mhurhangee/ep-ind-claims huggingface dataset:
A wind turbine generator comprising: a brake mechanism including a brake disk provided in a drive system that transmits rotation from a rotor head to a generator; a lock mechanism that fixes the rotor head by inserting a lock pin into a lock pin hole provided in the brake disk; a turning mechanism that rotates the rotor head; a control unit that controls the operation of at least the brake mechanism, the lock mechanism and the turning mechanism; a remote operation unit that outputs to the control unit a command to lock the rotor head by means of the lock mechanism; and a lock pin hole position monitoring device that detects or estimates the current position of the lock pin hole, which is used to determine whether or not the lock pin can be inserted, and that inputs this position to the control unit, characterized in that the lock mechanism includes a drive mechanism that allows the lock pin to project or retreat in an axial direction of the lock pin, and includes a non-lock position where a tip of the lock pin is at a position apart from a surface of the brake disk, an insertion preparation position where the tip of the lock pin is made to abut against and is pressed against the surface of the brake disk at a position in the vicinity of a position just before a turning direction of the lock pin hole, and a lock position where the lock pin is inserted into and fixed to the lock pin hole rotationally moved to a predetermined insertion position by actuating the turning mechanism. a brake mechanism including a brake disk provided in a drive system that transmits rotation from a rotor head to a generator; a lock mechanism that fixes the rotor head by inserting a lock pin into a lock pin hole provided in the brake disk; a turning mechanism that rotates the rotor head; a control unit that controls the operation of at least the brake mechanism, the lock mechanism and the turning mechanism; a remote operation unit that outputs to the control unit a command to lock the rotor head by means of the lock mechanism; and a lock pin hole position monitoring device that detects or estimates the current position of the lock pin hole, which is used to determine whether or not the lock pin can be inserted, and that inputs this position to the control unit,
A fuel tank structure comprising: a fuel tank main body that accommodates fuel; a separator that is disposed at an interior of the fuel tank main body, and that is for reducing flow noise of the fuel; fixed portions that are provided at the separator, and that are fixed at two or more places to an inner wall of the fuel tank main body; and deformation portions that are formed between the fixed portions at the separator, and that allow deformation of the separator, characterized in that the separator includes an outer side wall portion that is disposed along the vertical direction at the tank outer side; a top surface portion that extends from the upper end portion of the outer side wall portion; and an inner side vertical wall portion that extends toward the lower side from the tank inner side end portion of the top surface portion, and at least one deformation portion is formed so as to extend over the outer side wall portion, the top surface portion and the inner side vertical wall portion of the separator. a fuel tank main body that accommodates fuel; a separator that is disposed at an interior of the fuel tank main body, and that is for reducing flow noise of the fuel; fixed portions that are provided at the separator, and that are fixed at two or more places to an inner wall of the fuel tank main body; and deformation portions that are formed between the fixed portions at the separator, and that allow deformation of the separator, characterized in that the separator includes an outer side wall portion that is disposed along the vertical direction at the tank outer side; a top surface portion that extends from the upper end portion of the outer side wall portion; and an inner side vertical wall portion that extends toward the lower side from the tank inner side end portion of the top surface portion, and at least one deformation portion is formed so as to extend over the outer side wall portion, the top surface portion and the inner side vertical wall portion of the separator.
System for managing workflow of a medical procedure comprising: a processor; a database storing clinical information; at least one display monitor able to display the clinical information; software executing on said processor for displaying a subset of the clinical information on said at least one display monitor; and at least one medical device, characterized in that the at least one medical device is a camera head of an endoscope, the system is adapted such that, during the medical procedure, use of the at least one medical device at least partially determines a stage of the medical procedure and the subset of clinical information that is displayed on the at least one display monitor, and the at least one medical device includes a camera head button, wherein the camera head button is adapted to be automatically reprogrammed to perform a different task during different stages of the multi-stage medical procedure, wherein a first stage of the medical procedure is detected by recognizing, via an image recognition module, that the endoscope is approaching a trocar, and a second stage of the medical procedure is detected by recognizing that the endoscope is inserted into the trocar, and wherein, when detecting the first stage, the camera head button is programmed to perform a first task, and, when detecting the second stage, the camera head button is programmed to perform a second task different from the first task. a processor; a database storing clinical information; at least one display monitor able to display the clinical information; software executing on said processor for displaying a subset of the clinical information on said at least one display monitor; and at least one medical device, characterized in that the at least one medical device is a camera head of an endoscope, the system is adapted such that, during the medical procedure, use of the at least one medical device at least partially determines a stage of the medical procedure and the subset of clinical information that is displayed on the at least one display monitor, and the at least one medical device includes a camera head button, wherein the camera head button is adapted to be automatically reprogrammed to perform a different task during different stages of the multi-stage medical procedure, wherein a first stage of the medical procedure is detected by recognizing, via an image recognition module, that the endoscope is approaching a trocar, and a second stage of the medical procedure is detected by recognizing that the endoscope is inserted into the trocar, and wherein, when detecting the first stage, the camera head button is programmed to perform a first task, and, when detecting the second stage, the camera head button is programmed to perform a second task different from the first task.
A microphone comprising: a housing for receiving vibration signals; a converting component inside the housing for converting the vibration signals into electrical signals, wherein the converting component includes: a transducer; and at least one damping film attached to the transducer; and a processing circuit for processing the electrical signals; characterized in that the converting component further includes: at least two elastic elements, wherein the at least one damping film is connected to the transducer and the at least two elastic elements respectively, to transmit vibrations of the at least two elastic elements to the transducer, wherein a resonance frequency of each of the at least two elastic elements is different from each other and is within a predetermined voice frequency range. a housing for receiving vibration signals; a converting component inside the housing for converting the vibration signals into electrical signals, wherein the converting component includes: a transducer; and at least one damping film attached to the transducer; and a processing circuit for processing the electrical signals; characterized in that the converting component further includes: at least two elastic elements, wherein the at least one damping film is connected to the transducer and the at least two elastic elements respectively, to transmit vibrations of the at least two elastic elements to the transducer, wherein a transducer; and at least one damping film attached to the transducer; and a processing circuit for processing the electrical signals; characterized in that the converting component further includes: at least two elastic elements, wherein the at least one damping film is connected to the transducer and the at least two elastic elements respectively, to transmit vibrations of the at least two elastic elements to the transducer, wherein a resonance frequency of each of the at least two elastic elements is different from each other and is within a predetermined voice frequency range.
Polymer-concentrated binder comprising at least 70% by weight of an aromatic soft petroleum base, optionally a bituminous base, and at least one polymer, characterized in that the content of polymer in the concentrated binder is greater than or equal to 20% by weight, preferably greater than or equal to 25% by weight, and in that the aromatic soft petroleum base comprises one or more aromatic petroleum cuts originating from the dearomatization of petroleum cuts resulting from the refining of crude oil and/or originating from the dearomatization of lubricating bases.
An RFID tag (10; 22 a-d; 32; 38; 44 a-d; 48; 60; 78 a-b; 96), comprising: an RFID chip (12; 72 a-c; 80 a-b); an antenna (14; 76; 82 a-b) electrically connected to the RFID chip (12; 72 a-c; 80 a-b); and an interactive switch (16; 74 a-c; 84 a-b) electrically connected to the RFID chip (12; 72 a-c; 80 a-b), wherein the antenna (14; 76; 82 a-b) is configured to return a modified signal to an RFID reader (18; 30; 36; 42; 54; 58; 64; 92) when a user physically interacts with the interactive switch (16; 74 a-c; 84 a-b); characterized in that the interactive switch is adapted to detect the interaction with the user by detecting a high frequency, HF, or an ultra high frequency, UHF, electromagnetic emission. an RFID chip (12; 72 a-c; 80 a-b); an antenna (14; 76; 82 a-b) electrically connected to the RFID chip (12; 72 a-c; 80 a-b); and an interactive switch (16; 74 a-c; 84 a-b) electrically connected to the RFID chip (12; 72 a-c; 80 a-b), wherein the antenna (14; 76; 82 a-b) is configured to return a modified signal to an RFID reader (18; 30; 36; 42; 54; 58; 64; 92) when a user physically interacts with the interactive switch (16; 74 a-c; 84 a-b); characterized in that the interactive switch is adapted to detect the interaction with the user by detecting a high frequency, HF, or an ultra high frequency, UHF, electromagnetic emission.
A method in a radio network node adapted to serve a carrier aggregation capable wireless terminal, the method comprising: determining a scheduling instance during which the wireless terminal is expected to be scheduled on at least one cell; and determining, based on the scheduling instance, a timing at which to send a setup command or a release command for a secondary cell, such that a corresponding setup procedure or release procedure does not coincide with the scheduling instance. determining a scheduling instance during which the wireless terminal is expected to be scheduled on at least one cell; and determining, based on the scheduling instance, a timing at which to send a setup command or a release command for a secondary cell, such that a corresponding setup procedure or release procedure does not coincide with the scheduling instance.
A top patch configured to be attached to a smooth aluminum sheet of an energy-storage apparatus, wherein the top patch defines a first terminal through-hole and a first hole spaced apart from the first terminal through-hole in a length direction of the top patch, the first hole comprises two side walls arranged opposite to each other in a width direction of the top patch, each of the two side walls is provided with an extension bump, the first hole at one side of the extension bump forms a first explosion-proof valve through-hole, the first hole at the other side of the extension bump forms a second terminal through-hole, the top patch further comprises a connecting surface configured to be connected to the smooth aluminum sheet, each of a hole wall of the first terminal through-hole, a hole wall of the second terminal through-hole, and a hole wall of the first explosion-proof valve through-hole is arranged obliquely relative to the connecting surface, and an angle at which each of the hole wall of the first terminal through-hole, the hole wall of the second terminal through-hole, and the hole wall of the first explosion-proof valve through-hole is inclined relative to the connecting surface ranges from 25 degrees to 85 degrees.
A straddled vehicle, comprising: a body frame; an engine; a throttle device configured to control an intake air amount of the engine; an ignition device including a spark plug, a plug cord connected to the spark plug, and an ignition coil connected to the plug cord; and a supporting portion, the engine including: a cylinder member having a cylinder bore centering on a cylinder axis; a cylinder head; and a head cover, the throttle device including: a throttle valve; and the spark plug being attached to the cylinder head, the ignition coil including: a casing; a secondary terminal attached to the casing and connected to the plug cord; and a flange attached to the casing and connected to the supporting portion; at least part of the ignition coil being located in front of the cylinder axis in side view of the straddled vehicle, characterized in that said engine is fixed to said body frame; said supporting portion being configured to support the ignition coil and supported by the head cover; said head cover being provided above said cylinder head; said cylinder head being provided above the cylinder member; said throttle device being located behind the cylinder head; said supporting portion electrically connecting said head cover to said flange; said straddle vehicle further comprising a magnetic sensor configured to detect a position of the throttle valve. a body frame; an engine; a throttle device configured to control an intake air amount of the engine; an ignition device including a spark plug, a plug cord connected to the spark plug, and an ignition coil connected to the plug cord; and a supporting portion, the engine including: a cylinder member having a cylinder bore centering on a cylinder axis; a cylinder head; and a head cover, a cylinder member having a cylinder bore centering on a cylinder axis; a cylinder head; and a head cover, the throttle device including: a throttle valve; and the spark plug being attached to the cylinder head, the ignition coil including: a casing; a secondary terminal attached to the casing and connected to the plug cord; and a flange attached to the casing and connected to the supporting portion; a casing; a secondary terminal attached to the casing and connected to the plug cord; and a flange attached to the casing and connected to the supporting portion; at least part of the ignition coil being located in front of the cylinder axis in side view of the straddled vehicle, said cylinder head being provided above the cylinder member; said throttle device being located behind the cylinder head; said supporting portion electrically connecting said head cover to said flange; said straddle vehicle further comprising a magnetic sensor configured to detect a position of the throttle valve.
An electronic display device comprising: at least one display element (130; 230) having a display surface; and a cover plate (100; 200) having at least one transparent display region, characterized in that the cover plate (100; 200) comprises a glass layer (120; 220a, 220b) having a refractive index n g and one or more free standing sapphire layers (110; 210) having a refractive index n s, wherein (n s - n g) is not more than 0.05, wherein the cover plate (100; 200) is affixed to the display surface, and wherein the sapphire layer (110; 210) has a back surface, and the glass layer (120; 220a, 220b) is directly coated to the back surface of the sapphire layer (110; 210). at least one display element (130; 230) having a display surface; and a cover plate (100; 200) having at least one transparent display region, characterized in that the cover plate (100; 200) comprises a glass layer (120; 220a, 220b) having a refractive index n g and one or more free standing sapphire layers (110; 210) having a refractive index n s, wherein (n s - n g) is not more than 0.05, wherein the cover plate (100; 200) is affixed to the display surface, and wherein the sapphire layer (110; 210) has a back surface, and the glass layer (120; 220a, 220b) is directly coated to the back surface of the sapphire layer (110; 210).
Deflection unit for changing the direction of a coolant flow, comprising a coolant inlet, a coolant outlet and a multiple line system comprising at least one blade element for separating the coolant flow into at least two partial flows and subsequently combining the partial flows, characterized in that the blade element forms a blade shape by means of two blade arms and a blade base which connects the said blade arms, and a sum of the respectively largest throughflow cross sections of the partial flows at the blade base is larger than two times, three times, four times or five times the throughflow cross sections of the coolant inlet or of the coolant outlet.
Method for producing spacers from a bone cement, comprising the following chronological steps: A) controlling the temperature of a casting mould by means of a tempering device to a first temperature; B) filling a cement dough, which has a temperature that is lower than the temperature of the temperature-controlled casting mould, into the temperature-controlled casting mould; C) allowing the cement dough to cure in the casting mould to form a spacer; and D) separating the casting mould from the spacer after the spacer is cured. A) controlling the temperature of a casting mould by means of a tempering device to a first temperature; B) filling a cement dough, which has a temperature that is lower than the temperature of the temperature-controlled casting mould, into the temperature-controlled casting mould; C) allowing the cement dough to cure in the casting mould to form a spacer; and D) separating the casting mould from the spacer after the spacer is cured.
Display device (1; 101) comprising: an imaging plane (2; 103) configured to controllably display an image, a backplane located behind the imaging plane (2; 103), a number of sound actuators (4; 104, 105) configured to produce vibrations based on a driving signal, and at least one mechanical coupling element for every sound actuator (4; 104, 105) configured to mechanically couple the imaging plane (2; 103) through the backplane with the sound actuators (4; 104, 105); wherein the mechanical coupling elements each comprise a number of support rods (306-1 to 306-3), which on one end couple to the respective sound actuator (4; 104, 105) and on the other end couple to the imaging plane (2; 103); wherein the backplane comprises holes (8-1 to 8-3) for the support rods (306-1 to 306-3) which have an inner contour which is spaced apart by a predetermined distance from the outer contour of the support rods (306-1 to 306-3). an imaging plane (2; 103) configured to controllably display an image, a backplane located behind the imaging plane (2; 103), a number of sound actuators (4; 104, 105) configured to produce vibrations based on a driving signal, and at least one mechanical coupling element for every sound actuator (4; 104, 105) configured to mechanically couple the imaging plane (2; 103) through the backplane with the sound actuators (4; 104, 105); wherein the mechanical coupling elements each comprise a number of support rods (306-1 to 306-3), which on one end couple to the respective sound actuator (4; 104, 105) and on the other end couple to the imaging plane (2; 103); wherein the backplane comprises holes (8-1 to 8-3) for the support rods (306-1 to 306-3) which have an inner contour which is spaced apart by a predetermined distance from the outer contour of the support rods (306-1 to 306-3).
Method for determining an analyte, comprising the steps of: (a) providing a test element, comprising (i) a first region which is adapted to receive eluent, (ii) a second region which is adapted for applying a sample containing the analyte, and comprises an analyte specific binding partner, (iii) a third region which is adapted for the optical detection of the analyte, (iv) a fourth region which is adapted for absorbing excess ofeluent, and (v) optionally a housing, (b) receiving a sample containing the analyte of a sample surface with a wiping element, (c) contacting the wiping element with the second region of the test element for a period of at least 10 seconds, at least a portion of the sample from the wiping element being transferred to the test element, and an incubation of the analyte with the analyte specific binding partner occurs, (d) contacting the first region of the incubated test element with an eluent, and (e) determining the presence and/or amount of the analyte, wherein the test element and/or the wiping element comprises an analyte-transfer agent containing at least one analyte specific substance selected from the group consisting of a protein, a protein mixture, a carbohydrate and a sugar alcohol. (a) providing a test element, comprising (i) a first region which is adapted to receive eluent, (ii) a second region which is adapted for applying a sample containing the analyte, and comprises an analyte specific binding partner, (iii) a third region which is adapted for the optical detection of the analyte, (iv) a fourth region which is adapted for absorbing excess ofeluent, and (v) optionally a housing, (i) a first region which is adapted to receive eluent, (ii) a second region which is adapted for applying a sample containing the analyte, and comprises an analyte specific binding partner, (iii) a third region which is adapted for the optical detection of the analyte, (iv) a fourth region which is adapted for absorbing excess ofeluent, and (v) optionally a housing, (b) receiving a sample containing the analyte of a sample surface with a wiping element, (c) contacting the wiping element with the second region of the test element for a period of at least 10 seconds, at least a portion of the sample from the wiping element being transferred to the test element, and an incubation of the analyte with the analyte specific binding partner occurs, (d) contacting the first region of the incubated test element with an eluent, and (e) determining the presence and/or amount of the analyte,