mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for moving at least one of a pair of opposing surfaces in response to an electrical activation comprising: a support having a rigid non-flexing support portion, at least one pivotable folded-back arm portion (18, 20) extending from the support portion, a pair of opposing surfaces (22, 24) with one opposing surface on the at least pivotable folded-back arm portion (18, 20) for movement relative to one another, and a force transfer member operably positioned for driving the at least one pivotable folded-back arm portion (18, 20) in rotational movement; and an actuator operably engaged between the support portion and the force transfer member to drive the force transfer member relative to the supportportion to pivot the at least one pivotable folded-back arm portion (18, 20) in response to an electrical activation of the actuator, characterized in that the actuator is clamped within the support between the force transfer member and an adjustable seat that is supported at one end by an adjustable screw and allows a variable force preloading, wherein the adjustable seat is connected to the rigid non-flexing support portion only via the adjustable screw. a support having a rigid non-flexing support portion, at least one pivotable folded-back arm portion (18, 20) extending from the support portion, a pair of opposing surfaces (22, 24) with one opposing surface on the at least pivotable folded-back arm portion (18, 20) for movement relative to one another, and a force transfer member operably positioned for driving the at least one pivotable folded-back arm portion (18, 20) in rotational movement; and an actuator operably engaged between the support portion and the force transfer member to drive the force transfer member relative to the supportportion to pivot the at least one pivotable folded-back arm portion (18, 20) in response to an electrical activation of the actuator, characterized in that the actuator is clamped within the support between the force transfer member and an adjustable seat that is supported at one end by an adjustable screw and allows a variable force preloading, wherein the adjustable seat is connected to the rigid non-flexing support portion only via the adjustable screw.
A gas turbine assembly comprising: an exhaust frame having an inner cylinder, an outer cylinder, and a bearing housing; and at least one primary attachment member (150, 152) coupling the exhaust frame to the bearing housing; characterized in that said gas turbine assembly comprises a plurality of struts (116, 117, 118, 119, 120, 121, 122, 123, 124, 125) extending between the inner cylinder and the outer cylinder and a bearing housing disposed concentrically within the inner cylinder of the exhaust frame, surrounding a shaft, and operatively coupled to the exhaust frame; and a bumper (184, 186) assembly disposed between an interior surface of the inner cylinder of the exhaust frame and an exterior surface of the bearing housing, the bumper (184, 186) assembly having an attachment surface attached to the exhaust frame and a bumper impact surface that engages the bearing housing during a blade out event, wherein the bumper (184, 186) assembly is aligned radially with at least one of the plurality of struts (116, 117, 118, 119, 120, 121, 122, 123, 124, 125) extending between the inner cylinder and the outer cylinder; and wherein the bumper (184, 186) assembly includes a bumper body (192, 194) translating an event force between the exhaust frame and the bearing housing, and wherein the bumper body (192, 194) has a tapered cross-section perpendicular to the attachment surface and the bumper impact surface such that the attachment surface has an attachment surface area engaged with the exhaust frame that is greater than a contact surface area of the bumper impact surface.. an exhaust frame having an inner cylinder, an outer cylinder, and a bearing housing; and at least one primary attachment member (150, 152) coupling the exhaust frame to the bearing housing; characterized in that said gas turbine assembly comprises a plurality of struts (116, 117, 118, 119, 120, 121, 122, 123, 124, 125) extending between the inner cylinder and the outer cylinder and a bearing housing disposed concentrically within the inner cylinder of the exhaust frame, surrounding a shaft, and operatively coupled to the exhaust frame; and a bumper (184, 186) assembly disposed between an interior surface of the inner cylinder of the exhaust frame and an exterior surface of the bearing housing, the bumper (184, 186) assembly having an attachment surface attached to the exhaust frame and a bumper impact surface that engages the bearing housing during a blade out event, wherein the bumper (184, 186) assembly is aligned radially with at least one of the plurality of struts (116, 117, 118, 119, 120, 121, 122, 123, 124, 125) extending between the inner cylinder and the outer cylinder; and wherein the bumper (184, 186) assembly includes a bumper body (192, 194) translating an event force between the exhaust frame and the bearing housing, and wherein the bumper body (192, 194) has a tapered cross-section perpendicular to the attachment surface and the bumper impact surface such that the attachment surface has an attachment surface area engaged with the exhaust frame that is greater than a contact surface area of the bumper impact surface..
A method for measuring respiratory rate, the method being carried-out by a wireless sensor device including a processor and a memory device coupled to the processor, wherein the memory device stores an application which, when executed by the processor, causes the processor to perform the steps of: measuring at least one respiration signal; filtering the respiration signal using a lowpass filter; peak-picking the respiration signal to determine the respiratory rate; determining a quality metric of the respiratory rate, characterized in that the quality metric is derived based on a coefficient of variation of a difference in minima times (c t), a coefficient of variationof peak-to-peak values (c p), a mean peak-to-peak value (m p), and a ratio of a number of picked extrema to a total number of all local extrema (r ext); weighting the quality metric using previously learned weights; and transforming the weighted quality metric using an exponential to get the quality metric to a value between 0 and 1. measuring at least one respiration signal; filtering the respiration signal using a lowpass filter; peak-picking the respiration signal to determine the respiratory rate; determining a quality metric of the respiratory rate, characterized in that the quality metric is derived based on a coefficient of variation of a difference in minima times (c t), a coefficient of variationof peak-to-peak values (c p), a mean peak-to-peak value (m p), and a ratio of a number of picked extrema to a total number of all local extrema (r ext); weighting the quality metric using previously learned weights; and transforming the weighted quality metric using an exponential to get the quality metric to a value between 0 and 1.
An apparatus for managing XML document management, XDM, service information in an XDM client of an Open Mobile Alliance, OMA, system, the apparatus comprising: a controller configured to: create a shared user resource identifier, URI, list including a static reference handle value which is a random value and remains unchanged until the shared URI list is deleted, for identifying the shared URI list, in response to a request to create the shared URI list, and transmit the shared URI list to a shared XDM Server, XDMS, for storage as a reference for service information corresponding to a plurality of OMA service in accordance with the static reference handle value. create a shared user resource identifier, URI, list including a static reference handle value which is a random value and remains unchanged until the shared URI list is deleted, for identifying the shared URI list, in response to a request to create the shared URI list, and transmit the shared URI list to a shared XDM Server, XDMS, for storage as a reference for service information corresponding to a plurality of OMA service in accordance with the static reference handle value.
A clothes treatment apparatus comprising: a case defining an external appearance, the case having an open front; a first clothes treatment chamber defining a space in the case to treat clothes using steam or air circulation; a second clothes treatment chamber defining a space at one side of the first clothes treatment chamber in the case; a machine chamber provided in the case to spray steam to or circulate air through the first clothes treatment chamber or the second clothes treatment chamber; and a partition plate, wherein the partition plate moves to the open front of the case when opening the second clothes treatment chamber, characterized in that the second clothes treatment chamber is to remove wrinkles from clothes by applying pressure to the clothes; the partition plate configured to close the second clothes treatment chamber so that the second clothes treatment chamber is separated from the first clothes treatment chamber; wherein the second clothes treatment chamber is formed in one inner side surface of the case in which the case forms the first clothes treatment chamber; and wherein, when the partition plate closes the second clothes treatment chamber so that the second clothes treatment chamber is separated from the first clothes treatment chamber, the partition plate presses clothes located in the second clothes treatment chamber. a case defining an external appearance, the case having an open front; a first clothes treatment chamber defining a space in the case to treat clothes using steam or air circulation; a second clothes treatment chamber defining a space at one side of the first clothes treatment chamber in the case; a machine chamber provided in the case to spray steam to or circulate air through the first clothes treatment chamber or the second clothes treatment chamber; and a partition plate, wherein the partition plate moves to the open front of the case when opening the second clothes treatment chamber, characterized in that the second clothes treatment chamber is to remove wrinkles from clothes by applying pressure to the clothes; the partition plate configured to close the second clothes treatment chamber so that the second clothes treatment chamber is separated from the first clothes treatment chamber; wherein the second clothes treatment chamber is formed in one inner side surface of the case in which the case forms the first clothes treatment chamber; and wherein, when the partition plate closes the second clothes treatment chamber so that the second clothes treatment chamber is separated from the first clothes treatment chamber, the partition plate presses clothes located in the second clothes treatment chamber.
A seal washer comprising a metal washer body including a center hole, an outer resilient material projecting from an outer periphery of the washer body to a location lower than a lower surface of the washer body, and an inner resilient material provided on an inner periphery of the washer body which faces the center hole, characterized in that: a plurality of projections provided on an outer peripheral surface of the washer body are fitted into the outer resilient material, performing a detent function. a plurality of projections provided on an outer peripheral surface of the washer body are fitted into the outer resilient material, performing a detent function.
Use of an apparatus for controlling water hardness and reducing scale formation by contacting a water source with the apparatus for treating the water source, said apparatus comprising: (a) an inlet for providing the water to a first treatment reservoir; (b) a water treatment composition comprising a substantially water insoluble resin material being exhausted in capacity by being loaded with one or more multivalent cations so that the resin is unable to perform ion exchange, wherein the resin comprises a weak acid cation resin which is a crosslinked acrylic acid polymer and wherein the composition is contained within the treatment reservoir; (c) an outlet fluidly connected to the first treatment reservoir, wherein the outlet provides treated water from the treatment reservoir, wherein the weak acid cation resin is a mixture of a crosslinked acrylic acid polymer and a crosslinked methacrylic acid polymer and the crosslinked acrylic acid polymer is crosslinked at less than 8%. (a) an inlet for providing the water to a first treatment reservoir; (b) a water treatment composition comprising a substantially water insoluble resin material being exhausted in capacity by being loaded with one or more multivalent cations so that the resin is unable to perform ion exchange, wherein the resin comprises a weak acid cation resin which is a crosslinked acrylic acid polymer and wherein the composition is contained within the treatment reservoir; (c) an outlet fluidly connected to the first treatment reservoir, wherein the outlet provides treated water from the treatment reservoir, wherein the weak acid cation resin is a mixture of a crosslinked acrylic acid polymer and a crosslinked methacrylic acid polymer and the crosslinked acrylic acid polymer is crosslinked at less than 8%.
A process variable transmitter for measuring a process temperature in an industrial process, comprising: an infrared detector arranged to receive infrared radiation from an external surface of a process component in the industrial process; a memory containing temperature characterization information which relates the infrared radiation received from the process component with an internal temperature of the process component; a temperature sensor located internal to the process component and outputting a sensed temperature as a process temperature; and measurement circuitry configured to determine the internal temperature of the process component based upon the received infrared radiation from the external surface of the process component and the temperature characterization information after the temperature sensor fails, wherein the measurement circuitry is configured to operate i) in a characterization phase to determine the process temperature with the temperature sensor and to generate the temperature characterization information based upon a relationship between a temperature sensed by the temperature sensor and radiation received by the infrared detector, and ii) in a compensation phase to measure the process temperature on the basis of the infrared detector if the temperature sensor fails. an infrared detector arranged to receive infrared radiation from an external surface of a process component in the industrial process; a memory containing temperature characterization information which relates the infrared radiation received from the process component with an internal temperature of the process component; a temperature sensor located internal to the process component and outputting a sensed temperature as a process temperature; and measurement circuitry configured to determine the internal temperature of the process component based upon the received infrared radiation from the external surface of the process component and the temperature characterization information after the temperature sensor fails, wherein the measurement circuitry is configured to operate i) in a characterization phase to determine the process temperature with the temperature sensor and to generate the temperature characterization information based upon a relationship between a temperature sensed by the temperature sensor and radiation received by the infrared detector, and ii) in a compensation phase to measure the process temperature on the basis of the infrared detector if the temperature sensor fails. i) in a characterization phase to determine the process temperature with the temperature sensor and to generate the temperature characterization information based upon a relationship between a temperature sensed by the temperature sensor and radiation received by the infrared detector, and ii) in a compensation phase to measure the process temperature on the basis of the infrared detector if the temperature sensor fails.
Work vehicle, comprising - a first travelling unit and a second travelling unit; wherein - both travelling units (1, 2) have a respective dedicated drive; - one of the travelling units has a driver's seat; - the other travelling unit has a tiltable skip; - a joint is arranged between the two travelling units (1, 2) in order to couple the two travelling units (1, 2) in such a way that the two travelling units (1, 2) are movable relative to one another about at least one vertical axis of the work vehicle; - a collision warning apparatus is provided in order to detect obstacles in at least one direction of travel of the work vehicle and in order to output a warning signal if an obstacle is detected in the travel path of the work vehicle; - a deactivation apparatus is provided in order to deactivate the collision warning apparatus; and wherein - the deactivation apparatus is designed to automatically deactivate the collision warning apparatus if the skip is raised. - a first travelling unit and a second travelling unit; wherein - both travelling units (1, 2) have a respective dedicated drive; - one of the travelling units has a driver's seat; - the other travelling unit has a tiltable skip; - a joint is arranged between the two travelling units (1, 2) in order to couple the two travelling units (1, 2) in such a way that the two travelling units (1, 2) are movable relative to one another about at least one vertical axis of the work vehicle; - a collision warning apparatus is provided in order to detect obstacles in at least one direction of travel of the work vehicle and in order to output a warning signal if an obstacle is detected in the travel path of the work vehicle; - a deactivation apparatus is provided in order to deactivate the collision warning apparatus; and wherein - the deactivation apparatus is designed to automatically deactivate the collision warning apparatus if the skip is raised.
A valve including a valve body having a passage outlet, a valve cartridge and a tamper-evident device, wherein the tamper-evident device includes: an anti-theft buckle including anti-theft buckle body, pulling portion, tearable portion and symmetrical elastic hooks provided with respective position limiting surfaces, wherein the pulling portion is connected to the anti-theft buckle body via the tearable portion; an anti-theft cover provided with symmetrical position limiting contours and hook receiving portions; and position limiting slots, used to prevent the anti-theft cover from rotating after the tamper-evident device is installed, provided on symmetrical positions of a screw structure provided on the on the passage outlet; wherein when the tamper-evident device is installed, the anti-theft cover is screwed on the passage outlet, then the anti-theft buckle is mounted on the anti-theft cover and the valve body as a whole, the elastic hooks being snapped into the hook receiving portions along the position limiting contours and engaged with the position limiting slots, such that the relative positions of the anti-theft cover and the body of the valve are limited. an anti-theft buckle including anti-theft buckle body, pulling portion, tearable portion and symmetrical elastic hooks provided with respective position limiting surfaces, wherein the pulling portion is connected to the anti-theft buckle body via the tearable portion; an anti-theft cover provided with symmetrical position limiting contours and hook receiving portions; and position limiting slots, used to prevent the anti-theft cover from rotating after the tamper-evident device is installed, provided on symmetrical positions of a screw structure provided on the on the passage outlet; wherein when the tamper-evident device is installed, the anti-theft cover is screwed on the passage outlet, then the anti-theft buckle is mounted on the anti-theft cover and the valve body as a whole, the elastic hooks being snapped into the hook receiving portions along the position limiting contours and engaged with the position limiting slots, such that the relative positions of the anti-theft cover and the body of the valve are limited.
Method for producing a crystalline semiconductor material, in particular crystalline silicon, comprising the steps of • feeding particles of the semiconductor material and/or a precursor compound of the semiconductor material into a gas flow, wherein the gas flow has a sufficiently high temperature to convert the particles of the semiconductor material from the solid to the liquid and/or gaseous state and/or to thermally decompose the precursor compound, • condensing out and/or separating the liquid semiconductor material from the gas flow, • converting the liquid semiconductor material to a solid state with formation of monocrystalline crystal structures, wherein, in order to form the monocrystalline crystal structures, a melt is fed with the liquid semiconductor material, a single crystal of the semiconductor material being pulled from said melt, or a melt arranged in a heating zone is fed with the liquid semiconductor material, said melt being cooled by inherent lowering and/or by raising of the heating zone in such a way that, at its lower end, a solidification front forms along which the semiconductor material crystallizes in a monocrystalline structure. • feeding particles of the semiconductor material and/or a precursor compound of the semiconductor material into a gas flow, wherein the gas flow has a sufficiently high temperature to convert the particles of the semiconductor material from the solid to the liquid and/or gaseous state and/or to thermally decompose the precursor compound, • condensing out and/or separating the liquid semiconductor material from the gas flow, • converting the liquid semiconductor material to a solid state with formation of monocrystalline crystal structures,
A load distribution device (100;200;300;400) for a vehicle configured to distribute loads into a colliding barrier in the event of a collision involving the vehicle, the load distribution device comprises: - an upper beam extending in a transversal direction and connectable to at least one upper load path of the vehicle; - a lower beam extending in the transversal direction and arrangeable at at least one lower load path of the vehicle; and - an interconnecting portion (110;210) connecting the upper beam and the lower beam, characterized in that the upper beam and the lower beam are hollow, and in that the upper beam, the lower beam, and the interconnecting portion are made in a single piece by extrusion. - an upper beam extending in a transversal direction and connectable to at least one upper load path of the vehicle; - a lower beam extending in the transversal direction and arrangeable at at least one lower load path of the vehicle; and - an interconnecting portion (110;210) connecting the upper beam and the lower beam, characterized in that the upper beam and the lower beam are hollow, and in that the upper beam, the lower beam, and the interconnecting portion are made in a single piece by extrusion. the upper beam and the lower beam are hollow, and in that the upper beam, the lower beam, and the interconnecting portion are made in a single piece by extrusion.