mhurhangee/ep-ind-claims huggingface dataset:
A high hardness wear-resistant steel: having a composition containing, by weight ratio, 2.1 to 4. 0% of manganese (Mn), 0.15 to 0. 2% of carbon, 0. 02 to 0.5% of silicon (Si), 0.2 to 0.7% of chromium (Cr), optionally one or more selected from the group of 0.1% or less of niobium (Nb), 0.02% or less of boron, and 0.1% or less of titanium (Ti), a remainder of iron (Fe) and other unavoidable impurities; having a microstructure in which a prior austenite grain size is 25 μm or less and martensite is included as a main phase; and having excellent toughness and cutting crack resistance which satisfies a condition in which Ac3-Acl is 100°C or lower. having a composition containing, by weight ratio, 2.1 to 4. 0% of manganese (Mn), 0.15 to 0. 2% of carbon, 0. 02 to 0.5% of silicon (Si), 0.2 to 0.7% of chromium (Cr), optionally one or more selected from the group of 0.1% or less of niobium (Nb), 0.02% or less of boron, and 0.1% or less of titanium (Ti), a remainder of iron (Fe) and other unavoidable impurities; having a microstructure in which a prior austenite grain size is 25 μm or less and martensite is included as a main phase; and having excellent toughness and cutting crack resistance which satisfies a condition in which Ac3-Acl is 100°C or lower.
A protective device for an electrical circuit, configured to transmit an electrical current, the protective device comprising: - a first conductor, - a second conductor, - a first fuse connected to the output conductor, - at least one pyroswitch connected in parallel to the first fuse, the pyroswitch including a command zone, able to receive a triggering signal, and a power zone for the passage of the electrical current, and - a command circuit configured to develop and transmit the triggering signal to the command zone of the pyroswitch, the device being characterized in that it further comprises a second fuse connected in series between the input conductor and the first fuse and able to provide a supply voltage to the command circuit, and in that the command circuit is connected between the second fuse and the command zone of the pyroswitch. - a first conductor, - a second conductor, - a first fuse connected to the output conductor, - at least one pyroswitch connected in parallel to the first fuse, the pyroswitch including a command zone, able to receive a triggering signal, and a power zone for the passage of the electrical current, and - a command circuit configured to develop and transmit the triggering signal to the command zone of the pyroswitch,
A composition comprising a latent heat storage material having a solid-to-gel transition between about -50°C and about 100°C at 1 atm, wherein the latent heat storage material comprises one or more A-B-A trimers of two monofunctional oxidized fatty components chemically bonded to a bifunctional linker component.
A clearing reagent for making a biological material transparent, comprising: - at least one compound selected from the group consisting of urea and a urea derivative; - sorbitol; and - a surfactant, characterized in that the clearing reagent contains (i) the at least one compound at a concentration in a range of 3 M or more to 5 M or less; and the sorbitol at a concentration in a range of 30 (w/v)% or more to 50 (w/v)% or less, or (ii) the at least one compound at a concentration in a range of 5 M or more to 9.5 M or less; and the sorbitol at a concentration in a range of 20 (w/v)% or more to 40 (w/v)% or less, and the surfactant is contained at a concentration in a range of more than 0 (w/v)% to 5 (w/v)% or less. - at least one compound selected from the group consisting of urea and a urea derivative; - sorbitol; and - a surfactant, (i) the at least one compound at a concentration in a range of 3 M or more to 5 M or less; and the sorbitol at a concentration in a range of 30 (w/v)% or more to 50 (w/v)% or less, or (ii) the at least one compound at a concentration in a range of 5 M or more to 9.5 M or less; and the sorbitol at a concentration in a range of 20 (w/v)% or more to 40 (w/v)% or less, and the surfactant is contained at a concentration in a range of more than 0 (w/v)% to 5 (w/v)% or less.
A method comprising: receiving identity information at an edge configuration device from an end device via a connection, wherein the identity information identifies the end device or one or more users associated with the end device; sending a request from the edge configuration device to an access control server connected to the network in response to receiving the identity information, wherein the request requests authentication for the end device; receiving authentication at the edge configuration device from the access control server for the end device to connect to a network connected to the edge configuration device, wherein the network is a Shortest Path Bridging network, and wherein the end device is a non-SPB device that is not compatible with the SPB network; receiving SPB network configuration information from the access control server in response to the sending; and using the SPB network configuration information to configure the edge configuration device for use with one or more virtual local area networks (VLANs) of the SPB network for use with the end device. receiving identity information at an edge configuration device from an end device via a connection, wherein the identity information identifies the end device or one or more users associated with the end device; sending a request from the edge configuration device to an access control server connected to the network in response to receiving the identity information, wherein the request requests authentication for the end device; receiving authentication at the edge configuration device from the access control server for the end device to connect to a network connected to the edge configuration device, wherein the network is a Shortest Path Bridging network, and wherein the end device is a non-SPB device that is not compatible with the SPB network; receiving SPB network configuration information from the access control server in response to the sending; and using the SPB network configuration information to configure the edge configuration device for use with one or more virtual local area networks (VLANs) of the SPB network for use with the end device.
A cutting tool (21, 121, 221, 321), comprising: a cutting insert; a toolholder comprising at least one insert supporting surface; a first clamp adapted to apply a clamping force in a first direction to clamp the insert to the insert supporting surface; a second clamp adapted to limit rotation of the insert about an axis extending substantially in the first direction; and the insert comprising a through hole and the first clamp comprising a screw having a surface that abuts against a surface in the hole to clamp the insert to the insert supporting surface, characterized in that the insert supporting surface is generally perpendicular to an axis of the through hole and the first direction when the insert is clamped to the insert supporting surface by the first clamp, and in that the toolholder comprises a second insert supporting surface, the second clamp applying a clamping force to the insert in a second direction toward the second insert supporting surface to clamp the insert to the second insert supporting surface, the second insert supporting surface being disposed on an opposite side of the insert from the second clamp. a cutting insert; a toolholder comprising at least one insert supporting surface; a first clamp adapted to apply a clamping force in a first direction to clamp the insert to the insert supporting surface; a second clamp adapted to limit rotation of the insert about an axis extending substantially in the first direction; and the insert comprising a through hole and the first clamp comprising a screw having a surface that abuts against a surface in the hole to clamp the insert to the insert supporting surface, characterized in that the insert supporting surface is generally perpendicular to an axis of the through hole and the first direction when the insert is clamped to the insert supporting surface by the first clamp, and in that the toolholder comprises a second insert supporting surface, the second clamp applying a clamping force to the insert in a second direction toward the second insert supporting surface to clamp the insert to the second insert supporting surface, the second insert supporting surface being disposed on an opposite side of the insert from the second clamp.
A method (300, 400), comprising: for each access point in a plurality of access points (315, 415), and by operation of one or more computer processors: identifying a subset of the plurality of access points that neighbor the access point; estimating a location of the access point, based on: a respective indication of signal strength (325, 425) between the access point and each neighboring access point in the subset of access points, a respective position of each of the neighboring access points in a position map; and determining a difference between a recorded position of the access point in the position map and the estimated location of the access point; and determining that the position within the position map of a first one of the plurality of access points is likely to be incorrect based on the determined difference for the first access point. for each access point in a plurality of access points (315, 415), and by operation of one or more computer processors: identifying a subset of the plurality of access points that neighbor the access point; estimating a location of the access point, based on: a respective indication of signal strength (325, 425) between the access point and each neighboring access point in the subset of access points, a respective position of each of the neighboring access points in a position map; and determining a difference between a recorded position of the access point in the position map and the estimated location of the access point; and identifying a subset of the plurality of access points that neighbor the access point; estimating a location of the access point, based on: a respective indication of signal strength (325, 425) between the access point and each neighboring access point in the subset of access points, a respective position of each of the neighboring access points in a position map; and a respective indication of signal strength (325, 425) between the access point and each neighboring access point in the subset of access points, a respective position of each of the neighboring access points in a position map; and determining a difference between a recorded position of the access point in the position map and the estimated location of the access point; and determining that the position within the position map of a first one of the plurality of access points is likely to be incorrect based on the determined difference for the first access point.
A process for producing a steel sheet coated with a chemical conversion film, comprising: coating either one side or both sides of a steel sheet with a treating liquid consisting of silica particles and an acid ingredient; and drying the applied treating liquid by heating to thereby form a coating film comprising a reaction product of the silica, the acid ingredient and one or more metals in the steel sheet, wherein the content of the acid ingredient in the treating liquid is 20 to 80% by weight, the acid ingredient comprises at least one member selected from the group consisting of acetic acid, formic acid, sulfuric acid, nitric acid, hydrofluoric acid, and organic acids, or a mixture of the at least one member and a phosphoric acid. coating either one side or both sides of a steel sheet with a treating liquid consisting of silica particles and an acid ingredient; and drying the applied treating liquid by heating to thereby form a coating film comprising a reaction product of the silica, the acid ingredient and one or more metals in the steel sheet,
A transmitter comprising a channel front-end circuit (1203, 1311) and a transmitting element (1206, 1302, 1402, 1503), the transmitting element (1206, 1302, 1402, 1503) having a signal source (1201, 1325, 1506), a signal output terminal (1211, 1411, 1511) coupled to the channel front-end circuit (1203, 1311), and a ninety degree phase shifter (910, 1202, 1323, 1326, 1403, 1505) coupled between the signal source (1201, 1325, 1506) and the signal output terminal (1211, 1411, 1511), characterized in that the ninety degree phase shifter (910, 1202, 1323, 1326, 1403, 1505) is a part of a sensor element, the sensor element being disposed to form at least one of the following: an indication of a level of a signal delivered from the transmitting element (1206, 1302, 1402, 1503) to the channel front-end circuit (1203, 1311) and an indication of an impedance mismatch on a signal path from the signal source to the channel front-end circuit (1203, 1311), and the ninety degree phase shifter (910, 1202, 1323, 1326, 1403, 1505) is also at least one of the following: an impedance transformer disposed to perform impedance matching on the signal path from the signal source (1201, 1325, 1506) to the channel front-end circuit (1203, 1311), a filter disposed to attenuate frequency components of an output signal of the signal source (1201, 1325, 1506) that are outside a predetermined frequency band, and a part of a throw-over switch disposed to increase an impedance of the signal output terminal (1211, 1411, 1511) of the transmitting element (1206, 1302, 1402, 1503). the ninety degree phase shifter (910, 1202, 1323, 1326, 1403, 1505) is a part of a sensor element, the sensor element being disposed to form at least one of the following: an indication of a level of a signal delivered from the transmitting element (1206, 1302, 1402, 1503) to the channel front-end circuit (1203, 1311) and an indication of an impedance mismatch on a signal path from the signal source to the channel front-end circuit (1203, 1311), and the ninety degree phase shifter (910, 1202, 1323, 1326, 1403, 1505) is also at least one of the following: an impedance transformer disposed to perform impedance matching on the signal path from the signal source (1201, 1325, 1506) to the channel front-end circuit (1203, 1311), a filter disposed to attenuate frequency components of an output signal of the signal source (1201, 1325, 1506) that are outside a predetermined frequency band, and a part of a throw-over switch disposed to increase an impedance of the signal output terminal (1211, 1411, 1511) of the transmitting element (1206, 1302, 1402, 1503).
A lid for a canister comprising a head portion and a cylindrical portion, said head portion including suction ports (486a, 486b, 486c) to which suction tubes may be attached, and a vacuum port wherein the cylindrical portion: is hollow and in communication with the suction and vacuum ports; has an outer diameter that is less than the outer diameter of the head portion and is on a side of the head that forms a lower surface of the lid, the cylindrical portion extending away from the ports and the lid further comprises a tab mounted on a circumferential edge of the head portion and characterised in that the head portion comprises associated caps for the suction ports (486a, 486b, 486c) and vacuum port. is hollow and in communication with the suction and vacuum ports; has an outer diameter that is less than the outer diameter of the head portion and is on a side of the head that forms a lower surface of the lid, the cylindrical portion extending away from the ports and the lid further comprises a tab mounted on a circumferential edge of the head portion and characterised in that the head portion comprises associated caps for the suction ports (486a, 486b, 486c) and vacuum port.
Method for operating an automated parking brake for a motor vehicle having at least one brake device with a brake piston, wherein the parking brake adjusts the brake piston between an idle position which is free of braking torque and a braking position in which a braking torque is applied, with respect to a brake disk by means of an actuator, wherein during a process of releasing the parking brake a reference point is determined at which the brake piston is located at a position at which it is essentially free of braking torque, between its idle position and braking position, characterized in that the reference point is estimated taking into account an extrapolation of a variable (1, t) which describes the release process.
A scale which is to be used in a displacement detection apparatus for detecting a position of an object, the scale comprising: a pattern periodically formed in a measurement direction, wherein the pattern is configured so as to change a physical property in a direction perpendicular to the measurement direction without changing phase information in the measurement direction when a detector reading the pattern moves relative to the pattern in the direction perpendicular to the measurement direction, wherein the physical property of the pattern is uniquely determined with respect to a position in the direction perpendicular to the measurement direction and wherein the pattern includes a plurality of pattern portions which are arrayed in the direction perpendicular to the measurement direction, and the plurality of pattern portions arrayed in the direction perpendicular to the measurement direction have maximum values of a width in the measurement direction that are equal to each other and have maximum values of a width in the direction perpendicular to the measurement direction are different from each other, whereby the relative position between the scale and a sensor unit in the direction perpendicular to the measurement direction can be uniquely determined. a pattern periodically formed in a measurement direction, wherein the pattern is configured so as to change a physical property in a direction perpendicular to the measurement direction without changing phase information in the measurement direction when a detector reading the pattern moves relative to the pattern in the direction perpendicular to the measurement direction, wherein the physical property of the pattern is uniquely determined with respect to a position in the direction perpendicular to the measurement direction and wherein the pattern includes a plurality of pattern portions which are arrayed in the direction perpendicular to the measurement direction, and the plurality of pattern portions arrayed in the direction perpendicular to the measurement direction have maximum values of a width in the measurement direction that are equal to each other and have maximum values of a width in the direction perpendicular to the measurement direction are different from each other, whereby the relative position between the scale and a sensor unit in the direction perpendicular to the measurement direction can be uniquely determined.
An electrode assembly comprising: a hollow member (10, 10A, 10B, 10C) having a hollow portion, an oxygen supply portion that supplies oxygen to the hollow portion, and an oxygen permeable portion that allows permeation of oxygen supplied to the hollow portion; an electrode that is provided on an outside of the hollow member (10, 10A, 10B, 10C) in the oxygen permeable portion and is composed by laminating a water-repellent layer and an electrically conductive layer on each other from the oxygen permeable portion side, the water-repellent layer having oxygen permeability; and a buffer member (20, 200, 200A, 300, 400, 500) that is provided in the hollow portion and has pressure resistance, wherein air permeability is provided from the oxygen supply portion to the oxygen permeable portion. a hollow member (10, 10A, 10B, 10C) having a hollow portion, an oxygen supply portion that supplies oxygen to the hollow portion, and an oxygen permeable portion that allows permeation of oxygen supplied to the hollow portion; an electrode that is provided on an outside of the hollow member (10, 10A, 10B, 10C) in the oxygen permeable portion and is composed by laminating a water-repellent layer and an electrically conductive layer on each other from the oxygen permeable portion side, the water-repellent layer having oxygen permeability; and a buffer member (20, 200, 200A, 300, 400, 500) that is provided in the hollow portion and has pressure resistance, wherein air permeability is provided from the oxygen supply portion to the oxygen permeable portion.
A breath sensing system comprising: a breath sampling mask comprising a mask housing configured to cover a portion of the face of a patient, the mask housing defining a breath receiving chamber; and a chemical sensor element in fluid communication with the breath sampling mask, the chemical sensor element comprising a plurality of discrete binding detectors comprising graphene varactors, wherein the chemical sensor element interfaces with a breath sample collected through the breath sampling mask; wherein the breath sampling mask comprises a nose clip for helping to secure the breath sampling mask to the face of a patient and an additional sensor connected to the nose clip. a breath sampling mask comprising a mask housing configured to cover a portion of the face of a patient, the mask housing defining a breath receiving chamber; and a chemical sensor element in fluid communication with the breath sampling mask, the chemical sensor element comprising a plurality of discrete binding detectors comprising graphene varactors, wherein the chemical sensor element interfaces with a breath sample collected through the breath sampling mask; wherein the breath sampling mask comprises a nose clip for helping to secure the breath sampling mask to the face of a patient and an additional sensor connected to the nose clip.