mhurhangee/ep-ind-claims huggingface dataset:
An air core type reactor unit, comprising; a first insulating plate provided with a first insulating spacer on one side; a first ferromagnetic member fixed to the first insulating plate; a first air core coil having an first air core part and including coil layers which are formed with an air gap in between; a second air core coil having a second air core part and including coil layers which are formed with an air gap in between; a second insulating plate provided with a second insulating spacer on one side; a second ferromagnetic member fixed to the second insulating plate, wherein the first air core coil and the second air core coil are arranged in parallel, and are held and fixed between the first insulating plate and the second insulating plate by way of the first insulating spacer and the second insulating spacer, wherein the second insulating plate and the second ferromagnetic member are configured to have a width smaller than an inside diameter of each air core coil (1, 2). a first insulating plate provided with a first insulating spacer on one side; a first ferromagnetic member fixed to the first insulating plate; a first air core coil having an first air core part and including coil layers which are formed with an air gap in between; a second air core coil having a second air core part and including coil layers which are formed with an air gap in between; a second insulating plate provided with a second insulating spacer on one side; a second ferromagnetic member fixed to the second insulating plate, wherein the first air core coil and the second air core coil are arranged in parallel, and are held and fixed between the first insulating plate and the second insulating plate by way of the first insulating spacer and the second insulating spacer, wherein the second insulating plate and the second ferromagnetic member are configured to have a width smaller than an inside diameter of each air core coil (1, 2).
A method for determining transmission time interval, TTI, bundling parameters on a wireless communication device, wherein each TTI bundle is treated as a single resource for which a single uplink grant and a single HARQ acknowledgement is used, the method comprising: receiving signaling that indicates a TTI bundling configuration; receiving signaling that indicates an uplink grant; determining at least one TTI bundling parameter based on the TTI bundling configuration and the uplink grant, wherein determining the at least one TTI bundling parameter comprises determining that TTI bundling is enabled for a certain subset of subframes of an uplink shared channel, UL-SCH, and not enabled for another subset of subframes of the UL-SCH; and transmitting information in a TTI bundle in accordance with the at least one TTI bundling parameter. receiving signaling that indicates a TTI bundling configuration; receiving signaling that indicates an uplink grant; determining at least one TTI bundling parameter based on the TTI bundling configuration and the uplink grant, wherein determining the at least one TTI bundling parameter comprises determining that TTI bundling is enabled for a certain subset of subframes of an uplink shared channel, UL-SCH, and not enabled for another subset of subframes of the UL-SCH; and transmitting information in a TTI bundle in accordance with the at least one TTI bundling parameter.
A protection cover (100, 200) for a portable terminal, comprising: a rear cover (101, 201) having an inner surface adapted for the portable terminal being mounted thereon and removed therefrom; a front cover (102, 202) pivotally coupled to the rear cover (101, 201) by a connection member; and friction members (113, 123, 213, 223) provided on edges of the rear cover (101, 201) and the front cover (102, 202), respectively; wherein the front cover (102, 202) pivots on the rear cover (101, 201) to open or close access to the portable terminal when mounted on the inner surface of the rear cover (101, 201) by folding over the rear cover (101, 201) and the portable terminal; and wherein the friction members (113, 123, 213, 223) are supported directly on a planar surface and the front cover (102, 202) and rear cover (101, 201) form a cradle when the front cover (102, 202) is disposed at a predetermined angle with respect to the rear cover (101, 201) while facing an outer surface of the rear cover (101, 201), said predetermined angle thereby opening access to the portable terminal and cradling the portable terminal at an incline with respect to the planar surface; characterized in that the friction members (113, 123, 213, 223) protrude more than other portions of the edges of the rear cover (101, 201) and the front cover (102, 202), said other portions being disposed on the sides opposite to the connection member. a rear cover (101, 201) having an inner surface adapted for the portable terminal being mounted thereon and removed therefrom; a front cover (102, 202) pivotally coupled to the rear cover (101, 201) by a connection member; and friction members (113, 123, 213, 223) provided on edges of the rear cover (101, 201) and the front cover (102, 202), respectively; wherein the front cover (102, 202) pivots on the rear cover (101, 201) to open or close access to the portable terminal when mounted on the inner surface of the rear cover (101, 201) by folding over the rear cover (101, 201) and the portable terminal; and wherein the friction members (113, 123, 213, 223) are supported directly on a planar surface and the front cover (102, 202) and rear cover (101, 201) form a cradle when the front cover (102, 202) is disposed at a predetermined angle with respect to the rear cover (101, 201) while facing an outer surface of the rear cover (101, 201), said predetermined angle thereby opening access to the portable terminal and cradling the portable terminal at an incline with respect to the planar surface; characterized in that the friction members (113, 123, 213, 223) protrude more than other portions of the edges of the rear cover (101, 201) and the front cover (102, 202), said other portions being disposed on the sides opposite to the connection member.
A handover method, wherein the method comprises: receiving, by a target mobility management entity, a message related to a target terminal, wherein the message related to the target terminal carries an identifier of the target terminal; searching for, by the target mobility management entity, a context of the target terminal based on the identifier of the target terminal; and sending, by the target mobility management entity if the target mobility management entity fails to find the context of the target terminal, information about a source mobility management entity that currently serves the target terminal to a core network device, wherein the information about the source mobility management entity is used to enable the core network device to send the message related to the target terminal to the source mobility management entity. receiving, by a target mobility management entity, a message related to a target terminal, wherein the message related to the target terminal carries an identifier of the target terminal; searching for, by the target mobility management entity, a context of the target terminal based on the identifier of the target terminal; and sending, by the target mobility management entity if the target mobility management entity fails to find the context of the target terminal, information about a source mobility management entity that currently serves the target terminal to a core network device, wherein the information about the source mobility management entity is used to enable the core network device to send the message related to the target terminal to the source mobility management entity.
A functional polymer membrane comprising: a structure represented by the following Formula; and a structure represented by the following Formula, wherein an ion exchange capacity is 2.0 meq/g to 7.0 meq/g, -S-LL 1 -LL-LL 2 -S- Formula in Formula, LL represents a single bond or an alkylene group which may have a substituent, -O-, -S-, -NR Z - or a linking group obtained by combining these, LL 1 and LL 2 each independently represent -(CR 1 R 2),- or -(CR 1 R 2) I -C(=O)O- (in which the atom bonded to LL is an oxygen atom), R 1 and R 2 each independently represent a hydrogen atom or an alkyl group, I represents 1 or 2, and R Z represents a hydrogen atom or a substituent, however, in a case where terminal atoms of a substituent in LL and a substituent of R Z are a sulfur atom, LL is the sulfur atom having a bond to be incorporated into the polymer chain, and in Formula, L 1 represents an alkylene group or an alkenylene group, Ra, Rb, Rc, and Rd each independently represent an alkyl group or an aryl group, Ra and Rb, or/and Rc and Rd may be bonded to each other to form a ring, n1 represents an integer of 1 to 10, and X 1 - and X 2 - each independently represent an organic or inorganic anion. a structure represented by the following Formula; and a structure represented by the following Formula, wherein an ion exchange capacity is 2.0 meq/g to 7.0 meq/g, -S-LL 1 -LL-LL 2 -S- Formula in Formula, LL represents a single bond or an alkylene group which may have a substituent, -O-, -S-, -NR Z - or a linking group obtained by combining these, LL 1 and LL 2 each independently represent -(CR 1 R 2),- or -(CR 1 R 2) I -C(=O)O- (in which the atom bonded to LL is an oxygen atom), R 1 and R 2 each independently represent a hydrogen atom or an alkyl group, I represents 1 or 2, and R Z represents a hydrogen atom or a substituent, however, in a case where terminal atoms of a substituent in LL and a substituent of R Z are a sulfur atom, LL is the sulfur atom having a bond to be incorporated into the polymer chain, and in Formula, L 1 represents an alkylene group or an alkenylene group, Ra, Rb, Rc, and Rd each independently represent an alkyl group or an aryl group, Ra and Rb, or/and Rc and Rd may be bonded to each other to form a ring, n1 represents an integer of 1 to 10, and X 1 - and X 2 - each independently represent an organic or inorganic anion.
A manufacturing method of a tire integrated electronic device, comprising: a) step of positioning an electronic device mockup portion inside a first mold unit and a second mold unit; b) step of performing injection molding or compression molding by injecting unvulcanized rubber inside the first mold unit and the second mold unit such that the unvulcanized rubber encloses the electronic device mockup portion; c) step of unmolding a rubber mount unit molded to enclose the electronic device mockup portion; d) step of inserting an electronic device unit into a lower end portion of the unmolded rubber mount unit; and e) step of attaching the electronic device unit-inserted rubber mount unit to an inner liner of a tire, wherein the rubber mount unit is molded to have a bottom body and an insertion hole at a lower portion of the rubber mount unit in the bottom body of the rubber mount unit, through which the electronic device unit is to be inserted into the lower end portion of the rubber mount unit; wherein the b) step includes: b1) step of injecting the unvulcanized rubber inside the first mold unit and inside the second mold unit; and b2) step of maintaining a preset vulcanization temperature for a preset vulcanization time so as to induce a crosslinking reaction in the injected unvulcanized rubber; wherein, in the c) step, the electronic device mockup portion is unmolded from the rubber mount unit. a) step of positioning an electronic device mockup portion inside a first mold unit and a second mold unit; b) step of performing injection molding or compression molding by injecting unvulcanized rubber inside the first mold unit and the second mold unit such that the unvulcanized rubber encloses the electronic device mockup portion; c) step of unmolding a rubber mount unit molded to enclose the electronic device mockup portion; d) step of inserting an electronic device unit into a lower end portion of the unmolded rubber mount unit; and e) step of attaching the electronic device unit-inserted rubber mount unit to an inner liner of a tire, wherein the rubber mount unit is molded to have a bottom body and an insertion hole at a lower portion of the rubber mount unit in the bottom body of the rubber mount unit, through which the electronic device unit is to be inserted into the lower end portion of the rubber mount unit; wherein the b) step includes: b1) step of injecting the unvulcanized rubber inside the first mold unit and inside the second mold unit; and b2) step of maintaining a preset vulcanization temperature for a preset vulcanization time so as to induce a crosslinking reaction in the injected unvulcanized rubber; b1) step of injecting the unvulcanized rubber inside the first mold unit and inside the second mold unit; and b2) step of maintaining a preset vulcanization temperature for a preset vulcanization time so as to induce a crosslinking reaction in the injected unvulcanized rubber; wherein, in the c) step, the electronic device mockup portion is unmolded from the rubber mount unit.
A personal care composition comprising: i) a piroctone compound; ii) sodium benzoate; iii) a fragrance comprising a fragrance component which is undecalactone. i) a piroctone compound; ii) sodium benzoate; iii) a fragrance comprising a fragrance component which is undecalactone.
An electronically-implemented method of analyzing a signal in a blocker detector to locate at least one comparatively significant frequency component therein which acts as an unwanted interfering signal, the blocker detector configured to receive the signal from an analog-to-digital converter (50, 24a) of a radio receiver, the method comprising: analyzing, using the blocker detector, a test range of frequencies of the signal received from the analog-to-digital converter of the radio receiver to identify a potentially significant interfering component within the test range and identify a reduced test range that includes the potentially significant interfering component within the test range; characterised in iteratively performing the analyzing step on the reduced test range identified in the previous analyzing step, until a dominant interfering signal has been identified to a predetermined accuracy or an iteration limit has been reached.
A contactless power transmission device, comprising: a plurality of power transmission coil units (700-1 to 700-5); a detection unit configured to detect a foreign substance on and around each power transmission coil unit; a communication unit configured to communicate with a vehicle; and a control unit configured to select one of the plurality of power transmission coil units based on information about a mounting position of a power reception device from the vehicle obtained by the communication unit, and to guide, when the detection unit detects a foreign substance at the selected power transmission coil unit, the vehicle toward a power transmission coil unit different from the selected power transmission coil unit, before the vehicle stops. a plurality of power transmission coil units (700-1 to 700-5); a detection unit configured to detect a foreign substance on and around each power transmission coil unit; a communication unit configured to communicate with a vehicle; and a control unit configured to select one of the plurality of power transmission coil units based on information about a mounting position of a power reception device from the vehicle obtained by the communication unit, and to guide, when the detection unit detects a foreign substance at the selected power transmission coil unit, the vehicle toward a power transmission coil unit different from the selected power transmission coil unit, before the vehicle stops.
A marine surface vessel comprising an air ventilated hull, and a deck, wherein the vessel comprises at least one air conduit leading to at least one ventilation opening beneath a waterline of the vessel, the at least one air conduit being arranged to guide air to the at least one ventilation opening, the at least one ventilation opening being provided for air ventilation of the hull, wherein the deck is at least party surrounded by a gunwale, wherein the at least one air conduit is arranged to guide the air from at least one water drainage opening arranged to drain water from the deck so that the air conduit provides combined functions for hull air ventilation and for deck water draining, characterised in that the water drainage opening is located at the lowest part of the deck and/or wherein the water drainage opening is well located to take in water running aftwards of the deck, the vessel comprising one or more non-return valves arranged to prevent water from being transported through the at least one air conduit from the at least one ventilation opening to the at least one water drainage opening.
A method of expanding a structural support volume of a flexible container (100,200,300,400,500,600,700,800,900,1000,1100) comprising a product volume (150,150-2,150-3,250-2,250-3,350-2,450-2,550-2,650-2,750-2,850-2,950,950-2,950-3,1050,1050-2,1150,1150-2) and at least one structural support volume that extends at least partially into the product volume (150,150-2,150-3,250-2,250-3,350-2,450-2,550-2,650-2,750-2,850-2,950,950-2,950-3,1050,1050-2,1150,1150-2), characterized in that the method comprises: dispensing a cryogenic fluid into the at least one structural support volume (2016,2026); and sealing the at least one structural support volume such that it has a closed volume before complete conversion of the cryogenic fluid to a gaseous state and expansion of the structural support volume to an expanded state; wherein the expanded structural support volume is comprised in a structural support member, which structural support member is comprised in a structural support frame of the flexible container, and wherein the structural support frame is a rigid structure formed of one or more of said structural support members, joined together, around one or more nonstructural panels; characterized in that the product volume (150,150-2,150-3,250-2,250-3,350-2,450-2,550-2,650-2,750-2,850-2,950,950-2,950-3,1050,1050-2,1150,1150-2) is filled with fluent product before dispensing the cryogenic fluid (2016,2026); and wherein an external force is applied to the product volume (150,150-2,150-3,250-2,250-3,350-2,450-2,550-2,650-2,750-2,850-2,950,950-2,950-3,1050,1050-2,1150,1150-2) after filling to achieve a pre-determined product fill height, the external force is maintained during dispensing of the cryogenic fluid (2016,2026) into the at least one structural support volume to maintain the pre-determined product fill height, the method further comprising releasing the external force after sealing the at least one structural support volume.
A nuclear imaging system comprising: a scanner adapted to detect radiation from a radioisotope contaminated tracer injected into a subject, which tracer includes at least one primary radioisotope component and one or more contamination radioisotope components; an input adapted to allow a clinician to input a selected imaging protocol; and a reconstruction processor adapted to reconstruct a detected radiation into image representations; and an uptake correction processor adapted to correct the reconstructed images and the detected radiation in accordance with a decay curve of the radioisotope contaminated tracer; characterized in that the system further includes: a warning generator adapted to generate a warning on a display in response to the clinician selecting an imaging protocol utilizing a radioisotope contaminated tracer. a scanner adapted to detect radiation from a radioisotope contaminated tracer injected into a subject, which tracer includes at least one primary radioisotope component and one or more contamination radioisotope components; an input adapted to allow a clinician to input a selected imaging protocol; and a reconstruction processor adapted to reconstruct a detected radiation into image representations; and an uptake correction processor adapted to correct the reconstructed images and the detected radiation in accordance with a decay curve of the radioisotope contaminated tracer; characterized in that the system further includes: a warning generator adapted to generate a warning on a display in response to the clinician selecting an imaging protocol utilizing a radioisotope contaminated tracer. a warning generator adapted to generate a warning on a display in response to the clinician selecting an imaging protocol utilizing a radioisotope contaminated tracer.
A method for manufacturing a spark plug including an insulator having an axial hole that extends through the insulator in a direction of an axial line (O-O); a center electrode disposed in the axial hole in such a manner that a distal end of the center electrode projects from a distal portion of the insulator; and a metal shell that is provided on an outer periphery of the insulator so as to cover a periphery of at least a portion of the insulator and that includes a distal portion to which a ground electrode is bonded, the method comprising: a defect inspection step of placing an assembly of the center electrode, the insulator, and the metal shell in a pressure resistant vessel and determining whether or not the insulator has a defect by applying a voltage to the center electrode; and a bending step of bending the ground electrode toward the center electrode after the defect inspection step, characterized in that the defect inspection step is performed while a pressure in the pressure resistant vessel is changed to a plurality of different pressures. a defect inspection step of placing an assembly of the center electrode, the insulator, and the metal shell in a pressure resistant vessel and determining whether or not the insulator has a defect by applying a voltage to the center electrode; and a bending step of bending the ground electrode toward the center electrode after the defect inspection step, characterized in that the defect inspection step is performed while a pressure in the pressure resistant vessel is changed to a plurality of different pressures.
A prone leg curl exercise machine, comprising: a main frame (110, 210, 310); a thigh support or thigh pad frame or stationary thigh pad connected to the main frame (110, 210, 310); a means configured to support the users upper torso connected to the main frame (110, 210, 310); an exercise arm assembly (140, 240, 340, 440) pivotally connected to the main frame (110, 210, 310); and a moving support frame (130, 230, 330, 430) having a first end connected to the means configured to support the users upper torso and a second end connected to the exercise arm assembly (140, 240, 340, 440), wherein movement of the exercise arm assembly (140, 240, 340, 440) by a user causes movement of the moving support frame (130, 230, 330, 430) which in turn causes movement of the means configured to support the users upper torso. a main frame (110, 210, 310); a thigh support or thigh pad frame or stationary thigh pad connected to the main frame (110, 210, 310); a means configured to support the users upper torso connected to the main frame (110, 210, 310); an exercise arm assembly (140, 240, 340, 440) pivotally connected to the main frame (110, 210, 310); and a moving support frame (130, 230, 330, 430) having a first end connected to the means configured to support the users upper torso and a second end connected to the exercise arm assembly (140, 240, 340, 440), wherein movement of the exercise arm assembly (140, 240, 340, 440) by a user causes movement of the moving support frame (130, 230, 330, 430) which in turn causes movement of the means configured to support the users upper torso.