mhurhangee/ep-ind-claims huggingface dataset:
An electroluminescent device, comprising: a substrate, and a pixel defining layer arranged on the substrate, wherein a pixel aperture matrix is formed in the pixel defining layer and corresponds to a pixel unit matrix, wherein each pixel unit of the pixel unit matrix corresponds to a pixel aperture (4, 12, 13, 14), at least one connection channel (9, 10, 11, 15, 16) is formed on the pixel defining layer, an electroluminescent layer (3, 5, 6, 7) in a predetermined color is formed in each pixel aperture (4, 12, 13, 14) of the pixel aperture matrix, and the connection channel (9, 10, 11, 15, 16) is configured to connect at least two pixel apertures (4, 12, 13, 14) of the pixel aperture matrix in an identical row or column and corresponding to the electroluminescent layers (3, 5, 6, 7) in an identical color, the at least one connection channel being provided between adjacent rows/columns of the pixel aperture and parallel thereto; and wherein the pixel defining layer and the connection channel (9, 10, 11, 15, 16) are configured such that an upper surface of the pixel defining layer is lyophobic, and a bottom surface and/or an inner wall of the connection channel (9, 10, 11, 15, 16) is lyophilic. a substrate, and a pixel defining layer arranged on the substrate, wherein a pixel aperture matrix is formed in the pixel defining layer and corresponds to a pixel unit matrix, wherein each pixel unit of the pixel unit matrix corresponds to a pixel aperture (4, 12, 13, 14), at least one connection channel (9, 10, 11, 15, 16) is formed on the pixel defining layer, an electroluminescent layer (3, 5, 6, 7) in a predetermined color is formed in each pixel aperture (4, 12, 13, 14) of the pixel aperture matrix, and the connection channel (9, 10, 11, 15, 16) is configured to connect at least two pixel apertures (4, 12, 13, 14) of the pixel aperture matrix in an identical row or column and corresponding to the electroluminescent layers (3, 5, 6, 7) in an identical color, the at least one connection channel being provided between adjacent rows/columns of the pixel aperture and parallel thereto; and wherein the pixel defining layer and the connection channel (9, 10, 11, 15, 16) are configured such that an upper surface of the pixel defining layer is lyophobic, and a bottom surface and/or an inner wall of the connection channel (9, 10, 11, 15, 16) is lyophilic.
Head support for a seat, in particular a vehicle seat, having a head contact device with a head contact region, which forms a head contact surface and having a bearing device, wherein the head contact device is mounted on the bearing device and wherein the bearing device can be mounted on a vehicle seat, wherein the head contact device is formed as one-piece, in particular as a plastic injection moulded part, and wherein the head contact device is formed as a shaped plate, characterised in that the head contact region has a free end and free side regions (137a, 137b) and a lower end region of the head contact region is connected to the bearing device, wherein a bearing region of the head contact device is formed like a clamp and has a lower region extending horizontally, a further section extending horizontally and a region extending vertically. wherein the head contact device is formed as one-piece, in particular as a plastic injection moulded part, and wherein the head contact device is formed as a shaped plate, characterised in that the head contact region has a free end and free side regions (137a, 137b) and a lower end region of the head contact region is connected to the bearing device, wherein a bearing region of the head contact device is formed like a clamp and has a lower region extending horizontally, a further section extending horizontally and a region extending vertically.
A method for removing wax from a writing surface of a laboratory sample cassette, comprising the steps of: (a) providing at least two protrusions which extend from the writing surface of a main body of the laboratory sample cassette, each said protrusion having substantially the same height from the writing surface, the laboratory sample cassette being of unitary construction and including the at least two protrusions which extend from the writing surface of the main body; and (b) holding the laboratory sample cassette so that the protrusions engage a flat heated surface causing the writing surface to be substantially parallel to the flat surface, and enabling wax on the writing surface to be melted from the writing surface. (a) providing at least two protrusions which extend from the writing surface of a main body of the laboratory sample cassette, each said protrusion having substantially the same height from the writing surface, the laboratory sample cassette being of unitary construction and including the at least two protrusions which extend from the writing surface of the main body; and (b) holding the laboratory sample cassette so that the protrusions engage a flat heated surface causing the writing surface to be substantially parallel to the flat surface, and enabling wax on the writing surface to be melted from the writing surface.
A fuel tank comprising: a fuel tank main body within which fuel is stored; a plurality of extending members that extend toward an inside of the fuel tank main body from an inside surface of the fuel tank main body, the extending members being attached to the inside surface so as to extend toward an opposing surface that opposes the inside surface of the fuel tank main body; the fuel tank is characterized by connecting members that connect each of the plurality of extending members together; and flexible portions formed on the connecting members and allowing the connecting member to flex, wherein the extending members are deformation inhibiting members that oppose the opposing surface in a non-contact state when a tank internal pressure of the fuel tank main body is at atmospheric pressure, and inhibit deformation of the fuel tank main body resulting from the inside surface coming close to the opposing surface. a fuel tank main body within which fuel is stored; a plurality of extending members that extend toward an inside of the fuel tank main body from an inside surface of the fuel tank main body, the extending members being attached to the inside surface so as to extend toward an opposing surface that opposes the inside surface of the fuel tank main body; the fuel tank is characterized by connecting members that connect each of the plurality of extending members together; and flexible portions formed on the connecting members and allowing the connecting member to flex,
Procedure for controlling a pump system with at least two parallel hydraulically driven rotary pumps (2, 3), respectively powered by speed-controlled drive units with electric motors (7, 8), characterised by the rotary pumps (2, 3) being speed-controlled by means of characteristic curve control that outputs a synchronous rotational speed set value (n_set) for all rotary pumps (2, 3), in which the determined electrical power input of one of the rotary pumps is compared with the determined electrical power input of another rotary pump and, depending on the result of this power input comparison, an adjustment of the rotational speed set value (n_set1, n_set2) downstream of the characteristic curve control is realised for at least one of these rotary pumps (2, 3) so that the electrical power input (P1, P2) of the rotary pumps (2, 3) reaches a predetermined proportion and in particular is equalised.
A method for managing a service set, comprising: defining a service set as an ordered list of service functions to be applied to packet traffic; assigning each service function in the service set to an instance of the respective service function at a first host location; determining that a first service function in the service set is to be transferred from an instance of the first service function at the first host location to an instance of the first service function at a second host location; identifying a second service function in the service set in accordance with the second service function being adjacent to the first service function in the ordered list of service functions and the second service function being available in the second host location; and sending an instruction to transfer the second service function in the service set from an instance of the second service function at the first host location to an instance of the second service function at the second host location. defining a service set as an ordered list of service functions to be applied to packet traffic; assigning each service function in the service set to an instance of the respective service function at a first host location; determining that a first service function in the service set is to be transferred from an instance of the first service function at the first host location to an instance of the first service function at a second host location; identifying a second service function in the service set in accordance with the second service function being adjacent to the first service function in the ordered list of service functions and the second service function being available in the second host location; and sending an instruction to transfer the second service function in the service set from an instance of the second service function at the first host location to an instance of the second service function at the second host location.
Method for assessing the quality of a surface of a coating of a component, including the following steps: capturing an image sequence having individual images of different regions of a surface of the component using an electronic image capture device, processing a processed region of each captured individual image in real time in a data processing unit such that pore regions and oxide regions of the coating, which pore regions and oxide regions are depicted in the processed region, are marked in the processed image in a manner that they are differentiable from each other, storing value pairs with a first value and second value for different processed individual images in a storage unit, wherein the first value specifies a first number of pixels, which represent pore regions in an analysis region that corresponds to the processed region or that lies therein, of the individual image currently being processed, or a ratio of the first number of pixels to a total number of pixels in the analysis region, and the second value specifies a second number of pixels that represent oxide regions in the analysis region of the individual image currently being processed, or a ratio of the second number of pixels to a total number of pixels in the evaluation region, and calculating, in the data processing unit, a first average value of the first values and a second average value of the second values and storing of the calculated average values in the storage unit. capturing an image sequence having individual images of different regions of a surface of the component using an electronic image capture device, processing a processed region of each captured individual image in real time in a data processing unit such that pore regions and oxide regions of the coating, which pore regions and oxide regions are depicted in the processed region, are marked in the processed image in a manner that they are differentiable from each other, storing value pairs with a first value and second value for different processed individual images in a storage unit, wherein the first value specifies a first number of pixels, which represent pore regions in an analysis region that corresponds to the processed region or that lies therein, of the individual image currently being processed, or a ratio of the first number of pixels to a total number of pixels in the analysis region, and the second value specifies a second number of pixels that represent oxide regions in the analysis region of the individual image currently being processed, or a ratio of the second number of pixels to a total number of pixels in the evaluation region, and calculating, in the data processing unit, a first average value of the first values and a second average value of the second values and storing of the calculated average values in the storage unit.
An air conditioner comprising: a cross flow fan in which vane wheels (12A, 12B) each including vanes lined up in a circumferential direction are lined up in an axial direction; and a stabilizer (32, 232) and a rear guider (20, 120, 220) which are provided on respective sides of an outer periphery of the cross flow fan to form an air passage, a leading end portion of at least one of the stabilizer (32, 232) and the rear guider (20, 120, 220) having a multi-stage shape so as to include level-difference portions which are deviated in the circumferential direction of the cross flow fan, and the level-difference portions including at least one first level-difference portion (26, 126, 127) which opposes an intermediate portion in the axial direction of corresponding one of the vane wheels (12A, 12B) characterized in that vanes of a vane wheel (12A, 12B) opposing the first level-difference portion and of a vane wheel (12A, 12B) neighboring to this vane wheel (12A, 12B) being provided to be deviated from one another by a predetermined angle in the circumferential direction, and in a direction from one end to the other end in the axial direction, the direction of deviation in the circumferential direction of the first level-difference portion (26, 126, 127) being opposite to the direction of deviation in the circumferential direction of the vanes of the neighboring two vane wheels (12A, 12B). a cross flow fan in which vane wheels (12A, 12B) each including vanes lined up in a circumferential direction are lined up in an axial direction; and a stabilizer (32, 232) and a rear guider (20, 120, 220) which are provided on respective sides of an outer periphery of the cross flow fan to form an air passage, a leading end portion of at least one of the stabilizer (32, 232) and the rear guider (20, 120, 220) having a multi-stage shape so as to include level-difference portions which are deviated in the circumferential direction of the cross flow fan, and the level-difference portions including at least one first level-difference portion (26, 126, 127) which opposes an intermediate portion in the axial direction of corresponding one of the vane wheels (12A, 12B) characterized in that vanes of a vane wheel (12A, 12B) opposing the first level-difference portion and of a vane wheel (12A, 12B) neighboring to this vane wheel (12A, 12B) being provided to be deviated from one another by a predetermined angle in the circumferential direction, and in a direction from one end to the other end in the axial direction, the direction of deviation in the circumferential direction of the first level-difference portion (26, 126, 127) being opposite to the direction of deviation in the circumferential direction of the vanes of the neighboring two vane wheels (12A, 12B).
A method of controlling a femtocell basestation in a cellular wireless communications network when interference with a macrolayer basestation is detected, the method comprising: obtaining a plurality of measurements of pathlosses between the macrolayer basestation and one or more mobile devices having wireless connections to said femtocell basestation; determining a pathloss from the average of a bottom predetermined percentile of said plurality of measurements; and adapting a maximum value for a total transmit power of one or more mobile devices having wireless connections to the basestation based on said determined pathloss of said plurality of measurements (252, 258), wherein the step of adapting the maximum value for the total transmit power of one or more mobile devices comprises: setting the maximum value for the total transmit power of the one or more mobile devices equal to the minimum signal power required by said basestation to support a particular service, plus said pathloss of said plurality of measurements. obtaining a plurality of measurements of pathlosses between the macrolayer basestation and one or more mobile devices having wireless connections to said femtocell basestation; determining a pathloss from the average of a bottom predetermined percentile of said plurality of measurements; and adapting a maximum value for a total transmit power of one or more mobile devices having wireless connections to the basestation based on said determined pathloss of said plurality of measurements (252, 258), wherein the step of adapting the maximum value for the total transmit power of one or more mobile devices comprises: setting the maximum value for the total transmit power of the one or more mobile devices equal to the minimum signal power required by said basestation to support a particular service, plus said pathloss of said plurality of measurements.
A device handle (110, 610) for an ophthalmic surgical system, comprising: a body (111, 612); a lumen (520, 614) formed in the body and configured to receive a pressurized fluid; a vent (120, 620) providing fluid communication between the lumen and an exterior of the body, the vent adapted to be selectively occluded to alter a pressure condition within the lumen between a pressurized condition and a nonpressurized condition; and a piston (550, 950) moveable to an actuated position in response to the pressurized condition and to an unactuated position in response to the nonpressurized condition, characterized in that the device handle (110, 610) further comprises a first adjustment member (124, 624) configured to selectively increase and decrease a rate at which the piston moves to an actuated position; and a second adjustment member (122, 622) configured to selectively increase and decrease a rate at which the piston is returned to an unactuated position. a body (111, 612); a lumen (520, 614) formed in the body and configured to receive a pressurized fluid; a vent (120, 620) providing fluid communication between the lumen and an exterior of the body, the vent adapted to be selectively occluded to alter a pressure condition within the lumen between a pressurized condition and a nonpressurized condition; and a piston (550, 950) moveable to an actuated position in response to the pressurized condition and to an unactuated position in response to the nonpressurized condition, characterized in that the device handle (110, 610) further comprises a first adjustment member (124, 624) configured to selectively increase and decrease a rate at which the piston moves to an actuated position; and a second adjustment member (122, 622) configured to selectively increase and decrease a rate at which the piston is returned to an unactuated position.
A modular flow sensor assembly, comprising: a main sense element assembly including a main housing and a sensor, the main housing having a first end and a second opposing end with a side extending between the first end and the second end, the main housing at least partially defining a flow channel between the first end and the second opposing end, the sensor for sensing fluid flow through the flow channel; a first interchangeable end adapter configured to engage and form a seal with the main housing, wherein the first interchangeable end adapter defines a first flow channel extension that extends the flow channel of the main housing and defines a first connection port configuration; and a second interchangeable end adapter configured to engage and form a seal with the main housing, wherein the first interchangeable end adapter is secured to the main housing, the first interchangeable end adapter having a first end configured to surround at least a portion of the first end of the main housing and to cover at least part of the side of the main housing, wherein the first interchangeable end adapter includes one or more fins configured to precondition the fluid flow by straightening a direction of a flow velocity of the fluid flow prior to the fluid flow entering the flow channel of the main housing, and wherein the first flow channel extension defined by the first interchangeable end adapter has a reduced effective diameter compared to the flow channel of the main housing. a main sense element assembly including a main housing and a sensor, the main housing having a first end and a second opposing end with a side extending between the first end and the second end, the main housing at least partially defining a flow channel between the first end and the second opposing end, the sensor for sensing fluid flow through the flow channel; a first interchangeable end adapter configured to engage and form a seal with the main housing, wherein the first interchangeable end adapter defines a first flow channel extension that extends the flow channel of the main housing and defines a first connection port configuration; and a second interchangeable end adapter configured to engage and form a seal with the main housing, wherein the first interchangeable end adapter is secured to the main housing, the first interchangeable end adapter having a first end configured to surround at least a portion of the first end of the main housing and to cover at least part of the side of the main housing, wherein the first interchangeable end adapter includes one or more fins configured to precondition the fluid flow by straightening a direction of a flow velocity of the fluid flow prior to the fluid flow entering the flow channel of the main housing, and wherein the first flow channel extension defined by the first interchangeable end adapter has a reduced effective diameter compared to the flow channel of the main housing.
A laminated body (200, 300, 500, 600) having a plurality of layers laminated thereon, the laminated body comprising: a base made of paper, and a fiber layer laminated on at least one surface of the base and containing fine cellulose fibers each having a fiber diameter of 1 nm or more and 10 μm or less, wherein the fiber layer contains fine cellulose fibers each having a fiber diameter of 1 nm or more and 30 nm or less in an amount of 25 mass% or more and 90 mass% or less, and further contains fine cellulose fibers each having a fiber diameter of 100 nm or more and 10 μm or less in an amount of 10 mass% or more and 75 mass% or less, the fiber layer includes a mixed layer formed by the fine cellulose fibres infiltrating into a mesh structure of fibers of the base at the at least one surface of the base, and a layer that does not contain fibers of the base but contains the fine cellulose fibers, the mixed layer has a thickness within a range of 10 nm or more and 2000 nm or less, and the bending elastic modulus of the fiber layer is 2 GPa or more and 30 GPa or less. a base made of paper, and a fiber layer laminated on at least one surface of the base and containing fine cellulose fibers each having a fiber diameter of 1 nm or more and 10 μm or less, wherein the fiber layer contains fine cellulose fibers each having a fiber diameter of 1 nm or more and 30 nm or less in an amount of 25 mass% or more and 90 mass% or less, and further contains fine cellulose fibers each having a fiber diameter of 100 nm or more and 10 μm or less in an amount of 10 mass% or more and 75 mass% or less, the fiber layer includes a mixed layer formed by the fine cellulose fibres infiltrating into a mesh structure of fibers of the base at the at least one surface of the base, and a layer that does not contain fibers of the base but contains the fine cellulose fibers, the mixed layer has a thickness within a range of 10 nm or more and 2000 nm or less, and the bending elastic modulus of the fiber layer is 2 GPa or more and 30 GPa or less.