mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a target Access and mobility Management Function, AMF, entity (New AMF) in a core network to communicate network function, NF, utilization information with a source AMF entity (Old AMF) during a handover of AMF entity from the source AMF entity to the target AMF entity, comprising: receiving (1500, 5-10), by the target AMF entity, at least one old NF identifier, ID, from the source AMF entity that corresponds to an old NF entity serving a user equipment, UE; determining (1502, 10-10) to either use the at least one old NF ID or to use at least one new NF ID that corresponds to a new NF entity of a same NF type as the old NF entity; and communicating (1504, 10-10), by the target AMF entity to the source AMF entity, information that indicates to the source AMF entity whether the target AMF entity uses the at least one old NF ID or uses the at least one new NF ID. receiving (1500, 5-10), by the target AMF entity, at least one old NF identifier, ID, from the source AMF entity that corresponds to an old NF entity serving a user equipment, UE; determining (1502, 10-10) to either use the at least one old NF ID or to use at least one new NF ID that corresponds to a new NF entity of a same NF type as the old NF entity; and communicating (1504, 10-10), by the target AMF entity to the source AMF entity, information that indicates to the source AMF entity whether the target AMF entity uses the at least one old NF ID or uses the at least one new NF ID.
An automatic analyzer comprising: a light source that irradiates a reaction container with light, the reaction container being arranged at a photometric position and housing mixture solution of a sample and a reagent; and detectors (44, 45a, 45b) that detect scattered light or transmitted light from the mixture solution, one or more pairs of the detectors (45a, 45b) being arranged symmetrically to each other across an optical axis of irradiation light from the light source at an equal angle or an equal interval, and an averaged value of light quantity data and/or a sum thereof from the respective detectors (45a, 45b) being used for calculation of a concentration of a measurement target substance in the mixture solution, one or more pairs of the detectors (45a, 45b) being arranged on the same base member, and the detectors (45a, 45b) being arranged symmetrically to each other on the same base member across the optical axis at the equal angle or the equal interval, characterized in that the base member on which the detectors (45a, 45b) are arranged and a base member on which the light source is arranged being arranged on the same base; and further comprising computer means arranged so that if a ratio of light quantity data and/or difference thereof from the respective detectors arranged symmetrically to each other at the equal angle or the equal interval across the optical axis of the irradiation light from the light source is out of a previously-set range, the light quantity data is not used for the calculation of the concentration of the measurement target substance. a light source that irradiates a reaction container with light, the reaction container being arranged at a photometric position and housing mixture solution of a sample and a reagent; and detectors (44, 45a, 45b) that detect scattered light or transmitted light from the mixture solution, one or more pairs of the detectors (45a, 45b) being arranged symmetrically to each other across an optical axis of irradiation light from the light source at an equal angle or an equal interval, and an averaged value of light quantity data and/or a sum thereof from the respective detectors (45a, 45b) being used for calculation of a concentration of a measurement target substance in the mixture solution, one or more pairs of the detectors (45a, 45b) being arranged on the same base member, and the detectors (45a, 45b) being arranged symmetrically to each other on the same base member across the optical axis at the equal angle or the equal interval, characterized in that the base member on which the detectors (45a, 45b) are arranged and a base member on which the light source is arranged being arranged on the same base; and further comprising computer means arranged so that if a ratio of light quantity data and/or difference thereof from the respective detectors arranged symmetrically to each other at the equal angle or the equal interval across the optical axis of the irradiation light from the light source is out of a previously-set range, the light quantity data is not used for the calculation of the concentration of the measurement target substance.
A transfer lamination process using a transfer lamination device, which includes a transfer unit and a transfer ribbon that includes a carrier layer and a transfer layer attached to the carrier layer, the transfer lamination process comprising: transferring a transfer section of the transfer layer from the carrier layer to a first surface of a substrate using the transfer unit including: heating the transfer section and pressing the transfer section against the first surface of the substrate using the transfer unit; and detaching the carrier layer from the transfer section; characterised in that the transfer lamination device further includes a substrate rotator and in that the transfer lamination process further comprises: inverting the substrate using the substrate rotator; and heating at least a portion of a second surface of the substrate that is opposite the first surface using the transfer unit without transferring the transfer layer to the portion of the second surface. transferring a transfer section of the transfer layer from the carrier layer to a first surface of a substrate using the transfer unit including: heating the transfer section and pressing the transfer section against the first surface of the substrate using the transfer unit; and detaching the carrier layer from the transfer section; heating the transfer section and pressing the transfer section against the first surface of the substrate using the transfer unit; and detaching the carrier layer from the transfer section; characterised in that the transfer lamination device further includes a substrate rotator and in that the transfer lamination process further comprises: inverting the substrate using the substrate rotator; and heating at least a portion of a second surface of the substrate that is opposite the first surface using the transfer unit without transferring the transfer layer to the portion of the second surface. inverting the substrate using the substrate rotator; and heating at least a portion of a second surface of the substrate that is opposite the first surface using the transfer unit without transferring the transfer layer to the portion of the second surface.
An engine-driven working machine in which an engine is housed in an inside of an outer case, characterized by comprising: support means that supports the outer case and the engine, wherein the support means includes a first vibration isolating support portion that is disposed between the engine and the outer case, and supports the engine, a second vibration isolating support portion that is formed integrally with the first vibration isolating support portion, and supports the outer case, and a groove portion that is formed between the first vibration isolating support portion and the second vibration isolating support portion, and allows a fitting portion of the outer case to be fitted to the groove portion. support means that supports the outer case and the engine, wherein the support means includes a first vibration isolating support portion that is disposed between the engine and the outer case, and supports the engine, a second vibration isolating support portion that is formed integrally with the first vibration isolating support portion, and supports the outer case, and a groove portion that is formed between the first vibration isolating support portion and the second vibration isolating support portion, and allows a fitting portion of the outer case to be fitted to the groove portion.
A heat treatable coated article comprising: a glass substrate; a coating applied directly to a major surface of the glass substrate from a paint and cured, wherein the curing includes heating the glass substrate with the paint applied thereon at a temperature of 300 degrees C for no more than 15 minutes, or wherein the curing includes heating the glass substrate with the paint applied thereon at a temperature of 200-300 degrees C for no more than 10 minutes, wherein the coating once cured comprising 5-10 wt. % of an organic material, based on a total weight of the coating and wherein the coating comprises a pigment and a glass frit, wherein the frit comprises 40-60 wt. % of a zinc-based material and the coating has a whitish appearance in an as-deposited state or wherein the frit comprises 40-60 wt. % of a bismuth-based material and the coating has a blackish appearance in an as-deposited state, wherein heat treatable means that the coated article may be thermal tempered and/or heat strengthened. a glass substrate; a coating applied directly to a major surface of the glass substrate from a paint and cured, wherein the curing includes heating the glass substrate with the paint applied thereon at a temperature of 300 degrees C for no more than 15 minutes, or wherein the curing includes heating the glass substrate with the paint applied thereon at a temperature of 200-300 degrees C for no more than 10 minutes, wherein the coating once cured comprising 5-10 wt. % of an organic material, based on a total weight of the coating and wherein the coating comprises a pigment and a glass frit, wherein the frit comprises 40-60 wt. % of a zinc-based material and the coating has a whitish appearance in an as-deposited state or wherein the frit comprises 40-60 wt. % of a bismuth-based material and the coating has a blackish appearance in an as-deposited state, wherein heat treatable means that the coated article may be thermal tempered and/or heat strengthened.
An article of footwear comprising: an upper and a sole; the sole comprising an outer member having an outer surface exposed to the ground, the outer member also having an inner surface opposite the outer surface, the inner surface disposed closer to a wearer's foot than the outer surface when the article of footwear is worn by the wearer; the outer member including at least a first flex groove formed as an elongate recess in the outer surface of the outer member, the inner surface of the outer member including an upwardly projecting rib formed by the first flex groove; the first flex groove defining a first flex groove region disposed proximate the first flex groove, the first flex groove also separating a first forefoot region from a second forefoot region; the sole further comprising a reinforcing member adjacent to the inner surface of the outer member; the reinforcing member having a first portion disposed in the first forefoot region, the reinforcing member also having a second portion disposed in the second forefoot region, and the reinforcing member having a first bridge portion disposed in the first flex groove region and joining the first portion and the second portion together; wherein the lateral width of the first bridge portion is less than the lateral width of the first portion, and wherein the lateral width of the first bridge portion is less than the lateral width of the second portion; and wherein the first bridge portion includes an upward curvature conforming with a curvature of the upwardly projecting rib formed by the first flex groove. an upper and a sole; the sole comprising an outer member having an outer surface exposed to the ground, the outer member also having an inner surface opposite the outer surface, the inner surface disposed closer to a wearer's foot than the outer surface when the article of footwear is worn by the wearer; the outer member including at least a first flex groove formed as an elongate recess in the outer surface of the outer member, the inner surface of the outer member including an upwardly projecting rib formed by the first flex groove; the first flex groove defining a first flex groove region disposed proximate the first flex groove, the first flex groove also separating a first forefoot region from a second forefoot region; the sole further comprising a reinforcing member adjacent to the inner surface of the outer member; the reinforcing member having a first portion disposed in the first forefoot region, the reinforcing member also having a second portion disposed in the second forefoot region, and the reinforcing member having a first bridge portion disposed in the first flex groove region and joining the first portion and the second portion together; wherein the lateral width of the first bridge portion is less than the lateral width of the first portion, and wherein the lateral width of the first bridge portion is less than the lateral width of the second portion; and wherein the first bridge portion includes an upward curvature conforming with a curvature of the upwardly projecting rib formed by the first flex groove.
A compound of formula wherein the dotted line represents a single or double bond and one R 2 is a hydrogen atom and the other is a hydrogen atom or a methyl group.
Illumination device for variable illumination in different spacial directions having a pump radiation unit (22, 25, 30, 31), which has a pump radiation source for emitting pump radiation, a luminescent element for at least partial conversion of the pump radiation into illumination light, which is emitted in response to excitation with the pump radiation on an illumination light emission surface of the luminescent element, optics which are assigned to the luminescent element and respectively direct illumination light ray bundles, which come from different positions of the illumination light emission surface and strike the optics on a luminescent material side, into a different spatial direction of the propagation on an illumination side opposite to the luminescent material side, i.e. they convert a position distribution on the illumination light emission surface into an angular distribution on the illumination side, wherein the pump radiation unit (22, 25, 30, 31) is configured to respectively emit a pump ray bundle adjustably in different spatial directions, which pump ray bundles are coupled in on the illumination side, i.e. are guided by the optics onto the illumination light emission surface of the luminescent element, so that the optics convert the angular distribution on the illumination side into a position distribution on the illumination light emission surface, i.e. they direct the pump ray bundles emitted in different spatial directions onto different positions of the illumination light emission surface, so that different positions of the luminescent element can be adjustably excited, wherein the pump radiation unit (22, 25, 30, 31) has an input coupling mirror, via which the pump ray bundles are coupled in and which is to this end arranged in a beam path of the illumination light ray bundles, characterized in that the pump radiation unit has a deviating mirror, which a primary ray bundle emitted by the pump radiation source strikes and is deviated therefrom as a function of a mirror setting as one of the pump ray bundles, wherein the deviating mirror is arranged outside the beam path of the illumination light ray bundles, and the input coupling mirror is arranged after the deviating mirror as a part fixed in position and orientation in the beam path of the illumination light ray bundles, and in that the pump radiation unit (22, 25, 30, 31) has a relay lens system, which is arranged between the deviating mirror and the input coupling mirror.
A labelling apparatus for labelling containers, comprising: a gripper cylinder for transferring labels having glue applied thereto to the containers; a non-corotating first pneumatic line for supplying compressed air to gripping devices arranged circumferentially on the gripper cylinder; a stationary device for distributing media to provide compressed air; and a first regulating valve for adjusting the supply of compressed air to the gripping devices, wherein the first regulating valve is integrated into the first pneumatic line and jointly connected to the device for distributing media, in particular by means of a detachable snap-in plug connector or a detachable screw connector, so that the first pneumatic line with the first regulating valve can be disassembled from the labelling apparatus separately from the associated gripper cylinder or together with it.
A platform to manage power comprising: a processor; a plurality of devices (76,78), each of the plurality of devices comprising logic to place the device in an idle state, receive a notification of a next active window associated with a platform including the device and a processor, and determine whether to initiate an exit of the device from the idle state based at least in part on the next active window; a notification module configured: to determine a next active window for the platform wherein the active window is a period of time when at least one of the processor or the platform is in an active state; to notify one or more of the plurality of devices (74,76, 78) of the next active window; and to notify one or more of the plurality of devices (74, 76,78) of an onset of the next active window. a processor; a plurality of devices (76,78), each of the plurality of devices comprising logic to place the device in an idle state, receive a notification of a next active window associated with a platform including the device and a processor, and determine whether to initiate an exit of the device from the idle state based at least in part on the next active window; a notification module configured: to determine a next active window for the platform wherein the active window is a period of time when at least one of the processor or the platform is in an active state; to notify one or more of the plurality of devices (74,76, 78) of the next active window; and to notify one or more of the plurality of devices (74, 76,78) of an onset of the next active window. to determine a next active window for the platform wherein the active window is a period of time when at least one of the processor or the platform is in an active state; to notify one or more of the plurality of devices (74,76, 78) of the next active window; and to notify one or more of the plurality of devices (74, 76,78) of an onset of the next active window.
Process for manufacturing recombinant human Glycoproteins in Tetrahymena comprising the steps of: a) Transformation of Tetrahymena cells with recombinant DNA which comprises at least one functional gene encoding a human glycoprotein, b) Cultivating the recombinant Tetrahymena cells and expression of the genes, and c) Isolation of the glycoproteins. a) Transformation of Tetrahymena cells with recombinant DNA which comprises at least one functional gene encoding a human glycoprotein, b) Cultivating the recombinant Tetrahymena cells and expression of the genes, and c) Isolation of the glycoproteins.
A method of producing noble metal-supported powder, comprising: preparing a slurry by mixing noble metal-supported powder particles and a binder with each other in a liquid; and dispersing the noble metal-supported powder particles by applying vibrations to the slurry, and thereafter, spray drying the slurry while keeping a state where the noble metal-supported powder particles are dispersed, wherein degree of dispersion of the noble metal-supported powder particles in the slurry is set at 33% or more by applying the vibrations to the slurry, as the binder, one containing inorganic oxide as a main component, in which a mean particle diameter is within a range from 1/10 to 10 times a mean particle diameter of the noble metal-supported powder particles, is used, a mixing ratio of the noble metal-supported powder particles and the binder is set within a range from 10:90 to 90:10, and a mean particle diameter of the noble metal-supported powder particles is 90 nm or more to 550 nm or less. preparing a slurry by mixing noble metal-supported powder particles and a binder with each other in a liquid; and dispersing the noble metal-supported powder particles by applying vibrations to the slurry, and thereafter, spray drying the slurry while keeping a state where the noble metal-supported powder particles are dispersed, wherein degree of dispersion of the noble metal-supported powder particles in the slurry is set at 33% or more by applying the vibrations to the slurry, as the binder, one containing inorganic oxide as a main component, in which a mean particle diameter is within a range from 1/10 to 10 times a mean particle diameter of the noble metal-supported powder particles, is used, a mixing ratio of the noble metal-supported powder particles and the binder is set within a range from 10:90 to 90:10, and a mean particle diameter of the noble metal-supported powder particles is 90 nm or more to 550 nm or less.
A laminating station comprising a first roll, a second roll parallel to said first roll, a biasing arrangement for relatively biasing the first and second rolls (4, 8) together, a depositing arrangement which serves to deposit a layer at one side of a substrate prior to said substrate and said layer entering a nip between said first and second rolls (4, 8), a belt-guiding arrangement (14, 16) extending parallelly to said first roll, leftmost and rightmost endless belts extending over said first roll and said belt guiding arrangement (14, 16) and through said nip, and, characterised in that between said leftmost and rightmost endless belts, at least one intermediate endless belt extends over said first roll and said belt guiding arrangement (14, 16) and through said nip.
A power converter comprising: a converter circuit converting an alternating current to a direct current; a reactor electrically connected to one of output terminals of the converter circuit; a capacitor electrically connected to the other output terminal of the converter circuit and the reactor; and an inverter circuit electrically connected to the capacitor and converts the direct current to an alternating current, wherein the capacitor is a film capacitor, and the capacitor and the reactor are mounted on the same circuit board; characterized in that the capacitor and the reactor are adjacent to each other, the converter circuit, the capacitor, the reactor, and the inverter circuit are mounted on the circuit board in a two-stage grid, the converter circuit and the reactor are mounted on an identical stage of the grid, the inverter circuit and the capacitor are mounted on a stage different from a stage on which the converter circuit is mounted in the grid, and the converter circuit and the inverter circuit are adjacent to each other, and the reactor and the capacitor are adjacent to each other, in the grid. a converter circuit converting an alternating current to a direct current; a reactor electrically connected to one of output terminals of the converter circuit; a capacitor electrically connected to the other output terminal of the converter circuit and the reactor; and an inverter circuit electrically connected to the capacitor and converts the direct current to an alternating current, wherein the capacitor is a film capacitor, and the capacitor and the reactor are mounted on the same circuit board; characterized in that the capacitor and the reactor are adjacent to each other, the converter circuit, the capacitor, the reactor, and the inverter circuit are mounted on the circuit board in a two-stage grid, the converter circuit and the reactor are mounted on an identical stage of the grid, the inverter circuit and the capacitor are mounted on a stage different from a stage on which the converter circuit is mounted in the grid, and the converter circuit and the inverter circuit are adjacent to each other, and the reactor and the capacitor are adjacent to each other, in the grid.