mhurhangee/ep-ind-claims huggingface dataset:
A method in a wireless terminal, the method comprising: receiving a first indication from a serving base station, the first indication including information relating to transmission power on resource elements transmitted on orthogonal frequency division multiplexed symbols bearing cell-specific reference signal; receiving a second indication from the serving base station, the second indication including information relating to the transmission power on resource elements transmitted on orthogonal frequency division multiplexed symbols not bearing a cell-specific reference signal; receiving a third indication from the serving base station, the third indication including information relating to transmission power on resources on orthogonal frequency division multiplexed symbols corresponding to a certain set of resource blocks; receiving coded data transmissions from the serving base station; and decoding the coded data transmissions based on the indications. receiving a first indication from a serving base station, the first indication including information relating to transmission power on resource elements transmitted on orthogonal frequency division multiplexed symbols bearing cell-specific reference signal; receiving a second indication from the serving base station, the second indication including information relating to the transmission power on resource elements transmitted on orthogonal frequency division multiplexed symbols not bearing a cell-specific reference signal; receiving a third indication from the serving base station, the third indication including information relating to transmission power on resources on orthogonal frequency division multiplexed symbols corresponding to a certain set of resource blocks; receiving coded data transmissions from the serving base station; and decoding the coded data transmissions based on the indications.
A straddle electric vehicle which drives by a driving power generated by an electric motor, comprising: a charging connector to which an outside connector connected to an outside electric power supply may be detachably attached; a battery which charges therein electric power supplied from the outside electric power supply, when the outside connector is attached to the charging connector, and discharges the electric power stored therein to supply the electric power to the electric motor; a seat on which a passenger is seated; and a battery case disposed between the seat and a front wheel to accommodate the battery, wherein the charging connector is attached to an upper portion of the battery case, and a charging port of the charging connector is positioned forward relative to and above the seat., wherein an upper surface of the battery case has a protruding section, and wherein the charging connector is accommodated in the protruding section, and the charging port is provided in a rear side of the protruding section. a charging connector to which an outside connector connected to an outside electric power supply may be detachably attached; a battery which charges therein electric power supplied from the outside electric power supply, when the outside connector is attached to the charging connector, and discharges the electric power stored therein to supply the electric power to the electric motor; a seat on which a passenger is seated; and a battery case disposed between the seat and a front wheel to accommodate the battery, wherein the charging connector is attached to an upper portion of the battery case, and a charging port of the charging connector is positioned forward relative to and above the seat., wherein an upper surface of the battery case has a protruding section, and wherein the charging connector is accommodated in the protruding section, and the charging port is provided in a rear side of the protruding section.
A method of producing a pellet, in particular for a catalyst and/or for a static mixer, comprising the method steps: cutting to shape and/or shaping at least one layer of metal foam material into a pellet shape, characterized in that the pellet has a volume of 0.8 mm 3 to 15 cm 3 and the porosity of the pellet is greater than or equal to 70%, with the porosity of the pellet being determined by means of an image analysis with reference to a transverse cross-section of the pellet in that an image of the cross-section is taken and the image surfaces with and without material are put into relationship with one another. cutting to shape and/or shaping at least one layer of metal foam material into a pellet shape, characterized in that the pellet has a volume of 0.8 mm 3 to 15 cm 3 and the porosity of the pellet is greater than or equal to 70%, with the porosity of the pellet being determined by means of an image analysis with reference to a transverse cross-section of the pellet in that an image of the cross-section is taken and the image surfaces with and without material are put into relationship with one another.
An opioid growth factor receptor (OGFR) antagonist for use in a method for promoting bone formation or reducing bone destruction at a site of injury or site of surgical intervention, wherein the OGFR antagonist comprises an siRNA or shRNA which inhibits the expression of OGFR, and further wherein the OGFR antagonist is administered locally to the site of injury or site of surgical intervention.
Light-emitting or light-receiving diode, comprising at least: - a first and second doped semi-conductor portions (120, 126) forming a p-n junction, a first part of the first semi-conductor portion being arranged between a second part of the first semi-conductor portion and the second semi-conductor portion; - dielectric portions covering side walls of the second semi-conductor portion and the first part of the first semi-conductor portion; - a first electrode arranged against the outer side walls of the dielectric portions and against side walls of the second part of the first semi-conductor portion, electrically connected to the first semi-conductor portion only by a contact with the side walls of the second part of the first semi-conductor portion, and passing through the entire thickness of the first semi-conductor portion; - a second optically reflecting electrode, electrically connected to the second semi-conductor portion such that the second semi-conductor portion is arranged between the second electrode and the first semi-conductor portion, and comprising a first part entirely covering a face of the second semi-conductor portion and of which side walls are covered by the dielectric portions, and a second part arranged on the first part; and wherein a light is intended to be emitted or received by the diode through the first semi-conductor portion. - a first and second doped semi-conductor portions (120, 126) forming a p-n junction, a first part of the first semi-conductor portion being arranged between a second part of the first semi-conductor portion and the second semi-conductor portion; - dielectric portions covering side walls of the second semi-conductor portion and the first part of the first semi-conductor portion; - a first electrode arranged against the outer side walls of the dielectric portions and against side walls of the second part of the first semi-conductor portion, electrically connected to the first semi-conductor portion only by a contact with the side walls of the second part of the first semi-conductor portion, and passing through the entire thickness of the first semi-conductor portion; - a second optically reflecting electrode, electrically connected to the second semi-conductor portion such that the second semi-conductor portion is arranged between the second electrode and the first semi-conductor portion, and comprising a first part entirely covering a face of the second semi-conductor portion and of which side walls are covered by the dielectric portions, and a second part arranged on the first part;
Solventborne primer surfacer characterized in that it comprises at least one additive preparable by reacting (a) at least one alpha,omega-hydroxy-functionalized oligoester which possesses an OH number of 30 to 160 mg KOH/g, a theoretical carbon-carbon double bond content of 1 to 2.5 mmol/g, a number-average molecular weight of 1000 to 3000 g/mol, and a weight-average molecular weight of 2800 to 10 000 g/mol, and (b) at least one alkoxysilane of the structural formula A-R-Si(R') x (OR") 3-x where A is an OH-reactive functional group, namely an isocyanate group or an epoxide group, R is an aliphatic radical having 2 to 12 carbon atoms, a cycloaliphatic radical having 3 to 12 carbon atoms, an aromatic radical having 6 to 12 carbon atoms, or an araliphatic radical having 7 to 18 carbon atoms, the radical R' is selected from the group of C 1 to C 12 alkyl radicals, R" is a methyl or ethyl radical, and x is 0 to 2, with the proviso that at least 90 mol% of all the OH groups of the alpha,omega-hydroxy-functionalized oligoester have been reacted with an OH-reactive functional group A, and, moreover, the sum of the weight percentage fractions of all these additives is 1.5 to 10 wt%, based on the total amount of the solventborne primer surfacer. (a) at least one alpha,omega-hydroxy-functionalized oligoester which possesses an OH number of 30 to 160 mg KOH/g, a theoretical carbon-carbon double bond content of 1 to 2.5 mmol/g, a number-average molecular weight of 1000 to 3000 g/mol, and a weight-average molecular weight of 2800 to 10 000 g/mol, and (b) at least one alkoxysilane of the structural formula A is an OH-reactive functional group, namely an isocyanate group or an epoxide group, R is an aliphatic radical having 2 to 12 carbon atoms, a cycloaliphatic radical having 3 to 12 carbon atoms, an aromatic radical having 6 to 12 carbon atoms, or an araliphatic radical having 7 to 18 carbon atoms, the radical R' is selected from the group of C 1 to C 12 alkyl radicals, R" is a methyl or ethyl radical, and x is 0 to 2,
A machine-implemented method, comprising: executing a predecessor version of a client software application while installing a successor version of the client software application; receiving an update handshake in the successor version from the predecessor version, wherein the update handshake starts the successor version; receiving a predecessor state data set from the predecessor version to the successor version as part of the update handshake, wherein the predecessor state data set includes a database state or current tasks executing, by the successor version, a runtime validation of the successor version to assure that the successor version was installed properly, while the predecessor version of the client software application is executing, and sending, by the successor version, a validation notice to the predecessor version indicating the results of the runtime validation; and switching an application entry point from the predecessor version to the successor version when the runtime validation is successful, while uninstalling the predecessor version, so that queries or commands to the software application go to the successor version. executing a predecessor version of a client software application while installing a successor version of the client software application; receiving an update handshake in the successor version from the predecessor version, wherein the update handshake starts the successor version; receiving a predecessor state data set from the predecessor version to the successor version as part of the update handshake, wherein the predecessor state data set includes a database state or current tasks executing, by the successor version, a runtime validation of the successor version to assure that the successor version was installed properly, while the predecessor version of the client software application is executing, and sending, by the successor version, a validation notice to the predecessor version indicating the results of the runtime validation; and switching an application entry point from the predecessor version to the successor version when the runtime validation is successful, while uninstalling the predecessor version, so that queries or commands to the software application go to the successor version.
An apparatus for cryogenic distillation of a gaseous mixture comprising a purification unit for purifying the gaseous mixture in a system with multiple adsorbent cylinders operating according to a cycle comprising a pressurising phase, a system of columns (MP, AR, LP), a capacity, means for sending a cryogenic liquid (19, V19, 29, V29) into the capacity, only outside a pressurisation phase, means for sending the vaporised liquid (2, V2) from the capacity to a column of the system only during at least part of the period in which one of the bottles is in pressurisation phase, a vaporiser into the capacity to vaporise the liquid content, and means for sending a calorigenic gas to the vaporiser and means for withdrawing liquid from the capacity characterised in that it comprises means (29, V29) to send the liquified calorigenic gas into the vaporiser to the capacity.
A method of treating incinerated waste, the method comprising: size separating at least some of the incinerated waste, according to a first separation size, into a first undersize fraction comprising particles smaller than the first separation size and into a first oversize fraction comprising particles larger than the first separation size; size reducing at least some of the first oversize fraction into a size-reduced first oversize fraction; size separating at least some of the size-reduced first oversize fraction, according to a second separation size, into a second undersize fraction comprising particles smaller than the second separation size and into a second oversize fraction comprising particles larger than the second separation size; combining at least some of the first undersize fraction and at least some of the second undersize fraction into the fine fraction; and extracting metal from at least some of the fine fraction, wherein extracting metal from the at least some of the fine fraction comprises extracting metal by froth flotation (32, 36) of the at least some of the fine fraction. size separating at least some of the incinerated waste, according to a first separation size, into a first undersize fraction comprising particles smaller than the first separation size and into a first oversize fraction comprising particles larger than the first separation size; size reducing at least some of the first oversize fraction into a size-reduced first oversize fraction; size separating at least some of the size-reduced first oversize fraction, according to a second separation size, into a second undersize fraction comprising particles smaller than the second separation size and into a second oversize fraction comprising particles larger than the second separation size; combining at least some of the first undersize fraction and at least some of the second undersize fraction into the fine fraction; and extracting metal from at least some of the fine fraction, wherein extracting metal from the at least some of the fine fraction comprises extracting metal by froth flotation (32, 36) of the at least some of the fine fraction.
A method for controlling arc welding where an arc is created between a welding wire as a consumable electrode and a base material as an object to be welded, wherein short-circuit welding is started either at a time when the start of welding is commanded or a time when the start of welding is commanded and a contact between the welding wire and the base material is detected, and the short-circuit welding is switched to pulse welding when a predetermined time has passed, characterized in that, a period to perform the pulse welding includes a first pulse-welding period and a second pulse-welding period following the first pulse-welding period; and at least one of a pulse rising slope and a pulse falling slope in the first pulse-welding period is controlled to be gentler than at least one of a pulse rising slope and a pulse falling slope in the second pulse-welding period, wherein in a period to perform the short-circuit welding either at the time when the start of welding is commanded or the time when the start of welding is commanded and the contact between the welding wire and the base material is detected, the welding wire is fed at a speed in alternating forward and backward directions at a predetermined frequency and amplitude.
A bioparticle measuring method comprising: forming on a solid phase a complex, wherein said complex comprises: a bioparticle sampled from a specimen; a capturer containing a tag which binds to the solid phase and a binder which is capable of binding to the bioparticle; and a detector containing a binder which is capable of binding to the bioparticle and a labeled substance; dissociating a part or a whole of the complex from the solid phase to prepare a measurement sample containing a part or a whole of the complex not fixed on the solid phase; and detecting signals from the measurement sample by a flow cytometer, wherein the bioparticle is an extracellular vesicle, wherein the binder in the capturer is at least one selected from the group consisting of an antibody and a lectin, and wherein the binder in the detector is at least one selected from the group consisting of an antibody and a lectin. forming on a solid phase a complex, wherein said complex comprises: a bioparticle sampled from a specimen; a capturer containing a tag which binds to the solid phase and a binder which is capable of binding to the bioparticle; and a detector containing a binder which is capable of binding to the bioparticle and a labeled substance; a bioparticle sampled from a specimen; a capturer containing a tag which binds to the solid phase and a binder which is capable of binding to the bioparticle; and a detector containing a binder which is capable of binding to the bioparticle and a labeled substance; dissociating a part or a whole of the complex from the solid phase to prepare a measurement sample containing a part or a whole of the complex not fixed on the solid phase; and detecting signals from the measurement sample by a flow cytometer,
A controller comprising: a machining data collector configured to collect machining data comprising a date and a time when at least one machined portion that is a part of a workpiece and that was set as a learning target was machined by a machine tool; a temperature collector configured to collect, at predetermined time intervals, temperature data obtained at a plurality of positions on the machine tool; a dimension data input receiver configured to receive an input of dimension measurement data obtained by measuring a dimension of the at least one machined portion after the at least one machined portion has been machined; a learning data generator configured to generate learning data comprising the machining data and the dimension measurement data; and a machine learning executor configured to execute a machine learning based on the temperature data and the learning data, and configured to calculate a correction coefficient used in a thermal displacement correction equation for correcting a displacement caused by a change in a temperature of the machine tool. a machining data collector configured to collect machining data comprising a date and a time when at least one machined portion that is a part of a workpiece and that was set as a learning target was machined by a machine tool; a temperature collector configured to collect, at predetermined time intervals, temperature data obtained at a plurality of positions on the machine tool; a dimension data input receiver configured to receive an input of dimension measurement data obtained by measuring a dimension of the at least one machined portion after the at least one machined portion has been machined; a learning data generator configured to generate learning data comprising the machining data and the dimension measurement data; and a machine learning executor configured to execute a machine learning based on the temperature data and the learning data, and configured to calculate a correction coefficient used in a thermal displacement correction equation for correcting a displacement caused by a change in a temperature of the machine tool.
A linkage limiting assembly applied in a vacuum cleaner, which is mounted within a frame of the vacuum cleaner, wherein the linkage limiting assembly comprises a triggering button arranged at a rear end of the frame, a pushing member configured to push an electric fan assembly or a dust barrel of the vacuum cleaner upwards, a limiting member configured to limit a maximum stroke of the electric fan assembly or the dust barrel, and a linking member connecting the triggering button with the limiting member in a force transmission manner; wherein the electric fan assembly or the dust barrel has a buckling structure at a lower end thereof opposite to the limiting member, the limiting member is mounted within the frame and is rotatable back and forth, characterized in that one end of the linking member away from the triggering button abuts against the limiting member for driving the limiting member to perform a rotating action; and one side of the limiting member facing the buckling structure has a first flange buckling portion for limiting a minimum stroke of the buckling structure, and the frame has a second flange buckling portion inside for limiting a maximum stroke of the buckling structure. the electric fan assembly or the dust barrel has a buckling structure at a lower end thereof opposite to the limiting member, the limiting member is mounted within the frame and is rotatable back and forth, characterized in that one end of the linking member away from the triggering button abuts against the limiting member for driving the limiting member to perform a rotating action; and one side of the limiting member facing the buckling structure has a first flange buckling portion for limiting a minimum stroke of the buckling structure, and the frame has a second flange buckling portion inside for limiting a maximum stroke of the buckling structure.