mhurhangee/patent-ind-claim-en huggingface dataset:
A control unit for a worker wearing personal protective equipment, PPE , the control unit comprising: a PPE network creator that, when activated, creates a network ; a PPE device identifier configured to detect a first PPE associated with the worker and a second PPE associated with the worker. wherein the first PPE has a first speaker and a first microphone , and wherein the second PPE has a second speaker and a second microphone ; a PPE network joiner that facilitates the first and second PPE joining the network; a preferred configuration selector that automatically selects a preferred speaker for the worker and a preferred microphone for the worker, wherein the preferred speaker is the first or second speaker, and wherein the preferred microphone is the first or second microphone; and a network communication component that automatically communicates a first device parameter settings to the first PPE and a second device parameter settings to the second PPE, wherein the first and second device parameter settings are based on the selected preferred speaker and microphone. a PPE network creator that, when activated, creates a network ; a PPE device identifier configured to detect a first PPE associated with the worker and a second PPE associated with the worker. wherein the first PPE has a first speaker and a first microphone , and wherein the second PPE has a second speaker and a second microphone ; wherein the first PPE has a first speaker and a first microphone , and wherein the second PPE has a second speaker and a second microphone ; a PPE network joiner that facilitates the first and second PPE joining the network; a preferred configuration selector that automatically selects a preferred speaker for the worker and a preferred microphone for the worker, wherein the preferred speaker is the first or second speaker, and wherein the preferred microphone is the first or second microphone; and a network communication component that automatically communicates a first device parameter settings to the first PPE and a second device parameter settings to the second PPE, wherein the first and second device parameter settings are based on the selected preferred speaker and microphone.
Method for determining a two-dimensional mammography dataset (G_x, G_x'), comprising the following method steps: - Receipt (REC) of a three-dimensional mammography dataset (x, x') of an examination region by means of an interface (DS.1), - First determination (DET-1) of a two-dimensional mammography dataset (G_x, G_x') of the examination region by application of a trained generator function (G) to the three-dimensional mammography dataset (x') by means of a processing unit (DS.2), wherein the trained generator function (G) is based on a trained GA algorithm (GA). - Receipt (REC) of a three-dimensional mammography dataset (x, x') of an examination region by means of an interface (DS.1), - First determination (DET-1) of a two-dimensional mammography dataset (G_x, G_x') of the examination region by application of a trained generator function (G) to the three-dimensional mammography dataset (x') by means of a processing unit (DS.2), wherein the trained generator function (G) is based on a trained GA algorithm (GA).
A circuit breaker, comprising: a first stationary contact connected to a line power terminal of the circuit breaker; a second stationary contact connected to a neutral terminal of the circuit breaker; a first moveable contact coupled to a load power terminal of the circuit breaker, the first moveable contact mounted on a moveable actuator and juxtaposed with the first stationary contact to form a power circuit between the line power terminal and the load power terminal when the first moveable and first stationary contacts are closed; a second moveable contact connected to a load neutral terminal of the circuit breaker, the second moveable contact mounted on the moveable actuator juxtaposed with the second stationary contact to form a neutral circuit between the neutral terminal and the load neutral terminal when the second moveable and second stationary contacts are closed; the movable actuator configured to move the first and second moveable contacts in unison to open the power circuit between the first stationary and first moveable contacts and simultaneously to open the neutral circuit between the second stationary and second moveable contacts; characterized by a load-powered circuit board configured to write a fault type of a tripping event, via an opto-coupler, to a line-powered circuit board , at the same time that the first and second stationary contacts and the first and second moveable contacts are opened; and light emitting diodes (LEDs) directly connected across the line power terminal and the neutral terminal , configured to display the type of fault. a first stationary contact connected to a line power terminal of the circuit breaker; a second stationary contact connected to a neutral terminal of the circuit breaker; a first moveable contact coupled to a load power terminal of the circuit breaker, the first moveable contact mounted on a moveable actuator and juxtaposed with the first stationary contact to form a power circuit between the line power terminal and the load power terminal when the first moveable and first stationary contacts are closed; a second moveable contact connected to a load neutral terminal of the circuit breaker, the second moveable contact mounted on the moveable actuator juxtaposed with the second stationary contact to form a neutral circuit between the neutral terminal and the load neutral terminal when the second moveable and second stationary contacts are closed; the movable actuator configured to move the first and second moveable contacts in unison to open the power circuit between the first stationary and first moveable contacts and simultaneously to open the neutral circuit between the second stationary and second moveable contacts; characterized by a load-powered circuit board configured to write a fault type of a tripping event, via an opto-coupler, to a line-powered circuit board , at the same time that the first and second stationary contacts and the first and second moveable contacts are opened; and light emitting diodes (LEDs) directly connected across the line power terminal and the neutral terminal , configured to display the type of fault.
An indoor unit of an air-conditioning apparatus comprising: a heat exchanger that performs part of a refrigeration cycle; an imaging device that captures an image of a room ; a controller that controls at least the refrigeration cycle, based on information of a person (U1) whose image is captured by the imaging device ; a fan that blows air conditioned at the heat exchanger ; and an air flow direction adjusting device that adjusts a blowing direction of the conditioned air blown by the fan , characterized in that wherein when the refrigeration cycle is stopped, in a case where a face of the person (U1) whose image is captured by the imaging device remains stationarily facing the imaging device for a preset recognition time (J1), the controller is configured to activate the refrigeration cycle, wherein after activating the refrigeration cycle, the controller is configured to identify a location of the person (U1), and control the air flow direction adjusting device so that the conditioned air is blown toward the identified location of the person (U1), wherein in a case where the person (U1) has moved after the air flow direction adjusting device is controlled so that the conditioned air is blown toward the identified location of the person (U1), the controller is configured to identify a movement destination of the person (U1) by tracking movement of the person (U1) and controls the air flow direction adjusting device so that the conditioned air is blown toward the identified movement destination. a heat exchanger that performs part of a refrigeration cycle; an imaging device that captures an image of a room ; a controller that controls at least the refrigeration cycle, based on information of a person (U1) whose image is captured by the imaging device ; a fan that blows air conditioned at the heat exchanger ; and an air flow direction adjusting device that adjusts a blowing direction of the conditioned air blown by the fan , characterized in that wherein when the refrigeration cycle is stopped, in a case where a face of the person (U1) whose image is captured by the imaging device remains stationarily facing the imaging device for a preset recognition time (J1), the controller is configured to activate the refrigeration cycle, wherein after activating the refrigeration cycle, the controller is configured to identify a location of the person (U1), and control the air flow direction adjusting device so that the conditioned air is blown toward the identified location of the person (U1), wherein in a case where the person (U1) has moved after the air flow direction adjusting device is controlled so that the conditioned air is blown toward the identified location of the person (U1), the controller is configured to identify a movement destination of the person (U1) by tracking movement of the person (U1) and controls the air flow direction adjusting device so that the conditioned air is blown toward the identified movement destination.
An interference filter comprising: a transparent substrate ; a layers stack supported by the transparent substrate, the layers stack comprising plurality of layers of at least: layers of amorphous hydrogenated silicon and layers of one or more dielectric materials having a refractive index lower than the refractive index of the amorphous hydrogenated silicon wherein the layers of one or more dielectric materials include layers of a dielectric material having a refractive index in the range 1.9 to 2.7 inclusive and wherein the layers of one or more dielectric materials further include SiO 2 layers ; wherein the layers stack is configured to have a passband center wavelength in the range 750-1100 nm inclusive. a transparent substrate ; a layers stack supported by the transparent substrate, the layers stack comprising plurality of layers of at least: layers of amorphous hydrogenated silicon and layers of one or more dielectric materials having a refractive index lower than the refractive index of the amorphous hydrogenated silicon wherein the layers of one or more dielectric materials include layers of a dielectric material having a refractive index in the range 1.9 to 2.7 inclusive and wherein the layers of one or more dielectric materials further include SiO 2 layers ; wherein the layers stack is configured to have a passband center wavelength in the range 750-1100 nm inclusive. layers of amorphous hydrogenated silicon and layers of one or more dielectric materials having a refractive index lower than the refractive index of the amorphous hydrogenated silicon wherein the layers of one or more dielectric materials include layers of a dielectric material having a refractive index in the range 1.9 to 2.7 inclusive and wherein the layers of one or more dielectric materials further include SiO 2 layers ; wherein the layers stack is configured to have a passband center wavelength in the range 750-1100 nm inclusive.
A computer implemented method for training a machine learning model to route received computational tasks in a system including one or more quantum computing resources (110a; 110b; 110c) and one or more classical computing resources (1 10d), the method comprising: obtaining a first set of data, the first set of data comprising data representing multiple computational tasks previously performed by the system; obtaining a second set of data , the second set of data comprising data representing properties associated with using the one or more quantum computing resources to solve the multiple computational tasks; obtaining input data for the multiple computational tasks previously performed by the system, comprising data representing a type of computing resource the task was routed to, wherein the obtained input data for each of the multiple computational tasks previously performed by the system further comprises data indicating a frequency of changes to input data sets associated with each computational task; and training the machine learning model to route received data representing a computational task to be performed using the (i) first set of data, (ii) input data, and (iii) second set of data. obtaining a first set of data, the first set of data comprising data representing multiple computational tasks previously performed by the system; obtaining a second set of data , the second set of data comprising data representing properties associated with using the one or more quantum computing resources to solve the multiple computational tasks; obtaining input data for the multiple computational tasks previously performed by the system, comprising data representing a type of computing resource the task was routed to, wherein the obtained input data for each of the multiple computational tasks previously performed by the system further comprises data indicating a frequency of changes to input data sets associated with each computational task; and training the machine learning model to route received data representing a computational task to be performed using the (i) first set of data, (ii) input data, and (iii) second set of data.
A method for producing a semiconductor device by directly bonding silver oxide (520; 620; 720) provided on a surface of a base (500; 600; 700) and silver (140; 240; 340) provided on a surface of a semiconductor element (100; 200; 300), the method comprising the steps of: arranging the semiconductor element (100; 200; 300) on the base (500; 600; 700) such that the silver (140; 240; 340) provided on the surface of the semiconductor element (100; 200; 300) is in contact with the silver oxide provided on the surface of the base (500; 600; 700), temporarily bonding the semiconductor element (100; 200; 300) and the base (500; 600; 700) by applying a pressure or an ultrasonic vibration to the semiconductor element (100; 200; 300) or the base (500; 600; 700), and permanently bonding the semiconductor element (100; 200; 300) and the base (500; 600; 700) by applying heat having a temperature of 150 to 900°C to the semiconductor element (100; 200; 300) and the base (500; 600; 700); wherein the step of temporarily bonding and the step of permanently bonding may be performed simultaneously; wherein the surface of the base (500; 600; 700) and the surface of the semiconductor element (100; 200; 300) are silver-coated by silver sputtering, silver vapour deposition or silver plating; and wherein the silver oxide is provided on the surface of the base (500; 600; 700) by oxidizing the silver-coated surface on the entire base (500; 600; 700) or a part of the base (500; 600; 700) on which the semiconductor element (100; 200; 300) is to be mounted through oxygen plasma or UV-irradiation. arranging the semiconductor element (100; 200; 300) on the base (500; 600; 700) such that the silver (140; 240; 340) provided on the surface of the semiconductor element (100; 200; 300) is in contact with the silver oxide provided on the surface of the base (500; 600; 700), temporarily bonding the semiconductor element (100; 200; 300) and the base (500; 600; 700) by applying a pressure or an ultrasonic vibration to the semiconductor element (100; 200; 300) or the base (500; 600; 700), and permanently bonding the semiconductor element (100; 200; 300) and the base (500; 600; 700) by applying heat having a temperature of 150 to 900°C to the semiconductor element (100; 200; 300) and the base (500; 600; 700); wherein the step of temporarily bonding and the step of permanently bonding may be performed simultaneously; wherein the surface of the base (500; 600; 700) and the surface of the semiconductor element (100; 200; 300) are silver-coated by silver sputtering, silver vapour deposition or silver plating; and wherein the silver oxide is provided on the surface of the base (500; 600; 700) by oxidizing the silver-coated surface on the entire base (500; 600; 700) or a part of the base (500; 600; 700) on which the semiconductor element (100; 200; 300) is to be mounted through oxygen plasma or UV-irradiation.
A plasmid vector comprising a. a set of genes operable within a first bacterium, wherein said set of genes enables transfer of said plasmid vector from said first bacterium to a second bacterium via conjugation and wherein said set of genes enabling plasmid transfer via conjugation comprises all the following genes: excA encoding exclusion protein of the IncM type, traY encoding typeIV secretion protein of the IncM type, traX encoding relaxase, traW, traU, traR, traQ, traP, traO, traN, traM, traL, traK, trad encoding plasmid transfer ATPase, traI, traH, pri encoding DNA primase, mobA encoding relaxase/mobilization DNase, mobB, tir encoding transfer inhibition protein, trbA, trbB and trbC, and b. a selection marker operable in said first bacterium and in said second bacterium, wherein said selection marker enables the use of short-chain fructooligosaccharides as carbon source in said first bacterium and second bacterium and is fos operon encoding fructokinase FosK, FosY, glycoside hydrolase FosGH2, FosX, glycoside hydrolase FosGH1, sugar transporter FosT and not FosR. a. a set of genes operable within a first bacterium, wherein said set of genes enables transfer of said plasmid vector from said first bacterium to a second bacterium via conjugation and wherein said set of genes enabling plasmid transfer via conjugation comprises all the following genes: excA encoding exclusion protein of the IncM type, traY encoding typeIV secretion protein of the IncM type, traX encoding relaxase, traW, traU, traR, traQ, traP, traO, traN, traM, traL, traK, trad encoding plasmid transfer ATPase, traI, traH, pri encoding DNA primase, mobA encoding relaxase/mobilization DNase, mobB, tir encoding transfer inhibition protein, trbA, trbB and trbC, and b. a selection marker operable in said first bacterium and in said second bacterium, wherein said selection marker enables the use of short-chain fructooligosaccharides as carbon source in said first bacterium and second bacterium and is fos operon encoding fructokinase FosK, FosY, glycoside hydrolase FosGH2, FosX, glycoside hydrolase FosGH1, sugar transporter FosT and not FosR.
A measurement module for measuring the differential pressure between a first and a second connection point arranged in a transport line for a fluid, the measurement module comprises: a first connection line for being connected to the first connection point , and a second connection line for being connected to the second connection point ; a differential pressure sensor arranged in fluid communication with said first and second connection line ; a valve arranged in fluid communication with said first and second connection line , said valve having an open state and a closed state, wherein said valve in said open state fluidly connects said first and second connection line via said valve , wherein said valve in said closed state prevents fluid flow between said first and second connection line via said valve ; and wherein said first connection line is adapted to be connected to the first connection point and is configured to extend from said first connection point to said valve , and said second connection line is adapted to be connected to the second connection point and is configured to extend from said second connection point to said valve , wherein, compared to said valve , said differential pressure sensor is arranged closer to the first and the second connection point wherein the measurement module further comprises an actuator for actuating said valve into said open state for enabling fluid to be flushed through the measurement module, characterized in that the measurement module comprises means which calculate a flushing time based on a differential pressure measured by the differential pressure sensor . a first connection line for being connected to the first connection point , and a second connection line for being connected to the second connection point ; a differential pressure sensor arranged in fluid communication with said first and second connection line ; a valve arranged in fluid communication with said first and second connection line , said valve having an open state and a closed state, wherein said valve in said open state fluidly connects said first and second connection line via said valve , wherein said valve in said closed state prevents fluid flow between said first and second connection line via said valve ; and wherein said first connection line is adapted to be connected to the first connection point and is configured to extend from said first connection point to said valve , and said second connection line is adapted to be connected to the second connection point and is configured to extend from said second connection point to said valve , wherein, compared to said valve , said differential pressure sensor is arranged closer to the first and the second connection point wherein the measurement module further comprises an actuator for actuating said valve into said open state for enabling fluid to be flushed through the measurement module, characterized in that the measurement module comprises means which calculate a flushing time based on a differential pressure measured by the differential pressure sensor .
A method for operating a washing machine comprising a washing tub , one or more electro valves through which a liquid is admitted into said washing tub , a liquid level detector configured for detecting a quantity indicative of the liquid level within said washing tub , a drain pump configured for draining liquid from said washing tub , a plurality of further electric loads , a control unit configured for controlling said one or more electro valves , said liquid level detector , said drain pump , and said plurality of further electric loads , wherein said method comprises taking said washing machine in a stand-by condition in which said one or more electro valves and one or more of said plurality of further electric loads are disconnected from electric power supply, wherein said plurality of further electric loads comprises a user interface , wherein when said washing machine is in said stand-by condition, said user interface is disconnected from electric power supply, wherein said method comprises the following steps: - while said washing machine is in said stand-by condition, supplying electric power to said liquid level detector for at least a first switch-on time interval (t ON 1); - during said first switch-on time interval (t ON1 ), detecting by said liquid level detector a first value (L1) of a quantity indicative of the liquid level within said washing tub ; - activating said drain pump for draining liquid from said washing tub and/or generating an alert, if said first value (L1) meets a first prefixed condition, characterized in that said phase of supplying electric power to said liquid level detector for at least said first switch-on time interval (t ON1 ) while said washing machine is in said stand-by condition, is performed after a prefixed first delay time (t d1 ) since when said washing machine has been taken in said stand-by condition, during which said liquid level detector is disconnected from electric power supply. - while said washing machine is in said stand-by condition, supplying electric power to said liquid level detector for at least a first switch-on time interval (t ON 1); - during said first switch-on time interval (t ON1 ), detecting by said liquid level detector a first value (L1) of a quantity indicative of the liquid level within said washing tub ; - activating said drain pump for draining liquid from said washing tub and/or generating an alert, if said first value (L1) meets a first prefixed condition,