mhurhangee/ep-ind-claims huggingface dataset:
An encapsulant material for a photovoltaic module, the encapsulant material comprising: between 30 and 50 parts by weight of a fiber cloth, the fiber cloth being formed by a fiber material; and between 50 and 70 parts by weight of a weather resistant polyester powder coating, the weather resistant polyester powder coating comprising a weather resistant polyester resin and a curing agent, and the weather resistant polyester powder coating being evenly distributed on the fiber cloth. between 30 and 50 parts by weight of a fiber cloth, the fiber cloth being formed by a fiber material; and between 50 and 70 parts by weight of a weather resistant polyester powder coating, the weather resistant polyester powder coating comprising a weather resistant polyester resin and a curing agent, and the weather resistant polyester powder coating being evenly distributed on the fiber cloth.
A carbon dioxide reduction system comprising: an absorption tower configured to bring a source gas containing carbon dioxide into contact with an absorption liquid composed of an aqueous solution containing at least one amine compound so that the carbon dioxide is absorbed in the absorption liquid; an electrolysis apparatus for electrolyzing the carbon dioxide absorbed in the absorption liquid in the absorption tower; a circulation line (13/14) for circulating the absorption liquid between the absorption tower and the electrolysis apparatus, wherein the circulation line (13/14) includes an absorption liquid supply line for supplying the absorption liquid in the electrolysis apparatus to the absorption tower; an impurity removal apparatus for removing an impurity which is a component other than the at least one amine compound and water from the absorption liquid flowing through the absorption liquid supply line; an absorption liquid collection line for supplying a part of the absorption liquid circulating in the absorption liquid supply line from the absorption liquid supply line to the impurity removal apparatus; and an absorption liquid return line for returning the part of the absorption liquid from which the impurity was removed by the impurity removal apparatus from the impurity removal apparatus to the absorption liquid supply line. an absorption tower configured to bring a source gas containing carbon dioxide into contact with an absorption liquid composed of an aqueous solution containing at least one amine compound so that the carbon dioxide is absorbed in the absorption liquid; an electrolysis apparatus for electrolyzing the carbon dioxide absorbed in the absorption liquid in the absorption tower; a circulation line (13/14) for circulating the absorption liquid between the absorption tower and the electrolysis apparatus, wherein the circulation line (13/14) includes an absorption liquid supply line for supplying the absorption liquid in the electrolysis apparatus to the absorption tower; an impurity removal apparatus for removing an impurity which is a component other than the at least one amine compound and water from the absorption liquid flowing through the absorption liquid supply line; an absorption liquid collection line for supplying a part of the absorption liquid circulating in the absorption liquid supply line from the absorption liquid supply line to the impurity removal apparatus; and an absorption liquid return line for returning the part of the absorption liquid from which the impurity was removed by the impurity removal apparatus from the impurity removal apparatus to the absorption liquid supply line.
Weatherstripping or packing system having firebreak properties formed from an elastic material comprising a polyurethane foam, characterized in that the said foam is obtained by reaction between: - at least one polyol with a molecular weight of between 4000 and 7000 g/mol and with an OH number of between 20 and 40 (mg KOH/g), as a mixture with from 0.3% to 1.5% by weight of water as blowing agent, from 0.1% to 2% by weight of a catalytic system of amine type and from 0.3% to 0.5% by weight of an agent for stabilizing the cells (with respect to the weight of the said material), - and an isocyanate in the prepolymer or virtually prepolymer form comprising between 5% and 25% of free NCO functional groups (NCO content with respect to the weight of isocyanate), and in that the said material comprises at least 50% by weight of flame retardants. - at least one polyol with a molecular weight of between 4000 and 7000 g/mol and with an OH number of between 20 and 40 (mg KOH/g), as a mixture with from 0.3% to 1.5% by weight of water as blowing agent, from 0.1% to 2% by weight of a catalytic system of amine type and from 0.3% to 0.5% by weight of an agent for stabilizing the cells (with respect to the weight of the said material), - and an isocyanate in the prepolymer or virtually prepolymer form comprising between 5% and 25% of free NCO functional groups (NCO content with respect to the weight of isocyanate), and in that the said material comprises at least 50% by weight of flame retardants.
Electromagnetic brake device comprising a brake shoe for being moved into contact with and away from a brake drum, an armature connected to the brake shoe, a braking spring for pressing the brake shoe against the brake drum, an electromagnet disposed facing the armature to generate an electromagnetic suction force for opening the brake shoe away from the brake drum against the braking spring, the electromagnet being provided with a brake coil, a release detecting switch for detecting that the armature has been displaced to a full release position, and a current detector for detecting a value of a current conducted through the brake coil, the electromagnetic brake device further comprising an electromagnetic brake control device equipped with a control device body for exciting the brake coil to cause the brake coil to suck the armature with a view to releasing an electromagnetic brake device, wherein the control device body, which is configured to detect start of a release operation of the armature resulting from suction by the brake coil, is configured to reduce a suction force generated in the brake coil to a value smaller than a suction force before the start of the release operation when the start of the release operation is detected, characterized in that the control device body has a current command generating portion configured to generate a current command for causing a current to flow through the brake coil in accordance with a brake release command; a current control portion configured to generate a voltage command as a command regarding a value of a voltage applied to the brake coil such that an actual current value of the brake coil coincides with a value of the current command; a release operation detecting portion configured to detect the release operation of the armature based on a change in a value of the voltage command; and a current command adjusting portion configured to change the value of the current command based on information from the release operation detecting portion, wherein: the control device body further has a differentiation portion configured to differentiate the value of the voltage command to transmit the differentiated value to the release operation detecting portion; and the release operation detecting portion is configured to compare an output from the differentiation portion with a preset threshold to detect the start of the release operation. the control device body further has a differentiation portion configured to differentiate the value of the voltage command to transmit the differentiated value to the release operation detecting portion; and the release operation detecting portion is configured to compare an output from the differentiation portion with a preset threshold to detect the start of the release operation.
Composition comprising caffeine in a physiologically acceptable medium, intended to be used to prevent or alleviate skin redness from folliculitis or skin redness associated with the early stages of rosacea, characterized in that it is employed by topical application to the skin of the face.
A medical, in particular surgical, instrument, having two gripping elements (10, 12) which are pivotably mounted relative to each other, and a spring unit which has two spring end portions (20, 22), which are each connected to one of the two gripping elements (10, 12), so that when at least one of the two gripping elements (10, 12) is pivoted out of a base position, pivoting back into the base position can be carried out via the spring unit, wherein the spring unit is adapted to provide a substantially constant spring force when the gripping elements (10, 12) are pivoted, is in particular configured in at least two parts and has a first spring leg and a second spring leg, and a platform-shaped projection (24, 26) is formed on at least one of the two spring end portions (20, 22) and/or on at least one of the two gripping elements (10, 12), and via which the spring end portion (20, 22) is rigidly connected to the associated gripping element (10, 12), characterized in that the at least one spring end portion (20, 22) is arranged raised relative to the associated gripping element (10, 12) in at least the base position and has a distance therefrom, the platform-shaped projection (24, 26) forms a front-face contact supporting surface via which the at least one spring end portion (20, 22) is attached to the associated gripping element (10, 12). the spring unit is adapted to provide a substantially constant spring force when the gripping elements (10, 12) are pivoted, is in particular configured in at least two parts and has a first spring leg and a second spring leg, and a platform-shaped projection (24, 26) is formed on at least one of the two spring end portions (20, 22) and/or on at least one of the two gripping elements (10, 12), and via which the spring end portion (20, 22) is rigidly connected to the associated gripping element (10, 12), characterized in that the at least one spring end portion (20, 22) is arranged raised relative to the associated gripping element (10, 12) in at least the base position and has a distance therefrom, the platform-shaped projection (24, 26) forms a front-face contact supporting surface via which the at least one spring end portion (20, 22) is attached to the associated gripping element (10, 12).
A moisture sensor for measuring moisture in a building, comprising: - a flexible carrier for attaching said sensor to a floor or inner wall of a building; - a resonant circuit printed on said carrier; - a first antenna printed on said carrier, arranged to receive an electromagnetic signal within a first frequency range, said first frequency range being one of 10 kHz -1 MHz or 2.5 MHz -11 MHz, to convert said signal into an AC voltage, which voltage is arranged to alternate within said first frequency range; and to feed said voltage to said resonant circuit, wherein said first antenna is further arranged to emit an electromagnetic signal indicative of the impedance of said resonant circuit; - an encapsulation layer sealing said moisture sensor, which layer comprises a humidity permeable portion; wherein said resonant circuit comprises a moisture reactive element comprising: - a first and a second inert electrode (111, 112) comprising electrochemically substantially inert material, each electrode being arranged as a layer, and - a hygroscopic solid electrolyte arranged as a layer and spatially between said inert electrodes, which hygroscopic solid electrolyte at least in the presence of moisture forms mobile ions selected from a group consisting of cations and anions, and which hygroscopic solid electrolyte provides a complex impedance at least in response to said alternating voltage being applied across said inert electrodes (111, 112). - a flexible carrier for attaching said sensor to a floor or inner wall of a building; - a resonant circuit printed on said carrier; - a first antenna printed on said carrier, arranged to receive an electromagnetic signal within a first frequency range, said first frequency range being one of 10 kHz -1 MHz or 2.5 MHz -11 MHz, to convert said signal into an AC voltage, which voltage is arranged to alternate within said first frequency range; and to feed said voltage to said resonant circuit, wherein said first antenna is further arranged to emit an electromagnetic signal indicative of the impedance of said resonant circuit; - an encapsulation layer sealing said moisture sensor, which layer comprises a humidity permeable portion; - a first and a second inert electrode (111, 112) comprising electrochemically substantially inert material, each electrode being arranged as a layer, and - a hygroscopic solid electrolyte arranged as a layer and spatially between said inert electrodes, which hygroscopic solid electrolyte at least in the presence of moisture forms mobile ions selected from a group consisting of cations and anions, and which hygroscopic solid electrolyte provides a complex impedance at least in response to said alternating voltage being applied across said inert electrodes (111, 112).
An implantable device for improving the pump function of the heart of a patient by applying an external force on the heart, said device comprising at least one heart contacting organ, periodically exerting force onto the heart muscle following the heart contractions and adding force thereto, said implantable device being adapted to have a drive unit adapted to create kinetic movement to be used by the heart contacting organ, characterised in that said implantable device comprises a fixation device adapted to be mounted in a stable position to human bone allowing said drive unit to get necessary contra force, wherein said drive unit further comprises a respiration movement compensator placed between said drive unit and said heart contacting organ for compensating for the respiratory movement of the heart in relation to the stable bone position.
Method for preparing star polymers based on a lactide monomer and a glycolide monomer or a lactide monomer, by ring opening in the presence of a catalyst, characterized in that: - the catalyst has the formula in which R is a C 1 to C 6 haloalkyl; - the initiator is a polyol comprising from 3 to 6 hydroxyl functions. - the catalyst has the formula in which R is a C 1 to C 6 haloalkyl; - the initiator is a polyol comprising from 3 to 6 hydroxyl functions.
A method for improving ink jet nozzle health and printing reliability of an ink jet printer, the method comprising: moving a scan head to a maintenance station, the maintenance station including a purge cap, wherein the scan head includes, a header tank (200, 202 204), a print head (300, 302, 304) operatively connected to the header tank (200, 202, 204), wherein the print head (300, 302, 304) includes a nozzle plate, and wherein the nozzle plate includes a row (402, 404) of nozzles, the row (402, 404) of nozzles containing a plurality of nozzles; characterised in that the method further comprises the steps of creating at least a partial seal between the purge cap and at least one of: a particular nozzle of the plurality of nozzles, the row (402,404) of nozzles, the nozzle plate, or the print head; and performing a reverse purge of at least one of: a particular nozzle of the plurality of nozzles, the row (402, 404) of nozzles, the nozzle plate, or the print head (300, 302, 304), wherein the reverse purge includes applying a positive pressure using a vacuum pump operably connected with the purge cap. moving a scan head to a maintenance station, the maintenance station including a purge cap, wherein the scan head includes, a header tank (200, 202 204), a print head (300, 302, 304) operatively connected to the header tank (200, 202, 204), wherein the print head (300, 302, 304) includes a nozzle plate, and wherein the nozzle plate includes a row (402, 404) of nozzles, the row (402, 404) of nozzles containing a plurality of nozzles; characterised in that the method further comprises the steps of creating at least a partial seal between the purge cap and at least one of: a particular nozzle of the plurality of nozzles, the row (402,404) of nozzles, the nozzle plate, or the print head; and performing a reverse purge of at least one of: a particular nozzle of the plurality of nozzles, the row (402, 404) of nozzles, the nozzle plate, or the print head (300, 302, 304), wherein the reverse purge includes applying a positive pressure using a vacuum pump operably connected with the purge cap.
A method for repairing a piece, comprising: - a first electro-spark deposition step so as to form a first layer of material on a surface to be repaired forming part of said piece; - at least a second electro-spark deposition step so as to form a second layer of material on said first layer; - a compaction step, intermediate between said first and second electro-spark deposition steps, so as to reduce surface asperities of the first layer of material before the second deposition step; characterized in that said compaction step is defined by shot peening, performed by means of shots supported by at least one flexible element, which extends radially with respect to an axis and is rotating about said axis. - a first electro-spark deposition step so as to form a first layer of material on a surface to be repaired forming part of said piece; - at least a second electro-spark deposition step so as to form a second layer of material on said first layer; - a compaction step, intermediate between said first and second electro-spark deposition steps, so as to reduce surface asperities of the first layer of material before the second deposition step;
A complex formed from L -tartaric acid and a compound of formula or (Ia): wherein the complex is L -tartaric acid complex having crystalline form I, a mole ratio of the compound of formula or (Ia) to L -tartarate is 1:1 in the crystalline form I of L -tartaric acid complex, and wherein the crystalline form I exhibits the following characteristic X-ray powder diffraction peaks expressed in degrees 2θ at 17.82± 0.2°, 19.51± 0.2°, 21.61± 0.2°, 22.56± 0.2°, 23.36± 0.2°, 23.54± 0.2°, 23.79± 0.2° and 31.07± 0.2°.
A multicore fiber (1, 2, 3, 4, 5, 6) comprising at least one core (11, 21) having a propagation loss of a light beam in a mode one order higher than a mode of a light beam used for transmitting information, the propagation loss being 0.02 dB/m or more, and less than 1 dB/m, in a wavelength band of light beams used for transmitting the information, when a bend having a diameter of 280 mm is applied, wherein the light beam used for transmitting information is an LP 01 mode light beam. at least one core (11, 21) having a propagation loss of a light beam in a mode one order higher than a mode of a light beam used for transmitting information, the propagation loss being 0.02 dB/m or more, and less than 1 dB/m, in a wavelength band of light beams used for transmitting the information, when a bend having a diameter of 280 mm is applied, wherein the light beam used for transmitting information is an LP 01 mode light beam.
A package substrate comprising: a substrate comprising a first metal layer (M1 104) and a second metal layer (M2 106); a ground plane residing on the first metal layer (M1 104); a first signal trace (124, 208a) residing in the second metal layer (M2 106), the first signal trace electrically coupled to a first signal pad (132, 204a) residing in the first metal layer (M1 104) by a first signal via, the first signal via (126, 210a) comprising a width substantially similar to a width of the first signal trace; a second signal trace residing in the second metal layer (M2 106), the second signal trace electrically coupled to a second signal pad residing in the first metal layer (M1 104) by a second signal via, the second signal via comprising a width substantially similar to a width of the second signal trace; and a ground trace (120, 212b) residing in the second metal layer (M2 106) between the first signal trace and the second signal trace, the ground trace (120, 212b) electrically coupled to the ground plane (130, 206) by a ground via (122, 214b), the ground via (122, 214b) comprising a width substantially similar to a width of the ground trace (120, 212b). a substrate comprising a first metal layer (M1 104) and a second metal layer (M2 106); a ground plane residing on the first metal layer (M1 104); a first signal trace (124, 208a) residing in the second metal layer (M2 106), the first signal trace electrically coupled to a first signal pad (132, 204a) residing in the first metal layer (M1 104) by a first signal via, the first signal via (126, 210a) comprising a width substantially similar to a width of the first signal trace; a second signal trace residing in the second metal layer (M2 106), the second signal trace electrically coupled to a second signal pad residing in the first metal layer (M1 104) by a second signal via, the second signal via comprising a width substantially similar to a width of the second signal trace; and a ground trace (120, 212b) residing in the second metal layer (M2 106) between the first signal trace and the second signal trace, the ground trace (120, 212b) electrically coupled to the ground plane (130, 206) by a ground via (122, 214b), the ground via (122, 214b) comprising a width substantially similar to a width of the ground trace (120, 212b).
A method for manufacturing a photovoltaic module, comprising at least one photovoltaic cell between a first transparent layer forming a front face of the photovoltaic module and a second layer forming a rear face of the photovoltaic module, characterised in that it comprises: 1) a first step of depositing a first adhesive layer based on a crosslinkable polymer material over the first layer intended to form the front face of the photovoltaic module, and in depositing a second adhesive layer based on a crosslinkable polymer material over the second layer intended to form the rear face of the photovoltaic module, 2) a second step of carrying out a partial crosslinking of the two adhesive layers (SL1, SL2) based on a crosslinkable polymer material to form two partially crosslinked adhesive layers (SPR1, SPR2), 3) a third step of depositing said at least one photovoltaic cell over one of the two partially crosslinked adhesive layers (SPR1, SPR2), 4) a fourth step of forming a multilayer stack (1, SPR1, 4, SPR2, 2) by assembling one of the two partially crosslinked adhesive layers (SPR1, SPR2) over the other one of the two partially crosslinked adhesive layers (SPR1, SPR2), which comprises said at least one photovoltaic cell, 5) a fifth step of carrying out the lamination of the multilayer stack (1, SPR1, 4, SPR2, 2), and the completion of the crosslinking of the two partially crosslinked adhesive layers (SPR1, SPR2), the crosslinking rate implemented during the second step of partial crosslinking of the two adhesive layers (SL1, SL2) based on a crosslinkable polymer material being comprised between 40% and 70%. 1) a first step of depositing a first adhesive layer based on a crosslinkable polymer material over the first layer intended to form the front face of the photovoltaic module, and in depositing a second adhesive layer based on a crosslinkable polymer material over the second layer intended to form the rear face of the photovoltaic module, 2) a second step of carrying out a partial crosslinking of the two adhesive layers (SL1, SL2) based on a crosslinkable polymer material to form two partially crosslinked adhesive layers (SPR1, SPR2), 3) a third step of depositing said at least one photovoltaic cell over one of the two partially crosslinked adhesive layers (SPR1, SPR2), 4) a fourth step of forming a multilayer stack (1, SPR1, 4, SPR2, 2) by assembling one of the two partially crosslinked adhesive layers (SPR1, SPR2) over the other one of the two partially crosslinked adhesive layers (SPR1, SPR2), which comprises said at least one photovoltaic cell, 5) a fifth step of carrying out the lamination of the multilayer stack (1, SPR1, 4, SPR2, 2), and the completion of the crosslinking of the two partially crosslinked adhesive layers (SPR1, SPR2),