mhurhangee/ep-ind-claims huggingface dataset:
A method for requesting uplink resources by a user equipment in a communication system, wherein a DRX, Discontinued Reception, function is running at the user equipment, the method comprising the following steps performed at the user equipment: receiving configuration information from a radio base station on how to delay triggering of a scheduling request, the configuration information including one out of a plurality of codepoints where at least one of the plurality of codepoints indicates a flexible delay according to which the triggering of the scheduling request shall be delayed such that the scheduling request is triggered in one of the subframes - preferably the first subframe - of an OnDuration period of a DRX cycle according to a DRX function, wherein the remaining codepoints indicate a fixed delay time for delaying the triggering of the scheduling request, triggering the transmission of the scheduling request for requesting uplink resources to the radio base station upon triggering of a buffer status report in the user equipment, in case the received codepoint indicates the flexible delay, delaying the triggering of the scheduling request such that the scheduling request is triggered in one of the subframes - preferably the first subframe - of the OnDuration period of the DRX cycle, in case the received codepoint indicates the fixed delay time, delaying the triggering of the scheduling request for the indicated fixed delay time, transmitting the triggered scheduling request to the radio base station in the next possible scheduling request transmission occasion after the triggering of the scheduling request is delayed. receiving configuration information from a radio base station on how to delay triggering of a scheduling request, the configuration information including one out of a plurality of codepoints where at least one of the plurality of codepoints indicates a flexible delay according to which the triggering of the scheduling request shall be delayed such that the scheduling request is triggered in one of the subframes - preferably the first subframe - of an OnDuration period of a DRX cycle according to a DRX function, wherein the remaining codepoints indicate a fixed delay time for delaying the triggering of the scheduling request, triggering the transmission of the scheduling request for requesting uplink resources to the radio base station upon triggering of a buffer status report in the user equipment, in case the received codepoint indicates the flexible delay, delaying the triggering of the scheduling request such that the scheduling request is triggered in one of the subframes - preferably the first subframe - of the OnDuration period of the DRX cycle, in case the received codepoint indicates the fixed delay time, delaying the triggering of the scheduling request for the indicated fixed delay time, transmitting the triggered scheduling request to the radio base station in the next possible scheduling request transmission occasion after the triggering of the scheduling request is delayed.
A negative electrode for a secondary battery comprising: a current collector; and a negative electrode active material layer including a plurality of silicon-based active material particles, which is positioned on the current collector, wherein the following Relation 1 is satisfied: 0.01 ≤ A − B ≤ 0.81 wherein A is an average value of Raman spectrum peak intensity ratios Ia/Ib for 50 silicon-based active material particles randomly selected in the negative electrode active material layer, B is an average value of values excluding top 10 values and bottom 10 values, for each Raman spectrum peak intensity ratio Ia/Ib value for the 50 silicon-based active material particles, Ia is a peak intensity at 515±15 cm -1, and Ib is a peak intensity at 470±30 cm -1. a current collector; and a negative electrode active material layer including a plurality of silicon-based active material particles, which is positioned on the current collector, wherein the following Relation 1 is satisfied: 0.01 ≤ A − B ≤ 0.81 wherein A is an average value of Raman spectrum peak intensity ratios Ia/Ib for 50 silicon-based active material particles randomly selected in the negative electrode active material layer, B is an average value of values excluding top 10 values and bottom 10 values, for each Raman spectrum peak intensity ratio Ia/Ib value for the 50 silicon-based active material particles, Ia is a peak intensity at 515±15 cm -1, and Ib is a peak intensity at 470±30 cm -1.
A destemmer for use in a fruit harvester such as a grape harvester, comprising: a frame configured for mounting to a fruit harvester; a box carried by the frame, the box including an inlet for receiving berries and other material, such as Material Other than Grapes; an eccentric drive connected with the box for moving the box in an oscillating manner within the frame; characterized by: at least one top link interconnecting the box and the frame, each said top link including a first end pivotally connected to the frame, a second end pivotally connected to the box, and a longitudinal axis; and at least one bottom link interconnecting the box and the frame, each said bottom link including a first end pivotally connected to the frame, a second end pivotally connected to the box, and a longitudinal axis; wherein, when viewed from a side, the longitudinal axis of each said top link and the longitudinal axis of each said bottom link intersect at a virtual pivot axis which is located upstream from the inlet to the box, relative to a travel direction of the berries and other material, e.g. MOG, through the box. a frame configured for mounting to a fruit harvester; a box carried by the frame, the box including an inlet for receiving berries and other material, such as Material Other than Grapes; an eccentric drive connected with the box for moving the box in an oscillating manner within the frame; characterized by: at least one top link interconnecting the box and the frame, each said top link including a first end pivotally connected to the frame, a second end pivotally connected to the box, and a longitudinal axis; and at least one bottom link interconnecting the box and the frame, each said bottom link including a first end pivotally connected to the frame, a second end pivotally connected to the box, and a longitudinal axis; wherein, when viewed from a side, the longitudinal axis of each said top link and the longitudinal axis of each said bottom link intersect at a virtual pivot axis which is located upstream from the inlet to the box, relative to a travel direction of the berries and other material, e.g. MOG, through the box. at least one top link interconnecting the box and the frame, each said top link including a first end pivotally connected to the frame, a second end pivotally connected to the box, and a longitudinal axis; and at least one bottom link interconnecting the box and the frame, each said bottom link including a first end pivotally connected to the frame, a second end pivotally connected to the box, and a longitudinal axis; wherein, when viewed from a side, the longitudinal axis of each said top link and the longitudinal axis of each said bottom link intersect at a virtual pivot axis which is located upstream from the inlet to the box, relative to a travel direction of the berries and other material, e.g. MOG, through the box.
In an integrated circuit configured to indicate a reliability concern associated with the integrated circuit, a method comprising: stressing a plurality of different types of regional circuits susceptible to time dependent dielectric breakdown (TDDB) respectively located in different regions of the integrated circuit, and which are used for monitoring levels of reliability failure associated with any of the plurality of different types of regional circuits; determining and storing a set of stress-test data based on the levels of reliability failure of the plurality of different types of regional circuits, the set of stress-test data being stored within the integrated circuit to indicate reliability-threshold test data specific to the integrated circuit; within the integrated circuit, detecting the levels of reliability failure of one or more of the plurality of different types of regional circuits via an on-chip monitoring circuit and indicating one or more operational conditions of suspect reliability associated with dielectric breakdown of at least one of the plurality of different types of regional circuits; characterized in that the stressing the plurality of different types of regional circuits is done under different circuit-stress test conditions, and the method further comprises: providing logic circuitry in the integrated circuit which, during operation of the integrated circuit, adjusts at least one of the different circuit-stress test conditions based on the indicated operational conditions of suspect reliability. stressing a plurality of different types of regional circuits susceptible to time dependent dielectric breakdown (TDDB) respectively located in different regions of the integrated circuit, and which are used for monitoring levels of reliability failure associated with any of the plurality of different types of regional circuits; determining and storing a set of stress-test data based on the levels of reliability failure of the plurality of different types of regional circuits, the set of stress-test data being stored within the integrated circuit to indicate reliability-threshold test data specific to the integrated circuit; within the integrated circuit, detecting the levels of reliability failure of one or more of the plurality of different types of regional circuits via an on-chip monitoring circuit and indicating one or more operational conditions of suspect reliability associated with dielectric breakdown of at least one of the plurality of different types of regional circuits; characterized in that the stressing the plurality of different types of regional circuits is done under different circuit-stress test conditions, and the method further comprises: providing logic circuitry in the integrated circuit which, during operation of the integrated circuit, adjusts at least one of the different circuit-stress test conditions based on the indicated operational conditions of suspect reliability.
Flexible subcutaneous implantable medical device, comprising: an elongated and flexible body; a plurality of electronic components; at least one rechargeable battery, for powering said plurality of electronic components; at least one antenna (260, 422), for receiving and transmitting electromagnetic radiation; at least one lead, for providing an electric shock; and at least one transition unit, for coupling said at least one lead to at least one end of said elongated and flexible body, wherein said elongated and flexible body is structured from a plurality of units; wherein a first one of said plurality of units encapsulates said at least one rechargeable battery; wherein each one of said other plurality of units respectively encapsulates a respective one of said plurality of electronic components; wherein said at least one antenna is positioned in said at least one transition unit; wherein said at least one transition unit is covered with a biocompatible polymer; wherein said at least one antenna is adapted to receive electromagnetic radiation for recharging said at least one rechargeable battery; and wherein said at least one antenna comprises a copper coil having a generally cylindrical shape. an elongated and flexible body; a plurality of electronic components; at least one rechargeable battery, for powering said plurality of electronic components; at least one antenna (260, 422), for receiving and transmitting electromagnetic radiation; at least one lead, for providing an electric shock; and at least one transition unit, for coupling said at least one lead to at least one end of said elongated and flexible body, wherein said elongated and flexible body is structured from a plurality of units; wherein a first one of said plurality of units encapsulates said at least one rechargeable battery; wherein each one of said other plurality of units respectively encapsulates a respective one of said plurality of electronic components; wherein said at least one antenna is positioned in said at least one transition unit; wherein said at least one transition unit is covered with a biocompatible polymer; wherein said at least one antenna is adapted to receive electromagnetic radiation for recharging said at least one rechargeable battery; and wherein said at least one antenna comprises a copper coil having a generally cylindrical shape.
Switching circuit for checking an analog input circuit of an A/D converter, comprising: the analog input circuit; and a comparator circuit; wherein the analog input circuit is configured to generate a first derived signal and a second derived signal from an analog input signal of the analog input circuit; only the first derived signal is an input signal for the A/D converter, which digitizes the first derived signal; the first derived signal and the second derived signal are input signals for the comparator circuit; the comparator circuit is configured to check whether a deviation of the derived signals (S1, S2) from each other lies within a tolerance range and to output an output signal which is dependent on the check and which can be further evaluated. the analog input circuit; and a comparator circuit; wherein the analog input circuit is configured to generate a first derived signal and a second derived signal from an analog input signal of the analog input circuit; only the first derived signal is an input signal for the A/D converter, which digitizes the first derived signal; the first derived signal and the second derived signal are input signals for the comparator circuit; the comparator circuit is configured to check whether a deviation of the derived signals (S1, S2) from each other lies within a tolerance range and to output an output signal which is dependent on the check and which can be further evaluated.
Arrangement for adaptive bit recovery including an adaptive equalizer and an adaptive partial response maximum likelihood detector, characterized in that the arrangement further includes: - an overflow control block for the adaptive equalizer for monitoring the adaptation coefficients and transmitting said coefficients to a range checker, said range checker selects via a selector the coefficients having the detected maximum values, - a scaling block for applying a scaling to the respective data paths of the selected coefficient values when the overflow control block indicates that one or more of the coefficients run out of their intended data range, wherein the scaling is applied such that a middle coefficient has the largest value. - an overflow control block for the adaptive equalizer for monitoring the adaptation coefficients and transmitting said coefficients to a range checker, said range checker selects via a selector the coefficients having the detected maximum values, - a scaling block for applying a scaling to the respective data paths of the selected coefficient values when the overflow control block indicates that one or more of the coefficients run out of their intended data range, wherein the scaling is applied such that a middle coefficient has the largest value.
An antisense oligoribonucleotide complementary to a nucleic acid sequence of COL7A1 gene that is necessary for correct splicing of one or more exons which encode amino acid sequence of type VII collagen implicated in dysfunction of a mutated type VII collagen, wherein said antisense oligoribonucleotide is capable of annealing to said nucleic acid sequence of COL7A1 gene and preventing splicing of said one or more exons, wherein said antisense oligoribonucleotide is selected from the group consisting of sequences SEQ ID NO:6 and SEQ ID NO: 7 and wherein said exons are selected from the group consisting of exon 80 of the COL7A1 gene.
A method to prioritize testing of computer program code comprising: executing a first baseline run for determining a test coverage of items within a first source code version for multiple tests, wherein the baseline run comprises at least one of a dynamic test or static code analysis to develop baseline metrics, and wherein the items include at least one of a function, a file, or a combination thereof; storing, in a non-transitory storage device, a history that indicates the determined test coverage of the items within the first source code version and test metrics based at least in part on the baseline metrics; subsequently executing a partial run on a second source code version, wherein the partial run comprises performing static code analysis on the second source code version and creating at least one summary comprising an indication of a property of a given function, an impact relating to the given function, or a combination thereof; storing results based on the baseline run and the partial run; determining first weights associated with the multiple tests, wherein a weight associated with a given test is indicative of a number of the items, within the second source code version, that are covered by the given test according to the history; and prioritizing the multiple tests based at least in part upon the determined first weights and the results. executing a first baseline run for determining a test coverage of items within a first source code version for multiple tests, wherein the baseline run comprises at least one of a dynamic test or static code analysis to develop baseline metrics, and wherein the items include at least one of a function, a file, or a combination thereof; storing, in a non-transitory storage device, a history that indicates the determined test coverage of the items within the first source code version and test metrics based at least in part on the baseline metrics; subsequently executing a partial run on a second source code version, wherein the partial run comprises performing static code analysis on the second source code version and creating at least one summary comprising an indication of a property of a given function, an impact relating to the given function, or a combination thereof; storing results based on the baseline run and the partial run; determining first weights associated with the multiple tests, wherein a weight associated with a given test is indicative of a number of the items, within the second source code version, that are covered by the given test according to the history; and prioritizing the multiple tests based at least in part upon the determined first weights and the results.
Sanitary fitting, having a fitting housing, in which there is arranged a user-operable mixer valve for setting a mixed water temperature, which mixer valve is connected via a hot water channel to a housing-side hot water connection and via a cold water channel to a housing-side cold water connection, the hot water channel being at least partly defined by a housing-side channel wall, wherein for scald protection the sanitary fitting has at least one insulating element, wherein the hot water channel is an annular hot water channel, which runs around the mixer valve and is defined radially on the inside by the mixer valve and radially on the outside by a housing-side annular channel wall, wherein the fitting housing is hollow-cylindrical and has on an end face an inner receiving contour in which the insulating element is installed, and wherein the fitting housing has, transverse to the housing axis, hollow-cylindrical connection profiles (19, 21) for the hot and cold water connections, and wherein the hot water connection profile is formed radially outside the mixer valve receiving contour, and wherein the fitting housing has an overflow channel which connects the annular hot water channel to the hot water connection profile, characterised in that the insulating element at least partly covers the side of the annular channel wall that faces towards the annular hot water channel, and the annular channel wall defining the annular hot water channel and covered by the insulating element is in cross-section formed throughout from a solid material having a small wall thickness, and the side of the channel wall that faces away from the annular hot water channel forms a potential contact surface for the user.
A compound of Formula: or a pharmaceutically acceptable salt thereof, wherein: Q is pyridazin-3-yl or 6-fluoropyridazin-3-yl; R 1 is H; R 2 and R 3 are each independently C1-C6 alkyl, or R 2 and R 3 taken together are -(CH 2) 3 -; or R 1 and R 2 taken together are -(CH 2) 2 - and R 3 is -CH 3; R 4 is halo, -CH 3, -OCH 3, -OCHF 2, -OCF 3, or -CN; and n is 0, 1, or 2. Q is pyridazin-3-yl or 6-fluoropyridazin-3-yl; R 1 is H; R 2 and R 3 are each independently C1-C6 alkyl, or R 2 and R 3 taken together are -(CH 2) 3 -; or R 1 and R 2 taken together are -(CH 2) 2 - and R 3 is -CH 3; R 4 is halo, -CH 3, -OCH 3, -OCHF 2, -OCF 3, or -CN; and n is 0, 1, or 2.
A method performed by an apparatus for LTE communications, comprising: receiving, by the apparatus, an uplink grant in a specific subframe of a frame and/or a physical hybrid-ARQ indicator channel transmission, for a physical-uplink-shared-channel transmission or retransmission on a special subframe; determining that the uplink grant validates transmitting a physical-uplink-shared-channel transmission on the special subframe, or that the physical hybrid-ARQ indicator channel transmission validates transmitting a physical-uplink-shared-channel retransmission on the special subframe; determining transmission parameters for transmitting the physical-uplink-shared-channel transmission or retransmission; transmitting the physical-uplink-shared-channel transmission or retransmission on the special subframe, wherein for uplink-downlink configurations 1 to 5, the apparatus does not receive physical hybrid-ARQ indicator channel transmissions for uplink hybrid-ARQ processes transmitted on the special subframe, and the re-transmission is scheduled over an uplink subframe n+k by uplink grant received in a specific subframe n in accordance with the subsequent uplink grant timing k, Uplink-Downlink Configuration Subframe number n 0 1 2 3 4 5 6 7 8 9 1 6 6 4 6 6 4 2 5 4 5 4 3 4 4 4 4 4 4 4 4 5 4 4 and wherein the time difference between physical-uplink-shared-channel transmission on the special subframe and physical-uplink-shared-channel re-transmission on the special subframe is 10 milliseconds. receiving, by the apparatus, an uplink grant in a specific subframe of a frame and/or a physical hybrid-ARQ indicator channel transmission, for a physical-uplink-shared-channel transmission or retransmission on a special subframe; determining that the uplink grant validates transmitting a physical-uplink-shared-channel transmission on the special subframe, or that the physical hybrid-ARQ indicator channel transmission validates transmitting a physical-uplink-shared-channel retransmission on the special subframe; determining transmission parameters for transmitting the physical-uplink-shared-channel transmission or retransmission; transmitting the physical-uplink-shared-channel transmission or retransmission on the special subframe, wherein for uplink-downlink configurations 1 to 5, the apparatus does not receive physical hybrid-ARQ indicator channel transmissions for uplink hybrid-ARQ processes transmitted on the special subframe, and the re-transmission is scheduled over an uplink subframe n+k by uplink grant received in a specific subframe n in accordance with the subsequent uplink grant timing k, Uplink-Downlink Configuration Subframe number n 0 1 2 3 4 5 6 7 8 9 1 6 6 4 6 6 4 2 5 4 5 4 3 4 4 4 4 4 4 4 4 5 4 4 and wherein the time difference between physical-uplink-shared-channel transmission on the special subframe and physical-uplink-shared-channel re-transmission on the special subframe is 10 milliseconds.