mhurhangee/patent-ind-claim-en huggingface dataset:
An electricity management device , comprising: a charging electricity accumulator which, when charging a rechargeable battery of an electric vehicle (EV) from grid power that is supplied from an electrical grid, is configured to increase a counter value by adding an amount of electricity that is supplied from an electrical grid , and a discharging electricity accumulator which, when discharging the rechargeable battery of the electric vehicle (EV) into a house , is configured to reduce the counter value by subtracting an amount of electricity in the rechargeable battery of the electric vehicle (EV) discharged into the house , characterized in that the charging electricity accumulator is configured to retain the counter value when the rechargeable battery of the electric vehicle (EV) is charged from electricity that is generated by a electricity generation device in the house , which generation process thereof does not produce CO 2 , wherein the electricity management device further comprises a controller which is configured to perform control so that the electricity in the rechargeable battery of the electric vehicle (EV) is discharged into the house until the counter value becomes a predetermined target value, wherein the predetermined target value is set to 0, and the controller is configured to perform control so that the electricity in the rechargeable battery of the electric vehicle (EV) is discharged into the house until the counter value becomes 0. a charging electricity accumulator which, when charging a rechargeable battery of an electric vehicle (EV) from grid power that is supplied from an electrical grid, is configured to increase a counter value by adding an amount of electricity that is supplied from an electrical grid , and a discharging electricity accumulator which, when discharging the rechargeable battery of the electric vehicle (EV) into a house , is configured to reduce the counter value by subtracting an amount of electricity in the rechargeable battery of the electric vehicle (EV) discharged into the house , characterized in that the charging electricity accumulator is configured to retain the counter value when the rechargeable battery of the electric vehicle (EV) is charged from electricity that is generated by a electricity generation device in the house , which generation process thereof does not produce CO 2 , wherein the electricity management device further comprises a controller which is configured to perform control so that the electricity in the rechargeable battery of the electric vehicle (EV) is discharged into the house until the counter value becomes a predetermined target value, wherein the predetermined target value is set to 0, and the controller is configured to perform control so that the electricity in the rechargeable battery of the electric vehicle (EV) is discharged into the house until the counter value becomes 0.
Application head of a sealing profile application device, wherein the application head has a measuring device for measuring the length of sealing profiles , wherein the measuring device comprises a measuring tape rotating over at least two rollers , wherein at least one of the rollers co-operates with a measured value acquisition system as a rotary encoder , wherein a transport device with a conveyor belt circulating over rollers is arranged opposite the measuring tape , wherein the sealing profile can be moved or advanced by the conveyor belt between the circulating measuring tape and the circulating conveyor belt and the measuring tape can be moved by the movement of the sealing profile, wherein a measuring tape contact region (KM) of the sealing profile with the measuring tape extends longer by a projection region (Ü) than a transport contact region (KT) of the sealing profile with the conveyor belt and at least one pressure roller is arranged opposite the projection region (Ü) of the measuring tape on the side of the conveyor belt or other guiding and pressure elements are arranged.
Printing method for a digital printing device for the production of ink drops of different drop sizes, comprising a print head having a plurality of printing systems and comprising at least one control apparatus for feeding control signals to the printing systems for the production of the ink drops, wherein each printing system has a nozzle, at least one ink chamber and an activator, e.g. a piezoelectric activator, which is associated with the at least one ink chamber, for the discharge of ink drops from the ink chamber in question via the nozzle in question onto a substrate to be printed on, as a response to a control signal, wherein, in the context of the control apparatus, only a single waveform for the control signal having a specified time curve is stored for ink drops of all sizes, comprising at least one printing pulse with, optionally, an initial waiting time , a first edge , followed by a first holding time , and, after the first holding time , a second, opposite edge , optionally followed by a second holding time , characterized in that the size and, optionally, the speed of ink drops is varied by virtue of the fact that, at most for a single, intrinsic drop size, the entire stored waveform is transferred as a control signal to the activator in question, while for all other, effective drop sizes, only a portion of the common, stored waveform is transferred to the activator in question, namely one or more selected portions of the initial watinig time , the first edge , the first holding time , the second, opposite edge , and the second holding time , while, in the control signal , one or more other portions of the stored, common waveform are held off from the activator in question.
A method for manufacturing an ultra high strength member (TW) having a chemical composition consisting of C: 0.1 mass % to 0.5 mass % (inclusive of 0.1 mass % and 0.5 mass %), and optionally further at least one element selected from: Si: 3.0 mass % or less; Mn: 0.5 mass % to 3.0 mass % (inclusive of 0.5 mass % and 3.0 mass %); P: 0.1 mass % or less; S: 0.01 mass % or less; Al: 0.01 mass % to 0.1 mass % (inclusive of 0.01 mass % and 0.1 mass %); N: 0.02 mass % or less; Ti: 0.1 mass % or less; Nb: 0.1 mass % or less; V: 0.5 mass % or less; Mo: 0.5 mass % or less; Cr: 1 mass % or less; B: 0.005 mass % or less; Cu: 0.5 mass % or less; Ni: 0.5 mass % or less; and the balance as incidental impurities and Fe; the method comprising: heating a steel sheet at first heating temperature within a temperature range of 700 to 1000°C, characterized in that the method further comprises: forming the steel sheet into a shape of a member at the first heating temperature and simultaneously cooling the steel sheet to a finish cooling temperature of 150°C or less; and, after completion of the cooling, shear punching the steel sheet into a desired shape to obtain an ultra high strength member (TW), after the shear punching, subjecting the ultra high strength member (TW) to first heat treatment including heating the ultra high strength member (TW) at second heating temperature within a temperature range of 100°C or higher but lower than 300°C and retaining the member (TW) at the second heating temperature for 1 second to 60 minutes, wherein the resulting ultra high strength member (TW) has a tensile strength of 1180 MPa or more. Si: 3.0 mass % or less; Mn: 0.5 mass % to 3.0 mass % (inclusive of 0.5 mass % and 3.0 mass %); P: 0.1 mass % or less; S: 0.01 mass % or less; Al: 0.01 mass % to 0.1 mass % (inclusive of 0.01 mass % and 0.1 mass %); N: 0.02 mass % or less; Ti: 0.1 mass % or less; Nb: 0.1 mass % or less; V: 0.5 mass % or less; Mo: 0.5 mass % or less; Cr: 1 mass % or less; B: 0.005 mass % or less; Cu: 0.5 mass % or less; Ni: 0.5 mass % or less; and the balance as incidental impurities and Fe; forming the steel sheet into a shape of a member at the first heating temperature and simultaneously cooling the steel sheet to a finish cooling temperature of 150°C or less; and, after completion of the cooling, shear punching the steel sheet into a desired shape to obtain an ultra high strength member (TW), after the shear punching, subjecting the ultra high strength member (TW) to first heat treatment including heating the ultra high strength member (TW) at second heating temperature within a temperature range of 100°C or higher but lower than 300°C and retaining the member (TW) at the second heating temperature for 1 second to 60 minutes, wherein the resulting ultra high strength member (TW) has a tensile strength of 1180 MPa or more.
A head for an oral care implement , the head having a mounting surface comprising at least one tuft of a first type and at least one tuft of a second type , the at least one tuft of the first type and the at least one tuft of the second type each having a cross-sectional area extending in a plane substantially perpendicular to a longitudinal axis, characterised in that the cross-sectional area of the tuft of the first type being smaller than the cross-sectional area of the tuft of the second type , whereby the at least one tuft of the first type comprises filaments having a substantially circular cross-sectional area extending in a plane perpendicular to the longitudinal axis and having an end-rounded free end, and the at least one tuft of the second type comprises flagged filaments having split free ends.
A method of measuring a defect of a magnetic member (P) so as to inspect the defect, comprising the steps of: measuring an output from a magnetic sensor with use of an inspection probe including a magnet and the magnetic sensor which is provided on a magnetic circuit formed by the magnet and the magnetic member and which detects a density of a magnetic flux flowing through the magnetic circuit; and based on the output from the magnetic sensor, (i) determining whether or not the magnetic member has a defect and (ii) calculating a depth of the defect in directions in which the magnetic member and the magnet face each other, the magnetic member having a relative permeability (μ) corresponding to a magnetic flux density (B) flowing through the magnetic circuit based on a magnetic field ( H) generated by the magnet, the method being characterised in that the magnet generates the magnetic field such that the relative permeability of the magnetic member (P) monotonically decreases as the magnetic flux density increases. measuring an output from a magnetic sensor with use of an inspection probe including a magnet and the magnetic sensor which is provided on a magnetic circuit formed by the magnet and the magnetic member and which detects a density of a magnetic flux flowing through the magnetic circuit; and based on the output from the magnetic sensor, (i) determining whether or not the magnetic member has a defect and (ii) calculating a depth of the defect in directions in which the magnetic member and the magnet face each other, the magnetic member having a relative permeability (μ) corresponding to a magnetic flux density (B) flowing through the magnetic circuit based on a magnetic field ( H) generated by the magnet, the method being characterised in that the magnet generates the magnetic field such that the relative permeability of the magnetic member (P) monotonically decreases as the magnetic flux density increases.
An embedded system on board an aircraft for detection and response to incidents with log recording, the aircraft comprising at least one calculator comprising a plurality of applications using and generating data , the system being characterized in that : each application being configured to detect events based on data used and generated by this application and predefined information specifying these events , the system comprising, for the or each calculator , an agent (A, B, C, F) and a collector , the agent (A, B, C, F) being an application component dedicated to an identified application of the calculator and being configured to apply an incident detection logic to the events detected by the identified application in order to detect, among these events, at least one incident and to send to the collector through detection messages each detected incident according to a configurable transmission logic , and the collector being configured to receive the detection messages coming from the agent (A, B, C, F) for each detected incident and to apply, to the detection messages , a configurable recording logic of the detection messages in one or several log(s) , for each detected incident , the recording logic defines at least one threshold of the number of occurrences of detection messages of this incident and/or at least one reception frequency threshold of the detection messages of this incident . each application being configured to detect events based on data used and generated by this application and predefined information specifying these events , the system comprising, for the or each calculator , an agent (A, B, C, F) and a collector , the agent (A, B, C, F) being an application component dedicated to an identified application of the calculator and being configured to apply an incident detection logic to the events detected by the identified application in order to detect, among these events, at least one incident and to send to the collector through detection messages each detected incident according to a configurable transmission logic , and the collector being configured to receive the detection messages coming from the agent (A, B, C, F) for each detected incident and to apply, to the detection messages , a configurable recording logic of the detection messages in one or several log(s) , for each detected incident , the recording logic defines at least one threshold of the number of occurrences of detection messages of this incident and/or at least one reception frequency threshold of the detection messages of this incident .
A cutter for an assay cartridge comprising a base member defining two or more wells and a cap member arranged to carry a pipette positionable in at least two of said wells, characterised in that the cutter comprises: two shearing blades for shearing a foil seal covering one of the wells , the two shearing blades being linear and parallel to each other, and a third blade extending between the two shearing blades, spaced away from the ends of the shearing blades. two shearing blades for shearing a foil seal covering one of the wells , the two shearing blades being linear and parallel to each other, and a third blade extending between the two shearing blades, spaced away from the ends of the shearing blades.
Sprayer fitting having a fitting body , an inflow-regulating device , an extendable hand sprayer and a flexible hose line leading from the inflow-regulating device through the fitting body to the hand sprayer , the hand sprayer having a mechanical switch , preferably a pushbutton switch, for switching over between at least two different types of jet, which switch is arranged on the side of the handgrip facing towards the fitting body when the sprayer fitting is in the mounted position, characterised in that the hand sprayer is in the form of a downward-facing handgrip having an integrally formed connector for a hose end of the flexible hose line , wherein the handgrip and the connector enclose approximately a right-angle and wherein the handgrip has a grip end which is open towards the bottom, which grip end forms the water outlet of the hand sprayer.
A computer-readable medium having instructions executable by a processor that, upon execution, cause a computer to: convert processed data, corresponding to non-invasively recorded electrical data obtained from a patient for at least one time interval, to corresponding reconstructed electrical signals on a predetermined cardiac envelope; compute phase data based on the reconstructed electrical signals; and generate an output comprising a map of an integral of phase gradient computed over the cardiac envelope based on the computed phase data. convert processed data, corresponding to non-invasively recorded electrical data obtained from a patient for at least one time interval, to corresponding reconstructed electrical signals on a predetermined cardiac envelope; compute phase data based on the reconstructed electrical signals; and generate an output comprising a map of an integral of phase gradient computed over the cardiac envelope based on the computed phase data.
An enamel paste comprising: 30 to 40% by weight of a bismuth silicate glass frit; 20 to 30% by weight of a zinc silicate glass frit; 15 to 25% by weight of a pigment; and 10 to 20% by weight of an organic carrier medium, wherein the bismuth silicate glass frit comprises at least silicon, bismuth, boron, and lithium, and is free of lead and cadmium, and wherein the bismuth silicate glass frit has the following composition: Component Mol% SiO 2 45 - 55 Bi 2 O 3 15 - 25 B 2 O 3 10 - 20 Li 2 O 2 - 10 Al 2 O 3 0 - 5 ZrO 2 0 - 5 K 2 O 0 - 1 MgO 0 - 1 CaO 0 - 1; wherein the zinc silicate glass frit comprises at least silicon, zinc, sulphur, and lithium, and is free of lead, cadmium, and bismuth, and wherein the zinc silicate glass frit has the following composition: Component Mol% SiO 2 45 - 55 ZnO 20 - 30 Li 2 O 1 - 10 S 1 - 10 B 2 O 3 0 - 10 Na 2 O 0 - 10 F 0 - 10 MnO 0 - 10 CaO 0 - 1 Fe 2 O 3 0 - 1 MgO 0 - 1; wherein the glass frits and the pigment in the enamel paste each have a D90 particle size distribution of less than 15 micrometres, and wherein the enamel paste has a viscosity between 5 and 150 Pa.s -1 at a shear rate of 100 s -1 . 30 to 40% by weight of a bismuth silicate glass frit; 20 to 30% by weight of a zinc silicate glass frit; 15 to 25% by weight of a pigment; and 10 to 20% by weight of an organic carrier medium, wherein the bismuth silicate glass frit comprises at least silicon, bismuth, boron, and lithium, and is free of lead and cadmium, and wherein the bismuth silicate glass frit has the following composition: Component Mol% SiO 2 45 - 55 Bi 2 O 3 15 - 25 B 2 O 3 10 - 20 Li 2 O 2 - 10 Al 2 O 3 0 - 5 ZrO 2 0 - 5 K 2 O 0 - 1 MgO 0 - 1 CaO 0 - 1; wherein the zinc silicate glass frit comprises at least silicon, zinc, sulphur, and lithium, and is free of lead, cadmium, and bismuth, and wherein the zinc silicate glass frit has the following composition: Component Mol% SiO 2 45 - 55 ZnO 20 - 30 Li 2 O 1 - 10 S 1 - 10 B 2 O 3 0 - 10 Na 2 O 0 - 10 F 0 - 10 MnO 0 - 10 CaO 0 - 1 Fe 2 O 3 0 - 1 MgO 0 - 1; wherein the glass frits and the pigment in the enamel paste each have a D90 particle size distribution of less than 15 micrometres, and wherein the enamel paste has a viscosity between 5 and 150 Pa.s -1 at a shear rate of 100 s -1 .
A compound of the formula: 3-(3,7,12,17-tetramethyl-18-{3-oxo-3-[(3-phenylpropyl)amino]propyl)-8,13-divinylporphyrin-2-yl}propanoic acid (S isoform): and/or 3-(2,8,13,18-tetramethyl-3-(3-oxo-3-((3-phenylpropyl)amino)propyl) -12,17-divinylporphyrin-7-yl)propanoic acid (L isoform): 3-(3,7,12,17-tetramethyl-18-{3-oxo-3-[(3-phenylpropyl)amino]propyl)-8,13-divinylporphyrin-2-yl}propanoic acid (S isoform): and/or 3-(2,8,13,18-tetramethyl-3-(3-oxo-3-((3-phenylpropyl)amino)propyl) -12,17-divinylporphyrin-7-yl)propanoic acid (L isoform):
A memory , comprising: an array having one or more rows of memory cells configured to store a data word, wherein the one or more rows (110-0 - 110-N) each include valid-gated read circuitry configured to store data that indicates whether the data word stored in the corresponding row has a valid state and conditionally gate a read wordline path in the corresponding row according to at least the stored data; one or more output latches configured to output data read from the array; characterised in that the memory further comprises: valid-gated output latch clocking coupled to the one or more output latches and to the valid-gated read circuitry in each row, wherein the valid-gated output latch clocking includes circuitry configured to conditionally gate a read clock configured to open the one or more output latches according to at least the stored data that indicates whether the data word stored in an indexed row in the array has a valid state. an array having one or more rows of memory cells configured to store a data word, wherein the one or more rows (110-0 - 110-N) each include valid-gated read circuitry configured to store data that indicates whether the data word stored in the corresponding row has a valid state and conditionally gate a read wordline path in the corresponding row according to at least the stored data; one or more output latches configured to output data read from the array; characterised in that the memory further comprises: valid-gated output latch clocking coupled to the one or more output latches and to the valid-gated read circuitry in each row, wherein the valid-gated output latch clocking includes circuitry configured to conditionally gate a read clock configured to open the one or more output latches according to at least the stored data that indicates whether the data word stored in an indexed row in the array has a valid state.
A method for monitoring a flame during gas combustion in a combustion chamber of a heating unit operated with gaseous fuel having an evaluation unit, an extraction line through which waste gas flows during combustion, and a sensor arranged in the extraction line for detecting thermal substance properties of a gas flowing through the extraction line , wherein the gas flowing through the extraction line is ambient air (B) from an environment adjoining the heating unit , a non-combusted fuel-air mixture (C), or a waste gas (A) generated during combustion, and wherein the sensor transmits a recorded measured value to the evaluation unit and the evaluation unit uses the measured value to determine whether ambient air (B), the non-combusted fuel-air mixture (C), or waste gas (A) is flowing through the extraction line and thereby determines whether the flame is burning or extinguished. wherein the gas flowing through the extraction line is ambient air (B) from an environment adjoining the heating unit , a non-combusted fuel-air mixture (C), or a waste gas (A) generated during combustion, and wherein the sensor transmits a recorded measured value to the evaluation unit and the evaluation unit uses the measured value to determine whether ambient air (B), the non-combusted fuel-air mixture (C), or waste gas (A) is flowing through the extraction line and thereby determines whether the flame is burning or extinguished.
An exhaust gas treatment arrangement for an exhaust gas system of an internal combustion engine, comprising a housing which is elongated in the direction of a housing longitudinal axis (L), and at least one exhaust gas treatment unit which is arranged in the housing and has a shell , wherein at least one bearing/sealing unit with at least two bearing/sealing rings which follow one another radially, are nested inside one another and are interrupted in each case in a circumferential interruption region is arranged in a radial intermediate space which is formed between the shell and the housing , wherein a circumferential interruption region of at least one of the bearing/sealing rings is offset in the circumferential direction with regard to a circumferential interruption region of another one of the bearing/sealing rings , characterized in that at least two bearing/sealing rings of the at least one bearing/sealing unit are configured as metal bead gaskets configured as formed metal parts.