mhurhangee/patent-ind-claim-en huggingface dataset:
A method for deployment of fuel cells in a facility , the method comprising: receiving, at the facility, data representing fuel cell information of a fuel cell carried on a carrier having a first side connected to a fuel inlet of the fuel cell, a second side having a fuel connector and opposite the first side, and a connection between the fuel inlet of the first side and the fuel connector of the second side; and upon detecting the fuel connector of the second side of the carrier being coupled to a fuel port at a receptacle at the facility, identifying a location of the receptacle at the facility that the fuel cell is connected to; generating and storing, in a database , a fuel cell record indicating that the fuel cell is physically connected to the receptacle at the identified location in the facility, the fuel cell record having at least some of the received data representing the fuel cell information from the fuel cell; and instructing a control device in the facility corresponding to the identified location to provide fuel to the fuel cell via the fuel port, the fuel connector, the connection between the first side and the second side of the carrier, and the fuel inlet of the fuel cell. receiving, at the facility, data representing fuel cell information of a fuel cell carried on a carrier having a first side connected to a fuel inlet of the fuel cell, a second side having a fuel connector and opposite the first side, and a connection between the fuel inlet of the first side and the fuel connector of the second side; and upon detecting the fuel connector of the second side of the carrier being coupled to a fuel port at a receptacle at the facility, identifying a location of the receptacle at the facility that the fuel cell is connected to; generating and storing, in a database , a fuel cell record indicating that the fuel cell is physically connected to the receptacle at the identified location in the facility, the fuel cell record having at least some of the received data representing the fuel cell information from the fuel cell; and instructing a control device in the facility corresponding to the identified location to provide fuel to the fuel cell via the fuel port, the fuel connector, the connection between the first side and the second side of the carrier, and the fuel inlet of the fuel cell.
An oil-continous savoury concentrate comprising: • 24-85 wt.% of fat by weight of the total concentrate, said fat having a solid fat content at 20°C (N 20 ) of at least 2wt% (the solid fat is expressed as wt% by weight of the total amount of fat in the savoury concentrate); • 8-50 wt.% of water by weight of the total concentrate; • 0.1-20wt% of water structuring agent by weight of the amount of water in the concentrate; • 0.2-3 mol per 100 g of water of alkalimetal cation selected from Na + , K + and combinations thereof; • 0.2-3 mol chloride anion per 100 g of water; wherein fat and water are present in a weight/weight ratio fat to water of at least 2:3, preferably of at least 3:4. • 24-85 wt.% of fat by weight of the total concentrate, said fat having a solid fat content at 20°C (N 20 ) of at least 2wt% (the solid fat is expressed as wt% by weight of the total amount of fat in the savoury concentrate); • 8-50 wt.% of water by weight of the total concentrate; • 0.1-20wt% of water structuring agent by weight of the amount of water in the concentrate; • 0.2-3 mol per 100 g of water of alkalimetal cation selected from Na + , K + and combinations thereof; • 0.2-3 mol chloride anion per 100 g of water;
A power source for a welding or cutting system , comprising: an external housing ; electrical components disposed within the external housing ; and cooling component positioned within the external housing in a position that receives heat generated by at least one of the electrical components , , characterized in that the cooling component comprises: a heat transfer surface for transferring heat away from the at least one electrical component ; an inlet adapted to receive process gas from a gas source ; an outlet adapted to direct the process gas downstream towards a torch assembly ; and a closed flow area extending between the inlet and the outlet , wherein the closed flow area is in thermal communication with the heat transfer surface so that the process gas enhances cooling of the at least one electrical component as the process gas travels through the closed flow area , from the inlet to the outlet . an external housing ; electrical components disposed within the external housing ; and cooling component positioned within the external housing in a position that receives heat generated by at least one of the electrical components , , characterized in that the cooling component comprises: a heat transfer surface for transferring heat away from the at least one electrical component ; an inlet adapted to receive process gas from a gas source ; an outlet adapted to direct the process gas downstream towards a torch assembly ; and a closed flow area extending between the inlet and the outlet , wherein the closed flow area is in thermal communication with the heat transfer surface so that the process gas enhances cooling of the at least one electrical component as the process gas travels through the closed flow area , from the inlet to the outlet . a heat transfer surface for transferring heat away from the at least one electrical component ; an inlet adapted to receive process gas from a gas source ; an outlet adapted to direct the process gas downstream towards a torch assembly ; and a closed flow area extending between the inlet and the outlet , wherein the closed flow area is in thermal communication with the heat transfer surface so that the process gas enhances cooling of the at least one electrical component as the process gas travels through the closed flow area , from the inlet to the outlet .
Method performed by a transceiver for asynchronously transmitting and/or receiving data over a noisy channel, comprising - Receiving a serial data stream comprising a data frame (S200), said data frame including at least one start bit , payload data and at least one stop bit , said data frame having a predetermined number of bits N - Forming a signaling preamble (S210) having a predetermined length by using at least said start and stop bit periods of said data frame, wherein said forming step (S210) comprising shifting said stop bit adjacent to the start bit of said data frame; - Building a processed data frame (S220) by attaching said signaling preamble to said payload data , said processed data frame having the same predetermined number of bits N; and - Modulating said processed data (S230) by using a signaling modulation scheme and transmitting said modulated processed data over said noisy channel. - Receiving a serial data stream comprising a data frame (S200), said data frame including at least one start bit , payload data and at least one stop bit , said data frame having a predetermined number of bits N - Forming a signaling preamble (S210) having a predetermined length by using at least said start and stop bit periods of said data frame, wherein said forming step (S210) comprising shifting said stop bit adjacent to the start bit of said data frame; - Building a processed data frame (S220) by attaching said signaling preamble to said payload data , said processed data frame having the same predetermined number of bits N; and - Modulating said processed data (S230) by using a signaling modulation scheme and transmitting said modulated processed data over said noisy channel.
A method of producing a security laminate/foil comprising first applying a substantially all-over coating of a high refractive index, HRI, material to a base film , and then applying a substantially all-over coating of a metallic material to form a metallic layer , and the metallic layer arranged to allow selective removal of portions thereof to generate required indicia, and the method further comprises applying an alkaline etchant to the metallic layer to effect the selective removal step, and which comprises applying a sufficient quantity of the etchant such that the etchant remains alkaline on reaching the HRI material underlying the metallic layer, and which step leaves the underlying HRI material substantially intact.
A device for dispensing thread (DD) in a clipping machine for producing sausage-shaped products, comprising a transport unit having at least a first and a second transport element for a defined transport of a thread (T); a drive unit for driving the first and second transport element ; and a shifting unit for reversibly shifting the first transport element relative to the second transport element . a drive unit for driving the first and second transport element ; and a shifting unit for reversibly shifting the first transport element relative to the second transport element .
An air cycle machine comprising: a shaft ; a compressor connected to the shaft ; a turbine connected to the compressor by the shaft , the turbine comprising a plurality of inlet gas flow paths and an exit where the plurality of inlet gas flow paths combine, the turbine being located on a first end of the shaft , the plurality of inlet gas flow paths comprising an inner flow path and an outer flow path, the turbine being configured to mix alternative medium flows at the exit of the turbine during low altitude flight operations, such as ground idle, taxi, take-off, and hold conditions, the alternative medium flows being bleed air sourced from a turbine engine or an auxiliary power unit and fresh air from a scooping mechanism sourced from an inlet , the inner flow path receiving the bleed air or the fresh air, and the outer flow path receiving a remaining one of the bleed air and the fresh air; a power turbine connected to the compressor by the shaft ; wherein the power turbine is configured to receive cabin discharge air from an aircraft cabin that has been heated by air leaving the compressor ; and wherein the turbine inner flow path is at a first diameter and the turbine outer flow path is at a second diameter. a shaft ; a compressor connected to the shaft ; a turbine connected to the compressor by the shaft , the turbine comprising a plurality of inlet gas flow paths and an exit where the plurality of inlet gas flow paths combine, the turbine being located on a first end of the shaft , the plurality of inlet gas flow paths comprising an inner flow path and an outer flow path, the turbine being configured to mix alternative medium flows at the exit of the turbine during low altitude flight operations, such as ground idle, taxi, take-off, and hold conditions, the alternative medium flows being bleed air sourced from a turbine engine or an auxiliary power unit and fresh air from a scooping mechanism sourced from an inlet , the inner flow path receiving the bleed air or the fresh air, and the outer flow path receiving a remaining one of the bleed air and the fresh air; a power turbine connected to the compressor by the shaft ; wherein the power turbine is configured to receive cabin discharge air from an aircraft cabin that has been heated by air leaving the compressor ; and wherein the turbine inner flow path is at a first diameter and the turbine outer flow path is at a second diameter.
Linear drive (LA), comprising at least one segment (Seg) for the linear drive (LA) for moving at least one rotor (L) on the segment (Seg), wherein a sensor (PS) for at least determining the position (x-ist) and/or the speed (v-ist) of the at least one rotor (L) on the segment (Seg) is assigned to the segment (Seg), wherein a signalling strip (Sig) is assigned to the segment (Seg), wherein the signalling strip (Sig) comprises a plurality of signalling devices, in particular optical signalling devices, arranged next to one another, wherein the linear drive (LA) comprises a controller (SE), wherein the controller (SE) is provided for defining the movement of the at least one rotor (L) on the at least one segment (Seg), wherein the sensor (PS) is configured to provide the position (x-ist) and/or the speed (v-ist) of the at least one rotor (L) for the controller (SE), characterized in that the signalling strip (Sig) is embodied to display a state of the segment (Seg), wherein the state of the segment (Seg) specifies the degree of dirtying or a functional state or a reaching of a maintenance cycle of the segment (Seg) and the controller (SE) is configured to provide a signal (S) for the signalling strip (Sig) on the basis of the position (x-ist) and/or the speed (v-ist) of the at least one rotor (L), wherein the signalling strip (Sig) is embodied to specify the state (Zust) at the position (x-ist) on the basis of the signal (S) of the controller (SE), said position corresponding to the position of the rotor (L) , wherein first signalling devices of the signal light display the position of the rotor on the segment assigned to the signalling strip and second signalling devices of the signalling strip display the state of the segment.
A bicycle , which comprises a chain stay , a rear wheel including a hub , a brake disk with a center hole disposed for the hub to pass through, a positioning member passing through the chain stay , the hub and the center hole to fix the rear wheel and the brake disk on the chain stay , and a bicycle speed sensor, said bicycle speed sensor comprising: a signal transmitter configured to transmit a signal, wherein the signal transmitter is fixedly disposed on a side of the brake disk adjacent to the chain stay and the signal transmitter is adjacent to the hub ; and a signal sensor configured to receive the signal; characterized in that the signal sensor is fixedly disposed at a default position of the chain stay , wherein the default position is adjacent to the signal transmitter , and wherein the brake disk includes a groove and the signal transmitter includes a central ring portion and a plurality of extending sensing portions extending outwardly from the central ring portion , wherein the central ring portion is fixedly disposed in the groove . a signal transmitter configured to transmit a signal, wherein the signal transmitter is fixedly disposed on a side of the brake disk adjacent to the chain stay and the signal transmitter is adjacent to the hub ; and a signal sensor configured to receive the signal; characterized in that the signal sensor is fixedly disposed at a default position of the chain stay , wherein the default position is adjacent to the signal transmitter , and wherein the brake disk includes a groove and the signal transmitter includes a central ring portion and a plurality of extending sensing portions extending outwardly from the central ring portion , wherein the central ring portion is fixedly disposed in the groove .
Squirrel cage rotor , in particular for an asynchronous machine, optionally having a shaft , rotor plate assembly having internally arranged rotor rods and short-circuit rings , wherein at least a portion of a short-circuit ring comprises a disc assembly which is constructed in layers from discs with recesses through which the ends of the rotor rods extend out of the rotor plate assembly , characterised in that - the disc assembly of a short-circuit ring comprises a plurality of individual discs with the same diameter, - in that adjacent discs of a short-circuit ring , starting from the covering face as an end side, are connected over the outer periphery by means of a weld connection which extends radially inwards as far as a weld depth (t 1 , t 2 , t 3 ), and - in that the weld depth (t 1 , t 2 , t 3 ) of at least one weld connection when there are a plurality of axially sequential weld connections differs between sequential discs from the weld depth (t 1 , t 2 , t 3 ) of the remaining weld connections . - the disc assembly of a short-circuit ring comprises a plurality of individual discs with the same diameter, - in that adjacent discs of a short-circuit ring , starting from the covering face as an end side, are connected over the outer periphery by means of a weld connection which extends radially inwards as far as a weld depth (t 1 , t 2 , t 3 ), and - in that the weld depth (t 1 , t 2 , t 3 ) of at least one weld connection when there are a plurality of axially sequential weld connections differs between sequential discs from the weld depth (t 1 , t 2 , t 3 ) of the remaining weld connections .
A method of controlling an operation of a service robot , comprising: measuring , by processing circuitry , an evaluation index indicating a value that numerically represents a result of evaluation performed on an operation of the service robot based on sensor data in a service mode; determining , by the processing circuitry , an operation mode of the service robot from a set of at least two operation modes based on the evaluation index; selecting , by the processing circuitry , a behavior defining a detailed operation strategy of the service robot to be applied to the operation of the service robot from a set of at least two behaviors based on the evaluation index, wherein the set of at least two behaviors includes at least one rule-based behavior and at least one training-based behavior; and controlling, by the processing circuitry , the operation of the service robot based on the selected behavior. measuring , by processing circuitry , an evaluation index indicating a value that numerically represents a result of evaluation performed on an operation of the service robot based on sensor data in a service mode; determining , by the processing circuitry , an operation mode of the service robot from a set of at least two operation modes based on the evaluation index; selecting , by the processing circuitry , a behavior defining a detailed operation strategy of the service robot to be applied to the operation of the service robot from a set of at least two behaviors based on the evaluation index, wherein the set of at least two behaviors includes at least one rule-based behavior and at least one training-based behavior; and controlling, by the processing circuitry , the operation of the service robot based on the selected behavior.
A wearable enhanced reality visualization system, comprising: a real-world processor producing a set of real-world signals ; an enhanced-world generator producing a set of non-real-world enhancement signals , said set of non-world enhancement signals having one or more wavelengths below a visible spectrum of a human visual system; and a backplane merging a set of contributions from said set of real-world signals and said set of non-real-world enhancement signals to produce an enhanced world visualization ; wherein said backplane up-converts said set of contributions below said visible spectrum to one or more wavelengths in said visible spectrum. a real-world processor producing a set of real-world signals ; an enhanced-world generator producing a set of non-real-world enhancement signals , said set of non-world enhancement signals having one or more wavelengths below a visible spectrum of a human visual system; and a backplane merging a set of contributions from said set of real-world signals and said set of non-real-world enhancement signals to produce an enhanced world visualization ; wherein said backplane up-converts said set of contributions below said visible spectrum to one or more wavelengths in said visible spectrum.
An interference screw comprising: a proximal end and a distal end , the screw including threads extending in an open helical form from the proximal end to the distal end, and a plurality of runners extending longitudinally along an interior of the screw, characterized in that the distal end of the screw further includes a depth stop that extends a partial length of the screw, wherein a proximal end of the depth stop of the screw is configured to engage a depth stop of a delivery device when a distal end of the delivery device is placed within the interior of the screw such that a distal end of the delivery device extends beyond the distal end of the screw.
A device for coupling, shifting and/or synchronizing in a transmission (1; 71) having gear pairs (11-14; 75, 76), which, to represent gears in the transmission (1; 71), each comprise a fixed gear (15, 17, 19, 21; 77, 79) and an idler gear (16, 18, 20, 22; 78, 80) which is rotatably arranged on a transmission shaft (8, 7; 72), and having a coupling device (30; 38; 81), which comprises a planetary transmission (40, 60; 90; 100; 110), which is assigned two idler gears (16, 18, 20, 22; 78, 80) of the transmission (1; 71) adjacent to a transmission shaft (8, 7; 72), characterized in that the planetary transmission (40, 60; 90; 100; 110) comprises two planetary transmission elements (41, 42; 91, 92; 101, 102; 111, 112), which are coupled to the idler gears (16, 18, 20, 22; 78, 80) so that a first planetary transmission element (41; 91; 101; 111)/second planetary transmission element (42; 92; 102; 112) rotates substantially synchronously with a first idler gear (16; 78)/second idler gear (18; 80) and the first two planetary transmission elements (41; 91; 101; 111; 42; 92; 102; 112) are coupled to the associated idler gears (16, 18, 20, 22; 78, 80) in such a way that relative speeds between the first two planetary transmission elements (41; 91; 101; 111; 42; 92; 102; 112) and the assigned idler gears (16, 18, 20, 22; 78, 80) trigger a coupling process or synchronization process and effect the engagement of a gear in the transmission (8, 7; 72).
A method of calculating a path in a first layer of a multi-layer network, the method comprising: receiving information, corresponding to a plurality of parameters, from a second layer of the multi-layer network, wherein the plurality of parameters correspond to summarized links between edge nodes of the second layer connected with the first layer; and calculating a path in the first layer using the information received from the second layer, wherein the plurality of parameters comprise a parameter of total bandwidth between the edge nodes of the second layer and a parameter of Quality of Service, QoS, between the edge nodes of the second layer. receiving information, corresponding to a plurality of parameters, from a second layer of the multi-layer network, wherein the plurality of parameters correspond to summarized links between edge nodes of the second layer connected with the first layer; and calculating a path in the first layer using the information received from the second layer, wherein the plurality of parameters comprise a parameter of total bandwidth between the edge nodes of the second layer and a parameter of Quality of Service, QoS, between the edge nodes of the second layer.