mhurhangee/ep-ind-claims huggingface dataset:
A data transferring apparatus comprising: a processor configured to generate data to be processed; a first memory configured to store the data generated by the processor; a processing unit configured to process the data generated by the processor; a transferring unit configured to burst transfer the data from the first memory to the processing unit; a second memory configured to store information concerning time that the processing unit consumes to process the data; a third memory configured to store a prescribed value for a burst width set based on an access capability of the processor when accessing the first memory; a calculating unit configured to calculate time that the transferring unit is allowed to consume for transfer of the data, based on the information that concerns the time that the processing unit consumes to process the data and is stored in the second memory; and a determining unit configured to, based on an estimated time that the transferring unit is expected to consume for the transfer of the data, determine a burst width to be used for the transfer of the data by the transferring unit to be a value that is greater than or equal to the prescribed value for the burst width stored in the third memory and that is as close as possible to the prescribed value for the burst width, within a range in which the transfer of the data is finished within the time allowed for the transfer of the data calculated by the calculating unit, wherein the burst width represents the size of data transferred in one burst transfer. a processor configured to generate data to be processed; a first memory configured to store the data generated by the processor; a processing unit configured to process the data generated by the processor; a transferring unit configured to burst transfer the data from the first memory to the processing unit; a second memory configured to store information concerning time that the processing unit consumes to process the data; a third memory configured to store a prescribed value for a burst width set based on an access capability of the processor when accessing the first memory; a calculating unit configured to calculate time that the transferring unit is allowed to consume for transfer of the data, based on the information that concerns the time that the processing unit consumes to process the data and is stored in the second memory; and a determining unit configured to, based on an estimated time that the transferring unit is expected to consume for the transfer of the data, determine a burst width to be used for the transfer of the data by the transferring unit to be a value that is greater than or equal to the prescribed value for the burst width stored in the third memory and that is as close as possible to the prescribed value for the burst width, within a range in which the transfer of the data is finished within the time allowed for the transfer of the data calculated by the calculating unit, wherein the burst width represents the size of data transferred in one burst transfer.
A compound having the general formula I: or a pharmaceutically acceptable salt thereof, wherein: R 1 is an alkyl having 1-4 carbon atoms; R 2 is hydrogen or -4-amino-2-hydroxybutyryl; R 3 is selected from the group consisting of hydrogen and an alkyl having 1-4 carbon atoms; and a stereo-configuration of each of position 6' and position 5" is independently an R configuration or an S configuration. R 1 is an alkyl having 1-4 carbon atoms; R 2 is hydrogen or -4-amino-2-hydroxybutyryl; R 3 is selected from the group consisting of hydrogen and an alkyl having 1-4 carbon atoms; and a stereo-configuration of each of position 6' and position 5" is independently an R configuration or an S configuration.
An illumination device (100 to 107) comprising: a point light source generation part (111 to 116) which generates a point light source; a light scanning part (140, 145) which scans divergent light incident from the point light source by emitting the divergent light (L 110) while changing a direction of the divergent light, a collimating optical system which shapes the divergent light from the light scanning part (140, 145) into parallel light; and a diffractive optical element which forms a predetermined illumination area on a predetermined illumination target surface by diffracted light generated by diffracting the parallel light incident at a predetermined incident angle from the collimating optical system; the collimating optical system is arranged such that a front focal position of the collimating optical system coincides with a position of the point light source, and the incident angle of the parallel light incident on the diffractive optical element is changed by scanning of the light scanning part (140, 145). a point light source generation part (111 to 116) which generates a point light source; a light scanning part (140, 145) which scans divergent light incident from the point light source by emitting the divergent light (L 110) while changing a direction of the divergent light, a collimating optical system which shapes the divergent light from the light scanning part (140, 145) into parallel light; and a diffractive optical element which forms a predetermined illumination area on a predetermined illumination target surface by diffracted light generated by diffracting the parallel light incident at a predetermined incident angle from the collimating optical system; the collimating optical system is arranged such that a front focal position of the collimating optical system coincides with a position of the point light source, and the incident angle of the parallel light incident on the diffractive optical element is changed by scanning of the light scanning part (140, 145).
Device for aspirating a liquid and/or solid particles particularly for medical or industrial applications with a first aspiration unit designed as a jet pump, particularly a venturi pump or an ejector pump, with which in a first connecting line a first negative pressure can be realised, and with a second aspiration unit designed as a positive displacement pump or a blower pump, with which in a second connecting line a second negative pressure can be realised, wherein the first and the second connecting line (11, 21) are connected via a vacuum chamber to an aspiration line, and wherein at least one energy supply device is connected or connectable to the first and the second aspiration unit (1,2) such, that both aspiration units (1,2) can be operated in common, in order to generate in common a third negative pressure in the vacuum chamber.
Manufacturing method for manufacturing a device comprising a stack including a first layer omprising at least two electrical conductors (4.1) electrically insulated from each other, a second layer comprising at least one electrical conductor, at least one third layer of material with at least one electrical property, said third layer being arranged between the first layer and the second layer, said method comprising: a) producing a stack on a substrate comprising the first layer, the second layer and the third layer of a material that, after electrical polarisation, becomes said material with said electrical property, the first layer and the second layer being arranged relative to each other so as to apply a polarisation voltage within the third layer, b) producing a polarisation layer in electrical contact with the at least two electrical conductors (4.1) of the first layer, said polarisation layer comprising a material that has a first state in which it is electrically conducting and a second state in which it is electrically insulating, the change from the first state to the second state being obtained by application of a treatment to said polarisation layer, said polarisation layer being made so that it is initially in its first state, c) applying a polarisation voltage to said third layer such that its material has said electrical property, d) applying said treatment transforming at least part of the material of the polarisation layer in its second state, such that said at least two electrical conductors (4.1) in the first layer are electrically insulated from each other. a) producing a stack on a substrate comprising the first layer, the second layer and the third layer of a material that, after electrical polarisation, becomes said material with said electrical property, the first layer and the second layer being arranged relative to each other so as to apply a polarisation voltage within the third layer, b) producing a polarisation layer in electrical contact with the at least two electrical conductors (4.1) of the first layer, said polarisation layer comprising a material that has a first state in which it is electrically conducting and a second state in which it is electrically insulating, the change from the first state to the second state being obtained by application of a treatment to said polarisation layer, said polarisation layer being made so that it is initially in its first state, c) applying a polarisation voltage to said third layer such that its material has said electrical property, d) applying said treatment transforming at least part of the material of the polarisation layer in its second state, such that said at least two electrical conductors (4.1) in the first layer are electrically insulated from each other.
A vehicle lamp comprising: within a lamp chamber formed by a lamp body and a front cover, a light source (17, 18); a columnar light guide having an incident portion at the end thereof in the vicinity of the light source (17, 18), wherein the columnar light guide guides incident light from the light source (17, 18), which enters via the incident portion, and irradiates the incident light from a light-emitting portion on a front side; characterized in that the light source (17, 18) is mounted on a fixing substrate, and by further comprising a plate shaped attachment member for fixing the columnar light guide having a through hole arranged in the vicinity of the light source side of the incident portion, wherein a peripheral surface of said through hole forms an annular reflecting portion, and the fixing substrate and the annular reflecting portion are fixed to a heat-radiating member attached to the lamp body wherein the annular reflecting portion reflects light (α1, α2) with a large emission angle in relation to the optical axis (Ax) of the light source (17, 18), that is to say which has not been able to directly enter the incident portion from the light source (17, 18), toward the incident portion, and wherein the light source (17, 18) is arranged on a central axis of the annular reflecting portion.
A computer implemented method comprising: determining, using a power manager, a sequence of phases corresponding to an application comprising tasks for execution on a node comprising a computing system, the sequence corresponding to a time interval, wherein the time interval is associated with an energy budget given by a product of a power cap and the time interval, wherein the power cap defines a maximum average power that can be used by the computing system; for each phase, determining a power scaling comprising a measured response in runtime to an increase or decrease in power distributed to a plurality of power domains in the node; based on the power scaling for each phase, determining a temporal power distribution between the phases in the sequence to improve runtime performance of the application by the node by distributing power to the respective phases of the sequence such that a total energy summed across all phases of the sequence matches the energy budget and yet permits temporary violation by at least one of the phases of the sequence of phases of the power cap, wherein the average power distributed to the phases over the time interval does not exceed the power cap. determining, using a power manager, a sequence of phases corresponding to an application comprising tasks for execution on a node comprising a computing system, the sequence corresponding to a time interval, wherein the time interval is associated with an energy budget given by a product of a power cap and the time interval, wherein the power cap defines a maximum average power that can be used by the computing system; for each phase, determining a power scaling comprising a measured response in runtime to an increase or decrease in power distributed to a plurality of power domains in the node; based on the power scaling for each phase, determining a temporal power distribution between the phases in the sequence to improve runtime performance of the application by the node by distributing power to the respective phases of the sequence such that a total energy summed across all phases of the sequence matches the energy budget and yet permits temporary violation by at least one of the phases of the sequence of phases of the power cap, wherein the average power distributed to the phases over the time interval does not exceed the power cap.
A method for uplink channel estimation in a wireless communication system applying transmit power control, comprising the steps of: providing a channel state model in a channel estimator; obtaining, in said channel estimator, a measured and demodulated received uplink radio signal of a present time slot; estimating channel states of said present time slot, in said channel estimator, by tracking said demodulated uplink radio signal with said channel state model, obtaining a series of transmit power control commands issued for controlling a transmit power of said uplink radio signal; characterized by the further steps of: estimating a delay, in units of time slots, between the time a transmit power control command is issued and the time that the transmit power control command is applied, said delay being based on measurements of said particular received uplink radio signal; and adapting channel states of said channel state model before said step of estimating channel states based on a transmit power control command of said series of transmit power control commands compatible with said estimated delay. providing a channel state model in a channel estimator; obtaining, in said channel estimator, a measured and demodulated received uplink radio signal of a present time slot; estimating channel states of said present time slot, in said channel estimator, by tracking said demodulated uplink radio signal with said channel state model, obtaining a series of transmit power control commands issued for controlling a transmit power of said uplink radio signal; estimating a delay, in units of time slots, between the time a transmit power control command is issued and the time that the transmit power control command is applied, said delay being based on measurements of said particular received uplink radio signal; and adapting channel states of said channel state model before said step of estimating channel states based on a transmit power control command of said series of transmit power control commands compatible with said estimated delay.
A method of managing registration of a User Equipment, UE, with an IP Multimedia Subsystem, IMS, via a Long-Term Evolution, LTE, network, the method comprising, following termination of a Voice over LTE, VoLTE, call, initiating a timer at the UE and, if no VoLTE call is initiated to or from the UE prior to expiry of the timer, then sending an IMS de-registration request from the UE to the IMS.
A method for fabricating a light imager panel of a radiation detector, comprising: disposing amorphous silicon, a-Si, on a substrate; melting the a-Si; and subsequently solidifying the a-Si to form crystalline silicon, c-Si, circuits on the substrate, wherein the c-Si circuits comprise at least a plurality of detector pixels each comprising at least a field effect transistor (64, 72), a photodiode, and a charge amplifier, wherein disposing the a-Si comprises printing the a-Si on the substrate in patterns and traces of desired circuitry to correspond to at least the field effect transistor, the photodiode, and the charge amplifier. disposing amorphous silicon, a-Si, on a substrate; melting the a-Si; and subsequently solidifying the a-Si to form crystalline silicon, c-Si, circuits on the substrate, wherein the c-Si circuits comprise at least a plurality of detector pixels each comprising at least a field effect transistor (64, 72), a photodiode, and a charge amplifier, wherein disposing the a-Si comprises printing the a-Si on the substrate in patterns and traces of desired circuitry to correspond to at least the field effect transistor, the photodiode, and the charge amplifier.
A two-component tissue adhesive comprising: a first agent which contains hydrophobically-modified gelatin that is provided with an amino group and a hydrophobic group on the side chain; and a second agent which contains a cross-linking reagent that has two or more active ester groups or anhydrides within a single molecule, wherein said hydrophobic group is any one type or a combination of two or more types selected from the group consisting of a cholesteryl group, an oleyl group, an isostearyl group, a stearyl group, an isopalmityl group, a myristyl group, a lauryl group, a capric group, a pelargol group, a caprylic group, a caproyl group, an α-linolenyl group, a stearidonyl group, an eicosapentaenoyl group, and a docosahexaenyl group. a first agent which contains hydrophobically-modified gelatin that is provided with an amino group and a hydrophobic group on the side chain; and a second agent which contains a cross-linking reagent that has two or more active ester groups or anhydrides within a single molecule, wherein said hydrophobic group is any one type or a combination of two or more types selected from the group consisting of a cholesteryl group, an oleyl group, an isostearyl group, a stearyl group, an isopalmityl group, a myristyl group, a lauryl group, a capric group, a pelargol group, a caprylic group, a caproyl group, an α-linolenyl group, a stearidonyl group, an eicosapentaenoyl group, and a docosahexaenyl group.
Method for track release signaling of a section of a railway track, of which: a) a length of the section is defined by a rail track being interrupted at both ends; b) an alternating voltage with two alternating frequencies is supplied as an input signal at one end of the rail track, with the two frequencies being chosen from a pool of at least three frequencies; c) an output signal is tapped at the other end of the rail track; d) the tapped output signal is analyzed with regards to its shares in the two alternating frequencies, and being bandpass filtered in at least two channels, with the passage frequency of the bandpasses corresponding largely to the frequencies of the input signal, and the output signal being analyzed in three channels, wherein in a first channel the level of the output signal is analyzed on the frequency of the just sent input signal, in a second channel the level of the output signal is analyzed on the frequency of the not just sent input signal and in a third channel the frequency spectrum of the output signal is analyzed; and e) it is decided which condition the track section has depending on the analysis on the basis of comparisons of boundary values. a) a length of the section is defined by a rail track being interrupted at both ends; b) an alternating voltage with two alternating frequencies is supplied as an input signal at one end of the rail track, with the two frequencies being chosen from a pool of at least three frequencies; c) an output signal is tapped at the other end of the rail track; d) the tapped output signal is analyzed with regards to its shares in the two alternating frequencies, and being bandpass filtered in at least two channels, with the passage frequency of the bandpasses corresponding largely to the frequencies of the input signal, and the output signal being analyzed in three channels, wherein in a first channel the level of the output signal is analyzed on the frequency of the just sent input signal, in a second channel the level of the output signal is analyzed on the frequency of the not just sent input signal and in a third channel the frequency spectrum of the output signal is analyzed; and e) it is decided which condition the track section has depending on the analysis on the basis of comparisons of boundary values.
An inhibitor of HSP90 for use in a method of treating cancer, the method comprising administering to a cancer patient the inhibitor of HSP90 following pretreatment with a proteotoxic stressor, wherein the proteotoxic stressor is administered at a sufficient time prior to administration of the HSP90 inhibitor to increase the formation of the epichaperome, wherein the proteotoxic stressor is administered no more than 24 hours prior to administration of the HSP90 inhibitor; wherein the inhibitor of HSP90 is 8-(6-Iodo-benzo[1,3]dioxol-5-ylsulfanyl)-9-(3-isopropylamino-propyl)-9H-purin-6-ylamine, or a pharmaceutically acceptable salt thereof, and wherein the proteotoxic stressor is a microtubule stabilizing agent.
A monitoring computing system configured to perform alert confidence scoring, the monitoring computing system comprising: one or more processors; a memory in operable communication with at least one processor; an aggregator which upon execution with at least one processor receives insight instances, each insight instance having an insight value and an insight type, each insight instance associated with an alert identifier which identifies an alert that was previously generated from a monitor through monitoring of events of a monitored system, the aggregator configured to aggregate insight values of received instances which have the same insight type; a vectorizer which upon execution with at least one processor creates a feature vector containing feature values, the feature values corresponding to insight types, the feature vector containing at least one feature value which is an aggregated insight value (602, 234) produced by the aggregator from multiple insight values, the feature vector associated with the alert; a classifier which upon execution with at least one processor accepts the feature vector, the classifier configured to assign a confidence score to the alert based at least partially upon the feature vector, the confidence score indicating a degree of confidence that the alert represents a threat to one or more operations of the monitored system; and an output device (106, 126, 128) configured by a list of alerts ranked according to respective confidence scores assigned by the classifier. one or more processors; a memory in operable communication with at least one processor; an aggregator which upon execution with at least one processor receives insight instances, each insight instance having an insight value and an insight type, each insight instance associated with an alert identifier which identifies an alert that was previously generated from a monitor through monitoring of events of a monitored system, the aggregator configured to aggregate insight values of received instances which have the same insight type; a vectorizer which upon execution with at least one processor creates a feature vector containing feature values, the feature values corresponding to insight types, the feature vector containing at least one feature value which is an aggregated insight value (602, 234) produced by the aggregator from multiple insight values, the feature vector associated with the alert; a classifier which upon execution with at least one processor accepts the feature vector, the classifier configured to assign a confidence score to the alert based at least partially upon the feature vector, the confidence score indicating a degree of confidence that the alert represents a threat to one or more operations of the monitored system; and an output device (106, 126, 128) configured by a list of alerts ranked according to respective confidence scores assigned by the classifier.