mhurhangee/ep-ind-claims huggingface dataset:
Method for impregnating and drying a continuous paper web with of a urea resin dissolved in water, wherein - the urea resin is applied to the paper web in a dosed quantity; - the paper web is conveyed in a dryer by heated air while being suspended, and dried to a predetermined residual moisture, wherein at least one part of the air is circulated as recirculated air in a cycle; - a temperature of the paper web is determined; and - the drying is regulated by changing drying parameters plurality of different drying zones (3.1, 3.2, 3.3 and 3.4), - wherein one dividing partition each is placed between the adjoining drying zones (3.1, 3.2, 3.3 and 3.4), - wherein the temperature of the paper web in each of the drying zones (3.1, 3.2, 3.3 and 3.4) is determined and regulated separately, characterised in that, for each of the drying zones (3.1, 3.2, 3.3 and 3.4), a quantity and/or a temperature of the recirculated air is regulated in such a way that the temperature of the paper web amounts to a maximum of 99°C, and that exhaust air is exclusively extracted from one of the first drying zones (3.1) and fresh air is exclusively supplied to one of the last drying zones (3.4). - the urea resin is applied to the paper web in a dosed quantity; - the paper web is conveyed in a dryer by heated air while being suspended, and dried to a predetermined residual moisture, wherein at least one part of the air is circulated as recirculated air in a cycle; - a temperature of the paper web is determined; and - the drying is regulated by changing drying parameters plurality of different drying zones (3.1, 3.2, 3.3 and 3.4), - wherein one dividing partition each is placed between the adjoining drying zones (3.1, 3.2, 3.3 and 3.4), - wherein the temperature of the paper web in each of the drying zones (3.1, 3.2, 3.3 and 3.4) is determined and regulated separately, characterised in that, for each of the drying zones (3.1, 3.2, 3.3 and 3.4), a quantity and/or a temperature of the recirculated air is regulated in such a way that the temperature of the paper web amounts to a maximum of 99°C, and that exhaust air is exclusively extracted from one of the first drying zones (3.1) and fresh air is exclusively supplied to one of the last drying zones (3.4).
Electronics installation system, especially for an aircraft or spacecraft, comprising: at least one mechanical installation structure comprising a plurality of installation slots (4-1 - 4-n) each configured to receive an electronic module (5-1 - 5-7) and at least one wiring configuration slot (6-1 - 6-2) configured to receive a wiring configuration module (7-1 - 7-2); a connection matrix comprising a plurality of data connections (9-1 - 9-14), wherein at least one data connection (9-1 - 9-14) is provided between each one of the installation slots (4-1 - 4-n) and at least one wiring configuration slot (6-1 - 6-2); and at least one wiring confguration module (7-1 - 7-2) installed in one of the wiring configuration slots (6-1 - 6-2) and coupled to the data connections (9-1 - 9-14) of the respective wiring configuration slot (6-1 - 6-2), the wiring configuration module (7-1 - 7-2) comprising internal interconnection paths (17-1 - 17-3) providing data communication between at least one data connection (9-1 - 9-14) of the respective wiring configuration slot (6-1 - 6-2) and at least one other data connection (9-1 - 9-14) of the respective wiring configuration slot (6-1 - 6-2). at least one mechanical installation structure comprising a plurality of installation slots (4-1 - 4-n) each configured to receive an electronic module (5-1 - 5-7) and at least one wiring configuration slot (6-1 - 6-2) configured to receive a wiring configuration module (7-1 - 7-2); a connection matrix comprising a plurality of data connections (9-1 - 9-14), wherein at least one data connection (9-1 - 9-14) is provided between each one of the installation slots (4-1 - 4-n) and at least one wiring configuration slot (6-1 - 6-2); and at least one wiring confguration module (7-1 - 7-2) installed in one of the wiring configuration slots (6-1 - 6-2) and coupled to the data connections (9-1 - 9-14) of the respective wiring configuration slot (6-1 - 6-2), the wiring configuration module (7-1 - 7-2) comprising internal interconnection paths (17-1 - 17-3) providing data communication between at least one data connection (9-1 - 9-14) of the respective wiring configuration slot (6-1 - 6-2) and at least one other data connection (9-1 - 9-14) of the respective wiring configuration slot (6-1 - 6-2).
A header for a combine harvester, the header comprising; a frame; a cutterbar table that is movably mounted to the frame, the cutterbar table being configured to cut a standing crop; an intake auger mounted to the frame and configured to receive the cut crop; the intake auger further being configured to rotate, during a normal state, in a predetermined direction, and to rotate, during a corrective state, in a predetermined reversed direction; an actuator assembly configured to displace the cutterbar table relative to the frame, thereby changing a distance between the cutterbar table and the intake auger; a control unit for controlling the actuator assembly) and the intake auger, characterized in that the control unit is configured to, upon receipt of an error signal indicative of a need to operate in the corrective state: - control the actuator assembly to displace the cutterbar table away from the intake auger to a safe operating position, prior to - control the intake auger to rotate in the predetermined reversed direction. a frame; a cutterbar table that is movably mounted to the frame, the cutterbar table being configured to cut a standing crop; an intake auger mounted to the frame and configured to receive the cut crop; the intake auger further being configured to rotate, during a normal state, in a predetermined direction, and to rotate, during a corrective state, in a predetermined reversed direction; an actuator assembly configured to displace the cutterbar table relative to the frame, thereby changing a distance between the cutterbar table and the intake auger; a control unit for controlling the actuator assembly) and the intake auger, characterized in that the control unit is configured to, upon receipt of an error signal indicative of a need to operate in the corrective state: - control the actuator assembly to displace the cutterbar table away from the intake auger to a safe operating position, prior to - control the intake auger to rotate in the predetermined reversed direction. - control the actuator assembly to displace the cutterbar table away from the intake auger to a safe operating position, prior to - control the intake auger to rotate in the predetermined reversed direction.
A printable or print receptive topcoat composition for a face material, said topcoat composition comprising: a polyether urethane; a polyurethane acrylate; a crosslinker, wherein the crosslinker is contained in an amount in a range of from 2 parts to 15 parts based on 100 parts total solids; and an anti-blocking additive. a polyether urethane; a polyurethane acrylate; a crosslinker, wherein the crosslinker is contained in an amount in a range of from 2 parts to 15 parts based on 100 parts total solids; and an anti-blocking additive.
An electrically powered heater unit comprising a support element, an electrically conductive heat transfer element, an electrically conductive contact element, a positive temperature coefficient disc heater element located between the heat transfer element and the contact element, a securing means (25,27,28) securing the heater element and the contact element between the heat transfer element and the support element and securing the heater element in electrical contact with the contact element and the heat transfer element, a first connecting means co-operating with the contact element for electrically connecting the contact element with a first pole of an electrical power supply, and a second connecting means co-operating with the heat transfer element for connecting the heat transfer element to a second pole of the electrical power supply, wherein an urging means comprising a compression spring cooperable with the support element and the contact element urges the contact element and the heat transfer element into the electrical contact with the heater element, and the securing means (25,27,28) is configured to secure the heater element sandwiched tightly between the contact element and the heat transfer element, characterised in that the first connecting means extends centrally from the contact element, centrally through the compression spring, and centrally through the support element.
Method for the reduction of aroma loss during the production of ethanol-reduced and ethanol-free beverages comprising the steps: (a) De-alcoholization of a beverage containing from 1 to 60 vol.-% ethanol by a thermal or membrane-based dealcoholization process; (b) Separating the ethanol containing process stream from the de-alcoholized beverage; (c) (i) Conveying the separated ethanol containing process stream to a condenser, at least one stripping column and subsequently to at least one adsorber column, or (ii) Conveying the separated ethanol containing process stream directly to at least one adsorber column; wherein the ethanol containing fraction of the ethanol containing process stream is adsorbed on the at least one adsorber column; (d) Recycling of the remaining process stream to the de-alcoholized beverage. (a) De-alcoholization of a beverage containing from 1 to 60 vol.-% ethanol by a thermal or membrane-based dealcoholization process; (b) Separating the ethanol containing process stream from the de-alcoholized beverage; (c) (i) Conveying the separated ethanol containing process stream to a condenser, at least one stripping column and subsequently to at least one adsorber column, or (ii) Conveying the separated ethanol containing process stream directly to at least one adsorber column; wherein the ethanol containing fraction of the ethanol containing process stream is adsorbed on the at least one adsorber column; (i) Conveying the separated ethanol containing process stream to a condenser, at least one stripping column and subsequently to at least one adsorber column, or (ii) Conveying the separated ethanol containing process stream directly to at least one adsorber column; (d) Recycling of the remaining process stream to the de-alcoholized beverage.
A 3D printing build material container outlet structure comprising: a connector to releasably connect to a nozzle structure of an external aspiration system; and an aspiration channel to aspire build material from a build material container to the nozzle structure of the external aspiration system; characterized in that a protrusion protrudes from an inner wall of the aspiration channel, to extend into an end portion of a tube of the nozzle structure that is inserted into the aspiration channel and retain a valve element of the nozzle structure in an open configuration wherein the protrusion protrudes from the inner wall of the aspiration channel in a direction upwards, towards the nozzle structure that is inserted into the aspiration channel. a connector to releasably connect to a nozzle structure of an external aspiration system; and an aspiration channel to aspire build material from a build material container to the nozzle structure of the external aspiration system; characterized in that a protrusion protrudes from an inner wall of the aspiration channel, to extend into an end portion of a tube of the nozzle structure that is inserted into the aspiration channel and retain a valve element of the nozzle structure in an open configuration wherein the protrusion protrudes from the inner wall of the aspiration channel in a direction upwards, towards the nozzle structure that is inserted into the aspiration channel.
A garment steaming device comprising a steam generator having a heater, an ironing surface against which a fabric of a garment is locatable, and an intermediate section (50, 61, 71) configured to have a thermal transmittance and disposed between the steam generator and the ironing surface to transfer heat from the steam generator to the ironing surface so that the ironing surface is indirectly heated by the steam generator via the intermediate section; characterised in that: the intermediate section comprises a first intermediate layer made of a heat conductive metal material and the thermal transmittance, during use, controls the heat transfer from the steam generator to the ironing surface to maintain the temperature of the ironing surface between 90°C and 155°C.
A balneotherapy system including: - a bathtub wherein is provided a drainage opening; - a circulation circuit including - at least one injection nozzle (5.1) designed to inject a liquid into the bathtub, - a circulation opening provided in the bathtub, - a collector (4.2) connected to the circulation opening of the bathtub through a backflow pipe (4.1), - at least one supply pipe connected, on one side, to the collector (4.2) and, on the other side, to the injection nozzle (5.1); - a circulation pump configured to circulate the liquid in a closed loop in the circulation circuit, and having an inlet connected to the circulation opening of the bathtub and an outlet connected to the collector (4.2), the balneotherapy system being characterized in that it further includes a drain pump the inlet whereof is connected to the collector and the outlet whereof leads into the bathtub. - a bathtub wherein is provided a drainage opening; - a circulation circuit including - at least one injection nozzle (5.1) designed to inject a liquid into the bathtub, - a circulation opening provided in the bathtub, - a collector (4.2) connected to the circulation opening of the bathtub through a backflow pipe (4.1), - at least one supply pipe connected, on one side, to the collector (4.2) and, on the other side, to the injection nozzle (5.1); - at least one injection nozzle (5.1) designed to inject a liquid into the bathtub, - a circulation opening provided in the bathtub, - a collector (4.2) connected to the circulation opening of the bathtub through a backflow pipe (4.1), - at least one supply pipe connected, on one side, to the collector (4.2) and, on the other side, to the injection nozzle (5.1); - a circulation pump configured to circulate the liquid in a closed loop in the circulation circuit, and having an inlet connected to the circulation opening of the bathtub and an outlet connected to the collector (4.2),
A waveform processing device (400,500,600) for a radio transmitter, the waveform processing device comprising means for performing: receiving one or more input signals (401, 411, 421, 501, 511, 521, 601, 611, 621), each of the one or more input signals being a time-domain signal produced by a different orthogonal frequency-division multiplexing, OFDM, modulator (301, 302, 303) of the radio transmitter and corresponding to a different subband used by the radio transmitter for transmission; and segmenting each of the one or more input signals (401, 411, 421, 501, 511, 521, 601, 611, 621) to a subband-specific set of parallel signal blocks; filtering each subband-specific set by applying at least a first time window function (403, 413, 423, 503, 513, 523, 603, 613, 623), an orthogonal transform (404,414,424, 504, 514, 524, 604, 614, 624), a transform-plane window function (405, 415, 425, 505, 515, 525, 605, 615, 625), an inverse transform (406, 416, 426, 506, 516, 526, 607) of the orthogonal transform and a second time window function (408, 508, 608) in this order, wherein the orthogonal transform is one of a fast Fourier transform, a discrete Fourier transform, a Hartley transform and a number theoretic transform and the first time window function, the transform-plane window function and the second time window function have been optimized using simultaneous multi-window optimization of the first time window function, the transform-plane window function and the second time window function; and concatenating filtered signals to an output signal (410, 510, 610) for transmission via an antenna of the radio transmitter. receiving one or more input signals (401, 411, 421, 501, 511, 521, 601, 611, 621), each of the one or more input signals being a time-domain signal produced by a different orthogonal frequency-division multiplexing, OFDM, modulator (301, 302, 303) of the radio transmitter and corresponding to a different subband used by the radio transmitter for transmission; and segmenting each of the one or more input signals (401, 411, 421, 501, 511, 521, 601, 611, 621) to a subband-specific set of parallel signal blocks; filtering each subband-specific set by applying at least a first time window function (403, 413, 423, 503, 513, 523, 603, 613, 623), an orthogonal transform (404,414,424, 504, 514, 524, 604, 614, 624), a transform-plane window function (405, 415, 425, 505, 515, 525, 605, 615, 625), an inverse transform (406, 416, 426, 506, 516, 526, 607) of the orthogonal transform and a second time window function (408, 508, 608) in this order, wherein the orthogonal transform is one of a fast Fourier transform, a discrete Fourier transform, a Hartley transform and a number theoretic transform and the first time window function, the transform-plane window function and the second time window function have been optimized using simultaneous multi-window optimization of the first time window function, the transform-plane window function and the second time window function; and concatenating filtered signals to an output signal (410, 510, 610) for transmission via an antenna of the radio transmitter.
A spinal implant comprising: - a support body having - a proximal end, a distal end side surfaces connecting the proximal end and the distal end, - a superior end surface and an inferior end surface, wherein each of the superior end surface and the inferior end surface include one or more teeth for contacting a superior and an inferior vertebrae; - a side recess formed in the proximal end of the support body between the superior end surface and the inferior end surface for receiving an articulating element therethrough; and - an articulating element positioned in the recess, wherein the articulating element is configured to rotate along one or more axes after the articulating element is positioned in the recess, - a motion limiting member for preventing over-articulation of the articulating element within the recess characterized in that the spinal implant further comprises - and the articulating element (40, 44) includes a substantially spherical body in contact with the recess, a top bump-out, a bottom bump-out feature and a connecting aperture adapted to be removably connected to a delivery tool. - a support body having - a proximal end, a distal end side surfaces connecting the proximal end and the distal end, - a superior end surface and an inferior end surface, wherein each of the superior end surface and the inferior end surface include one or more teeth for contacting a superior and an inferior vertebrae; - a side recess formed in the proximal end of the support body between the superior end surface and the inferior end surface for receiving an articulating element therethrough; and - an articulating element positioned in the recess, wherein the articulating element is configured to rotate along one or more axes after the articulating element is positioned in the recess, - a motion limiting member for preventing over-articulation of the articulating element within the recess characterized in that the spinal implant further comprises - and the articulating element (40, 44) includes a substantially spherical body in contact with the recess, a top bump-out, a bottom bump-out feature and a connecting aperture adapted to be removably connected to a delivery tool.
A display substrate, comprising: a base substrate; a plurality of thin film transistors for driving image display on the base substrate; a planarization layer on a side of the plurality of thin film transistors distal to the base substrate; and a pixel definition layer defining a plurality of subpixel regions; wherein the display substrate comprises a recess extending into the planarization layer and in an inter-subpixel region of the display substrate; the display substrate further comprises a recess fill layer in the recess; and the recess fill layer has a light transmittance rate lower than that of the planarization layer; characterized in that the depth of the recess is less than the thickness of the planarization layer, the planarization layer is continuous under the recess, and the recess fill layer is an integral part of the pixel definition layer extending into the recess. a base substrate; a plurality of thin film transistors for driving image display on the base substrate; a planarization layer on a side of the plurality of thin film transistors distal to the base substrate; and a pixel definition layer defining a plurality of subpixel regions; wherein the display substrate comprises a recess extending into the planarization layer and in an inter-subpixel region of the display substrate; the display substrate further comprises a recess fill layer in the recess; and the recess fill layer has a light transmittance rate lower than that of the planarization layer; characterized in that the depth of the recess is less than the thickness of the planarization layer, the planarization layer is continuous under the recess, and the recess fill layer is an integral part of the pixel definition layer extending into the recess.
An exosome containing miR-146b microRNA for use in treating a patient suffering from a neurological disease, wherein the exosome is produced from multipotent mesenchymal stromal cells (MSCs).
A deflector for a condensation heat exchanger, which comprises two cups, called "front" and "rear", made of a material with good thermal conductivity, an inlet connector and an outlet connector, each cup (3, 4) comprising a bottom (31, 41) surrounded by a peripheral rim (32, 42), the two cups (3, 4) being assembled to one another in a fluid-tight manner, so that their respective concave portions are oriented toward one another, the interior face of the bottom of the front cup being configured in relief so as to have at least one groove, of "circulation" of a heat transfer fluid, such as water, which extends over at least a portion of said bottom, the interior face of the bottom of the rear cup being configured in relief so as to have at least one groove of circulation of said heat transfer fluid, which extends over at least a portion of said bottom, said deflector comprises a flat central partition made of a material with good thermal conductivity, the two cups (3, 4) are assembled in a fluid-tight manner on either side of said central partition, so that said at least one circulation groove of the front cup forms with said flat central partition at least one circulation channel (36a, 36b, 36c, 36d, 36e), wherein said heat-transfer fluid is intended to circulate and said at least one circulation groove of the rear cup forms with said flat central partition at least one circulation channel (46a, 46b, 46c, 46d, 46e), wherein said heat-transfer fluid is intended to circulate, the first (361a, 361b, 361c, 361d, 361e, 461a, 461b, 461c, 461d, 461e) of the two ends of each circulation channel (36a, 36b, 36c, 36d, 36e, 46a, 46b, 46c, 46d, 46e) of the front cup, respectively of the rear cup, being in fluid communication with the outlet connector, respectively the inlet connector of said deflector and the second end (362a, 362b, 362c, 362d, 362e) of each circulation channel of the front cup being connected to the second end (462a, 462b, 462c, 462d, 462e) of a channel of the rear cup, via an opening (50a, 50b, 50c, 50d, 50e) drilled in said central partition, so that said heat-transfer fluid can circulate from the inlet connector to the outlet connector, through said at least one circulation channels (46a, 46b, 46c, 46d, 46e) of the rear cup, then through said at least one circulation channel (36a, 36b, 36c, 36d, 36e) of the front cup, while flowing on both sides of said central partition.