mhurhangee/ep-ind-claims huggingface dataset:
An organic photovoltaic device, in a layered structure, comprising: - a substrate, - a bottom electrode, - a top electrode, wherein the bottom electrode is closer to the substrate than the top electrode, - an electronically active region (52, 53, 54), the electronically active region (52, 53, 54) being provided between and being in electrical contact with the bottom electrode and the top electrode, - a light absorbing region provided in the electronically active region (52, 53, 54), and - a non-flat layer provided in the electronically active region (52, 53, 54), wherein the non-flat layer is a non-closed layer comprising a plurality of particles provided on an underlying layer and separated from each other by spaces free of such particles, characterized in that the non-flat layer causes the top electrode to be provided with an electrode roughness by roughening the top electrode on an outer side of the top electrode facing away from the electronically active region (52, 53, 54) such that the top electrode is a non-flat electrode. - a substrate, - a bottom electrode, - a top electrode, wherein the bottom electrode is closer to the substrate than the top electrode, - an electronically active region (52, 53, 54), the electronically active region (52, 53, 54) being provided between and being in electrical contact with the bottom electrode and the top electrode, - a light absorbing region provided in the electronically active region (52, 53, 54), and - a non-flat layer provided in the electronically active region (52, 53, 54),
A fluid meter comprising communication means arranged to receive an external opening or closing command to open or close an electromechanical valve included in a cut-off unit mounted in the proximity of the fluid meter, authentication means arranged to authenticate a control frame including the opening or closing command, and a first communication interface arranged to transmit both the control frame and electrical energy to a second communication interface of the cut-off unit via a wireless link, the electrical energy being suitable for electrically powering the second communication interface of the cut-off unit.
A preparation method of a super absorbent polymer composition, comprising 1) a step of forming a hydrogel polymer by cross-linking polymerization of a water-soluble ethylene-based unsaturated monomer having at least partially neutralized acidic groups in the presence of an internal cross-linking agent and a polymerization initiator; 2) a step of mixing the hydrogel polymer with a carboxylic acid-based additive, followed by pulverization to prepare a pulverized product containing hydrous super absorbent polymer particles and the additive; and 3) a step of preparing a super absorbent polymer composition containing super absorbent polymer particles having a surface cross-linked layer formed on at least a part of a surface and the additive by mixing a surface cross-linking agent with the pulverized product, followed by drying; wherein the carboxylic acid-based additive is at least one selected from the group consisting of a carboxylic acid represented by the following Chemical Formula 1 and a salt thereof: in Chemical Formula 1, A is alkyl having 5 to 21 carbon atoms, B 1 is -OCO-, -COO-, or -COOCH(R 1)COO-, B 2 is -CH 2 -, -CH 2 CH 2 -, -CH(R 2)-, -CH=CH-, or -C = C-, wherein, R 1 and R 2 are each independently alkyl having 1 to 4 carbon atoms, n is an integer of 1 to 3, and C is a carboxyl group. 1) a step of forming a hydrogel polymer by cross-linking polymerization of a water-soluble ethylene-based unsaturated monomer having at least partially neutralized acidic groups in the presence of an internal cross-linking agent and a polymerization initiator; 2) a step of mixing the hydrogel polymer with a carboxylic acid-based additive, followed by pulverization to prepare a pulverized product containing hydrous super absorbent polymer particles and the additive; and 3) a step of preparing a super absorbent polymer composition containing super absorbent polymer particles having a surface cross-linked layer formed on at least a part of a surface and the additive by mixing a surface cross-linking agent with the pulverized product, followed by drying; wherein the carboxylic acid-based additive is at least one selected from the group consisting of a carboxylic acid represented by the following Chemical Formula 1 and a salt thereof: in Chemical Formula 1, A is alkyl having 5 to 21 carbon atoms, B 1 is -OCO-, -COO-, or -COOCH(R 1)COO-, B 2 is -CH 2 -, -CH 2 CH 2 -, -CH(R 2)-, -CH=CH-, or -C = C-, wherein, R 1 and R 2 are each independently alkyl having 1 to 4 carbon atoms, n is an integer of 1 to 3, and C is a carboxyl group. A is alkyl having 5 to 21 carbon atoms, B 1 is -OCO-, -COO-, or -COOCH(R 1)COO-, B 2 is -CH 2 -, -CH 2 CH 2 -, -CH(R 2)-, -CH=CH-, or -C = C-, wherein, R 1 and R 2 are each independently alkyl having 1 to 4 carbon atoms, n is an integer of 1 to 3, and C is a carboxyl group.
High pressure pump for a fuel injection system, in particular a common rail injection system, comprising a housing part with a bore, in which a pump piston is accommodated in such a way that it can be moved with a reciprocating motion, which pump piston is supported via a tappet assembly on a cam or eccentric and delimits a pump working chamber in the axial direction, which pump working chamber can be filled with fuel via a suction valve, which is integrated into the high pressure pump, characterized in that a feed bore is formed in the housing part in order to supply the suction valve with fuel, which feed bore is connected to a bore of a further housing part, which bore connects a pump interior chamber and a tappet chamber, and in that the feed bore is connected to the bore connecting the pump interior chamber and the tappet chamber by a branch bore formed in the further housing part.
Cyclonic portable vacuum cleaner comprising: - a main body, - an air circuit comprising an aspiration air inlet and an air outlet, - a cyclonic enclosure integral with the main body, and arranged to separate the impurities from a flow of air travelling through the air circuit, wherein the main body and the cyclonic enclosure each have a base, the base of the main body comprising a main lower surface and means of bearing forming a bearing plane of the vacuum cleaner for resting on a planar support, the base of the cyclonic enclosure being offset from the bearing plane, in such a way that only the means of bearing of the base of the main body rest on the planar support, characterised in that the means of bearing comprise two longitudinal lateral ribs (16a, 16b) arranged on each side of the main lower surface of the base of the main body. - a main body, - an air circuit comprising an aspiration air inlet and an air outlet, - a cyclonic enclosure integral with the main body, and arranged to separate the impurities from a flow of air travelling through the air circuit,
A compound having a structural formula: wherein R 1, independently, is selected from the group consisting of NO 2, OCF 3, CF 3, CH 3, or C 3 H 7; and n is 0 or 1; wherein the compound is selected from the group consisting of (+)-trans(S,S)-[2-(2-Cyclopropylmethyloxy-5-fluorophenyl)cyclopropyl] methylamine Hydrochloride and (+)-trans(S,S)-[2-(2-Cyclopropylmethyloxy-5-hydroxyphenyl)cyclopropyl] methylamine Hydrochloride. wherein R 1, independently, is selected from the group consisting of NO 2, OCF 3, CF 3, CH 3, or C 3 H 7; and n is 0 or 1; wherein the compound is selected from the group consisting of (+)-trans(S,S)-[2-(2-Cyclopropylmethyloxy-5-fluorophenyl)cyclopropyl] methylamine Hydrochloride and (+)-trans(S,S)-[2-(2-Cyclopropylmethyloxy-5-hydroxyphenyl)cyclopropyl] methylamine Hydrochloride.
A method of transmitting a signal, which is transmitted by a device to device, D2D, UE in a wireless communication system, comprising the steps of: being configured with resource related with D2D transmission from an eNB; and selecting a time-frequency resource for a D2D control signal from the resource; and transmitting the D2D control signal when there is D2D data to be transmitted by the UE, characterized in that: when the D2D control signal is transmitted in a previous D2D control signal period, transmission of the D2D control signal is exceptionally allowed during a prescribed time period even without the D2D data, and the prescribed time period corresponds to a time period lasting until a first timer is expired after the D2D control signal is transmitted in the previous control signal period being configured with resource related with D2D transmission from an eNB; and selecting a time-frequency resource for a D2D control signal from the resource; and transmitting the D2D control signal when there is D2D data to be transmitted by the UE, characterized in that: when the D2D control signal is transmitted in a previous D2D control signal period, transmission of the D2D control signal is exceptionally allowed during a prescribed time period even without the D2D data, and the prescribed time period corresponds to a time period lasting until a first timer is expired after the D2D control signal is transmitted in the previous control signal period when the D2D control signal is transmitted in a previous D2D control signal period, transmission of the D2D control signal is exceptionally allowed during a prescribed time period even without the D2D data, and the prescribed time period corresponds to a time period lasting until a first timer is expired after the D2D control signal is transmitted in the previous control signal period
Method for producing a steel tube comprising the manufacturing of a steel tube with an inner tube wall, an outer tube wall, and a free tube cross section enclosed by the inner tube wall, wherein after the manufacturing, the steel tube comprises at least one contaminant on the inner tube wall,and wherein after the manufacturing of the steel tube, the inner tube wall is cleaned, characterized in that cleaning comprises the steps of: connecting a first end of the steel tube to an outlet nozzle or opening for liquid or solid CO 2, introducing the liquid or solid CO 2 into the free tube cross section, and applying the liquid or solid CO 2 onto the inner tube wall in order to remove the contaminant from the inner tube wall, wherein the liquid or solid CO 2 is introduced from the first end of the steel tube into the free tube cross section. connecting a first end of the steel tube to an outlet nozzle or opening for liquid or solid CO 2, introducing the liquid or solid CO 2 into the free tube cross section, and applying the liquid or solid CO 2 onto the inner tube wall in order to remove the contaminant from the inner tube wall, wherein the liquid or solid CO 2 is introduced from the first end of the steel tube into the free tube cross section.
A protection monitoring system comprising: a protection fault handler comprising a protection fault indicator (44,46), wherein the protection fault handler is configured to activate the protection fault (44,46) indicator upon indication of a protection fault signal, wherein the protection fault signal is indicative of a critical fault which has occurred in a protection system monitored by the protection monitoring system; and a user inhibit handler comprising a user inhibit indicator, wherein the user inhibit handler is configured to activate the user inhibit indicator upon indication of a user inhibit signal, wherein the user inhibit signal is indicative of a user-enabled alarm inhibit or a user-enabled bypass. a protection fault handler comprising a protection fault indicator (44,46), wherein the protection fault handler is configured to activate the protection fault (44,46) indicator upon indication of a protection fault signal, wherein the protection fault signal is indicative of a critical fault which has occurred in a protection system monitored by the protection monitoring system; and a user inhibit handler comprising a user inhibit indicator, wherein the user inhibit handler is configured to activate the user inhibit indicator upon indication of a user inhibit signal, wherein the user inhibit signal is indicative of a user-enabled alarm inhibit or a user-enabled bypass.
A method performed by a data processing system comprising: receiving a computer aided drafting, CAD, model representing a composite part having a height representing a plurality of composite material layers (502, 504), where said CAD model contains one or more inclusions (126, 208) within a structural volume; generating, for each layer height of the composite part, a ply shape representation at each layer of a composite material within the structural volume having a first surface; determining, for each layer height of the composite part, whether the first surface rests on or butts up against a second surface; if, as a result of the determining step, the first surface rests on the second surface, storing the generated ply shape representation into a container of bottom shapes; if, as a result of the determining step, the first surface butts up against the second surface, combining the generated ply shape representation with one or more generated ply shapes representing bottom shapes from a previous layer height to form a ply shape representing a respective material layer (502, 504); generating, as a result of the plurality of determining, storing and combining steps, a resultant model and resultant projection onto a laminate surface of the CAD model having a resulting plurality of represented composite layers, wherein said represented composite layers (502, 504) are not within one or more inclusions of the represented composite part; manufacturing, by a three-dimensional printing device or additive manufacturing device, the composite part based on the generated resultant model. receiving a computer aided drafting, CAD, model representing a composite part having a height representing a plurality of composite material layers (502, 504), where said CAD model contains one or more inclusions (126, 208) within a structural volume; generating, for each layer height of the composite part, a ply shape representation at each layer of a composite material within the structural volume having a first surface; determining, for each layer height of the composite part, whether the first surface rests on or butts up against a second surface; if, as a result of the determining step, the first surface rests on the second surface, storing the generated ply shape representation into a container of bottom shapes; if, as a result of the determining step, the first surface butts up against the second surface, combining the generated ply shape representation with one or more generated ply shapes representing bottom shapes from a previous layer height to form a ply shape representing a respective material layer (502, 504); generating, as a result of the plurality of determining, storing and combining steps, a resultant model and resultant projection onto a laminate surface of the CAD model having a resulting plurality of represented composite layers, wherein said represented composite layers (502, 504) are not within one or more inclusions of the represented composite part; manufacturing, by a three-dimensional printing device or additive manufacturing device, the composite part based on the generated resultant model.
A method of identifying an authentic birefringent polymer film comprising measuring the birefringence of the film by measuring the variation in the intensity of light passing through crossed polarisers when the film is placed between the polarisers and either the film is rotated or the polarisers are rotated whilst maintaining the same rotational configuration with respect to one another, and determining whether said film is authentic on the basis of the film meeting a specified pre-defined criterion of birefringence based upon the measurement obtained in said measuring step. measuring the birefringence of the film by measuring the variation in the intensity of light passing through crossed polarisers when the film is placed between the polarisers and either the film is rotated or the polarisers are rotated whilst maintaining the same rotational configuration with respect to one another, and determining whether said film is authentic on the basis of the film meeting a specified pre-defined criterion of birefringence based upon the measurement obtained in said measuring step.
A method of mounting a self-hoisting crane on a nacelle of a wind turbine, whereby the self-hoisting crane includes a pedestal, a boom arm, a hook block and at least one cable (7, 8) adapted to lift or lower the hook block in relation to the boom arm for operation of the self-hoisting crane in its mounted position on the nacelle, whereby the pedestal is adapted to be mounted in a mounting position on a crane base arranged on the nacelle, whereby the self-hoisting crane is hoisted from the ground to the nacelle by operating a cable winch arranged at the ground, whereby, during hoisting of the self-hoisting crane, the at least one cable (7, 8) extends from the hook block, out through a central opening in the pedestal, around at least one roller (14, 15, 16, 17) arranged at the crane base and to the cable winch arranged at the ground, whereby the self-hoisting crane is lifted from the ground with the pedestal pointing upwards until an intermediate first hinge part of the self-hoisting crane is positioned at a corresponding intermediate second hinge part of the crane base, whereby the intermediate first and second hinge parts (18, 19) are connected together and the self-hoisting crane is pivoted about a hinge axis of the intermediate first and second hinge parts (18, 19), and whereby the pedestal is mounted on the crane base with the boom arm of the self-hoisting crane arranged above the pedestal for normal operation, characterised in that, before lifting the self-hoisting crane from the ground to the nacelle, a hoist block including the at least one roller (14, 15, 16, 17) is arranged on a jib at a first hoist block position above the intermediate second hinge part of the crane base and extended in horizontal direction from the nacelle, in that, during lifting of the self-hoisting crane to the nacelle, when the self-hoisting crane arrives at the position whereby the intermediate first hinge part of the self-hoisting crane is positioned at the corresponding intermediate second hinge part of the crane base, the cable (7, 8) extends in a downward direction directly from the at least one roller (14, 15, 16, 17) of the hoist block and through the central opening in the pedestal and therefrom to the hook block, and in that, after mutual connection of the intermediate first and second hinge parts (18, 19), the hoist block is removed from its first hoist block position on the jib.
An electronic component mounting system comprising: a solder printer that is configured to print solder paste onto a circuit board; a mounter (14, 15) provided with a board holding device that is configured to hold the circuit board, a component supply device that is configured to supply electronic components, and a mounting device that is configured to pick up the electronic component supplied by the component supply device and to mount the picked up component on the circuit board held by the board holding device by raising and lowering a component holding tool; an elapsed time acquiring section that is configured to acquire an elapsed time from printing onto the circuit board by the solder printer; the electronic component mounting system being characterized by a raising and lowering operation changing section that is configured to change raising and lowering operation of the component holding tool based on the elapsed time from printing acquired by the elapsed time acquiring section; wherein the mounter (14, 15) is configured to mount the electronic component on the solder printed on the circuit board by the solder printer by raising and lowering the component holding tool according to the raising and lowering operation changed by the raising and lowering operation changing section. a solder printer that is configured to print solder paste onto a circuit board; a mounter (14, 15) provided with a board holding device that is configured to hold the circuit board, a component supply device that is configured to supply electronic components, and a mounting device that is configured to pick up the electronic component supplied by the component supply device and to mount the picked up component on the circuit board held by the board holding device by raising and lowering a component holding tool; an elapsed time acquiring section that is configured to acquire an elapsed time from printing onto the circuit board by the solder printer; the electronic component mounting system being characterized by a raising and lowering operation changing section that is configured to change raising and lowering operation of the component holding tool based on the elapsed time from printing acquired by the elapsed time acquiring section; wherein the mounter (14, 15) is configured to mount the electronic component on the solder printed on the circuit board by the solder printer by raising and lowering the component holding tool according to the raising and lowering operation changed by the raising and lowering operation changing section.
A neutron spectrometer, comprising: an organic scintillator responsive to neutrons and gammas; an inorganic scintillator configured to capture moderated neutrons that have slowed down in the organic scintillator, said inorganic scintillator comprising lithium gadolinium borate or lithium yttrium borate; a processor (50, 70) which is adapted to receive signals representative of scintillations in the organic scintillator and in the inorganic scintillator and discriminate neutron moderating signals from gamma signals; determine pulse areas for neutron moderating signals; and characterized in that the processor is adapted to perform unfolding based on the determined pulse areas of the neutron moderating signals to produce a neutron energy spectrum using as input for unfolding measured counts at different pulse areas and a predetermined calibrated response matrix, which is the correlation between moderating pulse area and neutron energy for the organic scintillator. an organic scintillator responsive to neutrons and gammas; an inorganic scintillator configured to capture moderated neutrons that have slowed down in the organic scintillator, said inorganic scintillator comprising lithium gadolinium borate or lithium yttrium borate; a processor (50, 70) which is adapted to receive signals representative of scintillations in the organic scintillator and in the inorganic scintillator and discriminate neutron moderating signals from gamma signals; determine pulse areas for neutron moderating signals; and characterized in that the processor is adapted to perform unfolding based on the determined pulse areas of the neutron moderating signals to produce a neutron energy spectrum using as input for unfolding measured counts at different pulse areas and a predetermined calibrated response matrix, which is the correlation between moderating pulse area and neutron energy for the organic scintillator. receive signals representative of scintillations in the organic scintillator and in the inorganic scintillator and discriminate neutron moderating signals from gamma signals; determine pulse areas for neutron moderating signals; and characterized in that the processor is adapted to perform unfolding based on the determined pulse areas of the neutron moderating signals to produce a neutron energy spectrum using as input for unfolding measured counts at different pulse areas and a predetermined calibrated response matrix, which is the correlation between moderating pulse area and neutron energy for the organic scintillator.