mhurhangee/ep-ind-claims huggingface dataset:
An electron gun device configured to emit an electron beam by being heated to a high temperature in vacuum, comprising: a hollow cover tube container storing a liquid hydrogenated metal as a hydrogenated liquid metal or a liquid metal before hydrogenation; a vacuum chamber in which the hollow tube container is arranged; a heater configured to heat the hollow tube container storing the liquid metal to said high temperature; when the liquid hydrogenated metal is stored as a liquid metal before hydrogenation, the electron gun device comprises means to supply hydrogen for hydrogenation of the liquid metal; a Wehnelt electrode; and an anode; wherein a surface of a material that emits the electron beam is the liquid hydrogenated metal dissolved during a high-temperature operation, wherein the hollow cover tube container is solid during a high-temperature operation, the liquid hydrogenated metal is heated to the high temperature together with the cover tube container, and the hydrogenated liquid metal is exposed from the cover tube container to form a liquid surface on which gravity, an electric field, and a surface tension of the liquid surface are balanced, and wherein the electron beam is emitted from an exposed surface of the hydrogenated liquid metal. a hollow cover tube container storing a liquid hydrogenated metal as a hydrogenated liquid metal or a liquid metal before hydrogenation; a vacuum chamber in which the hollow tube container is arranged; a heater configured to heat the hollow tube container storing the liquid metal to said high temperature; when the liquid hydrogenated metal is stored as a liquid metal before hydrogenation, the electron gun device comprises means to supply hydrogen for hydrogenation of the liquid metal; a Wehnelt electrode; and an anode; wherein a surface of a material that emits the electron beam is the liquid hydrogenated metal dissolved during a high-temperature operation, wherein the hollow cover tube container is solid during a high-temperature operation, the liquid hydrogenated metal is heated to the high temperature together with the cover tube container, and the hydrogenated liquid metal is exposed from the cover tube container to form a liquid surface on which gravity, an electric field, and a surface tension of the liquid surface are balanced, and wherein the electron beam is emitted from an exposed surface of the hydrogenated liquid metal.
A method of fitting a cochlea implant system to a patient, said method comprising; • determining an insertion angle of at least one electrode of a first electrode array of the cochlea implant system inserted into a cochlea of the patient, • determining a plurality of natural frequencies as a function of a cochlea spiral length based on a natural frequency allocation model and the insertion angle, • determining a plurality of characteristic frequencies as a function of a cochlea spiral length by frequency downshifting the plurality of natural frequencies until an objective is obtained and while preserving the harmonic relationship between the natural frequencies of the plurality of natural frequencies in the plurality of characteristic frequencies, and • allocating the plurality of characteristic frequencies to each electrode of the first electrode array based on the insertion angle of the at least one electrode. • determining an insertion angle of at least one electrode of a first electrode array of the cochlea implant system inserted into a cochlea of the patient, • determining a plurality of natural frequencies as a function of a cochlea spiral length based on a natural frequency allocation model and the insertion angle, • determining a plurality of characteristic frequencies as a function of a cochlea spiral length by frequency downshifting the plurality of natural frequencies until an objective is obtained and while preserving the harmonic relationship between the natural frequencies of the plurality of natural frequencies in the plurality of characteristic frequencies, and • allocating the plurality of characteristic frequencies to each electrode of the first electrode array based on the insertion angle of the at least one electrode.
A process for preparing 2-isopropenyl-5-methyl-4-hexenoic acid of the following formula: the process comprising steps of: subjecting a Grignard reagent of the following general formula: R 1 MgX wherein R 1 represents a linear, branched, or aromatic monovalent hydrocarbon group having 1 to 8 carbon atoms, and X represents a chlorine atom, a bromine atom, or an iodine atom, and 1,1,1,3,3,3-hexamethyldisilazane to a deprotonation reaction to form a 1,1,1,3,3,3-hexamethyldisilazane derivative; and subjecting 2-methyl-3-buten-2-yl 3-methyl-2-butenoate of the following formula: to a rearrangement reaction in the presence of the 1,1,1,3,3,3-hexamethyldisilazane derivative to form 2-isopropenyl-5-methyl-4-hexenoic acid. subjecting a Grignard reagent of the following general formula: R 1 MgX wherein R 1 represents a linear, branched, or aromatic monovalent hydrocarbon group having 1 to 8 carbon atoms, and X represents a chlorine atom, a bromine atom, or an iodine atom, and 1,1,1,3,3,3-hexamethyldisilazane to a deprotonation reaction to form a 1,1,1,3,3,3-hexamethyldisilazane derivative; and subjecting 2-methyl-3-buten-2-yl 3-methyl-2-butenoate of the following formula: to a rearrangement reaction in the presence of the 1,1,1,3,3,3-hexamethyldisilazane derivative to form 2-isopropenyl-5-methyl-4-hexenoic acid.
An applicator device (1, 1') for radiofrequency ablation of biological tissues, which comprises: - an electrode whose outer surface is covered with an insulating cover (2, 2') in a proximal portion, and has a conductive distal portion (3, 3'), whose electrode includes cooling means (7, 7'), and - an infusion system with a distal end (13, 6) for infusing a conductive fluid in said tissue, characterized in that said distal end (13, 6) of the infusion system has an electrically insulating outer cover and is located, in an infusion position for said conductive fluid, at a distance between 2 and 5 mm from the outer surface of the conductive distal portion of the cooled electrode and at a longitudinal half of said conductive distal portion (3, 3') of the electrode. - an electrode whose outer surface is covered with an insulating cover (2, 2') in a proximal portion, and has a conductive distal portion (3, 3'), whose electrode includes cooling means (7, 7'), and - an infusion system with a distal end (13, 6) for infusing a conductive fluid in said tissue, characterized in that said distal end (13, 6) of the infusion system has an electrically insulating outer cover and is located, in an infusion position for said conductive fluid, at a distance between 2 and 5 mm from the outer surface of the conductive distal portion of the cooled electrode and at a longitudinal half of said conductive distal portion (3, 3') of the electrode.
Pneumatic vehicle tyre for passenger cars, in particular for use in winter driving conditions, with a tread pattern comprising at least one row of tread bars running around in the circumferential direction, the tread bars of which are separated from one another by transverse grooves and the tread bars of which are provided in plan view with at least two sipes (2, 2', 2''), substantially formed as a straight line, which are arranged approximately parallel to one another, wherein each sipe (2, 2', 2") has in plan view a width of 0.1 to 0.6 mm and at least one portion of a greater width to act as a snow pocket, wherein - in plan view - there are arranged in the longitudinal extent of the sipe at least two portions of the greater width (b2 1,2), which are arranged spaced apart from one another, so that portions of the first width alternate with the portions of the greater width (b2 1,2) and that, along an imaginary straight line that is approximately perpendicular to the longitudinal axis of a sipe (2, 2', 2"), where there are two directly adjacent sipes (2, 2', 2") the one sipe (2, 2', 2") has the first width and the directly adjacent sipe (2, 2', 2") has the greater width (b2 1,2), characterized in that the portions of the greater width (b2 1,2) within a tread bar have two to n different widths, preferably 2 to 4 different widths, particularly preferably 2 different widths.
An oxidation-induced self-healing ceramic composition comprising: a ceramic matrix; a non-oxide healing agent which is dispersed in the matrix and has oxidation activity; and a healing activator, wherein: the ceramic matrix is alumina (Al 2 O 3); the healing agent is a substance producing an oxide by contact with external oxygen due to occurrence of a crack in the ceramic composition, which substance is SiC; and the healing activator is a substance enhancing a diffusion velocity of a substance determining a velocity of an oxidation reaction of the healing agent and is at least one metallic oxide selected from the group consisting of ZnO, MnO, Fe 2 O 3, and NiO; wherein an additive amount of the healing activator is 0.2 volume % or more to 1.0 volume % or less. a ceramic matrix; a non-oxide healing agent which is dispersed in the matrix and has oxidation activity; and a healing activator, wherein: the ceramic matrix is alumina (Al 2 O 3); the healing agent is a substance producing an oxide by contact with external oxygen due to occurrence of a crack in the ceramic composition, which substance is SiC; and the healing activator is a substance enhancing a diffusion velocity of a substance determining a velocity of an oxidation reaction of the healing agent and is at least one metallic oxide selected from the group consisting of ZnO, MnO, Fe 2 O 3, and NiO; wherein an additive amount of the healing activator is 0.2 volume % or more to 1.0 volume % or less. the ceramic matrix is alumina (Al 2 O 3); the healing agent is a substance producing an oxide by contact with external oxygen due to occurrence of a crack in the ceramic composition, which substance is SiC; and the healing activator is a substance enhancing a diffusion velocity of a substance determining a velocity of an oxidation reaction of the healing agent and is at least one metallic oxide selected from the group consisting of ZnO, MnO, Fe 2 O 3, and NiO; wherein an additive amount of the healing activator is 0.2 volume % or more to 1.0 volume % or less.
A method (500, 600) of printing a component comprising: receiving (502, 602) an original model (124, 224, 324) of the component at a printer; identifying an acute angle (130, 130a, 130b, 164, 170, 264, 270, 364, 370) in a geometry of the original model (124, 224, 324); compensating (504, 604) the geometry of the original model (124, 224, 324) at the printer to create a compensated model (154, 254, 354), wherein the compensating (504, 604) includes removing a portion (156, 158, 256, 258, 356, 358) of the original model (124, 224, 324) at the identified acute angle (130, 130a, 130b, 164, 170, 264, 270, 364, 370); and printing (506, 606), with the printer, the component based upon the compensated model (154, 254, 354), wherein the printed component is more alike the original model (124, 224, 324) than the compensated model (154, 254, 354) due to distortions of the printer during printing. receiving (502, 602) an original model (124, 224, 324) of the component at a printer; identifying an acute angle (130, 130a, 130b, 164, 170, 264, 270, 364, 370) in a geometry of the original model (124, 224, 324); compensating (504, 604) the geometry of the original model (124, 224, 324) at the printer to create a compensated model (154, 254, 354), wherein the compensating (504, 604) includes removing a portion (156, 158, 256, 258, 356, 358) of the original model (124, 224, 324) at the identified acute angle (130, 130a, 130b, 164, 170, 264, 270, 364, 370); and printing (506, 606), with the printer, the component based upon the compensated model (154, 254, 354), wherein the printed component is more alike the original model (124, 224, 324) than the compensated model (154, 254, 354) due to distortions of the printer during printing.
Device for laser material processing having a laser to generate a laser beam and a moveable laser head, wherein the laser head - can be moved along at least two spatial directions which are independent of each other in a translational manner and within or along a plane, - is connected to the laser via a light conductor and emits a laser beam with which a material can be processed, characterised in that the laser head - comprises a suction device which generates a suction flow parallel to the laser beam direction, and - the device comprises an induction coil as a tempering device. - can be moved along at least two spatial directions which are independent of each other in a translational manner and within or along a plane, - is connected to the laser via a light conductor and emits a laser beam with which a material can be processed, - comprises a suction device which generates a suction flow parallel to the laser beam direction, and - the device comprises an induction coil as a tempering device.
A self-attaching fastener element, comprising: a tubular barrel portion, having a free open end; a radial flange portion, integral with said tubular barrel portion, opposite said free open end, having an outer surface; and said outer surface, of said radial flange portion, including a plurality of circumferentially spaced radial projections, each including an outer surface, and opposed planar generally radial side surfaces, extending from said outer surface, of said radial flange portion, to an outer surface, of said circumferentially spaced radial projections, characterized in that said opposed planar generally radial side surfaces, of each of said circumferentially spaced radial projections, are parallel. a tubular barrel portion, having a free open end; a radial flange portion, integral with said tubular barrel portion, opposite said free open end, having an outer surface; and said outer surface, of said radial flange portion, including a plurality of circumferentially spaced radial projections, each including an outer surface, and opposed planar generally radial side surfaces, extending from said outer surface, of said radial flange portion, to an outer surface, of said circumferentially spaced radial projections, characterized in that
A method for controlling a standby operation comprising: • performing infrared user detection at an interval of a specified time within a first preset time interval and within a preset range, thereby performing the infrared user detection periodically within the first preset time interval within the preset range, when it is detected that no operation instruction exists within a second preset time interval; and • determining whether a user can be detected within the first preset time interval and performing a standby operation according to a determination result, wherein the performing the standby operation according to the determination result comprises: shortening a screen standby timeout period to a third preset time interval when the determination result is no; and determining whether an operation instruction exists within the third preset time interval, and if not, entering a standby state. • performing infrared user detection at an interval of a specified time within a first preset time interval and within a preset range, thereby performing the infrared user detection periodically within the first preset time interval within the preset range, when it is detected that no operation instruction exists within a second preset time interval; and • determining whether a user can be detected within the first preset time interval and performing a standby operation according to a determination result, wherein the performing the standby operation according to the determination result comprises: shortening a screen standby timeout period to a third preset time interval when the determination result is no; and determining whether an operation instruction exists within the third preset time interval, and if not, entering a standby state. shortening a screen standby timeout period to a third preset time interval when the determination result is no; and determining whether an operation instruction exists within the third preset time interval, and if not, entering a standby state.
A method for forming upholstery for an element of a motor vehicle seat, wherein: a foam support block is produced to fit a frame element; a cover element is created by cold-forming of a foam sprayed onto a polypropylene substrate and attached to the reverse side of a textile, leather or synthetic material to define the visible shape of the seat element, the cold-forming consisting in applying a pressure while the foam is in a viscous state; and the cover element is attached to the support block. a foam support block is produced to fit a frame element; a cover element is created by cold-forming of a foam sprayed onto a polypropylene substrate and attached to the reverse side of a textile, leather or synthetic material to define the visible shape of the seat element, the cold-forming consisting in applying a pressure while the foam is in a viscous state; and the cover element is attached to the support block.
A method for constructing a network enabling layer-2 interconnection of data centers, comprising: registering, at a neighbor server and by an edge device of a first data center, information of the first data center, which includes an IP address of the edge device of the first data center; obtaining, from the neighbor server and by the edge device of the first data center, information of a second data center including an IP address of an edge device of the second data center; generating, in an edge device of the first data center, a virtual bridge port for the second data center based on the information of the edge device of the second data center; configuring a tunnel encapsulation entry corresponding to the virtual bridge port in a tunnel encapsulation mapping table, wherein the tunnel encapsulation entry includes the virtual bridge port, an IP address of the edge device of the second data center, the IP address of the edge device of the first data center; establishing, by the edge device of the first data center, a tunnel with the edge device of the second data center according to the tunnel encapsulation entry corresponding to the virtual bridge port, the tunnel extending over a core network between the first data center and the second data center; and transmitting, by the edge device of the first data center, data via the tunnel. registering, at a neighbor server and by an edge device of a first data center, information of the first data center, which includes an IP address of the edge device of the first data center; obtaining, from the neighbor server and by the edge device of the first data center, information of a second data center including an IP address of an edge device of the second data center; generating, in an edge device of the first data center, a virtual bridge port for the second data center based on the information of the edge device of the second data center; configuring a tunnel encapsulation entry corresponding to the virtual bridge port in a tunnel encapsulation mapping table, wherein the tunnel encapsulation entry includes the virtual bridge port, an IP address of the edge device of the second data center, the IP address of the edge device of the first data center; establishing, by the edge device of the first data center, a tunnel with the edge device of the second data center according to the tunnel encapsulation entry corresponding to the virtual bridge port, the tunnel extending over a core network between the first data center and the second data center; and transmitting, by the edge device of the first data center, data via the tunnel.
Auto-calibration method of inertial equipment comprising an inertial core forming a sensor reference frame, said core comprising at least two gyroscopes, the method being executed during at least two successive missions (M n, M n+1) of the inertial equipment, each mission being a static phase comprising the determination, from measurements of the gyroscopes, of the orientation of the equipment in a geographic reference frame comprising the axis of North and the axis of the vertical (Up), the relative positions of the sensor reference frame (X,Y,Z) and of the geographic reference frame being different from one mission to the other, the method being characterised by carrying out: - during a mission (M n) of the equipment an estimation of drift errors (X n) of the gyroscopes on the orientation of the equipment at least relative to the axis of North ( dgyrN), and - during a following mission (M n+1), a calculation of drift of error corrections (DX n) of the sensor reference frame (X,Y,Z), from drift errors estimated on the orientation of the equipment, and - a calculation of drift (X n+1) errors of the sensor reference frame (X,Y,Z) consisting of correcting by means of said corrections (DX n) of drift errors of the sensor reference frame, the drift errors (X n) of the sensor reference frame having been estimated during the preceding mission (M n). - during a mission (M n) of the equipment an estimation of drift errors (X n) of the gyroscopes on the orientation of the equipment at least relative to the axis of North ( dgyrN), and - during a following mission (M n+1), a calculation of drift of error corrections (DX n) of the sensor reference frame (X,Y,Z), from drift errors estimated on the orientation of the equipment, and - a calculation of drift (X n+1) errors of the sensor reference frame (X,Y,Z) consisting of correcting by means of said corrections (DX n) of drift errors of the sensor reference frame, the drift errors (X n) of the sensor reference frame having been estimated during the preceding mission (M n).
A pharmaceutical composition comprising an aquaporin 4 function promotor as an active ingredient and at least one pharmaceutically acceptable carrier or pharmaceutically acceptable diluent, for use in the treatment of a neurological disorder, wherein the aquaporin 4 function promotor is a compound represented by Formula, or a pharmaceutically acceptable salt thereof: wherein R 21 is selected from: a linear, branched or cyclic alkyl group having 1 to 10 carbon atoms, an alicyclic heterocyclic group, an aromatic hydrocarbon group, or an aromatic heterocyclic group, wherein said cyclic alkyl group, alicyclic heterocyclic group, aromatic hydrocarbon group, and aromatic heterocyclic group is optionally substituted with one or more substituents selected from halogen, hydroxyl, or linear, branched, or cyclic alkyl group having 1 to 10 carbon atoms. wherein the aquaporin 4 function promotor is a compound represented by Formula, or a pharmaceutically acceptable salt thereof: wherein R 21 is selected from: a linear, branched or cyclic alkyl group having 1 to 10 carbon atoms, an alicyclic heterocyclic group, an aromatic hydrocarbon group, or an aromatic heterocyclic group, wherein said cyclic alkyl group, alicyclic heterocyclic group, aromatic hydrocarbon group, and aromatic heterocyclic group is optionally substituted with one or more substituents selected from halogen, hydroxyl, or linear, branched, or cyclic alkyl group having 1 to 10 carbon atoms.
A method for subscribing to a radio link failure, RLF, report, comprising: configuring, by an integration reference point agent, IRPAgent, a subscription condition for an RLF report subscribed to by an integration reference point manager, IRPManager; obtaining, by the IRPAgent according to the subscription condition, an RLF report that satisfies the subscription condition; and sending, by the IRPAgent, the RLF report that satisfies the subscription condition to the IRPManager. configuring, by an integration reference point agent, IRPAgent, a subscription condition for an RLF report subscribed to by an integration reference point manager, IRPManager; obtaining, by the IRPAgent according to the subscription condition, an RLF report that satisfies the subscription condition; and sending, by the IRPAgent, the RLF report that satisfies the subscription condition to the IRPManager.