mhurhangee/ep-ind-claims huggingface dataset:
A display device comprising: a first substrate; a pixel disposed on the first substrate and including first, second and third sub-pixel electrodes adjacent to each other; a second substrate spaced from the first substrate; a colour conversion layer disposed on the second substrate, the colour conversion layer including a first wavelength conversion layer overlapping with the first sub pixel electrode and a second wavelength conversion layer overlapping with the second sub pixel electrode; a transmissive layer including a first transmissive layer overlapping with the third sub-pixel electrode and a second transmissive layer disposed between the first wavelength conversion layer and the second wavelength conversion layer; and a planarization layer disposed on the colour conversion layer and the transmissive layer, wherein the first transmissive layer and the second transmissive layer are made of the same material, characterised in that each of the first transmissive layer and the second transmissive layer includes a light-transmitting resin and a light-scattering material, and a first weight percentage of the light-scattering material in the first transmissive layer is the same as a second weight percentage of the light-scattering material in the second transmissive layer. a first substrate; a pixel disposed on the first substrate and including first, second and third sub-pixel electrodes adjacent to each other; a second substrate spaced from the first substrate; a colour conversion layer disposed on the second substrate, the colour conversion layer including a first wavelength conversion layer overlapping with the first sub pixel electrode and a second wavelength conversion layer overlapping with the second sub pixel electrode; a transmissive layer including a first transmissive layer overlapping with the third sub-pixel electrode and a second transmissive layer disposed between the first wavelength conversion layer and the second wavelength conversion layer; and a planarization layer disposed on the colour conversion layer and the transmissive layer, wherein the first transmissive layer and the second transmissive layer are made of the same material, characterised in that each of the first transmissive layer and the second transmissive layer includes a light-transmitting resin and a light-scattering material, and a first weight percentage of the light-scattering material in the first transmissive layer is the same as a second weight percentage of the light-scattering material in the second transmissive layer.
Construction system with a supporting framework, new or pre-existent, made of reinforced concrete or steel, integrated with infill panels made of wood, wherein said supporting framework is constituted by a frame of columns and beams, characterised in that said infill panels are inserted in one or more fields of the frame of the structure, such that all along their perimeter said infill panels are forced inside said fields without play.
A gas turbine engine, comprising: a compressor section; a combustor downstream of the compressor section; a turbine section downstream of the combustor; at least one fluid line connector associated with the compressor section, combustor, and turbine section and communicating fluid therethrough and connecting first and second fluid tubes (108,11); and a flexible shield surrounding the fluid connector, the flexible shield comprising: a flexible sleeve suitable to surround the fluid connector; and a coupling suitable to secure the flexible sleeve to at least one of the fluid tubes (108,11), the sleeve being a double-layered flexible sleeve with an outer layer and an inner layer connected at a fold defining an opening. a compressor section; a combustor downstream of the compressor section; a turbine section downstream of the combustor; at least one fluid line connector associated with the compressor section, combustor, and turbine section and communicating fluid therethrough and connecting first and second fluid tubes (108,11); and a flexible shield surrounding the fluid connector, the flexible shield comprising: a flexible sleeve suitable to surround the fluid connector; and a coupling suitable to secure the flexible sleeve to at least one of the fluid tubes (108,11), the sleeve being a double-layered flexible sleeve with an outer layer and an inner layer connected at a fold defining an opening.
A method for determining the location of an open-circuit fault in an electrical circuit that comprises a plurality of transformers, each transformer having a primary winding and a secondary winding, the primary windings being electrically connected in series and each secondary winding being electrically connected to a corresponding light-emitting diode, the method comprising: - using a constant-current regulator to supply electric power to the primary windings, characterised in that the method comprises: - after the open-circuit fault in the series-connected primary windings has been detected, changing the alternating voltage supplied by the constant-current regulator from the alternating voltage supplied during normal operation so that the light-emitting diodes light up, the open-circuit fault being located between the transformers that are electrically connected to the light-emitting diodes having the smallest light intensities. - using a constant-current regulator to supply electric power to the primary windings, - after the open-circuit fault in the series-connected primary windings has been detected, changing the alternating voltage supplied by the constant-current regulator from the alternating voltage supplied during normal operation so that the light-emitting diodes light up, the open-circuit fault being located between the transformers that are electrically connected to the light-emitting diodes having the smallest light intensities.
A device for gripping and centring containers in a capping and/or control station of a capping installation, characterised in that it includes: - a centring ring, which is intended for being inserted onto a container and for resting on an upper portion of the body of the container and is associated with moving members arranged to control a displacement thereof in vertical direction, parallel to an axis of the container; and - a plurality of jaws, distributed along the circumference of the centring ring, said jaws being engaging means, in an operating condition, between the device for gripping and centring containers and a region of a neck of the container, said region being located immediately below a rigid collar of said neck, the jaws being associated with moving members arranged to control a displacement thereof in radial direction, in order to move the jaws from an idle condition, in which they are spaced apart from the neck, to the operating condition, and vice versa. - a centring ring, which is intended for being inserted onto a container and for resting on an upper portion of the body of the container and is associated with moving members arranged to control a displacement thereof in vertical direction, parallel to an axis of the container; and - a plurality of jaws, distributed along the circumference of the centring ring, said jaws being engaging means, in an operating condition, between the device for gripping and centring containers and a region of a neck of the container, said region being located immediately below a rigid collar of said neck, the jaws being associated with moving members arranged to control a displacement thereof in radial direction, in order to move the jaws from an idle condition, in which they are spaced apart from the neck, to the operating condition, and vice versa.
A method for determining a quantum communication setup, the method being carried out in a data processing system and comprising: - providing a component set indicative of a quantum communication setup comprising quantum communication components of at least one of a first communication device, a second communication device, and an eavesdropping device; - selecting an action of a set of actions each indicative of a further quantum communication component and each selectable with a selection probability depending on the component set and a reward value; - including the selected further quantum communication component in the component set; - determining, from the component set, a quantum model comprising a quantum state of at least one of the first communication device, the second communication device, and the eavesdropping device; - determining, from the component set and the quantum model, a maximum key rate by optimizing over an optimization parameter set comprising quantum communication component parameters; - adjusting the reward value depending on the size of the maximum key rate in relation to a previous maximum key rate; and - iteratively repeating the above steps until a termination criterion is satisfied, yielding an optimal component set and an optimal setup parameter set. - providing a component set indicative of a quantum communication setup comprising quantum communication components of at least one of a first communication device, a second communication device, and an eavesdropping device; - selecting an action of a set of actions each indicative of a further quantum communication component and each selectable with a selection probability depending on the component set and a reward value; - including the selected further quantum communication component in the component set; - determining, from the component set, a quantum model comprising a quantum state of at least one of the first communication device, the second communication device, and the eavesdropping device; - determining, from the component set and the quantum model, a maximum key rate by optimizing over an optimization parameter set comprising quantum communication component parameters; - adjusting the reward value depending on the size of the maximum key rate in relation to a previous maximum key rate; and - iteratively repeating the above steps until a termination criterion is satisfied, yielding an optimal component set and an optimal setup parameter set.
A method for making an apertured web, the method comprising the steps of: a) providing a precursor web having a first surface and a second surface opposite to the first surface, comprising a plurality of discrete extended elements on the first surface, the discrete extended elements comprising open proximal ends, open or closed distal ends, and sidewalls, b) providing a forming apparatus for macro apertures comprising a first member and a second member, wherein the first member comprises male elements on its surface and the second member comprises discontinuous female elements on its surface, and c) moving the precursor web through the first and second members so that macro apertures are formed in the precursor web as the male elements and the female elements are engaged, wherein the macro apertures have a quadrilateral shape, wherein the male elements comprising teeth having a shape to form the macro apertures having a quadrilateral shape on the precursor web, and being arranged in a staggered pattern; wherein the each of the teeth comprises a proximal part joined to the first member on the surface of the first member, and a distal part directly adjacent to the proximal part and tapering to a tip of the each of the teeth, the proximal part and the distal part having different degree of taper from each other; and wherein the teeth have a tooth-to-tooth spacing between two adjacent teeth located along a line that is not parallel either to the cross-sectional length dimension or to the cross-sectional width dimension not greater than about 1.9mm. a) providing a precursor web having a first surface and a second surface opposite to the first surface, comprising a plurality of discrete extended elements on the first surface, the discrete extended elements comprising open proximal ends, open or closed distal ends, and sidewalls, b) providing a forming apparatus for macro apertures comprising a first member and a second member, wherein the first member comprises male elements on its surface and the second member comprises discontinuous female elements on its surface, and c) moving the precursor web through the first and second members so that macro apertures are formed in the precursor web as the male elements and the female elements are engaged, wherein the macro apertures have a quadrilateral shape, wherein the male elements comprising teeth having a shape to form the macro apertures having a quadrilateral shape on the precursor web, and being arranged in a staggered pattern; wherein the each of the teeth comprises a proximal part joined to the first member on the surface of the first member, and a distal part directly adjacent to the proximal part and tapering to a tip of the each of the teeth, the proximal part and the distal part having different degree of taper from each other; and wherein the teeth have a tooth-to-tooth spacing between two adjacent teeth located along a line that is not parallel either to the cross-sectional length dimension or to the cross-sectional width dimension not greater than about 1.9mm.
A vehicle turning control device mounted on a vehicle, comprising: a yaw moment generation device that generates a yaw moment; and a control device that calculates a control yaw moment (F_M) for increasing turning performance of the vehicle and uses the yaw moment generation device to generate the control yaw moment (F_M), wherein a limit control yaw moment (A_M) is an upper limit of an allowable range of the control yaw moment (F_M) in which the vehicle does not spin, a lateral jerk equivalent is a lateral jerk (Jy) of the vehicle or an approximate value of the lateral jerk (Jy), the limit control yaw moment (A_M) is a function of the lateral jerk equivalent characterized in that said limit control yaw moment decreases as the lateral jerk equivalent increases, and in that the control device performs: processing of calculating the limit control yaw moment (A_M) based on the lateral jerk equivalent and the function; processing of updating a hold control yaw moment (H_M) with a latest value of the limit control yaw moment (A_M), when the latest value is less than the hold control yaw moment (H_M); and processing of determining the control yaw moment (F_M) so as not to exceed the hold control yaw moment (H_M). a yaw moment generation device that generates a yaw moment; and a control device that calculates a control yaw moment (F_M) for increasing turning performance of the vehicle and uses the yaw moment generation device to generate the control yaw moment (F_M), wherein a limit control yaw moment (A_M) is an upper limit of an allowable range of the control yaw moment (F_M) in which the vehicle does not spin, a lateral jerk equivalent is a lateral jerk (Jy) of the vehicle or an approximate value of the lateral jerk (Jy), the limit control yaw moment (A_M) is a function of the lateral jerk equivalent characterized in that said limit control yaw moment decreases as the lateral jerk equivalent increases, and in that the control device performs: processing of calculating the limit control yaw moment (A_M) based on the lateral jerk equivalent and the function; processing of updating a hold control yaw moment (H_M) with a latest value of the limit control yaw moment (A_M), when the latest value is less than the hold control yaw moment (H_M); and processing of determining the control yaw moment (F_M) so as not to exceed the hold control yaw moment (H_M). processing of calculating the limit control yaw moment (A_M) based on the lateral jerk equivalent and the function; processing of updating a hold control yaw moment (H_M) with a latest value of the limit control yaw moment (A_M), when the latest value is less than the hold control yaw moment (H_M); and processing of determining the control yaw moment (F_M) so as not to exceed the hold control yaw moment (H_M).
An apparatus for dispensing a fluid from a fluid supply, comprising an actuator body (12, 12a), an actuator at least partially mounted within the actuator body, a valve stem coupled for movement with the actuator, a fluid body (14, 14a) including a fluid chamber capable of fluid communication with the fluid supply and with an outlet, the valve stem extending from the actuator body into the fluid chamber when the actuator body and the fluid body are connected, for dispensing the fluid from the fluid chamber through the outlet, a first coupling element (40, 40a) on the actuator body, a second coupling element (42, 42a) on the fluid body, and a member configured to connect and disconnect the actuator body and the fluid body with respect to each other, characterised in that the connect member is a quick connect member (16, 16a) configured to selectively fully engage and fully disengage the first and second coupling elements (40, 40a, 42, 42a) with one another, the quick connect member (16, 16a) comprising a slidable element (44, 44a) adapted to engage with the first and second coupling elements.
A shoe washing machine, comprising a washing tub, a pulsator rotatably arranged at an inner bottom portion of the washing tub, and a brush arranged at a center of a top portion of the pulsator, the brush being arranged in a shape that bulges upward from the top portion of the pulsator, wherein the brush is detachably connected with the pulsator; wherein a bottom portion of the brush is provided with a sleeve-like snap-fit seat, a side wall of the sleeve-like snap-fit seat is provided with a plurality of snap-fit grooves in a circumferential direction, and the top portion of the pulsator is provided with snap-fit protrusions matching with the snap-fit grooves, characterized in that the snap-fit protrusions are water-stirring ribs of the pulsator, and a snap-fit column matching with the sleeve-like snap-fit seat by insertion is provided at a center intersection position of the water-stirring ribs. wherein the brush is detachably connected with the pulsator; wherein a bottom portion of the brush is provided with a sleeve-like snap-fit seat, a side wall of the sleeve-like snap-fit seat is provided with a plurality of snap-fit grooves in a circumferential direction, and the top portion of the pulsator is provided with snap-fit protrusions matching with the snap-fit grooves, characterized in that the snap-fit protrusions are water-stirring ribs of the pulsator, and a snap-fit column matching with the sleeve-like snap-fit seat by insertion is provided at a center intersection position of the water-stirring ribs.
A polyimide-based film, having a yield strain in a uniaxial direction of 3% or more based on ASTM D882 measurement, a pencil hardness of 1H or more based on ASTM D3363 measurement, and a yellowness of 5.0 or less and a light transmittance of 85% or more at 550 nm based on ASTM E313 measurement.
An inkjet recording method comprising: forming an ink image by ejecting ink on an ejection receiving medium (101, 208) by an inkjet head (603, 703) comprising a recording element substrate (610, 710) having an element which generates energy that is utilized for ejecting ink, a pressure chamber which has the element in the inside, and an ejection port which ejects ink, wherein the ink is circulated between the inside of the pressure chamber and the outside of the pressure chamber through a flow channel upstream of the pressure chamber and a flow channel downstream of the pressure chamber; and removing at least a portion of a liquid component from the ink image by bringing a liquid absorbing member (105a, 205a) into contact with the ink image, characterized in that the ink contains 5% by mass or more to 30% by mass or less of a water-soluble organic solvent having a boiling point of 110° C or more, and the liquid absorbing member (105a, 205a) has a porous body which comes into contact with the ink image and which contains a fluorine compound, and 50% by mass or more of the water-soluble organic solvent contained in the ink image and having a boiling point of 110° C or more is removed from the ink image in the removal of at least a portion of a liquid component from the ink image. forming an ink image by ejecting ink on an ejection receiving medium (101, 208) by an inkjet head (603, 703) comprising a recording element substrate (610, 710) having an element which generates energy that is utilized for ejecting ink, a pressure chamber which has the element in the inside, and an ejection port which ejects ink, wherein the ink is circulated between the inside of the pressure chamber and the outside of the pressure chamber through a flow channel upstream of the pressure chamber and a flow channel downstream of the pressure chamber; and removing at least a portion of a liquid component from the ink image by bringing a liquid absorbing member (105a, 205a) into contact with the ink image, characterized in that the ink contains 5% by mass or more to 30% by mass or less of a water-soluble organic solvent having a boiling point of 110° C or more, and the liquid absorbing member (105a, 205a) has a porous body which comes into contact with the ink image and which contains a fluorine compound, and 50% by mass or more of the water-soluble organic solvent contained in the ink image and having a boiling point of 110° C or more is removed from the ink image in the removal of at least a portion of a liquid component from the ink image.
A thermostatic radiator valve controller comprising: a TRV wireless module; a temperature sensor configured to measure a radiator temperature at a predetermined distance from the radiator; and a TRV controller computing device configured to: perform auto-detection, wherein auto-detection comprises determining a minimum opening position of a pin of a valve of the radiator, and determining a maximum opening position of the pin; receive position information for an operating position of the pin through the TRV wireless module via a wireless channel; and adjust the operating position of the pin between the minimum opening position and the maximum opening position from the position information; characterized in that the step of determining the maximum position of the pin comprises: sensing when the first radiator is transferring a maximum amount of heat; in response to the sensing, registering a first pin position when the maximum amount of heat is transferred; and equating the first maximum opening position to the first pin position. a TRV wireless module; a temperature sensor configured to measure a radiator temperature at a predetermined distance from the radiator; and a TRV controller computing device configured to: perform auto-detection, wherein auto-detection comprises determining a minimum opening position of a pin of a valve of the radiator, and determining a maximum opening position of the pin; receive position information for an operating position of the pin through the TRV wireless module via a wireless channel; and adjust the operating position of the pin between the minimum opening position perform auto-detection, wherein auto-detection comprises determining a minimum opening position of a pin of a valve of the radiator, and determining a maximum opening position of the pin; receive position information for an operating position of the pin through the TRV wireless module via a wireless channel; and adjust the operating position of the pin between the minimum opening position and the maximum opening position from the position information; characterized in that the step of determining the maximum position of the pin comprises: sensing when the first radiator is transferring a maximum amount of heat; in response to the sensing, registering a first pin position when the maximum amount of heat is transferred; and equating the first maximum opening position to the first pin position. sensing when the first radiator is transferring a maximum amount of heat; in response to the sensing, registering a first pin position when the maximum amount of heat is transferred; and equating the first maximum opening position to the first pin position.