mhurhangee/ep-ind-claims huggingface dataset:
A mobile communication device, comprising: a wireless module configured to perform wireless transmissions and receptions to and from a first service network, wherein the first service network is a mobile communication system utilizing a wireless technology other than the long term evolution, LTE, technology; and a controller module configured to receive, from the first service network, a handover request message for handing over from the first service network to a second service network via the wireless module; the controller module being configured to apply configurations of dedicated radio resources and common radio resources in the handover request message; wherein the second service network comprises an LTE system, and the handover request message comprises an RRCConnectionReconfiguration message; wherein the configurations of the dedicated radio resources are applied after the configurations of the common radio resources; wherein the controller module is further configured to determine whether the dedicated radio resources comprise at least one of the common radio resources, and the configurations of the common radio resources are configured to be applied except for the common radio resources comprised in the dedicated radio resources; or wherein the controller module is further configured to determine whether the common radio resources comprise at least one of the dedicated radio resources, and the configurations of the dedicated radio resources are configured to be applied except for the dedicated radio resources comprised in the common radio resources. a wireless module configured to perform wireless transmissions and receptions to and from a first service network, wherein the first service network is a mobile communication system utilizing a wireless technology other than the long term evolution, LTE, technology; and a controller module configured to receive, from the first service network, a handover request message for handing over from the first service network to a second service network via the wireless module; the controller module being configured to apply configurations of dedicated radio resources and common radio resources in the handover request message; wherein the second service network comprises an LTE system, and the handover request message comprises an RRCConnectionReconfiguration message; wherein the configurations of the dedicated radio resources are applied after the configurations of the common radio resources; wherein the controller module is further configured to determine whether the dedicated radio resources comprise at least one of the common radio resources, and the configurations of the common radio resources are configured to be applied except for the common radio resources comprised in the dedicated radio resources; or wherein the controller module is further configured to determine whether the common radio resources comprise at least one of the dedicated radio resources, and the configurations of the dedicated radio resources are configured to be applied except for the dedicated radio resources comprised in the common radio resources.
A method for use in a transmitting apparatus, comprising: composing, on a medium access control, MAC, layer, a MAC layer packet data unit, PDU, having a predetermined length, including a plurality of MAC layer service data units, SDUs, each of the plurality of MAC layer SDUs including a header indicating a length of each of the MAC layer SDUs, inserting a certain number of the plurality of the MAC layer SDUs into the MAC layer PDU corresponding to the predetermined length of the MAC layer PDU, determining a remaining portion of the MAC layer PDU, determining whether a last one of the certain number of the plurality of MAC layer SDUs does not fit completely into the remaining portion of the MAC layer PDU, in response to determining whether the last one of the certain number of the plurality of MAC layer SDUs does not fit completely into the remaining portion of the MAC layer PDU, segmenting the last one of the certain number of the plurality of MAC layer SDUs into a first part and a second part according to the predetermined length of the MAC layer PDU, and inserting the first part of the segmented MAC layer SDU into the remaining portion of the MAC layer PDU without changing the header field of the segmented MAC layer SDU such that the header of the segmented MAC layer SDU indicates the original length of the segmented MAC layer SDU, which allows a receiving apparatus to compare the length indicated in the header of the last one of the plurality of MAC layer SDUs with a determined length of the last one of the plurality of MAC layer SDUs included in the MAC layer PDU, determining whether the length indicated in the header of the last one of the plurality of MAC layer SDUs is equal to the determined length of the last one of the plurality of MAC layer SDUs, and in response to determining that the lengths are not equal, determining that the last MAC layer SDU included in the MAC layer PDU has been segmented into a first SDU part and at least one second SDU part.
A process for thermal cracking of heavy petroleum oil, in which a thermal cracking facility having a cracking furnace to heat the heavy petroleum oil, two or more trains each comprising first and second reaction vessels to which the heavy petroleum oil heated in the cracking furnace is introduced, and one distillation tower to separate gaseous substances discharged from the respective reaction vessels of each train, is operated, each train is operated by repeating a cycle comprising drawing the heavy petroleum oil from the cracking furnace, feeding the drawn heavy petroleum oil into the first reaction vessel, and feeding the drawn heavy petroleum oil into the second reaction vessel after completion of feeding the drawn heavy petroleum oil into the first reaction vessel, steam is blown into each reaction vessel from the bottom of each reaction vessel while feeding the heavy petroleum oil and is directly brought in contact with the heavy petroleum oil to be thermally cracked, gaseous cracked substances produced and steam in each reaction vessel are discharged from the top outlet of each reaction vessel to be introduced into the distillation tower, and separation by distillation is carried out in the distillation tower, wherein a phase delay is provided for the cycle repeated in each train so that the peak times of the trains do not overlap with each other and the thermal cracking facility is operated with a different initiation time of feeding to the first reaction vessel in each train. repeating a cycle comprising drawing the heavy petroleum oil from the cracking furnace, feeding the drawn heavy petroleum oil into the first reaction vessel, and feeding the drawn heavy petroleum oil into the second reaction vessel after completion of feeding the drawn heavy petroleum oil into the first reaction vessel,
Joule-Thomson cooling device comprising a housing receiving a location to be cooled, a cylindrical central shaft, a chamber, an expansion orifice and a tube wound in a helical manner around the cylindrical central shaft, the tube being intended to convey pressurised gas between a first end connected to a pressurised gas source and a second end connected to an expansion orifice situated in the vicinity of the location to be cooled, the tube being positioned in the cooling chamber having an upstream end connected to the expansion orifice and a downstream end connected to a gas outlet, the cooling chamber defining a path for the expanded gas during which the expanded gas undergoes an exchange of heat with the tube in order to transfer frigories thereto, the cooling chamber being defined by the housing and the cylindrical central shaft, characterised in that the tube is also wound around itself over the length thereof in a helical manner to form spirals, i.e. the tube is wound around itself in a helical manner to form spirals that are wound in series in a helical manner around the cylindrical shaft, and in that a thread is housed inside the spirals of the wound tube, said thread extending along the length of the tube in a helical manner around the central shaft in order to create turbulence in the expanded gas flow undergoing an exchange of heat with the tube.
A tailgate-equipped vehicle body structure comprising: a tailgate for opening and closing a rear opening section provided in a rear section of a vehicle; and a sub door provided on the tailgate for opening and closing a sub door opening section provided in the tailgate, an upper surface of a lower edge portion of the rear opening section and an upper surface of a lower edge portion of the sub door opening section being located in substantially flush with each other, characterized in that the tailgate includes an inner panel disposed adjacent to a vehicle interior and an outer panel disposed adjacent to a vehicle exterior and having a closed sectional shape defined with respective flanges (81a, 82a) of the inner and outer panels (81, 82) joined to each other, the respective flanges (81a, 82a) of the inner and outer panels (81, 82) joined to each other constituting a joined flange part projecting in an up-down direction of the vehicle in the lower edge portion of the sub door opening section, and the tailgate further includes a gate-side step covering the joined flange part from above, and an upper surface of an upper wall portion of the gate-side step constituting the upper surface of the lower edge portion of the sub door opening section. a tailgate for opening and closing a rear opening section provided in a rear section of a vehicle; and a sub door provided on the tailgate for opening and closing a sub door opening section provided in the tailgate, an upper surface of a lower edge portion of the rear opening section and an upper surface of a lower edge portion of the sub door opening section being located in substantially flush with each other, characterized in that the tailgate includes an inner panel disposed adjacent to a vehicle interior and an outer panel disposed adjacent to a vehicle exterior and having a closed sectional shape defined with respective flanges (81a, 82a) of the inner and outer panels (81, 82) joined to each other, the respective flanges (81a, 82a) of the inner and outer panels (81, 82) joined to each other constituting a joined flange part projecting in an up-down direction of the vehicle in the lower edge portion of the sub door opening section, and the tailgate further includes a gate-side step covering the joined flange part from above, and an upper surface of an upper wall portion of the gate-side step constituting the upper surface of the lower edge portion of the sub door opening section.
An injectable composition comprising: an aqueous phase; and one or more unilamellar vesicles that each comprise phospholipid and cholesterol, and that each encapsulate a compound of Formula or a pharmaceutically acceptable salt or hydrate thereof: wherein: X is O or H, H; R e is C NR f R g or a 6-membered ring heteroaryl group containing 1 or 2 nitrogen atoms wherein the heteroaryl group is optionally mono-substituted on a ring carbon with fluoro or chloro or on a ring nitrogen with oxygen; R f, R g, R 6 and R 7 are each independently hydrogen or C 1 -C 3 alkyl; R 8 is C 1 -C 4 alkyl, C 3 -C 4 cycloalkyl or C 4 -C 5 cycloalkyl-alkyl; R 9 is methyl or ethyl; and R 8 and R 9 are optionally taken together to form a 6-membered saturated ring containing 1 oxygen atom, wherein the one or more unilamellar vesicles are hydrated in the aqueous phase. an aqueous phase; and one or more unilamellar vesicles that each comprise phospholipid and cholesterol, and that each encapsulate a compound of Formula or a pharmaceutically acceptable salt or hydrate thereof: wherein: X is O or H, H; R e is C NR f R g or a 6-membered ring heteroaryl group containing 1 or 2 nitrogen atoms wherein the heteroaryl group is optionally mono-substituted on a ring carbon with fluoro or chloro or on a ring nitrogen with oxygen; R f, R g, R 6 and R 7 are each independently hydrogen or C 1 -C 3 alkyl; R 8 is C 1 -C 4 alkyl, C 3 -C 4 cycloalkyl or C 4 -C 5 cycloalkyl-alkyl; R 9 is methyl or ethyl; and R 8 and R 9 are optionally taken together to form a 6-membered saturated ring containing 1 oxygen atom, X is O or H, H; R e is C NR f R g or a 6-membered ring heteroaryl group containing 1 or 2 nitrogen atoms wherein the heteroaryl group is optionally mono-substituted on a ring carbon with fluoro or chloro or on a ring nitrogen with oxygen; R f, R g, R 6 and R 7 are each independently hydrogen or C 1 -C 3 alkyl; R 8 is C 1 -C 4 alkyl, C 3 -C 4 cycloalkyl or C 4 -C 5 cycloalkyl-alkyl; R 9 is methyl or ethyl; and R 8 and R 9 are optionally taken together to form a 6-membered saturated ring containing 1 oxygen atom, wherein the one or more unilamellar vesicles are hydrated in the aqueous phase.
A method of providing a body marker carried out by a device according to any of claims 6 - 10, the method comprising: when an ultrasound image of a target body is acquired by using a probe, acquiring an image of a testee including information regarding a location of the probe on the testee by using an imaging camera; extracting frame information regarding bones or pose of the testee and information regarding the location of the probe from the image of the testee; generating a body marker indicating a location of the target body based on the frame information and the information regarding the location of the probe; and mapping the body marker to the ultrasound image of the target body and storing a mapped result, wherein the generating the body marker comprises: comparing the image of the testee to a pre-stored body model based on the frame information and modifying the pre-stored body model to be fitted to the image of the testee; and generating the body marker indicating the location of the target body based on the modified body model and the information regarding the location of the probe. when an ultrasound image of a target body is acquired by using a probe, acquiring an image of a testee including information regarding a location of the probe on the testee by using an imaging camera; extracting frame information regarding bones or pose of the testee and information regarding the location of the probe from the image of the testee; generating a body marker indicating a location of the target body based on the frame information and the information regarding the location of the probe; and mapping the body marker to the ultrasound image of the target body and storing a mapped result, wherein the generating the body marker comprises: comparing the image of the testee to a pre-stored body model based on the frame information and modifying the pre-stored body model to be fitted to the image of the testee; and generating the body marker indicating the location of the target body based on the modified body model and the information regarding the location of the probe. comparing the image of the testee to a pre-stored body model based on the frame information and modifying the pre-stored body model to be fitted to the image of the testee; and generating the body marker indicating the location of the target body based on the modified body model and the information regarding the location of the probe.
A scintillator composition, comprising: (a) a matrix material comprising: (i) at least one lanthanum halide, wherein the halide in the matrix material is selected from the group consisting of bromine, chlorine, and iodine; (ii) at least one alkali metal selected from the group consisting of rubidium, cesium, and mixtures thereof; and (b) an activator ion for the matrix material, comprising at least 80 mole % praseodymium. (a) a matrix material comprising: (i) at least one lanthanum halide, wherein the halide in the matrix material is selected from the group consisting of bromine, chlorine, and iodine; (ii) at least one alkali metal selected from the group consisting of rubidium, cesium, and mixtures thereof; and (i) at least one lanthanum halide, wherein the halide in the matrix material is selected from the group consisting of bromine, chlorine, and iodine; (ii) at least one alkali metal selected from the group consisting of rubidium, cesium, and mixtures thereof; and (b) an activator ion for the matrix material, comprising at least 80 mole % praseodymium.
A grill comprising a first heated element having a first heated surface, a second heated element having a second heated surface, and a heater configured to heat both the first heated element and the second heated element, characterized in that the distance between the first heated element and the heater is greater than the distance between the second heated element and the heater so that the applied power to the second heated element per unit area of the second heated surface is greater than the applied power to the first heated element per unit area of the first heated surface.
A method for production of homogenized tobacco material, said method comprising: - selecting tobacco of one or more tobacco types; - coarse grinding the tobacco; - blending the tobacco of one or more tobacco types; and - fine grinding the tobacco of one or more tobacco types, wherein the coarse grinding comprises: - coarse grinding tobacco leaves to obtain tobacco particles of a mean size between 0.25 millimetres and 2.0 millimetres, and wherein the step of fine grinding the tobacco comprises: - fine grinding said tobacco up to a tobacco powder having a mean size between 0.03 millimetres and 0.12 millimetres. - selecting tobacco of one or more tobacco types; - coarse grinding the tobacco; - blending the tobacco of one or more tobacco types; and - fine grinding the tobacco of one or more tobacco types, - coarse grinding tobacco leaves to obtain tobacco particles of a mean size between 0.25 millimetres and 2.0 millimetres, and - fine grinding said tobacco up to a tobacco powder having a mean size between 0.03 millimetres and 0.12 millimetres.
A doped low-temperature phase barium metaborate single crystal, being a β - BBO single crystal doped with one or more elements selected from Si, Al and Ga, the chemical formula of said single crystal being Ba 1-x B 2-y-z O 4 -Si x Al y Ga z, wherein x is 0.07 to 0.15, y is 0 to 0.10, and z is 0 to 0.04, and wherein x, y and z are not simultaneously zero.
A film deposition apparatus, comprising: a chamber in which a target is provided and a film deposition gas for forming a film on the target is introduced thereinto and exhausted therefrom; and a film conveyer disposed in the chamber and conveying in a roll-to-roll manner a long film that is the object; wherein, the film conveyer includes: at least one rotatable roller in which the long film comes into contact with part of a peripheral surface of the roller; and a nozzle pipe that sprays an inert gas onto the roller at a region being not covered by the long film characterized in that the rotatable roller has a first longitudinal axis, the nozzle pipe has a second longitudinal axis, and the nozzle pipe is disposed so that the second longitudinal axis set in parallel with the first longitudinal axis of the rotatable roller, and has jetting ports arranged along the second longitudinal axis of the nozzle pipe. a chamber in which a target is provided and a film deposition gas for forming a film on the target is introduced thereinto and exhausted therefrom; and a film conveyer disposed in the chamber and conveying in a roll-to-roll manner a long film that is the object; wherein, the film conveyer includes: at least one rotatable roller in which the long film comes into contact with part of a peripheral surface of the roller; and a nozzle pipe that sprays an inert gas onto the roller at a region being not covered by the long film characterized in that the rotatable roller has a first longitudinal axis, the nozzle pipe has a second longitudinal axis, and the nozzle pipe is disposed so that the second longitudinal axis set in parallel with the first longitudinal axis of the rotatable roller, and has jetting ports arranged along the second longitudinal axis of the nozzle pipe. at least one rotatable roller in which the long film comes into contact with part of a peripheral surface of the roller; and a nozzle pipe that sprays an inert gas onto the roller at a region being not covered by the long film characterized in that the rotatable roller has a first longitudinal axis, the nozzle pipe has a second longitudinal axis, and the nozzle pipe is disposed so that the second longitudinal axis set in parallel with the first longitudinal axis of the rotatable roller, and has jetting ports arranged along the second longitudinal axis of the nozzle pipe.
A double-shell tank comprising: an inner shell storing liquefied gas; an outer shell surrounding the inner shell, the outer shell forming a vacuum space between the inner shell and the outer shell; at least one metal sheet mounted to the inner shell, such that at least part of the metal sheet faces a bottom surface of the inner shell; an adsorbent placed on the metal sheet, the adsorbent adsorbing gas molecules by physisorption; and a thermal insulator covering the inner shell and the metal sheet, wherein the entire inner shell is covered by the thermal insulator, characterized in that the thermal insulator includes a plurality of thermal insulation sheets, wherein each sheet is arranged along an outer surface of the inner shell without gaps between the sheets, and wherein the thermal insulator does not contact the outer shell. an inner shell storing liquefied gas; an outer shell surrounding the inner shell, the outer shell forming a vacuum space between the inner shell and the outer shell; at least one metal sheet mounted to the inner shell, such that at least part of the metal sheet faces a bottom surface of the inner shell; an adsorbent placed on the metal sheet, the adsorbent adsorbing gas molecules by physisorption; and a thermal insulator covering the inner shell and the metal sheet, wherein the entire inner shell is covered by the thermal insulator, characterized in that the thermal insulator includes a plurality of thermal insulation sheets, wherein each sheet is arranged along an outer surface of the inner shell without gaps between the sheets, and wherein the thermal insulator does not contact the outer shell.
Welding gun housing for a resistance welding system that is provided with a welding controller and is designed for producing weld spots or weld seams on sheet-metal parts in automotive body construction, the welding gun housing comprising a module, characterized in that the module comprises an MF welding transformer, which can be cooled by a cooling means and has a rectifier, the MF welding transformer being designed to be of such a small size that it is a module component integrated in the module, at least one further module component integrated in the module, for providing and/or receiving electrical signals that are relevant for carrying out the welding process monitored by the welding controller, and an interface, for providing and/or receiving the electrical input and/or output variables required for operation of the welding gun, the electrical input and/or output variables comprising electrical signals that are to be exchanged between the at least one further module component and the welding controller and variables for the power connection of the MF welding transformer.