mhurhangee/ep-ind-claims huggingface dataset:
A cation-exchange membrane for electrolysis comprising a fluorine-containing polymer having an ion-exchange group and a porous substrate, characterized in that the membrane has projecting parts comprising a polymer having an ion-exchange group on the surface of an anode side of the membrane; 20 ≤ h ≤ 150, where h is defined as an average value of heights in μm from the surface of the anode side of the membrane to the tops of the projecting parts; 50 ≤ P ≤ 1,200, where P is defined as a distribution density in piece/cm 2 of the projecting parts; 0.001 ≤ S ≤ 0.6, where S is defined as an average value of area fractions of the bottom faces of the projecting parts on the same plane as the surface of the anode side of the membrane; and T ≤ 0.05, where T is defined as an average value of area fractions of the top parts of the projecting parts on the surface of the anode side of the membrane, wherein the projecting parts have a single shape or a mixed shape of two or more shapes selected from the group consisting of a circular cone-like shape, a quadrangular pyramid-like shape, a circular truncated cone-like shape and a truncated quadrangular pyramid-like shape.
Method for carrying out hydraulic balancing of a heating system in an automated manner, comprising at least one heat generator, heat consumers (16, 18, 20) each with at least one valve (22, 24, 26), a temperature sensor (28, 30, 32) in the feed line of the heat generator and a temperature sensor (34, 36, 38) in the return line of the heat generator, characterized in that the heat consumer (16, 18, 20) with the lowest return line temperature is ascertained, and in that, starting from the lowest return line temperature, the valve position of the valves (22, 24, 26) of the other heat consumers (16, 18, 20) is determined in such a way that all return line temperatures lie in a prespecifiable range.
A fan blade containment system (200, 1000, 1200) for an aircraft structure, the fan blade containment system comprising: a shield (318, 1004, 1204) configured to be coupled to the aircraft structure and configured to at least partially surround a circumference of an aircraft engine comprising a housing that houses an intake fan that includes fan blades configured to draw air into the aircraft engine, the shield (318, 1004, 1204) further being configured to be positioned a distance away from an outer surface of the housing of the aircraft engine to provide spacing between the fan blade containment system (200, 1000, 1200) and the aircraft engine when the shield (318, 1004, 1204) is coupled to the aircraft structure; and a shield termination fitting (324, 1002, 1202) coupled to a terminating end (326, 1128) of the shield (318, 1004, 1204), wherein the shield termination fitting (324, 1002, 1202) is configured to couple the terminating end (326, 1128) of the shield (318, 1004, 1204) to the aircraft structure. a shield (318, 1004, 1204) configured to be coupled to the aircraft structure and configured to at least partially surround a circumference of an aircraft engine comprising a housing that houses an intake fan that includes fan blades configured to draw air into the aircraft engine, the shield (318, 1004, 1204) further being configured to be positioned a distance away from an outer surface of the housing of the aircraft engine to provide spacing between the fan blade containment system (200, 1000, 1200) and the aircraft engine when the shield (318, 1004, 1204) is coupled to the aircraft structure; and a shield termination fitting (324, 1002, 1202) coupled to a terminating end (326, 1128) of the shield (318, 1004, 1204), wherein the shield termination fitting (324, 1002, 1202) is configured to couple the terminating end (326, 1128) of the shield (318, 1004, 1204) to the aircraft structure.
A gas turbine engine with an axial centerline comprising: a gearbox including a plurality of first gears and a plurality of second gears, the first gears meshed together and respectively rotatable about parallel first gear axes, and the second gears meshed together and respectively rotatable about parallel second gear axes, wherein each of the first gear axes and each of the second gear axes is non-parallel with the axial centerline; a first torque transmission apparatus configured to drive the first gears wherein the first torque transmission apparatus comprises a first tower shaft; and a second torque transmission apparatus configured to drive the second gears, wherein the second torque transmission apparatus comprises a second tower shaft; wherein the first gears are meshed together in a first plane parallel with the axial centerline; and the second gears are meshed together in a second plane parallel with the axial centerline; characterised in that: the second plane is parallel with and spaced from the first plane, or angularly offset from the first plane by an acute angle. a gearbox including a plurality of first gears and a plurality of second gears, the first gears meshed together and respectively rotatable about parallel first gear axes, and the second gears meshed together and respectively rotatable about parallel second gear axes, wherein each of the first gear axes and each of the second gear axes is non-parallel with the axial centerline; a first torque transmission apparatus configured to drive the first gears wherein the first torque transmission apparatus comprises a first tower shaft; and a second torque transmission apparatus configured to drive the second gears, wherein the second torque transmission apparatus comprises a second tower shaft; wherein the first gears are meshed together in a first plane parallel with the axial centerline; and the second gears are meshed together in a second plane parallel with the axial centerline; characterised in that: the second plane is parallel with and spaced from the first plane, or angularly offset from the first plane by an acute angle.
A method of validating a vertical light beam spectrophotometer, the method comprising the steps of: providing at least one conventional cuvette with a first end and a second end opposite the first end and, which conventional cuvette is adapted to contain a reference sample, providing: an adaptor plate which comprises a generally rectangular plate having one or more openings for passage of light through the plate a means for elevating an end of the at least one conventional cuvette (100, 400) in a vertical direction relative to the opposite end of the conventional cuvette (100, 400), and a means for aligning the cuvette over the one or more openings, wherein the adaptor plate has a top face, a bottom face and one or more openings for passage of light through the plate, and wherein the means for elevating are provided on or in at least a portion of the top face which is thereby configured such that an end of the at least one conventional cuvette (100, 400) is elevated in a vertical direction relative to an opposite end of the conventional cuvette (100, 400); aligning the conventional cuvette (100, 400) over the one or more openings, such that light passes through the conventional cuvette (100, 400); operating the vertical light beam spectrophotometer to obtain a reading for a reference sample in the conventional cuvette(100, 400), and determining whether the vertical light beam spectrophotometer is performed within acceptable tolerance limits by comparing the reading with the reference sample's known measurement value. providing at least one conventional cuvette with a first end and a second end opposite the first end and, which conventional cuvette is adapted to contain a reference sample, providing: an adaptor plate which comprises a generally rectangular plate having one or more openings for passage of light through the plate a means for elevating an end of the at least one conventional cuvette (100, 400) in a vertical direction relative to the opposite end of the conventional cuvette (100, 400), and a means for aligning the cuvette over the one or more openings, wherein the adaptor plate has a top face, a bottom face and one or more openings for passage of light through the plate, and wherein the means for elevating are provided on or in at least a portion of the top face which is thereby configured such that an end of the at least one conventional cuvette (100, 400) is elevated in a vertical direction relative to an opposite end of the conventional cuvette (100, 400); aligning the conventional cuvette (100, 400) over the one or more openings, such that light passes through the conventional cuvette (100, 400); operating the vertical light beam spectrophotometer to obtain a reading for a reference sample in the conventional cuvette(100, 400), and determining whether the vertical light beam spectrophotometer is performed within acceptable tolerance limits by comparing the reading with the reference sample's known measurement value.
A conductive foam (10, 80) for an automotive seat assembly, the conductive foam (10, 80) comprising: a base polyurethane foam; the base foam being coated and/or saturated with an electrical bonding agent using a wet add-on application; the saturated base foam being oven cured until dry; and wherein the electrical bonding agent comprises carbon black conductive particles, a carboxylated styrene-butadiene emulsion latex binder, and a dispersing agent, and wherein the base foam comprises 95 PPHP (parts per hundred polyol) high reactivity 6000 molecular weight capped triol polyether polyol, 3 PPHP glycerine/sucrose initiated polyether polyol, 2 PPHP glycerin-initiated polyether polyol, and 0.425 PPHP silicone surfactant. a base polyurethane foam; the base foam being coated and/or saturated with an electrical bonding agent using a wet add-on application; the saturated base foam being oven cured until dry; and wherein the electrical bonding agent comprises carbon black conductive particles, a carboxylated styrene-butadiene emulsion latex binder, and a dispersing agent, and wherein the base foam comprises 95 PPHP (parts per hundred polyol) high reactivity 6000 molecular weight capped triol polyether polyol, 3 PPHP glycerine/sucrose initiated polyether polyol, 2 PPHP glycerin-initiated polyether polyol, and 0.425 PPHP silicone surfactant.
A mobile terminal, comprising a processor, a touch display screen and a fingerprint recognition apparatus, wherein a fingerprint recognition region of the fingerprint recognition apparatus comprises a first region of the touch display screen, the first region supports a fingerprint recognition function, and the processor is configured to determine a second region when an operation for the mobile terminal satisfies a condition for inputting a fingerprint, the second region being a part of the first region, and to only enable the fingerprint recognition function of the fingerprint recognition apparatus in the second region without enabling the fingerprint recognition function in the first region excluding the second region, and to highlight the second region after the second region is determined according to a random strategy.
A method for manufacturing ceramic products comprising; a feeding step to feed a mixture of at least two ceramic powders having different features and/or colours from one another so as to obtain a powder material strip; a compacting step to compact the powder material strip so as to obtain a compacted power layer provided with respective surface chromatic effects and with respective chromatic effects in the thickness; characterized by a printing step to create a graphic decoration on the surface of the compacted powder layer so as to make it more similar to a natural product; the printing step comprising the further steps of: acquiring a surface image of the compacted powder layer, which reproduces the respective surface chromatic effects; processing said surface image so as to obtain a graphic decoration to be applied on the surface of the compacted powder layer, which is coordinated with the respective chromatic effects in the thickness; and printing the graphic decoration on the surface of the compacted powder layer. acquiring a surface image of the compacted powder layer, which reproduces the respective surface chromatic effects; processing said surface image so as to obtain a graphic decoration to be applied on the surface of the compacted powder layer, which is coordinated with the respective chromatic effects in the thickness; and printing the graphic decoration on the surface of the compacted powder layer.
A screw, comprising - a screw head provided with an engagement portion, - a shaft that defines a screw axis and carries a thread, and - a thread-free shaft portion arranged between the thread and the screw head, - wherein an end of the thread at the head is cut off, - wherein the thread ends adjacently to the thread-free shaft portion in an end plane that extends around the shaft at least in part at a constant distance from the screw head and forms an angle α E with the screw axis, - wherein remote from the thread-free shaft portion, flank of the thread at the head forms an angle α F with the screw axis, and - the angle α E is smaller than the angle α F, characterized in that the thread running towards the screw head has a constant pitch across a plurality of thread turns, and ends at a pitch of 0 after a kink. - a screw head provided with an engagement portion, - a shaft that defines a screw axis and carries a thread, and - a thread-free shaft portion arranged between the thread and the screw head, - wherein an end of the thread at the head is cut off, - wherein the thread ends adjacently to the thread-free shaft portion in an end plane that extends around the shaft at least in part at a constant distance from the screw head and forms an angle α E with the screw axis, - wherein remote from the thread-free shaft portion, flank of the thread at the head forms an angle α F with the screw axis, and - the angle α E is smaller than the angle α F,
A turbine engine system (200; 300; 400), comprising: a combustor (212; 312; 412) arranged along a core flow path of the turbine engine; a cryogenic fuel tank (222; 322; 422) configured to supply a fuel to the combustor; a fuel supply line having a first flow supply line (226; 326; 426) and a second flow supply line (228; 328; 428), the first flow supply line fluidly connecting the cryogenic fuel tank to the combustor through a first core flow path heat exchanger (232; 332; 432), and the second flow supply line fluidly connecting the cryogenic fuel tank to the combustor through a second core flow path heat exchanger (240; 342; 442); a flow controller (224; 324; 424) arranged along the fuel supply line and configured to respectively control a flow of fuel into the first flow supply line (226; 326; 426) and the second flow supply line (228; 328; 428); and an expansion turbine (234; 334; 434) configured to receive fuel from at least one of the first flow supply line (226; 326; 426) and the second flow supply line (228; 328; 428) downstream of the respective first core flow path heat exchanger (232; 332; 432) and second core flow path heat exchanger (240; 342; 442) and upstream of the combustor (212; 312; 412); characterized by at least one additional heat exchanger (238; 446) arranged between the expansion turbine (234; 434) and the combustor (212; 412). a combustor (212; 312; 412) arranged along a core flow path of the turbine engine; a cryogenic fuel tank (222; 322; 422) configured to supply a fuel to the combustor; a fuel supply line having a first flow supply line (226; 326; 426) and a second flow supply line (228; 328; 428), the first flow supply line fluidly connecting the cryogenic fuel tank to the combustor through a first core flow path heat exchanger (232; 332; 432), and the second flow supply line fluidly connecting the cryogenic fuel tank to the combustor through a second core flow path heat exchanger (240; 342; 442); a flow controller (224; 324; 424) arranged along the fuel supply line and configured to respectively control a flow of fuel into the first flow supply line (226; 326; 426) and the second flow supply line (228; 328; 428); and an expansion turbine (234; 334; 434) configured to receive fuel from at least one of the first flow supply line (226; 326; 426) and the second flow supply line (228; 328; 428) downstream of the respective first core flow path heat exchanger (232; 332; 432) and second core flow path heat exchanger (240; 342; 442) and upstream of the combustor (212; 312; 412); characterized by at least one additional heat exchanger (238; 446) arranged between the expansion turbine (234; 434) and the combustor (212; 412).
Transmission unit for a drive of a wheel on a wheeled vehicle, in particular a rail vehicle, having a transmission, a connecting shaft for connecting the wheel and the transmission, and a split coupling system which is provided between the wheel and the transmission, is arranged on the connecting shaft and acts in a cardanic manner, the connecting shaft being guided through a hollow wheel hub, and a first part of the coupling system being arranged on the side which faces the transmission, and a second part being arranged on that side of the wheel which faces away from the transmission, characterized in that the connecting shaft is configured in two pieces and has a separation point, the two parts of the connecting shaft being connected at the separation point by means of a central screw.
A pharmaceutical composition comprising a bispecific single chain antibody construct, whereby said construct comprises or consists of at least two domains, whereby one of said domains binds to human EpCAM antigen and a second domain binds to human CD3 antigen, wherein said bispecific single chain antibody construct comprises an amino acid sequence selected from the group of (a) an amino acid sequence as shown in any of SEQ ID NOs: 2, 4, 8, 10, 12, 14, 16, 18, 20, 30, 36, 39, 42, 44, 46, and 48; (b) an amino acid sequence encoded by a nucleic acid sequence as shown in any of SEQ ID NOs: 1, 3, 7, 9, 11, 13, 15, 17, 19, 29, 35, 38, 41, 43, 45, and 47; and (c) an amino acid sequence of a) encoded by a nucleic acid sequence which is degenerate as a result of the genetic code to a nucleotide sequence of (b). (a) an amino acid sequence as shown in any of SEQ ID NOs: 2, 4, 8, 10, 12, 14, 16, 18, 20, 30, 36, 39, 42, 44, 46, and 48; (b) an amino acid sequence encoded by a nucleic acid sequence as shown in any of SEQ ID NOs: 1, 3, 7, 9, 11, 13, 15, 17, 19, 29, 35, 38, 41, 43, 45, and 47; and (c) an amino acid sequence of a) encoded by a nucleic acid sequence which is degenerate as a result of the genetic code to a nucleotide sequence of (b).
A method performed in a radio device for facilitating login on a website, the method comprising: by means of a web browser in the radio device, downloading a web page of the website from a web server hosting the website; receiving, at an app of a service provider, a login request from the web server, the login request comprising a request for login information for the website; in response to the received login request and by means of the app, automatically sending a login token request to a server of the service provider; from the server of the service provider, receiving at the app a login token response comprising a login token; and to the web server, the app sending a login information message comprising the login token. by means of a web browser in the radio device, downloading a web page of the website from a web server hosting the website; receiving, at an app of a service provider, a login request from the web server, the login request comprising a request for login information for the website; in response to the received login request and by means of the app, automatically sending a login token request to a server of the service provider; from the server of the service provider, receiving at the app a login token response comprising a login token; and to the web server, the app sending a login information message comprising the login token.
An electron microscope comprising: an electron microscope main body including a phase plate that imparts a phase change to an electron wave, a moving mechanism that moves the phase plate, and a detector that acquires an image formed by an electron beam transmitted through a sample; and a control unit that controls the electron microscope main body, the control unit performing: a phase plate image acquisition process of acquiring a phase plate image which is an image of the phase plate; an unevenness determination process of determining whether or not the phase plate has unevenness based on the phase plate image; and a moving mechanism control process of moving the phase plate by controlling the moving mechanism when the control unit has determined that the unevenness is present. an electron microscope main body including a phase plate that imparts a phase change to an electron wave, a moving mechanism that moves the phase plate, and a detector that acquires an image formed by an electron beam transmitted through a sample; and a control unit that controls the electron microscope main body, the control unit performing: a phase plate image acquisition process of acquiring a phase plate image which is an image of the phase plate; an unevenness determination process of determining whether or not the phase plate has unevenness based on the phase plate image; and a moving mechanism control process of moving the phase plate by controlling the moving mechanism when the control unit has determined that the unevenness is present. a phase plate image acquisition process of acquiring a phase plate image which is an image of the phase plate; an unevenness determination process of determining whether or not the phase plate has unevenness based on the phase plate image; and a moving mechanism control process of moving the phase plate by controlling the moving mechanism when the control unit has determined that the unevenness is present.
A composite radius filler, comprising: a base portion formed of composite plies varying in overall width along an overall lengthwise direction and defining a variable cross-sectional shape of the base portion along the lengthwise direction, the base portion including at least one transition zone having a transition start and a transition end along the lengthwise direction; the composite plies of the base portion being arranged in one or more stacks, at least one of the one or more stacks comprising a laminated charge of composite plies having a predetermined fiber orientation angle sequence and having a stack width (278, 282), the stack width (278, 282) of at least one of the stacks changing within the transition zone; and a tip portion comprised of a plurality of unidirectional slit tape tows formed into a generally triangular cross-sectional shape and stacked on top of the base portion, each of the slit tape tows having a non-planar cross-sectional shape compared to the composite plies of the base portion. a base portion formed of composite plies varying in overall width along an overall lengthwise direction and defining a variable cross-sectional shape of the base portion along the lengthwise direction, the base portion including at least one transition zone having a transition start and a transition end along the lengthwise direction; the composite plies of the base portion being arranged in one or more stacks, at least one of the one or more stacks comprising a laminated charge of composite plies having a predetermined fiber orientation angle sequence and having a stack width (278, 282), the stack width (278, 282) of at least one of the stacks changing within the transition zone; and a tip portion comprised of a plurality of unidirectional slit tape tows formed into a generally triangular cross-sectional shape and stacked on top of the base portion, each of the slit tape tows having a non-planar cross-sectional shape compared to the composite plies of the base portion.