mhurhangee/ep-ind-claims huggingface dataset:
A communication method, comprising: when a terminal device is handed over from a source access network device in a first area to a target access network device in a second area, receiving (712, 812, 910, 1605), by a target mobility management network element in the second area from a source mobility management network element in the first area, a slice set for a home public land mobile network, HPLMN, of the terminal device, wherein the slice set for the HPLMN is corresponding to allowed network slice selection assistance information of the terminal device in the first area; sending, by the target mobility management network element, first information to a slice selection network element in the second area, wherein the first information comprises the slice set for the HPLMN; mapping, by the slice selection network element in the second area, the slice set for the HPLMN to allowed network slice selection assistance information of the terminal device in the second area; sending, by the slice selection network element in the second area, the allowed network slice selection assistance information of the terminal device in the second area; and receiving, by the target mobility management network element from the slice selection network element in the second area, the allowed network slice selection assistance information of the terminal device in the second area. when a terminal device is handed over from a source access network device in a first area to a target access network device in a second area, receiving (712, 812, 910, 1605), by a target mobility management network element in the second area from a source mobility management network element in the first area, a slice set for a home public land mobile network, HPLMN, of the terminal device, wherein the slice set for the HPLMN is corresponding to allowed network slice selection assistance information of the terminal device in the first area; sending, by the target mobility management network element, first information to a slice selection network element in the second area, wherein the first information comprises the slice set for the HPLMN; mapping, by the slice selection network element in the second area, the slice set for the HPLMN to allowed network slice selection assistance information of the terminal device in the second area; sending, by the slice selection network element in the second area, the allowed network slice selection assistance information of the terminal device in the second area; and receiving, by the target mobility management network element from the slice selection network element in the second area, the allowed network slice selection assistance information of the terminal device in the second area.
A method for producing a silicon carbide single crystal, comprising placing a seed crystal composed of silicon carbide on a crucible lid body of a crucible having a crucible container body and the crucible lid body, placing a silicon carbide raw material in the crucible container body, and sublimating the silicon carbide raw material to grow a bulk silicon carbide single crystal on the seed crystal, wherein the seed crystal has an off angle in an off orientation from a plane, wherein in advance of a growth main step of performing crystal growth to form a facet plane in a crystal peripheral part on a crystal end face having grown thereon the bulk silicon carbide single crystal and obtain more than 50% of a thickness of the obtained SiC single crystal, a growth sub-step of growing the crystal at a higher nitrogen concentration than in the growth main step and at a growth atmosphere pressure of 3.9 to 39.9 kPa and a seed crystal temperature of 2,100°C to less than 2,300°C is included, and wherein the crystal growth rate in the growth sub-step is 0.1 mm/h or less. the seed crystal has an off angle in an off orientation from a plane, wherein in advance of a growth main step of performing crystal growth to form a facet plane in a crystal peripheral part on a crystal end face having grown thereon the bulk silicon carbide single crystal and obtain more than 50% of a thickness of the obtained SiC single crystal, a growth sub-step of growing the crystal at a higher nitrogen concentration than in the growth main step and at a growth atmosphere pressure of 3.9 to 39.9 kPa and a seed crystal temperature of 2,100°C to less than 2,300°C is included, and wherein the crystal growth rate in the growth sub-step is 0.1 mm/h or less.
A data logger with a display device which emits and/or remits electromagnetic radiation and with functional units for acquiring, digitalising, storing and possibly evaluating measurement data and with a functional unit for the wireless transfer of data to an external data processing device which is provided with a photo-technical acquisition device for recording static and/or dynamic patterns of the electromagnetic radiation, characterised in that the functional unit for the transfer of data is designed for an intensity-controlled modulation of the display device which emits and/or reemits electromagnetic radiation and is coupled to the display device which emits and/or reemits electromagnetic radiation, in a manner such that the data can be transferred in coded form by way of an intensity-controlled activation of the display device which emits and/or remits electromagnetic radiation.
Apparatus for use in operator training with, and the testing and evaluation of, missile detection systems, wherein said missile detection systems use infrared sensors which integrate incident energy over a finite time period, said apparatus comprising: - at least one infrared illumination source (4,6) for illuminating the sensors, said apparatus being characterized in that - the infrared illumination source (4,6) is a pseudo continuous wave laser infrared illumination source including an optical parametric oscillator which is pumped by a laser, in which the laser is a yttrium aluminium garnet laser, and with signal duty and peak power controlled by means of an amplitude, pulse width and pulse repetition interval modulation circuit comprising an acousto-optic modulator, - whereby the laser infrared illumination source (4,6) operates at shorter repetition intervals than the finite time period and the amplitude, pulse width and pulse repetition interval modulation circuit modulates the signal duty and the peak power so that the laser infrared illumination source (4,6) appears to the infrared sensors to be a real missile signature. - at least one infrared illumination source (4,6) for illuminating the sensors, said apparatus being characterized in that - the infrared illumination source (4,6) is a pseudo continuous wave laser infrared illumination source including an optical parametric oscillator which is pumped by a laser, in which the laser is a yttrium aluminium garnet laser, and with signal duty and peak power controlled by means of an amplitude, pulse width and pulse repetition interval modulation circuit comprising an acousto-optic modulator, - whereby the laser infrared illumination source (4,6) operates at shorter repetition intervals than the finite time period and the amplitude, pulse width and pulse repetition interval modulation circuit modulates the signal duty and the peak power so that the laser infrared illumination source (4,6) appears to the infrared sensors to be a real missile signature.
An assembly component comprising at least one substrate coated with at least one curable composition comprising: I. a first component comprising a resin having at least one functional group selected from the group consisting of β-ketoester and malonate functional groups, II. a second component comprising at least one curing agent having at least one aldehyde functional group, and III. a third component comprising at least one compound having amine functionality, salts thereof, or combinations thereof, the amine having primary or secondary amine functionality or combinations thereof. I. a first component comprising a resin having at least one functional group selected from the group consisting of β-ketoester and malonate functional groups, II. a second component comprising at least one curing agent having at least one aldehyde functional group, and III. a third component comprising at least one compound having amine functionality, salts thereof, or combinations thereof, the amine having primary or secondary amine functionality or combinations thereof.
A bicycle carrying rack, adapted for mounting to or from a vehicle, characterised in that the bicycle carrying rack comprises or includes, a fork receiving portion, adapted to mount to or from a vehicle load carrier and adapted to connect to and hold a fork of a bicycle, wherein the fork receiving portion allows the bicycle to be held in a first position with the bicycle substantially vertical, and a second position with the bicycle in or toward a horizontal position, the fork receiving portion can rotate the fork of the bicycle away from a straight-ahead position when in the first position, as it moves to the second position, movement from the first position to the second position is a rotational movement about a first axis; the fork receiving portion rotates about a second axis as it rotates the fork; there is a fork mounting portion between the fork receiving portion and the vehicle load carrier and a first mounting portion connected between the vehicle load carrier and the fork mounting portion, the fork mounting portion being rotationally connected to the first mounting portion to allow rotation about the first axis; the fork receiving portion being rotationally connected about the second axis to the fork mounting portion.
A vacuum pump having at least one Holweck stage which comprises a rotor member which forms the pump-active surface of the Holweck stage; and having at least one side channel pump stage which is arranged downstream of the Holweck stage in an axial direction and which comprises a plurality of rotor elements, wherein the rotor elements of the side channel pump stage are supported by the rotor member of the Holweck stage; and wherein the rotor member is supported by a rotor hub, characterized in that the rotor elements are arranged at an end of the rotor member which is formed by an end of the rotor member remote from the rotor hub.
A liquid test sample dispensing device, comprising: a body, the body comprising at least one side, a first end, a second end, and a plurality of micro-cavities, wherein the plurality of micro-cavities is formed in the at least one side of the body, further wherein each micro-cavity of the plurality of micro-cavities comprises an opening located on an outer portion of the at least one side of the body, the plurality of micro-cavities being substantially located between the first end and the second end of the body; and a capillary for collecting a patient's liquid test sample and dispensing the patient's liquid test sample into a reaction vessel for the conductance of at least one diagnostic assay, wherein a portion of the capillary is disposed through the second end of the body. a body, the body comprising at least one side, a first end, a second end, and a plurality of micro-cavities, wherein the plurality of micro-cavities is formed in the at least one side of the body, further wherein each micro-cavity of the plurality of micro-cavities comprises an opening located on an outer portion of the at least one side of the body, the plurality of micro-cavities being substantially located between the first end and the second end of the body; and a capillary for collecting a patient's liquid test sample and dispensing the patient's liquid test sample into a reaction vessel for the conductance of at least one diagnostic assay, wherein a portion of the capillary is disposed through the second end of the body.
An electrochemical cell comprising: an electrode assembly comprising a winding core, a first electrode, a second electrode, and a separator, the first electrode, the second electrode and the separator being wound around the winding core; a current collector connected to the first electrode; and a case that accommodates the wound electrode assembly and the current collector, wherein the winding core is welded to the current collector, the current collector is welded to the case, characterized in that the current collector includes an outer wall portion that extends around the current collector and has a diameter that is slightly larger than the inner diameter of the case and the current collector is press-fit into the case. an electrode assembly comprising a winding core, a first electrode, a second electrode, and a separator, the first electrode, the second electrode and the separator being wound around the winding core; a current collector connected to the first electrode; and a case that accommodates the wound electrode assembly and the current collector, wherein the winding core is welded to the current collector, the current collector is welded to the case, characterized in that the current collector includes an outer wall portion that extends around the current collector and has a diameter that is slightly larger than the inner diameter of the case and the current collector is press-fit into the case.
A yarn winder comprising: a yarn supplying portion for unwinding a spun yarn from a yarn supplying bobbin; a winding section for winding the spun yarn so as to form a package; a yarn storage section which is provided between the yarn supplying portion and the winding section to wind and store the spun yarn; a yarn joining section which is provided between the yarn supplying portion and the winding section to perform yarn joining of the spun yarn; and a controller for controlling a winding operation. performed by the winding section and the yarn joining by the yarn joining section, the controller conducting control so that the yarn joining by the yarn joining section and the yarn winding operation by the winding section are simultaneously performed, and a balloon regulator for regulating a balloon by contacting the spun yarn unwound from the yarn storage section toward the winding section side. a yarn supplying portion for unwinding a spun yarn from a yarn supplying bobbin; a winding section for winding the spun yarn so as to form a package; a yarn storage section which is provided between the yarn supplying portion and the winding section to wind and store the spun yarn; a yarn joining section which is provided between the yarn supplying portion and the winding section to perform yarn joining of the spun yarn; and a controller for controlling a winding operation. performed by the winding section and the yarn joining by the yarn joining section, the controller conducting control so that the yarn joining by the yarn joining section and the yarn winding operation by the winding section are simultaneously performed, and a balloon regulator for regulating a balloon by contacting the spun yarn unwound from the yarn storage section toward the winding section side.
A liquid immersion cooling system configured to immerse a plurality of electronic devices in a cooling liquid for direct cooling, the liquid immersion cooling system comprising: a cooling tank having an open space defined by a bottom wall and side walls; a plurality of arrayed housing parts (14a, 14b, 14c, 14d) formed by dividing the open space of the cooling tank with a plurality of inner partitions (13a, 13b, 13c, 13d) therein, each of the arrayed housing parts (14a, 14b, 14c, 14d) being configured to house at least one unit of the electronic device; and a lifting mechanism having an arm configured to lift at least the one unit of the electronic device from the housing part, and lowering the electronic device into the housing part, characterized in that the lifting mechanism includes a tower having a guide and a driving source for raising and lowering the arm, a slide mechanism attached to the cooling tank for movably supporting the tower with respect to the cooling tank in a horizontal plane located above the open space, and a stopper for restricting a movement of the tower so that a range where the tower moves in a width direction of the cooling tank does not substantially exceed at least a width of the open space. a cooling tank having an open space defined by a bottom wall and side walls; a plurality of arrayed housing parts (14a, 14b, 14c, 14d) formed by dividing the open space of the cooling tank with a plurality of inner partitions (13a, 13b, 13c, 13d) therein, each of the arrayed housing parts (14a, 14b, 14c, 14d) being configured to house at least one unit of the electronic device; and a lifting mechanism having an arm configured to lift at least the one unit of the electronic device from the housing part, and lowering the electronic device into the housing part, characterized in that the lifting mechanism includes a tower having a guide and a driving source for raising and lowering the arm, a slide mechanism attached to the cooling tank for movably supporting the tower with respect to the cooling tank in a horizontal plane located above the open space, and a stopper for restricting a movement of the tower so that a range where the tower moves in a width direction of the cooling tank does not substantially exceed at least a width of the open space.
Active light protection filter for welding shields, protective welding goggles or the like, having a filter element that can be electrically controlled with regard to the optical transmission thereof, wherein the filter element has an operative connection to the transmission control unit, the filter element that can be controlled being a liquid crystal element with a carrier layer glued to the liquid crystal element and a filter layer applied to the carrier layer, characterized in that the filter layer comprises a filter-active layer, consisting of several "sunscreen" films bonded over one another which as usual for widow-coatings are radiation-reflecting, adhesive and colour-neutral, - having nearly complete impermeability in the UV range, - nearly complete transmission in the visible range, and - continuously decreasing transmission both in the near infrared range (IR-A) as well as in the short-wave infrared range (IR-B) against greater wavelengths, the carrier layer being made of plastic, preferably PET and the filter layer being applied on the side of the carrier layer turned away from the liquid crystal element. - having nearly complete impermeability in the UV range, - nearly complete transmission in the visible range, and - continuously decreasing transmission both in the near infrared range (IR-A) as well as in the short-wave infrared range (IR-B) against greater wavelengths, the carrier layer being made of plastic, preferably PET and the filter layer being applied on the side of the carrier layer turned away from the liquid crystal element.
Device for holding a longitudinal chain system extending in a travel direction with a support cable and a contact wire held thereon in a height direction, comprising: - a frame that can be placed on a rail vehicle, characterized by - a boom that is held on the frame and is adjustable transversely to the travel direction in a transverse direction and transversely to the height direction, and - a support arm held in the transverse direction on the boom, with a first support arm element held on the boom and a second support arm element movably held opposite the first support arm element in the height direction, wherein a support element is held on the second support arm element, on which the longitudinal chain system can be placed against the height direction. - a frame that can be placed on a rail vehicle, characterized by - a boom that is held on the frame and is adjustable transversely to the travel direction in a transverse direction and transversely to the height direction, and - a support arm held in the transverse direction on the boom, with a first support arm element held on the boom and a second support arm element movably held opposite the first support arm element in the height direction, wherein a support element is held on the second support arm element, on which the longitudinal chain system can be placed against the height direction.
A cyclic amine derivative represented by a general formula or a pharmacologically acceptable salt thereof: wherein carbon marked with * is asymmetric carbon; and A represents a group represented by a general formula (IIa), (IIb) or (IIc): wherein R 1 represents a methyl group or an ethyl group optionally substituted with a halogen atom, R 2 represents a hydrogen atom or an alkylcarbonyl group having 2 to 5 carbon atoms, each R 3 independently represents a methyl group or an ethyl group, and n represents 1 or 2.
A holding method of holding an onboard camera that includes protruding portions (124A, 125L, 125R) having cylindrical faces respectively formed on a front face and left and right opposite side faces of a housing, by pressing the cylindrical faces of the respective protruding portions (124A, 125L, 125R) of the onboard camera against notches (216A-1, 243L-1, 243R-1) at insertion holes (216A, 243L, 243R) formed at positions of a bracket corresponding to positions of the respective protruding portions (124A, 125L, 125R) by use of forces applied by pressurizing members (244L, 244R) provided to the bracket, the pressurizing members (244L, 244R) applying the forces to predetermined positions of the housing, characterized in that the positions to which the pressurizing members (244L, 244R) apply the forces are located rearward of the protruding portion provided on the front face of the housing and located forward of the protruding portions (125L, 125R) provided on the left and right opposite side faces of the housing. by pressing the cylindrical faces of the respective protruding portions (124A, 125L, 125R) of the onboard camera against notches (216A-1, 243L-1, 243R-1) at insertion holes (216A, 243L, 243R) formed at positions of a bracket corresponding to positions of the respective protruding portions (124A, 125L, 125R) by use of forces applied by pressurizing members (244L, 244R) provided to the bracket, the pressurizing members (244L, 244R) applying the forces to predetermined positions of the housing, characterized in that the positions to which the pressurizing members (244L, 244R) apply the forces are located rearward of the protruding portion provided on the front face of the housing and located forward of the protruding portions (125L, 125R) provided on the left and right opposite side faces of the housing.