mhurhangee/ep-ind-claims huggingface dataset:
An SK4 channel inhibitor for use as a medicament for the treatment of a disease involving macrophage cell fusion by inhibiting cell fusion of a macrophage cell expressing an intermediate-conductance calcium-activated potassium channel, the method comprising the step of contacting the cell with an effective amount of said SK4 channel inhibitor, wherein said cell fusion is inhibited, and wherein the SK4 channel inhibitor is selected from the group consisting of an inhibitory nucleic acid, a monoclonal antibody and a small molecule inhibitor, wherein the small molecule inhibitor is selected from the group consisting of 1-[(2-chlorophenyl)-diphenylmethyl]-1H-imidazole; 2,2-bis(4-fluorophenyl)-2-phenylacetamide; 1-[(2-chlorophenyl)diphenylmethyl]-1H-pyrazole; 1-[(2-fluorophenyl)diphenylmethyl]-1H-pyrazole; 1-[(4-chlorophenyl)diphenylmethyl]-1H-pyrazole; 1-[(2-fluorophenyl)diphenylmethyl]-1H-pyrazole; and 1-[(2-chlorophenyl)diphenylmethyl]-1H-tetrazole.
A method for identifying allocated acknowledgement resources for a user equipment in a wireless communication system, comprising: receiving a first index assigned to the user equipment among information received from a base station; identifying an offset among the information received from the base station; and configuring acknowledgement communication to utilize acknowledgement resources of a shared acknowledgement resource pool (610; 710) having a second index corresponding to the first index plus the identified offset. receiving a first index assigned to the user equipment among information received from a base station; identifying an offset among the information received from the base station; and configuring acknowledgement communication to utilize acknowledgement resources of a shared acknowledgement resource pool (610; 710) having a second index corresponding to the first index plus the identified offset.
A computer-implemented method for training a prediction model for predicting the likelihood that at least one predetermined undesired event will occur during execution of a process using training samples, wherein each training sample comprises data that characterizes a state of the process, and the method comprises the steps of: • obtaining training samples representing states of the process that do not cause the undesired event, and labelling these training samples with a pre-set low likelihood of the undesired event occurring; • obtaining, based at least in part on a process model and a set of predetermined rules that stipulate in which states of the process there is an increased likelihood of the undesired event occurring, further augmented training samples representing states of the process with an increased likelihood to cause the undesired event, and labelling these training samples with said increased likelihood; • providing the obtained training samples (3, 4) to the to-be-trained prediction model, so as to obtain, from the prediction model, a prediction of the likelihood for occurrence of the undesired event in a state of the process represented by the respective sample (3, 4); • rating a difference between the prediction and the label of the respective sample (3, 4) by means of a predetermined loss function; and • optimizing parameters that characterize the behavior of the prediction model, such that, when predictions on further samples (3, 4) are made, the rating by the loss function is likely to improve. • obtaining training samples representing states of the process that do not cause the undesired event, and labelling these training samples with a pre-set low likelihood of the undesired event occurring; • obtaining, based at least in part on a process model and a set of predetermined rules that stipulate in which states of the process there is an increased likelihood of the undesired event occurring, further augmented training samples representing states of the process with an increased likelihood to cause the undesired event, and labelling these training samples with said increased likelihood; • providing the obtained training samples (3, 4) to the to-be-trained prediction model, so as to obtain, from the prediction model, a prediction of the likelihood for occurrence of the undesired event in a state of the process represented by the respective sample (3, 4); • rating a difference between the prediction and the label of the respective sample (3, 4) by means of a predetermined loss function; and • optimizing parameters that characterize the behavior of the prediction model, such that, when predictions on further samples (3, 4) are made, the rating by the loss function is likely to improve.
An apparatus for serializing and de-serializing chip-to-chip communications, comprising: a serializer configured for serializing and modulating digital data bits, said serializer having a track pulse generator and data buffers (26a-26n) whose digital data bit outputs are modulated by multiple modulators (28a - 28n) into multiple analog frequency signals configured for communication over an I/O channel to an off chip de-serializer; wherein said track pulse generator receives a synchronization signal and a clock signal and said track pulse generator is configured to generate a synchronized pulse as a flag for data synchronization for each bit communicated, so that said synchronized pulse is modulated along with the digital data bit outputs by said multiple modulators (28a - 28n); and a de-serializer having multiple demodulators (34a - 34 n) configured for receiving said multiple analog frequency signals over the I/O channel and demodulating these signals for receipt by a track pulse restoration circuit and data buffers (42a - 42n); wherein said track pulse restoration circuit generates synchronization signals for triggering output from said demodulators to said receiver data buffers (42a - 42n), latching data into said receiver data buffers (42a - 42n), and signaling that digital data bits can be read from said receiver data buffers. a serializer configured for serializing and modulating digital data bits, said serializer having a track pulse generator and data buffers (26a-26n) whose digital data bit outputs are modulated by multiple modulators (28a - 28n) into multiple analog frequency signals configured for communication over an I/O channel to an off chip de-serializer; wherein said track pulse generator receives a synchronization signal and a clock signal and said track pulse generator is configured to generate a synchronized pulse as a flag for data synchronization for each bit communicated, so that said synchronized pulse is modulated along with the digital data bit outputs by said multiple modulators (28a - 28n); and a de-serializer having multiple demodulators (34a - 34 n) configured for receiving said multiple analog frequency signals over the I/O channel and demodulating these signals for receipt by a track pulse restoration circuit and data buffers (42a - 42n); wherein said track pulse restoration circuit generates synchronization signals for triggering output from said demodulators to said receiver data buffers (42a - 42n), latching data into said receiver data buffers (42a - 42n), and signaling that digital data bits can be read from said receiver data buffers.
A printer apparatus that performs printing for each unprinted ticket on a medium including a plurality of continuous unprinted tickets each having a first ticket length or a second ticket length shorter than the first ticket length, the printer apparatus comprising: storage means for storing a first printing condition for the first ticket length and a second printing condition for the second ticket length; sensor means (24, 35) for detecting a cue mark that is formed at a joint between adjacent unprinted tickets of the medium; conveyance means (22, 23, 33) for conveying the medium; data receiving means for receiving printing data from a host apparatus; printing means (21, 34) for printing the received printing data onto the unprinted ticket in accordance with the first printing condition or second printing condition stored in the storage means; and control means for controlling the conveyance means so as to start conveying the medium when the medium is set or when the data receiving means receives the printing data and the printing means starts printing, and so as to stop conveying the medium at a print waiting position of the medium when the sensor means detects the cue mark, wherein the control means sets a printing condition to the first printing condition when the medium is set, starts printing the printing data under the set printing condition when the data receiving means receives the printing data, and re-sets the printing condition to the second printing condition and prints the received printing data under the re-set printing condition when the sensor means detects the cue mark prior to completion of the printing. storage means for storing a first printing condition for the first ticket length and a second printing condition for the second ticket length; sensor means (24, 35) for detecting a cue mark that is formed at a joint between adjacent unprinted tickets of the medium; conveyance means (22, 23, 33) for conveying the medium; data receiving means for receiving printing data from a host apparatus; printing means (21, 34) for printing the received printing data onto the unprinted ticket in accordance with the first printing condition or second printing condition stored in the storage means; and control means for controlling the conveyance means so as to start conveying the medium when the medium is set or when the data receiving means receives the printing data and the printing means starts printing, and so as to stop conveying the medium at a print waiting position of the medium when the sensor means detects the cue mark,
A non-transient computer readable medium storing instructions that, when executed by at least one processor, cause the at least one processor to perform operations for adding information to existing communication signals comprising: receiving a first signal from a second device, the first signal including a carrier signal modulated with a first modulation signal, wherein the first modulation signal is a non-transpositional modulation signal; detecting a frequency of the carrier signal by performing a carrier extraction process on the first signal, wherein the carrier extraction process outputs a continuously tuned sinusoidal signal at a fundamental frequency of the carrier signal of the first signal; adding a second modulation signal to add information to the carrier signal of the first signal to produce a combined signal (112, 142, 172, 178), wherein the second modulation signal is a transpositional modulation signal; and transmitting the combined signal. receiving a first signal from a second device, the first signal including a carrier signal modulated with a first modulation signal, wherein the first modulation signal is a non-transpositional modulation signal; detecting a frequency of the carrier signal by performing a carrier extraction process on the first signal, wherein the carrier extraction process outputs a continuously tuned sinusoidal signal at a fundamental frequency of the carrier signal of the first signal; adding a second modulation signal to add information to the carrier signal of the first signal to produce a combined signal (112, 142, 172, 178), wherein the second modulation signal is a transpositional modulation signal; and transmitting the combined signal.
A base station for transmitting control information in a TDD system using a single carrier, the base station comprising: a format determining unit adapted to determine a PUCCH format of a UL subframe; a transceiving unit adapted to perform transmission on a PDCCH in one or more DL subframes corresponding to the UL subframe; a resource allocating unit adapted to set ACK/NACK resource indicating information indicating resources for transmitting a HARQ ACK/NACK signal on the PUCCH; and a controlling unit adapted to transmit at least one of a TPC command for controlling PUCCH transmission power and the ACK/ NACK resource indicating information in the UL subframe through the transceiving unit, wherein a HARQ ACK/NACK signal for the DL subframes corresponding to the UL subframe is received on the PUCCH in the UL subframe using a PUCCH format determined by the format determining unit, characterised in that the controlling unit is adapted to transmit the TPC command on the PDCCH in at least one of the DL subframes corresponding to the UL subframe and to transmit the ACK/NACK resource indicating information using bits allocated in order to transmit the TPC command on the PDCCH in DL subframes in which the TPC command is not transmitted among the DL subframes corresponding to the UL subframe, and the format determining unit is adapted to determine that the PUCCH format is a PUCCH format 3 when at least two DL subframes correspond to the UL subframe, and that the PUCCH format is PUCCH formats 1a/1b when only a single DL subframe corresponds to the UL subframe. a format determining unit adapted to determine a PUCCH format of a UL subframe; a transceiving unit adapted to perform transmission on a PDCCH in one or more DL subframes corresponding to the UL subframe; a resource allocating unit adapted to set ACK/NACK resource indicating information indicating resources for transmitting a HARQ ACK/NACK signal on the PUCCH; and a controlling unit adapted to transmit at least one of a TPC command for controlling PUCCH transmission power and the ACK/ NACK resource indicating information in the UL subframe through the transceiving unit, wherein a HARQ ACK/NACK signal for the DL subframes corresponding to the UL subframe is received on the PUCCH in the UL subframe using a PUCCH format determined by the format determining unit, characterised in that the controlling unit is adapted to transmit the TPC command on the PDCCH in at least one of the DL subframes corresponding to the UL subframe and to transmit the ACK/NACK resource indicating information using bits allocated in order to transmit the TPC command on the PDCCH in DL subframes in which the TPC command is not transmitted among the DL subframes corresponding to the UL subframe, and the format determining unit is adapted to determine that the PUCCH format is a PUCCH format 3 when at least two DL subframes correspond to the UL subframe, and that the PUCCH format is PUCCH formats 1a/1b when only a single DL subframe corresponds to the UL subframe.
A system (100A, 100B, 100C, 100D) comprising: a first mobile device having a first wireless radio and a second wireless radio; a second mobile device having a third wireless radio and a fourth wireless radio; wherein the first wireless radio of the first mobile device is configured to communicate wirelessly with the third wireless radio of the second mobile device; wherein the third wireless radio of the second mobile device is configured to communicate wirelessly with the first wireless radio of the first mobile device; wherein the second wireless radio of the first mobile device is configured to communicate at least in part wirelessly with a central maintenance computer of a vehicle wherein the fourth wireless radio of the second mobile device is configured to communicate at least in part wirelessly with a remote server; wherein the first mobile device is configured to receive data from the central maintenance computer via the second wireless radio; wherein the first mobile device is configured to communicate the data to the second mobile device via the first wireless radio; wherein the second mobile device is configured to receive the data from the first mobile device via the third wireless radio; and wherein the second mobile device is configured to communicate the data to the remote server via the fourth wireless radio. a first mobile device having a first wireless radio and a second wireless radio; a second mobile device having a third wireless radio and a fourth wireless radio; wherein the first wireless radio of the first mobile device is configured to communicate wirelessly with the third wireless radio of the second mobile device; wherein the third wireless radio of the second mobile device is configured to communicate wirelessly with the first wireless radio of the first mobile device; wherein the second wireless radio of the first mobile device is configured to communicate at least in part wirelessly with a central maintenance computer of a vehicle wherein the fourth wireless radio of the second mobile device is configured to communicate at least in part wirelessly with a remote server; wherein the first mobile device is configured to receive data from the central maintenance computer via the second wireless radio; wherein the first mobile device is configured to communicate the data to the second mobile device via the first wireless radio; wherein the second mobile device is configured to receive the data from the first mobile device via the third wireless radio; and wherein the second mobile device is configured to communicate the data to the remote server via the fourth wireless radio.
A latch mechanism for a cleaning device, the latch mechanism being provided on a portion of the cleaning device for releasable engagement with a keep, the latch mechanism comprising: a frame supporting a latch member and an actuating assembly, and providing an end wall; the latch member being moveable linearly along an axis X between an extended position and a retracted position, the latch member being biased by a first spring towards its extended position; and the actuating assembly providing a pair of contact members positioned on opposing sides of the axis X, each moveable between respective initial positions spaced away from the axis X in a direction towards the axis X to respective actuating positions abutting respective engagement surfaces of the latch member, and being biased by a pair of second springs to their initial positions; wherein the latch mechanism is configured such that a head of the latch member extends beyond the end wall of the frame when the latch member is in its extended position, and wherein a contact portion of each contact member abuts an engagement surface of the latch member, each engagement surface being disposed at an angle offset from the axis X such that movement of each contact member against each engagement surface in a direction transverse to the axis X causes movement of the latch member towards its retracted position so as to retract the head of the latch member to a position level with or recessed from the end wall of the frame characterised in that each contact member is biased by its own respective second spring. a frame supporting a latch member and an actuating assembly, and providing an end wall; the latch member being moveable linearly along an axis X between an extended position and a retracted position, the latch member being biased by a first spring towards its extended position; and the actuating assembly providing a pair of contact members positioned on opposing sides of the axis X, each moveable between respective initial positions spaced away from the axis X in a direction towards the axis X to respective actuating positions abutting respective engagement surfaces of the latch member, and being biased by a pair of second springs to their initial positions; wherein the latch mechanism is configured such that a head of the latch member extends beyond the end wall of the frame when the latch member is in its extended position, and wherein a contact portion of each contact member abuts an engagement surface of the latch member, each engagement surface being disposed at an angle offset from the axis X such that movement of each contact member against each engagement surface in a direction transverse to the axis X causes movement of the latch member towards its retracted position so as to retract the head of the latch member to a position level with or recessed from the end wall of the frame characterised in that each contact member is biased by its own respective second spring.
A method in a first radio network node (HBS 104, 801) transmitting a radio signal at a first output power level in a first cell, the method comprising the steps of: performing one or more radio measurements in the first cell on an uplink radio signal transmitted by one or more user equipments (UEs) served by a second radio network node (101, 802) and on a downlink radio signal transmitted by the second radio network node, identifying one of the one or more UEs served by the second radio network node that experiences interference from a DL transmission from the first radio network node based on the one or more performed radio measurements, estimating an interference experienced by the identified UE caused by the DL transmission from the first radio network node based on the one or more performed radio measurements, and modifying the first output power level of the first radio network node based on the estimated interference to reduce the interference from the first radio network node experienced by the identified UE. performing one or more radio measurements in the first cell on an uplink radio signal transmitted by one or more user equipments (UEs) served by a second radio network node (101, 802) and on a downlink radio signal transmitted by the second radio network node, identifying one of the one or more UEs served by the second radio network node that experiences interference from a DL transmission from the first radio network node based on the one or more performed radio measurements, estimating an interference experienced by the identified UE caused by the DL transmission from the first radio network node based on the one or more performed radio measurements, and modifying the first output power level of the first radio network node based on the estimated interference to reduce the interference from the first radio network node experienced by the identified UE.
A method for managing content transmission based on data rates, characterized by: determining, by a computing device, based on a first data rate, and based on a first expected number of packet retransmissions at the first data rate, a first expected time of transmission of a content item; determining, by the computing device, based on a second data rate that is lower than the first data rate, and based on a second expected number of packet retransmissions at the second data rate, a second expected time of transmission for the content item; determining, by the computing device and based on a comparison of the first expected time and the second expected time, to transmit the content item at the second data rate; and transmitting, by the computing device and based on the second data rate, the content item. determining, by a computing device, based on a first data rate, and based on a first expected number of packet retransmissions at the first data rate, a first expected time of transmission of a content item; determining, by the computing device, based on a second data rate that is lower than the first data rate, and based on a second expected number of packet retransmissions at the second data rate, a second expected time of transmission for the content item; determining, by the computing device and based on a comparison of the first expected time and the second expected time, to transmit the content item at the second data rate; and transmitting, by the computing device and based on the second data rate, the content item.