mhurhangee/patent-ind-claim-en huggingface dataset:
Purification filter for a domestic wastewater treatment network extending substantially horizontally with a direction of water flow that is broadly vertical and downward, and comprising: - an inlet for the water to be treated in an upper position and an outlet for the treated water in a lower position; - a distribution system for distributing the water to be treated in an upper position associated with the inlet ; - a means for spreading the water to be treated, located below the distribution system of the water to be treated; - a filtration means positioned between the spreading means for the water to be treated and the outlet for the treated water, characterized in that said filtration means comprises, more specifically mainly comprises, even more specifically consists of, or essentially consists of maritime pine bark in pieces. - an inlet for the water to be treated in an upper position and an outlet for the treated water in a lower position; - a distribution system for distributing the water to be treated in an upper position associated with the inlet ; - a means for spreading the water to be treated, located below the distribution system of the water to be treated; - a filtration means positioned between the spreading means for the water to be treated and the outlet for the treated water, characterized in that said filtration means comprises, more specifically mainly comprises, even more specifically consists of, or essentially consists of maritime pine bark in pieces.
An outer panel-mediated cooling system for a transportation machine , comprising: an outer shell including an outer panel , an inner panel located inward of the outer panel, and a heat-insulating layer located between the outer and inner panels; a cooling chamber that is located between the outer and inner panels and in which a gas releases heat outside through the outer panel and is thus cooled; a circulation loop in which a heat medium circulates, the circulation loop including a heating section located inward of the inner panel to heat the heat medium and a cooling section located in the cooling chamber to cool the heat medium; a flow path-forming structure located in the cooling chamber to form a circulation path for the gas; and a fan located in the cooling chamber to exert a drive force on the gas to allow the gas to circulate in the circulation path, characterised in that the gas indirectly cools the heat medium passing through the cooling section and the gas and the heat medium are not mixed. an outer shell including an outer panel , an inner panel located inward of the outer panel, and a heat-insulating layer located between the outer and inner panels; a cooling chamber that is located between the outer and inner panels and in which a gas releases heat outside through the outer panel and is thus cooled; a circulation loop in which a heat medium circulates, the circulation loop including a heating section located inward of the inner panel to heat the heat medium and a cooling section located in the cooling chamber to cool the heat medium; a flow path-forming structure located in the cooling chamber to form a circulation path for the gas; and a fan located in the cooling chamber to exert a drive force on the gas to allow the gas to circulate in the circulation path, characterised in that the gas indirectly cools the heat medium passing through the cooling section and the gas and the heat medium are not mixed.
An apparatus for disassembling and assembling a lower vane carrier mounted inside a lower turbine casing , the apparatus comprising: a rolling jig that is configured for being mounted on the lower vane carrier , wherein, when the rolling jig is mounted on the lower vane carrier , an axial direction passes through a center between the lower vane carrier and the rolling jig ; a bolt member that passes through a region where the rolling jig and the lower vane carrier are in contact with each other, the bolt member comprising a stem portion that passes through the rolling jig and that is configured for passing through the lower vane carrier , and a head portion that is connected to a first end of the stem portion , wherein a diameter of the head portion is larger than a diameter of the stem portion ; and a block member mounted adjacent to the bolt member and disposed at a position close to the head portion of the bolt member , the block member comprising a pair of side surface block portions spaced apart from each other along the axial direction with respect to the head portion , and a connection block portion connecting the pair of side surface block portions to each other, so that the block member is configured to prevent the bolt member from being separated. a rolling jig that is configured for being mounted on the lower vane carrier , wherein, when the rolling jig is mounted on the lower vane carrier , an axial direction passes through a center between the lower vane carrier and the rolling jig ; a bolt member that passes through a region where the rolling jig and the lower vane carrier are in contact with each other, the bolt member comprising a stem portion that passes through the rolling jig and that is configured for passing through the lower vane carrier , and a head portion that is connected to a first end of the stem portion , wherein a diameter of the head portion is larger than a diameter of the stem portion ; and a block member mounted adjacent to the bolt member and disposed at a position close to the head portion of the bolt member , the block member comprising a pair of side surface block portions spaced apart from each other along the axial direction with respect to the head portion , and a connection block portion connecting the pair of side surface block portions to each other, so that the block member is configured to prevent the bolt member from being separated.
A data transmission method, wherein the method is used for a transmit end, and the method comprises: generating a physical layer protocol data unit, PPDU; and sending the PPDU to a plurality of receive ends, wherein the PPDU comprises a short training field, STF, and a target field in the STF comprises a plurality of basic elements sequentially arranged, a zero elements located between every two adjacent basic elements, and a zero elements located before or after the plurality of basic elements, wherein "a" in "a zero elements" represents quantity of zero elements and "a" ≥ 1; a plurality of consecutive elements in the plurality of basic elements form a Golay sequence, and the target field is transmitted on a subcarrier other than a guard subcarrier and a direct current subcarrier in a spectrum resource for transmitting the STF; the spectrum resource for transmitting the STF is divided into a plurality of subcarriers, and the plurality of subcarriers are allocated to the plurality of receive ends in a one-to-one correspondence; elements in the STF may also be divided into a plurality of segments of elements based on the division of subcarriers in the spectrum resource; the plurality of segments of elements are in a one-to-one correspondence with the plurality of subcarriers; and each segment of elements is transmitted to a receive end corresponding to the segment of elements on a subcarrier corresponding to the segment of elements. generating a physical layer protocol data unit, PPDU; and sending the PPDU to a plurality of receive ends, wherein the PPDU comprises a short training field, STF, and a target field in the STF comprises a plurality of basic elements sequentially arranged, a zero elements located between every two adjacent basic elements, and a zero elements located before or after the plurality of basic elements, wherein "a" in "a zero elements" represents quantity of zero elements and "a" ≥ 1; a plurality of consecutive elements in the plurality of basic elements form a Golay sequence, and the target field is transmitted on a subcarrier other than a guard subcarrier and a direct current subcarrier in a spectrum resource for transmitting the STF; the spectrum resource for transmitting the STF is divided into a plurality of subcarriers, and the plurality of subcarriers are allocated to the plurality of receive ends in a one-to-one correspondence; elements in the STF may also be divided into a plurality of segments of elements based on the division of subcarriers in the spectrum resource; the plurality of segments of elements are in a one-to-one correspondence with the plurality of subcarriers; and each segment of elements is transmitted to a receive end corresponding to the segment of elements on a subcarrier corresponding to the segment of elements.
A machine for welding workpieces made of plastic material of the type comprising: two workpiece-carrying fixtures each of which is provided with a template having a recess adapted to accommodate a respective plastic workpiece to be welded; a moving assembly adapted to selectively couple and press the two workpiece-carrying fixtures against each other; at least one automatic piece locking device which is adapted to selectively lock/immobilise the plastic workpiece to be welded inside the template of said first workpiece-carrying fixture ; and an electronic control unit which is adapted to drive/control said at least one automatic piece locking device ; the welding machine being characterised in that the/each automatic piece locking device comprises: a movable latch which is inserted in axially sliding manner into a corresponding oblong seat present in the template of the first workpiece-carrying fixture , and is provided with a locking appendage that is movable at the recess of the template of the first workpiece-carrying fixture , so as to be able to selectively abut against the plastic workpiece temporarily accommodated into the recess of said template ; and an electrically-operated locking member which is adapted to press, on command, the movable latch against the side wall of the oblong seat , so as to selectively lock/immobilise the movable latch on the template of the first workpiece-carrying fixture by friction.
Working centre (C) for working workpieces (P) made of wood, ceramic, plastic, metal, glass, fiberglass, comprising a working plane , for supporting said workpieces (P) to be worked, that extends along a first axis (X); a movable cross member moving along said working plane , according to said first axis (X); a working group coupled to said movable cross member slidably along a second axis (Y), orthogonal to said first axis (X), and movable along a third axis (Z), orthogonal to said first axis (X) and second axis (Y), so as to carry out cuts on said workpieces (P), during cutting strokes according to cutting lines (T), said working centre (C) wherein said working group comprises a first rotary disc blade and a second rotary disc blade , substantially arranged coplanar and configured so that, during the same cutting stroke of said working group along a cutting line (T), said first blade is capable of carrying out an incision, partially interfering with said workpiece (P), and said second blade is capable of carrying out a pass-through cut in said workpiece (P), along said incision, or vice versa, wherein said working group , comprises a support slidably coupled to said movable cross member along said second axis (Y), and an aggregate , which in turn comprises said first and second blade, and wherein said support and aggregate are coupled to each other. a working plane , for supporting said workpieces (P) to be worked, that extends along a first axis (X); a movable cross member moving along said working plane , according to said first axis (X); a working group coupled to said movable cross member slidably along a second axis (Y), orthogonal to said first axis (X), and movable along a third axis (Z), orthogonal to said first axis (X) and second axis (Y), so as to carry out cuts on said workpieces (P), during cutting strokes according to cutting lines (T), said working centre (C) wherein said working group comprises a first rotary disc blade and a second rotary disc blade , substantially arranged coplanar and configured so that, during the same cutting stroke of said working group along a cutting line (T), said first blade is capable of carrying out an incision, partially interfering with said workpiece (P), and said second blade is capable of carrying out a pass-through cut in said workpiece (P), along said incision, or vice versa, wherein said working group , comprises a support slidably coupled to said movable cross member along said second axis (Y), and an aggregate , which in turn comprises said first and second blade, and wherein said support and aggregate are coupled to each other.
A method of preparing a polyrotaxane, said method comprising: performing a radical copolymerization of at least (a) a first polymerizable monomer having a stopper group, and of at least (b) a second polymerizable hydrophobic monomer, wherein said second hydrophobic monomer is complexed by a ring-shaped molecule, and of at least (c) a third polymerizable hydrophilic monomer; wherein said copolymerization is performed in an aqueous medium; wherein during said copolymerization a copolymer threading said ring-shaped molecule is formed, wherein during said copolymerization said first monomer having a stopper group is incorporated into the chain of said copolymer at least partially between the ends thereof, and wherein said stopper groups prevent said ring-shaped molecule from disassembling from the copolymer; wherein the amount of said first monomer having a stopper group is of from 0.1 mol % to 20 mol %, based on 100 mol % of the total amount of polymerizable monomers; wherein said ring-shaped molecule is selected from the group consisting of a cyclodextrin, a cyclodextrin derivative and any combination thereof; wherein said second hydrophobic monomer has a solubility in water at 20°C of less than 20 g/L and is selected from the group consisting of a 1,3-diene, an N-alkyl-acrylamide and any combination thereof; and wherein said third hydrophilic monomer has a solubility in water at 20°C of 45 g/L or more. performing a radical copolymerization of at least (a) a first polymerizable monomer having a stopper group, and of at least (b) a second polymerizable hydrophobic monomer, wherein said second hydrophobic monomer is complexed by a ring-shaped molecule, and of at least (c) a third polymerizable hydrophilic monomer; wherein said copolymerization is performed in an aqueous medium; wherein during said copolymerization a copolymer threading said ring-shaped molecule is formed, wherein during said copolymerization said first monomer having a stopper group is incorporated into the chain of said copolymer at least partially between the ends thereof, and wherein said stopper groups prevent said ring-shaped molecule from disassembling from the copolymer; wherein the amount of said first monomer having a stopper group is of from 0.1 mol % to 20 mol %, based on 100 mol % of the total amount of polymerizable monomers; wherein said ring-shaped molecule is selected from the group consisting of a cyclodextrin, a cyclodextrin derivative and any combination thereof; wherein said second hydrophobic monomer has a solubility in water at 20°C of less than 20 g/L and is selected from the group consisting of a 1,3-diene, an N-alkyl-acrylamide and any combination thereof; and wherein said third hydrophilic monomer has a solubility in water at 20°C of 45 g/L or more.
A method for in vitro transcription and translation, comprising: contacting a double-stranded concatemeric DNA with a eukaryotic cell-free expression system, wherein the double-stranded concatemeric DNA comprises a plurality of tandem repeat sequences, and wherein each of the tandem repeat sequences comprises an expression sequence comprising a promoter, a cap-independent translation element (CITE), and an open reading frame; and expressing a protein in vitro from the double-stranded concatemeric DNA in the eukaryotic cell-free expression system, wherein a final concentration of the double-stranded concatemeric DNA in the eukaryotic cell-free expression system is in a range from 0.1 ng/μL to 35 ng/μL contacting a double-stranded concatemeric DNA with a eukaryotic cell-free expression system, wherein the double-stranded concatemeric DNA comprises a plurality of tandem repeat sequences, and wherein each of the tandem repeat sequences comprises an expression sequence comprising a promoter, a cap-independent translation element (CITE), and an open reading frame; and expressing a protein in vitro from the double-stranded concatemeric DNA in the eukaryotic cell-free expression system, wherein a final concentration of the double-stranded concatemeric DNA in the eukaryotic cell-free expression system is in a range from 0.1 ng/μL to 35 ng/μL
A kit for deploying a bone implant at a surgical site , the kit comprising: a first sleeve having an interior surface that defines a channel ; a second sleeve having an outer surface and an inner surface , the inner surface of the second sleeve defining an inner channel ; and a bone implant comprising a mesh material , characterised in that the bone implant is disposed in a portion of the channel of the first sleeve or disposed in a portion of the inner channel of the second sleeve or disposed in both the portion of the channel of the first sleeve and the portion of the inner channel of the second sleeve , wherein the outer surface of the second sleeve is configured to slidably engage the interior surface of the channel of the first sleeve such that sliding the outer surface of the second sleeve deploys the bone implant at the surgical site . a first sleeve having an interior surface that defines a channel ; a second sleeve having an outer surface and an inner surface , the inner surface of the second sleeve defining an inner channel ; and a bone implant comprising a mesh material , characterised in that the bone implant is disposed in a portion of the channel of the first sleeve or disposed in a portion of the inner channel of the second sleeve or disposed in both the portion of the channel of the first sleeve and the portion of the inner channel of the second sleeve , wherein the outer surface of the second sleeve is configured to slidably engage the interior surface of the channel of the first sleeve such that sliding the outer surface of the second sleeve deploys the bone implant at the surgical site .
A vehicle seat core material constituted by an in-mold foamed molded product which is made of expanded particles of a thermoplastic resin and is embedded with an insert material, the vehicle seat core material comprising: a hollow space provided in a surface of the in-mold foamed molded product; an insert material exposed portion provided in the hollow space, the insert material exposed portion being an exposed portion of the insert material; a protrusion provided at a bottom of the hollow space so as to protrude through the bottom of the hollow space toward the insert material exposed portion; and a gap (D) provided between the insert material exposed portion and the protrusion, wherein the expanded particles of a thermoplastic resin are expanded particles of a polypropylene resin. a hollow space provided in a surface of the in-mold foamed molded product; an insert material exposed portion provided in the hollow space, the insert material exposed portion being an exposed portion of the insert material; a protrusion provided at a bottom of the hollow space so as to protrude through the bottom of the hollow space toward the insert material exposed portion; and a gap (D) provided between the insert material exposed portion and the protrusion, wherein the expanded particles of a thermoplastic resin are expanded particles of a polypropylene resin.
A method of rotationally coupling antennas comprising: coupling a first spindle (215-a; 215-b; 215c) to a first antenna (141; 141a; 141b); coupling a second spindle (225-a; 225-b; 225-c) to a second antenna (142; 142-a; 142-b); coupling a first pair of link arms (310-a) between the first spindle and a third spindle (335-a; 335-b), wherein a link arm (330-a-1; 330-a-2) of the first pair of link arms is coupled to the third spindle at a location on the third spindle a first radial distance from a spindle axis (336-a) of the third spindle; coupling a second pair of link arms (320-a) between the second spindle and the third spindle, wherein a link arm (330-b-1; 330-b-2) of the second pair of link arms is coupled to the third spindle at a location on the third spindle at a second radial distance from the spindle axis of the third spindle; and coupling a drive element to the third spindle to simultaneously rotate the first antenna via the first pair of link arms and the second antenna via the second pair of link arms. coupling a first spindle (215-a; 215-b; 215c) to a first antenna (141; 141a; 141b); coupling a second spindle (225-a; 225-b; 225-c) to a second antenna (142; 142-a; 142-b); coupling a first pair of link arms (310-a) between the first spindle and a third spindle (335-a; 335-b), wherein a link arm (330-a-1; 330-a-2) of the first pair of link arms is coupled to the third spindle at a location on the third spindle a first radial distance from a spindle axis (336-a) of the third spindle; coupling a second pair of link arms (320-a) between the second spindle and the third spindle, wherein a link arm (330-b-1; 330-b-2) of the second pair of link arms is coupled to the third spindle at a location on the third spindle at a second radial distance from the spindle axis of the third spindle; and coupling a drive element to the third spindle to simultaneously rotate the first antenna via the first pair of link arms and the second antenna via the second pair of link arms.
Plastic pipe clip (1; 11) comprising: - a slitted annular body (2; 12) having a through slit (3; 13) to allow receiving a pipe in the annular body; - a pair of mounting flanges (4; 14) integrally formed on the annular body (2; 12) on an opposite side of the annular body (2; 12) as the side where the slit (3; 13) is located, the mounting flanges (4; 14) each having a support surface and at least one mounting hole (5; 15) adapted to mount the pipe clip (1; 11) to a support structure, wherein the mounting flanges (4; 14) are arranged and configured to be pinched together so as to open the slit (3; 13) on the opposite side of the annular body (2; 12) characterized in that a second pair of mounting flanges is integrally formed on the annular body on either side adjacent the slit and extending from the annular body , the mounting flanges of the second pair each having a support surface and at least one mounting hole adapted to mount the pipe clip to a support structure, wherein the flanges of the second pair have a support surface which is perpendicular to a support surface of the flanges on the opposite side of the annular body . - a slitted annular body (2; 12) having a through slit (3; 13) to allow receiving a pipe in the annular body; - a pair of mounting flanges (4; 14) integrally formed on the annular body (2; 12) on an opposite side of the annular body (2; 12) as the side where the slit (3; 13) is located, the mounting flanges (4; 14) each having a support surface and at least one mounting hole (5; 15) adapted to mount the pipe clip (1; 11) to a support structure,