mhurhangee/patent-ind-claim-en huggingface dataset:
Method for updating a control model for automatically controlling at least one mobile unit with an automatic driving function, in which a central control unit generates a capture task and transmits it to the mobile unit ; wherein the mobile unit comprises sensors (3a; 3b; 3c; 3d) and the capture task comprises conditions for capturing sensor data sets by means of the sensors (3a; 3b; 3c; 3d), wherein these conditions define which types of sensor data are intended to be captured in which driving situations; the mobile unit captures the sensor data sets on the basis of the capture task by means of the sensors (3a; 3b; 3c; 3d), generates transmission data on the basis of the captured sensor data sets, and transmits the transmission data to the central control unit ; and the central control unit receives the transmission data and, on the basis of the received transmission data, generates an updated control model for automatically controlling the mobile unit , wherein, in an exploratory learning phase, a multiplicity of candidates for trajectories for automatically controlling the mobile unit are generated, and a trajectory that is determined to be safe to use and is not preferred is used, wherein the trajectory that is not preferred is reassessed on the basis of the sensor data sets captured during execution, the new assessment results generated in this manner are transmitted to the central control unit , and the control model is optimized for automatic journey planning. a central control unit generates a capture task and transmits it to the mobile unit ; wherein the mobile unit comprises sensors (3a; 3b; 3c; 3d) and the capture task comprises conditions for capturing sensor data sets by means of the sensors (3a; 3b; 3c; 3d), wherein these conditions define which types of sensor data are intended to be captured in which driving situations; the mobile unit captures the sensor data sets on the basis of the capture task by means of the sensors (3a; 3b; 3c; 3d), generates transmission data on the basis of the captured sensor data sets, and transmits the transmission data to the central control unit ; and the central control unit receives the transmission data and, on the basis of the received transmission data, generates an updated control model for automatically controlling the mobile unit , wherein, in an exploratory learning phase, a multiplicity of candidates for trajectories for automatically controlling the mobile unit are generated, and a trajectory that is determined to be safe to use and is not preferred is used, wherein the trajectory that is not preferred is reassessed on the basis of the sensor data sets captured during execution, the new assessment results generated in this manner are transmitted to the central control unit , and the control model is optimized for automatic journey planning.
A method, comprising: at a master node, MN: determining a manner of a protocol data unit, PDU, session to be served, wherein the manner of the PDU session includes a split PDU session between the MN and a secondary node, SN, or a whole PDU session served by the MN ; generating a request message to be transmitted to the SN to setup PDU session resources on the SN based on the manner of the PDU session is to be served; and indicating, to the SN, the manner of the PDU session to be served; and wherein the method is characterised by informing, if the manner of the PDU session to be served is the split PDU session, the SN of user plane, UP, integrity protection and ciphering activation decision of any data radio bearer, DRB, that is offloaded and to be terminated at the SN. determining a manner of a protocol data unit, PDU, session to be served, wherein the manner of the PDU session includes a split PDU session between the MN and a secondary node, SN, or a whole PDU session served by the MN ; generating a request message to be transmitted to the SN to setup PDU session resources on the SN based on the manner of the PDU session is to be served; and indicating, to the SN, the manner of the PDU session to be served; and wherein the method is characterised by informing, if the manner of the PDU session to be served is the split PDU session, the SN of user plane, UP, integrity protection and ciphering activation decision of any data radio bearer, DRB, that is offloaded and to be terminated at the SN.
Air spring , arranged between a sprung and an unsprung mass, wherein the air spring has an air spring bellows which is fastened air-tight at its two bellows ends to in each case a cover or a connection plate , and the covers or connection plates are designed as connection elements to the sprung or unsprung mass, wherein a marker carrier or data carrier , preferably in the form of a film having an identification marker, provided with a marker or a datum is provided in the connection region between the bellows end and the sprung or unsprung mass, wherein the marker carrier or data carrier is designed to be displaceable between at least a first and a second position, wherein the marker or the datum is arranged to be concealed and non-visible or non-readable from outside the air spring in the first position of the marker carrier or data carrier and to be unconcealed and visible or readable in the second position, characterized in that the marker carrier or data carrier is received so as to be displaceable in a sheath or in a guide, preferably in a guide frame , and the sheath or guide is arranged in the connection region between the bellows end and the sprung or unsprung mass.
A pulser characterised by the pulser comprising: a binary to bipolar converter ; a first digital to analog converter, DAC , configured to convert a digital output of the binary to bipolar converter to a first analog output; a second DAC configured to convert a digital output of the binary to bipolar converter to a second analog output; a first voltage amplifier configured to amplify the first analog signal; a second voltage amplifier configured to amplify the second analog signal; and a transformer configured to combine the amplified first analog signal and the amplified second analog signal and output a multi-frequency or broadband pulser signal. a binary to bipolar converter ; a first digital to analog converter, DAC , configured to convert a digital output of the binary to bipolar converter to a first analog output; a second DAC configured to convert a digital output of the binary to bipolar converter to a second analog output; a first voltage amplifier configured to amplify the first analog signal; a second voltage amplifier configured to amplify the second analog signal; and a transformer configured to combine the amplified first analog signal and the amplified second analog signal and output a multi-frequency or broadband pulser signal.
A system for monitoring a model in a wind tunnel , said system comprising: a plurality of sensors attached to a model in a wind tunnel , wherein each sensor of said plurality of sensors is configured to measure an attribute of the model ; and a computing device in communication with said plurality of sensors , wherein said computing device includes a processor in communication with a memory, wherein said computing device is programmed to: receive a plurality of signals from said plurality of sensors , wherein the plurality of signals represent measurements of the attributes of the model ; store a first threshold and a second threshold based on normalized alarm limits associated with at least one of said plurality of sensors ; analyze the plurality of signals based, at least in part, on the first threshold and the second threshold ; determine that a potentially negative condition is occurring based on the analysis; and alert a user to the potentially negative condition. a plurality of sensors attached to a model in a wind tunnel , wherein each sensor of said plurality of sensors is configured to measure an attribute of the model ; and a computing device in communication with said plurality of sensors , wherein said computing device includes a processor in communication with a memory, wherein said computing device is programmed to: receive a plurality of signals from said plurality of sensors , wherein the plurality of signals represent measurements of the attributes of the model ; store a first threshold and a second threshold based on normalized alarm limits associated with at least one of said plurality of sensors ; analyze the plurality of signals based, at least in part, on the first threshold and the second threshold ; determine that a potentially negative condition is occurring based on the analysis; and alert a user to the potentially negative condition. receive a plurality of signals from said plurality of sensors , wherein the plurality of signals represent measurements of the attributes of the model ; store a first threshold and a second threshold based on normalized alarm limits associated with at least one of said plurality of sensors ; analyze the plurality of signals based, at least in part, on the first threshold and the second threshold ; determine that a potentially negative condition is occurring based on the analysis; and alert a user to the potentially negative condition.
An article to be applied to the skin, the mucous membranes or a wound, in order to absorb therein a liquid, especially an exudate, comprising: - a distal absorbent layer , - a plurality of discrete visual indicators that change appearance in the event of contact with the liquid, this or these visual indicator(s) being in contact with the distal absorbent layer , - an interface intended to contact the skin or the mucous membranes, - between the interface and the distal absorbent layer , at least one proximal absorbent layer adjacent to the interface , - between the proximal absorbent layer and the distal absorbent layer , at least one layer forming a barrier to water provided with at least one passage , preferably being unique an/or off-center, enabling the liquid that has penetrated the proximal absorbent layer to reach the distal absorbent layer , the water absorption capacity of the proximal absorbent layer being superior to the water absorption capacity of the distal absorbent layer . - a distal absorbent layer , - a plurality of discrete visual indicators that change appearance in the event of contact with the liquid, this or these visual indicator(s) being in contact with the distal absorbent layer , - an interface intended to contact the skin or the mucous membranes, - between the interface and the distal absorbent layer , at least one proximal absorbent layer adjacent to the interface , - between the proximal absorbent layer and the distal absorbent layer , at least one layer forming a barrier to water provided with at least one passage , preferably being unique an/or off-center, enabling the liquid that has penetrated the proximal absorbent layer to reach the distal absorbent layer ,
Redox device, in particular hydrogen-oxygen redox device (10a-b), for carrying out at least one redox reaction under consumption or generation of at least one reaction gas, with at least one reaction gas conduction system (16a-b, 18a-b) for conducting a gas flow of a reaction gas, with at least one gas purification unit (20a-b, 30a-b) for a removal of foreign molecules from the gas flow, which is connected to the at least one reaction gas conduction system (16a-b, 18a-b), wherein the at least one gas purification unit (20a-b, 30a-b) comprises a sorption unit (22a-b, 32a-b) for a removal of the foreign molecules, with an electrolyser (12a-b) and with a fuel cell , characterised by at least one heat transport unit (40a-b), which is configured to conduct a waste heat for supporting a regeneration of the at least one sorption unit to the at least one gas purification unit , wherein the waste heat is a heat that occurs in an operation of the electrolyser (12a-b) or of the fuel cell , wherein, in the regeneration, a heat input increases a desorption probability of sorbed foreign molecules from the at least one sorption unit .
A light-emitting device comprising: a source of electromagnetic radiation in the blue portion of the spectrum; and either a) a plurality of polymer beads each comprising a central core portion surrounded by a shell portion comprising an optically-transparent resin and a plurality of K 2 SiF 6 :Mn 4+ (KSF) phosphor particles embedded in the shell portion resin and further comprising a plurality of quantum dots in the core portion; or b) a plurality of polymer beads each comprising a central core portion comprising an optically-transparent resin surrounded by a shell portion and a plurality of KSF phosphor particles embedded in the core portion resin, optionally further comprising a plurality of quantum dots in the shell portion; wherein the plurality of KSF phosphor particles and the plurality of quantum dots are each optically coupled to the source of electromagnetic radiation. a source of electromagnetic radiation in the blue portion of the spectrum; and either a) a plurality of polymer beads each comprising a central core portion surrounded by a shell portion comprising an optically-transparent resin and a plurality of K 2 SiF 6 :Mn 4+ (KSF) phosphor particles embedded in the shell portion resin and further comprising a plurality of quantum dots in the core portion; or b) a plurality of polymer beads each comprising a central core portion comprising an optically-transparent resin surrounded by a shell portion and a plurality of KSF phosphor particles embedded in the core portion resin, optionally further comprising a plurality of quantum dots in the shell portion; a) a plurality of polymer beads each comprising a central core portion surrounded by a shell portion comprising an optically-transparent resin and a plurality of K 2 SiF 6 :Mn 4+ (KSF) phosphor particles embedded in the shell portion resin and further comprising a plurality of quantum dots in the core portion; or b) a plurality of polymer beads each comprising a central core portion comprising an optically-transparent resin surrounded by a shell portion and a plurality of KSF phosphor particles embedded in the core portion resin, optionally further comprising a plurality of quantum dots in the shell portion; wherein the plurality of KSF phosphor particles and the plurality of quantum dots are each optically coupled to the source of electromagnetic radiation.
A prestressed tube section structure of an immersed tunnel, comprising multiple successively connected segments , wherein a shear-resistant structure and a water stop system are arranged between adjacent segment joints of said segments ; multiple prestressing tendons are arranged in the tube section along the circumferential direction of the tube section; and each prestressing tendon is communicated along the longitudinal direction of the tube section, characterized in that each prestressing tendon is partitioned and cut-off into multiple sections at a position close to each segment joint.
A base station apparatus comprising: an allocation section configured to allocate a downlink control channel signal for a terminal, for which at least two downlink component carriers, CCs, are configured, to one or multiple control channel elements, CCEs, in a search space comprised of a plurality of CCEs, wherein the downlink control channel signal includes resource assignment information of downlink data indicating a resource assigned to the terminal in a component carrier n, CC n , out of the configured CCs; and a transmitting section configured to transmit the downlink control channel signal to the terminal in the CCEs, characterized in that a CCE number that defines an end position of the search space for the CC n and a CCE number that defines a start position of the search space for a component carrier n+1, CC n+1 , are consecutive. an allocation section configured to allocate a downlink control channel signal for a terminal, for which at least two downlink component carriers, CCs, are configured, to one or multiple control channel elements, CCEs, in a search space comprised of a plurality of CCEs, wherein the downlink control channel signal includes resource assignment information of downlink data indicating a resource assigned to the terminal in a component carrier n, CC n , out of the configured CCs; and a transmitting section configured to transmit the downlink control channel signal to the terminal in the CCEs, characterized in that a CCE number that defines an end position of the search space for the CC n and a CCE number that defines a start position of the search space for a component carrier n+1, CC n+1 , are consecutive.
Network device for detecting at least one network problem in a medical system , the device having - a receiving module which is designed to receive current process data of at least one process which is performed within the medical system , - a monitoring module which is designed to detect the presence of a number of predetermined events on the basis of the process data and is further designed to trigger an output of a corresponding detection signal when at least one of the predetermined events is present, and - a transmitting module which is designed to transmit the detection signal to a predetermined device address , in particular to a predetermined receiving device , via a network which is connected to the network device , wherein the number of predetermined events comprises at least one of the following events: a predetermined plurality of password input attempts is unsuccessful within a predetermined past first time period; encryption within the context of an encryption protocol used in the network is unsuccessful; a predetermined plurality of outputs via the network is triggered within a predetermined past second time period; an output of a signal to be carried out is unsuccessful; a predetermined number of messages within the context of a service discovery is received within a predetermined past third time period, and wherein the current process data comprise the corresponding protocol files for the at least one process which is performed within the medical system . - a receiving module which is designed to receive current process data of at least one process which is performed within the medical system , - a monitoring module which is designed to detect the presence of a number of predetermined events on the basis of the process data and is further designed to trigger an output of a corresponding detection signal when at least one of the predetermined events is present, and - a transmitting module which is designed to transmit the detection signal to a predetermined device address , in particular to a predetermined receiving device , via a network which is connected to the network device , a predetermined plurality of password input attempts is unsuccessful within a predetermined past first time period; encryption within the context of an encryption protocol used in the network is unsuccessful; a predetermined plurality of outputs via the network is triggered within a predetermined past second time period; an output of a signal to be carried out is unsuccessful; a predetermined number of messages within the context of a service discovery is received within a predetermined past third time period, and wherein the current process data comprise the corresponding protocol files for the at least one process which is performed within the medical system .
An outsole for a sports shoe , in particular a soccer shoe, comprising: a. an integral sole plate , extending from a heel part via a midfoot part into a forefoot part of the outsole , wherein the heel part of the integral sole plate comprises a heel cup that is arranged to support a foot of a wearer of the sports shoe from the side and the rear side; b. at least one first reinforcing rib integrated into the sole plate ; and c. a reinforcing plate arranged above or below the at least one first reinforcing rib , wherein the reinforcing plate comprises on a side directed to the sole plate at least one second reinforcing rib which extends at least partially parallel to the at least one first reinforcing rib . a. an integral sole plate , extending from a heel part via a midfoot part into a forefoot part of the outsole , wherein the heel part of the integral sole plate comprises a heel cup that is arranged to support a foot of a wearer of the sports shoe from the side and the rear side; b. at least one first reinforcing rib integrated into the sole plate ; and c. a reinforcing plate arranged above or below the at least one first reinforcing rib , wherein the reinforcing plate comprises on a side directed to the sole plate at least one second reinforcing rib which extends at least partially parallel to the at least one first reinforcing rib .
An antenna comprising: a physical antenna aperture having an array of radio frequency, RF, surface scattering antenna elements that are controlled and operable together to form a beam for the frequency band for use in holographic beam steering, wherein each of the antenna elements comprises liquid crystal, LC, ; and a compensation controller configured to perform compensation on the antenna elements based on one or more monitored antenna conditions by making a voltage adjustment to voltage applied to one or more of the antenna elements as part of the compensation, wherein the one or more monitored antenna conditions affect performance of the LC in the antenna elements and comprise LC aging. a physical antenna aperture having an array of radio frequency, RF, surface scattering antenna elements that are controlled and operable together to form a beam for the frequency band for use in holographic beam steering, wherein each of the antenna elements comprises liquid crystal, LC, ; and a compensation controller configured to perform compensation on the antenna elements based on one or more monitored antenna conditions by making a voltage adjustment to voltage applied to one or more of the antenna elements as part of the compensation, wherein the one or more monitored antenna conditions affect performance of the LC in the antenna elements and comprise LC aging.
Procedure for the establishment of communication compliant with the HART standard between a HART device and a field device used in process and automation engineering by automatically adding or removing a communication resistor of the HART device , wherein the HART device contains a HART modem and is connected to a current loop via terminals, wherein the field device is connected to the current loop and wherein a transmitter power supply unit is connected to the current loop, said procedure comprising the following steps: - A test signal is transmitted on the current loop by means of the HART device via the terminals; - A test voltage signal is read back from the current loop by means of the terminals of the HART device, said test voltage signal being based on the transmitted test signal; - Comparison of the test voltage signal with a reference signal ; - Addition of the communication resistor to the current loop if the test voltage signal exceeds the reference signal , wherein a carrier detect signal which is output by the HART modem is used for verification purposes after the communication resistor is added to the circuit, and in the event that the carrier detect signal indicates a valid carrier signal the communication resistor remains in the circuit, and in the event that the carrier detect signal indicates an invalid carrier signal the communication resistor is removed from the circuit. - A test signal is transmitted on the current loop by means of the HART device via the terminals; - A test voltage signal is read back from the current loop by means of the terminals of the HART device, said test voltage signal being based on the transmitted test signal; - Comparison of the test voltage signal with a reference signal ; - Addition of the communication resistor to the current loop if the test voltage signal exceeds the reference signal ,