mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving (302, 322), at a first node (212, 406, 408) along a network path between an originating node (202, 402) and a destination node (216, 404), a network control message from the originating node (202, 402), wherein the network control message was sent from the originating node on a specified path; wherein the network control message comprises a system management request and system management request metadata (414a, 414b, 414c), and is received in a packet of a path-oriented network control protocol; analyzing (310, 324) the system management request to determine a particular system management function to perform at the first node; performing (312, 326), at the first node, the particular system management function; generating (314, 328) a response payload (402b, 402c) indicating a result generated by causing performing the particular system management function; concatenating the response payload to a network control message or an existing message containing one or more other response payloads from one or more other nodes along the network path; transmitting (316, 330) a concatenated response payload to the originating node using the path-oriented network control protocol; and relaying (318, 320) the network control message received at first node (212, 406, 408) to a second node (408, 404) using the path-oriented network control protocol; wherein the method is performed by one or more processors. receiving (302, 322), at a first node (212, 406, 408) along a network path between an originating node (202, 402) and a destination node (216, 404), a network control message from the originating node (202, 402), wherein the network control message was sent from the originating node on a specified path; wherein the network control message comprises a system management request and system management request metadata (414a, 414b, 414c), and is received in a packet of a path-oriented network control protocol; analyzing (310, 324) the system management request to determine a particular system management function to perform at the first node; performing (312, 326), at the first node, the particular system management function; generating (314, 328) a response payload (402b, 402c) indicating a result generated by causing performing the particular system management function; concatenating the response payload to a network control message or an existing message containing one or more other response payloads from one or more other nodes along the network path; transmitting (316, 330) a concatenated response payload to the originating node using the path-oriented network control protocol; and relaying (318, 320) the network control message received at first node (212, 406, 408) to a second node (408, 404) using the path-oriented network control protocol; wherein the method is performed by one or more processors.
An electrical heat lamp for pig breeding, comprising a housing and an electrical heating source; wherein the heating source is a U-shaped, infrared electromagnetic radiation heating element; and wherein said heating source comprises an electric member portion for connecting to an external electric energy source; wherein the heat lamp comprises a reflector arranged in the housing, said reflector being adapted to reflect the electromagnetic radiation emitted from the heating source; said reflector is adapted to fit the shape of the heating source, and said reflector having a U-shaped groove which in turn is having a parabolic cross section; characterized in that the heat lamp comprises a sealing member being a casting compound, and wherein the U-shaped heating source has two electric member portions and a cable for connection to an external electrical energy source cast into the sealing member forming a box for encapsulating and sealing said electric or electronic components against water; and wherein the box is integrated in the housing.
A network device, comprising: an optical circuit switch to perform circuit switching; a plurality of removable line cards (120, 130, 140, 150), each removable line card having a packet switch (122, 132, 142, 152); and a switching manager to adaptively reconfigure the optical circuit switch based on a configuration of the removable line cards to maintain a guaranteed packet switching bandwidth between active line cards. an optical circuit switch to perform circuit switching; a plurality of removable line cards (120, 130, 140, 150), each removable line card having a packet switch (122, 132, 142, 152); and a switching manager to adaptively reconfigure the optical circuit switch based on a configuration of the removable line cards to maintain a guaranteed packet switching bandwidth between active line cards.
A process for producing deasphalted oil, the process comprising: combining a supercritical water stream with a pressurized, heated hydrocarbon-based composition in a mixing device to create a combined feed stream; introducing the combined feed stream into a supercritical reactor, where the supercritical reactor operates at a temperature greater than a critical temperature of water and a pressure greater than a critical pressure of water, to produce an upgraded product; depressurizing the upgraded product; separating the depressurized upgraded product into at least one light and at least one heavy fraction, in which the heavy fraction has a greater concentration of asphaltene than the light fraction; passing the light fraction to a separator to separate the light fraction into at least one gas fraction, one paraffinic fraction, and one water fraction; passing the paraffinic fraction to a distillation unit to produce at least a light paraffinic fraction and a heavy paraffinic fraction, where a true boiling point of 80% of the light paraffinic fraction is less than 200 °C, preferably less than 150 °C; and combining the light paraffinic fraction with the heavy fraction to remove asphaltene and thereby produce deasphalted oil. combining a supercritical water stream with a pressurized, heated hydrocarbon-based composition in a mixing device to create a combined feed stream; introducing the combined feed stream into a supercritical reactor, where the supercritical reactor operates at a temperature greater than a critical temperature of water and a pressure greater than a critical pressure of water, to produce an upgraded product; depressurizing the upgraded product; separating the depressurized upgraded product into at least one light and at least one heavy fraction, in which the heavy fraction has a greater concentration of asphaltene than the light fraction; passing the light fraction to a separator to separate the light fraction into at least one gas fraction, one paraffinic fraction, and one water fraction; passing the paraffinic fraction to a distillation unit to produce at least a light paraffinic fraction and a heavy paraffinic fraction, where a true boiling point of 80% of the light paraffinic fraction is less than 200 °C, preferably less than 150 °C; and combining the light paraffinic fraction with the heavy fraction to remove asphaltene and thereby produce deasphalted oil.
An ultrasonic meter comprising: an emitter (1,2,3,9) adapted to emit a series of ultrasonic burst signals towards a fluid containing at least one of bubbles and particles, the series of ultrasonic burst signals being reflected by at least one of the bubbles and particles in the fluid to be a series of reflected signals; a receiver (3,4,5,9) adapted to receive the series of reflected signals; and a calculator adapted to calculate a plurality of cross-correlation coefficients by performing a correlation processing on a series of received signals outputted from the receiver (3,4,5,9), wherein the calculator is adapted to calculate a flow velocity measurement value of the fluid based on the plurality of cross-correlation coefficients, characterized in that the calculator is adapted to calculate an additional correlation coefficient by multiplying all of the plurality of cross-correlation coefficients that have been calculated, and the flow velocity that provides a peak value of the additional correlation coefficient equals to a flow velocity measurement value of the fluid. an emitter (1,2,3,9) adapted to emit a series of ultrasonic burst signals towards a fluid containing at least one of bubbles and particles, the series of ultrasonic burst signals being reflected by at least one of the bubbles and particles in the fluid to be a series of reflected signals; a receiver (3,4,5,9) adapted to receive the series of reflected signals; and a calculator adapted to calculate a plurality of cross-correlation coefficients by performing a correlation processing on a series of received signals outputted from the receiver (3,4,5,9), wherein the calculator is adapted to calculate a flow velocity measurement value of the fluid based on the plurality of cross-correlation coefficients, characterized in that the calculator is adapted to calculate an additional correlation coefficient by multiplying all of the plurality of cross-correlation coefficients that have been calculated, and the flow velocity that provides a peak value of the additional correlation coefficient equals to a flow velocity measurement value of the fluid.
Scaffold comprising at least one scaffold element, said scaffold element comprising a vertical stile oriented substantially in a vertical direction, a horizontal stile oriented substantially in the horizontal direction and extending away from the vertical stile, and at the vertical stile above the horizontal stile at least one railing element push-on gudgeon (64; 36, 38), wherein at the horizontal stile a limit element push-on gudgeon is provided, wherein a distance between the limit element push-on gudgeon and the vertical stile is bigger than a maximum protrusion length of the at least one railing element push-on gudgeon (64; 36, 38) from the vertical stile, wherein a railing element (22, 24) is pushed on at least one railing element push-on gudgeon (64; 36, 38) of the scaffold element, characterised in that at least one limit element (48, 50) is pushed on said limit element push-on gudgeon provided at the horizontal stile and in that at least one railing element (22, 24) pushed on at least one railing element push-on gudgeon (64; 36, 38) is blocked by a limit element (48, 50) pushed on said limit element push-on gudgeon against removal from the railing element push-on gudgeon (64; 36, 38).
A high pressure fuel pump comprising an evacuation orifice assembly, the assembly comprising: a first member adapted to be disposed across an evacuation orifice and comprising at least one opening therein; and a second member with a lead portion adapted to be disposed within said opening(s), wherein the assembly is adapted to provide a first predetermined flow-rate of fluid through the opening(s) when the lead portion is in a first position within the opening(s), and to selectively enlarge the opening(s) to provide a second predetermined flow-rate of fluid through the opening(s) when the lead portion is in a second position within said opening(s); wherein the first member is adapted to be slidable, between the first position and the second position in the orifice.
Pin comprising a metal body extending along a longitudinal insertion axis (Ox) and having a first end and a second end along the longitudinal axis (Ox), and an upper face and a lower face opposite the upper face, the pin comprising: - two convex portions each having an inclined inner wall and an inclined outer wall, the inclined walls (131, 132) of each convex portion forming a ridge and extending along the longitudinal axis (Ox), at least one ridge having on its lower face a protruding blade obtained by cutting and folding the metal body along the longitudinal axis (Ox); - a concave portion connecting the inner walls of each convex portion via a central surface; - at least one blocking member. - two convex portions each having an inclined inner wall and an inclined outer wall, the inclined walls (131, 132) of each convex portion forming a ridge and extending along the longitudinal axis (Ox), at least one ridge having on its lower face a protruding blade obtained by cutting and folding the metal body along the longitudinal axis (Ox); - a concave portion connecting the inner walls of each convex portion via a central surface; - at least one blocking member.
A water processing device which is provided for removing micro-pollutants, in particular medicaments, from water, said device comprising a housing (48a - 48d) and at least one adsorption unit (18a - 18d) which is arranged in the housing (48a - 48d) and which at least partially adsorbs the micro-pollutants in an operating state and which comprises at least one non-specific adsorption element (50a - 50d), wherein the non-specific adsorption element (50a - 50d) comprises activated carbon and/or a mineral adsorbent, wherein the mineral adsorbent is selected from bentonite, diatomaceous earth, silica gel, alumina, zinc oxide or mixtures thereof, characterised in that the adsorption unit (18a - 18d) comprises at least one specific adsorption element (52a - 52d), wherein the specific adsorption element (52a - 52d) comprises at least one reversed-phase adsorbent and wherein the specific adsorption element (52a - 52d) comprises at least one ion exchanger adsorbent and/or at least one adsorbent which is provided for adsorption by means of hydrogen bridges.
A sleeve insertion assembly (602, 1102), comprising: a sleeve inserter (604, 1104) defining an inner chamber (612, 1114) and having a distal end (610a, 1112a) and a proximal end (610b, 1112b) opposite the distal end (610b, 1112a); a sleeve receivable within the inner chamber (612, 1114); and a blade guard (606, 1108) receivable within the sleeve and having a cylindrical body (616, 1126) that defines an interior and an open end (618b, 1128b), wherein the open end (618b, 1128b) is sized to receive jaw members (210, 212) of an end effector into the interior but prevent the end effector from entering the interior, and wherein the blade guard (606, 1108) is configured to prevent the jaw members (210, 212) from contacting the inner wall of the sleeve during installation of the sleeve on the end effector, and wherein the blade guard (606, 1108) is forced out of the sleeve when the sleeve is installed on the end effector. a sleeve inserter (604, 1104) defining an inner chamber (612, 1114) and having a distal end (610a, 1112a) and a proximal end (610b, 1112b) opposite the distal end (610b, 1112a); a sleeve receivable within the inner chamber (612, 1114); and a blade guard (606, 1108) receivable within the sleeve and having a cylindrical body (616, 1126) that defines an interior and an open end (618b, 1128b), wherein the open end (618b, 1128b) is sized to receive jaw members (210, 212) of an end effector into the interior but prevent the end effector from entering the interior, and wherein the blade guard (606, 1108) is configured to prevent the jaw members (210, 212) from contacting the inner wall of the sleeve during installation of the sleeve on the end effector, and wherein the blade guard (606, 1108) is forced out of the sleeve when the sleeve is installed on the end effector.
A white Panax ginseng polysaccharide extract for use in the prevention or treatment of liver diseases, comprising mannose of 1.2-2.8% by weight, glucose of 64.1-82.8% by weight, galactose of 10.0-26.6% by weight, and arabinose of 0.6-5.4% by weight, wherein the liver diseases are selected from the group consisting of fatty liver, liver necrosis, hepatic fibrosis, liver cirrhosis and acute/chronic hepatitis.
An encoding method, comprising: obtaining, by a transmit end, a post-polar-encoding data length S A corresponding to to-be-encoded data; segmenting, by the transmit end, the to-be-encoded data into one or more C code blocks based on the post-polar-encoding data length S A and a preset threshold Z, wherein C is a segment quantity, and C is a positive integer; and performing, by the transmit end, polar encoding on each of the one or more C code blocks, and transmitting encoded data to a receive end; wherein: if S A is not greater than Z, C is equal to 1; or if S A is greater than Z, C is equal to or greater than 2; wherein C is determined by using the formula ┌ S A / Z ┐, and the one or more C code blocks comprise one or more C+ first kind of code blocks and one or more C - second kind of code blocks, C = C + + C -, a pre-encoding length of the first kind of code block is K+, a pre-encoding length of the second kind of code block is K -, K - = K + - P, P > 1, and P is an odd number; wherein K + is determined by using the following formula K + =┌( S TB + C × l CB) / C ┐, C - is determined by using the following formula C - =└( C×K + - S TB -C×l CB) / P ┘, S TB is a length of the to-be-encoded data, l CB is a length of check information in a code block, ┌·┐ is a rounding-up operation and └·┘ is a rounding-down operation. obtaining, by a transmit end, a post-polar-encoding data length S A corresponding to to-be-encoded data; segmenting, by the transmit end, the to-be-encoded data into one or more C code blocks based on the post-polar-encoding data length S A and a preset threshold Z, wherein C is a segment quantity, and C is a positive integer; and performing, by the transmit end, polar encoding on each of the one or more C code blocks, and transmitting encoded data to a receive end; wherein: if S A is not greater than Z, C is equal to 1; or if S A is greater than Z, C is equal to or greater than 2; if S A is not greater than Z, C is equal to 1; or if S A is greater than Z, C is equal to or greater than 2; wherein C is determined by using the formula ┌ S A / Z ┐, and the one or more C code blocks comprise one or more C+ first kind of code blocks and one or more C - second kind of code blocks, C = C + + C -, a pre-encoding length of the first kind of code block is K+, a pre-encoding length of the second kind of code block is K -, K - = K + - P, P > 1, and P is an odd number; wherein K + is determined by using the following formula K + =┌( S TB + C × l CB) / C ┐, C - is determined by using the following formula C - =└( C×K + - S TB -C×l CB) / P ┘, S TB is a length of the to-be-encoded data, l CB is a length of check information in a code block, ┌·┐ is a rounding-up operation and └·┘ is a rounding-down operation.
A pharmaceutical composition for use in a method for preventing or treating macular degeneration or macular edema, comprising a compound selected from 3-[[(1R,2S,4aS,8aS)-1,2,4a-trimethyl-5-methylidene-3,4,6,7,8,8a-hexahydro-2H-naphthalen-1-yl]methyl]-2-hydroxy-5-methoxycyclohexa-2,5-diene-1,4-dione and 3-[[(1S,2R,4aR,8aR)-1,2,4a-trimethyl-5-methylidene-3,4,6,7,8,8a-hexahydro-2H-naphthalen-1-yl]methyl]-5-ethoxy-2-hydroxycyclohexa-2,5-diene-1,4-dione or a pharmaceutically acceptable salt thereof as an active ingredient.
A method of manufacturing an ultrasound imaging probe, the method comprising: obtaining an ultrasound transducer assembly fixedly secured to a chassis; movably coupling the chassis to a plurality of heat spreader members (430, 440); and enclosing the plurality of heat spreader members, the chassis and the ultrasound transducer assembly in a housing (510, 520, 530), wherein movably coupling the chassis to the plurality of heat spreader members comprises coupling the chassis to the plurality of heat spreader members by two shoulder screws (450, 460), wherein the movable coupling allows the plurality of heat spreader members to move relative to the chassis, wherein moving the plurality of heat spreader members relative to the chassis comprises moving the plurality of heat spreader members about the two shoulder screws in more than one dimension. obtaining an ultrasound transducer assembly fixedly secured to a chassis; movably coupling the chassis to a plurality of heat spreader members (430, 440); and enclosing the plurality of heat spreader members, the chassis and the ultrasound transducer assembly in a housing (510, 520, 530), wherein movably coupling the chassis to the plurality of heat spreader members comprises coupling the chassis to the plurality of heat spreader members by two shoulder screws (450, 460), wherein the movable coupling allows the plurality of heat spreader members to move relative to the chassis, wherein moving the plurality of heat spreader members relative to the chassis comprises moving the plurality of heat spreader members about the two shoulder screws in more than one dimension.
A projectile with a projectile body, which includes a recess for receiving explosive, wherein the projectile body has, at least in sections, a cylindrical wall surface, which is surrounded, at least in sections, by a plurality of annular elements provided with predetermined breaking points, wherein fragments forming on disintegration of the elements are predefined by means of the predetermined breaking points and the fragments are connected together in an annular connection section to form the annular element, characterised in that the freely projecting ends of the fragments are arranged at least partially in a common orthogonal plane to a longitudinal axis of the annular element, wherein this orthogonal plane is arranged differing from an orthogonal plane defined by the annular connection section and the annular elements are divided into two groups, (10, 10') wherein the fragments of the annular elements are bent in a direction with respect to the orthogonal plane defined by the annular connection section and the annular elements of the two groups (10, 10') are slid onto the cylindrical wall surface in different spatial alignments.
Stator for an electric machine, with a stator main body which has radial stator teeth for receiving coils of an electrical winding and has, on a first axial end side of the stator main body, an insulating lamination with receiving pockets for insulation-displacement elements, wherein the coils are wound by means of a winding wire which is inserted into the receiving pockets, wherein an interconnect plate has annular conductors which are arranged radially next to one another and which are insulated from one another and on which in each case a plurality of insulation-displacement elements are arranged which engage axially into the receiving pockets in order to make electrical contact with the winding wire, wherein the interconnect plate is manufactured from plastic and has annular grooves which are open axially in the direction of the insulating lamination and into which the annular conductors are fitted, characterized in that centring pins which extend in an axial direction are moulded onto the insulating lamination, said centring pins engaging axially into corresponding centring receptacles, formed in the axial direction, in the interconnect plate in order to position the interconnect plate, and thus also the insulation-displacement elements, exactly with respect to the receiving pockets.
Method for starting up a closed-loop fuel cell, wherein the method comprises the following steps: a) selecting a closed-loop fuel cell, wherein the closed-loop fuel cell is in the idle state, b) applying a voltage between the hydrogen side and the oxygen side, wherein the electrode of the oxygen side is positively polarized, c) measuring the flowing current between the electrode of the oxygen side and the electrode of the hydrogen side, d) stopping the application of a voltage between the hydrogen side and the oxygen side, f) supplying oxygen to the oxygen side. a) selecting a closed-loop fuel cell, wherein the closed-loop fuel cell is in the idle state, b) applying a voltage between the hydrogen side and the oxygen side, wherein the electrode of the oxygen side is positively polarized, c) measuring the flowing current between the electrode of the oxygen side and the electrode of the hydrogen side, d) stopping the application of a voltage between the hydrogen side and the oxygen side, f) supplying oxygen to the oxygen side.