mhurhangee/ep-ind-claims huggingface dataset:
Host system comprising a plurality of cores (101, 102), which is configured in such a manner that one real-time process (106, 107) and one core-local timer is run on each of the plurality of cores (101, 102) wherein the host system is configured in such a manner that a process-specific management of data structures which is performed core-locally is provided for, wherein the data structure is a real-time task list or Futex header.
A training manikin (100, 100', 100") for practicing CPR comprising: - a chest portion and a back portion, and wherein the chest portion is deflectable along a deflection direction and towards the back portion between a non-deflected chest position and a maximum-deflected chest position, - one or more sensors (112, 114) for measuring one or more parameters indicative of the performance of a trainee during use of the training manikin in a training session, wherein at least part of the one or more parameters are indicative of deflection of the chest portion, - at least one processing device connected to the one or more sensors and adapted to provide one or more output signals based on the one or more parameters, the one or more output signals comprising a compression signal indicative of deflection of the chest portion, wherein the training manikin (100, 100', 100") comprises a mouth and/or nostrils and a lung portion comprising a lung bag and one or more airway components fluidly connecting the lung bag with the mouth and/or the nostrils, and wherein at least part of the one or more parameters are indicative of ventilation of the lung portion and the one or more output signals comprising a ventilation signal indicative of ventilation of the lung portion, characterised in that the one or more sensors (112, 114) comprises a temperature sensor measuring temperature, and wherein the temperature sensor provides a temperature sensor signal indicative of the measured temperature to the processing device, and wherein the ventilation signal is based on the temperature sensor signal. - a chest portion and a back portion, and wherein the chest portion is deflectable along a deflection direction and towards the back portion between a non-deflected chest position and a maximum-deflected chest position, - one or more sensors (112, 114) for measuring one or more parameters indicative of the performance of a trainee during use of the training manikin in a training session, wherein at least part of the one or more parameters are indicative of deflection of the chest portion, - at least one processing device connected to the one or more sensors and adapted to provide one or more output signals based on the one or more parameters, the one or more output signals comprising a compression signal indicative of deflection of the chest portion, wherein the training manikin (100, 100', 100") comprises a mouth and/or nostrils and a lung portion comprising a lung bag and one or more airway components fluidly connecting the lung bag with the mouth and/or the nostrils, and wherein at least part of the one or more parameters are indicative of ventilation of the lung portion and the one or more output signals comprising a ventilation signal indicative of ventilation of the lung portion, characterised in that the one or more sensors (112, 114) comprises a temperature sensor measuring temperature, and wherein the temperature sensor provides a temperature sensor signal indicative of the measured temperature to the processing device, and wherein the ventilation signal is based on the temperature sensor signal.
A temperature measuring device (100; 100A) comprising: first and second semiconductor elements (Q1, Q2) each of which has a p-n junction; a transistor group including a plurality of transistors (M1-Mn) of which respective sources are connected to a power source and of which respective gates are connected to each other, the plurality of transistors (M1-Mn) constituting a current source, the transistor group being configured to output a first current and a second current having a different magnitude from the first current to the first and second semiconductor elements (Q1, Q2), respectively, so that the first current and the second current cause forward voltages (Vbe1, Vbe2) across the p-n junctions in the first and second semiconductor elements (Q1, Q2); and a selector configured to sequentially select each transistor from among the plurality of transistors (M1-Mn) as a first transistor and, when selecting a given transistor from among the plurality of transistors (M1-Mn) as a first transistor, to select a corresponding plurality of second transistors different from that first transistor from among the plurality of transistors (M1-Mn), so that, for each sequentially selected first transistor, a drain of that first transistor is connected to one of the first and second semiconductor elements (Q1, Q2) and a drain of each of the corresponding plurality of second transistors is connected to the other of the first and second semiconductor elements (Q1, Q2). first and second semiconductor elements (Q1, Q2) each of which has a p-n junction; a transistor group including a plurality of transistors (M1-Mn) of which respective sources are connected to a power source and of which respective gates are connected to each other, the plurality of transistors (M1-Mn) constituting a current source, the transistor group being configured to output a first current and a second current having a different magnitude from the first current to the first and second semiconductor elements (Q1, Q2), respectively, so that the first current and the second current cause forward voltages (Vbe1, Vbe2) across the p-n junctions in the first and second semiconductor elements (Q1, Q2); and a selector configured to sequentially select each transistor from among the plurality of transistors (M1-Mn) as a first transistor and, when selecting a given transistor from among the plurality of transistors (M1-Mn) as a first transistor, to select a corresponding plurality of second transistors different from that first transistor from among the plurality of transistors (M1-Mn), so that, for each sequentially selected first transistor, a drain of that first transistor is connected to one of the first and second semiconductor elements (Q1, Q2) and a drain of each of the corresponding plurality of second transistors is connected to the other of the first and second semiconductor elements (Q1, Q2).
A method for controlling a pilot signal (P S) for adjusting a coil ratio of a wind power plant transformer, the primary side of which is connected to: a plurality of wind turbine generators; and a variable reactive compensation load for generating a compensation current (I QC), the method comprising the steps of: receiving an actual primary-side voltage (V MV); receiving an actual primary-side current (I QMV); estimating a line drop voltage (D V) on the basis of the compensation current (I QC) and the actual primary-side current (I QMV); forming a voltage error (V err) as the sum of a rated voltage value (V R) and the estimated line drop voltage (D V) minus the actual primary-side voltage (V MV), namely: V err = V R + D V - V MV; and updating the pilot signal (P S) in accordance with the voltage error (V err). a plurality of wind turbine generators; and a variable reactive compensation load for generating a compensation current (I QC), the method comprising the steps of: receiving an actual primary-side voltage (V MV); receiving an actual primary-side current (I QMV); estimating a line drop voltage (D V) on the basis of the compensation current (I QC) and the actual primary-side current (I QMV); forming a voltage error (V err) as the sum of a rated voltage value (V R) and the estimated line drop voltage (D V) minus the actual primary-side voltage (V MV), namely: V err = V R + D V - V MV; and updating the pilot signal (P S) in accordance with the voltage error (V err). receiving an actual primary-side voltage (V MV); receiving an actual primary-side current (I QMV); estimating a line drop voltage (D V) on the basis of the compensation current (I QC) and the actual primary-side current (I QMV); forming a voltage error (V err) as the sum of a rated voltage value (V R) and the estimated line drop voltage (D V) minus the actual primary-side voltage (V MV), namely: V err = V R + D V - V MV; and updating the pilot signal (P S) in accordance with the voltage error (V err).
A mining boom comprising: a non-rotating boom unit having longitudinal axis; a rotating boom unit comprising at least one mine work unit; at least one rotating device between the boom units and comprising a frame, a rotary actuator and rotation axis parallel with longitudinal axis of the non-rotating boom unit, whereby the rotating device provides a rotating joint for turning the rotating boom unit around the rotation axis and relative to a non-rotating unit of the boom; at least one hose assembly comprising at least one hose (23, 24, 25), and wherein the hose assembly is supported to the boom and extends to the mine work unit over the rotating joint; and at least one hose support for supporting the hose assembly at the rotating joint and comprising at least one support element connected to the hose assembly and at least one support frame for supporting the support element to the rotating boom unit; characterized in that the support frame of the hose support comprises at least one curved guide surface being located around the rotation axis of the rotating joint; and the hose support comprises at least one slide element connecting the support element and the guide surface and allowing relative movement between the support element and the guide surface in response to rotation of the rotating joint of the boom. a non-rotating boom unit having longitudinal axis; a rotating boom unit comprising at least one mine work unit; at least one rotating device between the boom units and comprising a frame, a rotary actuator and rotation axis parallel with longitudinal axis of the non-rotating boom unit, whereby the rotating device provides a rotating joint for turning the rotating boom unit around the rotation axis and relative to a non-rotating unit of the boom; at least one hose assembly comprising at least one hose (23, 24, 25), and wherein the hose assembly is supported to the boom and extends to the mine work unit over the rotating joint; and at least one hose support for supporting the hose assembly at the rotating joint and comprising at least one support element connected to the hose assembly and at least one support frame for supporting the support element to the rotating boom unit; characterized in that the support frame of the hose support comprises at least one curved guide surface being located around the rotation axis of the rotating joint; and the hose support comprises at least one slide element connecting the support element and the guide surface and allowing relative movement between the support element and the guide surface in response to rotation of the rotating joint of the boom.
A pharmaceutical composition comprising propionic acid or pharmaceutically acceptable salts thereof, together with a suitable carrier and/or a balanced salt solution for use in the treatment, prevention or attenuation of viral infections, wherein the pharmaceutical composition is to be administered intranasally to a subject.
A bearing component for use in a humeral prosthesis, the bearing component comprising a concave bearing surface that terminates at a continuous substantially circular rim, the rim defining a first plane; a convex engaging surface, that is on an opposite side of the bearing component to the bearing surface and terminates in an annular shoulder, the shoulder defining a second plane; and a connecting region which extends between the first and second planes, wherein the first and second planes are not parallel, wherein the bearing component together with a stem is configured to form a humeral part of a reverse shoulder prosthesis.
Filler element for filling containers with liquid contents, comprising a liquid channel formed in a filler element housing, which channel can be permeated by liquid contents made available in a content vat, with at least one liquid valve in the liquid channel, with a dispensing opening downstream of the liquid valve in the flow direction of the liquid contents, for dispensing the contents into the respective container when the liquid valve is open, with a Trinox tube adjusting the desired fill level of the contents in the container, which tube extends with a first open end (18.1), projecting over the dispensing opening, into the interior of the container during filling, and by means of which, in order to adjust the desired fill level, by subjecting the container interior to the pressure of a Trinox gas, excess contents are displaced out of the container, as well as with at least one controlled gas channel (27, 28) for subjecting the container interior to the Trinox gas, wherein the Trinox tube is in connection with a collection chamber or ring channel, separated from the liquid vat, and preferably via at least one control valve, wherein the collection chamber is in connection with a pipe for conveying excess filling contents displaced via the Trinox tube, preferably via a non-return valve and/or changeover valve, characterised in that the pipe is connected to a device, in which the excess filling contents displaced via the Trinox tube is prepared by filters and/or filtration and/or by warming or heating to a predetermined reference temperature and/or by sterilising and/or carbonisation, before being conveyed to a further use.
A system for enabling communication between a fluid extraction facility, said facility being located underwater, and a remote location, comprising: communications carrying means located in an umbilical connected between the facility and the remote location; signal transmission means at the remote location for transmitting signals to a first end of the communications carrying means; a distribution hub located at the underwater facility for receiving signals from a second end of the communications carrying means and a plurality of secondary hubs located at the facility, wherein communication between the facility and the remote location is effected using a Local Area Network, wherein the secondary hubs are in communication with the distribution hub so that signals from the second end of the communications carrying means received by the distribution hub are output from the distribution hub to the secondary hubs and the secondary hubs are connected for Ethernet communication with the distribution hub in a star or ring configuration, each secondary hub being connected to at least one control module for a fluid extraction means, each control module comprising a subsea electronics module, the subsea electronics module comprising: an Ethernet hub for linking the subsea electronics module to the secondary hub connected thereto; data acquisition and control electronics; and an Ethernet enabler interfacing with the data acquisition and control electronics and connected to the Ethernet hub. communications carrying means located in an umbilical connected between the facility and the remote location; signal transmission means at the remote location for transmitting signals to a first end of the communications carrying means; a distribution hub located at the underwater facility for receiving signals from a second end of the communications carrying means and a plurality of secondary hubs located at the facility, wherein communication between the facility and the remote location is effected using a Local Area Network, wherein the secondary hubs are in communication with the distribution hub so that signals from the second end of the communications carrying means received by the distribution hub are output from the distribution hub to the secondary hubs and the secondary hubs are connected for Ethernet communication with the distribution hub in a star or ring configuration, each secondary hub being connected to at least one control module for a fluid extraction means, each control module comprising a subsea electronics module, the subsea electronics module comprising: an Ethernet hub for linking the subsea electronics module to the secondary hub connected thereto; data acquisition and control electronics; and an Ethernet enabler interfacing with the data acquisition and control electronics and connected to the Ethernet hub. an Ethernet hub for linking the subsea electronics module to the secondary hub connected thereto; data acquisition and control electronics; and an Ethernet enabler interfacing with the data acquisition and control electronics and connected to the Ethernet hub.
Air filter cartridge, for an air filter assembly of a cooling domestic appliance, the filter assembly having a filter housing and the air filter cartridge, the air filter cartridge being placeable within the filter housing and comprising a spring element (31, 33) configured to interact with a portion of the filter housing, characterized in that the spring element is configured to exert an expelling force on the air filter cartridge out of the filter housing with the air filter cartridge being placed within the filter housing and wherein the air filter cartridge further comprises a first interaction element controllable into a locking position at which the first interaction element is configured to interact with a second interaction element of the filter housing for blocking the air filter cartridge within the filter housing and/or for counter-acting against the expelling force and an unlocking position at which the interaction between the first interaction element and wherein the second interaction element is configured to be interrupted and/or released and/or loosened for allowing the expelling force to at least partially expel the the air filter cartridge out of and/or from the filter housing.
A method of wireless communication for an enhanced new carrier type, eNCT, cell, comprising: transmitting, from a base station, downlink common signals and channels at a low duty cycle while in a dormant state; detecting an uplink detection signal from a UE, comprising a unique identification of the UE, wherein the periodicity of the uplink detection signal and channels transmissions is slaved to transmissions of the downlink common signals and channels, whereby after transmitting the downlink common signals and channels, the base station waits for a response, remaining awake beyond a time specified for transmitting the downlink common signals and channels; triggering, at the base station, according to a type of UE, a switching to an active state; and transmitting, from the base station, downlink common signals and channels at a high duty cycle while in the active state. transmitting, from a base station, downlink common signals and channels at a low duty cycle while in a dormant state; detecting an uplink detection signal from a UE, comprising a unique identification of the UE, wherein the periodicity of the uplink detection signal and channels transmissions is slaved to transmissions of the downlink common signals and channels, whereby after transmitting the downlink common signals and channels, the base station waits for a response, remaining awake beyond a time specified for transmitting the downlink common signals and channels; triggering, at the base station, according to a type of UE, a switching to an active state; and transmitting, from the base station, downlink common signals and channels at a high duty cycle while in the active state.
A method for supporting positioning in Secure User Plane Location comprising: at a SUPL Location Platform,SLP, receiving a SUPL position initiation, SUPL POS INIT, message comprising a Location ID parameter and a Multiple Location IDs parameter from a SUPL Enabled Terminal, SET, wherein the Location ID parameter includes location ID parameter data for the most current serving cell or serving access point and an associated status, wherein the associated status is not current, current, or unknown, and wherein the Multiple Location IDs parameter includes prior location ID parameter data and associated time stamps for the prior location ID parameter data; and if the associated status of the most current serving cell or serving access point is current, determining, at the SLP, a location estimate for the SET based on the received current Location ID parameter data for the most current serving cell or serving access point; and characterised by if the associated status of the most current serving cell or serving access point is unknown or not current, determining, at the SLP, a location estimate for the SET based on the received multiple location IDs parameter data. at a SUPL Location Platform,SLP, receiving a SUPL position initiation, SUPL POS INIT, message comprising a Location ID parameter and a Multiple Location IDs parameter from a SUPL Enabled Terminal, SET, wherein the Location ID parameter includes location ID parameter data for the most current serving cell or serving access point and an associated status, wherein the associated status is not current, current, or unknown, and wherein the Multiple Location IDs parameter includes prior location ID parameter data and associated time stamps for the prior location ID parameter data; and if the associated status of the most current serving cell or serving access point is current, determining, at the SLP, a location estimate for the SET based on the received current Location ID parameter data for the most current serving cell or serving access point; and characterised by if the associated status of the most current serving cell or serving access point is unknown or not current, determining, at the SLP, a location estimate for the SET based on the received multiple location IDs parameter data.
Device for timber harvesting having a hydraulically controlled felling head, which can be attached to the boom arm of a vehicle and comprises a gripper and saw unit and a tilting device, wherein the gripper and saw unit has at least one pair of two gripper arms for the harvested material, which can be actuated by a first hydraulic cylinder and pivoted between an open and closed state, and a cutting element for cutting through the harvested material, which can be pivoted out by a second hydraulic cylinder, and can be pivoted from a depositing position into a cutting position for the harvested material by means of the tilting device which can be actuated by a third hydraulic cylinder, wherein the first hydraulic cylinder is connected to a first hydraulic line for opening the gripper arms and to a second hydraulic line for closing the gripper arms, characterized in that a first hydraulic valve provided with a non-return valve is provided, which is connected on the input side to the first hydraulic line, and is connected on the output side to a second hydraulic valve, which is connected to the third hydraulic cylinder designed as a single-acting hydraulic cylinder, and to a third hydraulic valve, via which the second hydraulic valve is connected to the first hydraulic line, wherein the third hydraulic valve is designed to block when pressure is applied to the first hydraulic line and to open when pressure is applied to the second hydraulic line, and the second hydraulic valve is designed to conduct hydraulic fluid from the first hydraulic valve to the third hydraulic cylinder when a switch is actuated by the gripper arms pivoted into their open state, and to conduct hydraulic fluid from the third hydraulic cylinder to the third hydraulic valve when the switch is not actuated when the gripper arms are closed.