mhurhangee/ep-ind-claims huggingface dataset:
Temperature-control station for the partial heat treatment of a metal component, comprising a processing plane which is arranged in the temperature-control station and in which the component can be arranged, at least one nozzle which is oriented toward the processing plane and is provided and designed to discharge a fluid flow in order to cool at least one first portion of the component, at least one heat source which is provided and designed to supply heat energy to at least one second portion of the component, and at least one nozzle box which is arranged above the processing plane, wherein the at least one nozzle box forms at least one nozzle region, wherein the at least one nozzle protrudes into the nozzle region at least in part or is even arranged entirely in the nozzle region, wherein the at least one nozzle box forms at least one heating region, which is separate from the at least one nozzle region and in which the heat source can be arranged at least in part and/or which limits the spread of heat energy at least in part, and wherein the at least one heat source is preferably at least one radiation heat source.
Electrically conductive system comprising a substrate and an electrically conductive track adhered to the substrate wherein • the substrate is obtained by melt processing of a composition comprising a semi-aromatic polyamide, • the substrate comprises at least 30 wt.% of the semi-aromatic polyamide, • the semi-aromatic polyamide comprises repeat units derived from diamines and repeat units derived from dicarboxylic acids, • at least 10 mole% relative to the total molar amount of diamines and dicarboxylic acids consists of aromatic diamines or aromatic dicarboxylic acids, • and the electrically conductive track is obtained by jet printing. • the substrate is obtained by melt processing of a composition comprising a semi-aromatic polyamide, • the substrate comprises at least 30 wt.% of the semi-aromatic polyamide, • the semi-aromatic polyamide comprises repeat units derived from diamines and repeat units derived from dicarboxylic acids, • at least 10 mole% relative to the total molar amount of diamines and dicarboxylic acids consists of aromatic diamines or aromatic dicarboxylic acids, • and the electrically conductive track is obtained by jet printing.
Method for the production of drinking water with high silicate content, comprising the steps: mixing of demineralized raw water and a waterglass solution, comprising sodium and/or potassium silicate, subjecting at least one part of the mixture to an ion exchange process to reduce the concentration of sodium and/or potassium. mixing of demineralized raw water and a waterglass solution, comprising sodium and/or potassium silicate, subjecting at least one part of the mixture to an ion exchange process to reduce the concentration of sodium and/or potassium.
A secondary battery (100, 100A, 100B) comprising a current cut-off mechanism provided in a current path between an external terminal (20A, 20B) and an electrode (41, 42) inside a battery container, wherein the current cut-off mechanism is accommodated in the battery container, and includes a diaphragm connected to the external terminal (20A, 20B) and a current collector (30A, 30B) connected to the electrode (41, 42), characterized in that the current collector (30A, 30B) includes a concave portion on a surface opposing the diaphragm having a planar shape which is formed in an elliptical shape, an oblong shape or a shape with a straight portion and curved portions at both ends of the straight portion having the width direction of the battery container as a long-side direction thereof, the planar shape of the current collector (30A, 30B) corresponding to the planar shape of the diaphragm when seen in a plan view, the diaphragm includes a circumferential portion, a side wall portion, a bottom wall portion, and a protruding portion from the outer side to the inner side of the battery container in a direction from a battery cover toward a bottom surface of a battery case, at least a part of the bottom wall portion is accommodated in the concave portion which includes one continuously inclined surface along the bottom wall portion of the diaphragm, and the protruding portion is bonded to the current collector (30A, 30B) inside the concave portion.
Device for coating containers by means of a plasma method, comprising at least one plasma station that comprises at least one plasma chamber with at least one treatment station with a container holder, in which at least one container with a container interior can be used and positioned at the treatment station, wherein the respective plasma chamber comprises a vacuum line connected to a vacuum unit, by means of which it can be at least partially evacuated, wherein the respective plasma chamber comprises a gas lance which can be inserted into the container interior, wherein the gas lance is connected to a process-gas line, via which a process gas provided by a process gas generator enters the container interior for its coating, wherein the respective plasma chamber is connected to at least one microwave generator (1, 1', 1") and the microwave generator (1, 1', 1") comprises a control unit, a signal generator and a power supply (4, 4'), the at least one microwave generator (1, 1', 1") is a solid-state generator comprising a solid-state amplifier, characterized in that, in the at least one plasma chamber, there is no sensor for controlling the microwave generator (1, 1', 1") and no monitor diode for sensing its current power level, wherein the at least one microwave generator (1, 1', 1") is directly connected to at least one plasma chamber by means of a quartz disc (7, 7', 7") arranged at the point of introduction. comprising at least one plasma station that comprises at least one plasma chamber with at least one treatment station with a container holder, in which at least one container with a container interior can be used and positioned at the treatment station, wherein the respective plasma chamber comprises a vacuum line connected to a vacuum unit, by means of which it can be at least partially evacuated, wherein the respective plasma chamber comprises a gas lance which can be inserted into the container interior, wherein the gas lance is connected to a process-gas line, via which a process gas provided by a process gas generator enters the container interior for its coating, wherein the respective plasma chamber is connected to at least one microwave generator (1, 1', 1") and the microwave generator (1, 1', 1") comprises a control unit, a signal generator and a power supply (4, 4'), the at least one microwave generator (1, 1', 1") is a solid-state generator comprising a solid-state amplifier, characterized in that, in the at least one plasma chamber, there is no sensor for controlling the microwave generator (1, 1', 1") and no monitor diode for sensing its current power level, wherein the at least one microwave generator (1, 1', 1") is directly connected to at least one plasma chamber by means of a quartz disc (7, 7', 7") arranged at the point of introduction.
A disk brake system, comprising: a pressure plate coupled axially to a rotor friction disk having a rotor density; a stator friction disk having a stator density, located axially between the pressure plate and an end plate, wherein the rotor friction disk and the stator friction disk are annular disks, and the rotor friction disk and the stator friction disk are adjacent to one another and disposed coaxially, wherein at least one of the rotor friction disk and the stator friction disk is a split friction disk (90, 95) comprising a split friction disk first half and a split friction disk second half; and a damping feature, having a dampening feature density, located axially between the split friction disk first half and the split friction disk second half; characterised in that the end plate comprises an end plate thickness, the rotor friction disk comprises a rotor thickness, the stator friction disk comprises a stator thickness, and the end plate thickness is greater than the rotor thickness, and the stator thickness is less than 15% greater than the end plate thickness. a pressure plate coupled axially to a rotor friction disk having a rotor density; a stator friction disk having a stator density, located axially between the pressure plate and an end plate, wherein the rotor friction disk and the stator friction disk are annular disks, and the rotor friction disk and the stator friction disk are adjacent to one another and disposed coaxially, wherein at least one of the rotor friction disk and the stator friction disk is a split friction disk (90, 95) comprising a split friction disk first half and a split friction disk second half; and a damping feature, having a dampening feature density, located axially between the split friction disk first half and the split friction disk second half; characterised in that the end plate comprises an end plate thickness, the rotor friction disk comprises a rotor thickness, the stator friction disk comprises a stator thickness, and the end plate thickness is greater than the rotor thickness, and the stator thickness is less than 15% greater than the end plate thickness.
A shaving head comprising: at least one shaving head component extending at least partially along a length of the shaving head; a first groove of the shaving head extending at least partially along a first side of the at least one shaving head component; a second groove of the shaving head extending at least partially along a second side of the shaving head component; and a retainer secured within at least one of the first and second grooves (188, 198) and operable to secure the at least one shaving head component to the shaver head, each retainer having (i) a central retainer body extending along a plane, (ii) a front leg extending from a front of the central retainer body, (iii) a rear leg extending from a rear of the central retainer body, and (iv) a side leg extending from a side of the central retainer body. at least one shaving head component extending at least partially along a length of the shaving head; a first groove of the shaving head extending at least partially along a first side of the at least one shaving head component; a second groove of the shaving head extending at least partially along a second side of the shaving head component; and a retainer secured within at least one of the first and second grooves (188, 198) and operable to secure the at least one shaving head component to the shaver head, each retainer having (i) a central retainer body extending along a plane, (ii) a front leg extending from a front of the central retainer body, (iii) a rear leg extending from a rear of the central retainer body, and (iv) a side leg extending from a side of the central retainer body.
A method of cleaning an enclosed structure with a pulsed detonation combustor cleaner having a combustion chamber, in which a flow of air and a flow of fuel are mixed to produce a fuel-air mixture flow, the method comprising: positioning the pulsed detonation combustor cleaner about an inlet of the enclosed structure; delivering the fuel-air mixture flow from the pulsed detonation combustor cleaner into the enclosed structure so as to form an external fuel-air mixture flow; and igniting the external fuel-air mixture flow to clean the enclosed structure. positioning the pulsed detonation combustor cleaner about an inlet of the enclosed structure; delivering the fuel-air mixture flow from the pulsed detonation combustor cleaner into the enclosed structure so as to form an external fuel-air mixture flow; and igniting the external fuel-air mixture flow to clean the enclosed structure.
An exhaust gas purifying apparatus disposed on an exhaust passageway, through which exhaust gases emitted from a combustion engine flows, for purifying those exhaust gases by means of a catalytic reaction, which apparatus comprises: a plurality of catalytic units disposed in series with each other in a direction conforming to the direction of flow of the exhaust gases, including at least an upstream catalytic unit and a downstream catalytic unit, positioned downstream the upstream catalytic unit with respect to the direction of flow of the exhaust gases; each of those catalytic units (42, 43) including a honeycomb carrier structure and a catalyst carried by the honeycomb carrier structure; and the downstream catalytic unit having a higher cell density, a smaller volume of the honeycomb carrier structure and a larger amount of an element, which is a major catalyst, carried by the same downstream catalytic unit per unit volume than those of the upstream catalytic unit, characterized in that the upstream and downstream catalytic units (42, 43) are retained within a single tubular casing being made of metallic material and having a longitudinal axis conforming to the direction of flow of the exhaust gases and are axially spaced a distance from each other, the tubular casing is accommodated within a catalytic tube, forming a part of the exhaust passage, and the tubular casing is fixed to the catalytic tube at a portion thereof aligned with a space defined between the upstream and downstream catalytic units (42, 43) by means of welding. a plurality of catalytic units disposed in series with each other in a direction conforming to the direction of flow of the exhaust gases, including at least an upstream catalytic unit and a downstream catalytic unit, positioned downstream the upstream catalytic unit with respect to the direction of flow of the exhaust gases; each of those catalytic units (42, 43) including a honeycomb carrier structure and a catalyst carried by the honeycomb carrier structure; and the downstream catalytic unit having a higher cell density, a smaller volume of the honeycomb carrier structure and a larger amount of an element, which is a major catalyst, carried by the same downstream catalytic unit per unit volume than those of the upstream catalytic unit,
A badminton racket comprising a frame, a handle and a hollow shaft connecting the frame to the handle, the shaft having a circular outer shape in transverse section, said racket defining: - a first direction (D 1) parallel to a longitudinal axis (X 1) of the shaft, - a second direction (D 2) perpendicular to the first direction (D 1) and parallel to a plane (P 8) in which strings extend mounted in the frame, and - a third direction (D 3) perpendicular to the first and second directions and the plane of the strings, characterized in that: - the bending rigidity of the shaft in the third direction is greater than its bending rigidity in the second direction, - the wall thickness (e 3) in the third direction (D 3) is greater than its wall thickness (e 2) in the second direction (D 2), - a central hollow volume (V 6) of the shaft has an elongated contour in transverse section, with its largest dimension parallel to the second direction (D 2). - a first direction (D 1) parallel to a longitudinal axis (X 1) of the shaft, - a second direction (D 2) perpendicular to the first direction (D 1) and parallel to a plane (P 8) in which strings extend mounted in the frame, and - a third direction (D 3) perpendicular to the first and second directions and the plane of the strings, - the bending rigidity of the shaft in the third direction is greater than its bending rigidity in the second direction, - the wall thickness (e 3) in the third direction (D 3) is greater than its wall thickness (e 2) in the second direction (D 2), - a central hollow volume (V 6) of the shaft has an elongated contour in transverse section, with its largest dimension parallel to the second direction (D 2).
A system for electrical charge detection, the system comprising: a nanoFET device configured with a source, drain, and a gate, wherein the gate of the nanoFET device is configured to receive at least one macromolecule or assemblies thereof; a solution of charge tags, wherein a charge tag comprises a nucleotide attached to a charge molecule complex via a photolabile linker or a chemical cleavage linker; a test well configured to situate the nanoFET device in the solution of charge tags; and a detector configured to monitor at least one of voltage and current from the nanoFET device; and a controller configured to interface with the test well and detector, wherein the controller is configured to flow in the solution of charge tags into the test well, allow incorporation of the charge tags, cleave the charge tags, and detect at least one of voltage and current by the detector; wherein the test well further comprises charge plates and the controller is configured to apply a voltage on the charge plates to generate an electric field to force the charge tags toward the nanoFET device or to force the charge tags away from the nanoFET device and pull the macromolecule or assemblies thereof. a nanoFET device configured with a source, drain, and a gate, wherein the gate of the nanoFET device is configured to receive at least one macromolecule or assemblies thereof; a solution of charge tags, wherein a charge tag comprises a nucleotide attached to a charge molecule complex via a photolabile linker or a chemical cleavage linker; a test well configured to situate the nanoFET device in the solution of charge tags; and a detector configured to monitor at least one of voltage and current from the nanoFET device; and a controller configured to interface with the test well and detector, wherein the controller is configured to flow in the solution of charge tags into the test well, allow incorporation of the charge tags, cleave the charge tags, and detect at least one of voltage and current by the detector; wherein the test well further comprises charge plates and the controller is configured to apply a voltage on the charge plates to generate an electric field to force the charge tags toward the nanoFET device or to force the charge tags away from the nanoFET device and pull the macromolecule or assemblies thereof.
Use of an additive package to improve the vibration resistance of an industrial gear oil composition in an industrial gearbox subject to external vibration, wherein the additive package provides protection against damage caused by the external vibration, wherein the industrial gear oil composition comprises (a) an oil of lubricating viscosity; and wherein the additive package comprises (b) 0.1 to 10 percent by weight of an ester of an alkyl phosphite, based on the overall weight of the industrial gear oil composition, wherein the alkyl groups of the alkyl phosphite are saturated or unsaturated alkyl groups or mixtures thereof; and (c) 0.1 to 20 percent by weight of a sulfurized fatty ester, based on the overall weight of the industrial gear oil composition.
Monitoring facility for a vehicle, wherein the monitoring facility has at least one measuring device with the following features: - a sensor unit which is designed to be in a coupling position on a first location of a wheel hub of a wheel of the vehicle while driving the vehicle to sense a physical parameter in the area of the wheel, and - a transmitter unit which has a fastening device which is shaped to hold the transmitter unit in a fastening position on a the second location of the wheel hub of the wheel or a wheel rim, the transmitting unit being designed to wirelessly send a sensor signal representing the physical parameter to a warning device in order to monitor the physical parameter, wherein the monitoring facility further has at least one or both of the following features a), b): a) at least a region of the fastening device is magnetically shaped in order to magnetically fasten the transmitting unit to the second location or to the wheel rim or a wheel nut. b) the sensor unit has at least one magnet, which is designed to magnetically couple the sensor unit to the wheel hub of the wheel, characterized in that at least a region of the fastening unit has a clamping device which is designed to attach the transmitting unit to the second location of the wheel hub of the wheel, to the wheel rim or to clamp to the wheel nut, the transmitting unit and the sensor unit being arranged in different housings (145; 915) and being connected to one another via a flexible connecting cable for transmitting the physical parameter. - a sensor unit which is designed to be in a coupling position on a first location of a wheel hub of a wheel of the vehicle while driving the vehicle to sense a physical parameter in the area of the wheel, and - a transmitter unit which has a fastening device which is shaped to hold the transmitter unit in a fastening position on a the second location of the wheel hub of the wheel or a wheel rim, the transmitting unit being designed to wirelessly send a sensor signal representing the physical parameter to a warning device in order to monitor the physical parameter, wherein the monitoring facility further has at least one or both of the following features a), b): a) at least a region of the fastening device is magnetically shaped in order to magnetically fasten the transmitting unit to the second location or to the wheel rim or a wheel nut. b) the sensor unit has at least one magnet, which is designed to magnetically couple the sensor unit to the wheel hub of the wheel, a) at least a region of the fastening device is magnetically shaped in order to magnetically fasten the transmitting unit to the second location or to the wheel rim or a wheel nut. b) the sensor unit has at least one magnet, which is designed to magnetically couple the sensor unit to the wheel hub of the wheel,
A computer system comprising: a processor; and a computer readable storage medium (508, 510) having stored thereon program code that, when executed by the processor, causes the processor to: enable time dilation with respect to a program, the time dilation causing the program to observe a dilated view of time relative to real time; and while the time dilation is enabled: track a count of application programming interface calls or callbacks made by a program within each of a series of time buckets; and based on counts tracked for a range of recent time buckets, scale up or scale down a degree of the time dilation (418, 420), wherein if the count exceeds a threshold count within each of a high watermark of time buckets in the range of recent time buckets, the degree of the time dilation is scaled up (416, 418), and/or wherein if the count falls below a threshold count within each of a low watermark of time buckets in the range of recent time buckets, the degree of the time dilation is scaled down (416, 420). a processor; and a computer readable storage medium (508, 510) having stored thereon program code that, when executed by the processor, causes the processor to: enable time dilation with respect to a program, the time dilation causing the program to observe a dilated view of time relative to real time; and while the time dilation is enabled: track a count of application programming interface calls or callbacks made by a program within each of a series of time buckets; and based on counts tracked for a range of recent time buckets, scale up or scale down a degree of the time dilation (418, 420), enable time dilation with respect to a program, the time dilation causing the program to observe a dilated view of time relative to real time; and while the time dilation is enabled: track a count of application programming interface calls or callbacks made by a program within each of a series of time buckets; and based on counts tracked for a range of recent time buckets, scale up or scale down a degree of the time dilation (418, 420), track a count of application programming interface calls or callbacks made by a program within each of a series of time buckets; and based on counts tracked for a range of recent time buckets, scale up or scale down a degree of the time dilation (418, 420), wherein if the count exceeds a threshold count within each of a high watermark of time buckets in the range of recent time buckets, the degree of the time dilation is scaled up (416, 418), and/or wherein if the count falls below a threshold count within each of a low watermark of time buckets in the range of recent time buckets, the degree of the time dilation is scaled down (416, 420).