mhurhangee/ep-ind-claims huggingface dataset:
A method of defining a rotational source associated with a heart rhythm disorder, characterized in that the method comprises: calculating, by a computing device, a plurality of center locations (304, 306... 322) of wave fronts (108, 110), at a plurality of time points associated with the rotational source, the wave fronts associated with heart signals; and determining, by the computing device, a rotational path that connects the plurality of center locations. calculating, by a computing device, a plurality of center locations (304, 306... 322) of wave fronts (108, 110), at a plurality of time points associated with the rotational source, the wave fronts associated with heart signals; and determining, by the computing device, a rotational path that connects the plurality of center locations.
Oscillating portable power tool having at least one output unit (70a; 70b) which comprises at least one output shaft (72a; 72b), having at least one drive unit (74a; 74b) for driving the output shaft (72a; 72b) in oscillation, and having at least one housing unit (10a; 10b) for receiving the drive unit (74a; 74b) and the output unit (70a; 70b), which has at least two housing shells (12a, 14a; 12b, 14b), wherein the housing shells (12a, 14a; 12b, 14b) have, in an assembled state, at least one connecting plane (78a; 78b) which extends at least substantially perpendicularly to an axis of movement (76a; 76b) of the output shaft (72a; 72b) and in which the housing shells (12a, 14a; 12b, 14b) are connected together, and wherein at least one form-fitting unit (88a, 88b) for connecting the housing shells (12a, 14a; 12b, 14b) in a form-fitting manner is provided, said form-fitting unit (88a, 88b) having at least one form-fitting element (90a, 92a; 90b, 92b) which, in order to form a form-fitting connection in a reaction-force direction (94a; 94b) in which reaction forces brought about by the oscillating driving of the output shaft (72a; 72b) run, extends at least substantially transversely to the reaction-force direction (94a; 94b), characterized in that a first form-fitting element (90a; 90b) is configured as a fin-like tongue element (46a; 46b) and a further form-fitting element (92a; 92b) is configured as a groove (48a; 48b), and in that, in an assembled state of the housing shells (12a, 14a; 12b, 14b), the fin-like tongue element (46a; 46b) engages in the groove (48a; 48b).
A light distribution element for a light emitting device, comprising a plurality of first light deflecting portions and a plurality of second light deflecting portions, wherein a pattern formed by the plurality of first light deflecting portions is superposed with a pattern formed by the plurality of second light deflecting portions to form a final display pattern, and wherein the first light deflecting portions are constructed to be a plurality of petal-shaped convexes protruding towards an outside of the light distribution element, and the plurality of petal-shaped convexes extend radially outwardly from a middle of the light distribution element, and the second light deflecting portions are constructed to be a plurality of annular convexes protruding towards the outside of the light distribution element, the plurality of annular convexes have different perimeters, and the annular convex having a larger perimeter is provided outside the annular convex having a smaller perimeter, and wherein the light distribution element has a light entrance side and a light exit side parallel to the light entrance side, and the plurality of first light deflecting portions are formed on the light entrance side of the light distribution element, and the plurality of second light deflecting portions are formed on the light exit side of the light distribution element. and wherein the first light deflecting portions are constructed to be a plurality of petal-shaped convexes protruding towards an outside of the light distribution element, and the plurality of petal-shaped convexes extend radially outwardly from a middle of the light distribution element, and the second light deflecting portions are constructed to be a plurality of annular convexes protruding towards the outside of the light distribution element, the plurality of annular convexes have different perimeters, and the annular convex having a larger perimeter is provided outside the annular convex having a smaller perimeter, and wherein the light distribution element has a light entrance side and a light exit side parallel to the light entrance side, and the plurality of first light deflecting portions are formed on the light entrance side of the light distribution element, and the plurality of second light deflecting portions are formed on the light exit side of the light distribution element.
Pressure belt filter having a filter container which is rotatable about an axis of rotation and has filter chambers which are arranged distributed over a periphery of the filter container, which filter chambers have openings at a periphery of the filter container, having a filter belt which is guided around part of the periphery of the filter container and covers the openings of the filter chambers at the periphery of the filter container in such a way that, on the part of the periphery of the filter container covered by the filter belt, fluid flowing out of the filter chambers flows through the filter belt, and having a fluid feed through an end wall of the filter container into each filter chamber.
System for implementing a modular ceiling light, the system comprising at least two light modules, each of which being limited in a vertical direction by an upper side and an underside, wherein each of the light modules comprises at least two separate longitudinal profiles elongated in a longitudinal direction, at least two separate cross-connectors, a light source, and an optical element (12, 15), wherein the two longitudinal profiles are spaced from each other in a transverse direction and are connected to each other in the transverse direction by said two cross-connectors, wherein the light source is arranged in a receiving space enclosed in the transverse direction by the longitudinal profiles, and wherein the optical element forms an underside portion of the light module, wherein each light module has a respective fastening device for an end piece (2, 3, 70) on its two longitudinal ends, wherein the system comprises at least two end pieces (2, 3, 70), wherein each of the end pieces (2, 3, 70) has a mounting device corresponding to one of the fastening devices of each of the light modules for fastening the end piece (2, 3, 70) to one of the longitudinal ends of one of the light modules, wherein in a first mounting arrangement, in which a first ceiling light is implemented, one of the end pieces (2, 3, 70) is fixed to each end of one of the light modules and forms one longitudinal end of the first ceiling light, wherein the system comprises at least one connection module for connecting the two light modules, wherein the connection module has fastening units corresponding to the fastening devices on its two longitudinal ends for fastening the connection module to the mutually facing longitudinal ends of the two light modules in a second mounting arrangement in which a second ceiling light is created and in which the two light modules are arranged side by side in the longitudinal direction and a respective one of the end pieces (2, 3, 70) is fixed to a longitudinal end of each light module facing away from the other light module, wherein each light module has two electrical plug-in devices which are each held on a longitudinal end portion of one of its longitudinal profiles and are each accessible from one of said longitudinal ends.
A hood safety system for a vehicle preventing a hood of the vehicle from being unlocked in a crash event, comprising a hood locking mechanism and a crash safety mechanism attached to a front structure in a front section of the vehicle, the vehicle extending in a longitudinal direction (Lo) and a lateral direction (La), where the hood locking mechanism through manual action from a user is configured to releasing the hood of the vehicle from a locked position to an unlocked position, wherein the crash safety mechanism comprises a crash pin displaceable between an inactivated state and an activated state, where in the inactivated state the crash pin is disengaged from the hood locking mechanism, and where in the activated state the crash pin is engaging the hood locking mechanism preventing the hood locking mechanism from displacing the hood into the unlocked position, characterized in that the front section of the vehicle when being deformed in a crash event is configured to mechanically displacing the crash pin from the inactivated state to the activated state. where the hood locking mechanism through manual action from a user is configured to releasing the hood of the vehicle from a locked position to an unlocked position, wherein the crash safety mechanism comprises a crash pin displaceable between an inactivated state and an activated state, where in the inactivated state the crash pin is disengaged from the hood locking mechanism, and where in the activated state the crash pin is engaging the hood locking mechanism preventing the hood locking mechanism from displacing the hood into the unlocked position, characterized in that the front section of the vehicle when being deformed in a crash event is configured to mechanically displacing the crash pin from the inactivated state to the activated state.
An inhibitor of ZIP12 activity or expression, for use in a method for preventing or treating pulmonary hypertension caused by hypoxic stress, wherein the inhibitor is an antisense oligonucleotide, siRNA, or dsRNA which specifically binds to a portion of an mRNA encoding ZIP12.
A seal assembly, comprising: a seal arc segment defining first and second seal supports (70a, 70b); a carriage defining first and second support members (68a, 68b), the first support member supporting the seal arc segment in a first ramped interface and the second support member supporting the seal arc segment in a second ramped interface; a spring configured to bias the seal arc segment axially, relative to a central longitudinal axis defined by the curvature of the arc of the seal arc segment; and a heat shield radially, relative to a central longitudinal axis defined by the curvature of the arc of the seal arc segment, inward of the spring; further comprising the heat shield having a radially-extending, relative to a central longitudinal axis defined by the curvature of the arc of the seal arc segment, leg disposed axially, relative to a central longitudinal axis defined by the curvature of the arc of the seal arc segment, between the spring and the seal arc segment. a seal arc segment defining first and second seal supports (70a, 70b); a carriage defining first and second support members (68a, 68b), the first support member supporting the seal arc segment in a first ramped interface and the second support member supporting the seal arc segment in a second ramped interface; a spring configured to bias the seal arc segment axially, relative to a central longitudinal axis defined by the curvature of the arc of the seal arc segment; and a heat shield radially, relative to a central longitudinal axis defined by the curvature of the arc of the seal arc segment, inward of the spring; further comprising the heat shield having a radially-extending, relative to a central longitudinal axis defined by the curvature of the arc of the seal arc segment, leg disposed axially, relative to a central longitudinal axis defined by the curvature of the arc of the seal arc segment, between the spring and the seal arc segment.
A residential electric power storage system, comprising: a lead-in wire extending from a commercial power supply system connected to an electric power generation device; a distribution line connected to said lead-in wire for supplying an electrical load of a residence with electric power; an electric power storage device configured to be capable of supplying said electrical load with electric power; a voltage sensor sensing a voltage of said lead-in wire; a current sensor sensing a current charged to said electric power storage device through said distribution line; an electric power adjustment unit provided between said electric power storage device and said distribution line and adjusting electric power charged to said electric power storage device through said distribution line; and a controller controlling said electric power adjustment unit, if said lead-in wire has voltage smaller than a threshold voltage, said controller performing current control controlling said electric power adjustment unit to match the current that is charged to said electric power storage device to a command value, whereas if said lead-in wire has voltage larger than said threshold voltage, said controller performing voltage control controlling said electric power adjustment unit to match the voltage of said lead-in wire to a command value. a lead-in wire extending from a commercial power supply system connected to an electric power generation device; a distribution line connected to said lead-in wire for supplying an electrical load of a residence with electric power; an electric power storage device configured to be capable of supplying said electrical load with electric power; a voltage sensor sensing a voltage of said lead-in wire; a current sensor sensing a current charged to said electric power storage device through said distribution line; an electric power adjustment unit provided between said electric power storage device and said distribution line and adjusting electric power charged to said electric power storage device through said distribution line; and a controller controlling said electric power adjustment unit, if said lead-in wire has voltage smaller than a threshold voltage, said controller performing current control controlling said electric power adjustment unit to match the current that is charged to said electric power storage device to a command value, whereas if said lead-in wire has voltage larger than said threshold voltage, said controller performing voltage control controlling said electric power adjustment unit to match the voltage of said lead-in wire to a command value.
A method for operating a terminal device, the terminal device being configured to establish a data communication upon receiving a request for establishing the data communication from a base station of a telecommunication network, the method being characterized by the steps of: - determining, by a transceiver activity control unit of the terminal device, a usage state of the terminal device, the usage state indicating a current usage of at least one function or application of the terminal device, and - sending a data traffic inactivity signal from the terminal device to the base station depending on the determined usage state, the data traffic inactivity signal indicating the base station to avoid sending the request for establishing the data communication to the terminal device for a predetermined amount of time, wherein the method further comprises: sending, separately from the data traffic inactivity signal and to the base station, a configuration information comprising a data traffic inactivity timer value, the data traffic inactivity timer value indicating the predetermined amount of time for avoiding sending the request for establishing the data communication to the terminal device. - determining, by a transceiver activity control unit of the terminal device, a usage state of the terminal device, the usage state indicating a current usage of at least one function or application of the terminal device, and - sending a data traffic inactivity signal from the terminal device to the base station depending on the determined usage state, the data traffic inactivity signal indicating the base station to avoid sending the request for establishing the data communication to the terminal device for a predetermined amount of time, wherein the method further comprises: sending, separately from the data traffic inactivity signal and to the base station, a configuration information comprising a data traffic inactivity timer value, the data traffic inactivity timer value indicating the predetermined amount of time for avoiding sending the request for establishing the data communication to the terminal device.
A brake system for a vehicle, wherein the brake system includes a plurality of wheels and an energy storage device configured to store and discharge energy and to, during a backup mode of operation, supply energy to the brake system, the brake system comprising: one or more processors operatively coupled to the energy storage device and in electrical communication with the plurality of wheels; characterized in that it comprises a memory coupled to the one or more processors, the memory storing data comprising a database and program code that, when executed by the one or more processors, causes the brake system to: determine the brake system is operating in a backup mode of operation; in response to determining the brake system is operating in the backup mode of operation, calculate a dynamic slip of the plurality of wheels; determine a slip error by comparing the dynamic slip with a target slip value of the plurality of wheels, wherein the target slip value is offset from an ideal slip value of the plurality of wheels and results in a reduced braking efficiency of the brake system; and calculate an antiskid command based on the slip error, wherein the antiskid command reduces an amount of brake pressure applied to the plurality of wheels. one or more processors operatively coupled to the energy storage device and in electrical communication with the plurality of wheels; characterized in that it comprises a memory coupled to the one or more processors, the memory storing data comprising a database and program code that, when executed by the one or more processors, causes the brake system to: determine the brake system is operating in a backup mode of operation; in response to determining the brake system is operating in the backup mode of operation, calculate a dynamic slip of the plurality of wheels; determine a slip error by comparing the dynamic slip with a target slip value of the plurality of wheels, wherein the target slip value is offset from an ideal slip value of the plurality of wheels and results in a reduced braking efficiency of the brake system; and calculate an antiskid command based on the slip error, wherein the antiskid command reduces an amount of brake pressure applied to the plurality of wheels. determine the brake system is operating in a backup mode of operation; in response to determining the brake system is operating in the backup mode of operation, calculate a dynamic slip of the plurality of wheels; determine a slip error by comparing the dynamic slip with a target slip value of the plurality of wheels, wherein the target slip value is offset from an ideal slip value of the plurality of wheels and results in a reduced braking efficiency of the brake system; and calculate an antiskid command based on the slip error, wherein the antiskid command reduces an amount of brake pressure applied to the plurality of wheels.
A process to deposit a protective coating on the inner wall of a tube, such process in which: - a cylindrical sleeve is produced, - a layer of thermo fusible material is placed on the external surface of this sleeve, - the sleeve thus coated is machined so as to give it the same external diameter as the internal diameter of the tube, - the sleeve is positioned in the tube, process characterised in that: - the sleeve is soldered in the tube by having localised heating means (12, 13) placed inside it and gradually moved longitudinally from one end to the other of the sleeve, the sleeve being made of a material having a melting point over 1850 °C. - a cylindrical sleeve is produced, - a layer of thermo fusible material is placed on the external surface of this sleeve, - the sleeve thus coated is machined so as to give it the same external diameter as the internal diameter of the tube, - the sleeve is positioned in the tube, process characterised in that: - the sleeve is soldered in the tube by having localised heating means (12, 13) placed inside it and gradually moved longitudinally from one end to the other of the sleeve, the sleeve being made of a material having a melting point over 1850 °C.
A casing and a rubber plug of a power conversion equipment having plural service holes in a surface of the casing, the plural service holes being used to electrically join a circuit in the casing of the power conversion equipment, wherein the rubber plug is provided to seal each of the service holes, the rubber plug has core metal in a cylindrical cup shape, which has a disc-shaped flange on an outer side of the casing, a flange of the rubber plug has a lip seal that abuts against the casing, a cylindrical recessed section which is coaxial with a cylindrical seal surface is provided in a central section of the rubber plug on an opposite surface from the lip seal of the flange, a tip of the rubber plug on a side not provided with the flange has a first tapered surface, an insertion opening for the rubber plug in the service hole has a second tapered surface, the surface of the casing is provided with a rib on an outer circumferential side of the flange of the rubber plug, an end surface of the rib is orthogonal to an axis of the service hole, and a relationship of h1 ≤ h2 is established when a distance from an abutment surface of the lip seal to an end surface of the rubber plug on a side with the recessed section is set as h1 and a distance from the abutment surface of the lip seal to the end surface of the rib is set as h2.
A method of manufacturing a semiconductor device comprising an oxide film removing step where an oxide film formed on a surface of a semiconductor substrate is partially removed, wherein the oxide film removing step comprises: a first step where a resist glass layer is selectively formed on an upper surface of the oxide film without using an exposure step; a second step where the resist glass layer is densified by baking the resist glass layer; and a third step where the oxide film is partially removed using the resist glass layer as a mask, wherein the resist glass layer contains at least SiO 2 B 2 O 3, Al 2 O 3, ZnO, and at least two oxides of alkaline earth metals selected from a group consisting of CaO, MgO and BaO, and substantially contains none of Pb, As, Sb, Li, Na and K, the content of SiO 2 falls within a range of from 50 mol% to 65 mol%, the content of B 2 O 3 falls within a range of from 8 mol% to 18 mol%, the content of Al 2 O 3 falls within a range of from 4 mol% to 15 mol%, the content of ZnO falls within a range of from 4 mol% to 14 mol%, and the content of the oxides of the alkaline earth metals falls within a range of from 6 mol% to 16 mol%,and in the third step, the oxide film is removed by using an etchant containing a hydrofluoric acid. a first step where a resist glass layer is selectively formed on an upper surface of the oxide film without using an exposure step; a second step where the resist glass layer is densified by baking the resist glass layer; and a third step where the oxide film is partially removed using the resist glass layer as a mask, wherein the resist glass layer contains at least SiO 2 B 2 O 3, Al 2 O 3, ZnO, and at least two oxides of alkaline earth metals selected from a group consisting of CaO, MgO and BaO, and substantially contains none of Pb, As, Sb, Li, Na and K, the content of SiO 2 falls within a range of from 50 mol% to 65 mol%, the content of B 2 O 3 falls within a range of from 8 mol% to 18 mol%, the content of Al 2 O 3 falls within a range of from 4 mol% to 15 mol%, the content of ZnO falls within a range of from 4 mol% to 14 mol%, and the content of the oxides of the alkaline earth metals falls within a range of from 6 mol% to 16 mol%,and in the third step, the oxide film is removed by using an etchant containing a hydrofluoric acid.