mhurhangee/patent-ind-claim-en huggingface dataset:
Method for establishing a wireless connection between a mobile communication device on the one hand and a communication module , which is part of a control unit for an electronic braking system of a vehicle with an identifier , on the other hand, having the following features: a) access rights, i.e. links between vehicle identifiers on the one hand and user identifiers on the other hand, and also data required for establishing the wireless connection are stored on a (data) server outside the mobile communication device , b) the identifier of the vehicle is recorded (I.) with the mobile communication device , c) the user identifier is present in the mobile communication device , d) the mobile communication device transmits (II.) the recorded vehicle identifier and the user identifier to the server , e) the server checks whether access rights exist for the forwarded combination of identifiers, f) if access rights exist, the server transmits (III.) the data required for establishing the wireless connection to the mobile communication device , g) the mobile communication device establishes (IV.) the wireless connection to the communication module . a) access rights, i.e. links between vehicle identifiers on the one hand and user identifiers on the other hand, and also data required for establishing the wireless connection are stored on a (data) server outside the mobile communication device , b) the identifier of the vehicle is recorded (I.) with the mobile communication device , c) the user identifier is present in the mobile communication device , d) the mobile communication device transmits (II.) the recorded vehicle identifier and the user identifier to the server , e) the server checks whether access rights exist for the forwarded combination of identifiers, f) if access rights exist, the server transmits (III.) the data required for establishing the wireless connection to the mobile communication device , g) the mobile communication device establishes (IV.) the wireless connection to the communication module .
Guiding element , comprising a body with a bore for mounting a movable element , the body being made of a ferrous metal material, the ferrous metal material of the body having a yield strength Re ranging from 200 to 600 MPa, and the bore having a surface layer treated to prevent seizing on a diffusion depth (P16) less than or equal to 0.6 mm, the surface layer having a hardness greater than or equal to 500 Hv1 to a depth (P18) ranging from 5 to 50 μm and comprising a combination layer, also referred to as a white layer, to a depth ranging from 5 to 50 μm, and a diffusion layer to a depth less than or equal to 0.6 mm, characterized in that the surface layer includes an intermediate layer corresponding to a γN phase of nitrogen-enriched austenite, having a hardness greater than or equal to 500 Hv1 and located between the combination layer and the diffusion layer.
Vehicle drive assistance system comprising at least one pump-forming hydraulic machine , at least one motor-forming hydraulic machine and an open hydraulic circuit passing through a tank and comprising a suction duct extending from the tank to an inlet of the pump , a supply duct extending from the outlet of the pump to the inlet of the motor-forming hydraulic machine and a return duct extending from the outlet of the motor-forming hydraulic machine to the tank , characterised by the fact that the motor is a disengageable motor and by the fact that the system comprises a restriction-forming element that creates a pressure drop on the return duct and a distributor suitable for selectively connecting, to the motor casing , the part of the return duct situated upstream or respectively downstream from the restriction-forming element .
A cathode material for a lithium ion secondary battery comprising: agglomerated particles formed by agglomeration of a plurality of primary particles of a cathode active material represented by General Formula which are coated with a carbonaceous film, wherein an amount of carbon per a crystallite diameter of the cathode active material is 0.008% by mass/nm or more and 0.050% by mass/nm or less, and a peak intensity ratio (I D /I G ) between a D band and a G band in a Raman spectrum obtained by Raman spectrometry is 0.85 or more and 1.15 or less; wherein a particle diameter (D10) at a cumulative percentage of 10% in a cumulative particle size distribution of the cathode material is 1 μm or more and 5 μm or less, and a particle diameter (D90) at a cumulative percentage of 90% is 15 μm or less. Li x A y D z PO 4 wherein A represents at least one element selected from the group consisting of Co, Mn, Ni, Fe, Cu, and Cr, D represents at least one element selected from the group consisting of Mg, Ca, Sr, Ba, Ti, Zn, B, Al, Ga, In, Si, Ge, Sc, and Y, 0.9<x<1.1, 0<y≤1, 0≤z<1, and 0.9<y+z<1.1. agglomerated particles formed by agglomeration of a plurality of primary particles of a cathode active material represented by General Formula which are coated with a carbonaceous film, wherein an amount of carbon per a crystallite diameter of the cathode active material is 0.008% by mass/nm or more and 0.050% by mass/nm or less, and a peak intensity ratio (I D /I G ) between a D band and a G band in a Raman spectrum obtained by Raman spectrometry is 0.85 or more and 1.15 or less; wherein a particle diameter (D10) at a cumulative percentage of 10% in a cumulative particle size distribution of the cathode material is 1 μm or more and 5 μm or less, and a particle diameter (D90) at a cumulative percentage of 90% is 15 μm or less. Li x A y D z PO 4 wherein A represents at least one element selected from the group consisting of Co, Mn, Ni, Fe, Cu, and Cr, D represents at least one element selected from the group consisting of Mg, Ca, Sr, Ba, Ti, Zn, B, Al, Ga, In, Si, Ge, Sc, and Y, 0.9<x<1.1, 0<y≤1, 0≤z<1, and 0.9<y+z<1.1.
A semiconductor laser pump unit comprising: a diode laser tile comprising: a mounting fixture having a first side, a second side opposing the first side, and a plurality of third sides extending between the first side and the second side; and an array of semiconductor laser pumps coupled to the first side of the mounting fixture; an electrical pulse generator mounted to the second side of the mounting fixture and thermally coupled to the array of semiconductor laser pumps of the diode laser tile; and a cooling structure having a base and a set of opposing sides extending from the base to form an opening between the set of opposing sides, the plurality of third sides of the mounting fixture positioned in the opening, wherein: the electrical pulse generator is attached to the cooling structure ; and the cooling structure is thermally coupled to the diode laser tile along the opposing sides of the cooling structure via the mounting fixture and to the electrical pulse generator . a mounting fixture having a first side, a second side opposing the first side, and a plurality of third sides extending between the first side and the second side; and an array of semiconductor laser pumps coupled to the first side of the mounting fixture; an electrical pulse generator mounted to the second side of the mounting fixture and thermally coupled to the array of semiconductor laser pumps of the diode laser tile; and a cooling structure having a base and a set of opposing sides extending from the base to form an opening between the set of opposing sides, the plurality of third sides of the mounting fixture positioned in the opening, wherein: the electrical pulse generator is attached to the cooling structure ; and the cooling structure is thermally coupled to the diode laser tile along the opposing sides of the cooling structure via the mounting fixture and to the electrical pulse generator . the electrical pulse generator is attached to the cooling structure ; and the cooling structure is thermally coupled to the diode laser tile along the opposing sides of the cooling structure via the mounting fixture and to the electrical pulse generator .
System for measuring the position of a mechanical member, such system comprising: - optical detection means , which are intended to be arranged on a first mechanical member of a mechanical device ; - a positioning track , which is intended to be arranged on a second mechanical member of said mechanical device susceptible of relative motion with respect to said first mechanical member ; said positioning track being provided with at least one succession of multiple sectors , arranged one after the other along a measurement direction (W), and each of such sectors is extended, along said measurement direction (W), for a specific sectional length (LS); said optical detection means being arranged for delimiting, on said positioning track , a measurement window which is intended to be traversed by said sectors and is extended, along said measurement direction (W), for a detection length (LR) greater than or equal to said sectional length (LS) of each said sector ; said system being characterized in that each said sector comprises: - a first delimitation section and a second delimitation section spaced from each other along said measurement direction (W); - a first identification section and a second identification section , which are provided with a different optical contrast with respect to said first delimitation section and said second delimitation section , and are extended, along said measurement direction (W), respectively for a first identification length (LI1) and for a second identification length (LI2); wherein, in each said sector , said first identification section is delimited, according to said first identification length (LI1), between said first delimitation section and said second delimitation section , and said second identification section is separated from said first identification section by said second delimitation section ; wherein the first identification length (LI1) of the first identification section of each said sector is different from the first identification length (LI1) of the first identification section of each other said sector of said succession ; wherein the second identification length (LI2) of the second identification section of each said sector is different from the second identification length (LI2) of the second identification section of each other said sector of said succession . - optical detection means , which are intended to be arranged on a first mechanical member of a mechanical device ; - a positioning track , which is intended to be arranged on a second mechanical member of said mechanical device susceptible of relative motion with respect to said first mechanical member ; - a first delimitation section and a second delimitation section spaced from each other along said measurement direction (W); - a first identification section and a second identification section , which are provided with a different optical contrast with respect to said first delimitation section and said second delimitation section , and are extended, along said measurement direction (W), respectively for a first identification length (LI1) and for a second identification length (LI2);
A method for controlling a compressor inlet-adjustment mechanism disposed in an air inlet of a centrifugal compressor of a turbocharger for boosting intake pressure of an internal combustion engine, the inlet-adjustment mechanism being actuatable to switch between a closed position that reduces a flow area of the air inlet and an open position that increases the flow area of the air inlet, the method comprising: identifying a threshold line (TL) on a compressor map of pressure ratio PR versus corrected flow rate W c for the compressor, the threshold line being a line at which the inlet-adjustment mechanism is to be moved from the open position to the closed position when an operating point of the compressor on the compressor map reaches the threshold line under a condition of quasi-static movement of the operating point, starting from a high-flow side of the threshold line; tracking, by detecting at periodic time intervals, movement of an operating point of the compressor on the compressor map; determining, at each said time interval, whether the operating point is on the high-flow side of the threshold line or is on a low-flow side of the threshold line; determining, at each said time interval, whether the operating point is moving toward the threshold line; and when the operating point is determined to be on the high-flow side of the threshold line and to be moving toward the threshold line, initiating actuation of the inlet-adjustment mechanism to switch from the open position to the closed position, wherein said initiating is begun before the operating point reaches the threshold line. identifying a threshold line (TL) on a compressor map of pressure ratio PR versus corrected flow rate W c for the compressor, the threshold line being a line at which the inlet-adjustment mechanism is to be moved from the open position to the closed position when an operating point of the compressor on the compressor map reaches the threshold line under a condition of quasi-static movement of the operating point, starting from a high-flow side of the threshold line; tracking, by detecting at periodic time intervals, movement of an operating point of the compressor on the compressor map; determining, at each said time interval, whether the operating point is on the high-flow side of the threshold line or is on a low-flow side of the threshold line; determining, at each said time interval, whether the operating point is moving toward the threshold line; and when the operating point is determined to be on the high-flow side of the threshold line and to be moving toward the threshold line, initiating actuation of the inlet-adjustment mechanism to switch from the open position to the closed position, wherein said initiating is begun before the operating point reaches the threshold line.
Monitoring unit (10A; 10B) for monitoring an elevator system , which system comprises a drive unit by means of which an elevator cab arranged in an elevator shaft can be moved, comprising a circuit assembly which has a power supply unit that is provided for delivering a grid-dependent first operating voltage and at least one processor-controlled first monitoring module that is used to actively and/or passively determine state data of the elevator system , an energy storage unit , which is used to deliver a grid-independent second operating voltage, and a first switching device being provided, by means of which the first operating voltage can be supplied to the at least one first monitoring module during normal operation and the second operating voltage can be supplied to the at least one first monitoring module in the event of a power outage, characterized in that a non-volatile data storage unit , which is used to store a variable operating parameter, and a second switching device are provided, by means of which parts of the circuit assembly can be deactivated, and in that the at least one first monitoring module is designed to actuate the second switching device on the basis of the stored operating parameter, which has a first value before the monitoring unit (10A; 10B) is started up and which has a second value after the monitoring unit (10A; 10B) has been started up.
An integrated circuit comprising: a first power rail ; a second power rail ; a load power rail ; multiple power-multiplexer tiles coupled in series in a chained arrangement and configured to jointly perform a power-multiplexing operation, each power-multiplexer tile configured to switch between coupling the load power rail to the first power rail and coupling the load power rail to the second power rail; and adjustment circuitry configured to adjust at least one order in which the multiple power-multiplexer tiles perform at least a portion of the power-multiplexing operation; wherein the multiple power-multiplexer tiles are further configured to switch between coupling the load power rail to the first power rail and coupling the load power rail to the second power rail in at least one sequential order to avoid creation of a short-circuit current condition between the first power rail and the second power rail in one mode; and the adjustment circuitry is further configured to enable adjustment of a duration for which the load power rail is coupled to both the first power rail and the second power rail in another mode by enabling one or more power-multiplexer tiles of the multiple power-multiplexer tiles to selectively couple the load power rail to the second power rail out of the at least one sequential order. a first power rail ; a second power rail ; a load power rail ; multiple power-multiplexer tiles coupled in series in a chained arrangement and configured to jointly perform a power-multiplexing operation, each power-multiplexer tile configured to switch between coupling the load power rail to the first power rail and coupling the load power rail to the second power rail; and adjustment circuitry configured to adjust at least one order in which the multiple power-multiplexer tiles perform at least a portion of the power-multiplexing operation; wherein the multiple power-multiplexer tiles are further configured to switch between coupling the load power rail to the first power rail and coupling the load power rail to the second power rail in at least one sequential order to avoid creation of a short-circuit current condition between the first power rail and the second power rail in one mode; and the adjustment circuitry is further configured to enable adjustment of a duration for which the load power rail is coupled to both the first power rail and the second power rail in another mode by enabling one or more power-multiplexer tiles of the multiple power-multiplexer tiles to selectively couple the load power rail to the second power rail out of the at least one sequential order.
A method of processing a call in a communications network , the method comprising the steps of: determining (S420) the duration of a call for each of a plurality of calls from a first network identity; generating (S430) a distribution of call durations; classifying (S450) the plurality of calls from the first network identity in accordance with the distribution of call durations, wherein a call is classified as an unwanted automated call if the distribution of call duration values comprises two or more peaks; routing (S460) further calls from the first network identity in accordance with the classification of the plurality of calls. determining (S420) the duration of a call for each of a plurality of calls from a first network identity; generating (S430) a distribution of call durations; classifying (S450) the plurality of calls from the first network identity in accordance with the distribution of call durations, wherein a call is classified as an unwanted automated call if the distribution of call duration values comprises two or more peaks; routing (S460) further calls from the first network identity in accordance with the classification of the plurality of calls.
A spectacle lens comprising: (i) a lens substrate of a polyurethane-based material; and (ii) a hard coat layer which has an average film thickness of 10-50 μm measured according to the description, and is obtainable by curing a curable composition containing - inorganic oxide particles (A), and - a matrix component of a silane coupling agent (B) selected from compounds of the formula (R 1 ) (R 3 ) Si (OR 2 ) 2 or (R 1 ) Si (OR 2 ) 3 , wherein R 1 is an organic group having an epoxy group, R 2 is linear or branched C 1-4 -alkyl, and R 3 is alkyl or aryl; and a polyfunctional epoxy compound (C) which is a trifunctional epoxy compound, optionally in combination with a bi- or tetrafunctional epoxy compound; wherein the epoxy compound (C) is contained in the matrix component in an amount of 45-60 mass-%, and in an amount of 23-30 mass-% based on the solid of the curable composition, and the mass ratio of [(A)/[(B)+(C)] is ≥ 0.7. (i) a lens substrate of a polyurethane-based material; and (ii) a hard coat layer which has an average film thickness of 10-50 μm measured according to the description, and is obtainable by curing a curable composition containing - inorganic oxide particles (A), and - a matrix component of a silane coupling agent (B) selected from compounds of the formula (R 1 ) (R 3 ) Si (OR 2 ) 2 or (R 1 ) Si (OR 2 ) 3 , wherein R 1 is an organic group having an epoxy group, R 2 is linear or branched C 1-4 -alkyl, and R 3 is alkyl or aryl; and a polyfunctional epoxy compound (C) which is a trifunctional epoxy compound, optionally in combination with a bi- or tetrafunctional epoxy compound; wherein the epoxy compound (C) is contained in the matrix component in an amount of 45-60 mass-%, and in an amount of 23-30 mass-% based on the solid of the curable composition, and the mass ratio of [(A)/[(B)+(C)] is ≥ 0.7. - inorganic oxide particles (A), and - a matrix component of a silane coupling agent (B) selected from compounds of the formula (R 1 ) (R 3 ) Si (OR 2 ) 2 or (R 1 ) Si (OR 2 ) 3 , wherein R 1 is an organic group having an epoxy group, R 2 is linear or branched C 1-4 -alkyl, and R 3 is alkyl or aryl; and a polyfunctional epoxy compound (C) which is a trifunctional epoxy compound, optionally in combination with a bi- or tetrafunctional epoxy compound;
Device for the gravimetric detection of particles in a fluid medium, said device being provided with a fluid inlet (E) and a fluid outlet (S) and comprising: - a channel for the passage of the fluid; - an electromechanical oscillator comprising a bottom and sides , said sides defining a cavity provided in said electromechanical oscillator; - means for supporting the electromechanical oscillator; and - means for actuating said electromechanical oscillator, said means being arranged to ensure that the oscillator vibrates, characterised in that : - the channel for the passage of the fluid is arranged to be in fluid communication with the through-cavity , so that the fluid can enter the device through the fluid inlet (E), pass through the through-cavity and exit the device through the fluid outlet (S); - the electromechanical oscillator is square and flat, i.e. formed of a plate with a given width and thickness, said width being at least twice as big as said thickness, - the support means are arranged at the four summits of the electromechanical oscillator, and - the actuating means are in the form of electrodes arranged in the same plane as the electromechanical oscillator, i.e. each electrode faces a side of the electromechanical oscillator at a given distance (g), parallel to its bottom and with substantially the same thickness, so that said means ensure that the electromechanical oscillator vibrates in its plane. - a channel for the passage of the fluid; - an electromechanical oscillator comprising a bottom and sides , said sides defining a cavity provided in said electromechanical oscillator; - means for supporting the electromechanical oscillator; and - means for actuating said electromechanical oscillator, said means being arranged to ensure that the oscillator vibrates, - the channel for the passage of the fluid is arranged to be in fluid communication with the through-cavity , so that the fluid can enter the device through the fluid inlet (E), pass through the through-cavity and exit the device through the fluid outlet (S); - the electromechanical oscillator is square and flat, i.e. formed of a plate with a given width and thickness, said width being at least twice as big as said thickness, - the support means are arranged at the four summits of the electromechanical oscillator, and - the actuating means are in the form of electrodes arranged in the same plane as the electromechanical oscillator, i.e. each electrode faces a side of the electromechanical oscillator at a given distance (g), parallel to its bottom and with substantially the same thickness, so that said means ensure that the electromechanical oscillator vibrates in its plane.