mhurhangee/patent-ind-claim-en huggingface dataset:
An angular metal locking device comprising - a first metal element which is provided with a prismatic hollow member with a substantially triangular cross-section and which comprises a seat and which is formed to be supported with external surfaces of the respective cathetuses thereof at corresponding portions of an internal surface of an edge of a panel near an angular zone thereof, - a second metal element which is formed in order to be able to be placed in contact with the first element when it is received near the angular zone and which comprises a prismatic member which has substantially the same cross-section as the first element and which comprises, in the region of the surface opposite the one directed towards the first element , two channels , each of which in use is parallel with a corresponding portion of the edge of the panel and which are formed to receive corresponding portions of U-like free ends of the edge , - a third metal closure element which has a flat member which is capable of being inserted in the channel which is defined in the angular area of the edge and in the angular opening of the first element , mutually locking the first element and second element , in the seat of the first element which is substantially counter-formed and which is connected by means of a first access slot of the first element which in use is placed in the region of the channel in the angular area of the edge , characterized in that - at least the third element being at least partially covered with a thin ceramic film having a thickness which is between 1 and 200 micrometres. - a first metal element which is provided with a prismatic hollow member with a substantially triangular cross-section and which comprises a seat and which is formed to be supported with external surfaces of the respective cathetuses thereof at corresponding portions of an internal surface of an edge of a panel near an angular zone thereof, - a second metal element which is formed in order to be able to be placed in contact with the first element when it is received near the angular zone and which comprises a prismatic member which has substantially the same cross-section as the first element and which comprises, in the region of the surface opposite the one directed towards the first element , two channels , each of which in use is parallel with a corresponding portion of the edge of the panel and which are formed to receive corresponding portions of U-like free ends of the edge , - a third metal closure element which has a flat member which is capable of being inserted in the channel which is defined in the angular area of the edge and in the angular opening of the first element , mutually locking the first element and second element , in the seat of the first element which is substantially counter-formed and which is connected by means of a first access slot of the first element which in use is placed in the region of the channel in the angular area of the edge , characterized in that - at least the third element being at least partially covered with a thin ceramic film having a thickness which is between 1 and 200 micrometres.
A target radio access network, RAN, node associated with a second network, comprising: at least one memory ; and at least one processor coupled to the at least one memory and configured to: receive a handover request message on a direct interface from a source RAN node in a first network, the handover request message requesting a handover of a radio terminal from the first network to the second network; receive slice information from a core network in response to receiving the handover request message; and control communication of the radio terminal based on the slice information, by sending the slice information either to the radio terminal in an information transfer message, or to the source RAN node , on the direct interface, in a handover request acknowledge message, wherein the slice information relates to a network slice in the second network to which the radio terminal is to be connected. at least one memory ; and at least one processor coupled to the at least one memory and configured to: receive a handover request message on a direct interface from a source RAN node in a first network, the handover request message requesting a handover of a radio terminal from the first network to the second network; receive slice information from a core network in response to receiving the handover request message; and control communication of the radio terminal based on the slice information, by sending the slice information either to the radio terminal in an information transfer message, or to the source RAN node , on the direct interface, in a handover request acknowledge message, wherein receive a handover request message on a direct interface from a source RAN node in a first network, the handover request message requesting a handover of a radio terminal from the first network to the second network; receive slice information from a core network in response to receiving the handover request message; and control communication of the radio terminal based on the slice information, by sending the slice information either to the radio terminal in an information transfer message, or to the source RAN node , on the direct interface, in a handover request acknowledge message, wherein the slice information relates to a network slice in the second network to which the radio terminal is to be connected.
Extracorporeal blood treatment device (EKBV, 10) having a function-monitoring system, wherein the EKBV comprises an afferent line and an efferent line for connecting to the vascular system of a patient, wherein in a first circuit the EKBV has at least one first pump arranged between the afferent line and the efferent line for moving patient's blood, and comprises temperature-influencing means in a second, liquid-filled circuit that is thermally connected to the first circuit of the EKBV by a heat exchanger , wherein the function-monitoring system comprises the following: a. a temperature sensor TS2 auf arranged in the second circuit upstream of the heat exchanger and a temperature sensor TS2 ab arranged in the second circuit downstream of the heat exchanger ; b. a temperature sensor TS1 ab arranged in the efferent line of the first circuit of the EKBV downstream of the heat exchanger ; c. a computer system connected to the temperature sensors (TS2 auf , TS2 ab , TS1 ab ) and the temperature influencing means , and configured to use the temperature influencing means to induce a temperature bolus in the second circuit of the EKBV , to record the temperatures T2 auf , TS2 ab , TS1 ab detected at the temperature sensors TS2 auf , TS2 ab , TS1 ab , respectively, as a function of time and to determine and evaluate corresponding thermodilution curves (TDK), and is furthermore configured to relate TDK2 ab and TDK1 ab to one another and to determine an indicator of the EKBV function from the relationship of TDK2 ab and TDK1 ab . a. a temperature sensor TS2 auf arranged in the second circuit upstream of the heat exchanger and a temperature sensor TS2 ab arranged in the second circuit downstream of the heat exchanger ; b. a temperature sensor TS1 ab arranged in the efferent line of the first circuit of the EKBV downstream of the heat exchanger ; c. a computer system connected to the temperature sensors (TS2 auf , TS2 ab , TS1 ab ) and the temperature influencing means , and configured to use the temperature influencing means to induce a temperature bolus in the second circuit of the EKBV , to record the temperatures T2 auf , TS2 ab , TS1 ab detected at the temperature sensors TS2 auf , TS2 ab , TS1 ab , respectively, as a function of time and to determine and evaluate corresponding thermodilution curves (TDK), and is furthermore configured to relate TDK2 ab and TDK1 ab to one another and to determine an indicator of the EKBV function from the relationship of TDK2 ab and TDK1 ab .
A sterilization wrap system comprising: a sterilization wrap having an inner surface and an outer surface ; and a corner protector positioned adjacent a corner of a package wrapped with the sterilization wrap such that the corner protector is positioned adjacent to the corner of the package and conforms to the shape of the corner , the corner protector including an attachment mechanism for attaching the corner protector directly to the sterilization wrap or directly to a tray for holding implements to be sterilized, wherein the sterilization wrap and the corner protector are made from a substantially similar material. a sterilization wrap having an inner surface and an outer surface ; and a corner protector positioned adjacent a corner of a package wrapped with the sterilization wrap such that the corner protector is positioned adjacent to the corner of the package and conforms to the shape of the corner , the corner protector including an attachment mechanism for attaching the corner protector directly to the sterilization wrap or directly to a tray for holding implements to be sterilized, wherein the sterilization wrap and the corner protector are made from a substantially similar material.
Wind farm comprising a farm master , a farm grid and a plurality of wind turbines for feeding power to a grid in accordance with a control parameter, wherein the farm master has a controller comprising an input for the control parameter and an input for the actual value for the fed power, and an output unit , which outputs setpoint value presets to the wind turbines , wherein the wind turbine has a generator driven by a wind rotor and comprising a converter for generating electrical energy and outputting said energy to the farm grid and a local controller for the setpoint value preset applied by the farm master , characterized in that the local controller has a double structure and comprises a setpoint value channel , at which the setpoint value preset is applied by the farm master and which is designed to output a steady-state setpoint reactive power value, and a responsive channel , which comprises an autonomous controller , which does not have an input for an external setpoint value preset and to which an actual voltage of the respective wind turbine is applied via a washout filter , and an aggregator for the setpoint value channel and the responsive channel for output to the converter .
A capacitance measurement circuit for measuring capacitance at an electrode , the circuit comprising: a charging/discharging circuit part which charges the electrode or discharges the electrode ; a counter which measures a charging measurement being a time duration taken by the charging/discharging circuit part to charge the electrode between two charging thresholds, and which measures a discharging measurement being a time duration taken by the charging/discharging circuit part to discharge the electrode between two discharging thresholds; a controller configured to control the charging/discharging circuit part and the counter such that a plurality of discharging measurements are obtained and a plurality of charging measurements are obtained; an averaging logic which computes the measured capacitance in relation to an average of the measurements. a charging/discharging circuit part which charges the electrode or discharges the electrode ; a counter which measures a charging measurement being a time duration taken by the charging/discharging circuit part to charge the electrode between two charging thresholds, and which measures a discharging measurement being a time duration taken by the charging/discharging circuit part to discharge the electrode between two discharging thresholds; a controller configured to control the charging/discharging circuit part and the counter such that a plurality of discharging measurements are obtained and a plurality of charging measurements are obtained; an averaging logic which computes the measured capacitance in relation to an average of the measurements.
An Oxygen Storage Material (OSM) consisting of oxides of zirconium, cerium, at least one rare earth metal other than cerium, and at least one transition metal with the sum of the oxides equal to 100% of the overall weight of the OSM; wherein the OSM has a cerium oxide content from 15% to 35% by weight, a zirconium oxide content from 40% to 70% by weight, a rare earth metal oxide content other than cerium oxide of 5% to 10% by weight, and a transition metal oxide content from 2% to 8% by weight relative to the overall weight of the OSM; wherein the rare earth metal is selected from lanthanum, neodymium, praseodymium, yttrium, or combination of thereof; wherein the transition metal is selected from copper, iron nickel, cobalt, manganese or combination of thereof; the OSM obtainable by (a) preparing a solution containing zirconium, cerium, rare earth and transition metal salts, (b) adding the polyvalent metal containing solution dropwise into a base solution to form a mixed hydroxide precipitate; (c) washing the precipitated mixed hydroxide with water to remove any anion and cation admixtures; (d) drying the washed mixed oxide; (e) calcining the mixed oxide in an inert or reducing atmosphere; and (f) ageing the calcined mixed oxide at 1100°C in air for 4 hours; the OSM thus having 100% CeO 2 reducibility and an oxygen storage capacity (OSC) that is at least 1.5 mmol H 2 /g with bimodal TPR-H 2 profile. wherein the OSM has a cerium oxide content from 15% to 35% by weight, a zirconium oxide content from 40% to 70% by weight, a rare earth metal oxide content other than cerium oxide of 5% to 10% by weight, and a transition metal oxide content from 2% to 8% by weight relative to the overall weight of the OSM; wherein the rare earth metal is selected from lanthanum, neodymium, praseodymium, yttrium, or combination of thereof; wherein the transition metal is selected from copper, iron nickel, cobalt, manganese or combination of thereof; the OSM obtainable by (a) preparing a solution containing zirconium, cerium, rare earth and transition metal salts, (b) adding the polyvalent metal containing solution dropwise into a base solution to form a mixed hydroxide precipitate; (c) washing the precipitated mixed hydroxide with water to remove any anion and cation admixtures; (d) drying the washed mixed oxide; (e) calcining the mixed oxide in an inert or reducing atmosphere; and (f) ageing the calcined mixed oxide at 1100°C in air for 4 hours; (a) preparing a solution containing zirconium, cerium, rare earth and transition metal salts, (b) adding the polyvalent metal containing solution dropwise into a base solution to form a mixed hydroxide precipitate; (c) washing the precipitated mixed hydroxide with water to remove any anion and cation admixtures; (d) drying the washed mixed oxide; (e) calcining the mixed oxide in an inert or reducing atmosphere; and (f) ageing the calcined mixed oxide at 1100°C in air for 4 hours; the OSM thus having 100% CeO 2 reducibility and an oxygen storage capacity (OSC) that is at least 1.5 mmol H 2 /g with bimodal TPR-H 2 profile.
A method for purifying SO 2 -containing exhaust gases, comprising the following steps: (a) introducing the SO2-containing exhaust gas into a gas scrubber and absorbing SO 2 in the scrubbing liquid, (b) supplying the scrubbing liquid loaded with SO 2 into a desorber , desorbing SO 2 under generation of SO 2 -containing rich gas and returning the SO 2 -deplenished scrubbing liquid into the gas scrubber, (c) supplying the SO 2 -containing rich gas into a gas preheater , wherein air is added to the SO 2 -containing rich gas before it enters the gas pre-heater, (d) heating the SO 2 -containing rich gas with the added air in the gas pre-heater, (e) oxidizing the SO 2 contained in the SO 2 -containing rich gas to SO 3 in a tube contacting device , (f) absorption the resulting SO 3 in a SO 3 -absorber , (g) discharging gases that have not been absorbed in the SO 3 -absorber and supplying these gases into the SO 2 -containing exhaust gas before it enters the gas scrubber, wherein the air that is added to the SO 2 -containing rich gas before it enters the gas preheater in step (c) has a temperature that is considerably higher than the temperature of the SO 2 -containing rich gas. (a) introducing the SO2-containing exhaust gas into a gas scrubber and absorbing SO 2 in the scrubbing liquid, (b) supplying the scrubbing liquid loaded with SO 2 into a desorber , desorbing SO 2 under generation of SO 2 -containing rich gas and returning the SO 2 -deplenished scrubbing liquid into the gas scrubber, (c) supplying the SO 2 -containing rich gas into a gas preheater , wherein air is added to the SO 2 -containing rich gas before it enters the gas pre-heater, (d) heating the SO 2 -containing rich gas with the added air in the gas pre-heater, (e) oxidizing the SO 2 contained in the SO 2 -containing rich gas to SO 3 in a tube contacting device , (f) absorption the resulting SO 3 in a SO 3 -absorber , (g) discharging gases that have not been absorbed in the SO 3 -absorber and supplying these gases into the SO 2 -containing exhaust gas before it enters the gas scrubber,
An end-of-train system , comprising: an electronically controlled pneumatic railway car having a car control device , a railcar specific identification module , and first and second intercar trainline network connectors positioned at either end of the electronically controlled pneumatic railway car; a selection device associated with the railway car and configured to be moveable to selectively indicate whether the electronically controlled pneumatic railway car is located at the end of a train and to indicate which of the first and second intercar trainline network connectors is positioned at the rear of the train; and an input/output end-of-train module in communication with the car control device and with the railcar specific identification module and programmed to determine whether the selection device has indicated that the electronically controlled pneumatic railway car is at the end of the train and to initiate a broadcast of an end-of-train beacon from the car control device over one of the first and second intercar trainline network connectors. an electronically controlled pneumatic railway car having a car control device , a railcar specific identification module , and first and second intercar trainline network connectors positioned at either end of the electronically controlled pneumatic railway car; a selection device associated with the railway car and configured to be moveable to selectively indicate whether the electronically controlled pneumatic railway car is located at the end of a train and to indicate which of the first and second intercar trainline network connectors is positioned at the rear of the train; and an input/output end-of-train module in communication with the car control device and with the railcar specific identification module and programmed to determine whether the selection device has indicated that the electronically controlled pneumatic railway car is at the end of the train and to initiate a broadcast of an end-of-train beacon from the car control device over one of the first and second intercar trainline network connectors.
A multiport distribution network having 2N inputs (p 1 ... p 4 ) and 2N outputs (q 1 ... q 4 ), where N>1, the multiport distribution network providing an independent distribution path extending from each input to each output, each path being formed from a sequence of at least two fundamental units, wherein each fundamental unit comprises a circuit formed of multiple resonator cavities and having 2 input ports for receiving respective input signals, and 2 output ports for outputting respective output signals, and wherein the circuit is configured to: (i) at each input port, split an input signal received at that input port into 2 equal signal components and provide each of the 2 signal components to a respective output port of the circuit; and (ii) at each output port, combine the signal components received from the 2 input ports to form an output signal for that output port; wherein each independent distribution path goes through a particular sequence of resonators and couplings that is unique to that given distribution path; wherein the multiport distribution network is configured to apply the same magnitude of filter transfer function along each independent distribution path; wherein the fundamental units are logically arranged into a sequence of groups, each group having N fundamental units, wherein the N fundamental units in a group are all the same as one another, and wherein each independent distribution path consists of one fundamental unit from each group in accordance with the sequence of groups; and wherein a first fundamental unit in one group differs at least in relation to coupling coefficients from a second fundamental unit in another group to form a desired magnitude of filter transfer function, and wherein each fundamental unit is a 180° hybrid coupler.
Motor vehicle lighting device comprising - at least one light source , - an optical device associated with the at least one light source , into which light from the at least one light source is irradiated, and - an optical imaging system which is assigned to the optical device and images light emerging from the optical device in front of the motor vehicle lighting device , the optical device being set up to bundle the light from the at least one light source and to direct it in the form of at least two spatially separated light beams - a first light beam and a second light beam - to the optical imaging system , and the optical imaging system is adapted to project each light beam in the form of a light distribution in front of the vehicle lighting device ,- the first light beam in the form of a main light distribution and the second light beam in the form of a signlight partial light distribution, wherein at least one diaphragm arranged perpendicular to an optical axis of the optical imaging system is arranged downstream of the optical device and has at least one first opening and at least one second opening , wherein said at least one first opening is adapted to form said first light beam forming the main light distribution and said at least one second opening is adapted to form said second light beam forming the signlight partial light distribution, characterized in that it comprises a plurality of light sources (2a to 2g), preferably a plurality of LEDs, and the optical device has a plurality of light-conducting optical bodies (3a to 3g), each light-conducting optical body being assigned exactly one light source, each light-conducting optical body being arranged and/or designed with respect to the associated light source in such a way that only the light of the associated light source is coupled into the optical body, characterized in that the optical device is provided with a light-guiding optical body (3a to 3g), which is arranged and/or designed in such a way that only the light of the associated light source is coupled into the optical body, and in that the optical device is provided with a light-guiding optical body (3a to 3g), which is arranged and/or designed in such a way that only the light of the associated light source is coupled into the optical body. - at least one light source , - an optical device associated with the at least one light source , into which light from the at least one light source is irradiated, and - an optical imaging system which is assigned to the optical device and images light emerging from the optical device in front of the motor vehicle lighting device , the optical device being set up to bundle the light from the at least one light source and to direct it in the form of at least two spatially separated light beams - a first light beam and a second light beam - to the optical imaging system , and the optical imaging system is adapted to project each light beam in the form of a light distribution in front of the vehicle lighting device ,- the first light beam in the form of a main light distribution and the second light beam in the form of a signlight partial light distribution,