mhurhangee/patent-ind-claim-en huggingface dataset:
An authentication device comprising: a storage device that previously stores user information for identifying a user and a plurality of fixed passwords in association between the user information and the plurality of fixed passwords; and an input device for use in entering user information and a password; characterized by : a controller that executes login when user information and a password are entered through the input device and the entered password is identical to one of the plurality of fixed passwords previously stored in association with the entered user information in the storage device , wherein when the entered password is identical to none of the plurality of fixed passwords previously stored in association with the entered user information in the storage device and any one of the plurality of fixed passwords satisfies a predetermined condition on similarity to the entered password, the controller inhibits an authentication based on the fixed password satisfying the predetermined condition from being made for a predetermined period. a storage device that previously stores user information for identifying a user and a plurality of fixed passwords in association between the user information and the plurality of fixed passwords; and an input device for use in entering user information and a password; characterized by : a controller that executes login when user information and a password are entered through the input device and the entered password is identical to one of the plurality of fixed passwords previously stored in association with the entered user information in the storage device , wherein when the entered password is identical to none of the plurality of fixed passwords previously stored in association with the entered user information in the storage device and any one of the plurality of fixed passwords satisfies a predetermined condition on similarity to the entered password, the controller inhibits an authentication based on the fixed password satisfying the predetermined condition from being made for a predetermined period.
Method for producing at least one thermally conductive connection between a power component and a metallic layer of a circuit carrier , the circuit carrier having a metallic base layer and an insulating layer on at least one of its sides, a conductor track layer with conductor track sections being arranged on the insulating layer and a layer of solder resist being applied in sections thereover, and the power component has on its underside, in addition to electrical contacts , at least one potential-free heat conducting contact for dissipating heat loss, the insulating layer lying above the base layer being removed in a connection region of the circuit carrier which is free from the conductor track layer , the resulting trench is filled with a conductive adhesive , and solder paste is applied to the conductor track layer in the region of the electrical contacts of the power component , the power component is then applied and both the soldering process and the curing of the conductive adhesive are carried out by heating, so that a thermally conductive connection is created from the potential-free thermally conductive contact to the lower metallic base layer via the conductive adhesive and the electrical contacts are soldered to the conductor track layer , characterized in that in that a silver conductive adhesive is used as the conductive adhesive , the potential-free heat conducting contact of the power component being soldered to a connection pad of the upper conductor track layer and conductive adhesive projecting over the trench being applied to a section of the connection pad , so that the connection pad is in thermal connection with the base layer via the conductive adhesive , the trench being filled with conductive adhesive in such a way that the latter projects beyond the end of the trench , the dimensions of a plug of conductive adhesive formed by the conductive adhesive being between 0.1 mm and 0.5 mm, the power component being mechanically connected to the circuit carrier exclusively by soldering.
A method for treating an aqueous liquid, said aqueous liquid comprising oil droplets and at least one surfactant and/or at least one base, wherein the following steps are carried out: a) determining the interfacial tension between said oil droplets and the water in said aqueous liquid, said interfacial tension being dependent upon said surfactant and/or said base; b)determining a pore size threshold of a filter of radius R def for retaining said oil droplets from said aqueous liquid, said pore size threshold being a function of said interfacial tension; with a formula of the type : R def = Ca ∗ Γ η γ ̇ where η is the viscosity of the aqueous liquid, γ is the shear rate applied to an oil droplet, r is the interfacial tension and Ca*· is the threshold capillary number, said threshold capillary number Ca*. being determined by carrying out the following steps : i) determining the viscosity η of said aqueous liquid, the shear rate applied to an oil droplet γ , the droplet radius R and the interfacial tension Γ for filtration of said aqueous liquid in a filter whose pores are of a specified size; and ii) Calculating said threshold capillary number Ca* using a formula of the type: Ca ∗ ≡ η γ ̇ R Γ c) treating said aqueous liquid by filtration using a filter for which the size of said pores is less than or equal to said pore size threshold. a) determining the interfacial tension between said oil droplets and the water in said aqueous liquid, said interfacial tension being dependent upon said surfactant and/or said base; b)determining a pore size threshold of a filter of radius R def for retaining said oil droplets from said aqueous liquid, said pore size threshold being a function of said interfacial tension; with a formula of the type : R def = Ca ∗ Γ η γ ̇ where η is the viscosity of the aqueous liquid, γ is the shear rate applied to an oil droplet, r is the interfacial tension and Ca*· is the threshold capillary number, said threshold capillary number Ca*. being determined by carrying out the following steps : i) determining the viscosity η of said aqueous liquid, the shear rate applied to an oil droplet γ , the droplet radius R and the interfacial tension Γ for filtration of said aqueous liquid in a filter whose pores are of a specified size; and ii) Calculating said threshold capillary number Ca* using a formula of the type: Ca ∗ ≡ η γ ̇ R Γ i) determining the viscosity η of said aqueous liquid, the shear rate applied to an oil droplet γ , the droplet radius R and the interfacial tension Γ for filtration of said aqueous liquid in a filter whose pores are of a specified size; and ii) Calculating said threshold capillary number Ca* using a formula of the type: Ca ∗ ≡ η γ ̇ R Γ c) treating said aqueous liquid by filtration using a filter for which the size of said pores is less than or equal to said pore size threshold.
An acid whey composition comprising lactose and lactic acid bacteria, wherein: - the lactose content is of at least 3.20% by weight, - the lactic acid bacteria are at least partly in an alive state, - the lactose stability is of higher than 85%, preferably higher than 88%, during a storage of 7 days at 32°C, wherein the lactic acid bacteria have a lactose metabolization capacity of lactose loss of lower than 15% measured on an acid whey composition having: - from 0.0% to 0.4% by weight of protein, - from 2.8% to 4.7% by weight of lactose, - from 92.0% to 95% by weight of water, - from 0.00 % to 0.10% by weight of fat, and - a pH of from 3.80 to 4.65. - the lactose content is of at least 3.20% by weight, - the lactic acid bacteria are at least partly in an alive state, - the lactose stability is of higher than 85%, preferably higher than 88%, during a storage of 7 days at 32°C, - from 0.0% to 0.4% by weight of protein, - from 2.8% to 4.7% by weight of lactose, - from 92.0% to 95% by weight of water, - from 0.00 % to 0.10% by weight of fat, and - a pH of from 3.80 to 4.65.
A wiring device for a circuit breaker, comprising: a wire holder which is arranged on a circuit breaker body and is provided with a plurality of busbar slots distributed in a height direction; a plurality of wiring busbars which are correspondingly inserted into the plurality of busbar slots , and are provided with first busbar parts that are vertically arranged; a plurality of first conductive elements which are arranged on the wire holder at intervals in a width direction, and are provided with first connecting plates that are vertically arranged; and a first fastening structure which is used for fixedly connecting the first busbar part to the first connecting plate ; characterized in that the wiring busbar is provided with a second busbar part perpendicular to the first busbar part , so that the wiring busbars are L-shaped. a wire holder which is arranged on a circuit breaker body and is provided with a plurality of busbar slots distributed in a height direction; a plurality of wiring busbars which are correspondingly inserted into the plurality of busbar slots , and are provided with first busbar parts that are vertically arranged; a plurality of first conductive elements which are arranged on the wire holder at intervals in a width direction, and are provided with first connecting plates that are vertically arranged; and a first fastening structure which is used for fixedly connecting the first busbar part to the first connecting plate ; characterized in that the wiring busbar is provided with a second busbar part perpendicular to the first busbar part , so that the wiring busbars are L-shaped.
A chimeric antigen receptor (CAR) comprising an antigen binding domain specific for SSEA4, wherein said antigen binding domain comprises the amino acid sequence of SEQ ID NO:4.
A road vehicle for public transport, said vehicle comprising a plurality of walls which define a space for accommodating said passengers, said vehicle comprising a door system for housing objects , said door system comprising a first leaf and a second leaf each carried independently of one another by one of said walls of said vehicle , said first and said second leaves being configured to define a first position in which they cover an opening obtained in said wall and a second position in which they release said opening and wherein the first leaf is juxtaposed to said wall and the second leaf defines a support plane for the passage of said objects through said opening , characterised in that said first leaf , in said second position, is positioned frontally juxtaposed with respect to said wall on the outside of the vehicle so as to completely release said opening .
Motor vehicle underbody cladding having an air inlet , which is delimited with respect to the vehicle or to the roadway by an upper and a lower planar element (4; 3), which each extend rearwards and upwards in a curve in the direction of a vehicle compartment in which components of the vehicle that are to be cooled are located, characterized in that the rear end of the upper planar element is adjoined by a level air baffle plate , which extends a little way (h) directed substantially vertically upwards and then ends substantially freely in the vehicle compartment , in particular in the engine compartment, and in that the air inlet contains structures (8; 9) producing eddies.
A method of comparing a position of a vehicle feature calculated by a driver assistance system relative to an environmental feature located in a surrounding region of the vehicle feature with an actual position of the vehicle feature relative to the environmental feature comprising the steps: outputting the position calculated by the driver assistance system; determining the actual position; comparing the calculated position with the actual position, wherein the determination of the actual position comprises the steps: arranging a camera at the vehicle with a fixed orientation relative to the vehicle such that the vehicle feature and a surrounding region of the vehicle feature are disposed in the field of view of the camera ; generating a scale in the surrounding region of the vehicle feature for the determination of the position of the vehicle feature relative to an environmental feature located in the surrounding region; recording at least one measurement image by means of the camera during a trip of the vehicle or generating at least one measurement image from an image recorded by the camera , with the measurement image including the vehicle feature , the scale and an environmental feature located in the surrounding region of the vehicle feature ; and determining the position of the vehicle feature relative to the environmental feature using the position of the environmental feature relative to the scale in the measurement image . outputting the position calculated by the driver assistance system; determining the actual position; comparing the calculated position with the actual position, arranging a camera at the vehicle with a fixed orientation relative to the vehicle such that the vehicle feature and a surrounding region of the vehicle feature are disposed in the field of view of the camera ; generating a scale in the surrounding region of the vehicle feature for the determination of the position of the vehicle feature relative to an environmental feature located in the surrounding region; recording at least one measurement image by means of the camera during a trip of the vehicle or generating at least one measurement image from an image recorded by the camera , with the measurement image including the vehicle feature , the scale and an environmental feature located in the surrounding region of the vehicle feature ; and determining the position of the vehicle feature relative to the environmental feature using the position of the environmental feature relative to the scale in the measurement image .
A layered substrate fabricated by layering plural sheets of sheet-shaped prepregs containing a reinforcing fiber oriented in one direction and a thermoplastic matrix resin, wherein the prepreg has a slit penetrating from the front surface to the back surface, each slit is provided so as to intersect with each reinforcing fiber only one time, in a case in which a length of a line connecting a starting point with an end point of the slit is denoted as Ls, the length Ls of the line and a length Lr of the slit satisfy the relation of the following Equation 1, Ls ≤ Lr ≤ Ls × 1.5 the line and a fiber direction of the reinforcing fiber intersect at an angle of 30° or more and 90° or less, a sum of the length Lr of the slits per 1 m 2 of the prepreg is 53.3 m or longer and 200 m or shorter , wherein a volume content of the reinforcing fiber contained in the prepreg constituting the layered substrate is 20% by volume or more and 55% by volume or less with respect to the total volume of the prepreg, and wherein the layered substrate is fabricated by layering the prepregs so as to be from 8 to 96 layers.
A method of monitoring a first magnetic multi-turn sensor located in proximity to an external magnetic field, the first magnetic multi-turn sensor having an operating window between a first magnetic field strength and a second magnetic field strength, wherein the method comprises: measuring a signal of a magnetic single turn sensor located in proximity to the external magnetic field; determining a magnetic field strength of the external magnetic field from the measured signal, wherein determining the magnetic field strength comprises measuring a voltage output by the magnetic single turn sensor ; and determining whether the magnetic field strength of the external magnetic field is within the operating window of the first magnetic multi-turn sensor ; characterised in that the voltage output comprises a sine component and a cosine component, wherein determining the magnetic field strength comprises calculating a radius of the sine component and the cosine component. measuring a signal of a magnetic single turn sensor located in proximity to the external magnetic field; determining a magnetic field strength of the external magnetic field from the measured signal, wherein determining the magnetic field strength comprises measuring a voltage output by the magnetic single turn sensor ; and determining whether the magnetic field strength of the external magnetic field is within the operating window of the first magnetic multi-turn sensor ; characterised in that the voltage output comprises a sine component and a cosine component, wherein determining the magnetic field strength comprises calculating a radius of the sine component and the cosine component.
A photodetector array , comprising a plurality of pixels between a supply line and a common electrode , respective pixels (10 ij ) comprising a photon radiation sensitive element (11 ij ) arranged in a series connection with a switching element characterized in that the series connection further includes a resistor , which has a resistive value in the range of 0.05 to 0.4 times a reference resistive value, being defined as the median value of the resistive values of the switching elements of the respective pixels in the array in their conductive state.
A transport apparatus in the form of a long stator linear motor comprising at least two adjacent transport segments (TSk, TSk+1) that are mutually spaced in the longitudinal direction by a segment spacing (s), a plurality of drive coils that are mutually spaced by a tooth pitch (τ n ) being arranged, in the longitudinal direction, on each of the two transport segments (TSk, TSk+1), characterized in that the spacing (l), in the longitudinal direction, between the coil center of an end coil of a transport segment (TSk, TSk+1) and the relevant end of the transport segment (TSk, TSk+1) in the longitudinal direction, is smaller than half the tooth pitch τ ne 2 of the two adjacent end coils of the transport segments (TSk, TSk+1), wherein the tooth pitch (τ ne ) between the end coils of adjacent transport segments (TSk, TSk+1) corresponds to the tooth pitch (τ n ) of the drive coils of at least one of the transport segments (TSk, TSk+1).
A method for producing a nozzle body from a nozzle body blank produced by injection molding or by a 3D printing process, wherein the nozzle body blank is subsequently processed at least partially by laser processing to form the nozzle body , characterized in that the nozzle body has a frusto-conical section and turbulence channels , wherein the frusto-conical section and the turbulence channels are created by laser processing.
Method for operating a burner (10; 200; 300; 400), - wherein a fuel flow to be provided is determined on the basis of a first parameter and an item of information regarding a demanded heating power , - wherein a pulsing device (65; 230, 235, 245, 255, 310) of the burner (10; 200; 300; 400) conveys a predefined volume of a fuel into a burner pipe of the burner (10; 200; 300; 400) within a variation segment (T 1 , T 2 ) during a combustion process, - wherein, within the variation segment (T 1 , T 2 ), the pulsing device (65; 230, 235, 245, 255, 310) varies the fuel flow from a first, lower threshold value (S 1 ) to a second, upper threshold value (S 1 ) and from the second threshold value (S 2 ) to the first threshold value (S 1 ), - wherein a first time interval (T1) and a second time interval (T2) together form the variation segment, - wherein, after determination of the fuel flow corresponding to the demanded heating power, the two threshold values (S 1 , S 2 ) and the two time intervals (T 1 , T 2 ) are determined, on the basis of a second parameter, such that a buffer portion of the burner pipe accommodates at least the volume of the fuel conducted into the burner pipe within the variation segment (T 1 , T 2 ) and the volume of the reaction partner required for the combustion of the fuel conveyed during the variation segment (T 1 , T 2 ) . - wherein a fuel flow to be provided is determined on the basis of a first parameter and an item of information regarding a demanded heating power , - wherein a pulsing device (65; 230, 235, 245, 255, 310) of the burner (10; 200; 300; 400) conveys a predefined volume of a fuel into a burner pipe of the burner (10; 200; 300; 400) within a variation segment (T 1 , T 2 ) during a combustion process, - wherein, within the variation segment (T 1 , T 2 ), the pulsing device (65; 230, 235, 245, 255, 310) varies the fuel flow from a first, lower threshold value (S 1 ) to a second, upper threshold value (S 1 ) and from the second threshold value (S 2 ) to the first threshold value (S 1 ), - wherein a first time interval (T1) and a second time interval (T2) together form the variation segment, - wherein, after determination of the fuel flow corresponding to the demanded heating power, the two threshold values (S 1 , S 2 ) and the two time intervals (T 1 , T 2 ) are determined, on the basis of a second parameter, such that a buffer portion of the burner pipe accommodates at least the volume of the fuel conducted into the burner pipe within the variation segment (T 1 , T 2 ) and the volume of the reaction partner required for the combustion of the fuel conveyed during the variation segment (T 1 , T 2 ) .
A power connection system comprising a connector and a terminal stud , said connector comprising: a connector fastening portion comprising a threaded captive fastener ; a connector electrical conduction portion comprising a connector body configured to retain the connector fastening portion extending through the connector body and in movable communication with the connector body, characterised in that , it comprises furthermore a connector conductive surface having an annular insert disposed within an aperture defined by the connector body; and a connector keying portion comprising a keyed aperture forming an opening in and defined by the connector body and comprising a keyed connector diameter ; said terminal stud comprising: a terminal stud keying portion comprising a keyed stud diameter ; wherein the keyed connector diameter comprises the same dimension as the keyed stud diameter plus a tolerance; wherein the connector electrical conduction portion further comprises the connector conductive surface being disposed within the connector keyed aperture ; wherein the captive fastener extents through at least a portion of the connector body and is configured to be received by the terminal stud. a connector fastening portion comprising a threaded captive fastener ; a connector electrical conduction portion comprising a connector body configured to retain the connector fastening portion extending through the connector body and in movable communication with the connector body, characterised in that , it comprises furthermore a connector conductive surface having an annular insert disposed within an aperture defined by the connector body; and a connector keying portion comprising a keyed aperture forming an opening in and defined by the connector body and comprising a keyed connector diameter ; said terminal stud comprising: a terminal stud keying portion comprising a keyed stud diameter ; wherein the keyed connector diameter comprises the same dimension as the keyed stud diameter plus a tolerance; wherein the connector electrical conduction portion further comprises the connector conductive surface being disposed within the connector keyed aperture ; wherein the captive fastener extents through at least a portion of the connector body and is configured to be received by the terminal stud. a terminal stud keying portion comprising a keyed stud diameter ; wherein the keyed connector diameter comprises the same dimension as the keyed stud diameter plus a tolerance; wherein the connector electrical conduction portion further comprises the connector conductive surface being disposed within the connector keyed aperture ; wherein the captive fastener extents through at least a portion of the connector body and is configured to be received by the terminal stud.