mhurhangee/patent-ind-claim-en huggingface dataset:
Light beacon system comprising at least two light beacons , each beacon being provided: - with a module for supplying electrical energy comprising an electrical energy generator and an energy storage means , - a radio communication module , - a processing logic unit comprising a memory and a clock, the beacon system further comprising a means for controlling beacons , said control means comprising: - a radio communication module , - input means , - a processing core unit including a clock and a memory, the system being characterised in that the control means is a user terminal, and the beacon clock is synchronised with the clock by the control means so as to overcome a variation from one clock to another to synchronise cycles and movement sequences for all the beacons . - with a module for supplying electrical energy comprising an electrical energy generator and an energy storage means , - a radio communication module , - a processing logic unit comprising a memory and a clock, - a radio communication module , - input means , - a processing core unit including a clock and a memory,
A wearable training computer , comprising: a global navigation satellite system, GNSS , antenna arrangement configured to provide a group of antenna configurations for receiving a GNSS signal, wherein each antenna configuration provides different radio frequency properties; a measurement circuitry configured to measure performance of the GNSS antenna; and a processing circuitry configured to select, based on at least an activity type of a user of the wearable training computer , a subset of the antenna configurations from the group of the antenna configurations, and further configured to select, from the subset of the antenna configurations based on the measured GNSS antenna performance, an antenna configuration for receiving the GNSS signal, wherein the processing circuitry is further configured to trigger a measurement phase where the measurement circuitry measures performance of all antenna configurations of the selected subset for selecting the antenna configuration. a global navigation satellite system, GNSS , antenna arrangement configured to provide a group of antenna configurations for receiving a GNSS signal, wherein each antenna configuration provides different radio frequency properties; a measurement circuitry configured to measure performance of the GNSS antenna; and a processing circuitry configured to select, based on at least an activity type of a user of the wearable training computer , a subset of the antenna configurations from the group of the antenna configurations, and further configured to select, from the subset of the antenna configurations based on the measured GNSS antenna performance, an antenna configuration for receiving the GNSS signal, wherein the processing circuitry is further configured to trigger a measurement phase where the measurement circuitry measures performance of all antenna configurations of the selected subset for selecting the antenna configuration.
A urinary dysfunction treatment apparatus comprising: an implantable constriction device configured to constrict at least one portion of the tissue wall of a patient's urethra, ureter, renal pelvis or urine bladder to at least restrict the flow of urine, a control unit for controlling the constriction device, an external source of energy adapted to be positioned outside the patent, adapted to transmit wireless energy, an internal energy receiver adapted to receive wireless energy transmitted by the external source of energy, and directly or indirectly supply received energy to energy consuming components of the apparatus , an energy source selected from the list consisting of an accumulator, rechargeable battery and a capacitor, in communication with the internal energy receiver and the control unit , for accumulating received energy for later use by energy consuming components of the apparatus, and a temperature sensor in communication with the control unit for measuring a temperature reflecting a currently required amount of energy of the energy consuming components of the apparatus or of the energy source , wherein the temperature sensor is configured to provide feedback to the control unit such that the control unit can control the amount of energy transferred to the energy consuming parts of the apparatus or to the energy source based on said feedback, for avoiding excessive heating. an implantable constriction device configured to constrict at least one portion of the tissue wall of a patient's urethra, ureter, renal pelvis or urine bladder to at least restrict the flow of urine, a control unit for controlling the constriction device, an external source of energy adapted to be positioned outside the patent, adapted to transmit wireless energy, an internal energy receiver adapted to receive wireless energy transmitted by the external source of energy, and directly or indirectly supply received energy to energy consuming components of the apparatus , an energy source selected from the list consisting of an accumulator, rechargeable battery and a capacitor, in communication with the internal energy receiver and the control unit , for accumulating received energy for later use by energy consuming components of the apparatus, and a temperature sensor in communication with the control unit for measuring a temperature reflecting a currently required amount of energy of the energy consuming components of the apparatus or of the energy source , wherein the temperature sensor is configured to provide feedback to the control unit such that the control unit can control the amount of energy transferred to the energy consuming parts of the apparatus or to the energy source based on said feedback, for avoiding excessive heating.
Fuel filter element , in particular screen filter element, having a screen mesh as filter media and a support tube supporting the screen mesh, and having a valve body guide for guiding a spherical valve body , wherein the valve body guide features a fluid channel and at least one support rib (33 - 35) for the valve body , which support rib extends along a longitudinal direction (L) of the fluid channel , and wherein the at least one support rib (33 - 35) projects radially into the fluid channel , wherein the valve body guide features a coupling tube through which extends the fluid channel , and at least one guide portion (39 - 41) extending frontally out of the coupling tube , and wherein the at least one support rib (33 - 35) extends at least sectionwise along the at least one guide portion (39 - 41).
A method of detecting the presence or absence of Trichomonas vaginalis (TV) in a sample from a subject comprising detecting the presence or absence of the TV 40S ribosomal protein (Tv40Srp) gene or RNA in the sample, wherein the Tv40Srp gene comprises the sequence of SEQ ID NO: 4.
A processing system for receiving data from pressure measurement devices and communicating data to a conventional hemodynamic monitoring system having pressure displays, the processing system comprising: a first data input for receiving a proximal pressure measurement (P a ) signal from an aortic pressure measurement device ; a second data input for receiving a distal pressure measurement (P d ) signal from a distal pressure measurement device ; a controller configured to: compute a Fractional Flow Reserve (FFR) ratio from the proximal pressure measurement signal and the distal pressure measurement signal; convert the FFR ratio to a pressure format such that the FFR ratio reads on the conventional hemodynamic system as a pressure in units of pressure; transmit a first data output signal representing the proximal pressure measurement signal to the conventional hemodynamic monitoring system ; transmit a second data output signal representing the distal pressure measurement signal to the conventional hemodynamic monitoring system ; and transmit a third data output signal representing the FFR ratio in the pressure format to the conventional hemodynamic monitoring system , wherein the processing system is separate from the conventional hemodynamic monitoring system . a first data input for receiving a proximal pressure measurement (P a ) signal from an aortic pressure measurement device ; a second data input for receiving a distal pressure measurement (P d ) signal from a distal pressure measurement device ; a controller configured to: compute a Fractional Flow Reserve (FFR) ratio from the proximal pressure measurement signal and the distal pressure measurement signal; convert the FFR ratio to a pressure format such that the FFR ratio reads on the conventional hemodynamic system as a pressure in units of pressure; transmit a first data output signal representing the proximal pressure measurement signal to the conventional hemodynamic monitoring system ; transmit a second data output signal representing the distal pressure measurement signal to the conventional hemodynamic monitoring system ; and transmit a third data output signal representing the FFR ratio in the pressure format to the conventional hemodynamic monitoring system , compute a Fractional Flow Reserve (FFR) ratio from the proximal pressure measurement signal and the distal pressure measurement signal; convert the FFR ratio to a pressure format such that the FFR ratio reads on the conventional hemodynamic system as a pressure in units of pressure; transmit a first data output signal representing the proximal pressure measurement signal to the conventional hemodynamic monitoring system ; transmit a second data output signal representing the distal pressure measurement signal to the conventional hemodynamic monitoring system ; and transmit a third data output signal representing the FFR ratio in the pressure format to the conventional hemodynamic monitoring system ,
A process, comprising: supplying a first reactant and a second reactant to a simulated moving bed reactor (SMBR) at each step of a sequential repeating injection cycle, where the SMBR includes zones each having an injection point and each containing a solid separation media; reacting the first reactant and the second reactant in the SMBR during the sequential repeating injection cycle to form a first product; separating the first product in the SMBR with the solid separation media; characterized by changing an amount of one or both of the first reactant and the second reactant injected at one or more of the injection points of the SMBR during a step of the sequential repeating injection cycle. supplying a first reactant and a second reactant to a simulated moving bed reactor (SMBR) at each step of a sequential repeating injection cycle, where the SMBR includes zones each having an injection point and each containing a solid separation media; reacting the first reactant and the second reactant in the SMBR during the sequential repeating injection cycle to form a first product; separating the first product in the SMBR with the solid separation media; characterized by changing an amount of one or both of the first reactant and the second reactant injected at one or more of the injection points of the SMBR during a step of the sequential repeating injection cycle.
A nucleic acid molecule for use as a medicament as an anti-inflammatory and/or anti-coagulant and/or organ-protective medicament wherein said nucleic acid molecule is represented by a nucleotide sequence that has at least 95% sequence identity with a nucleotide sequence comprising SEQ ID NO:1 or 2.
A household appliance , comprising a body , a cavity rotatably connected to the body , and a balance assembly , the balance assembly comprising: a balancing body having a chamber defined therein; a balancer movably located in the chamber ; a first wireless charging assembly ; and an energy storage device located outside the balancer and connected to the first wireless charging assembly , wherein the energy storage device , the first wireless charging assembly , and the balancing body are mounted within the cavity , wherein the first wireless charging assembly is configured to receive a charging energy wirelessly transmitted by the household appliance and charge the energy storage device with the charging energy, wherein the chamber comprises a first conductive structure provided on an inner wall thereof and a wire , the first conductive structure comprising a first guide rail and a second guide rail , wherein the first guide rail and the second guide rail are electrically connected to the energy storage device via the wire , wherein the balancer comprises a second conductive structure movably connected to the first conductive structure , and wherein the energy storage device is capable of supplying power to the balancer by the first conductive structure and the second conductive structure ; wherein the household appliance further comprises a second wireless charging assembly ; wherein the second wireless charging assembly is mounted within the body ; and wherein the first wireless charging assembly comprises a receiving coil , and the second wireless assembly comprises a transmitting coil , the receiving coil and the transmitting coil are spaced apart from each other and are arranged opposite to each other, the transmitting coil is capable of transmitting the charging energy to the receiving coil , and the receiving coil is capable of charging the energy storage device with the received charging energy, wherein the receiving coil and the transmitting coil are arranged coaxially along a rotation axis X of the cavity . wherein the household appliance further comprises a second wireless charging assembly ; wherein the second wireless charging assembly is mounted within the body ; and wherein the first wireless charging assembly comprises a receiving coil , and the second wireless assembly comprises a transmitting coil , the receiving coil and the transmitting coil are spaced apart from each other and are arranged opposite to each other, the transmitting coil is capable of transmitting the charging energy to the receiving coil , and the receiving coil is capable of charging the energy storage device with the received charging energy, wherein the receiving coil and the transmitting coil are arranged coaxially along a rotation axis X of the cavity .
Arrangement comprising a flight-capable unmanned transport device and a movable catch arm provided at a ground station for holding the transport device at the ground station , wherein at least one indentation is provided at the transport device , and the catch arm comprises at its end facing away from the ground station at least one expansion element made of a rubber-like material, which can be inserted into the at least one indentation and, in the inserted state, is configured to be inflated by compressed air to produce a form fit and/or a force fit between the at least one indentation and the at least one expansion element . wherein at least one indentation is provided at the transport device , and the catch arm comprises at its end facing away from the ground station at least one expansion element made of a rubber-like material, which can be inserted into the at least one indentation and, in the inserted state, is configured to be inflated by compressed air to produce a form fit and/or a force fit between the at least one indentation and the at least one expansion element .
An apparatus for continuously removing and preparing a fluid sample from a liquefied gas line , said apparatus comprising a sample line which has an open line end which can be inserted into the liquefied gas line ; and an evaporator unit to be arranged outside the liquefied gas line for an at least part evaporation of fluids flowing through the sample line , wherein the evaporator unit comprises at least one heatable body , wherein a first evaporation section of the sample line extends in a downward helix and is in a heat conductive contact with the heatable body , characterized in that a second evaporation section of the sample line located downstream of the first evaporation section extends in an upward helix and is likewise in a heat conductive contact with the heatable body , with the first evaporation section and the second evaporation section being guided around the heatable body . an evaporator unit to be arranged outside the liquefied gas line for an at least part evaporation of fluids flowing through the sample line , wherein the evaporator unit comprises at least one heatable body , wherein a first evaporation section of the sample line extends in a downward helix and is in a heat conductive contact with the heatable body , characterized in that a second evaporation section of the sample line located downstream of the first evaporation section extends in an upward helix and is likewise in a heat conductive contact with the heatable body , with the first evaporation section and the second evaporation section being guided around the heatable body .
A communication control device comprising: a control unit configured to regard each of a plurality of communication regions corresponding to individual beams formed by a directional antenna capable of forming the beams in 3-dimensional directions as a virtual cell and perform communication control when the plurality of beams are formed in the different 3-dimensional directions by the directional antenna, wherein the control unit performs the communication control in a manner that a control signal including a physical downlink control channel (PDCCH) and a physical downlink shared channel (PDSCH) is generated for each individual communication region of the plurality of communication regions and the control signal is transmitted to the corresponding individual communication region. a control unit configured to regard each of a plurality of communication regions corresponding to individual beams formed by a directional antenna capable of forming the beams in 3-dimensional directions as a virtual cell and perform communication control when the plurality of beams are formed in the different 3-dimensional directions by the directional antenna, wherein the control unit performs the communication control in a manner that a control signal including a physical downlink control channel (PDCCH) and a physical downlink shared channel (PDSCH) is generated for each individual communication region of the plurality of communication regions and the control signal is transmitted to the corresponding individual communication region.
A nasal cannula configured to deliver airflow to a user, comprising: a manifold ; a connector for attaching a gas tube to the manifold; a pair of non-sealing nasal prongs extending from the manifold for delivering a supply of gas to a user via the gas tube; wherein the connector is configured to form a swivel connection with the manifold so as to provide relative rotation between the manifold and the gas tube, characterised in that : the swivel connection has an axis of rotation configured to be substantially normal to a face of the user; and the nasal cannula further comprising a selective retainer means configured to selectively hold the connector in a plurality of rotary positions relative to the manifold. a manifold ; a connector for attaching a gas tube to the manifold; a pair of non-sealing nasal prongs extending from the manifold for delivering a supply of gas to a user via the gas tube; wherein the connector is configured to form a swivel connection with the manifold so as to provide relative rotation between the manifold and the gas tube, characterised in that : the swivel connection has an axis of rotation configured to be substantially normal to a face of the user; and the nasal cannula further comprising a selective retainer means configured to selectively hold the connector in a plurality of rotary positions relative to the manifold. the swivel connection has an axis of rotation configured to be substantially normal to a face of the user; and the nasal cannula further comprising a selective retainer means configured to selectively hold the connector in a plurality of rotary positions relative to the manifold.
A liquid dispensing system for dispensing a liquid from a dispenser into a receptacle , the system comprising: a dispenser controllable to dispense the liquid; means for supporting a receptacle at a location to receive the liquid dispensed from the dispenser ; a communication module configured to transmit data to a receptacle located on the supporting means and to receive messages from the receptacle ; and a controller coupled to the communication module and operable to control the dispenser to dispense the liquid; characterised in that one of the messages comprises a stop signal, transmitted from the receptacle when it is determined that a pre-determined volume of the liquid has been received at the receptacle , wherein the controller is configured to cause a flow of the liquid to the receptacle to be interrupted responsive to receipt of the stop signal from the receptacle . a dispenser controllable to dispense the liquid; means for supporting a receptacle at a location to receive the liquid dispensed from the dispenser ; a communication module configured to transmit data to a receptacle located on the supporting means and to receive messages from the receptacle ; and a controller coupled to the communication module and operable to control the dispenser to dispense the liquid; characterised in that one of the messages comprises a stop signal, transmitted from the receptacle when it is determined that a pre-determined volume of the liquid has been received at the receptacle , wherein the controller is configured to cause a flow of the liquid to the receptacle to be interrupted responsive to receipt of the stop signal from the receptacle .