mhurhangee/ep-ind-claims huggingface dataset:
A tile panel support structure for attaching a large tile panel to a building wall by a dry method, comprising: a horizontal elongated frame member extending in the crosswise direction that is intermittently fixed to the front face of the wall material in multiple positions from top to bottom; a vertical elongated frame member extending vertically which is fixed to the left and right ends and the center of the rear face of said tile panel so that it can be hung on said horizontal elongated frame member; a supporting bracket fixed to either or both of the uppermost- and lowermost-positioned said horizontal elongated frame member s at the position where at least said vertical elongated frame member is fixed; a load-bearing bracket fixed to said vertical elongated frame member positioned in the center of positions where said uppermost-positioned horizontal elongated frame member is fixed; wherein said supporting bracket supports said vertical elongated frame member so that said tile panel will not horizontally deviate; and said load-bearing bracket is positioned on said horizontal elongated frame member, wherein a downward-convex shaped lug part of said load-bearing bracket rests on said horizontal elongated frame member to bear the weight of said tile panel at one point. a horizontal elongated frame member extending in the crosswise direction that is intermittently fixed to the front face of the wall material in multiple positions from top to bottom; a vertical elongated frame member extending vertically which is fixed to the left and right ends and the center of the rear face of said tile panel so that it can be hung on said horizontal elongated frame member; a supporting bracket fixed to either or both of the uppermost- and lowermost-positioned said horizontal elongated frame member s at the position where at least said vertical elongated frame member is fixed; a load-bearing bracket fixed to said vertical elongated frame member positioned in the center of positions where said uppermost-positioned horizontal elongated frame member is fixed; wherein said supporting bracket supports said vertical elongated frame member so that said tile panel will not horizontally deviate; and said load-bearing bracket is positioned on said horizontal elongated frame member, wherein a downward-convex shaped lug part of said load-bearing bracket rests on said horizontal elongated frame member to bear the weight of said tile panel at one point.
A method of performing a fit test on an actuator unit coupled to a user, the method comprising: determining a first configuration of the actuator unit while the actuator unit is in an un-actuating state and while the user is in a fit test position; actuating the actuator unit by increasing a force applied to the actuator unit until a maximum torque threshold is reached; determining a second configuration of a portion (115, 120, 125) of the actuator unit generated in response to the actuating of the actuator unit; determining a displacement of the portion of the actuator unit based at least in part on the difference between the first configuration and the second configuration; and determining, if the displacement is at or above a defined threshold, then the displacement corresponds to an improper fit of the actuator unit to the user. determining a first configuration of the actuator unit while the actuator unit is in an un-actuating state and while the user is in a fit test position; actuating the actuator unit by increasing a force applied to the actuator unit until a maximum torque threshold is reached; determining a second configuration of a portion (115, 120, 125) of the actuator unit generated in response to the actuating of the actuator unit; determining a displacement of the portion of the actuator unit based at least in part on the difference between the first configuration and the second configuration; and determining, if the displacement is at or above a defined threshold, then the displacement corresponds to an improper fit of the actuator unit to the user.
DC traction sub-station for supplying at least one vehicle, preferentially a railway vehicle, with a direct current, DC, comprising: a first terminal adapted to connect DC traction sub-station to an alternating current, AC, electrical power grid; a second terminal adapted to connect DC traction sub-station to a power supply conductor in order to provide driving current to the at least one vehicle or to receive regenerative braking current from the at least one vehicle; a third terminal adapted to be connected to an energy storage device for storing electrical energy; one or more first current supply chains electrically connecting the first terminal to the second terminal, wherein the first current supply chain comprising a first AC/DC converter; wherein the DC traction sub-station further comprises one or more second current supply chains electrically connecting the first terminal to the third terminal, wherein the second current supply chain comprising a second AC/DC converter, and wherein a DC/DC converter electrically connects, within the DC traction sub-station, the second terminal to the third terminal, characterized in that the DC/DC converter is connected to a first electrical connection between the first current supply chain and the second terminal on one side and to a second electrical connection between the second current supply chain and the third terminal at the other side, wherein the second AC/DC converter is a bidirectional AC/DC converter converting from an alternating current to a direct current and vice versa, and wherein the DC/DC converter is a bidirectional DC/DC converter. a first terminal adapted to connect DC traction sub-station to an alternating current, AC, electrical power grid; a second terminal adapted to connect DC traction sub-station to a power supply conductor in order to provide driving current to the at least one vehicle or to receive regenerative braking current from the at least one vehicle; a third terminal adapted to be connected to an energy storage device for storing electrical energy; one or more first current supply chains electrically connecting the first terminal to the second terminal, wherein the first current supply chain comprising a first AC/DC converter; wherein the DC traction sub-station further comprises one or more second current supply chains electrically connecting the first terminal to the third terminal, wherein the second current supply chain comprising a second AC/DC converter, and wherein a DC/DC converter electrically connects, within the DC traction sub-station, the second terminal to the third terminal, characterized in that the DC/DC converter is connected to a first electrical connection between the first current supply chain and the second terminal on one side and to a second electrical connection between the second current supply chain and the third terminal at the other side, wherein the second AC/DC converter is a bidirectional AC/DC converter converting from an alternating current to a direct current and vice versa, and wherein the DC/DC converter is a bidirectional DC/DC converter.
A method of controlling the pitch systems (2A, 2B, 2C) of a plurality of pitch systems (2A, 2B, 2C) of a wind turbine, which method comprises the steps of - generating a main pitch control signal for the pitch systems (2A, 2B, 2C) on the basis of a performance parameter of the wind turbine; - generating a distinct auxiliary pitch control signal (4A, 4B, 4C) for each individual pitch system (2A, 2B, 2C) of the plurality of pitch systems (2A, 2B, 2C); - adding an auxiliary pitch control signal (4A, 4B, 4C) to the main pitch control signal to give a combined pitch control signal (6A, 6B, 6C) for a pitch system (2A, 2B, 2C); and - controlling that pitch system (2A, 2B, 2C) in response to that combined pitch control signal (6A, 6B, 6C) characterized in that an auxiliary pitch control signal (4A, 4B, 4C) is suppressed when a pitch activity value and/or a pitch variation value is below a predefined threshold. - generating a main pitch control signal for the pitch systems (2A, 2B, 2C) on the basis of a performance parameter of the wind turbine; - generating a distinct auxiliary pitch control signal (4A, 4B, 4C) for each individual pitch system (2A, 2B, 2C) of the plurality of pitch systems (2A, 2B, 2C); - adding an auxiliary pitch control signal (4A, 4B, 4C) to the main pitch control signal to give a combined pitch control signal (6A, 6B, 6C) for a pitch system (2A, 2B, 2C); and - controlling that pitch system (2A, 2B, 2C) in response to that combined pitch control signal (6A, 6B, 6C) characterized in that an auxiliary pitch control signal (4A, 4B, 4C) is suppressed when a pitch activity value and/or a pitch variation value is below a predefined threshold.
A combination packaging container (2, 2'), comprising a cup-shaped inner container comprising a container jacket, a bottom and comprising a flange, which projects beyond the container jacket to the outside in the area of its open end, wherein the container jacket defines a longitudinal axis, which extends between the bottom and the open end, and at least one partial section of the bottom forms a contact surface, a sleeve-shaped outer part, which surrounds the inner container on the container jacket thereof, comprising end areas (11, 12), which are spaced apart from one another in the direction of the longitudinal axis, in the case of which the first end area faces the flange and the further end area faces the bottom of the inner container, wherein the container jacket and the sleeve-shaped outer part form a container wall, as well as first support means and further support means interacting therewith for nesting a plurality of similar combination packaging containers (2, 2') inside one another, wherein a stage, which returns to the longitudinal axis in radial direction and which is continuously circumferential, comprising a stage surface, which faces the bottom, is embodied in a transition section between the bottom and the container jacket, starting at the container jacket, wherein the stage surface is arranged at a distance from the contact surface, which is formed by the bottom, in the direction of the open end in axial direction and the further end area of the sleeve-shaped outer part ends in the area of the stage surface, characterized in that, in a section of the container wall of a bottom area, said combination packaging container (2, 2') has at least one constriction, which projects in the direction towards the longitudinal axis in a section of the container wall of the bottom area, wherein the constriction is embodied on the outer part as well as on the container jacket and that a first as well as a further wall section (24, 36) forms in each case between the constriction and the two end areas (11, 12), and the two wall sections (24, 36) are embodied so as to run approximately rectilinearly in the axial section, wherein the constriction forms the first support means and, with its front side, which faces the bottom, the further end area of the sleeve-shaped outer part forms the further support means.
Spray device for treating a cavity interior, in particular of internal cavity walls, comprising: a spray head which has a predetermined 3-dimensional geometry; and a treatment agent supply means for supplying a treatment agent to the spray head; the spray head having a plurality of treatment agent outlet openings (4, 5, 6) which are arranged and orientated in different spray directions in such a way that the 3-dimensional space in a predetermined region around the spray head can be sprayed with the treatment agent; the treatment agent supply means having at least two portions (13, 14), and these portions (13, 14) being formed rotatable with respect to one another about the longitudinal axis of the treatment agent supply means; at least one of the portions of the treatment agent supply means being connected to the spray head and having an actuation means which sets the spray head in rotation about the longitudinal axis of the treatment agent supply means, the actuation means being formed as a handle rigidly connected to the portion; and at least one of the portions being formed in such a way that the end of this portion remote from the spray head projects out of the region to be treated; characterised in that the treatment means outlet openings (4, 5, 6) of the spray head (7, 8, 9) are formed as nozzles of adjustable cross section and can selectively be deactivated. a spray head which has a predetermined 3-dimensional geometry; and a treatment agent supply means for supplying a treatment agent to the spray head; the spray head having a plurality of treatment agent outlet openings (4, 5, 6) which are arranged and orientated in different spray directions in such a way that the 3-dimensional space in a predetermined region around the spray head can be sprayed with the treatment agent; the treatment agent supply means having at least two portions (13, 14), and these portions (13, 14) being formed rotatable with respect to one another about the longitudinal axis of the treatment agent supply means; at least one of the portions of the treatment agent supply means being connected to the spray head and having an actuation means which sets the spray head in rotation about the longitudinal axis of the treatment agent supply means, the actuation means being formed as a handle rigidly connected to the portion; and at least one of the portions being formed in such a way that the end of this portion remote from the spray head projects out of the region to be treated; characterised in that the treatment means outlet openings (4, 5, 6) of the spray head (7, 8, 9) are formed as nozzles of adjustable cross section and can selectively be deactivated.
A vehicle lighting apparatus comprising: a light source device that includes a semiconductor laser which emits laser light and a wavelength conversion member which converts a wavelength of at least part of the laser light and that emits, from a light emission part, light from the wavelength conversion member; a reflection member that reflects light emitted from the light emission part of the light source device in a vehicle frontward direction as parallel light; a light shield member that blocks light which is emitted in the vehicle frontward direction from the light emission part and which is not incident on the reflection member; a light detection part that is arranged at a vehicle rearward position of the reflection member and detects part of the light emitted from the light emission part; and a heat release member that releases heat generated from the light source device, wherein the light detection part is supported at a vehicle rearward position of the reflection member in the heat release member. a light source device that includes a semiconductor laser which emits laser light and a wavelength conversion member which converts a wavelength of at least part of the laser light and that emits, from a light emission part, light from the wavelength conversion member; a reflection member that reflects light emitted from the light emission part of the light source device in a vehicle frontward direction as parallel light; a light shield member that blocks light which is emitted in the vehicle frontward direction from the light emission part and which is not incident on the reflection member; a light detection part that is arranged at a vehicle rearward position of the reflection member and detects part of the light emitted from the light emission part; and a heat release member that releases heat generated from the light source device, wherein the light detection part is supported at a vehicle rearward position of the reflection member in the heat release member.
A display panel, comprising: a base substrate including a first surface and a second surface, the base substrate including a display region and a peripheral region, which are adjacent to each other, when viewed in a plan view, a pixel layer provided over the display region, the pixel layer including a plurality of pixels; a module hole penetrating the display region of the base substrate from the first surface to the second surface; a blocking groove provided in the display region of the base substrate adjacent to and surrounding the module hole, the blocking groove being a recessed region including an internal space, which is formed by removing a portion of the base substrate from the first surface of the base substrate, an encapsulation layer provided over the pixel layer, the encapsulation layer comprising a first inorganic layer, a second inorganic layer on the first inorganic layer, and an organic layer between the first inorganic layer and the second inorganic layer, wherein the first inorganic layer covers the internal space and defines an inner surface of the blocking groove; and a filling member on and in contact with the first inorganic layer inside the internal space and filling the blocking groove, the filling member including the same material as the organic layer. wherein the second inorganic layer covers and is in contact with a top surface of the filling member exposed by the blocking groove and a top surface of the first inorganic layer adjacent to the top surface of the filling member. a base substrate including a first surface and a second surface, the base substrate including a display region and a peripheral region, which are adjacent to each other, when viewed in a plan view, a pixel layer provided over the display region, the pixel layer including a plurality of pixels; a module hole penetrating the display region of the base substrate from the first surface to the second surface; a blocking groove provided in the display region of the base substrate adjacent to and surrounding the module hole, the blocking groove being a recessed region including an internal space, which is formed by removing a portion of the base substrate from the first surface of the base substrate, an encapsulation layer provided over the pixel layer, the encapsulation layer comprising a first inorganic layer, a second inorganic layer on the first inorganic layer, and an organic layer between the first inorganic layer and the second inorganic layer, wherein the first inorganic layer covers the internal space and defines an inner surface of the blocking groove; and a filling member on and in contact with the first inorganic layer inside the internal space and filling the blocking groove, the filling member including the same material as the organic layer. wherein the second inorganic layer covers and is in contact with a top surface of the filling member exposed by the blocking groove and a top surface of the first inorganic layer adjacent to the top surface of the filling member.
Method for controlling a pump with a variable-speed drive, comprising: inputting a target pressure value ( p cmd) into a cascaded controller structure, wherein the controller structure comprises a pressure control loop (210, 212, 214, 216), wherein the controlled system of the pressure control loop comprises a speed control loop (220, 222, 224), into which a target speed (n cmd) is input as the manipulated variable of a pressure controller of the pressure control loop; wherein the controlled system of the speed control loop comprises a drive control loop (230, 232), into which a target drive torque (M R cmd) is input as the manipulated variable of a speed controller of the speed control loop; forming a pilot control value ( M f f cmd) for the drive torque as the result of a temporal differential equation of the target pressure; and adding the pilot control value to the target drive torque that is input into the controlled system of the speed control loop, wherein the temporal differential equation of the target pressure comprises an inverse system model of the controlled system of the cascaded controller structure. wherein the controlled system of the pressure control loop comprises a speed control loop (220, 222, 224), into which a target speed (n cmd) is input as the manipulated variable of a pressure controller of the pressure control loop; wherein the controlled system of the speed control loop comprises a drive control loop (230, 232), into which a target drive torque (M R cmd) is input as the manipulated variable of a speed controller of the speed control loop; forming a pilot control value ( M f f cmd) for the drive torque as the result of a temporal differential equation of the target pressure; and adding the pilot control value to the target drive torque that is input into the controlled system of the speed control loop, wherein the temporal differential equation of the target pressure comprises an inverse system model of the controlled system of the cascaded controller structure.
A method of forming a fiber-reinforced biological tissue composite, the method comprising: culturing cells on a fibrous scaffold until fibers of the fibrous scaffold are surrounded by tissue comprising extracellular matrix at a density of greater than about 200,000 cells/cm 2 of substrate surface area, forming a tissue construct; and tanning the tissue construct to form a fiber reinforced leather-like material. culturing cells on a fibrous scaffold until fibers of the fibrous scaffold are surrounded by tissue comprising extracellular matrix at a density of greater than about 200,000 cells/cm 2 of substrate surface area, forming a tissue construct; and tanning the tissue construct to form a fiber reinforced leather-like material.
An auto-nucleating device comprising: an elongated hollow tube sized for introduction into a cryopreservation vessel wherein the cryopreservation vessel is adapted to be filled with cells or tissue to be preserved, and a cryopreservation solution; an ice-nucleating composition disposed within said hollow tube; and a seal at both ends of said tube, at least one end sealed with a membrane that is impermeable to both the ice-nucleating composition and cells or tissues but permeable to a cryopreservation solution contained within the cryopreservation vessel, wherein said ice-nucleating composition is a sterol. an elongated hollow tube sized for introduction into a cryopreservation vessel wherein the cryopreservation vessel is adapted to be filled with cells or tissue to be preserved, and a cryopreservation solution; an ice-nucleating composition disposed within said hollow tube; and a seal at both ends of said tube, at least one end sealed with a membrane that is impermeable to both the ice-nucleating composition and cells or tissues but permeable to a cryopreservation solution contained within the cryopreservation vessel, wherein said ice-nucleating composition is a sterol.
Device having a main-body part, and having a cover part which can be connected to the main-body part by a releasable latching connection, the latching connection having a latching hook which has, joined to a latch web, at least one latching nose (18, 19), which at least one latching nose (18, 19) fits behind an abutment portion in a closed position and has a releasing mechanism which acts on the latching connection and whose actuation is able to release the fitted-behind engagement of the or each latching nose (18, 19), characterised in that the latching connection has a flexible tongue for pressure which is so formed as to be free in the cover part and on whose side adjacent the or each latching nose (18, 19) there is integrally formed a tongue rib by whose action on the latching hook the fitted-behind engagement of the or each latching nose (18, 19) can be released.
A headlamp comprising: - a lamp with a light source; - a band for fixing the lamp on the head of a user, wherein the band is of constant length, symmetrical with respect to a median sagittal plane, and characterized in that it comprises an alternation of rigid/semi-rigid elements (56, 57, 58; 51-54) for allowing deformation in space and adjustment to the head of a user. - a lamp with a light source; - a band for fixing the lamp on the head of a user, wherein the band is of constant length, symmetrical with respect to a median sagittal plane, and characterized in that it comprises an alternation of rigid/semi-rigid elements (56, 57, 58; 51-54) for allowing deformation in space and adjustment to the head of a user.