mhurhangee/ep-ind-claims huggingface dataset:
A endless running means (1, 25, 27) having an inner side and an outer side, which can be looped around two deflection rollers (13, 15, 21, 22, 24) rotatably mounted about respective axes of rotation (14, 16) spaced apart from one another and aligned substantially parallel to one another, wherein respective curved partial sections of the endless running means (1, 25, 27) abut with the inner side against circumferential surfaces of the deflection rollers (13, 15, 21, 22, 24) and the endless running means (1, 25, 27) circulates around the deflection rollers (13, 15, 21, 22, 24) when the deflection rollers (13, 15, 21, 22, 24) rotate in the same direction of rotation, and which furthermore has at least two load brackets (4, 6, 28, 32, 37, 40), of which each in each case has a shorter first leg (8, 10) with a first end articulated on the outer side at a respective fastening position (5, 7) and a respective second end opposite the first end and a respective longer second leg (9, 11) extending from the second end and enclosing a respective angle with the first leg (8, 10) and which are set up, upon the action of external forces, to assume alternately a folded-in state, in which an end section (17, 18) of the second leg (9, 11) facing away from the first leg (8, 10) faces the outer side, and a folded-out state, in which the end section (17, 18) is facing away from the outer side, wherein the second legs (9, 11) of both load brackets (4, 6, 28, 32, 37,40) extend with respect to a predetermined direction of circulation along the endless running means (1, 25, 27) in the same direction from the first leg (8, 10) and the endless running means (1, 25, 27) between the fastening positions (5, 7) of the load brackets (4, 6, 28, 32, 37, 40) are substantially the same length both in the direction of circulation as well as against the direction of circulation. which furthermore has at least two load brackets (4, 6, 28, 32, 37, 40), of which each in each case has a shorter first leg (8, 10) with a first end articulated on the outer side at a respective fastening position (5, 7) and a respective second end opposite the first end and a respective longer second leg (9, 11) extending from the second end and enclosing a respective angle with the first leg (8, 10) and which are set up, upon the action of external forces, to assume alternately a folded-in state, in which an end section (17, 18) of the second leg (9, 11) facing away from the first leg (8, 10) faces the outer side, and a folded-out state, in which the end section (17, 18) is facing away from the outer side, wherein the second legs (9, 11) of both load brackets (4, 6, 28, 32, 37,40) extend with respect to a predetermined direction of circulation along the endless running means (1, 25, 27) in the same direction from the first leg (8, 10) and the endless running means (1, 25, 27) between the fastening positions (5, 7) of the load brackets (4, 6, 28, 32, 37, 40) are substantially the same length both in the direction of circulation as well as against the direction of circulation.
A hot melt non-cross linking non butyl rubber polymers containing sealant composition for use as an edge sealant in an insulated glass window unit, comprising: a. 2% to 50% by weight of a polyolefin polymer which is made by metallocene catalyzed polymerization; b. 5% to 50% by weight of an amorphous poly-alpha-olefin polymer; c. 2% to 25% by weight of an A-B-A type styrenic block copolymer; d. 2% to 25% by weight of an non-metallocene catalyzed ethylene-based copolymer; e. 10% to 50% by weight of a tackifier; f. 5% to 25% by weight of a plasticizer; g. 0.1% to 3% by weight of an antioxidant stabilizer a. 2% to 50% by weight of a polyolefin polymer which is made by metallocene catalyzed polymerization; b. 5% to 50% by weight of an amorphous poly-alpha-olefin polymer; c. 2% to 25% by weight of an A-B-A type styrenic block copolymer; d. 2% to 25% by weight of an non-metallocene catalyzed ethylene-based copolymer; e. 10% to 50% by weight of a tackifier; f. 5% to 25% by weight of a plasticizer; g. 0.1% to 3% by weight of an antioxidant stabilizer
An electronic communication method comprising the steps of: providing a communication device; using the communication device, determining when a communication is initiated; upon detecting initiation of the communication, automatically launching a speech-to-tone application on the communication device; repeatedly running machine detection to determine whether a machine that is waiting for a DTMF response is connected to the communication; when it is determined that a machine that is waiting for a DTMF response is connected to the communication: using the speech-to-tone application, during the communication, determining when pre-defined words are spoken; retrieving information corresponding to the pre-defined words from a database, the information corresponding to the pre-defined words comprising a string of numbers and/or symbols; causing the string of numbers and/or symbols to be converted to DTMF tones; and using the communication device, transmitting the DTMF tones to the machine; and when it is determined, for a predetermined period of time, that no machine that is waiting for a DTMF response is connected to the communication, terminating the speech-to-tone application. providing a communication device; using the communication device, determining when a communication is initiated; upon detecting initiation of the communication, automatically launching a speech-to-tone application on the communication device; repeatedly running machine detection to determine whether a machine that is waiting for a DTMF response is connected to the communication; when it is determined that a machine that is waiting for a DTMF response is connected to the communication: using the speech-to-tone application, during the communication, determining when pre-defined words are spoken; retrieving information corresponding to the pre-defined words from a database, the information corresponding to the pre-defined words comprising a string of numbers and/or symbols; causing the string of numbers and/or symbols to be converted to DTMF tones; and using the speech-to-tone application, during the communication, determining when pre-defined words are spoken; retrieving information corresponding to the pre-defined words from a database, the information corresponding to the pre-defined words comprising a string of numbers and/or symbols; causing the string of numbers and/or symbols to be converted to DTMF tones; and using the communication device, transmitting the DTMF tones to the machine; and when it is determined, for a predetermined period of time, that no machine that is waiting for a DTMF response is connected to the communication, terminating the speech-to-tone application.
A gear pump, comprising: a pair of gears (4, 5) that meshes with each other; two shafts (2, 3) that are rotationally supported, inserted into the pair of respective gears(4, 5), and rotate together with the pair of gears (4, 5); a pair of side plates (7, 7') that is arranged adjacent to both side surfaces of the pair of gears (4, 5), and each have two through-holes forming bearings of the two shafts (2, 3); a seal block that abuts against the pair of side plates (7, 7'), and covers a part of the pair of gears (4, 5) in a circumferential direction; a pump assembly having the pair of gears (4, 5), the two shafts (2, 3), the pair of side plates (7, 7'), and the seal block; and a case having a recess in which the pump assembly is accommodated, and having a facing surface that faces the seal block on an inner wall forming the recess, wherein the pump assembly has a rotating axis, which is a line passing through an arc center of a cylindrical surface which is inscribed in the facing surface of the case, and which is parallel to two the shafts (2, 3), and is hold to be rotatable about the rotating axis, and when the pump assembly rotates about the rotating axis, one of the side plates (7, 7') comes in contact with the inner wall of the case, characterized in that the pump assembly is held to be rotatable about the rotating axis in a state where the seal block comes in contact with the facing surface of the case in at least two places. a pair of gears (4, 5) that meshes with each other; two shafts (2, 3) that are rotationally supported, inserted into the pair of respective gears(4, 5), and rotate together with the pair of gears (4, 5); a pair of side plates (7, 7') that is arranged adjacent to both side surfaces of the pair of gears (4, 5), and each have two through-holes forming bearings of the two shafts (2, 3); a seal block that abuts against the pair of side plates (7, 7'), and covers a part of the pair of gears (4, 5) in a circumferential direction; a pump assembly having the pair of gears (4, 5), the two shafts (2, 3), the pair of side plates (7, 7'), and the seal block; and a case having a recess in which the pump assembly is accommodated, and having a facing surface that faces the seal block on an inner wall forming the recess, wherein the pump assembly has a rotating axis, which is a line passing through an arc center of a cylindrical surface which is inscribed in the facing surface of the case, and which is parallel to two the shafts (2, 3), and is hold to be rotatable about the rotating axis, and when the pump assembly rotates about the rotating axis, one of the side plates (7, 7') comes in contact with the inner wall of the case,
A gas turbine system comprising a compressor for compressing an air, a compressor inlet guide vane for adjusting a flow rate of the air taken into the compressor, a humidification tower for humidifying the air compressed by the compressor, a combustor for combusting a fuel with the air humidified by the humidification tower to generate a combustion gas, a turbine to be driven by the combustion gas, a recuperator for performing a heat exchange between an exhaust gas discharged from the turbine and the humidified air to be supplied from the humidification tower into the combustor, and a controller for controlling an opening degree of the compressor inlet guide vane in accordance with a load of the system to keep a temperature of the exhaust gas high during a partial load operation of the system, characterized in that the system further comprises an intake bypass system for introducing, when a load of the turbine increases, a part of the air compressed by the compressor directly to the combustor while preventing the part of the air compressed by the compressor from passing through the humidification tower and the recuperator, to enable the part of the air to be joint with another part of the air compressed by the compressor, passing through the humidification tower and the recuperator, before flowing into the combustor.
Apparatus for forming plastic preforms into plastic containers, having a transport device which transports the plastic preforms along a predetermined transport path, wherein the transport device having a movable station carrier which is arranged at least indirectly on a stationary base carrier and on which a plurality of forming stations are arranged, wherein these forming stations each having blow-molding devices which each form cavities, within which the plastic preforms can be formed into the plastic containers and these blow-molding devices are each arranged on blow-molding carriers, wherein the apparatus having a changing device which is suitable and intended for removing at least the blow molding devices from their blow molding carriers and/or arranging blow molding devices on the blow molding carriers, wherein this changing device having a gripping device for gripping the blow molding device, wherein this gripping device being movable in at least two different directions and pivotable about at least three different pivot axes (A1, A2....A6), characterized in that the blow molding devices and/or the blow mold carrier and/or a magazine device each contain a marking to ensure an assignment between the blow molding devices and the respective blow station, wherein these markings can be barcodes, QR codes or RFID tags, for example, wherein the apparatus is set up so that the respective markings can be read in again after changing a magazine device or if the machine breaks down. the blow molding devices and/or the blow mold carrier and/or a magazine device each contain a marking to ensure an assignment between the blow molding devices and the respective blow station, wherein these markings can be barcodes, QR codes or RFID tags, for example, wherein the apparatus is set up so that the respective markings can be read in again after changing a magazine device or if the machine breaks down.
A compressible fluid device, such as a gas spring, comprising: a casing defining a compression chamber, a piston movable in the chamber, and a safety member (2, 2', 2", 2''', 2 IV, 2 V, 2 VI) placed in such a manner as to be struck by the piston in the event of the piston overstriking, whereby at least some of the compressible fluid is evacuated from the compression chamber, characterized in that a pre-strike member (25, 25'), arranged to be struck before the safety member (2, 2', 2", 2''', 2 IV, 2 V, 2 VI) is struck by the piston, such that the safety member (2, 2', 2", 2''', 2 IV, 2 V, 2 VI) is only struck once a predetermined compressive overstroke force has been achieved, the safety member (2, 2', 2", 2''', 2 IV, 2 V, 2 VI) comprises a body, which is received in a safety channel (113, 113') that is provided in a chamber wall (111, 112). a casing defining a compression chamber, a piston movable in the chamber, and a safety member (2, 2', 2", 2''', 2 IV, 2 V, 2 VI) placed in such a manner as to be struck by the piston in the event of the piston overstriking, whereby at least some of the compressible fluid is evacuated from the compression chamber, characterized in that a pre-strike member (25, 25'), arranged to be struck before the safety member (2, 2', 2", 2''', 2 IV, 2 V, 2 VI) is struck by the piston, such that the safety member (2, 2', 2", 2''', 2 IV, 2 V, 2 VI) is only struck once a predetermined compressive overstroke force has been achieved, the safety member (2, 2', 2", 2''', 2 IV, 2 V, 2 VI) comprises a body, which is received in a safety channel (113, 113') that is provided in a chamber wall (111, 112).
Magnet system for performing 2-field NMR experiments, comprising - a superconducting main field magnet suitable for generating a first magnetic field in a first sample volume, - a superconducting additional field magnet suitable for generating a second magnetic field in a second sample volume, the first magnetic field being stronger than the second magnetic field, and - a cryostat having a cooled main coil container which contains the main field magnet, having an evacuated room temperature (= RT) covering which contains the main coil container, and having a room temperature (= RT) bore which extends through the main field magnet and through the additional field magnet and contains the first sample volume and the second sample volume, characterized in that the magnet system comprises a cooled additional coil container which is surrounded by a vacuum, contains the additional field magnet and is spaced apart from the main coil container, in that the RT covering has a flange connection, the RT bore extending through a flange opening of the flange connection, in that a front end of the additional coil container protrudes through the flange opening into the RT covering such that the additional field magnet also at least partly protrudes through the flange opening into the RT covering, and in that there is a closure structure which is installed on the flange connection of the RT covering and seals the RT covering between the flange connection and the RT bore. - a superconducting main field magnet suitable for generating a first magnetic field in a first sample volume, - a superconducting additional field magnet suitable for generating a second magnetic field in a second sample volume, the first magnetic field being stronger than the second magnetic field, and - a cryostat having a cooled main coil container which contains the main field magnet, having an evacuated room temperature (= RT) covering which contains the main coil container, and having a room temperature (= RT) bore which extends through the main field magnet and through the additional field magnet and contains the first sample volume and the second sample volume, in that the magnet system comprises a cooled additional coil container which is surrounded by a vacuum, contains the additional field magnet and is spaced apart from the main coil container, in that the RT covering has a flange connection, the RT bore extending through a flange opening of the flange connection, in that a front end of the additional coil container protrudes through the flange opening into the RT covering such that the additional field magnet also at least partly protrudes through the flange opening into the RT covering, and in that there is a closure structure which is installed on the flange connection of the RT covering and seals the RT covering between the flange connection and the RT bore.
Covering device forming a protective surface with a variable length and/or width, with the covering device comprising cover elements (E1, E2, E3, E4, E5, E6,...) forming the protective surface and arranged in such a way as to change the width and/or the length of the protective surface by one sliding relative to another, the covering device comprising: - A support frame with predefined length and width, - At least two intermediate frames (I1, I2,...) with predefined length (LI1, LI2) and width (WI1, WI2) and supported by the support frame, - Each intermediate frame (I1, I2,...) supporting at least two of said cover elements (E1, E2, E3, E4, E5, E6...) that are mounted in such a way as to be able to slide under one another equally in one or the other of two opposing sliding directions ((C1, C2)(C3, C4)) taken in the length (LI1, LI2) or in the width (WI1, WI2) of this intermediate frame, with the covering device being characterized in that the intermediate frames (I1, I2,...) are mounted on the support frame in such a way as to be able to slide under one another equally in one or the other of two opposing sliding directions ((C1, C2)(C3, C4)) taken in the length or in the width of the support frame. - A support frame with predefined length and width, - At least two intermediate frames (I1, I2,...) with predefined length (LI1, LI2) and width (WI1, WI2) and supported by the support frame, - Each intermediate frame (I1, I2,...) supporting at least two of said cover elements (E1, E2, E3, E4, E5, E6...) that are mounted in such a way as to be able to slide under one another equally in one or the other of two opposing sliding directions ((C1, C2)(C3, C4)) taken in the length (LI1, LI2) or in the width (WI1, WI2) of this intermediate frame, with the covering device being characterized in that the intermediate frames (I1, I2,...) are mounted on the support frame in such a way as to be able to slide under one another equally in one or the other of two opposing sliding directions ((C1, C2)(C3, C4)) taken in the length or in the width of the support frame.
An air bed system comprising: a mattress having an inflatable air chamber; an air pump; and a valve (144, 145A, 145B) in fluid connection between the air pump and the inflatable air chamber of the mattress so as to selectively regulate fluid communication between the air pump and the air chamber of the mattress, wherein the valve (144, 145A, 145B) comprises a solenoid coil, a plunger having a core configured to respond to a magnetic field generated by the solenoid coil, a valve disc positioned at a head of the core and configured to cushion impact when the valve (144, 145A, 145B) is closed, and a valve seat having a diameter larger than that of the head of the core and less than that of the valve disc [claim 9], and wherein the valve (144, 145A, 145B) is configured such that the valve disc bulges into a hole defined by the valve seat when the valve (144, 145A, 145B) is closed; and a projection positioned and configured to cushion impact when the valve (144, 145A, 145B) is opened. a mattress having an inflatable air chamber; an air pump; and a valve (144, 145A, 145B) in fluid connection between the air pump and the inflatable air chamber of the mattress so as to selectively regulate fluid communication between the air pump and the air chamber of the mattress, wherein the valve (144, 145A, 145B) comprises a solenoid coil, a plunger having a core configured to respond to a magnetic field generated by the solenoid coil, a valve disc positioned at a head of the core and configured to cushion impact when the valve (144, 145A, 145B) is closed, and a valve seat having a diameter larger than that of the head of the core and less than that of the valve disc [claim 9], and wherein the valve (144, 145A, 145B) is configured such that the valve disc bulges into a hole defined by the valve seat when the valve (144, 145A, 145B) is closed; and a projection positioned and configured to cushion impact when the valve (144, 145A, 145B) is opened. a solenoid coil, a plunger having a core configured to respond to a magnetic field generated by the solenoid coil, a valve disc positioned at a head of the core and configured to cushion impact when the valve (144, 145A, 145B) is closed, and a valve seat having a diameter larger than that of the head of the core and less than that of the valve disc [claim 9], and wherein the valve (144, 145A, 145B) is configured such that the valve disc bulges into a hole defined by the valve seat when the valve (144, 145A, 145B) is closed; and a projection positioned and configured to cushion impact when the valve (144, 145A, 145B) is opened.
A method for closing the top sides of outer cardboard packages, which outer cardboard packages in each instance comprise two top closing flaps (3, 4) located opposite one another, which closing flaps (3, 4) can be folded over about approximately horizontal first folding edges, with the side edges of the closing flaps (3, 4) in each instance being connected to one another by two fold-in flaps (5, 6), wherein the fold-in flaps (5, 6) in each instance comprise approximately horizontal, second folding edges and, formed diagonally thereto, third folding edges, characterised in that, in order to carry out a closing procedure, at least two outer cardboard packages are positioned as group directly abutting on one another or slightly spaced apart such that a first top closing flap of a first outer cardboard package of the group is located directly abutting on or slightly spaced apart from a second top closing flap of a second outer cardboard package of the group, and wherein in each instance at least two folding devices, which are advanceable toward one another, engage with the fold-in flaps (5, 6) of each of the at least two outer cardboard packages of the group, press the fold-in flaps (5, 6) toward one another, and fold them over about their particular second folding edges and third folding edges, whereby a folding-down of the top closing flaps (3, 4) is caused.
A heat exchanging system that exchanges heat between refrigerant and a temperature regulated portion, comprising a compressor circulating the refrigerant; a first heat exchanger exchanging heat between the refrigerant and outside air; a first decompressor decompressing the refrigerant; a second heat exchanger exchanging heat between the refrigerant and air-conditioning air; a heat exchanging portion connected in parallel with the second heat exchanger and exchanging heat between the refrigerant and the temperature regulated portion; characterized in that said system further comprises a bypass passage providing fluid communication between a path of the refrigerant between the compressor and the first heat exchanger and a path of the refrigerant between the first decompressor and the second heat exchanger; a second decompressor provided in the bypass passage and decompressing the refrigerant flowing through the bypass passage; and a selector valve allowing or interrupting flow of the refrigerant via the bypass passage.