mhurhangee/patent-ind-claim-en huggingface dataset:
A cooperative control method for user equipment, applied to a host , wherein the host is interconnected to first user equipment and second user equipment by using a network, the host runs a first application and a second application, a first area of a screen of the host displays a graphical interface of the first application, a second area of the screen of the host displays a graphical interface of the second application, and the first area and the second area are independent of each other; a graphical interface displayed on the first user equipment and the graphical interface displayed in the first area have consistent content, and a graphical interface displayed on the second user equipment and the graphical interface displayed in the second area have consistent content; and the method comprises: receiving, by the host, first operation data sent by the first user equipment, wherein the first operation data is generated according to an operation performed by a user on the graphical interface displayed on the first user equipment; processing, by the host, the first operation data, wherein the processing step comprises: updating a currently displayed graphical interface of the first application in the first area according to the first operation data; synchronizing, by the host, an updated graphical interface of the first application to the first user equipment; receiving, by the host, second operation data sent by the second user equipment, wherein the second operation data is generated according to an operation performed by a user on the second user equipment; processing, by the host, the second operation data, wherein the processing step comprises: updating a currently displayed graphical interface of the second application in the second area according to the second operation data; and synchronizing, by the host, an updated graphical interface of the second application to the second user equipment. receiving, by the host, first operation data sent by the first user equipment, wherein the first operation data is generated according to an operation performed by a user on the graphical interface displayed on the first user equipment; processing, by the host, the first operation data, wherein the processing step comprises: updating a currently displayed graphical interface of the first application in the first area according to the first operation data; synchronizing, by the host, an updated graphical interface of the first application to the first user equipment; receiving, by the host, second operation data sent by the second user equipment, wherein the second operation data is generated according to an operation performed by a user on the second user equipment; processing, by the host, the second operation data, wherein the processing step comprises: updating a currently displayed graphical interface of the second application in the second area according to the second operation data; and synchronizing, by the host, an updated graphical interface of the second application to the second user equipment.
A sensor guide wire for intravascular measurement of a physiological variable, comprising: a core wire extending at least partly along a length of the sensor guide wire ; a sensor element mounted on the core wire , in a sensor region of the sensor guide wire , the sensor element comprising a pressure sensitive device; a jacket having a jacket wall , the jacket being fixed relative to the core wire ; and at least one lead connected to the sensor element ; wherein the jacket is tubular and includes a proximal end opening , a distal end opening , and a set of openings extending through the jacket wall , wherein the jacket has a circular cross-section in a plane perpendicular to the longitudinal axis , wherein the core wire extends through the jacket via the proximal and distal end openings , and characterized in that the set of openings extending through the jacket wall includes a first opening located above the sensor element , a second opening located at a first lateral side of the sensor element , and a third opening located at a second lateral side of the sensor element , the first, second, and third openings are elongated in a longitudinal direction of the jacket , and the first, second, and third openings are evenly distributed around the jacket wall . a core wire extending at least partly along a length of the sensor guide wire ; a sensor element mounted on the core wire , in a sensor region of the sensor guide wire , the sensor element comprising a pressure sensitive device; a jacket having a jacket wall , the jacket being fixed relative to the core wire ; and at least one lead connected to the sensor element ; wherein the jacket is tubular and includes a proximal end opening , a distal end opening , and a set of openings extending through the jacket wall , wherein the jacket has a circular cross-section in a plane perpendicular to the longitudinal axis , wherein the core wire extends through the jacket via the proximal and distal end openings , and characterized in that the set of openings extending through the jacket wall includes a first opening located above the sensor element , a second opening located at a first lateral side of the sensor element , and a third opening located at a second lateral side of the sensor element , the first, second, and third openings are elongated in a longitudinal direction of the jacket , and the first, second, and third openings are evenly distributed around the jacket wall .
A method for preparing an actinide oxide powder comprising the following steps: a) a step of preparing a sol-gel solution comprising actinide(s)-based colloids by contacting at least one actinide nitrate with at least one amino acid, the contact being carried out at a pH ranging from 3 to 6; b) a lyophilization step of said solution obtained in a), whereby a paste is obtained; c) a step of heat treating said paste obtained in b) at an effective temperature to form said actinide oxide powder. a) a step of preparing a sol-gel solution comprising actinide(s)-based colloids by contacting at least one actinide nitrate with at least one amino acid, the contact being carried out at a pH ranging from 3 to 6; b) a lyophilization step of said solution obtained in a), whereby a paste is obtained; c) a step of heat treating said paste obtained in b) at an effective temperature to form said actinide oxide powder.
A compound of formula (I) a stereoisomer, an enantiomer, a pharmaceutically acceptable salt thereof or an amino acid conjugate thereof, for use in the treatment or prevention of a cholestatic disorder, e.g. cholestasis (e.g. intrahepatic cholestasis, estrogen-induced cholestasis, drug-induced cholestasis, cholestasis of pregnancy, parenteral nutrition-associated cholestasis), primary biliary cholangitis (PBC), cirrhosis, primary sclerosing cholangitis (PSC), progressive familiar cholestatis (PFIC), Alagille syndrome, biliary atresia, ductopenic liver transplant rejection, cystic fibrosis liver disease, wherein said compound is to be administered at a dose in a range of about 3 μg to about 100 μg.
Method of operating an electrosurgical system comprising an ultrasound generator and an ultrasound instrument , comprising the steps of: - Determining an initial resonance frequency of the ultrasound instrument by the ultrasound generator , - Driving the ultrasound instrument by the ultrasound generator with an operating amplitude and an operating frequency corresponding to the initial resonance frequency, - Adjusting the operating frequency of the ultrasound generator with changes in the resonance frequency of the ultrasound instrument , and - Terminating driving of the ultrasound instrument by the ultrasound generator , wherein for terminating the control of the ultrasound instrument by the ultrasound generator , in a decay phase, the operating amplitude of the ultrasound generator is reduced to zero at a predetermined or predeterminable rate of change, characterized in that the operating frequency of the ultrasound generator is adjusted with changes of the resonance frequency of the ultrasound instrument at least in a first section of the decay phase, and that the operating frequency of the ultrasound generator is kept at a constant value at least in a second section of the decay phase. - Determining an initial resonance frequency of the ultrasound instrument by the ultrasound generator , - Driving the ultrasound instrument by the ultrasound generator with an operating amplitude and an operating frequency corresponding to the initial resonance frequency, - Adjusting the operating frequency of the ultrasound generator with changes in the resonance frequency of the ultrasound instrument , and - Terminating driving of the ultrasound instrument by the ultrasound generator ,
Magnetic-inductive flowmeter with a measuring tube having at least one magnetic device and at least two electrodes , wherein the measuring tube has a measuring tube cross-section , consists of a metal and has an electrically insulating inner coating , wherein the measuring tube has an inlet section and an outlet section , wherein the inlet section and the outlet section of the measuring tube have a connection cross-section , wherein the measuring tube is widened between the inlet section and the outlet section , so that a recess is formed compared to the connection cross section , wherein the electrodes are arranged in the recess , wherein the inner coating is applied to the measuring tube in the recess , and wherein the layer thickness of the inner coating corresponds to the height of the recess , so that the resulting cross-section in the region of the recess corresponds to the connection cross-section and a measuring tube is formed resulting in a measuring tube cross-section that is nearly constant, wherein the recess has a height of approximately 0.1 μm to 1000 μm, preferably a height of 100 μm to 300 μm, and in that the inner coating has a layer thickness of approximately 0.1 μm to 1000 μm, in particular 100 μm to 300 μm. characterized in that transition regions from the connection cross section to the recess are provided, which are implemented by an inclined surface with a straight or curved profile.
Filter device, particularly intended for installation in a fluid storage tank , with at least one preferably exchangeable filter element , a fluid being able to flow through the element material of said filter element in the radial direction viewed from the inside outwards, said fluid being enclosed by a support tube comprising outlet openings , said tube being surrounded by a housing wall of a housing while maintaining a specifiable radial distance and forming a fluid flow chamber , said filter device comprising a plurality of outlet points , characterised in that at least some of the outlet openings in the support tube of the filter element comprise a flow guide device , in that the outlet openings give the fluid a flow direction which is different from the radial flow direction, and in that the flow guide device gives the fluid passing through the support tube a flow direction around the support tube in the manner of a swirling flow.
A bicanalicular probe intended to be inserted into the nasolacrimal duct of a patient, comprising a central tubular part made from a material compatible with insertion into the human body, preferably silicone, and two termination parts each fixed to the central part so that they project from two respective ends of the central tubular part, characterised in that two thickened parts at a distance from one another form projections from the central tubular part, the two thickened parts each being at a distance from the respective ends of the central tubular part, and in that the distance along the tube between the two thickened parts, notably the two tubes, is comprised between 30 mm and 40 mm.
A circular disc element for a device for grinding slurry, comprising: at least two beam elements , each beam element extending beyond an outer circumference of the circular disc element in an extension direction which is parallel to a radial direction of the disc element ; at least two holes extending through the circular disc element in a longitudinal direction which is substantially perpendicular to each of the extension directions of the at least two beam elements ; wherein the at least two beam elements are equidistantly spaced apart from each other with respect to a circumferential direction of the circular disc element , which circumferential direction corresponds to the outer circumference of the circular disc element ; wherein each beam element comprises a recess , wherein the recess receives a connecting part of the circular disc element , wherein each beam element comprises a slot in the form of an elongated hole with a radius , wherein the slot extends in the extension direction of the extending beam element , and wherein the slot is configured for receiving fastening elements. at least two beam elements , each beam element extending beyond an outer circumference of the circular disc element in an extension direction which is parallel to a radial direction of the disc element ; at least two holes extending through the circular disc element in a longitudinal direction which is substantially perpendicular to each of the extension directions of the at least two beam elements ; wherein the at least two beam elements are equidistantly spaced apart from each other with respect to a circumferential direction of the circular disc element , which circumferential direction corresponds to the outer circumference of the circular disc element ; wherein each beam element comprises a recess , wherein the recess receives a connecting part of the circular disc element , wherein each beam element comprises a slot in the form of an elongated hole with a radius , wherein the slot extends in the extension direction of the extending beam element , and wherein the slot is configured for receiving fastening elements.
A sintering furnace for components made of a sintered material, in particular for dental components, and in particular for components made of ceramic, comprising a heatable furnace chamber for the component to be sintered, the furnace chamber having an openable wall section for introducing the component to be sintered into the furnace chamber , wherein a controller is provided, by means of which the heating of the furnace chamber by means of a heating device for the furnace chamber is controlled, characterised in that the controller has means with which to detect the duration of a loading sequence with the steps of opening, holding and closing the wall section , each with the furnace chamber heated, individually or as a whole, and/or to detect the temperature drop in the furnace chamber during the steps, again individually or as a whole, and in that , in the controller , a plurality of predetermined temperature profiles, subsequent to the loading sequence, are stored for a subsequent sintering process for the furnace chamber , of which a suitable temperature profile is selectable automatically from a memory area by means of selection or comparison means provided in the controller, depending on the duration of the steps, individually or as a whole, and/or the temperature drop in the furnace chamber during the steps, again individually or as a whole.
A base station , comprising: a T-shaped bias tee, a modulation circuit , a base station controller , and a direct-current power supply , wherein both a quantity of the T-shaped bias tees and a quantity of the modulation circuits are the same as a quantity of base station radio frequency ports; an input end of the modulation circuit is connected to the direct-current power supply , an output end of the modulation circuit is connected to a direct-current input end of the T-shaped bias tee, a control end of the modulation circuit is connected to an output end of the base station controller , and the modulation circuit is configured to generate a modulation signal; wherein an alternating-current input end of the T-shaped bias tee is configured to receive a radio frequency signal, and an output end of the T-shaped bias tee is connected to a base station radio frequency, RF, port; the T-shaped bias tee is configured to: couple the modulation signal and the radio frequency signal to obtain a coupled signal, and transmit the coupled signal to an antenna RF port by using the base station RF port; and the base station controller is configured to: control the modulation circuit to generate the modulation signal, receive feedback information by using an Antenna Interface Standards Group, AISG, input port, wherein the feedback information comprises identifier information of the antenna RF port receiving the coupled signal, obtain a correspondence between the base station RF port and the antenna RF port and establish a correspondence between a sector of the base station and the antenna according to the feedback information.
Method of assembling a nuclear reactor absorbing element, including preparation of a casing in the form of a tube, its sealing by argon-arc welding from one end by means of a bottom cap having a conical shape, loading the casing with absorbing material in the form of pellets or powder , fastening of the absorbing material from axial displacement, sealing of the casing at the other end by means of an upper cap comprising ballast, wherein the fastening the absorbing material from axial displacement is performed by means of a spring plunger , installed in a compensative volume , characterised in that the sealing of the absorbing element with the upper cap is effected by means of butt resistance welding, wherein during the last-mentioned operation the internal cavity of the casing is vacuumed and filled with an inert gas.
A chemical vapour deposition process for depositing a titanium oxide coating, comprising: providing a glass substrate; forming a gaseous mixture comprising a titanium-containing compound and a fluorine-containing compound, wherein the gaseous mixture includes a first oxygen-containing compound; and directing the gaseous mixture toward and along the glass substrate, and reacting the mixture over the glass substrate to form the titanium oxide coating thereon, wherein the gaseous mixture includes the first oxygen-containing compound and a second oxygen-containing compound, wherein the titanium-containing compound is an inorganic, halogenated titanium-containing compound, wherein the fluorine-containing compound is an inorganic fluorine-containing compound, and wherein the first oxygen-containing compound is an oxygen-containing organic compound and the second oxygen-containing compound is an oxygen-containing inorganic compound. providing a glass substrate; forming a gaseous mixture comprising a titanium-containing compound and a fluorine-containing compound, wherein the gaseous mixture includes a first oxygen-containing compound; and directing the gaseous mixture toward and along the glass substrate, and reacting the mixture over the glass substrate to form the titanium oxide coating thereon, wherein the gaseous mixture includes the first oxygen-containing compound and a second oxygen-containing compound, wherein the titanium-containing compound is an inorganic, halogenated titanium-containing compound, wherein the fluorine-containing compound is an inorganic fluorine-containing compound, and wherein the first oxygen-containing compound is an oxygen-containing organic compound and the second oxygen-containing compound is an oxygen-containing inorganic compound.
Method for determining a rotor position (RP2) of a three-phase permanent magnet synchronous motor , the permanent magnet synchronous motor having, with respect to a d/q coordinate system as a rotor-fixed reference system having a d-axis and a q-axis, a d-axis inductance (Ld) and a q-axis inductance (Lq) differing from the d-axis inductance (Ld), wherein each phase of the permanent magnet synchronous motor is assigned an inductance (Lu, Lv, Lw) which varies as a function of the rotor position, and wherein the rotor position is determined by means of the varying inductances, a voltage (u(t)) is applied to the phases, wherein the applied voltage (u(t)) causes a ripple current (i(t)) for each phase, wherein the ripple current (i(t)) is determined for at least two of the three phases and the inductance of the respective phase is determined based on the ripple current (i(t)) determined for the respective phase, characterized in that a first rotor angle (w1) is determined from the determined inductance for a respective phase using a Clarke transformation, a correction calculation for determining a second rotor angle (w2) is applied to the first rotor angle (w1), and the correction calculation takes into account a period variation with an alternation between a first period and a second period which is offset by 180° with respect to the first period.
A filling-and-sealing device comprising: a filling machine configured to fill a container with a content fluid; a sealing machine configured to seal the container transferred from the filling machine ; a chamber configured to cover the filling machine and the sealing machine ; a gassing system configured to replace, in the chamber , a gas in the container with a second replacement gas based on a supply source outside the chamber ; and a pre-gassing system configured to replace the gas in the container with a first replacement gas before processing by the gassing system in a state in which the first replacement gas remains in the chamber and wherein the first replacement gas is from the chamber and contains the second replacement gas, wherein in the filling machine , the gassing system is configured to sequentially perform non-seal gassing and seal gassing, wherein the non-seal gassing is performed without the opening of the container being closed, the seal gassing is performed with the opening of the container being closed by a filling nozzle of the filling machine . a filling machine configured to fill a container with a content fluid; a sealing machine configured to seal the container transferred from the filling machine ; a chamber configured to cover the filling machine and the sealing machine ; a gassing system configured to replace, in the chamber , a gas in the container with a second replacement gas based on a supply source outside the chamber ; and a pre-gassing system configured to replace the gas in the container with a first replacement gas before processing by the gassing system in a state in which the first replacement gas remains in the chamber and wherein the first replacement gas is from the chamber and contains the second replacement gas, wherein in the filling machine , the gassing system is configured to sequentially perform non-seal gassing and seal gassing, wherein the non-seal gassing is performed without the opening of the container being closed, the seal gassing is performed with the opening of the container being closed by a filling nozzle of the filling machine .