mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for producing aligned carbon nanotube aggregates, the apparatus being configured to grow the aligned carbon nanotube aggregate by: causing a catalyst formed on a surface of a substrate to be surrounded by a reducing gas environment constituted by a reducing gas; heating at least either the catalyst or the reducing gas; causing the catalyst to be surrounded by a raw material gas environment constituted by a raw material gas; and heating at least either the catalyst or the raw material gas, at least either an apparatus component exposed to the reducing gas or an apparatus component exposed to the raw material gas being made from a heat-resistant alloy, and having a surface plated with molten aluminum so as to comprise an alloy layer of the heat-resistant alloy and aluminum on the surface and aluminum adhered to the alloy layer, wherein the apparatus comprises: a formation unit for causing the catalyst to be surrounded by the reducing gas environment constituted by the reducing gas, and heating at least either the catalyst or the reducing gas; a growth unit for growing the aligned carbon nanotube aggregate by causing the catalyst to be surrounded by the raw material gas environment constituted by the raw material gas, and heating at least either the catalyst or the raw material gas; and a transfer unit for transferring the substrate at least from the formation unit to the growth unit. causing a catalyst formed on a surface of a substrate to be surrounded by a reducing gas environment constituted by a reducing gas; heating at least either the catalyst or the reducing gas; causing the catalyst to be surrounded by a raw material gas environment constituted by a raw material gas; and heating at least either the catalyst or the raw material gas, at least either an apparatus component exposed to the reducing gas or an apparatus component exposed to the raw material gas being made from a heat-resistant alloy, and having a surface plated with molten aluminum so as to comprise an alloy layer of the heat-resistant alloy and aluminum on the surface and aluminum adhered to the alloy layer, a formation unit for causing the catalyst to be surrounded by the reducing gas environment constituted by the reducing gas, and heating at least either the catalyst or the reducing gas; a growth unit for growing the aligned carbon nanotube aggregate by causing the catalyst to be surrounded by the raw material gas environment constituted by the raw material gas, and heating at least either the catalyst or the raw material gas; and a transfer unit for transferring the substrate at least from the formation unit to the growth unit.
A method for processing an abnormality, applicable in a terminal device comprising a Wi-Fi module, the method comprising: loading and executing (S101, S201, S301) a driver of the Wi-Fi module in response to receiving an instruction for enabling a Wi-Fi function of the terminal device, initiating at least one request sub-process to a hardware layer of a Wi-Fi system of the terminal device through a framework layer of the Wi-Fi system; opening a virtual running environment and executing the driver of the Wi-Fi module loaded currently in the virtual running environment; clearing (S103, S204) the driver of the Wi-Fi module from a memory of the terminal device in response to failure of any request sub-process and failure of the driver to execute in the virtual running environment; and re-loading and executing (S104, S205, S309) the driver of the Wi-Fi module after completely clearing the driver of the Wi-Fi module from the memory. loading and executing (S101, S201, S301) a driver of the Wi-Fi module in response to receiving an instruction for enabling a Wi-Fi function of the terminal device, initiating at least one request sub-process to a hardware layer of a Wi-Fi system of the terminal device through a framework layer of the Wi-Fi system; opening a virtual running environment and executing the driver of the Wi-Fi module loaded currently in the virtual running environment; clearing (S103, S204) the driver of the Wi-Fi module from a memory of the terminal device in response to failure of any request sub-process and failure of the driver to execute in the virtual running environment; and re-loading and executing (S104, S205, S309) the driver of the Wi-Fi module after completely clearing the driver of the Wi-Fi module from the memory.
A gas turbine engine component, comprising: a body with an inner surface and an outer surface; and a plurality of cooling holes (220, 700, 800, 900) formed in the body, at least one of the cooling holes (220, 700, 800, 900) having a multi-lobed shape with at least a first lobe (410, 710, 810, 902), a second lobe (420, 720, 820, 904), and a third lobe (430, 730, 830, 906), wherein the at least one of the cooling holes has an upstream portion extending from an inlet at the inner surface and a downstream portion extending to an exit at the outer surface, wherein the downstream portion has the multi-lobed shape, wherein the multi-lobe shape is formed by a first oval, a second oval, and a third oval, each oval having a first end (412, 422, 432) and a second end (414, 424, 434), wherein the upstream portion has a cylindrical shape, wherein the cylindrical shape of the upstream portion transitions into the multi-lobed shape of the downstream portion at approximately half the axial distance between the inlet and the outlet such that the at least one cooling hole has a cylindrical to multi-lobe (CTML) configuration. a body with an inner surface and an outer surface; and a plurality of cooling holes (220, 700, 800, 900) formed in the body, at least one of the cooling holes (220, 700, 800, 900) having a multi-lobed shape with at least a first lobe (410, 710, 810, 902), a second lobe (420, 720, 820, 904), and a third lobe (430, 730, 830, 906), wherein the at least one of the cooling holes has an upstream portion extending from an inlet at the inner surface and a downstream portion extending to an exit at the outer surface, wherein the downstream portion has the multi-lobed shape, wherein the multi-lobe shape is formed by a first oval, a second oval, and a third oval, each oval having a first end (412, 422, 432) and a second end (414, 424, 434), wherein the upstream portion has a cylindrical shape, wherein the cylindrical shape of the upstream portion transitions into the multi-lobed shape of the downstream portion at approximately half the axial distance between the inlet and the outlet such that the at least one cooling hole has a cylindrical to multi-lobe (CTML) configuration.
A method for simulating tire noise performance using a computer, the method comprising: a step of setting, using a finite number of elements (2a, 2b, 2c), a tire model having a tread model portion provided with at least one tread groove; a step of setting a road surface model using a finite number of elements; a step of carrying out a rolling simulation to roll the tire model on the road surface model at least over a groove-grounded rolling distance where the tread groove is grounded on the road surface model and rolled; and a step of acquiring a surface coordinate value of the tread model portion in the groove-grounded rolling distance in a time-series manner; characterized in that the method further comprises a step of setting a sound space region around the tread model portion, the sound space region having a shape changing based on the acquired surface coordinate value of the tread model portion; and a step of carrying out an aerodynamic simulation using the sound space region. a step of setting, using a finite number of elements (2a, 2b, 2c), a tire model having a tread model portion provided with at least one tread groove; a step of setting a road surface model using a finite number of elements; a step of carrying out a rolling simulation to roll the tire model on the road surface model at least over a groove-grounded rolling distance where the tread groove is grounded on the road surface model and rolled; and a step of acquiring a surface coordinate value of the tread model portion in the groove-grounded rolling distance in a time-series manner; characterized in that the method further comprises a step of setting a sound space region around the tread model portion, the sound space region having a shape changing based on the acquired surface coordinate value of the tread model portion; and a step of carrying out an aerodynamic simulation using the sound space region.
Charger for a battery of a vehicle, in particular a forklift truck, wherein, in order to charge the battery, the charger can be attached by its external surface to the facing external surface of the battery, wherein further the charger has a venting device with at least one ventilator for conveying an airflow, wherein the airflow both cools the charger and discharges gas escaping from the battery during the charging process, characterised in that a plurality of vertical venting ducts is formed along the external surface of the charger, facing the battery, whereby the airflow is guided along the external surface facing the charger and in that, when the charger is attached to the battery, on the upper edge of the external surface of the battery, a diverting device is provided, by means of which the airflow, after it has flown through the vertical venting ducts, is diverted such that it is guided horizontally over the upper side of the battery, in order to discharge gas escaping from the battery during the charging process.
A compound having the structure wherein R 1 is selected from the group consisting of H and C 1 -C 3 alkyl; R 2 is selected from the group consisting of H and C 1 -C 3 alkyl wherein the C 1 -C 3 alkyl optionally is substituted with phenyl or C 3 -C 6 cycloalkyl; R 3 is selected from the group consisting of H, methyl and ethyl R 4 is selected from the group consisting of H,, hydroxyl, methoxy and ethoxy and; R 5, R6 and R 7 are H R 8 is selected from the group consisting of H, methyl, ethyl and cyclopropyl R 9 is selected from the group consisting of H, methyl and ethyl and pharmaceutically acceptable acid addition salts of Compound I, racemic mixtures of Compound I, or the corresponding enantiomer and/or optical isomer of Compound I, and polymorphic forms of Compound I as well as tautomeric forms of Compound I. R 1 is selected from the group consisting of H and C 1 -C 3 alkyl; R 2 is selected from the group consisting of H and C 1 -C 3 alkyl wherein the C 1 -C 3 alkyl optionally is substituted with phenyl or C 3 -C 6 cycloalkyl; R 3 is selected from the group consisting of H, methyl and ethyl R 4 is selected from the group consisting of H,, hydroxyl, methoxy and ethoxy and; R 5, R6 and R 7 are H R 8 is selected from the group consisting of H, methyl, ethyl and cyclopropyl R 9 is selected from the group consisting of H, methyl and ethyl and pharmaceutically acceptable acid addition salts of Compound I, racemic mixtures of Compound I, or the corresponding enantiomer and/or optical isomer of Compound I, and polymorphic forms of Compound I as well as tautomeric forms of Compound I.
A dental obturation system, comprising: a main body including a grip housing receiving a battery therein and an upper housing mounted to an upper end of the grip housing; a needle member mounted to a front end of the upper housing for filling a place requiring a dental treatment with a heated filling material; a heating unit installed in the front end of the main body and heating the filling material to be fed to the needle member, the needle member being connected to the front end of said heating unit; a rotary unit installed in the upper housing, connected to the heating unit and rotating along with the heating unit thereby changing the orientation of said needle member; a cartridge unit for receiving therein the filling material supplied from an outside, the cartridge unit being securely installed in the upper housing such that the cartridge unit faces the rotary unit; a piston unit movably installed in the upper housing and feeding the filling material from the cartridge unit under pressure in a direction toward both the heating unit and the needle member; a trigger rotatably mounted to the main body and actuating the piston unit, thus feeding the filling material; and a power terminal unit installed both in the rotary unit and in the cartridge unit and maintaining an electric connection between the rotary unit and the cartridge unit such that the power terminal unit can apply electricity of the battery to the heating unit even when the rotary unit is rotating. a main body including a grip housing receiving a battery therein and an upper housing mounted to an upper end of the grip housing; a needle member mounted to a front end of the upper housing for filling a place requiring a dental treatment with a heated filling material; a heating unit installed in the front end of the main body and heating the filling material to be fed to the needle member, the needle member being connected to the front end of said heating unit; a rotary unit installed in the upper housing, connected to the heating unit and rotating along with the heating unit thereby changing the orientation of said needle member; a cartridge unit for receiving therein the filling material supplied from an outside, the cartridge unit being securely installed in the upper housing such that the cartridge unit faces the rotary unit; a piston unit movably installed in the upper housing and feeding the filling material from the cartridge unit under pressure in a direction toward both the heating unit and the needle member; a trigger rotatably mounted to the main body and actuating the piston unit, thus feeding the filling material; and a power terminal unit installed both in the rotary unit and in the cartridge unit and maintaining an electric connection between the rotary unit and the cartridge unit such that the power terminal unit can apply electricity of the battery to the heating unit even when the rotary unit is rotating.
A syringe carrier comprising: a body (1.1) adapted to receive a barrel (2.1) of a syringe, the body (1.1) including at least two sections (1.1.1) having distal ends with shoulder sections (1.4), wherein the sections (1.1.1) are coupled via at least one hinge (1.9) and are movable between an open position and a closed position, wherein the shoulder sections (1.4) are adapted to engage a circumferential gap between the barrel (2.1) of the syringe and a needle shield covering a needle of the syringe when the sections (1.1.1) are closed, wherein the syringe, with the needle shield attached, is allowed to be loaded into the syringe carrier by opening the sections (1.1.1) about the hinge and placing the syringe in the syringe carrier, wherein the hinge (1.9) is a side hinge.
A method of manufacturing a polarizing lens, which comprises: conducting curved surface processing to change a shape of a polarizing film into a shape of a curved surface; conducting heat treatment by heating the polarizing film that has been processed into a curved surface to a heating temperature of equal to or higher than 105°C but less than 150°C; assembling an upper mold, a lower mold, and a seal member to provide a casting mold having a cavity within which the polarizing film following the heating treatment is positioned, the upper mold and the lower mold being positioned opposite each other so as to sandwich the polarizing film at a space therebetween, and the seal member sealing the space between the upper mold and the lower mold; casting a curable composition into the cavity; curing the curable composition to provide a polarizing lens within which a polarizing film is positioned; separating the polarizing lens thus provided from the casting mold, moistening the polarizing film prior to the curved surface processing; and wherein the polarizing film prior to curved surface processing is moistened while being heated, cooled, and then curved surface processed. conducting curved surface processing to change a shape of a polarizing film into a shape of a curved surface; conducting heat treatment by heating the polarizing film that has been processed into a curved surface to a heating temperature of equal to or higher than 105°C but less than 150°C; assembling an upper mold, a lower mold, and a seal member to provide a casting mold having a cavity within which the polarizing film following the heating treatment is positioned, the upper mold and the lower mold being positioned opposite each other so as to sandwich the polarizing film at a space therebetween, and the seal member sealing the space between the upper mold and the lower mold; casting a curable composition into the cavity; curing the curable composition to provide a polarizing lens within which a polarizing film is positioned; separating the polarizing lens thus provided from the casting mold, moistening the polarizing film prior to the curved surface processing; and wherein the polarizing film prior to curved surface processing is moistened while being heated, cooled, and then curved surface processed.
A method for User Equipment, UE, the UE being configured with a first Master Cell Group, MCG, duplicated Signaling Radio Bearer, SRB, and a second MCG duplicated SRB, the first MCG duplicated SRB being associated with an MCG and a Secondary Cell Group, SCG, and configured to be used for uplink transmission via the SCG, and the method comprising: detecting an SCG failure; reconfiguring a Packet Data Convergence Protocol, PDCP, entity of the first MCG duplicated SRB to be used for uplink transmission via the MCG upon detecting the SCG failure; and reconfiguring the second MCG duplicated SRB to be used for uplink transmission via the MCG upon detecting the SCG failure, wherein the first MCG duplicated SRB is an MCG split SRB configured with packet duplication. detecting an SCG failure; reconfiguring a Packet Data Convergence Protocol, PDCP, entity of the first MCG duplicated SRB to be used for uplink transmission via the MCG upon detecting the SCG failure; and reconfiguring the second MCG duplicated SRB to be used for uplink transmission via the MCG upon detecting the SCG failure, wherein the first MCG duplicated SRB is an MCG split SRB configured with packet duplication.
A hub apparatus (100, 200) for driving a vehicle, characterized by comprising: a housing assembly having an outer radius, the housing assembly comprising-- a first housing component; and a second housing component configured to be tightly fitted with the first housing component; and a mounting portion circumferentially provided on at least one side surface of the housing assembly, the mounting portion being formed with a plurality of coupling structures configured to couple the hub apparatus (100, 200) to a wheel rim, the mounting portion defining a first radius smaller than the outer radius, characterised in that the coupling structures comprises openings, and each of the openings comprises an interior spherical surface configured to receive a spherical washer. a housing assembly having an outer radius, the housing assembly comprising-- a first housing component; and a second housing component configured to be tightly fitted with the first housing component; and a first housing component; and a second housing component configured to be tightly fitted with the first housing component; and a mounting portion circumferentially provided on at least one side surface of the housing assembly, the mounting portion being formed with a plurality of coupling structures configured to couple the hub apparatus (100, 200) to a wheel rim, the mounting portion defining a first radius smaller than the outer radius, characterised in that the coupling structures comprises openings, and each of the openings comprises an interior spherical surface configured to receive a spherical washer.
A forming method of an electrode for a cartridge detachably mountable to an apparatus main assembly of an image forming apparatus, the cartridge including a frame supporting a process member (12,16) for effecting image formation, the apparatus main assembly including a main assembly contact, the manufacturing method comprising: bringing a mold into contact with the frame so as to form an electrode forming space between the mold and the frame, the electrode forming space branching off into only two spaces which are a first space and a second space; and molding the electrode by injecting an electroconductive resin into the electrode forming space from an injection receiving portion of the electrode such that the electroconductive resin is branched within the electrode forming portion and the electrode is molded within the electrode forming portion by the branched electroconductive resin, the electroconductive resin injected from the injection receiving portion flowing into the first space and the second space to mold a first contact portion and a second contact portion, respectively, such that the first contact portion is arranged so as not to overlap with the injection receiving portion when viewed in a direction perpendicular to a surface of the frame on which the injection receiving portion is provided, wherein the first contact portion is configured to be electrically connected to the main assembly contact, and the second contact portion is configured to be electrically connected to the process member (12, 16), the first contact portion and the second contact portion being electrically connected with each other. bringing a mold into contact with the frame so as to form an electrode forming space between the mold and the frame, the electrode forming space branching off into only two spaces which are a first space and a second space; and molding the electrode by injecting an electroconductive resin into the electrode forming space from an injection receiving portion of the electrode such that the electroconductive resin is branched within the electrode forming portion and the electrode is molded within the electrode forming portion by the branched electroconductive resin, the electroconductive resin injected from the injection receiving portion flowing into the first space and the second space to mold a first contact portion and a second contact portion, respectively, such that the first contact portion is arranged so as not to overlap with the injection receiving portion when viewed in a direction perpendicular to a surface of the frame on which the injection receiving portion is provided, wherein the first contact portion is configured to be electrically connected to the main assembly contact, and the second contact portion is configured to be electrically connected to the process member (12, 16), the first contact portion and the second contact portion being electrically connected with each other.