mhurhangee/patent-ind-claim-en huggingface dataset:
A process for preparing a fiber-polymer composite product comprising the steps of a) introducing fibers from the blowline or from the housing of a refiner into a flash tube dryer, wherein the fibers originate from refiner pulp, thermomechanical pulp or chemi-thermomechanical pulp production processes; b) separating the dried fibers obtained in step a) from humid air in a cyclone; c) optionally introducing the product of step b) into a mixing unit where additives are added; d) compacting the product of step b) or step c) in a compactor to increase the bulk density and form a compacted fiber material having a bulk density of 100-350 kg/m 3 , e) introducing the compacted fiber material into a compounder where the fibers are mixed with at least one polymer; and f) pelletizing the product of step e). a) introducing fibers from the blowline or from the housing of a refiner into a flash tube dryer, wherein the fibers originate from refiner pulp, thermomechanical pulp or chemi-thermomechanical pulp production processes; b) separating the dried fibers obtained in step a) from humid air in a cyclone; c) optionally introducing the product of step b) into a mixing unit where additives are added; d) compacting the product of step b) or step c) in a compactor to increase the bulk density and form a compacted fiber material having a bulk density of 100-350 kg/m 3 , e) introducing the compacted fiber material into a compounder where the fibers are mixed with at least one polymer; and f) pelletizing the product of step e).
A heater comprising a substrate , a first conductor (22c1-22c6, 25c1-25c6) provided on the substrate along a substrate longitudinal direction, a second conductor (22d1-22d6, 25d1-25d6) provided on the substrate along the longitudinal direction at a position different from that of the first conductor (22c1-22c6, 25c1-25c6) in a substrate lateral direction, and a plurality of heat generating resistors (22b1-22b13, 25b1-25b13) connected between the first conductor (22c1-22c6, 25c1-25c6) and the second conductor (22d1-22d6, 25d1-25d6), characterised in that the plurality of heat generating resistors (22b1-22b13, 25b1-25b13) are electrically connected in parallel between the first conductor (22c1-22c6, 25c1-25c6) and the second conductor (22d1-22d6, 25d1-25d6), and a shortest current path of each heat generating resistor overlaps a shortest current path of an adjacent heat generating resistor in the longitudinal direction wherein the plurality of heat generating resistors (22b1-22b13, 25b1-25b13) are formed into a rectangular shape, and each of the first conductor (22c1-22c6, 25c1-25c6) and the second conductor (22d1-22d6, 25d1-25d6) is provided with a delta-shaped region so that the plurality of heat generating resistors (22b1-22b13, 25b1-25b13) are formed into a rectangular shape.
A method of monitoring an automatic transfer switch, the method comprising: measuring, by at least one processor , a time at which control circuitry sends an instruction to a movable contact of an automatic transfer switch structured to control transmission of electrical power; sensing, by at least one sensor , a change in position of the movable contact of the automatic transfer switch in response to the instruction; determining, by the at least one processor , a delay between the time at which the control circuitry sends the instruction and a time at which the change in position occurs; recording, by the at least one processor , the delay in a delay measurement queue; determining, by the at least one processor , an average value of measured delays in the delay measurement queue; comparing, by the at least one processor , the average value of measured delays in the delay measurement queue to a reference delay value; and taking, by the at least one processor, an action with respect to the automatic transfer switch in response to the delay measurement queue, wherein taking an action with respect to the switch comprises: generating a notification upon determining that a difference between the average value and the reference delay value exceeds a threshold value; and transmitting the notification to a user. measuring, by at least one processor , a time at which control circuitry sends an instruction to a movable contact of an automatic transfer switch structured to control transmission of electrical power; sensing, by at least one sensor , a change in position of the movable contact of the automatic transfer switch in response to the instruction; determining, by the at least one processor , a delay between the time at which the control circuitry sends the instruction and a time at which the change in position occurs; recording, by the at least one processor , the delay in a delay measurement queue; determining, by the at least one processor , an average value of measured delays in the delay measurement queue; comparing, by the at least one processor , the average value of measured delays in the delay measurement queue to a reference delay value; and taking, by the at least one processor, an action with respect to the automatic transfer switch in response to the delay measurement queue, wherein taking an action with respect to the switch comprises: generating a notification upon determining that a difference between the average value and the reference delay value exceeds a threshold value; and transmitting the notification to a user. generating a notification upon determining that a difference between the average value and the reference delay value exceeds a threshold value; and transmitting the notification to a user.
A method for transmitting a backhaul subframe of a base station in a wireless communication system, the method comprising: transmitting a higher layer signaling for a first semi-static resource region for primary information of downlink relay control information and a second semi-static resource region for uplink relay control information including uplink grant to a relay ; generating the downlink relay control information and the uplink relay control information ; mapping the primary information of the downlink relay control information to only a first slot of the first semi-static resource region of the backhaul subframe and the uplink relay control information to a second slot of the second semi-static resource region of the backhaul subframe, allocated to the relay; and transmitting the backhaul subframe including the downlink relay control information and the uplink relay control information to the relay; wherein the first semi-static resource region for the primary information of the downlink relay control information is different from the second semi-static resource region for the uplink relay control information , and wherein the primary information of the downlink relay control information indicates a start position of secondary information of the downlink relay control information . transmitting a higher layer signaling for a first semi-static resource region for primary information of downlink relay control information and a second semi-static resource region for uplink relay control information including uplink grant to a relay ; generating the downlink relay control information and the uplink relay control information ; mapping the primary information of the downlink relay control information to only a first slot of the first semi-static resource region of the backhaul subframe and the uplink relay control information to a second slot of the second semi-static resource region of the backhaul subframe, allocated to the relay; and transmitting the backhaul subframe including the downlink relay control information and the uplink relay control information to the relay; wherein the first semi-static resource region for the primary information of the downlink relay control information is different from the second semi-static resource region for the uplink relay control information , and wherein the primary information of the downlink relay control information indicates a start position of secondary information of the downlink relay control information .
A backwashing suction device for a fabric filtration apparatus having a fiber disk filter (D) provided with pile threads (F), the backwashing suction device comprising: a suction body formed in a container shape and having a drain hole through which contents inside the suction body are discharged to the outside; and a suction plate mounted on the suction body so that an inlet portion of the suction body is closeable and having at least one suction slit to perform backwashing, wherein the suction slit forms a slope so that an inner surface of an edge through which the pile threads (F) introduced into the suction slit exit is gradually widened in an inward direction from an inlet of the suction slit , characterized in that a plurality of friction protrusions are formed to protrude from the slope so that, as the fiber disk filter (D) rotates while being backwashed, the pile threads (F) are repeatedly pressed against and separated from the friction protrusions . a suction body formed in a container shape and having a drain hole through which contents inside the suction body are discharged to the outside; and a suction plate mounted on the suction body so that an inlet portion of the suction body is closeable and having at least one suction slit to perform backwashing, wherein the suction slit forms a slope so that an inner surface of an edge through which the pile threads (F) introduced into the suction slit exit is gradually widened in an inward direction from an inlet of the suction slit , characterized in that a plurality of friction protrusions are formed to protrude from the slope so that, as the fiber disk filter (D) rotates while being backwashed, the pile threads (F) are repeatedly pressed against and separated from the friction protrusions .
System for manufacturing of alternating S/Z cabled yarn or connected alternating S/Z twist plied yarn in a continuous fashion, including: a. at least two twist plying installations (4, 4a, 8; 4b, 4c, 8a), each for manufacturing an alternating S/Z twist plied yarn (9; 9a) from at least two incoming yarns (2, 2a; 2b, 2c), in which the twist plying installations each include a ply fixation member (8; 8a) to connect the incoming yarns; b. a cabling installation for manufacturing an alternating S/Z cabled yarn or a connected alternating S/Z twist plied yarn from the at least two alternating S/Z twist plied yarns, in which the cabling installation includes at least two overtwist jets for the overtwisting of the at least two alternating S/Z twist plied yarns; characterized by the fact that between at least one and preferably all the twist plying installations and the cabling installation a force compensation member is provided for applying a variable compensation for part of the tractive forces on at least one and preferably all of the said alternating S/Z twist plied yarns between the at least one and preferably all twist plying installations and the cabling installation, in which the force compensation member is positioned between the ply fixation members (8; 8a) of the twist plying installations on the one hand and the overtwist jet (11; 11a) of the cabling installation on the other hand and in which the force compensation member is configured for applying the variable compensation before the alternating S/Z twist plied yarns are overtwisted in the cabling installation. a. at least two twist plying installations (4, 4a, 8; 4b, 4c, 8a), each for manufacturing an alternating S/Z twist plied yarn (9; 9a) from at least two incoming yarns (2, 2a; 2b, 2c), in which the twist plying installations each include a ply fixation member (8; 8a) to connect the incoming yarns; b. a cabling installation for manufacturing an alternating S/Z cabled yarn or a connected alternating S/Z twist plied yarn from the at least two alternating S/Z twist plied yarns, in which the cabling installation includes at least two overtwist jets for the overtwisting of the at least two alternating S/Z twist plied yarns;
A packed dough product comprising at least two ready-to-use, fresh dough pieces, a mold having a top open end, and at least one barrier interface; wherein the dough pieces are stacked on top of each other within the mold and separated by barrier interfaces.
Improved low power therapy laser device comprising a housing which has a wider head portion that has a hollow cavity , a laser light source arranged in the housing , a beam expander arranged in the beam path of the laser and also diverting lenses , and the hollow cavity of the head portion is closed at the front by a transparent closing element , characterized in that in the cavity of the head portion in an even circular distribution at least three lasers (12a, 12b, 12c 12d) are provided, and in front of them respective beam expanders (18a, 18b, 18c and 18d) are arranged, the beam expanders (18a, 18b, 18c and 18d) contact and support each other along respective surfaces, and the diverting lenses are provided on the frontal surfaces of the beam expanders (18a, 18b, 18c and 18d) and are made as small swellings, said diverting lenses are arranged along a raster and have the task of providing a more efficient diverting of the trough-passing light, and the laser light leaving the face plane of the closing element is distributed throughout the whole closing element and scattered to such an extent that in the deeper areas the components coming from the different laser sources get added to each other.
Filter cover for insertion into a unit housing of a lye and/or recirculation pump unit of a washing machine, the filter cover comprising an upper face and a lower face , a central suction nozzle extending from the lower face in a direction of extension (E), and a segmented wall element extending from the lower face in the direction of extension (E) and having a spring element arranged thereon, characterised in that the spring element has an opening arranged in the wall element and a projection which is arranged in the direction of extension (E) of the wall element .
Light source module for motor vehicle headlamps, - with at least one laser light sources for the emission of laser light, - with a photo luminescence element , which is designed in such a manner that a mixed light distribution can be emitted from laser light under the influence of photo luminescence and which is arranged in such a manner that the laser light of at least one laser light source can hit the photo luminescence element , - with at least one light-emitting diode used to generate a supplemental light distribution , whereas at least one laser light source , the photo luminescence element and at least one light-emitting diode is permanently arranged on one joint carrier component as a physical unit, wherein the joint carrier component has a front section in reference to the carrier's longitudinal direction and a base section located behind the former, wherein the at least one light-emitting diode is positioned at the front section and the laser light source is positioned at the base section , characterized in that the photo luminescence element is positioned at one portion of the carrier component and the at least one light-emitting diode is positioned at another portion of the carrier component distanced from the aforementioned portion by air gaps or by a thermally insulating separating section, and wherein the photo luminescence element is arranged on the front section and that at least one laser guidance optics unit is provided to guide the laser light of at least one laser light source to the photo luminescence element . - with at least one laser light sources for the emission of laser light, - with a photo luminescence element , which is designed in such a manner that a mixed light distribution can be emitted from laser light under the influence of photo luminescence and which is arranged in such a manner that the laser light of at least one laser light source can hit the photo luminescence element , - with at least one light-emitting diode used to generate a supplemental light distribution , whereas at least one laser light source , the photo luminescence element and at least one light-emitting diode is permanently arranged on one joint carrier component as a physical unit,
A polyelectrolyte coating, comprising: (a) at least one polycationic layer consisting of at least one polycation consisting of n repetitive units having the formula , wherein - n is an integer comprised between 11 and 100, and - each R group, identical or different, is chosen from -NH 2 , -CH 2 -NH 2 and -NH-C(NH)-NH 2 , and (b) at least one polyanionic layer consisting of hyaluronic acid. (a) at least one polycationic layer consisting of at least one polycation consisting of n repetitive units having the formula , wherein - n is an integer comprised between 11 and 100, and - each R group, identical or different, is chosen from -NH 2 , -CH 2 -NH 2 and -NH-C(NH)-NH 2 , and - n is an integer comprised between 11 and 100, and - each R group, identical or different, is chosen from -NH 2 , -CH 2 -NH 2 and -NH-C(NH)-NH 2 , and (b) at least one polyanionic layer consisting of hyaluronic acid.
Method of radiography of an organ of a patient, comprising: - making a first two dimensional raw image of said organ by cooperation of a first radiation source and a first detector , - making a second two dimensional raw image of said organ by cooperation of a second radiation source and a second detector , - said first and second raw images viewing said organ of said patient according to different angles of incidence, wherein a computed correction is processed on both said first and second raw images, on at least part of patient scanned height, for at least overweight or obese patients, so as to reduce, between first and second corrected images, cross-scattering existing between said first and second raw images, and wherein said computed correction processing on both said first and second raw images comprises: > a step of computing only an under-sampled patient specific representation of radiation scattering, as compared to sample rate(s) of said first and second raw images, > a step of over sampling said computed under-sampled patient specific radiation scattering representation so as to get same sample rate(s) as said first and second raw images, > a step of processing said over sampled patient specific radiation scattering representation on both said first and second raw images so as to get said first and second corrected images. - making a first two dimensional raw image of said organ by cooperation of a first radiation source and a first detector , - making a second two dimensional raw image of said organ by cooperation of a second radiation source and a second detector , - said first and second raw images viewing said organ of said patient according to different angles of incidence, wherein a computed correction is processed on both said first and second raw images, on at least part of patient scanned height, for at least overweight or obese patients, so as to reduce, between first and second corrected images, cross-scattering existing between said first and second raw images, and wherein said computed correction processing on both said first and second raw images comprises: > a step of computing only an under-sampled patient specific representation of radiation scattering, as compared to sample rate(s) of said first and second raw images, > a step of over sampling said computed under-sampled patient specific radiation scattering representation so as to get same sample rate(s) as said first and second raw images, > a step of processing said over sampled patient specific radiation scattering representation on both said first and second raw images so as to get said first and second corrected images. > a step of computing only an under-sampled patient specific representation of radiation scattering, as compared to sample rate(s) of said first and second raw images, > a step of over sampling said computed under-sampled patient specific radiation scattering representation so as to get same sample rate(s) as said first and second raw images, > a step of processing said over sampled patient specific radiation scattering representation on both said first and second raw images so as to get said first and second corrected images.
A lithium cobalt oxide (LCO) based lithium complex in which a coating layer of a compound having a lithium-rich antiperovskite (LiRAP) crystal structure is formed on surfaces of LCO-based particles; wherein the coating layer has a thickness of 1 nm to 100 μm.
A kisspeptide-pentasaccharide conjugate having the formula (I) R 1 -Z 1 -(Asn) n -Z 3 -Asn-Z 5 -Phe-Z 7 -Z 8 -Arg(R 3 )-Z 10 -NH 2 Formula (I) wherein Z 1 is Tyr or D-Tyr; Z 3 is Trp, Hyp, Phe or Lys(R 2 ); Z 5 is Thr, Aib or Ala; Z 7 is Gly or azaGly; Z 8 is Leu; or Z 7 and Z 8 together represent Z 10 is Phe or Trp; n is 0 or 1; R 1 or R 2 , when present, represents a pentasaccharide derivative having the formula (II) wherein R is methyl or SO 3 X; X is a positively charged counterion; with the proviso that when R 2 is present, R 1 is H or (C 1-6 ) alkylcarbonyl; R 3 is H or (C 1-3 )alkyl; and L represents a pharmacologically inactive linker moiety having 10-50 atoms; or a pharmaceutically acceptable salt thereof. Z 1 is Tyr or D-Tyr; Z 3 is Trp, Hyp, Phe or Lys(R 2 ); Z 5 is Thr, Aib or Ala; Z 7 is Gly or azaGly; Z 8 is Leu; or Z 7 and Z 8 together represent Z 10 is Phe or Trp; n is 0 or 1; R 1 or R 2 , when present, represents a pentasaccharide derivative having the formula (II) wherein R is methyl or SO 3 X; X is a positively charged counterion; with the proviso that when R 2 is present, R 1 is H or (C 1-6 ) alkylcarbonyl; R 3 is H or (C 1-3 )alkyl; and L represents a pharmacologically inactive linker moiety having 10-50 atoms; or a pharmaceutically acceptable salt thereof.