mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling operation of a heterogeneous communication network comprising user equipment, a macro cell base station supporting a macro region of radio coverage and at least one small cell base station supporting a small cell region of radio coverage which overlaps with said macro region of radio coverage, said user equipment being operable to communicate with either of said macrocell base station and said at least one small cell base station and wherein said macrocell is operable to release a proportion of available resource for facilitating communication between said user equipment and said at least one small cell base station; said method comprising: determining which of said user equipment are attached to said macro base station in a first scenario in which said macro base station and small cell base station reuse the same available time and frequency resource and establishing an indication of said available resource available to user equipment attached to said macro cell base station in said first scenario; determining which of said user equipment are attached to said macro base station in a second scenario in which some of said user equipment have been offloaded to said at least one small cell base station and selecting a proportion of said available resource to release by said macro cell base station for facilitating communication between said offloaded user equipment and said at least one small cell base station such that available resource available to user equipment which remains attached to said macro cell base station in said second scenario is at least equivalent to the established indication of said available resource available to user equipment attached to said macro cell base station in said first scenario. determining which of said user equipment are attached to said macro base station in a first scenario in which said macro base station and small cell base station reuse the same available time and frequency resource and establishing an indication of said available resource available to user equipment attached to said macro cell base station in said first scenario; determining which of said user equipment are attached to said macro base station in a second scenario in which some of said user equipment have been offloaded to said at least one small cell base station and selecting a proportion of said available resource to release by said macro cell base station for facilitating communication between said offloaded user equipment and said at least one small cell base station such that available resource available to user equipment which remains attached to said macro cell base station in said second scenario is at least equivalent to the established indication of said available resource available to user equipment attached to said macro cell base station in said first scenario.
A system for monitoring sensors of a lighting control system, comprising: a plurality of sensors (130-1, 130-N) connected to a network; and a computing device connected to the network comprising a training subsystem, a detecting subsystem and a locating subsystem, wherein the training subsystem is configured to compute statistics for the plurality of sensors over a portion of historical data of the plurality of sensors, wherein the detecting subsystem is configured to collect measurements from the plurality of sensors and determine, based on the statistics provided by the training subsystem, a probability that the measurements are correct and, if the probability is less than a first threshold, that there is a faulty sensor from among the plurality of sensors, characterized in that once the faulty sensor from among the plurality of sensors is detected, the detecting subsystem is configured to notify the locating subsystem to test the measurement from each sensor (130-1, 130-N) from the plurality of sensors (130-1, 130-N); wherein the locating subsystem is configured to locate the faulty sensor from among the plurality of sensors based on a fault indicator determined for each of the plurality of sensors, wherein each fault indicator is a respective probability density that reflects a likelihood of a respective measurement, wherein the locating subsystem is further configured to compare, for each sensor, the respective probability density to a respective predefined second threshold value to determine if each sensor is faulty or not. a plurality of sensors (130-1, 130-N) connected to a network; and a computing device connected to the network comprising a training subsystem, a detecting subsystem and a locating subsystem, wherein the training subsystem is configured to compute statistics for the plurality of sensors over a portion of historical data of the plurality of sensors, wherein the detecting subsystem is configured to collect measurements from the plurality of sensors and determine, based on the statistics provided by the training subsystem, a probability that the measurements are correct and, if the probability is less than a first threshold, that there is a faulty sensor from among the plurality of sensors, characterized in that once the faulty sensor from among the plurality of sensors is detected, the detecting subsystem is configured to notify the locating subsystem to test the measurement from each sensor (130-1, 130-N) from the plurality of sensors (130-1, 130-N); wherein the locating subsystem is configured to locate the faulty sensor from among the plurality of sensors based on a fault indicator determined for each of the plurality of sensors, wherein each fault indicator is a respective probability density that reflects a likelihood of a respective measurement, wherein the locating subsystem is further configured to compare, for each sensor, the respective probability density to a respective predefined second threshold value to determine if each sensor is faulty or not.
A method of determining the risk of developing breast cancer in a subject or determining whether a subject suffers from breast cancer, the method comprising detecting the expression level of at least 5 miRNA listed in Table 8 in a bodily fluid sample obtained from the subject and determining whether the miRNA are upregulated or downregulated as compared to a control, wherein downregulation of hsa-miR-409-3p (SEQ ID NO: 178) indicates that the subject has breast cancer or is at a risk of developing breast cancer.
A method of increasing a width of a door opening of a crossover vehicle to accommodate a wheelchair ramp assembly or lift assembly, the vehicle including a body frame formed partially by at least an A pillar, a B pillar, and a C pillar, where the door opening is defined between the B pillar and the C pillar, the method comprising: providing a first template corresponding to the B pillar and a second template corresponding to the C pillar; positioning the first template on the B pillar and the second template on the C pillar; marking a first cut line with the first template on the B pillar and a second cut line with the second template on the C pillar; cutting along the first cut line with a cutting tool to remove a portion of the B pillar; cutting along the second cut line with the cutting tool to remove a portion of the C pillar; assembling a B pillar cover assembly; coupling a reinforcement plate to a remaining portion of the C pillar; applying an adhesive to the B pillar cover assembly and to a C pillar cap; and producing a modified B pillar by coupling the B pillar cover assembly to a remaining portion of the B pillar; producing a modified C pillar by coupling the C pillar cap to the reinforcement plate and the remaining portion of the C pillar; and wherein, increasing the width of the door opening between the B pillar and C pillar enables the crossover vehicle to accommodate the wheelchair ramp assembly or lift assembly. providing a first template corresponding to the B pillar and a second template corresponding to the C pillar; positioning the first template on the B pillar and the second template on the C pillar; marking a first cut line with the first template on the B pillar and a second cut line with the second template on the C pillar; cutting along the first cut line with a cutting tool to remove a portion of the B pillar; cutting along the second cut line with the cutting tool to remove a portion of the C pillar; assembling a B pillar cover assembly; coupling a reinforcement plate to a remaining portion of the C pillar; applying an adhesive to the B pillar cover assembly and to a C pillar cap; and producing a modified B pillar by coupling the B pillar cover assembly to a remaining portion of the B pillar; producing a modified C pillar by coupling the C pillar cap to the reinforcement plate and the remaining portion of the C pillar; and wherein, increasing the width of the door opening between the B pillar and C pillar enables the crossover vehicle to accommodate the wheelchair ramp assembly or lift assembly.
Axial Adapter for a kitchen appliance driven by an electric motor, adapted to be mounted to the kitchen appliance and adapted to carry an attachment of the kitchen appliance, wherein the adapter has a housing which is opened at its opposite end faces and inside which a clutch is positioned rotatably in order to transfer a rotation of a motor output shaft and a motor torque to the attachment, characterised in that the clutch is in rotatable form-fit engagement with a bushing which is firmly clamped between a first part of the adapter and a second part of the adapter opposite to the first part.
A method performed by a wireless device for transmitting a Packet Data Convergence Protocol, PDCP, protocol data unit, PDU, the method comprising: selecting one or both of a first path and a second path for transmitting the PDU to a destination based on a comparison of a first delay on the first path and a second delay on the second path, wherein the first delay includes a queueing delay and/or a processing delay on the first path, and/or the second delay includes a queueing delay and/or a processing delay on the second path; and if both the first path and the second path are selected, using Carrier Aggregation, CA, or Dual Connectivity, DC, to send the PDU to the destination on the first path using a first carrier and sending a duplicate of the PDU to the destination on the second path using a second carrier. selecting one or both of a first path and a second path for transmitting the PDU to a destination based on a comparison of a first delay on the first path and a second delay on the second path, wherein the first delay includes a queueing delay and/or a processing delay on the first path, and/or the second delay includes a queueing delay and/or a processing delay on the second path; and if both the first path and the second path are selected, using Carrier Aggregation, CA, or Dual Connectivity, DC, to send the PDU to the destination on the first path using a first carrier and sending a duplicate of the PDU to the destination on the second path using a second carrier.
A method for detecting a boiler leakage, the method comprising: receiving in an automation system of the boiler an indication of a need to start an automatic sequence; starting in the automation system, in response to the receipt of said indication, the automatic sequence with the following functions: - stopping the dosing of a tracer into boiler water in the case that the boiler comprises a separate dosing of the tracer; - stopping an exhaust purge flow of the boiler water; - monitoring a property of the boiler water over the duration of an inspection period; and - drawing a conclusion regarding the leakage on the basis of said monitoring. receiving in an automation system of the boiler an indication of a need to start an automatic sequence; starting in the automation system, in response to the receipt of said indication, the automatic sequence with the following functions: - stopping the dosing of a tracer into boiler water in the case that the boiler comprises a separate dosing of the tracer; - stopping an exhaust purge flow of the boiler water; - monitoring a property of the boiler water over the duration of an inspection period; and - drawing a conclusion regarding the leakage on the basis of said monitoring. - stopping the dosing of a tracer into boiler water in the case that the boiler comprises a separate dosing of the tracer; - stopping an exhaust purge flow of the boiler water; - monitoring a property of the boiler water over the duration of an inspection period; and - drawing a conclusion regarding the leakage on the basis of said monitoring.
A Universal Flash Storage, UFS, memory device: wherein the UFS memory device is configured to support two or more power modes, wherein the two or more power modes comprise: a first low power mode entered with a command from a host device communicatively coupled to the UFS memory device, wherein the UFS memory device in the first low power mode is configured to be responsive to at least a subset of commands received from the host device; a second low power mode, wherein the UFS memory device in the second low power mode is configured not to be responsive to any commands received from the host device, wherein the UFS memory device is configured to enter the first low power mode in response to the command with a first power condition and to enter the second low power mode in response to the command with a second power condition, and wherein the UFS memory device is configured to exit the second low power mode based on a power cycle or a hardware reset signal. wherein the UFS memory device is configured to support two or more power modes, wherein the two or more power modes comprise: a first low power mode entered with a command from a host device communicatively coupled to the UFS memory device, wherein the UFS memory device in the first low power mode is configured to be responsive to at least a subset of commands received from the host device; a second low power mode, wherein the UFS memory device in the second low power mode is configured not to be responsive to any commands received from the host device, wherein the UFS memory device is configured to enter the first low power mode in response to the command with a first power condition and to enter the second low power mode in response to the command with a second power condition, and wherein the UFS memory device is configured to exit the second low power mode based on a power cycle or a hardware reset signal.
A battery-powered motorized window treatment (110,210, 310) adapted to be mounted to a surface for covering at least a portion of a window, the motorized window treatment comprising: a covering material; a motor drive unit adapted to control the covering material between a fully-opened and fully-closed position; a headrail (114, 214) adapted to be disposed near the top of an opening, such that the covering material descends from a bottom side of the headrail, the headrail including a compartment for receiving at least one battery for powering the motor drive unit; said motorized window treatment being characterized in that, it further comprises at least one mounting bracket (115, 215, 370, 470) for coupling the headrail to the surface; wherein the motorized window treatment (110, 210, 310) is adjustable into a service position in which access is provided through a topside of the headrail (114, 214), the topside being opposite the bottom side, to provide access to the at least one battery, the mounting bracket (115, 215, 370, 470) remaining coupled to the surface and the headrail remaining coupled to the mounting bracket when the motorized window treatment is in the service position. a covering material; a motor drive unit adapted to control the covering material between a fully-opened and fully-closed position; a headrail (114, 214) adapted to be disposed near the top of an opening, such that the covering material descends from a bottom side of the headrail, the headrail including a compartment for receiving at least one battery for powering the motor drive unit; said motorized window treatment being characterized in that, it further comprises at least one mounting bracket (115, 215, 370, 470) for coupling the headrail to the surface; wherein the motorized window treatment (110, 210, 310) is adjustable into a service position in which access is provided through a topside of the headrail (114, 214), the topside being opposite the bottom side, to provide access to the at least one battery, the mounting bracket (115, 215, 370, 470) remaining coupled to the surface and the headrail remaining coupled to the mounting bracket when the motorized window treatment is in the service position.
A method implemented in a mobile communications device, the method comprising: receiving a communication from a communication source; obtaining an indication of an environment type associated with the communication source; checking (306, 308) whether the indication of the environment type associated with the communication source matches a current environment type of the mobile communications device; when the indication of the environment type associated with the communication source does not match the current environment type of the mobile communications device: refraining from presenting an initial notification of the communication; maintaining a record of the communication; and subsequently presenting a leave-behind notification of the communication responsive to the current environment type of the mobile communications device being changed to a new current environment type of the mobile communications device so that the environment type associated with the communication source does match the new current environment type of the mobile communications device. receiving a communication from a communication source; obtaining an indication of an environment type associated with the communication source; checking (306, 308) whether the indication of the environment type associated with the communication source matches a current environment type of the mobile communications device; when the indication of the environment type associated with the communication source does not match the current environment type of the mobile communications device: refraining from presenting an initial notification of the communication; maintaining a record of the communication; and subsequently presenting a leave-behind notification of the communication responsive to the current environment type of the mobile communications device being changed to a new current environment type of the mobile communications device so that the environment type associated with the communication source does match the new current environment type of the mobile communications device. refraining from presenting an initial notification of the communication; maintaining a record of the communication; and subsequently presenting a leave-behind notification of the communication responsive to the current environment type of the mobile communications device being changed to a new current environment type of the mobile communications device so that the environment type associated with the communication source does match the new current environment type of the mobile communications device.
A tactile feel control device, comprising: an electric motor configured to be mechanically coupled to a manual control interface that is movable by a user; a bias module operable to generate a bias to be applied by the electric motor, wherein the bias is configured to provide a desired tactile feel to the user at the manual control interface; and a control module operable to output a drive signal the electric motor configured to apply the bias, wherein the bias is insufficient, alone, to cause movement of the manual control interface; wherein the control module is operable to alternately receive either an external command from an external source or the bias, and wherein the drive signal is configured to apply either the external command or the bias. an electric motor configured to be mechanically coupled to a manual control interface that is movable by a user; a bias module operable to generate a bias to be applied by the electric motor, wherein the bias is configured to provide a desired tactile feel to the user at the manual control interface; and a control module operable to output a drive signal the electric motor configured to apply the bias, wherein the bias is insufficient, alone, to cause movement of the manual control interface; wherein the control module is operable to alternately receive either an external command from an external source or the bias, and wherein the drive signal is configured to apply either the external command or the bias.
A module for extracting a fetal heart rate from at least one maternal ECG signal, the module comprising: a recorder and digitizer configured to record and digitize each of at least one maternal ECG signal acquired by sensors attached to a patient in a maternal signal buffer (22A-22D); a processor configured to: - identify candidate peaks in at least one maternal ECG signal to provide m maternal QRS complexes; - divide and stack the at least one maternal ECG signal by applying a fixed n-length window around each of the m maternal QRS complexes, each maternal ECG signal resulting in an m x n stacked matrix M; - identify and attenuate by spatial filtering a maternal QRS signal in the plurality of fixed n-length windows around each of the m maternal QRS complexes of the maternal ECG signal by applying orthogonal projection to the stacked matrix M, to produce a raw fetal ECG signal which is stored in a raw fetal ECG buffer; and - identify peaks in the raw fetal ECG signal by at least one of a) principal component analysis and b) a peak-detector followed by rule based fQRS extraction; and a calculator configured to calculate the fetal heart rate from the identified peaks. a recorder and digitizer configured to record and digitize each of at least one maternal ECG signal acquired by sensors attached to a patient in a maternal signal buffer (22A-22D); a processor configured to: - identify candidate peaks in at least one maternal ECG signal to provide m maternal QRS complexes; - divide and stack the at least one maternal ECG signal - identify candidate peaks in at least one maternal ECG signal to provide m maternal QRS complexes; - divide and stack the at least one maternal ECG signal by applying a fixed n-length window around each of the m maternal QRS complexes, each maternal ECG signal resulting in an m x n stacked matrix M; - identify and attenuate by spatial filtering a maternal QRS signal in the plurality of fixed n-length windows around each of the m maternal QRS complexes of the maternal ECG signal by applying orthogonal projection to the stacked matrix M, to produce a raw fetal ECG signal which is stored in a raw fetal ECG buffer; and - identify peaks in the raw fetal ECG signal by at least one of a) principal component analysis and b) a peak-detector followed by rule based fQRS extraction; and - identify and attenuate by spatial filtering a maternal QRS signal in the plurality of fixed n-length windows around each of the m maternal QRS complexes of the maternal ECG signal by applying orthogonal projection to the stacked matrix M, to produce a raw fetal ECG signal which is stored in a raw fetal ECG buffer; and - identify peaks in the raw fetal ECG signal by at least one of a) principal component analysis and b) a peak-detector followed by rule based fQRS extraction; and a calculator configured to calculate the fetal heart rate from the identified peaks.