mhurhangee/ep-ind-claims huggingface dataset:
Method for storing containers in which a fuel rod or fuel rod section is encapsulated respectively, having the following method steps: a) introducing the containers into a capsule quiver which has a plurality of lattice-shaped spacers and is open on an upper side, b) fluid-tight sealing of the capsule quiver with a hood, c) setting a cover provided with a suction lance projecting into the interior of the capsule quiver and connected fluidically to a suction line guided through the hood, d) sucking up the water located in the capsule quiver with the suction lance, e) flushing the capsule quiver with purging gas, f)flushing the capsule quiver with a heating gas until the absolute moisture content reaches a predetermined limit value (X g), g) welding the cover to the capsule quiver and welding an opening located in the cover and leading to the suction lance with a welding device stored in the hood. a) introducing the containers into a capsule quiver which has a plurality of lattice-shaped spacers and is open on an upper side, b) fluid-tight sealing of the capsule quiver with a hood, c) setting a cover provided with a suction lance projecting into the interior of the capsule quiver and connected fluidically to a suction line guided through the hood, d) sucking up the water located in the capsule quiver with the suction lance, e) flushing the capsule quiver with purging gas, f)flushing the capsule quiver with a heating gas until the absolute moisture content reaches a predetermined limit value (X g), g) welding the cover to the capsule quiver and welding an opening located in the cover and leading to the suction lance with a welding device stored in the hood.
A method for use in a wireless transmit receive unit, WTRU, the method comprising: monitoring a plurality of bandwidth sub bands, BWSBs (21, 22, 23), in an unlicensed frequency spectrum; the method being characterized in that the method further comprises: receiving configuration information indicating periodic monitoring occasions to be used for monitoring the plurality of BWSBs to determine availability of a channel, wherein the periodic monitoring occasions comprise a set of periodic monitoring occasions (231, 233) associated with a time offset per BWSB, and wherein each BWSB is associated with a different time offset; determining that the channel is available in a BWSB of the plurality of BWSBs based on monitoring the plurality of BWSBs according to the periodic monitoring occasions, wherein each of the plurality of BWSBs is monitored repeatedly until the channel is determined to be available in the BWSB; and transmitting on the BWSB. receiving configuration information indicating periodic monitoring occasions to be used for monitoring the plurality of BWSBs to determine availability of a channel, wherein the periodic monitoring occasions comprise a set of periodic monitoring occasions (231, 233) associated with a time offset per BWSB, and wherein each BWSB is associated with a different time offset; determining that the channel is available in a BWSB of the plurality of BWSBs based on monitoring the plurality of BWSBs according to the periodic monitoring occasions, wherein each of the plurality of BWSBs is monitored repeatedly until the channel is determined to be available in the BWSB; and transmitting on the BWSB.
A bottle extending along a longitudinal axis and that includes, a base; a body extending from the base; a shoulder extending from the body and including a shoulder wall; a neck extending from the shoulder and including a neck wall; a finish terminating the neck; and a bridge forming a fluid channel, extending radially outwardly from and longitudinally along the neck at a non-zero angle with respect to the longitudinal axis, from a location spaced axially from the finish, toward the body, and across at least a portion of the shoulder, and including: an outer wall offset radially outwardly with respect to the walls of the neck and the shoulder and, in transverse cross section, having an incurvate inner surface, characterized in that the bridge includes side walls (42, 44) extending between the outer wall of the bridge and the walls of the neck and shoulder and, in transverse cross section, having straight inner surfaces (43, 45) disposed at chordal angles. an outer wall offset radially outwardly with respect to the walls of the neck and the shoulder and, in transverse cross section, having an incurvate inner surface, the bridge includes side walls (42, 44) extending between the outer wall of the bridge and the walls of the neck and shoulder and, in transverse cross section, having straight inner surfaces (43, 45) disposed at chordal angles.
A reinforced composite comprising: at least one fiber reinforcement formed from a plurality of fibers coated with a thermoset-compatible sizing composition, said fiber reinforcement having a first side and a second side; a chemical treatment coated in an amount from 1.0 to 20 weight percent of the fiber reinforcement on at least one of said first side and second side of said fiber reinforcement, wherein said chemical treatment includes one or more of a polyamide having a melting point less than 250 °C and a reactive compound selected from a primary amine, a primary amide, styrene-maleic anhydride and mixtures thereof; and a thermoplastic matrix material, wherein said thermoplastic material comprises a polyamide. at least one fiber reinforcement formed from a plurality of fibers coated with a thermoset-compatible sizing composition, said fiber reinforcement having a first side and a second side; a chemical treatment coated in an amount from 1.0 to 20 weight percent of the fiber reinforcement on at least one of said first side and second side of said fiber reinforcement, wherein said chemical treatment includes one or more of a polyamide having a melting point less than 250 °C and a reactive compound selected from a primary amine, a primary amide, styrene-maleic anhydride and mixtures thereof; and a thermoplastic matrix material, wherein said thermoplastic material comprises a polyamide.
A cooling structure for an open X-ray source, the open X-ray source comprising an electron source for emitting an electron beam, a target for generating an X-ray in response to the electron beam incident thereon, and an electron path, extending from the electron source to the target, for passing the electron beam therethrough, the open X-ray source being adapted to open and close the electron path with respect to an external atmosphere and vacuum the electron path when closed, the cooling structure comprising: an aperture unit arrangeable on the electron path and formed with an aperture for restricting the electron beam from passing therethrough; wherein the cooling structure comprises a holder holding the aperture unit; and an annular heat dissipator connected to the holder; wherein the holder has a flange surrounding the electron path and is in surface contact with the heat dissipator through the flange, wherein the annular heat dissipator has a first heat dissipation member including a first annular coolant flow path constituent part and a second heat dissipation member including a second annular coolant flow path constituent part; and wherein the first annular coolant flow path constituent part and the second annular coolant flow path constituent part are combined with each other so as to construct an annular coolant flow path in the heat dissipator and surrounding the electron path, whereby the heat generated in the aperture unit propagates to the annular coolant flow path through the holder and the annular heat dissipator. an aperture unit arrangeable on the electron path and formed with an aperture for restricting the electron beam from passing therethrough; wherein the cooling structure comprises a holder holding the aperture unit; and an annular heat dissipator connected to the holder;
A detection device comprising: a movement detector configured to include light emitters and light receivers, wherein in accordance with movement of a moving body among moving bodies, each moving body corresponding to a different combination of one of the light emitters and one of the light receivers, a light reception level of the light receiver in a combination corresponding to the moving body changes; a light emission controller configured to cause each of the light emitters to sequentially emit light in each light emission period by providing a driving signal, and to cause a signal level of the driving signal to differ between unit periods within the light emission period; and a detected value selector configured to select, for each light emission period, a light reception level in one of the unit periods within the light emission period as a detected value for each of the light receivers. a movement detector configured to include light emitters and light receivers, wherein in accordance with movement of a moving body among moving bodies, each moving body corresponding to a different combination of one of the light emitters and one of the light receivers, a light reception level of the light receiver in a combination corresponding to the moving body changes; a light emission controller configured to cause each of the light emitters to sequentially emit light in each light emission period by providing a driving signal, and to cause a signal level of the driving signal to differ between unit periods within the light emission period; and a detected value selector configured to select, for each light emission period, a light reception level in one of the unit periods within the light emission period as a detected value for each of the light receivers.
A housing component of a terminal device, comprising a front-housing component and a cover glass, wherein the front-housing component comprises a front housing and a plurality of supporting members disposed on a surface of the front housing; first glue guiding grooves are disposed on the surface of the front housing at intervals; second glue guiding grooves are disposed on surfaces of the supporting members; projections of the first and second glue guiding grooves (2031, 2032) on the surface of the front housing are complete rings that do not overlap; and glue is disposed in the first glue guiding grooves and the second glue guiding grooves, so that the cover glass is in a sealed connection to the front-housing component.
Stiffening element (10; 10') for a roller shutter box, at least comprising: - a bottom connection element (11; 11') which comprises a series of fastening holes and/or an oblong hole (11.2; 11.2') and has a bottom fastening tab (11.3; 11.3') arranged at a right angle; and - a top connection element which comprises a series of fastening holes or an oblong hole (13.2) and has a top fastening tab (13.1) arranged at a right angle, characterized by a connecting element, wherein the connecting element is connected to the bottom connection element (11; 11') and to the top connection element on the one hand in each case via a connecting means (14, 15) which is inserted into one of the fastening holes or into the oblong hole (11.2, 11.2'; 13.2), wherein, on the other hand, projections (11.4, 13.4) of the connection elements (11, 13) engage in cutouts (12.1, 12.2) of the connecting element. - a bottom connection element (11; 11') which comprises a series of fastening holes and/or an oblong hole (11.2; 11.2') and has a bottom fastening tab (11.3; 11.3') arranged at a right angle; and - a top connection element which comprises a series of fastening holes or an oblong hole (13.2) and has a top fastening tab (13.1) arranged at a right angle, characterized by a connecting element, wherein the connecting element is connected to the bottom connection element (11; 11') and to the top connection element on the one hand in each case via a connecting means (14, 15) which is inserted into one of the fastening holes or into the oblong hole (11.2, 11.2'; 13.2), wherein, on the other hand, projections (11.4, 13.4) of the connection elements (11, 13) engage in cutouts (12.1, 12.2) of the connecting element.
A method for gaining lateral access to a well via a lateral access passage of the well and for delivering sealant to the well, using a tool comprising a head portion and a fluid transmission conduit (46, 111), the method comprising operating the tool to axially forwardly advance the head portion towards or in the lateral access passage, delivering sealant via the fluid transmission conduit to or forwardly of the head portion, and forming a seal between a sealing device of the head portion and the lateral access passage, and discharging said sealant forwardly of the seal via an outlet of the head portion, wherein the method comprises expanding a sealing member of the sealing device radially outward so as to form the seal between the sealing device and the lateral access passage.
A method for producing a sound-absorbing and thermal-insulating muffler insert, which is formed of fibers and is shaped so as to be arranged inside an internal chamber of a muffler of an exhaust system of an internal combustion engine of a motor-vehicle, said method being characterised in that it comprises the following steps: - arranging at least one soft and flexible layer formed of fibers made of sound-absorbing and thermal-insulating material wound in spirals; said layer is without binding materials designed to impregnate the fibers in order to fix/join them together, - at least partially rolling and/or folding said layer so as to produce a shaped body having a shape corresponding approximately to the internal chamber of said muffler, - performing one or more seams on the shaped body formed by said at least one layer through at least one thread so as to maintain the shape of the shaped body and prevent it from unravelling. - arranging at least one soft and flexible layer formed of fibers made of sound-absorbing and thermal-insulating material wound in spirals; said layer is without binding materials designed to impregnate the fibers in order to fix/join them together, - at least partially rolling and/or folding said layer so as to produce a shaped body having a shape corresponding approximately to the internal chamber of said muffler, - performing one or more seams on the shaped body formed by said at least one layer through at least one thread so as to maintain the shape of the shaped body and prevent it from unravelling.
A method of wireless communication performed by a user equipment, UE, comprising: receiving, from a serving cell, signaling identifying a core network type cell ranking offset parameter; ranking, based at least in part on the core network type cell ranking offset parameter, a neighbor cell for reselection relative to the serving cell, wherein the neighbor cell is associated with a different core network type than the serving cell, wherein the ranking is further based on a combination of a cell quality parameter, a cell hysteresis parameter, a temporary offset parameter, a cell ranking offset parameter, and a single cell point-to-multipoint parameter; and selectively reselecting to the neighbor cell based at least in part on ranking the neighbor cell for reselection relative to the serving cell. receiving, from a serving cell, signaling identifying a core network type cell ranking offset parameter; ranking, based at least in part on the core network type cell ranking offset parameter, a neighbor cell for reselection relative to the serving cell, wherein the neighbor cell is associated with a different core network type than the serving cell, wherein the ranking is further based on a combination of a cell quality parameter, a cell hysteresis parameter, a temporary offset parameter, a cell ranking offset parameter, and a single cell point-to-multipoint parameter; and selectively reselecting to the neighbor cell based at least in part on ranking the neighbor cell for reselection relative to the serving cell.
An assembly and release apparatus for a garment, comprising: a C-shaped clip defining a channel and an open slot extending along the channel, open at at least one end of the clip, and including at least one element configured for attaching the C-shaped clip to a first location on the garment; a pin slidably receivable in the channel of the C-shaped clip through the open end to assemble the C-shaped clip and the pin together, the pin having a tab or strip configured to extend through the slot and for attaching the pin to a second location on the garment, the slot being sufficiently small to prevent passage of the pin therethrough; and at least one detent element associated with one of the C-shaped clip or the pin, cooperatively engageable with the other of the C-shaped clip or the pin for retaining the pin in the channel, and releasable in a predetermined manner to allow slidably removing the pin from the channel through the open end; characterized by the C-shaped clip and the pin having mating surfaces (46, 48) bounding the channel adjacent to at least one side of the slot, which are tapered at less than a 90 degree angle to the tab or strip and slot such that when the pin is located in the channel and the tab or strip extends through the slot, and a force is exerted against the tab or strip in a direction to pull the pin toward the slot, the surface of the clip adjacent to the slot will be drawn toward the slot to prevent passage of the pin therethrough. a C-shaped clip defining a channel and an open slot extending along the channel, open at at least one end of the clip, and including at least one element configured for attaching the C-shaped clip to a first location on the garment; a pin slidably receivable in the channel of the C-shaped clip through the open end to assemble the C-shaped clip and the pin together, the pin having a tab or strip configured to extend through the slot and for attaching the pin to a second location on the garment, the slot being sufficiently small to prevent passage of the pin therethrough; and at least one detent element associated with one of the C-shaped clip or the pin, cooperatively engageable with the other of the C-shaped clip or the pin for retaining the pin in the channel, and releasable in a predetermined manner to allow slidably removing the pin from the channel through the open end; characterized by the C-shaped clip and the pin having mating surfaces (46, 48) bounding the channel adjacent to at least one side of the slot, which are tapered at less than a 90 degree angle to the tab or strip and slot such that when the pin is located in the channel and the tab or strip extends through the slot, and a force is exerted against the tab or strip in a direction to pull the pin toward the slot, the surface of the clip adjacent to the slot will be drawn toward the slot to prevent passage of the pin therethrough.
A semiconductor device comprising a radio transmitter hardware section and processor, the device being arranged to transmit information via said transmitter hardware section from a first application running on the processor in accordance with a first communication protocol or from a second application running on the processor or a further processor using a second communication protocol, wherein the first application is configured to generate a first transmit request when it requires to send a data packet and wherein the second application is configured to generate a second transmit request when the second application requires to send a data packet, the device further comprising control logic for allocating a transmission timeslot for said transmitter section to said first or second application upon receipt of said first or second transmit requests respectively, the device further comprising an application programming interface which permits the second protocol to be defined.
A voltage-mode differential signaling driver comprising: a pair of pull up switches (505a, 505b; 605a, 605b), each provided in a circuit path from a respective output terminal (504a, 504b; 604a, 604b) to a first supply voltage (V DD), a first pair of resistors (501a, 501b; 601a, 601b), one provided in each circuit path from the respective output terminal (504a, 504b; 604a, 604b) to the first supply voltage (V DD), a pair of pull down switches (506b, 506a; 606b, 606a), each provided in a circuit path from the respective output terminals (504a, 504b; 604a, 604b) to a second supply voltage (V SS), a second pair of resistors (502b, 502a; 602b, 602a), one provided in each circuit path from the respective output terminal (504a, 504b; 504a, 504b) to the second supply voltage(V SS), and a third pair of resistors (503a, 503b; 503a, 503b), one coupled to each output terminal (504a, 504b; 504a, 504b) and to a common one of the supply voltages (V DD, V SS), wherein the voltage-mode differential signaling driver generates output voltages on the output terminals (504a, 504b; 604a, 604b) having a common-mode voltage that deviates from one-half the difference between the pair of supply voltages (V DD, V SS), and wherein output impedances at the output terminals are balanced. a pair of pull up switches (505a, 505b; 605a, 605b), each provided in a circuit path from a respective output terminal (504a, 504b; 604a, 604b) to a first supply voltage (V DD), a first pair of resistors (501a, 501b; 601a, 601b), one provided in each circuit path from the respective output terminal (504a, 504b; 604a, 604b) to the first supply voltage (V DD), a pair of pull down switches (506b, 506a; 606b, 606a), each provided in a circuit path from the respective output terminals (504a, 504b; 604a, 604b) to a second supply voltage (V SS), a second pair of resistors (502b, 502a; 602b, 602a), one provided in each circuit path from the respective output terminal (504a, 504b; 504a, 504b) to the second supply voltage(V SS), and a third pair of resistors (503a, 503b; 503a, 503b), one coupled to each output terminal (504a, 504b; 504a, 504b) and to a common one of the supply voltages (V DD, V SS), wherein the voltage-mode differential signaling driver generates output voltages on the output terminals (504a, 504b; 604a, 604b) having a common-mode voltage that deviates from one-half the difference between the pair of supply voltages (V DD, V SS), and wherein output impedances at the output terminals are balanced.
Method for fragmenting a rod-like material, in particular made of a semiconductor material, in particular made of polycrystalline silicon, comprising the steps: a) providing a section of the rod-like material surrounded by a process fluid, in particular by water; b) arranging an electrode arrangement comprising at least two electrodes (5, 6) in the region of this section such that the at least two electrodes (5, 6) are immersed in the process fluid and are at a distance from one another and are each at a distance from the rod-like material; and c) generating high voltage breakdowns through the rod-like material and/or along the surface of the rod-like material in the region of both electrodes (5, 6) by applying high voltage pulses to the electrode arrangement, wherein, during the generation of the high-voltage breakdowns, a relative movement in the longitudinal direction of the rod-like material is generated between the electrode arrangement and the rod-like material such that the location of the high voltage breakdowns through the rod-like material and/or along the surface of the rod-like material progressively changes in longitudinal direction of the rod-like material. a) providing a section of the rod-like material surrounded by a process fluid, in particular by water; b) arranging an electrode arrangement comprising at least two electrodes (5, 6) in the region of this section such that the at least two electrodes (5, 6) are immersed in the process fluid and are at a distance from one another and are each at a distance from the rod-like material; and c) generating high voltage breakdowns through the rod-like material and/or along the surface of the rod-like material in the region of both electrodes (5, 6) by applying high voltage pulses to the electrode arrangement,