mhurhangee/ep-ind-claims huggingface dataset:
Hazard detector configured to be connected with a central monitoring unit; the hazard detector comprising: a detection means for detecting a hazard condition; a first communication means for communicating with the central monitoring unit; a second communication means for communicating with a test device; wherein the second communication means is a bi-directional communication means allowing receiving and transmitting of signals from and to the test device; wherein the hazard detector is configured to receive a test mode switching signal from the test device; transmit an ID-information and a first test mode confirmation signal to the central monitoring unit; receive a first acknowledgment signal from the central monitoring unit indicating that the central monitoring unit is now ready for a test event of this hazard detector; transmit a second test mode confirmation signal to the test device; transmit a detection result signal to the central monitoring unit; receive a second acknowledgment signal from the central monitoring unit; and output a test completion signal; wherein the test completion signal comprises ID-information allowing to identify the hazard detector and information indicating the success or failure of the test to the test device. a detection means for detecting a hazard condition; a first communication means for communicating with the central monitoring unit; a second communication means for communicating with a test device; wherein the second communication means is a bi-directional communication means allowing receiving and transmitting of signals from and to the test device; wherein the hazard detector is configured to receive a test mode switching signal from the test device; transmit an ID-information and a first test mode confirmation signal to the central monitoring unit; receive a first acknowledgment signal from the central monitoring unit indicating that the central monitoring unit is now ready for a test event of this hazard detector; transmit a second test mode confirmation signal to the test device; transmit a detection result signal to the central monitoring unit; receive a second acknowledgment signal from the central monitoring unit; and output a test completion signal; wherein the test completion signal comprises ID-information allowing to identify the hazard detector and information indicating the success or failure of the test to the test device.
Continuous casting installation for casting a metal strand having a billet or bloom cross section, comprising an exchangeable and oscillating mold, which can be inserted in a mold support frame, for forming a metal strand, and a strand guide, which follows the mold, for supporting and guiding the metal strand, wherein the strand guide comprises two or a plurality of strand guide segments (3a, 3b, 3c, 3d, 3e, 4) and each strand guide segment is supported via a segment support frame (7, 8) in the installation support framework of the continuous casting installation, and a first segment support frame which follows directly in the strand guide of the mold supports at least two strand guide segments (3a, 3b, 3c, 3d, 3e, 4), characterized in that the first strand guide segment (3a, 3d) which directly follows the mold is secured releasably on the first segment support frame on support surfaces oriented parallel to the strand conveying direction, and is configured such that it can be removed from and installed in the continuous casting installation independently of the following strand guide segments (3b, 3c or 3e), in that at least the last strand guide segment (3c, 3e) supported on the first segment support frame forms a fixed or releasable structural unit with the segment support frame, wherein the structural unit is configured such that it can be removed from and installed in the continuous casting installation, and in that the first strand guide segment (3a, 3d) is either configured such that, after removal of the mold and after the release of fastening devices, it can be removed vertically upward through the mold chamber which occupies the mold or, after the release of fastening devices, can be removed vertically upward.
An engine oil damper comprising: a bearing support; and a housing radially outward from the bearing support and co-axial with the bearing support; wherein at least one oil flow restrictor is formed by at least one of the bearing support and the housing, characterised in that: the at least one oil flow restrictor is configured to at least partially interrupt a flow of oil in an annulus radially defined between the bearing support and the housing; and the at least one oil flow restrictor includes a plurality of oil flow restrictors, wherein the plurality of oil flow restrictors includes at least three oil flow restrictors, and a first spacing between the first and second oil flow restrictors is different from a second spacing between the second and third oil flow restrictors. a bearing support; and a housing radially outward from the bearing support and co-axial with the bearing support; wherein at least one oil flow restrictor is formed by at least one of the bearing support and the housing, characterised in that: the at least one oil flow restrictor is configured to at least partially interrupt a flow of oil in an annulus radially defined between the bearing support and the housing; and the at least one oil flow restrictor includes a plurality of oil flow restrictors, wherein the plurality of oil flow restrictors includes at least three oil flow restrictors, and a first spacing between the first and second oil flow restrictors is different from a second spacing between the second and third oil flow restrictors. the at least one oil flow restrictor is configured to at least partially interrupt a flow of oil in an annulus radially defined between the bearing support and the housing; and the at least one oil flow restrictor includes a plurality of oil flow restrictors, wherein the plurality of oil flow restrictors includes at least three oil flow restrictors, and a first spacing between the first and second oil flow restrictors is different from a second spacing between the second and third oil flow restrictors.
A method for wireless communications in a first apparatus, comprising: a first wireless interface and a second wireless interface for communicating with a second apparatus; the first apparatus entering (200, 202, 302) a first power savings mode for the first wireless interface configured to support communications within a first coverage area, wherein entering the first power savings mode is based on a time period of inactivity of the first wireless interface; the first apparatus providing an indication to the second apparatus that the first power savings mode will be entered, wherein the indication is provided using one of the first and second wireless interfaces; the first apparatus receiving communication from the second apparatus using the second wireless interface configured to support communications within a second coverage area greater than the first coverage area, wherein the communication from the second apparatus causes the first apparatus to exit (204, 206, 306) the first power savings mode for the first wireless interface and to communicate with the second apparatus using the first wireless interface. a first wireless interface and a second wireless interface for communicating with a second apparatus; the first apparatus entering (200, 202, 302) a first power savings mode for the first wireless interface configured to support communications within a first coverage area, wherein entering the first power savings mode is based on a time period of inactivity of the first wireless interface; the first apparatus providing an indication to the second apparatus that the first power savings mode will be entered, wherein the indication is provided using one of the first and second wireless interfaces; the first apparatus receiving communication from the second apparatus using the second wireless interface configured to support communications within a second coverage area greater than the first coverage area, wherein the communication from the second apparatus causes the first apparatus to exit (204, 206, 306) the first power savings mode for the first wireless interface and to communicate with the second apparatus using the first wireless interface.
An access method of multiple internal registers of a server, comprising: - a transmission of access commands from a user external to the server to a service processor of the server, via a communication protocol, IPMI, directly comprehensible by said service processor, - an access of said service processor, to said internal registers, via one or more access protocols (61 to 63) to said internal registers, - an automatic transformation of command lines transmitted by said user into said access commands in said communication protocol, IPMI, by one or more service modules, the language of said command lines being of a higher level than said communication protocol, IPMI, said service module or modules associating, to the names of said internal registers contained in said command lines, at least the corresponding addresses of said internal registers, in said access commands, characterized in that, upon said access of said service processor to said internal registers, controlled by said user, a possible risk of collision with a monitoring access, to said internal registers, controlled directly by said service processor in order to update a copy of the status of said internal registers, is managed by said service processor, the implementation of said monitoring access comprises at least the sequence of a reconfiguration step of a multiplexer located between the service processor and said internal registers and a step of reading at least one of said internal registers, and said risk of collision is avoided by putting on hold said access controlled by said user during all the implementation steps of said monitoring access which will be uninterrupted. - a transmission of access commands from a user external to the server to a service processor of the server, via a communication protocol, IPMI, directly comprehensible by said service processor, - an access of said service processor, to said internal registers, via one or more access protocols (61 to 63) to said internal registers, - an automatic transformation of command lines transmitted by said user into said access commands in said communication protocol, IPMI, by one or more service modules, the language of said command lines being of a higher level than said communication protocol, IPMI, said service module or modules associating, to the names of said internal registers contained in said command lines, at least the corresponding addresses of said internal registers, in said access commands,
French drain half-element, comprising a base grate and a plurality of columns, which are connected to the base grate, project approximately perpendicularly away from the base grate, and each have, at the end opposite the base grate, a surface, on which there is arranged in each case either a first connection element or a second connection element, wherein the first connection element comprises a protrusion protruding from the surface, on which protrusion there is formed an outer contact face on the portion of the protrusion adjacent to the surface, and wherein on the second connection element there is formed an inner contact face disposed approximately perpendicularly to the surface, wherein the first connection element and the second connection element c, at least in portions, a mutually complementary form, wherein, to join together two French drain half-elements, the first and second connection elements are each configured such that they can be plugged together, wherein, on the second connection element on the inner contact face disposed approximately perpendicularly to the surface, there is formed an insertion bevel, which adjoins the inner contact face in the direction of the base grate and which is inclined relative to the surface and is delimited by an edge of a receiving opening, characterised in that a detent protrusion is formed on the protrusion, and in that at least one mating protrusion or at least one mating receptacle is formed on each of the surfaces of the columns.
A progressive ophthalmic lens comprising a front surface and a rear surface, each surface having in each point an altitude (z), a mean sphere value (SPH mean) and a cylinder value, at least one surface comprising two micro-markings and a central point located at the center of a segment linking the two micro-markings, wherein the central portion of the lens is a circle of 40 mm diameter centered on the central point, the front surface of the lens comprising: - a far vision zone having a far vision reference point; - a near vision zone having a near vision reference point; - a main meridian, wherein the front surface is regressive and has: - a sphere gradient (GradSPH) normalized value of less than 7.50.10 -1 mm -1 at any point in the central portion of the lens including a portion of the main meridian, the far vision reference point and the near vision reference point, wherein the normalization factor is equal to the maximum value of the addition of the surface; - a cylinder gradient (GradCYL) normalized value of less than 1.45 mm -1 at any point in the central portion of the lens, wherein the normalization factor is equal to the maximum value of the addition of the surface. - a far vision zone having a far vision reference point; - a near vision zone having a near vision reference point; - a main meridian, - a sphere gradient (GradSPH) normalized value of less than 7.50.10 -1 mm -1 at any point in the central portion of the lens including a portion of the main meridian, the far vision reference point and the near vision reference point, wherein the normalization factor is equal to the maximum value of the addition of the surface; - a cylinder gradient (GradCYL) normalized value of less than 1.45 mm -1 at any point in the central portion of the lens, wherein the normalization factor is equal to the maximum value of the addition of the surface.
A single-chamber furnace for fuming at least one evaporable metal or metal compound from a metallurgical charge comprising a bath furnace susceptible to contain a molten charge up to a determined level, whereby the furnace is equipped with at least one nontransferred plasma torch for the generation of plasma-quality first hot gases and with at least one first submerged injector for injecting the first hot gases from the plasma torch below the determined level, whereby the furnace is further comprising an afterburning zone for oxidising the at least one evaporable metal or metal compound in the fuming gas, downstream of the furnace top, to form an oxidised form of the at least one evaporable metal or metal compound, a cooling zone for cooling the gas that is formed in the afterburning zone, and a recovery zone, downstream of the cooling zone, for recovering the oxidized form of the at least one evaporable metal or metal compound from the gas formed in the afterburning zone and cooled in the cooling zone, characterized in that the furnace is further equipped with at least one second submerged injector different from the first submerged injector for injecting extra gas into the furnace below the determined level.
Textile metallized on at least one of its faces comprising a textile layer of inorganic fibers and a metallic layer, characterized in that the connection between the textile layer and the metallic layer is provided by a polymeric intermediate layer formed by a matrix having at least one coupling polymer in which at least one flame retardant agent is distributed, said coupling polymer being bonded by chemical bonds on the one hand to the textile layer and on the other hand to the metallic layer.
A protection circuit for protecting against overheating of the stator windings (U, V, W) of an EC motor which are connected with a semiconducting output stage, which are configured with a driver circuit from an electronic commutation controller for temporally offset triggering of the stator windings (U, V, W) of the motor for the purpose of the generation of a magnetic rotating field, characterized in that the protection circuit is configured with two redundant sensor circuits (10, 20), wherein two resistance- and winding temperature-dependent sensor elements (11, 12) connected in series in the first sensor circuit and one resistance- and winding temperature-dependent sensor element in the second sensor circuit are provided, wherein the first and second sensor circuits are each connected with two first and second evaluation circuits (30, 31 or 40, 41, respectively), each separated from one another, which effect an interruption of the driver circuit when reaching a system-specific threshold resistance value of the respective sensor element (11, 12 or 21, respectively) associated with the sensor circuit to thereby switch off the current to the stator windings (U, V, W) of the motor.
Unlocking unit for unlocking an openable closure element of a vehicle, comprising a housing, which has a switching unit, and an actuating element which can be pivoted with respect to the housing and can be pivoted with respect to the switching unit out of a non-actuated rest position into at least two actuating positions (1, 2), characterized in that the switching unit is arranged in the housing and can be arranged reversibly in at least two different switching point positions (a), b)) with respect to the housing, as a result of which the pivotable actuating element of the unlocking unit can be assigned different triggering switching points in a manner which is dependent on a switching angle (α, β) of the actuating element which can be pivoted out of the rest position.
1. A system in a vehicle comprising: an in-vehicle network including an interface port for connecting an external device or system to the in-vehicle network; and a security unit connected to the in-vehicle network, the security unit adapted to receive from the external device a vehicle specific security token based on a unique identification of the vehicle generated based on an interaction of a user with a system, and to enable the external device to communicate with the in-vehicle network, over the interface port, based on said vehicle specific security token. an in-vehicle network including an interface port for connecting an external device or system to the in-vehicle network; and a security unit connected to the in-vehicle network, the security unit adapted to receive from the external device a vehicle specific security token based on a unique identification of the vehicle generated based on an interaction of a user with a system, and to enable the external device to communicate with the in-vehicle network, over the interface port, based on said vehicle specific security token.
A DC-AC inverter for converting a DC power input to an AC power output for supplying AC power to an electric utility grid, the inverter comprising: an input for connection to a DC power source; an output (104, 304, 404) including a first output terminal (106, 206, 306, 406) and a second output terminal (108, 208, 308, 408); a first buck converter coupled between the input and the output and including a first power switch; a second buck converter coupled between the input and the output and including a second power switch; a first grounding switch; a second grounding switch; and a controller for alternately operating the first buck converter and the second buck converter to produce AC power at the output, characterized by the controller being configured to couple the first output terminal to a reference voltage via the first grounding switch when operating the second buck converter, and to couple the second output terminal to the reference voltage via the second grounding switch when operating the first buck converter, by switching the first and second grounding switches at a line frequency of the electric utility grid and switching the first and second power switches of the first and second buck converters at frequencies higher than the line frequency. an input for connection to a DC power source; an output (104, 304, 404) including a first output terminal (106, 206, 306, 406) and a second output terminal (108, 208, 308, 408); a first buck converter coupled between the input and the output and including a first power switch; a second buck converter coupled between the input and the output and including a second power switch; a first grounding switch; a second grounding switch; and a controller for alternately operating the first buck converter and the second buck converter to produce AC power at the output, characterized by the controller being configured to couple the first output terminal to a reference voltage via the first grounding switch when operating the second buck converter, and to couple the second output terminal to the reference voltage via the second grounding switch when operating the first buck converter, by switching the first and second grounding switches at a line frequency of the electric utility grid and switching the first and second power switches of the first and second buck converters at frequencies higher than the line frequency.
A method to monitor fluid flow through a catheter assembly, the method comprising: providing a clamp comprising: an open position and a closed position, wherein the open position permits a fluid to flow through an extension tube positioned within the clamp, and wherein the closed position prevents a fluid from flowing through an extension tube positioned within the clamp; a clamping surface in which is embedded an acoustic sensor, wherein the acoustic sensor is configured to contact an extension tube of a catheter assembly when the clamp is in either the closed or open positions, and, to detect whether a fluid is flowing through an extension tube positioned within the clamp, wherein the clamp and the acoustic sensor are disposed outside of the extension tube; and detecting, via the acoustic sensor, a fluid flowing through the extension tube. an open position and a closed position, wherein the open position permits a fluid to flow through an extension tube positioned within the clamp, and wherein the closed position prevents a fluid from flowing through an extension tube positioned within the clamp; a clamping surface in which is embedded an acoustic sensor, wherein the acoustic sensor is configured to contact an extension tube of a catheter assembly when the clamp is in either the closed or open positions, and, to detect whether a fluid is flowing through an extension tube positioned within the clamp, wherein the clamp and the acoustic sensor are disposed outside of the extension tube; and detecting, via the acoustic sensor, a fluid flowing through the extension tube.