mhurhangee/patent-ind-claim-en huggingface dataset:
A printing substrate comprising: a. fibers from wooded resource that have more than 5 % of fiber fines with an average length that is less than 0.1 mm; b. more than 10 wt % of, at least, a polymeric substance; wherein the polymeric substance comprises a polymeric system containing two or more different polymeric substances; wherein the first polymeric substance includes polyvinyl alcohol, starch derivatives, gelatin, cellulose derivatives, acrylamide polymers, acrylic polymers or copolymers, vinyl acetate latex, polyesters, styrene-butadiene copolymer latex, acrylonitrile-butadiene copolymer latex, a combination of two or more of the above polymeric substances or a mixture of two or more of the above polymeric substances; c. and between 0.1 wt % and 40 wt % of particulate inorganic substances having an average particle size between 0.1 and 2.0 μm; wherein the average particle size is the D50 particle size as determined by using a Malvern Zetasizer Nano when the sample is diluted at 1:1000 ratio in pure triethyleneglycol divinyl ether; wherein the particulate inorganic substance includes calcium carbonate, precipitated calcium carbonate, ground calcium carbonate, ultra-fine precipitated calcium carbonate, modified calcium carbonate, kaolin, calcium sulfate, barium sulfate, titanium dioxide, zinc oxide, zinc sulfide, zinc carbonate, satin white, aluminum silicate, diatomite, calcium silicate, magnesium silicate, silica, synthetic amorphous silica, colloidal silica, colloidal alumina, pseudo-boehmite, aluminum hydroxide, alumina, lithopone, zeolite, magnesium carbonate, magnesium hydroxide, or clay. a. fibers from wooded resource that have more than 5 % of fiber fines with an average length that is less than 0.1 mm; b. more than 10 wt % of, at least, a polymeric substance; wherein the polymeric substance comprises a polymeric system containing two or more different polymeric substances; wherein the first polymeric substance includes polyvinyl alcohol, starch derivatives, gelatin, cellulose derivatives, acrylamide polymers, acrylic polymers or copolymers, vinyl acetate latex, polyesters, styrene-butadiene copolymer latex, acrylonitrile-butadiene copolymer latex, a combination of two or more of the above polymeric substances or a mixture of two or more of the above polymeric substances; wherein the polymeric substance comprises a polymeric system containing two or more different polymeric substances; wherein the first polymeric substance includes polyvinyl alcohol, starch derivatives, gelatin, cellulose derivatives, acrylamide polymers, acrylic polymers or copolymers, vinyl acetate latex, polyesters, styrene-butadiene copolymer latex, acrylonitrile-butadiene copolymer latex, a combination of two or more of the above polymeric substances or a mixture of two or more of the above polymeric substances; c. and between 0.1 wt % and 40 wt % of particulate inorganic substances having an average particle size between 0.1 and 2.0 μm; wherein the average particle size is the D50 particle size as determined by using a Malvern Zetasizer Nano when the sample is diluted at 1:1000 ratio in pure triethyleneglycol divinyl ether;
Process for depositing a bronze alloy on a printed circuit , comprising: providing a dielectric substrate comprising first and second main faces, with at least a first sheet of a first electrically conductive material on at least the first main face, at least one operation of electrolytic deposition of at least one layer of at least one second electrically conductive material on at least one zone of the first sheet , characterized in that said at least one operation of electrolytic deposition of at least one layer of at least one second electrically conductive material comprises an operation of electrolytic deposition of a bronze layer comprising, after deposition, 45 to 65% by weight of copper, 30 to 45% by weight of tin and 2 to 11 % by weight of zinc. providing a dielectric substrate comprising first and second main faces, with at least a first sheet of a first electrically conductive material on at least the first main face, at least one operation of electrolytic deposition of at least one layer of at least one second electrically conductive material on at least one zone of the first sheet , characterized in that said at least one operation of electrolytic deposition of at least one layer of at least one second electrically conductive material comprises an operation of electrolytic deposition of a bronze layer comprising, after deposition, 45 to 65% by weight of copper, 30 to 45% by weight of tin and 2 to 11 % by weight of zinc.
A magnesium phosphate investment containing aluminum oxide and at least one of the following oxides: zirconium oxide (ZrO 2 ), yttrium oxide (Y 2 O 3 ), yttrium oxide stabilized zirconium oxide, titanium oxide or boron nitride in the following weight percent of a total dry investment: (a) aluminum oxide between 2 to 10% (b) zirconium oxide up to 10% (c) yttrium oxide stabilized zirconium oxide up to 10% (d) boron nitride up to 10% (e) titanium dioxide up to 10%, wherein the investment further comprises between 70 to 80% of silicon dioxide fillers containing 10 to 30 % of cristobalite and 70 to 90% of quartz. (a) aluminum oxide between 2 to 10% (b) zirconium oxide up to 10% (c) yttrium oxide stabilized zirconium oxide up to 10% (d) boron nitride up to 10% (e) titanium dioxide up to 10%,
A utility vehicle including a cooling system comprising: - a first fluid circuit including a first fluid; - a second fluid circuit including a second fluid; - a heat exchanger coupled into both the first and second fluid circuits enabling transfer of heat from one of the first and second fluids to the other; - a fluid cooler in the first fluid circuit , and - a fan arranged to direct an airflow towards the fluid cooler , which fan is a hydraulically driven device connected in the first fluid circuit and driven by flow of the first fluid, characterised in that the second fluid is a lubricating fluid and the second circuit is a transmission lubrication circuit of the vehicle. - a first fluid circuit including a first fluid; - a second fluid circuit including a second fluid; - a heat exchanger coupled into both the first and second fluid circuits enabling transfer of heat from one of the first and second fluids to the other; - a fluid cooler in the first fluid circuit , and - a fan arranged to direct an airflow towards the fluid cooler , which fan is a hydraulically driven device connected in the first fluid circuit and driven by flow of the first fluid,
A handle for a cleaner, the handle comprising: an extension tube connector that is connected to an extension tube ; an air flow pipe that communicates with the extension tube connector to transfer air and dusts that is received from the extension tube connector ; a grip part that is to be held by a user; and a grip part connector that connects the extension tube connector and the grip part to each other and is rotated with respect to the air flow pipe , wherein the grip part and the grip part connector are arranged such that a central line (C) of the extension tube connector passes through the grip part , wherein the grip part is rotated together with the grip part connector . and the extension tube connector , and wherein the grip part is rotated with respect to the central line (C) of the extension tube connector , characterized in that the air flow pipe comprises a pipe body that defines an air passage, and a rotation guide that extends from the pipe body , wherein the central line (C) of the extension tube connector passes through the rotation guide , and wherein the grip part connector is rotatably connected to the rotation guide . an extension tube connector that is connected to an extension tube ; an air flow pipe that communicates with the extension tube connector to transfer air and dusts that is received from the extension tube connector ; a grip part that is to be held by a user; and a grip part connector that connects the extension tube connector and the grip part to each other and is rotated with respect to the air flow pipe , wherein the grip part and the grip part connector are arranged such that a central line (C) of the extension tube connector passes through the grip part , wherein the grip part is rotated together with the grip part connector . and the extension tube connector , and wherein the grip part is rotated with respect to the central line (C) of the extension tube connector , characterized in that the air flow pipe comprises a pipe body that defines an air passage, and a rotation guide that extends from the pipe body , wherein the central line (C) of the extension tube connector passes through the rotation guide , and wherein the grip part connector is rotatably connected to the rotation guide .
A method for making a wound dressing comprising: a. providing a first layer comprising an effective amount of a homogeneous mixture of a collagen, an oxidized cellulose, and at least one bacteria reducing active ingredient; b. providing a second layer comprising an effective amount of a homogeneous mixture of a collagen, an oxidized cellulose, a silver compound, and at least one bacteria reducing active ingredient; and c. combining the first layer and the second layer to form the wound dressing composition, wherein the at least one bacteria reducing active ingredient of each of the first layer and of the second layer is independently selected from the group consisting of citric acid, acetic acid, or any pharmaceutically acceptable salt thereof, and any combination thereof, and wherein the at least one bacteria reducing active ingredient of each of the first layer and of the second layer is mixed with a solvent, wherein the solvent is a (C 1 -C 3 )alcohol. a. providing a first layer comprising an effective amount of a homogeneous mixture of a collagen, an oxidized cellulose, and at least one bacteria reducing active ingredient; b. providing a second layer comprising an effective amount of a homogeneous mixture of a collagen, an oxidized cellulose, a silver compound, and at least one bacteria reducing active ingredient; and c. combining the first layer and the second layer to form the wound dressing composition, wherein the at least one bacteria reducing active ingredient of each of the first layer and of the second layer is independently selected from the group consisting of citric acid, acetic acid, or any pharmaceutically acceptable salt thereof, and any combination thereof, and wherein the at least one bacteria reducing active ingredient of each of the first layer and of the second layer is mixed with a solvent, wherein the solvent is a (C 1 -C 3 )alcohol.
A method for manufacturing a component for a wind turbine , in particular a rotor blade , comprising the steps of a) arranging (S1) a layup of fiber material on top of a mold surface , b) covering (S2) the layup with a non-stitched fiber material comprising a plurality of fibers bonded together by an adhesive to improve the air tightness of the non-stitched fiber material , wherein openings or cavities between adjacent fibers are avoided, such that it is configured to produce a pressure drop sufficient to force a layup of fiber material against a mold surface when vacuum is applied to a space between the non-stitched fiber material and the mold surface , wherein the adhesive takes the shape of at least one bead bonding the fibers together, the at least one bead has a zigzag shape, and wherein the non-stitched fiber material comprises fibers being arranged parallel to each other, and c) applying (S3) a vacuum to a space between the non-stitched fiber material and the mold surface , the non-stitched fiber material forcing the layup of fiber material against the mold surface . a) arranging (S1) a layup of fiber material on top of a mold surface , b) covering (S2) the layup with a non-stitched fiber material comprising a plurality of fibers bonded together by an adhesive to improve the air tightness of the non-stitched fiber material , wherein openings or cavities between adjacent fibers are avoided, such that it is configured to produce a pressure drop sufficient to force a layup of fiber material against a mold surface when vacuum is applied to a space between the non-stitched fiber material and the mold surface , wherein the adhesive takes the shape of at least one bead bonding the fibers together, the at least one bead has a zigzag shape, and wherein the non-stitched fiber material comprises fibers being arranged parallel to each other, and c) applying (S3) a vacuum to a space between the non-stitched fiber material and the mold surface , the non-stitched fiber material forcing the layup of fiber material against the mold surface .
Centering unit for diagnostics laboratory transporting compartment , comprising: - at least one first and one second hinged arms , each comprising a first end portion and a second end portion, each with a compartment gripper at the first end portion, wherein the at least one first and one second hinged arms are mounted pivotally and opposite each other on a frame , wherein a vertical axis of a centering position is determined by a middle distance between the two opposing compartment grippers , - a first connector to which each of the second end portions of the first and second hinged arms are connected pivotally, wherein the first connector is movably connected on a guiding element , - a second connector , wherein the second connector and the first connector are resiliently connected to each other with a first elastic member , wherein the second connector is movably connected on the guiding element , - an actuator for moving the second connector , characterized in at least one third rotatable arm with an exposed end and a first compartment holder gripper at an end portion opposite to the exposed end, wherein the at least one third rotatable arm is coupled pivotally and opposite to a counterpart on the frame or on a further frame with a second elastic member, wherein the exposed end is positioned so that a rotation of the third rotatable arm and movement of the compartment holder gripper away from the vertical axis of the centering position is triggered by means of engagement with one of the at least one first and one second hinged arms . - at least one first and one second hinged arms , each comprising a first end portion and a second end portion, each with a compartment gripper at the first end portion, wherein the at least one first and one second hinged arms are mounted pivotally and opposite each other on a frame , wherein a vertical axis of a centering position is determined by a middle distance between the two opposing compartment grippers , - a first connector to which each of the second end portions of the first and second hinged arms are connected pivotally, wherein the first connector is movably connected on a guiding element , - a second connector , wherein the second connector and the first connector are resiliently connected to each other with a first elastic member , wherein the second connector is movably connected on the guiding element , - an actuator for moving the second connector , characterized in at least one third rotatable arm with an exposed end and a first compartment holder gripper at an end portion opposite to the exposed end, wherein the at least one third rotatable arm is coupled pivotally and opposite to a counterpart on the frame or on a further frame with a second elastic member, wherein the exposed end is positioned so that a rotation of the third rotatable arm and movement of the compartment holder gripper away from the vertical axis of the centering position is triggered by means of engagement with one of the at least one first and one second hinged arms .
A method to control an exhaust gas after-treatment system for an exhaust system of an internal combustion engine having an exhaust duct ; the system comprises at least one catalytic converter arranged along the exhaust duct and a burner , which is suited to introduce exhaust gases into the exhaust duct to speed up the heating of said at least one catalytic converter , wherein inside the burner there is defined a combustion chamber , which receives fresh air through an air feeding circuit , which is provided with a pumping device housed along a first duct , and receives fuel from an injector for injecting fuel into the combustion chamber , and a spark plug coupled to the burner for the ignition of the mixture present inside the combustion chamber ; the method comprises the steps of: housing a pressure sensor along the first duct interposed between the pumping device and the burner or along a second duct leaving the burner ; acquiring the pressure signal (P 33 ) detected by said pressure sensor following the combustion inside the combustion chamber ; and controlling the combustion inside the combustion chamber , by controlling the objective quantity (ṁ FUEL-OBJ ) of fuel to be injected into the combustion chamber and the objective quantity (ṁ AIR-OBJ ) of air to be fed to the combustion chamber , as a function of the high-frequency content (P 33_HF ) of the pressure signal (P 33 ) detected by said pressure sensor . housing a pressure sensor along the first duct interposed between the pumping device and the burner or along a second duct leaving the burner ; acquiring the pressure signal (P 33 ) detected by said pressure sensor following the combustion inside the combustion chamber ; and controlling the combustion inside the combustion chamber , by controlling the objective quantity (ṁ FUEL-OBJ ) of fuel to be injected into the combustion chamber and the objective quantity (ṁ AIR-OBJ ) of air to be fed to the combustion chamber , as a function of the high-frequency content (P 33_HF ) of the pressure signal (P 33 ) detected by said pressure sensor .
A source port coupled to a destination port through a communication network , the source port comprising a circuit for generation of a master clock, from which subsystems of the source port are synchronized, characterized in that said circuit for generation of a master clock is adapted * to receive a frame transfer rate of the communication network and to produce from the frame transfer rate by multiplying and dividing the frame transfer rate the master clock, and wherein the master clock has a frequency of an integer multiple of 1125/2 of the frame transfer rate of 48 KHz or an integer multiple of 30000/49 of the frame transfer rate of 44.1KHz.
Tool for loosening a screw element , in particular a gas meter , comprising a handle unit for guiding the tool , a receiving means which can be rotated about a screw axis from an initial position (I) to a release position (II) for transmitting a torque to the screw element , with a receiving opening for receiving the screw element in a form-fitting manner, a drive for providing a driving power for the torque , and an output connected to the receiving means for generating the torque for introducing the driving power eccentrically into the receiving means to the screw axis , wherein the output has a transmission means by which an active path for transmitting the driving power from the drive to the receiving means can be formed, characterized in that the receiving means is fixable in at least a first and a second receiving position for receiving the screw element , wherein the receiving means is rotatable about the transmission means between the first and second receiving position . a receiving means which can be rotated about a screw axis from an initial position (I) to a release position (II) for transmitting a torque to the screw element , with a receiving opening for receiving the screw element in a form-fitting manner, a drive for providing a driving power for the torque , and an output connected to the receiving means for generating the torque for introducing the driving power eccentrically into the receiving means to the screw axis , wherein the output has a transmission means by which an active path for transmitting the driving power from the drive to the receiving means can be formed, characterized in that the receiving means is fixable in at least a first and a second receiving position for receiving the screw element , wherein the receiving means is rotatable about the transmission means between the first and second receiving position .
An antenna arrangement comprising a first and a second elongated structure for guiding an electromagnetic wave, and arranged for enabling a respective data stream to be transmitted in the two structures, each of said structures exhibiting a longitudinal (A) and a transversal direction (R) of extension, said structures being positioned alongside each other in their longitudinal direction of extension, each of said structures comprising at least one group of radiation elements, the antenna arrangement being characterized in that the first and second structures are arranged so that for at least two adjacent sections, one in each structure, the groups of radiation elements are distributed along the two structures such that a group in the first structure does not overlap in the longitudinal direction of extension with a group in the second structure in which the groups of radiation elements in one of said structures are arranged at a minimum longitudinal distance (d 2 ) to the nearest group of radiation elements in the other structure .
A method of forming a three-dimensional object, comprising: (a) providing a polymerizable liquid comprising a mixture of (i) a light polymerizable first component, (ii) a second solidifiable component that is different from said first component, wherein said second solidifiable component comprises a flame retardant group, said flame retardant group comprising a halogen group, and (iii) a flame retardant synergist, said flame retardant synergist comprising antimony pentoxide; (b) producing a three-dimensional intermediate from said polymerizable liquid by stereolithography including irradiating said polymerizable liquid with light to form a solid polymer scaffold from said first component and containing said second solidifiable component carried in said scaffold in unsolidified and/or uncured form, said intermediate having the same shape as, or a shape to be imparted to, said three-dimensional object; (c) optionally washing said intermediate, and (d) concurrently with or subsequent to said producing step (b), further curing said second solidifiable component in said three-dimensional intermediate to form said three-dimensional object. (a) providing a polymerizable liquid comprising a mixture of (i) a light polymerizable first component, (ii) a second solidifiable component that is different from said first component, wherein said second solidifiable component comprises a flame retardant group, said flame retardant group comprising a halogen group, and (iii) a flame retardant synergist, said flame retardant synergist comprising antimony pentoxide; (b) producing a three-dimensional intermediate from said polymerizable liquid by stereolithography including irradiating said polymerizable liquid with light to form a solid polymer scaffold from said first component and containing said second solidifiable component carried in said scaffold in unsolidified and/or uncured form, said intermediate having the same shape as, or a shape to be imparted to, said three-dimensional object; (c) optionally washing said intermediate, and (d) concurrently with or subsequent to said producing step (b), further curing said second solidifiable component in said three-dimensional intermediate to form said three-dimensional object.