mhurhangee/ep-ind-claims huggingface dataset:
A biodegradable lubricating oil composition comprising 50% by mass or more of a synthetic ester base oil, 0.1 to 3% by mass of an amine-based antioxidant, 0.1 to 3% by mass of a phenol-based antioxidant, and 0.01 to 2% by mass of a sulfur-phosphorus-based extreme-pressure agent, wherein: the transmittance at 3,005 ± 1 cm -1 of a 0.1 mm-thick liquid film of the composition, as measured through IR absorptiometry, is 50% or more, wherein the synthetic ester base oil comprises at least a polyol ester base oil (A1-1) being an ester of a polyol and an aliphatic monocarboxylic acid, and having a total carbon number of 23 to 50 in one molecule in an amount of more than 50% by mass relative to the total amount of the synthetic ester base oil, wherein the synthetic ester base oil further comprises at least one base oil selected from a polyol ester base oil (A1-2) being an ester of a polyol and an aliphatic monocarboxylic acid, and having a total carbon number of 51 to 80 in one molecule and a copolymer of an unsaturated dibasic acid ester and an α-olefin in an amount of 1% by mass to less than 50% by mass relative to the total amount of the synthetic ester base oil, wherein the sulfur-phosphorus-based extreme-pressure agent is a dithiophosphate having a terminal carboxyl group. the transmittance at 3,005 ± 1 cm -1 of a 0.1 mm-thick liquid film of the composition, as measured through IR absorptiometry, is 50% or more, wherein the synthetic ester base oil comprises at least a polyol ester base oil (A1-1) being an ester of a polyol and an aliphatic monocarboxylic acid, and having a total carbon number of 23 to 50 in one molecule in an amount of more than 50% by mass relative to the total amount of the synthetic ester base oil, wherein the synthetic ester base oil further comprises at least one base oil selected from a polyol ester base oil (A1-2) being an ester of a polyol and an aliphatic monocarboxylic acid, and having a total carbon number of 51 to 80 in one molecule and a copolymer of an unsaturated dibasic acid ester and an α-olefin in an amount of 1% by mass to less than 50% by mass relative to the total amount of the synthetic ester base oil, wherein the sulfur-phosphorus-based extreme-pressure agent is a dithiophosphate having a terminal carboxyl group.
A secondary battery comprising: a case having an opening; an electrode assembly in the case with an electrolyte; a cap assembly sealing the opening of the case; a terminal assembly electrically connected to the electrode assembly and protruding through the cap assembly; and an insulation bag between the electrode assembly and the case to receive the electrode assembly and to hermetically seal the electrolyte, characterized in that the cap assembly further comprises a coating layer on its bottom surface and the coating layer comprises an insulating material, and the coating layer is adhered to the insulation bag to achieve coupling the bottom surface of the cap assembly to the insulation bag. a case having an opening; an electrode assembly in the case with an electrolyte; a cap assembly sealing the opening of the case; a terminal assembly electrically connected to the electrode assembly and protruding through the cap assembly; and an insulation bag between the electrode assembly and the case to receive the electrode assembly and to hermetically seal the electrolyte, characterized in that the cap assembly further comprises a coating layer on its bottom surface and the coating layer comprises an insulating material, and the coating layer is adhered to the insulation bag to achieve coupling the bottom surface of the cap assembly to the insulation bag.
A method implemented by a network node neighboring a primary egress node in a Bit Index Explicit Replication, BIER, domain, comprising: receiving a type length value, TLV, structure that identifies a backup egress node for the primary egress node and includes an entry that indicates whether the primary egress node and the backup egress node transmit a packet to a same customer edge, CE, receiver or to different CE receivers; generating an egress protection bit index forwarding table, EP-BIFT, including the backup egress node and the entry that indicates whether the primary egress node and the backup egress node transmit the packet to the same CE receiver or to different CE receivers; and forwarding the packet in accordance with the EP-BIFT when the primary egress node has failed. receiving a type length value, TLV, structure that identifies a backup egress node for the primary egress node and includes an entry that indicates whether the primary egress node and the backup egress node transmit a packet to a same customer edge, CE, receiver or to different CE receivers; generating an egress protection bit index forwarding table, EP-BIFT, including the backup egress node and the entry that indicates whether the primary egress node and the backup egress node transmit the packet to the same CE receiver or to different CE receivers; and forwarding the packet in accordance with the EP-BIFT when the primary egress node has failed.
A vaccine composition comprising an injectable oil-in-water (O/W) emulsion, comprising: (i) an aqueous solution comprising at least one immunogen which is an inactivated Foot-and-Mouth disease virus, an inactivated porcine circovirus type 2 (PCV-2) virus, or an inactivated Mycoplasma hyopneumoniae bacterium; (ii) an aqueous solution comprising saponin in an amount of 0.35 mg/dose to 3.0 mg/dose; (iii) an aqueous solution comprising aluminum hydroxide wherein the concentration of the aluminum hydroxide is between 0.065% w/v to 1.0% w/v; (iv) a mineral oil; (v) a non-ionic lipophilic surfactant; (vi) a non-ionic hydrophilic surfactant having a high hydrophilic-lipophilic balance value between 13 and 40; and (vii) a non-ionic hydrophilic surfactant having a low hydrophilic-lipophilic balance value between 9 and 13. (i) an aqueous solution comprising at least one immunogen which is an inactivated Foot-and-Mouth disease virus, an inactivated porcine circovirus type 2 (PCV-2) virus, or an inactivated Mycoplasma hyopneumoniae bacterium; (ii) an aqueous solution comprising saponin in an amount of 0.35 mg/dose to 3.0 mg/dose; (iii) an aqueous solution comprising aluminum hydroxide wherein the concentration of the aluminum hydroxide is between 0.065% w/v to 1.0% w/v; (iv) a mineral oil; (v) a non-ionic lipophilic surfactant; (vi) a non-ionic hydrophilic surfactant having a high hydrophilic-lipophilic balance value between 13 and 40; and (vii) a non-ionic hydrophilic surfactant having a low hydrophilic-lipophilic balance value between 9 and 13.
A method for manufacturing a reinforcing fiber strand, wherein a strand including reinforcing fibers passes through an uneven jig and a widening jig in this order, the uneven jig including a plurality of uneven portions having notched and protrusion portions, and the pitch between the protrusion portions of the uneven portions being 0.1 mm to 10 mm, and the strand is divided by the protruding portions.
A method of bonding a first material to a second material, comprising the steps of: applying an adhesive foam precursor to a first material to give an adhesive-coated mating surface; and applying a second material to said adhesive-coated mating surface of said first material, wherein said adhesive foam precursor is a foam prepared from water and a prepolymer mixture selected from the group consisting of branched alkyl-isocyanate-capped poly(ether), unbranched alkyl-isocyanate-capped poly(ether), branched aromatic-isocyanate-capped poly(ether), unbranched aromatic-isocyanate-capped poly(ether), branched alkyl-isocyanate-capped poly(ether)-poly(ester) copolymer, unbranched alkyl-isocyanate-capped poly(ether)-poly(ester) copolymer, branched aromatic-isocyanate-capped poly(ether)-poly(ester) copolymer, and unbranched aromatic-isocyanate-capped poly(ether)-poly(ester) copolymer; and said second material is a foam prepared from water and a prepolymer mixture selected from the group consisting of branched alkyl-isocyanate-capped poly(ether), unbranched alkyl-isocyanate-capped poly(ether), branched aromatic-isocyanate-capped poly(ether), unbranched aromatic-isocyanate-capped poly(ether), branched alkyl-isocyanate-capped poly(ether)-poly(ester) copolymer, unbranched alkyl-isocyanate-capped poly(ether)-poly(ester) copolymer, branched aromatic-isocyanate-capped poly(ether)-poly(ester) copolymer, and unbranched aromatic-isocyanate-capped poly(ether)-poly(ester) copolymer. applying an adhesive foam precursor to a first material to give an adhesive-coated mating surface; and applying a second material to said adhesive-coated mating surface of said first material, said adhesive foam precursor is a foam prepared from water and a prepolymer mixture selected from the group consisting of branched alkyl-isocyanate-capped poly(ether), unbranched alkyl-isocyanate-capped poly(ether), branched aromatic-isocyanate-capped poly(ether), unbranched aromatic-isocyanate-capped poly(ether), branched alkyl-isocyanate-capped poly(ether)-poly(ester) copolymer, unbranched alkyl-isocyanate-capped poly(ether)-poly(ester) copolymer, branched aromatic-isocyanate-capped poly(ether)-poly(ester) copolymer, and unbranched aromatic-isocyanate-capped poly(ether)-poly(ester) copolymer; and said second material is a foam prepared from water and a prepolymer mixture selected from the group consisting of branched alkyl-isocyanate-capped poly(ether), unbranched alkyl-isocyanate-capped poly(ether), branched aromatic-isocyanate-capped poly(ether), unbranched aromatic-isocyanate-capped poly(ether), branched alkyl-isocyanate-capped poly(ether)-poly(ester) copolymer, unbranched alkyl-isocyanate-capped poly(ether)-poly(ester) copolymer, branched aromatic-isocyanate-capped poly(ether)-poly(ester) copolymer, and unbranched aromatic-isocyanate-capped poly(ether)-poly(ester) copolymer.
An apparatus comprising: a circuit board comprising a first surface and a second surface; a first integrated circuit coupled to the first surface of the circuit board; a first pad on the first surface of the circuit board adjacent the first integrated circuit; a second pad on the second surface of the circuit board; a conductive layer (506; 514), wherein the conductive layer is electrically coupled to the first pad, the conductive layer is electrically coupled to the second pad, and the conductive layer covers at least a portion of the first integrated circuit; characterized by: a fence electrically coupled to the first pad, wherein the conductive layer is electrically coupled to the first pad via the fence, wherein the fence has a vertical portion and a pedestal portion with a top surface, wherein the first integrated circuit has a top surface, wherein the conductive layer has a planar portion that is in direct contact with the top surface of the pedestal portion of the fence and the top surface of the first integrated circuit, and wherein the pedestal portion faces in a direction away from the first integrated circuit. a circuit board comprising a first surface and a second surface; a first integrated circuit coupled to the first surface of the circuit board; a first pad on the first surface of the circuit board adjacent the first integrated circuit; a second pad on the second surface of the circuit board; a conductive layer (506; 514), wherein the conductive layer is electrically coupled to the first pad, the conductive layer is electrically coupled to the second pad, and the conductive layer covers at least a portion of the first integrated circuit; characterized by: a fence electrically coupled to the first pad, wherein the conductive layer is electrically coupled to the first pad via the fence, wherein the fence has a vertical portion and a pedestal portion with a top surface, wherein the first integrated circuit has a top surface, wherein the conductive layer has a planar portion that is in direct contact with the top surface of the pedestal portion of the fence and the top surface of the first integrated circuit, and wherein the pedestal portion faces in a direction away from the first integrated circuit.
A bonding processor for backwards compatible bonding of plural physical interfaces (121, 122, 123, 124) carrying Ethernet frames or packets into a single logical interface carrying Ethernet frames or packets, allowing bonded transmission of a selected Ethernet data flow from a source network element to a destination network element in a network wherein said physical interfaces (121, 122, 123, 124) carrying Ethernet frames or packets are also used for non-bonded transmission, said bonding processor comprising: - means for inserting a sequence number (206; 307) in Ethernet frames or packets of said selected Ethernet data flow to thereby generate sequence-numbered Ethernet frames or packets (200; 300); - means (192, 193) for distributing said sequence-numbered Ethernet frames or packets (200; 300) across said plural physical interfaces (121, 122, 123, 124) carrying Ethernet frames or packets according to a load distribution criterion, CHARACTERIZED IN THAT said load distribution criterion considers the respective lengths of said sequence-numbered Ethernet frames or packets (200; 300); and said bonding processor further comprises: - means for reserving substantially simultaneous timeslots (431, 451, 471, 491) on said plural physical interfaces (121, 122, 123, 124) carrying Ethernet frames or packets for bonded transmission of said sequence-numbered Ethernet frames or packets (200; 300). - means for inserting a sequence number (206; 307) in Ethernet frames or packets of said selected Ethernet data flow to thereby generate sequence-numbered Ethernet frames or packets (200; 300); - means (192, 193) for distributing said sequence-numbered Ethernet frames or packets (200; 300) across said plural physical interfaces (121, 122, 123, 124) carrying Ethernet frames or packets according to a load distribution criterion, - means for reserving substantially simultaneous timeslots (431, 451, 471, 491) on said plural physical interfaces (121, 122, 123, 124) carrying Ethernet frames or packets for bonded transmission of said sequence-numbered Ethernet frames or packets (200; 300).
Gas hob with a hob plate made of metal, in particular steel, preferably stainless steel and with at least one burner, wherein the hob plate has at least one recess for accommodating a burner in each case and the hob plate is shaped such that at least the burner is surrounded by a concentrically arranged first deformation, wherein a second deformation, likewise arranged concentrically around the same burner, of the hob plate is provided, which - when viewed in the radial direction of the burner in the direction of a decreasing radius - is shaped such that first a lowering of the level of the hob plate is provided, which is followed by a raising of the level of the hob plate after passing through the bottom of a valley, or that first a raising of the level of the hob plate is provided, which is followed by a lowering after overcoming a peak, characterised in that the level of the hob plate lies at the same height outside of the outer deformation and inside the inner deformation and the diameter of each of the deformations is greater than the diameter of the burner surrounded by the deformations.
Vibration damper for a vehicle, comprising: - at least one cylinder tube which forms a fluid chamber and in which - a piston assembly (2, 3) is disposed so as to slide axially and divides the cylinder tube into two working chambers, an upper and a lower working chamber (7, 8); and wherein - the piston assembly (2, 3) comprises an axially displaceable primary piston which is axially established on a piston rod that is movable axially in relation to the cylinder tube, having a piston valve which influences the flow of fluid between the upper working chamber and the lower working chamber; and wherein - a further stroke-dependent piston which acts upon reaching a specific damper stroke is disposed on an axial extension (2.1) of the piston rod in the direction of a cylinder base of the cylinder tube; - and wherein the stroke-dependent piston has a smaller diameter than the primary piston and acts only when plunging into a smaller diameter of a cylinder-internal shell face, on account of which - a stroke-dependent valve of the stroke-dependent piston is formed, characterized in that the stroke-dependent piston, additionally to a stroke-dependent valve, comprises a frequency-dependent valve. - at least one cylinder tube which forms a fluid chamber and in which - a piston assembly (2, 3) is disposed so as to slide axially and divides the cylinder tube into two working chambers, an upper and a lower working chamber (7, 8); and wherein - the piston assembly (2, 3) comprises an axially displaceable primary piston which is axially established on a piston rod that is movable axially in relation to the cylinder tube, having a piston valve which influences the flow of fluid between the upper working chamber and the lower working chamber; and wherein - a further stroke-dependent piston which acts upon reaching a specific damper stroke is disposed on an axial extension (2.1) of the piston rod in the direction of a cylinder base of the cylinder tube; - and wherein the stroke-dependent piston has a smaller diameter than the primary piston and acts only when plunging into a smaller diameter of a cylinder-internal shell face, on account of which - a stroke-dependent valve of the stroke-dependent piston is formed,
A hearing instrument with a housing for accommodation of a microphone, a signal processor for generating an audio signal, and a receiver that is connected to an output of the signal processor for converting the audio signal into a sound signal, wherein the housing has a trunk part that is interconnected with a tip part accommodating the receiver, and wherein the housing further accommodates a printed circuit board that forms a wall within the housing extending transversely to the longitudinal extension of the trunk part, and wherein the signal processor is positioned on the printed circuit board, and wherein the microphone and the receiver are positioned on opposite sides of the printed circuit board, characterized in that the wall extends across the entire transversal cross-section of the hearing instrument housing and seals the inner volume on one side of the wall from the inner volume residing on the other side of the wall.
A forming method of a complex cross-section shape article wherein a tubing material is crushed by a complex cross-section shape forming die having at least one surface with a flat portion in a state in which no internal pressure is loaded or an internal pressure of 50 MPa or less is loaded in the tubing material by liquid, and is formed into a complex cross-section shape by continuously loading by the liquid, to the tubing material, an internal pressure; characterised in that: the tubing material has a tensile strength of 690 MPa or more, the maximum internal pressure by said continuous loading is higher than 50 MPa, and in that the tubing material is formed so that an increasing rate of girth after forming is higher than or equal to the following A% and lower than or equal to 11.0%: A = 4.167 × 10 − 3 × TS − 590 where increasing rate of girth = outer girth of article / outer girth of tubing material before forming − 1 × 100 %, A: lower limit of increasing rate of girth (%), TS: tensile strength of tubing material (MPa). the tubing material has a tensile strength of 690 MPa or more, the maximum internal pressure by said continuous loading is higher than 50 MPa, and in that the tubing material is formed so that an increasing rate of girth after forming is higher than or equal to the following A% and lower than or equal to 11.0%: A = 4.167 × 10 − 3 × TS − 590 where increasing rate of girth = outer girth of article / outer girth of tubing material before forming − 1 × 100 %, A: lower limit of increasing rate of girth (%), TS: tensile strength of tubing material (MPa). A: lower limit of increasing rate of girth (%), TS: tensile strength of tubing material (MPa).
Cutting machine for producing portions composed slices (101, 102) and in particular portions composed of several slices, in particular with precise weight, from strands of an elastic material, e.g. strands of meat, wherein the cutting machine - comprises at least one form tube open at the front and at the rear and extending in the longitudinal pressing direction, the axial direction, for one meat strand each, - there is a longitudinal press plunger for each of the form tubes, which can be pushed into the form tube from the rear loading end in the longitudinal pressing direction of the form tube, - a cutting unit with a blade for separating slices (101, 102) from the strand is arranged at the front cutting end of the form tubes, - the blade can be moved in a controlled manner in a transverse direction to the at least one form tube by means of the cutting unit, characterized in that - the blade can be moved by means of the cutting unit in the longitudinal pressing direction, the feed direction, relative to the at least one form tube under the control of a control system. - comprises at least one form tube open at the front and at the rear and extending in the longitudinal pressing direction, the axial direction, for one meat strand each, - there is a longitudinal press plunger for each of the form tubes, which can be pushed into the form tube from the rear loading end in the longitudinal pressing direction of the form tube, - a cutting unit with a blade for separating slices (101, 102) from the strand is arranged at the front cutting end of the form tubes, - the blade can be moved in a controlled manner in a transverse direction to the at least one form tube by means of the cutting unit, - the blade can be moved by means of the cutting unit in the longitudinal pressing direction, the feed direction, relative to the at least one form tube under the control of a control system.
Use of a microfluidic switch to temporarily stop a flow of liquid wherein - the switch has at least one first channel and at least one second channel; - the first channel and the second channel have a common entry section; - the first channel and the second channel have a common end section; - the switch has means for stopping a flow of liquid flowing in the first channel as a single stopping means; - the first channel has the stopping means at the transition to the common end section; - the stopping means can be controlled by means of a flow of liquid flowing in the second channel to continue the flow of liquid in the first channel, such that the flow of liquid in the first channel can migrate to the common end section, characterised by - transportation of a first liquid in the first channel to the single stopping means of the switch which is arranged at the end of the first channel, - time-delayed transportation of a second liquid in the second channel to the common end section of the first channel and the second channel, - triggering of the stopping means by the second liquid for onward transportation of the first liquid beyond the stopping means. - the switch has at least one first channel and at least one second channel; - the first channel and the second channel have a common entry section; - the first channel and the second channel have a common end section; - the switch has means for stopping a flow of liquid flowing in the first channel as a single stopping means; - the first channel has the stopping means at the transition to the common end section; - the stopping means can be controlled by means of a flow of liquid flowing in the second channel to continue the flow of liquid in the first channel, such that the flow of liquid in the first channel can migrate to the common end section, - transportation of a first liquid in the first channel to the single stopping means of the switch which is arranged at the end of the first channel, - time-delayed transportation of a second liquid in the second channel to the common end section of the first channel and the second channel, - triggering of the stopping means by the second liquid for onward transportation of the first liquid beyond the stopping means.