classes, the classes being associated with respective different confidence level thresholds; wherein at least one of the classes is a first range of respiration rates, wherein at least one of the classes is a second range of respiration rates, wherein the first range comprises a normal respiration rate range of a patient and the second range comprises a respiration rate range outside said normal respiration rate range and wherein the confidence level threshold associated with the first class is lower than that associated with the second class and if the confidence level exceeds a confidence level threshold associated with the class with which the respiration rate is associated, determining that the respiration rate is valid and outputting the determined respiration rate; or if the confidence level is below the confidence level threshold associated with the class with which the respiration rate is associated, determining that the respiration rate is invalid and outputting an invalid result notification.
A method comprising: emitting x-ray and gamma radiation into a fluid; receiving photons of the x-ray and gamma radiation transmitted through the fluid having different energies at a detector; physically modelling the detector by: determining a set of monoenergetic crystal response functions based on detector characteristics; determining a detector response function based on the set of monoenergetic crystal response functions, and, analyzing the fluid based on the photons received at the detector, wherein analyzing the fluid includes: measuring an energy spectrum of the photons; inferring incident count rates by fitting a modelled spectrum to the measured spectrum, the modelled spectrum being the detector response function applied to an incident spectrum. emitting x-ray and gamma radiation into a fluid; receiving photons of the x-ray and gamma radiation transmitted through the fluid having different energies at a detector; physically modelling the detector by: determining a set of monoenergetic crystal response functions based on detector characteristics; determining a detector response function based on the set of monoenergetic crystal response functions, and, determining a set of monoenergetic crystal response functions based on detector characteristics; determining a detector response function based on the set of monoenergetic crystal response functions, and, analyzing the fluid based on the photons received at the detector, wherein analyzing the fluid includes: measuring an energy spectrum of the photons; inferring incident count rates by fitting a modelled spectrum to the measured spectrum, the modelled spectrum being the detector response function applied to an incident spectrum. measuring an energy spectrum of the photons; inferring incident count rates by fitting a modelled spectrum to the measured spectrum, the modelled spectrum being the detector response function applied to an incident spectrum.
A radio network controller used in a mobile communication system for measuring power of an Enhanced Dedicated Physical Data Channel at a mobile station, characterized in that the radio network controller is configured to notify, to the radio base station, an identification information on a correspondence table in which transmission data block size and a transmission power ratio of an Enhanced Dedicated Physical Data Channel to a dedicated physical control channel are corresponded, when the mobile station establishes a data connection for transmitting the uplink user data, wherein the identification information is used at said radio base station to refer to a correspondence table to be used to calculate, at the base station, a reception power of the Enhanced Dedicated Physical Data Channel.
A prosthetic medical device, comprising: a tubular graft having open ends (12, 14) and at least two rows of receivers (R1, R2), the at least two rows of receivers (R1, R2) being spaced apart in a circumferential direction along a substantially continuous portion of the sidewall; and a suture passing through the receivers; whereby tightening the suture reduces an inner diameter of the tubular graft, characterized in that the rows of receivers (R1, R2) are provided on an intermediate portion of the tubular graft to create an hourglass shape when the suture is tightened. a tubular graft having open ends (12, 14) and at least two rows of receivers (R1, R2), the at least two rows of receivers (R1, R2) being spaced apart in a circumferential direction along a substantially continuous portion of the sidewall; and a suture passing through the receivers; whereby tightening the suture reduces an inner diameter of the tubular graft, characterized in that the rows of receivers (R1, R2) are provided on an intermediate portion of the tubular graft to create an hourglass shape when the suture is tightened.
A composition comprising: from 0.5% to 4% by weight of hydrogen peroxide; from 0.1% to 0.5% by weight of an organic phosphonic acid; from 0.25% to 0.8% by weight of lactic acid; and having a pH from 2 to 3.6. from 0.5% to 4% by weight of hydrogen peroxide; from 0.1% to 0.5% by weight of an organic phosphonic acid; from 0.25% to 0.8% by weight of lactic acid; and having a pH from 2 to 3.6.
A network node for a wireless communication network comprising a wireless communication device, wherein: - the communication device is configured such that it is operable in a first communication mode, in which the communication device emits, with a first transmit power, first communication signals for contactless communication with other network nodes in the communication network; - in the communication device there is provided a receiving device for receiving first communication signals reflected on a transponder, the receiving device being adapted to evaluate the reflected first communication signals, in order to detect the presence of the transponder in a defined area around the network node, characterized in that - the communication device is further configured such that it is operable in a second communication mode, in which the communication device emits, with a second transmit power, second communication signals for communication with a transponder, the second transmit power being greater than the first transmit power; and - the communication device is configured such that a change is effected from the first to the second transmit power when the presence of a transponder has been detected. - the communication device is configured such that it is operable in a first communication mode, in which the communication device emits, with a first transmit power, first communication signals for contactless communication with other network nodes in the communication network; - in the communication device there is provided a receiving device for receiving first communication signals reflected on a transponder, the receiving device being adapted to evaluate the reflected first communication signals, in order to detect the presence of the transponder in a defined area around the network node, characterized in that - the communication device is further configured such that it is operable in a second communication mode, in which the communication device emits, with a second transmit power, second communication signals for communication with a transponder, the second transmit power being greater than the first transmit power; and - the communication device is configured such that a change is effected from the first to the second transmit power when the presence of a transponder has been detected.
A method for determining a key performance indicator, KPI, degradation cause in a wireless communications system, the system comprising a first base station, a second base station, a user equipment, UE, and an operation support system, OSS, the method comprising: receiving, by the first base station, a service message sent by the UE, wherein the service message carries first measurement information, the first measurement information is information about a service measurement performed by the UE on a first cell, and the first cell is served by the first base station; obtaining, by the first base station, the first measurement information according to the service message; generating, by the first base station, minimized network test, MNT, measurement information according to the first measurement information; determining, by the first base station, that the UE is handed over from the first cell to a second cell; and sending, by the first base station, the MNT measurement information to a second base station, and sending by the second base station the MNT measurement information to the OSS, wherein the MNT measurement information is used by the OSS for determining a key performance indicator, KPI, degradation cause and wherein the second cell is served by the second base station. receiving, by the first base station, a service message sent by the UE, wherein the service message carries first measurement information, the first measurement information is information about a service measurement performed by the UE on a first cell, and the first cell is served by the first base station; obtaining, by the first base station, the first measurement information according to the service message; generating, by the first base station, minimized network test, MNT, measurement information according to the first measurement information; determining, by the first base station, that the UE is handed over from the first cell to a second cell; and sending, by the first base station, the MNT measurement information to a second base station, and sending by the second base station the MNT measurement information to the OSS, wherein the MNT measurement information is used by the OSS for determining a key performance indicator, KPI, degradation cause and wherein the second cell is served by the second base station.
A vane assembly for a gas turbine engine comprising: a first mounting platform having a first slot; a first airfoil extending from the first mounting platform; and a feather seal having opposing faces (120, 122), a first side extending between the faces (120, 122), and a first tab, the first tab extending outwardly beyond the first side; the first slot being sized and shaped to receive the feather seal including the first tab; characterised in that: the first mounting platform comprises a first through-hole communicating with the first slot such that, when the first side of the feather seal is inserted into the first slot, the first tab is received within the first through-hole. a first mounting platform having a first slot; a first airfoil extending from the first mounting platform; and a feather seal having opposing faces (120, 122), a first side extending between the faces (120, 122), and a first tab, the first tab extending outwardly beyond the first side; the first slot being sized and shaped to receive the feather seal including the first tab; characterised in that: the first mounting platform comprises a first through-hole communicating with the first slot such that, when the first side of the feather seal is inserted into the first slot, the first tab is received within the first through-hole. the first mounting platform comprises a first through-hole communicating with the first slot such that, when the first side of the feather seal is inserted into the first slot, the first tab is received within the first through-hole.
A method for performing wireless communication by a first device, the method comprising: transmitting, to a second device through a physical sidelink control channel, PSCCH, first sidelink control information, SCI, for scheduling of a physical sidelink shared channel, PSSCH; and transmitting, to the second device through the PSSCH, assistance information used for sidelink resource selection of the second device, wherein the assistance information includes (i) a first combination of a first time resource indicator value, TRIV, and a first frequency resource indicator value, FRIV, (ii) a second combination of a second TRIV and a second FRIV, and (iii) reference time location information representing a first direct frame number, DFN, index and a first slot index. transmitting, to a second device through a physical sidelink control channel, PSCCH, first sidelink control information, SCI, for scheduling of a physical sidelink shared channel, PSSCH; and transmitting, to the second device through the PSSCH, assistance information used for sidelink resource selection of the second device, wherein the assistance information includes (i) a first combination of a first time resource indicator value, TRIV, and a first frequency resource indicator value, FRIV, (ii) a second combination of a second TRIV and a second FRIV, and (iii) reference time location information representing a first direct frame number, DFN, index and a first slot index.
A control device (6, 6A, 6B) for adjusting the video sequence image frame rate of a display, wherein said video sequence images are transmitted over a transmission channel in a real-time video system, said control device (6, 6A, 6B) being arranged to display a first video sequence image on a display; receive a second video sequence image; characterized in that said control device (6, 6A, 6B) is further arranged to determine a phase difference between the display of the first video sequence image and the reception of the second video sequence image; and adjust the video sequence image frame rate of the display by displaying said second video sequence image when the display of said first video image sequence is completed to control the display of said second video sequence image based on said phase difference, wherein the control device (6, 6A, 6B) is arranged to determine said phase difference as the difference in time between the display of said first video sequence image at a predetermined position, and the completed reception and decoding of said second video sequence image, and wherein the control device (6, 6A, 6B) is arranged to control the display of said second video sequence image by: adjusting the clock frequency of the display; and/or the length of the vertical blanking interval of said second video sequence image; and/or the length of the horizontal blanking interval of said second video sequence image. display a first video sequence image on a display; receive a second video sequence image; characterized in that said control device (6, 6A, 6B) is further arranged to determine a phase difference between the display of the first video sequence image and the reception of the second video sequence image; and adjust the video sequence image frame rate of the display by displaying said second video sequence image when the display of said first video image sequence is completed to control the display of said second video sequence image based on said phase difference, wherein the control device (6, 6A, 6B) is arranged to determine said phase difference as the difference in time between the display of said first video sequence image at a predetermined position, and the completed reception and decoding of said second video sequence image, and wherein the control device (6, 6A, 6B) is arranged to control the display of said second video sequence image by: adjusting the clock frequency of the display; and/or the length of the vertical blanking interval of said second video sequence image; and/or the length of the horizontal blanking interval of said second video sequence image.
A method for remotely accessing user equipment implementing an interactive media guidance application, the method comprising: receiving an action request for a program from a user device, wherein the user device utilizes first program information obtained from a first program information database to generate the action request for the program; transmitting the action request for the program to be processed using second program information from a second program information database to schedule the action request for the program, wherein the second program information database is different from the first program information database; detecting a disparity between the first program information for the program and the second program information for the program; searching for alternate scheduling information for the program in response to detecting the disparity; and transmitting the alternate scheduling information to the user equipment for scheduling the action request to be performed by the user equipment. receiving an action request for a program from a user device, wherein the user device utilizes first program information obtained from a first program information database to generate the action request for the program; transmitting the action request for the program to be processed using second program information from a second program information database to schedule the action request for the program, wherein the second program information database is different from the first program information database; detecting a disparity between the first program information for the program and the second program information for the program; searching for alternate scheduling information for the program in response to detecting the disparity; and transmitting the alternate scheduling information to the user equipment for scheduling the action request to be performed by the user equipment.
A method for printing elongated profile strips, in particular skirting boards, with a pattern, in particular a wood grain decor, wherein, in order to construct a three dimensional structured surface, firstly, a tactile ink is printed by direct digital printing by means of a print head assembly onto at least one subsection of a base profile of the profile strip, which base profile is moved relative to the print head assembly, and that next, by means of a further print head assembly and also by means of direct digital printing, a coloured pattern is printed in the correct position onto the three dimensional structured surface which has already been printed, wherein the tactile ink and/or the coloured pattern is/are overlapped and printed onto subsections of the profile strip which are in different spatial orientations in different print regions which partially overlap in an overlapping zone (14a, 15a, 15b, 17a), preferably along a longitudinal edge of the profile strip or along a transition from a flat region (1a, 1b) to a curved region, characterized in that, in order to print subsections of the profile strip which are in different spatial orientations, print heads are used within the print head assembly for the tactile ink which are in different spatial orientations, preferably pivotally mounted.