mhurhangee/ep-ind-claims huggingface dataset:
A device for coating one or more yarns by a vapor deposition method, comprising at least: - a treatment chamber extending along a longitudinal axis and having at least one treatment zone situated between an internal circumferential wall and an external circumferential wall, and within which at least one yarn is to be coated by performing a vapor deposition method; - a conveyor system configured to transport said at least one yarn through the treatment zone; - an injector device configured to inject a treatment gas phase into the treatment zone through at least one inlet orifice present in the internal or external circumferential wall (5 or 7); and - a removal device configured to remove the residual gas phase from the treatment zone through at least one outlet orifice present in the internal or external circumferential wall (5 or 7), said inlet orifice and said outlet orifice being situated in a common plane perpendicular to the longitudinal axis of the treatment chamber and being offset around the circumferential direction of the treatment chamber. - a treatment chamber extending along a longitudinal axis and having at least one treatment zone situated between an internal circumferential wall and an external circumferential wall, and within which at least one yarn is to be coated by performing a vapor deposition method; - a conveyor system configured to transport said at least one yarn through the treatment zone; - an injector device configured to inject a treatment gas phase into the treatment zone through at least one inlet orifice present in the internal or external circumferential wall (5 or 7); and - a removal device configured to remove the residual gas phase from the treatment zone through at least one outlet orifice present in the internal or external circumferential wall (5 or 7), said inlet orifice and said outlet orifice being situated in a common plane perpendicular to the longitudinal axis of the treatment chamber and being offset around the circumferential direction of the treatment chamber.
A cycloidal rotor having a plurality of blades mounted to follow a generally non-circular track; track changing means operative to transition between a plurality of track shapes; blade pitch adjusting means for adjusting the blade angle-of-attack, blade dynamic counterbalancing means to assure that the rotor remains balanced and drive means for propelling the blades along said track.
A composition comprising: - a polyvinylidene fluoride homopolymer; - a copolymer of vinylidene fluoride and of at least one other fluorinated comonomer which is copolymerizable with VDF, the copolymer being present in the composition in a proportion by weight of 10 to 35%; and - a plasticizer; the proportion by weight of comonomer other than vinylidene fluoride in the copolymer being greater than 25%, and the plasticizer being present in a proportion by weight of 1 to 5%. - a polyvinylidene fluoride homopolymer; - a copolymer of vinylidene fluoride and of at least one other fluorinated comonomer which is copolymerizable with VDF, the copolymer being present in the composition in a proportion by weight of 10 to 35%; and - a plasticizer;
A method (130, 160) of executing a function at a server, wherein a readable identifier associated with an image is read, the identifier being for example an RFID identifier, a barcode, a symbol readable by means of pattern recognition, a magnetic tape and/or an optical code, and characterized in that in the method comprises - delivering a message associated with said identifier in a data terminal to the server from said data terminal, wherein at the server at least one specific function is associated with the delivered message, and - carrying out said at least one function by the server based on said received message. - delivering a message associated with said identifier in a data terminal to the server from said data terminal, wherein at the server at least one specific function is associated with the delivered message, and - carrying out said at least one function by the server based on said received message.
An aircraft table, comprising: - an attachment mechanism for attaching the aircraft table to a floor of an aircraft, wherein the attachment mechanism comprises an attachment element moveable between a mated position, where the attachment element is able to mate with a corresponding mating element connected to the floor of the aircraft, and an unmated position, where the attachment element is unable to mate with the corresponding mating element, and - an integrated locking mechanism for locking the attachment mechanism, the locking mechanism comprising a locking element moveable between a locking position, where the locking element is able to lock the attachment element in the mated position, and an unlocking position, where the locking element is not able to lock the attachment element in the mated position, characterised in that the locking element is caused to move from the unlocking position to the locking position by the action of moving a table top of the aircraft table from a stowed, vertical position to a second position and wherein, in the second position, the aircraft table is useable. - an attachment mechanism for attaching the aircraft table to a floor of an aircraft, wherein the attachment mechanism comprises an attachment element moveable between a mated position, where the attachment element is able to mate with a corresponding mating element connected to the floor of the aircraft, and an unmated position, where the attachment element is unable to mate with the corresponding mating element, and - an integrated locking mechanism for locking the attachment mechanism, the locking mechanism comprising a locking element moveable between a locking position, where the locking element is able to lock the attachment element in the mated position, and an unlocking position, where the locking element is not able to lock the attachment element in the mated position,
An oven of the ventilated type, in particular for domestic use, comprising: - a muffle defining a cooking compartment where food to be cooked is placed, said muffle comprising a bottom wall, a top wall, a back wall, a front wall opposite to said back wall, and two mutually opposite side walls; - heating means associated with the muffle for heating air in said muffle and causing said food to be cooked; - a fan for circulating air in said muffle, the fan being located in a cavity associated with the back wall of the muffle via a bulkhead; - inlet means allowing said cavity to be in fluidic communication with the compartment of the muffle, so as to allow the air contained in said cavity and moved by the fan to flow into the compartment of the muffle, said inlet means comprising at least one opening in said bulkhead; - return means allowing the compartment of the muffle to be in fluidic communication with the cavity, so as to allow the air contained in said compartment to be sucked in by the fan and return into the cavity, wherein said return means comprise at least one passage in said bulkhead and a channel comprising a first end associated with said at least one passage and a second end situated in the proximity of the front wall, so as to draw air near the front wall of the muffle and convey it towards the fan through said at least one passage, characterized in that said second end is so realized as to longitudinally extend in the proximity of the front wall, said second end comprising a plurality of ports for sucking in air near the front wall, said channel comprising an intermediate body connecting the first end and the second end, in particular said intermediate body being so realized as to extend along a substantially central portion of the bottom wall, wherein at least one port of said plurality of ports is placed on a ridge of the second end, said ridge being raised relative to the second end and to the bottom wall. - a muffle defining a cooking compartment where food to be cooked is placed, said muffle comprising a bottom wall, a top wall, a back wall, a front wall opposite to said back wall, and two mutually opposite side walls; - heating means associated with the muffle for heating air in said muffle and causing said food to be cooked; - a fan for circulating air in said muffle, the fan being located in a cavity associated with the back wall of the muffle via a bulkhead; - inlet means allowing said cavity to be in fluidic communication with the compartment of the muffle, so as to allow the air contained in said cavity and moved by the fan to flow into the compartment of the muffle, said inlet means comprising at least one opening in said bulkhead; - return means allowing the compartment of the muffle to be in fluidic communication with the cavity, so as to allow the air contained in said compartment to be sucked in by the fan and return into the cavity,
A vortex flowmeter configured to measure a flow rate of a fluid flow comprising: a housing including an interior cavity having a central axis; a vortex shedder supported by the housing and extending into the interior cavity along a first axis that is oblique to the central axis; an ultrasonic sensor supported by the housing on a downstream side of the vortex shedder and configured to produce an ultrasonic flow rate output that is indicative of the flow rate of the fluid flow through the interior cavity, the ultrasonic sensor including an ultrasonic emitter and an ultrasonic receiver that are positioned on opposing sides of the interior cavity; a bending moment sensor supported by the housing on the downstream side of the vortex shedder and configured to produce a bending moment flow rate output that is indicative of the flow rate of the fluid flow through the interior cavity, the bending moment sensor including a beam extending from a wall of the interior cavity along the first axis; and a controller configured to use the bending moment flow rate output from the bending moment sensor to detect a shedding frequency of vortices shed by the vortex shedder and configured to generate a flow rate measurement that is indicative of the flow rate based on the ultrasonic flow rate output and/or the bending moment flow rate output. a housing including an interior cavity having a central axis; a vortex shedder supported by the housing and extending into the interior cavity along a first axis that is oblique to the central axis; an ultrasonic sensor supported by the housing on a downstream side of the vortex shedder and configured to produce an ultrasonic flow rate output that is indicative of the flow rate of the fluid flow through the interior cavity, the ultrasonic sensor including an ultrasonic emitter and an ultrasonic receiver that are positioned on opposing sides of the interior cavity; a bending moment sensor supported by the housing on the downstream side of the vortex shedder and configured to produce a bending moment flow rate output that is indicative of the flow rate of the fluid flow through the interior cavity, the bending moment sensor including a beam extending from a wall of the interior cavity along the first axis; and a controller configured to use the bending moment flow rate output from the bending moment sensor to detect a shedding frequency of vortices shed by the vortex shedder and configured to generate a flow rate measurement that is indicative of the flow rate based on the ultrasonic flow rate output and/or the bending moment flow rate output.
An information transmission method, comprising: sending, by a user equipment, UE, control signaling to an eNB, wherein the sent control signaling is used to indicate that the UE supports a second set of tables, the second set of tables includes a modulation and coding scheme, MCS, table and a channel quality indicator, CQI, table, and a modulation scheme that can be supported by the second set of tables is higher than 64QAM, wherein the UE also supports a first set of tables, the first set of tables includes another MCS table which is different from the MCS table of the second set of tables, and the first set of tables includes another CQI table which is different from the CQI table of the second set of tables; receiving, by the UE, control signaling sent by the eNB, wherein the received control signaling is used to indicate use of the second set of tables; determining, by the UE, a CQI value by using the CQI table in the second set of tables; reporting, by the UE, the CQI value to the eNB, wherein the CQI value is for the eNB to determine an MCS value according to the CQI value; receiving, by the UE, the MCS value sent by the eNB; and receiving, by the UE, PDSCH data according to the MCS value. sending, by a user equipment, UE, control signaling to an eNB, wherein the sent control signaling is used to indicate that the UE supports a second set of tables, the second set of tables includes a modulation and coding scheme, MCS, table and a channel quality indicator, CQI, table, and a modulation scheme that can be supported by the second set of tables is higher than 64QAM, wherein the UE also supports a first set of tables, the first set of tables includes another MCS table which is different from the MCS table of the second set of tables, and the first set of tables includes another CQI table which is different from the CQI table of the second set of tables; receiving, by the UE, control signaling sent by the eNB, wherein the received control signaling is used to indicate use of the second set of tables; determining, by the UE, a CQI value by using the CQI table in the second set of tables; reporting, by the UE, the CQI value to the eNB, wherein the CQI value is for the eNB to determine an MCS value according to the CQI value; receiving, by the UE, the MCS value sent by the eNB; and receiving, by the UE, PDSCH data according to the MCS value.
A light reflection device comprising: a composite substrate formed by long fiber injection molding; a mirror plastic film securely affixed to the composite substrate; and a reflection coating affixed to the composite substrate with the mirror plastic film sandwiched therebetween, wherein the reflection coating is affixed to the mirror plastic film via physical vapor deposition, and a hard layer which is applied to a surface of the reflection coating, characterized in that the device further comprises a heat conservation layer which is sandwiched between the composite substrate and the mirror plastic film. a composite substrate formed by long fiber injection molding; a mirror plastic film securely affixed to the composite substrate; and a reflection coating affixed to the composite substrate with the mirror plastic film sandwiched therebetween, wherein the reflection coating is affixed to the mirror plastic film via physical vapor deposition, and a hard layer which is applied to a surface of the reflection coating, characterized in that the device further comprises a heat conservation layer which is sandwiched between the composite substrate and the mirror plastic film.
A method of operating a cold atom clock to maintain a highly homogeneous microwave field, the method comprising: driving a subset and of microwave feed lines,,, and to excite a microwave field in a resonator, while a power and a phase of at least one microwave feed line in the subset is held constant, and while the power or the phase of at least one other microwave feed line in the subset is changed; measuring a strength of the atomic transition excited by the microwave field in the resonator while driving the subset of the microwave feed lines; extracting a relative power and a relative phase between or among the subset of microwave feed lines by processing the strength of the atomic transitions excited by the microwave field measured in at least one auxiliary-measurement cycle; and determining if an adjustment to one or more of the microwave feed lines in the subset of microwave feed lines is needed to improve the homogeneity of the microwave field phase and amplitude based on the extracting. driving a subset and of microwave feed lines,,, and to excite a microwave field in a resonator, while a power and a phase of at least one microwave feed line in the subset is held constant, and while the power or the phase of at least one other microwave feed line in the subset is changed; measuring a strength of the atomic transition excited by the microwave field in the resonator while driving the subset of the microwave feed lines; extracting a relative power and a relative phase between or among the subset of microwave feed lines by processing the strength of the atomic transitions excited by the microwave field measured in at least one auxiliary-measurement cycle; and determining if an adjustment to one or more of the microwave feed lines in the subset of microwave feed lines is needed to improve the homogeneity of the microwave field phase and amplitude based on the extracting.
Fluid line of an internal combustion engine, having a valve (100; 200; 300; 400) for adjusting a fluid mass flow in the fluid line, having at least one first flow opening with a first valve seat and with at least one first valve element, which interacts with the first valve seat, such that the first valve element selectively opens the first flow opening with variable flow cross section or closes said first flow opening in fluid-tight fashion, and having at least one second flow opening with a second valve seat and with at least one second valve element which interacts with the second valve seat, such that the second valve element selectively opens the second flow opening with variable flow cross section or closes said second flow opening in fluid-tight fashion, wherein the first valve seat is formed on a downstream end of the first flow opening with respect to a fluid mass flow through the fluid line and the second valve seat is formed on an upstream end of the second flow opening with respect to the fluid mass flow through the fluid line, and the valve has a lever which is pivotable about a pivot axle and which has at least one first lever arm and at least one second lever arm which are rigidly connected to one another at the pivot axle, wherein the first valve element is arranged on the first lever arm so as to be spaced apart from the pivot axle by a predetermined first length (l 1) and the second valve element is arranged on the second lever arm as to be spaced apart from the pivot axle by a predetermined second length (l 2), in such a way that a pivoting of the lever about the pivot axle in a first direction moves both valve elements (24, 26) away from their respective valve seat (20, 22) and a pivoting in an opposite, second direction moves both valve elements (24, 26) toward their respective valve seat (20, 22), characterized in that the first and/or second valve element (24, 26) is connected to the respective lever arm (38, 30) by way of in each case one resiliently elastic element, wherein the resiliently elastic element is arranged and designed so as to exert a force on the respective valve element (24, 26) in a closing direction in relation to the closure of the respective flow opening (16, 18) as a result of interaction of valve element (24, 26) and valve seat (20, 22).
A centrifugal compressor impeller having blades extending from an inlet to an outlet for a fluid, in which: when a distribution of blade angles (β) of a tip is viewed in a direction in which the tip extends from a tip inlet to a tip outlet for the tip, and a blade angle (β) at a point J is defined by tan β=d(rθ)/dj, in which rθ is a distance in a circumferential direction between the tip inlet and the point J on the tip, and j is a length measured along the tip from the tip inlet to the point J, each of the blades includes a constant blade angle region in which the blade angles (β) are substantially constant; and a start point on the inlet side of the constant blade angle region is set at a position spaced apart from the inlet, characterized in that a normalized meridional distance of the start point on the inlet side from the inlet is 0.05 m/m2 or more, the constant blade angle region is present within a region between a point at which the normalized meridional distance from the inlet is 0.05 m/m2 and a point at which the normalized meridional distance from the inlet is 0.40 m/m2, the blade angle (β) of each point within the constant blade angle region is an angle within a range of (β1±1)° when the blade angle (β) at the start point on the inlet side is set to a blade angle (β1), a width of the constant blade angle region is 0.05 m/m2 or more on the basis of the normalized meridional distance. when a distribution of blade angles (β) of a tip is viewed in a direction in which the tip extends from a tip inlet to a tip outlet for the tip, and a blade angle (β) at a point J is defined by tan β=d(rθ)/dj, in which rθ is a distance in a circumferential direction between the tip inlet and the point J on the tip, and j is a length measured along the tip from the tip inlet to the point J, rθ is a distance in a circumferential direction between the tip inlet and the point J on the tip, and j is a length measured along the tip from the tip inlet to the point J, each of the blades includes a constant blade angle region in which the blade angles (β) are substantially constant; and a start point on the inlet side of the constant blade angle region is set at a position spaced apart from the inlet, characterized in that a normalized meridional distance of the start point on the inlet side from the inlet is 0.05 m/m2 or more, the constant blade angle region is present within a region between a point at which the normalized meridional distance from the inlet is 0.05 m/m2 and a point at which the normalized meridional distance from the inlet is 0.40 m/m2, the blade angle (β) of each point within the constant blade angle region is an angle within a range of (β1±1)° when the blade angle (β) at the start point on the inlet side is set to a blade angle (β1), a width of the constant blade angle region is 0.05 m/m2 or more on the basis of the normalized meridional distance.
An electro-optical modulator, comprising: a bus waveguide for transmission of a light signal; an optical resonator cavity that is coupled to the bus waveguide to allow optical coupling between the optical resonator cavity and the bus waveguide; a capacitive structure formed to spatially overlap with a part of the optical resonator cavity, the capacitive structure composed of graphene, wherein the capacitive structure is controlled by an electrical signal such that an optical transmission characteristic of the electro-optical modulator is controllable by the electrical signal, wherein the optical resonator is configured to attenuate a transmission in the optical waveguide while a voltage is applied to the graphene. a bus waveguide for transmission of a light signal; an optical resonator cavity that is coupled to the bus waveguide to allow optical coupling between the optical resonator cavity and the bus waveguide; a capacitive structure formed to spatially overlap with a part of the optical resonator cavity, the capacitive structure composed of graphene, wherein the capacitive structure is controlled by an electrical signal such that an optical transmission characteristic of the electro-optical modulator is controllable by the electrical signal, wherein the optical resonator is configured to attenuate a transmission in the optical waveguide while a voltage is applied to the graphene.