mhurhangee/ep-ind-claims huggingface dataset:
A trifilar transformer comprising: a first winding; a second winding; and a third winding, wherein the third winding is mutually coupled to each of the first and second windings (1001, 1002), and wherein said first and second windings (1001, 1002) are substantially not coupled to each other; wherein the first winding has a loop shape and the second winding has a figure-of-eight shape; and characterized in that the third winding is formed from a first winding part in series with a second winding part, the first winding part having a shape corresponding to the first winding and the second winding part having a shape corresponding to the second winding. a first winding; a second winding; and a third winding, wherein the third winding is mutually coupled to each of the first and second windings (1001, 1002), and wherein said first and second windings (1001, 1002) are substantially not coupled to each other; wherein the first winding has a loop shape and the second winding has a figure-of-eight shape; and characterized in that the third winding is formed from a first winding part in series with a second winding part, the first winding part having a shape corresponding to the first winding and the second winding part having a shape corresponding to the second winding.
A control method for a series hybrid car, wherein: - the series hybrid car comprises an internal combustion engine, a first electric motor that is connected to the internal combustion engine, a battery, a drive motor, wheels which are connected in series, as well as an electric device that comprises a vehicle controller which is configured to control the series hybrid car in its entirety, - the vehicle controller performs torque limitation during a period in which the internal combustion engine is shifted from a non-combustion mode to a combustion mode, and a rotational speed (Nr) of the internal combustion engine is decreased by the first electric motor to a rotational speed (Ntg) within a predetermined rotational-speed range in the combustion mode, and - the torque limitation is performed to set a torque (Tc) generated by the internal combustion engine so as to become lower than a required torque (Ttg) within the predetermined rotational-speed range for the internal combustion engine in the combustion mode. - the series hybrid car comprises an internal combustion engine, a first electric motor that is connected to the internal combustion engine, a battery, a drive motor, wheels which are connected in series, as well as an electric device that comprises a vehicle controller which is configured to control the series hybrid car in its entirety, - the vehicle controller performs torque limitation during a period in which the internal combustion engine is shifted from a non-combustion mode to a combustion mode, and a rotational speed (Nr) of the internal combustion engine is decreased by the first electric motor to a rotational speed (Ntg) within a predetermined rotational-speed range in the combustion mode, and - the torque limitation is performed to set a torque (Tc) generated by the internal combustion engine so as to become lower than a required torque (Ttg) within the predetermined rotational-speed range for the internal combustion engine in the combustion mode.
A cushion, comprising: a cushioning element comprising an elastomeric material forming a plurality of intersecting buckling walls defining a plurality of hollow columns in an expanded form, wherein the elastomeric material comprises an elastomeric polymer and a plasticizer consisting of mineral oil; and a coating composition comprising a coating material over at least one surface of the intersecting buckling walls; the coating material comprising stearic acid, a metal stearate, propylene glycol, and triethanolamine. a cushioning element comprising an elastomeric material forming a plurality of intersecting buckling walls defining a plurality of hollow columns in an expanded form, wherein the elastomeric material comprises an elastomeric polymer and a plasticizer consisting of mineral oil; and a coating composition comprising a coating material over at least one surface of the intersecting buckling walls; the coating material comprising stearic acid, a metal stearate, propylene glycol, and triethanolamine.
A method of making a functional polymer that comprises at least one functionalizing unit and one or more types of polyene mer, said functionalizing unit comprising an aryl group having at least two directly bonded OR groups wherein R is a hydrolyzable tert-butyldimethylsiloxyl protecting group, said method comprising: a) providing a solution comprising an initiating compound and one or more types of ethylenically unsaturated monomers which include at least one type of polyene; b) allowing said initiating compound to anionically initiate polymerization of said one or more types of monomers so as to provide a carbanionic polymer; and c) reacting said carbanionic polymer with a terminating compound that comprises a functionality capable of reacting with carbanionic polymers and an aryl group having at least two directly bonded OR groups, said at least one functionalizing unit being derived from said terminating compound. a) providing a solution comprising an initiating compound and one or more types of ethylenically unsaturated monomers which include at least one type of polyene; b) allowing said initiating compound to anionically initiate polymerization of said one or more types of monomers so as to provide a carbanionic polymer; and c) reacting said carbanionic polymer with a terminating compound that comprises a functionality capable of reacting with carbanionic polymers and an aryl group having at least two directly bonded OR groups,
Wheel suspension for a motor vehicle, having a wheel carrier which is mounted in a pivotably movable manner with respect to a wheel-guiding link by virtue of the wheel carrier being directly connected to the wheel-guiding link in a first connecting region and being indirectly connected in a second connecting region via an integral link (5, 15, 16), wherein the wheel-guiding link comprises a longitudinal link region with a front body-side bearing and a transverse link region with a rear body-side bearing, wherein the rear body-side bearing is oriented axially parallel to an axis of rotation of the wheel-guiding link that extends through the body-side bearings (11, 12), characterized in that, in a side view of the wheel suspension, the axes (21, 22) of the joints (15, 16) of the integral link are oriented in such a way that they intersect at a point situated in front of the wheel centre with respect to the vehicle longitudinal direction (x).
An austenitic stainless steel alloy, comprising, by weight: 24% to 26% chromium; 11% to 13% nickel; 4.5% to 5.5% manganese; 1.3% to 1.7% silicon; 1.2% to 1.6% niobium; 0.40% to 0.50% carbon; 0.2% to 0.4% nitrogen; from 0% to 0.02% sulphur; from 0% to 0.02% phosphorus; from 0% to 0.01% boron; from 0% to 0.01% cerium; from 0% to 0.01% calcium; and a balance of iron with inevitable / unavoidable impurities. 24% to 26% chromium; 11% to 13% nickel; 4.5% to 5.5% manganese; 1.3% to 1.7% silicon; 1.2% to 1.6% niobium; 0.40% to 0.50% carbon; 0.2% to 0.4% nitrogen; from 0% to 0.02% sulphur; from 0% to 0.02% phosphorus; from 0% to 0.01% boron; from 0% to 0.01% cerium; from 0% to 0.01% calcium; and a balance of iron with inevitable / unavoidable impurities.
An optical communication cable comprising: a cable jacket; a plurality of optical fiber subunits surrounded by the cable jacket, each optical fiber subunit comprising: a subunit jacket defining a subunit passage; and a plurality of tight buffered optical fibers located within the subunit passage, each optical fiber comprising: a glass core; and a polymer tight buffer coating surrounding the glass core, the polymer tight buffer coating having an outer diameter greater than 400 μm; characterized in that the optical communication cable is a fire retardant and low smoke optical communication cable, wherein the cable jacket is formed from a halogen containing polymer material including a fire retardant material; the polymer tight buffer coating of each optical fiber is formed from a halogen containing polymer material including a fire retardant material; each subunit jacket is formed from a non-halogen containing polymer material including a metal oxide fire retardant material; and wherein the optical communication cable is plenum burn test rated as described in FPA 262 utilizing the Steiner Tunnel burn test. a cable jacket; a plurality of optical fiber subunits surrounded by the cable jacket, each optical fiber subunit comprising: a subunit jacket defining a subunit passage; and a plurality of tight buffered optical fibers located within the subunit passage, each optical fiber comprising: a glass core; and a polymer tight buffer coating surrounding the glass core, the polymer tight buffer coating having an outer diameter greater than 400 μm; a subunit jacket defining a subunit passage; and a plurality of tight buffered optical fibers located within the subunit passage, each optical fiber comprising: a glass core; and a polymer tight buffer coating surrounding the glass core, the polymer tight buffer coating having an outer diameter greater than 400 μm; a glass core; and a polymer tight buffer coating surrounding the glass core, the polymer tight buffer coating having an outer diameter greater than 400 μm; characterized in that the optical communication cable is a fire retardant and low smoke optical communication cable, wherein the cable jacket is formed from a halogen containing polymer material including a fire retardant material; the polymer tight buffer coating of each optical fiber is formed from a halogen containing polymer material including a fire retardant material; each subunit jacket is formed from a non-halogen containing polymer material including a metal oxide fire retardant material; and wherein the optical communication cable is plenum burn test rated as described in FPA 262 utilizing the Steiner Tunnel burn test.
System structure for image acquisition, stabilisation and correction, comprising an optical observation device to be arranged in the region of a cylindrical housing concept, the system structure having an observation technique (3; 3') with an image-receiving unit (15; 15') comprising an imaging surface (107; 107'), the image-receiving unit (15; 15') being displaceable along an optical axis (OA; OA') and being mounted free of play under the action of a mechanical preload (FV; FV; FVC) induced by at least one spring element (29; 49; 80b), and the observation technique (3; 3') co-operates with at least one functional unit (ABF; ABF'; ABF3; TCS) for adjusting the flange focal distance (AM; AM') in such a way that by means of an axial displacement (ZA; ZA'; TT) of the image-receiving unit (15; 15') along the optical axis (OA; OA') a stepless adjustability of the flange focal distance (AM; AM') can be achieved, characterised in that the system structure comprises at least one adaptable cylindrical interface element for mounting an imaging device, which at least partially surrounds the cylindrical observation technique (3; 3') and in which the observation technique (3; 3') is mounted in a guided manner, wherein the interface element has an inner geometry which is designed to correspond to the outer guide and mounting surfaces (116 to 118) of the observation technique (3, 3'), and wherein both the guide and mounting surfaces of the observation technique (3, 3') and the outer shape of the interface element are coaxially aligned and centred in the same direction in order to mechanically guide the observation technique (3, 3') with the outer guide surface through the largely conformally surrounding inner geometry of the interface element and to adjustably displace it on the optical axis (OA, OA'), and in that the observation technique comprises a mechanical base and an observation unit receiving the image-receiving unit, wherein the observation unit is mounted displaceably relative to the mechanical base along the optical axis and free of play under the action of the mechanical preload induced by the spring element, and the freedom of movement of the observation unit is limited to a translation parallel to the optical axis by a spatially parallel offset of a movement axis of an actuator of the functional unit for setting the back focal distance relative to the optical axis.
A gyratory crusher comprising: a mainframe defining an internal crushing chamber; a main shaft extending within the chamber and providing a mount for a mantle capable of gyroscopic precession within the crusher; a hub having an internal volume in which a lower region of the main shaft is housed; an eccentric assembly at least partially mounted within the hub, the assembly comprising: a support ring positioned at an upper region of the hub and extending circumferentially around the main shaft; a sleeve projecting downwardly from the support ring and positioned radially between the main shaft and the hub; a removable bushing positioned radially between the sleeve and the main shaft; wherein the support ring extends radially outward over an uppermost end surface of sleeve and comprises an inner bore having a diameter being at least the same or greater than an external diameter of the bushing; the crusher characterised in that: the crusher further comprising at least one locking flange releasably attached to an upward facing surface of the support ring and extending radially inward from the inner bore to contact an upper face of the bushing to prevent upward axial movement of the bushing relative to the hub, the flange being non-annular to extend over only a part of an inner circumferential region of the support ring. a mainframe defining an internal crushing chamber; a main shaft extending within the chamber and providing a mount for a mantle capable of gyroscopic precession within the crusher; a hub having an internal volume in which a lower region of the main shaft is housed; an eccentric assembly at least partially mounted within the hub, the assembly comprising: a support ring positioned at an upper region of the hub and extending circumferentially around the main shaft; a sleeve projecting downwardly from the support ring and positioned radially between the main shaft and the hub; a removable bushing positioned radially between the sleeve and the main shaft; wherein a support ring positioned at an upper region of the hub and extending circumferentially around the main shaft; a sleeve projecting downwardly from the support ring and positioned radially between the main shaft and the hub; a removable bushing positioned radially between the sleeve and the main shaft; wherein the support ring extends radially outward over an uppermost end surface of sleeve and comprises an inner bore having a diameter being at least the same or greater than an external diameter of the bushing; the crusher characterised in that: the crusher further comprising at least one locking flange releasably attached to an upward facing surface of the support ring and extending radially inward from the inner bore to contact an upper face of the bushing to prevent upward axial movement of the bushing relative to the hub, the flange being non-annular to extend over only a part of an inner circumferential region of the support ring.
A headphone system including a headphone device and a terminal device, the terminal device comprising: a first microphone adapted to pick up at least a sound from outside; a first communicating unit adapted to communicate with the headphone device; and a controller/arithmetic unit adapted to perform noise analysis for an audio signal picked up by the first microphone, generate indication information to indicate a processing parameter related to a noise canceling process in the headphone device from a noise analysis result, and perform a process to transmit the indication information from the first communicating unit to the headphone device, and the headphone device comprising: a driver unit (20, 21) adapted to output a sound; a second microphone adapted to pick up at least a sound from outside; a noise canceling processor adapted to perform a filtering process for an audio signal picked up by the second microphone to generate a noise canceling signal, synthesizes the noise canceling signal with an input audio signal to obtain an output audio signal, and supply the output audio signal to the driver unit (20, 21); a second communicating unit adapted to communicate with the terminal device; and a controller adapted to perform a setting process of the processing parameter for the filtering process of the noise canceling processor based on the indication information transmitted from the terminal device and received by the second communicating unit. a first microphone adapted to pick up at least a sound from outside; a first communicating unit adapted to communicate with the headphone device; and a controller/arithmetic unit adapted to perform noise analysis for an audio signal picked up by the first microphone, generate indication information to indicate a processing parameter related to a noise canceling process in the headphone device from a noise analysis result, and perform a process to transmit the indication information from the first communicating unit to the headphone device, and a driver unit (20, 21) adapted to output a sound; a second microphone adapted to pick up at least a sound from outside; a noise canceling processor adapted to perform a filtering process for an audio signal picked up by the second microphone to generate a noise canceling signal, synthesizes the noise canceling signal with an input audio signal to obtain an output audio signal, and supply the output audio signal to the driver unit (20, 21); a second communicating unit adapted to communicate with the terminal device; and a controller adapted to perform a setting process of the processing parameter for the filtering process of the noise canceling processor based on the indication information transmitted from the terminal device and received by the second communicating unit.
Method for the operation of a fuel gas-operated burner having a fuel gas-air network and a carbon monoxide sensor in the exhaust gas line of the burner, wherein the burner is operated in a range between a minimum load P min and a maximum load P max, characterised in that the carbon monoxide emissions of the exhaust gas of the burner are measured by means of the carbon monoxide sensor and, in the event of the emissions simultaneously exceeding a first determined threshold value CO Grenz1 under a load which is less than half of the arithmetical mean between minimum load P min and a maximum load P max, the load is increased until the carbon monoxide emissions of the exhaust gas of the burner fall below a second determined threshold value CO Grenz2 or until the maximum load P max is reached.
A chamber comprising a tensile member formed from a spacer textile material, the tensile member comprising a first layer, a second layer, and a plurality of connecting members extending between the layers (61, 62) and forming substantially parallel rows separated by spaces, where the connecting members are absent and wherein each row is formed by a plurality of the connecting members formed from multiple sections of yarn; characterized in that the plurality of connecting members also form stabilization structures, each having a greater width and concentration of connecting members in comparison with the rows to hold first and second layers (61, 62) in proper alignment with each other and to resist forces that would otherwise shift first and second layers (61, 62).
A ligand-bound gold cluster for use in the treatment of liver cirrhosis, wherein the ligand-bound gold cluster comprises: a gold core; and a ligand bound to the gold core; characterized in that, the gold core has a diameter in the range of 0.5-3 nm; the ligand is one selected from the group consisting of L-cysteine and its derivatives, D-cysteine and its derivatives, and cysteine-containing oligopeptides and their derivatives; the L-cysteine and its derivatives are selected from the group consisting of L-cysteine, N-isobutyryl-L-cysteine (L-NIBC), and N-acetyl-L-cysteine (L-NAC); the D-cysteine and its derivatives are selected from the group consisting of D- cysteine, N-isobutyryl-D-cysteine (D-NIBC), and N-acetyl-D-cysteine (D-NAC); and the cysteine-containing oligopeptides and their derivatives are cysteine-containing dipeptides, cysteine-containing tripeptides or cysteine-containing tetrapeptides. a gold core; and a ligand bound to the gold core; characterized in that, the gold core has a diameter in the range of 0.5-3 nm; the ligand is one selected from the group consisting of L-cysteine and its derivatives, D-cysteine and its derivatives, and cysteine-containing oligopeptides and their derivatives; the L-cysteine and its derivatives are selected from the group consisting of L-cysteine, N-isobutyryl-L-cysteine (L-NIBC), and N-acetyl-L-cysteine (L-NAC); the D-cysteine and its derivatives are selected from the group consisting of D- cysteine, N-isobutyryl-D-cysteine (D-NIBC), and N-acetyl-D-cysteine (D-NAC); and the cysteine-containing oligopeptides and their derivatives are cysteine-containing dipeptides, cysteine-containing tripeptides or cysteine-containing tetrapeptides.
A method for preparing high protein flakes comprising: forming a plurality of first pellets having a protein content of at least 30%; introducing the first pellets and a food component into a cooker; cooking the first pellets and the food component to give a cooked food product; forming the cooked food product into a plurality of second pellets; and forming the plurality of second pellets into a plurality of high protein flakes having a protein content of 1% to 50% by weight of the high protein flakes, wherein the method for forming the first pellets comprises: providing a protein; introducing the protein to an extruder to form a protein extrudate; forcing the protein extrudate to exit the extruder; transferring the protein extrudate to a cold form extruder; forcing the protein extrudate to exit the cold form extruder; and cutting the protein extrudate to form the first pellets. forming a plurality of first pellets having a protein content of at least 30%; introducing the first pellets and a food component into a cooker; cooking the first pellets and the food component to give a cooked food product; forming the cooked food product into a plurality of second pellets; and forming the plurality of second pellets into a plurality of high protein flakes having a protein content of 1% to 50% by weight of the high protein flakes, wherein the method for forming the first pellets comprises: providing a protein; introducing the protein to an extruder to form a protein extrudate; forcing the protein extrudate to exit the extruder; transferring the protein extrudate to a cold form extruder; forcing the protein extrudate to exit the cold form extruder; and cutting the protein extrudate to form the first pellets. providing a protein; introducing the protein to an extruder to form a protein extrudate; forcing the protein extrudate to exit the extruder; transferring the protein extrudate to a cold form extruder; forcing the protein extrudate to exit the cold form extruder; and cutting the protein extrudate to form the first pellets.