mhurhangee/ep-ind-claims huggingface dataset:
A method of adjusting a clock frequency in a transmitting or receiving device comprising: determining a particular accuracy of transmitting or receiving by the device; allocating one or more parallel resources to adjust for the particular accuracy, the particular accuracy being related to a particular clock frequency; and switching to one or more parallel paths to respectively connect the one or more parallel resources thereby changing the clock frequency to the particular clock frequency to process data signals based on the particular accuracy, wherein the clock frequency increases with the number of parallel paths connected. determining a particular accuracy of transmitting or receiving by the device; allocating one or more parallel resources to adjust for the particular accuracy, the particular accuracy being related to a particular clock frequency; and switching to one or more parallel paths to respectively connect the one or more parallel resources thereby changing the clock frequency to the particular clock frequency to process data signals based on the particular accuracy, wherein the clock frequency increases with the number of parallel paths connected.
An apparatus (20, 200) for holding containers (10, 100) at least during a conveying procedure and/or a treatment procedure of the containers (10, 100), which at least in the aperture region have a carrying ring and/or a ring pull arranged at a distance from the carrying ring in a longitudinal direction of the container (10, 100), characterized in that the apparatus (20, 200) has a clip element with at least two clip element arms (11 a, 11 b, 111 a, 111 b), wherein each of the clip element arms (11 a, 11 b, 111 a, 111 b) has at least one first holding element (12a, 13a, 112a, 113a) and one second holding element (12b, 13b, 112b, 113b), wherein the holding elements (12a, 12b, 13a, 13b, 112a, 112b, 113a, 113b) are designed in such a way that they contact regions of the container (10, 100) arranged at a distance from one another in the peripheral direction of the container (10, 100) and offset from one another in the longitudinal direction of the container (10, 100) at least for a time simultaneously and at least in sections.
A method for detecting defects of a strand-like product conveyed along a conveying direction with a conveying speed of more than 50 m/min, wherein the strand-like product, during the conveying along the conveying direction, also performs a lateral movement transversely to the conveying direction, characterized in that terahertz radiation is emitted by at least one transmitter onto the strand-like product conveyed along the conveying direction and terahertz radiation reflected by the strand-like product is received by at least one receiver, and in that a defect of the strand-like product is inferred from a temporary change in the terahertz radiation signal received by the at least one receiver, wherein a defect of the strand-like product is inferred from the temporary change in the terahertz radiation signal received by the receiver only if a frequency of the temporary change is greater than a frequency of the lateral movement of the strand-like product.
A method, comprising: transmitting a control blanking request for blanking a set of control resources to one or more interfering devices; and communicating control information with a disparate device over the set of control resources, wherein the method further comprises: selecting the set of control resources from available downlink control resources, wherein transmitting the control blanking request includes sending a control blanking message comprising the control blanking request to the one or more interfering devices, wherein the control blanking message further comprises: an indication of interfering devices to which the request for blanking should be transmitted, an explicit indication of the set of control resources, and/or parameters for determining the resources. transmitting a control blanking request for blanking a set of control resources to one or more interfering devices; and communicating control information with a disparate device over the set of control resources, wherein the method further comprises: selecting the set of control resources from available downlink control resources, wherein transmitting the control blanking request includes sending a control blanking message comprising the control blanking request to the one or more interfering devices, wherein the control blanking message further comprises: an indication of interfering devices to which the request for blanking should be transmitted, an explicit indication of the set of control resources, and/or parameters for determining the resources.
A method for measuring the total radiated power of an array antenna, comprising: dividing an array antenna to be measured into N antenna sub-arrays, the N being greater than or equal to 2; determining a Rayleigh resolution according to the maximum sizes of the N antenna sub-arrays, and determining a sampling interval according to the Rayleigh resolution; determining sampling points according to the sampling interval; and determining the total radiated power of the entire array antenna according to the equivalent isotropic radiated power of the sampling points. dividing an array antenna to be measured into N antenna sub-arrays, the N being greater than or equal to 2; determining a Rayleigh resolution according to the maximum sizes of the N antenna sub-arrays, and determining a sampling interval according to the Rayleigh resolution; determining sampling points according to the sampling interval; and determining the total radiated power of the entire array antenna according to the equivalent isotropic radiated power of the sampling points.
Internal combustion engine, having an exhaust-gas turbocharger and a supercharger, a compressor of the exhaust-gas turbocharger being arranged in the air duct for combustion air upstream of the supercharger and being arranged in the air duct for combustion air in such a way that the compressor of the exhaust-gas turbocharger sucks in combustion air directly from an air filter, a first charge-air cooler being arranged downstream of the compressor of the exhaust-gas turbocharger and upstream of the supercharger and a second charge-air cooler being arranged downstream of the supercharger, characterized in that the first charge-air cooler, the second charge-air cooler, the supercharger and an intake manifold are arranged in a single charge-air cooling module, direct fuel injection into combustion chambers of the internal combustion engine being provided for supplying fuel.
An electrochromic device comprising: a first substrate; a first electrode layer formed on the first substrate; an electrochromic layer formed on the first electrode layer; a second substrate facing the first substrate; a second electrode layer formed on a surface of the second substrate at a side of the first substrate; an electrolyte layer formed between the electrochromic layer and the second electrode layer; a first extraction electrode configured to electrically connect between the first electrode layer and a power source; and a second extraction electrode configured to electrically connect between the second electrode layer and the power source; characterized in that the electrolyte layer has been cured using at least ultraviolet rays and the first and second extraction electrodes have side surfaces aligned with the side surfaces of the first and second substrates, respectively, and have respective regions that do not transmit ultraviolet rays and are arranged not to overlap with each other. a first substrate; a first electrode layer formed on the first substrate; an electrochromic layer formed on the first electrode layer; a second substrate facing the first substrate; a second electrode layer formed on a surface of the second substrate at a side of the first substrate; an electrolyte layer formed between the electrochromic layer and the second electrode layer; a first extraction electrode configured to electrically connect between the first electrode layer and a power source; and a second extraction electrode configured to electrically connect between the second electrode layer and the power source;
A ship speed control device, comprising: a calculator configured to calculate a throttle calculation value (Re) based on a difference between an actual ship speed and a target ship speed (Vt); and a throttle command value setter configured to set a throttle command value to a throttle upper limit (Rs) when the actual ship speed is below a first threshold (THr) determined based on the given throttle upper limit (Rs) and the throttle calculation value (Re) is at or above the throttle upper limit (Rs), characterized in that the throttle command value setter restricts the throttle command value using the throttle upper limit (Rs) when a ship speed setting (Vp), from which the target ship speed (Vt) is calculated and that is a final ship speed during an automatic ship speed control, is above the first threshold (THr) and is at or above a second threshold (THs) that is determined based on the throttle upper limit (Rs). a calculator configured to calculate a throttle calculation value (Re) based on a difference between an actual ship speed and a target ship speed (Vt); and a throttle command value setter configured to set a throttle command value to a throttle upper limit (Rs) when the actual ship speed is below a first threshold (THr) determined based on the given throttle upper limit (Rs) and the throttle calculation value (Re) is at or above the throttle upper limit (Rs),
A formation method, comprising: providing a first component comprising a first fiber-reinforced thermoplastic composite, the first component including a base and a material buildup on a portion of the base, wherein the material buildup is a localized buildup of thermoplastic material on the portion of the base such that a built up section of the first component includes a respective section of the base and the material buildup and one or more sections of the first component adjacent the built up section include a respective section of the base without the material buildup; providing a second component comprising a second fiber-reinforced thermoplastic composite; arranging the second component with the first component, the second component abutting the material buildup; and vibration welding the second component to the first component to provide a weld joint between the first component and the second component, wherein at least a portion of the material buildup is displaced during the vibration welding, characterised in that at least one of: the first fiber-reinforced thermoplastic composite comprises at least thirty-five percent by unit volume continuous fibers; or the second fiber-reinforced thermoplastic composite comprises at least thirty-five percent by unit volume continuous fibers. providing a first component comprising a first fiber-reinforced thermoplastic composite, the first component including a base and a material buildup on a portion of the base, wherein the material buildup is a localized buildup of thermoplastic material on the portion of the base such that a built up section of the first component includes a respective section of the base and the material buildup and one or more sections of the first component adjacent the built up section include a respective section of the base without the material buildup; providing a second component comprising a second fiber-reinforced thermoplastic composite; arranging the second component with the first component, the second component abutting the material buildup; and vibration welding the second component to the first component to provide a weld joint between the first component and the second component, wherein at least a portion of the material buildup is displaced during the vibration welding, characterised in that at least one of: the first fiber-reinforced thermoplastic composite comprises at least thirty-five percent by unit volume continuous fibers; or the second fiber-reinforced thermoplastic composite comprises at least thirty-five percent by unit volume continuous fibers. the first fiber-reinforced thermoplastic composite comprises at least thirty-five percent by unit volume continuous fibers; or the second fiber-reinforced thermoplastic composite comprises at least thirty-five percent by unit volume continuous fibers.
A valve for a reciprocating compressor, comprising a valve body comprising a seat and a guard and defining a valve plane, the seat and the guard developing substantially parallel to the valve plane; a shutter element placed between the seat and the guard and developing substantially parallel to the valve plane, the shutter element being configured to move between a closed position in which the passage of fluid is prevented and an open position in which the passage of fluid is allowed; an hydraulic apparatus for moving the shutter element at least between the open and the closed position, the hydraulic apparatus comprising an hydraulic circuit having at least a portion (8a, 8b) integrated in the valve body; characterized in that the hydraulic circuit comprises a first portion integrated in the seat and a second portion integrated in the guard; and the hydraulic apparatus further comprises a first set of housings provided inside the seat, a first set of the pistons being each at least partially inserted into a respective housing of the first set of housings, and a second set of housings provided inside the guard, a second set of the pistons being each at least partially inserted into a respective housing of the second set of housings; wherein each of the pistons (9,10) is in contact with the shutter element; and wherein each piston of the first set is opposite to a corresponding piston of the second set with respect to the shutter element.
A service scheduling method, comprising: obtaining, by a scheduler, scheduling information of multiple services deployed at a service layer of a network device; generating, by the scheduler, scheduling logic according to the scheduling information of the multiple services, wherein the scheduling logic comprises an execution sequence of multiple processing modules that process a packet and a mapping relationship between each service and a scheduling point of each service, wherein the scheduling point of each service is a logical control point at which the scheduler schedules the service, and the scheduling point exists between processing modules of the multiple processing modules and/or inside each processing module; and invoking, by the scheduler, according to the execution sequence of the multiple processing modules, the multiple processing modules to process a packet received by the network device, and invoking a corresponding service at each scheduling point according to the mapping relationship comprised in the scheduling logic. obtaining, by a scheduler, scheduling information of multiple services deployed at a service layer of a network device; generating, by the scheduler, scheduling logic according to the scheduling information of the multiple services, wherein the scheduling logic comprises an execution sequence of multiple processing modules that process a packet and a mapping relationship between each service and a scheduling point of each service, wherein the scheduling point of each service is a logical control point at which the scheduler schedules the service, and the scheduling point exists between processing modules of the multiple processing modules and/or inside each processing module; and invoking, by the scheduler, according to the execution sequence of the multiple processing modules, the multiple processing modules to process a packet received by the network device, and invoking a corresponding service at each scheduling point according to the mapping relationship comprised in the scheduling logic.
A reeling device that can be mounted to a head rail for suspending a curtain or a blind, said reeling device comprising - a bracket component comprising a base part provided with a first bracket at a first base part end and a second bracket at a second base part end, - a reel component having a main reel body, a first reel end protruding axially from the main reel body and being rotational journaled at the first bracket, and a second reel end protruding axially from the main reel body opposite the first reel end and being rotational journaled at the second bracket, - the reel component has a lengthwise shaft hole for receiving a rotational drive shaft for winding and unwinding a lift string on and off the main reel body, - a coupling component adapted to secure the bracket component with the reel component to the head rail, and - the coupling component has a shaft that extends between a handle part and a coupling flange, characterized in that the shaft extends through an opening arranged at substantial equal distance from the first base part end and the second base part end in a centre section of the base part of the bracket component so that the coupling component is turnable coupled to the base part of said bracket component (2 wherein the reeling device is securable to the head rail without screws. - a bracket component comprising a base part provided with a first bracket at a first base part end and a second bracket at a second base part end, - a reel component having a main reel body, a first reel end protruding axially from the main reel body and being rotational journaled at the first bracket, and a second reel end protruding axially from the main reel body opposite the first reel end and being rotational journaled at the second bracket, - the reel component has a lengthwise shaft hole for receiving a rotational drive shaft for winding and unwinding a lift string on and off the main reel body, - a coupling component adapted to secure the bracket component with the reel component to the head rail, and - the coupling component has a shaft that extends between a handle part and a coupling flange, characterized in that the shaft extends through an opening arranged at substantial equal distance from the first base part end and the second base part end in a centre section of the base part of the bracket component so that the coupling component is turnable coupled to the base part of said bracket component (2 wherein the reeling device is securable to the head rail without screws.
A plate-shaped cutting insert that is detachably mounted in a front end portion of a tool main body that is rotated around a central axis, the cutting insert comprising: a rake face; a flank surface; and a cutting edge that is formed along an intersection ridge between the rake face and the flank surface, characterised in that the cutting edge includes a bottom cutting edge that is positioned at a front end in a central axis direction and forms a convex arc shape, and an outer peripheral cutting edge that is aligned with a radial-direction outer end of the bottom cutting edge and forms a convex arc shape of which a curvature radius is larger than that of the bottom cutting edge, wherein an angle formed between a tangent line to a boundary point between the bottom cutting edge and the outer peripheral cutting edge and the central axis is less than 45°, wherein a curvature radius R1 of the bottom cutting edge is 0.3 to 10 mm, wherein a ratio (R2/R1) of a curvature radius R2 of the outer peripheral cutting edge to the curvature radius R1 of the bottom cutting edge is 3.6 to 333, and wherein the cutting edge includes a linear edge that is positioned at a base end in the central axis direction and extends to be parallel to the central axis. a rake face; a flank surface; and a cutting edge that is formed along an intersection ridge between the rake face and the flank surface, characterised in that the cutting edge includes a bottom cutting edge that is positioned at a front end in a central axis direction and forms a convex arc shape, and an outer peripheral cutting edge that is aligned with a radial-direction outer end of the bottom cutting edge and forms a convex arc shape of which a curvature radius is larger than that of the bottom cutting edge, characterised in that the cutting edge includes a bottom cutting edge that is positioned at a front end in a central axis direction and forms a convex arc shape, and an outer peripheral cutting edge that is aligned with a radial-direction outer end of the bottom cutting edge and forms a convex arc shape of which a curvature radius is larger than that of the bottom cutting edge, wherein an angle formed between a tangent line to a boundary point between the bottom cutting edge and the outer peripheral cutting edge and the central axis is less than 45°, wherein a curvature radius R1 of the bottom cutting edge is 0.3 to 10 mm, wherein a ratio (R2/R1) of a curvature radius R2 of the outer peripheral cutting edge to the curvature radius R1 of the bottom cutting edge is 3.6 to 333, and wherein the cutting edge includes a linear edge that is positioned at a base end in the central axis direction and extends to be parallel to the central axis.
A method of manufacturing nanoparticles of a photoluminescent material, comprising the successive steps of: a) forming nanometer-range particles of said photoluminescent material; b) forming a dispersion containing the particles in a non-aqueous solvent, the dispersion further containing at least one surface agent; c) placing the dispersion in an autoclave at a pressure in the range from 2 MPa to 100 MPa; and d) recovering the particles. a) forming nanometer-range particles of said photoluminescent material; b) forming a dispersion containing the particles in a non-aqueous solvent, the dispersion further containing at least one surface agent; c) placing the dispersion in an autoclave at a pressure in the range from 2 MPa to 100 MPa; and d) recovering the particles.