mhurhangee/ep-ind-claims huggingface dataset:
A tool for forming a construct from a blank, the tool comprising: a cavity operable to receive a blank, the cavity comprising an articulating portion and a cavity base, the cavity comprises at least one sidewall for forming at least one sidewall of the construct, the construct being a three-dimensional container formed from the blank, the articulating portion being moveably connected to the cavity base, the cavity comprising at least one cavity spring for controlling movement of the articulating portion relative to the cavity base; a core operatively connected to the cavity, the core being operable to enter the cavity to at least partially form the blank into a construct, the core comprising a core base and a nose being moveably connected to the core base, the core has a surface for cooperating with the at least one sidewall to at least partially form the blank into the construct, the surface comprising a portion of an external surface of the core base and a portion of an external surface of the nose, the external surface of the core base and the external surface of the nose being spaced apart to at least partially form a gap, the core comprising at least one core spring for controlling movement of the nose relative to the core base, characterized in that the at least one cavity spring has a first strength, and the at least one core spring has a second strength, the first strength being greater than the second strength. a cavity operable to receive a blank, the cavity comprising an articulating portion and a cavity base, the cavity comprises at least one sidewall for forming at least one sidewall of the construct, the construct being a three-dimensional container formed from the blank, the articulating portion being moveably connected to the cavity base, the cavity comprising at least one cavity spring for controlling movement of the articulating portion relative to the cavity base; a core operatively connected to the cavity, the core being operable to enter the cavity to at least partially form the blank into a construct, the core comprising a core base and a nose being moveably connected to the core base, the core has a surface for cooperating with the at least one sidewall to at least partially form the blank into the construct, the surface comprising a portion of an external surface of the core base and a portion of an external surface of the nose, the external surface of the core base and the external surface of the nose being spaced apart to at least partially form a gap, the core comprising at least one core spring for controlling movement of the nose relative to the core base, characterized in that the at least one cavity spring has a first strength, and the at least one core spring has a second strength, the first strength being greater than the second strength.
A rotor comprising a shaft secured to a magnet, the magnet comprising a composite body having a bore and at least one reinforcing element embedded within the body, wherein the composite body comprises a magnetic powder and a binder, the shaft is secured within the bore, and said magnet being characterised in that the reinforcing element is a coil that surrounds the bore.
Method for forming a sealed piling in soil of at least two tongue-and-groove elements (1, 6, 18), at least one of which tongue-and-groove elements comprises a broaching tool, which method comprises the following steps: - the broaching tool is fastened to the tongue-and-groove element at a distance from the first corner of the tongue-and-groove element, and - the tongue-and-groove element is arranged in the soil and by means of sealing medium feeding device sealing medium is fed in a cavity created by arranging the broaching tool in the soil, characterised in that - the aforesaid distance is 0 - 20 % of the length of the first edge (8, 11) of the tongue-and-groove element, - a sealing medium feeding device is fastened to the tongue-and-groove element by an openable fastening device, - the fastening device is released and the sealing medium feeding device is disconnected from the tongue-and-groove element and pulled away from connection with the cavity after having arranged the tongue-and-groove element at a desired depth inside the soil, - a second tongue-and-groove element to be arranged in the soil is fitted in a lock tool of the first tongue-and-groove element previously arranged in the soil, which lock tool and the first edge of the first tongue-and-groove element previously arranged in the soil are surrounded by at least partly unhardened sealing medium. - the broaching tool is fastened to the tongue-and-groove element at a distance from the first corner of the tongue-and-groove element, and - the tongue-and-groove element is arranged in the soil and by means of sealing medium feeding device sealing medium is fed in a cavity created by arranging the broaching tool in the soil, characterised in that - the aforesaid distance is 0 - 20 % of the length of the first edge (8, 11) of the tongue-and-groove element, - a sealing medium feeding device is fastened to the tongue-and-groove element by an openable fastening device, - the fastening device is released and the sealing medium feeding device is disconnected from the tongue-and-groove element and pulled away from connection with the cavity after having arranged the tongue-and-groove element at a desired depth inside the soil, - a second tongue-and-groove element to be arranged in the soil is fitted in a lock tool of the first tongue-and-groove element previously arranged in the soil, which lock tool and the first edge of the first tongue-and-groove element previously arranged in the soil are surrounded by at least partly unhardened sealing medium.
An air purifier comprising: a first blower having a first fan configured to generate an air flow from a first suction part toward a first discharge part; a second blower having a second fan configured to generate an air flow from a second suction part toward a second discharge part; an installation space part configured to be formed between the first blower and the second blower; a power transmitter configured to be positioned inside the installation space part, to be fixed to any one of the first blower and the second blower, and to transmit a wireless power; and a power receiver configured to be positioned inside the installation space part, to be fixed to the other one of the first blower and the second blower, characterised in that the power receiver is configured to receive the wireless power transmitted from the power transmitter so that the power is supplied from one of the first blower and the second blower to the other one of the first blower and the second blower. a first blower having a first fan configured to generate an air flow from a first suction part toward a first discharge part; a second blower having a second fan configured to generate an air flow from a second suction part toward a second discharge part; an installation space part configured to be formed between the first blower and the second blower; a power transmitter configured to be positioned inside the installation space part, to be fixed to any one of the first blower and the second blower, and to transmit a wireless power; and a power receiver configured to be positioned inside the installation space part, to be fixed to the other one of the first blower and the second blower, characterised in that the power receiver is configured to receive the wireless power transmitted from the power transmitter so that the power is supplied from one of the first blower and the second blower to the other one of the first blower and the second blower.
A method for estimating a total mass of a vehicle, the method comprising the steps of: providing a plurality of speed sensors configured to sense a rotational speed of a plurality of components of a driveline of the vehicle; estimating an output torque of the driveline of the vehicle; calculating gear losses based on the output torque of the driveline; estimating friction losses based on a rotational speed of a portion of the driveline of the vehicle; calculating a rolling resistance of the vehicle; calculating an inertia of the vehicle; estimating the total mass of the vehicle based on the inertia of the vehicle; characterised in that it is further configured for using the total mass of the vehicle to adapt a shift strategy of the vehicle. providing a plurality of speed sensors configured to sense a rotational speed of a plurality of components of a driveline of the vehicle; estimating an output torque of the driveline of the vehicle; calculating gear losses based on the output torque of the driveline; estimating friction losses based on a rotational speed of a portion of the driveline of the vehicle; calculating a rolling resistance of the vehicle; calculating an inertia of the vehicle; estimating the total mass of the vehicle based on the inertia of the vehicle; characterised in that it is further configured for using the total mass of the vehicle to adapt a shift strategy of the vehicle.
A fluid distribution assembly for distributing a fluid, the fluid distribution assembly comprising: an inlet housing including a inlet, a first conduit, and a bypass conduit; a chip detector cavity in fluid communication with the first conduit such that the fluid can pass through the first conduit into the chip detector cavity; and an outlet housing in fluid communication with the chip detector cavity and the bypass conduit such that the fluid can pass into the outlet housing through the chip detector cavity and/or the bypass conduit, characterized in that the inlet housing includes a vortex reducer located adjacent the inlet which can reduce vortices created at an opening between the first conduit and the bypass conduit. an inlet housing including a inlet, a first conduit, and a bypass conduit; a chip detector cavity in fluid communication with the first conduit such that the fluid can pass through the first conduit into the chip detector cavity; and an outlet housing in fluid communication with the chip detector cavity and the bypass conduit such that the fluid can pass into the outlet housing through the chip detector cavity and/or the bypass conduit, characterized in that the inlet housing includes a vortex reducer located adjacent the inlet which can reduce vortices created at an opening between the first conduit and the bypass conduit.
A tubular light emitting diode light source, comprising: a tube manufactured in a heat conducting material and having an interior and an outside surface; and a plurality of LEDs mounted and evenly distributed on a part of the outside surface of the tube; control electronics disposed inside the tube and electrically connected to the LEDs; characterized by: connectors located at opposite ends of the light source, wherein the connectors are dimensioned to fit into sockets for fluorescent tubes; and a plurality of cooling fins on the outside surface of the tube. a tube manufactured in a heat conducting material and having an interior and an outside surface; and a plurality of LEDs mounted and evenly distributed on a part of the outside surface of the tube; control electronics disposed inside the tube and electrically connected to the LEDs; characterized by: connectors located at opposite ends of the light source, wherein the connectors are dimensioned to fit into sockets for fluorescent tubes; and a plurality of cooling fins on the outside surface of the tube. connectors located at opposite ends of the light source, wherein the connectors are dimensioned to fit into sockets for fluorescent tubes; and a plurality of cooling fins on the outside surface of the tube.
A device comprising: an illumination subsystem operative for projecting an illumination pattern; an imaging subsystem comprising an image sensor array utilizing a full-frame shutter and an imaging assembly operative for focusing an image onto the image sensor array; a memory; and a processor, the memory including program code, the memory and the program code configured to, with the processor, cause the device to at least: acquire a first plurality of images based on a first control parameter, wherein the first control parameter comprises a first exposure value and a first gain value; acquire a second plurality of images based on a second control parameter that has a value that is different from the first control parameter, wherein the second control parameter comprises a second exposure value and a second gain value and wherein acquisition of the first plurality of images is interspersed with the acquisition of the second plurality of images; and attempt to decode a decodable indicia utilizing one or more images of the first plurality of images and the second plurality of images; the device being characterized in that: the first plurality of images are acquired during illuminated portions of the illumination pattern and the second plurality of images are acquired during unilluminated portions of the illumination pattern. an illumination subsystem operative for projecting an illumination pattern; an imaging subsystem comprising an image sensor array utilizing a full-frame shutter and an imaging assembly operative for focusing an image onto the image sensor array; a memory; and a processor, the memory including program code, the memory and the program code configured to, with the processor, cause the device to at least: acquire a first plurality of images based on a first control parameter, wherein the first control parameter comprises a first exposure value and a first gain value; acquire a second plurality of images based on a second control parameter that has a value that is different from the first control parameter, wherein the second control parameter comprises a second exposure value and a second gain value and wherein acquisition of the first plurality of images is interspersed with the acquisition of the second plurality of images; and attempt to decode a decodable indicia utilizing one or more images of the first plurality of images and the second plurality of images; acquire a first plurality of images based on a first control parameter, wherein the first control parameter comprises a first exposure value and a first gain value; acquire a second plurality of images based on a second control parameter that has a value that is different from the first control parameter, wherein the second control parameter comprises a second exposure value and a second gain value and wherein acquisition of the first plurality of images is interspersed with the acquisition of the second plurality of images; and attempt to decode a decodable indicia utilizing one or more images of the first plurality of images and the second plurality of images;
A method of authenticating an article comprising: providing a combination of an emitter substance (28, 210; 216) and a taggant substance (24; 218), the emitter substance (28, 210; 216) comprising a fluorescent or phosphorescent material that emits a broad emission range of light in response to an illumination by any wavelength selected from a broad spectral range, said range referred to as excitation spectrum, the taggant substance (24;218) configured to absorb light in at least one narrow spectral absorption range within the excitation spectrum; and non-concurrently exciting the combination of substances with at least two spectrally distinctive illuminations selected within said broad excitation spectrum, a first illumination spectrally corresponding to said one narrow absorption range of the taggant (24; 218) and a second illumination spectrally falling outside said one narrow absorption range of the taggant (24; 218); detecting the emission intensities resulting from the first and second illuminations of the combination of substances; and comparing the level of the detected emission intensities to obtain a ratio, and using the ratio to determine whether said taggant substance (24; 218) is present. providing a combination of an emitter substance (28, 210; 216) and a taggant substance (24; 218), the emitter substance (28, 210; 216) comprising a fluorescent or phosphorescent material that emits a broad emission range of light in response to an illumination by any wavelength selected from a broad spectral range, said range referred to as excitation spectrum, the taggant substance (24;218) configured to absorb light in at least one narrow spectral absorption range within the excitation spectrum; and non-concurrently exciting the combination of substances with at least two spectrally distinctive illuminations selected within said broad excitation spectrum, a first illumination spectrally corresponding to said one narrow absorption range of the taggant (24; 218) and a second illumination spectrally falling outside said one narrow absorption range of the taggant (24; 218); detecting the emission intensities resulting from the first and second illuminations of the combination of substances; and comparing the level of the detected emission intensities to obtain a ratio, and using the ratio to determine whether said taggant substance (24; 218) is present.
A reader for electro-optically reading symbols, comprising: a housing adapted to be handheld having a front that faces a symbol during reading; a solid-state, low resolution image sensor having a linear array of pixels arranged in the housing along a scan direction and being less than 2000 in number, for sensing return light returning along an optical path away from the symbol that is located in a range of working distances relative to the front of the housing; an imaging lens positioned in the housing at a spacing of at least one inch [0.0254 meters] as measured along the optical path away from the front of the housing, for capturing the return light over a reduced scan angle that is less than 40 degrees, and for projecting the captured light onto the sensor; and a controller for processing the return light sensed by the sensor into data relating to the symbol. a housing adapted to be handheld having a front that faces a symbol during reading; a solid-state, low resolution image sensor having a linear array of pixels arranged in the housing along a scan direction and being less than 2000 in number, for sensing return light returning along an optical path away from the symbol that is located in a range of working distances relative to the front of the housing; an imaging lens positioned in the housing at a spacing of at least one inch [0.0254 meters] as measured along the optical path away from the front of the housing, for capturing the return light over a reduced scan angle that is less than 40 degrees, and for projecting the captured light onto the sensor; and a controller for processing the return light sensed by the sensor into data relating to the symbol.
A pitch-angle measuring system for a wind turbine having a tower, a nacelle attached thereto, a hub rotationally attached to the nacelle and defining a main rotational axis, at least one blade rotationally attached to the hub and defining a pitch axis for rotation thereabout, a blade pitch angle defining the rotational position of the at least one blade with respect to the hub about said pitch axis, comprising a first angular-velocity sensor measuring a first angular velocity (Φ) around a first sensor axis ( e 1), the first angular-velocity sensor fixedly attached to the at least one blade with a first predetermined orientation selected to produce a first projection of the main rotational axis onto the first sensor axis ( e 1), a second angular-velocity sensor measuring a second angular velocity (β) around a second sensor axis ( e 2), the second angular-velocity sensor fixedly attached to the at least one blade with a second predetermined orientation selected to produce a second projection of the main rotational axis onto the second sensor axis ( e 2), the first sensor axis ( e 1) and the second sensor axis ( e 2) being linearly independent, and a first computational unit computing a computed pitch angle (Θ 1c) indicative of the blade pitch angle of the first angular velocity (Φ) and the second angular velocity (β), the computation being based on the numerical value of the first angular velocity and the value of the second angular velocity.
A system for analyzing and mapping electrophysiological data from a tissue of a body, the EP data measured by a plurality of sensors disposed along a distal end of a medical device that is positionable near the tissue of the body, the system comprising: an electronic control unit configured to: acquire the EP data from the plurality of sensors; determine a position of a sensor from the plurality of sensors; compute a metric for each sensor based on the EP data from the plurality of sensors using the times at which depolarization waves pass the sensors to compute a conduction velocity metric, compute the derivative of the conduction velocity metric with respect to time, generate a map based on the position of the sensor and said derivative metric, and the EP data, applying a matched filter to the EP data and values of said derivative metric to identify EP patterns on the tissue of the body by comparing said derivative metric with known EP patterns associated with arrhythmias for detecting the presence of arrhythmias. acquire the EP data from the plurality of sensors; determine a position of a sensor from the plurality of sensors; compute a metric for each sensor based on the EP data from the plurality of sensors using the times at which depolarization waves pass the sensors to compute a conduction velocity metric, compute the derivative of the conduction velocity metric with respect to time, generate a map based on the position of the sensor and said derivative metric, and the EP data, applying a matched filter to the EP data and values of said derivative metric to identify EP patterns on the tissue of the body by comparing said derivative metric with known EP patterns associated with arrhythmias for detecting the presence of arrhythmias.
A module structure, comprising: a front sheet; a back sheet opposite to the front sheet; an optoelectronic device disposed between the front sheet and the back sheet; and a first encapsulation layer disposed between the optoelectronic device and the front sheet, wherein the back sheet is a layered structure of a hydrogenated styrene elastomer resin layer and a polyolefin layer, and the hydrogenated styrene elastomer resin layer is disposed between the optoelectronic device and the polyolefin layer. a front sheet; a back sheet opposite to the front sheet; an optoelectronic device disposed between the front sheet and the back sheet; and a first encapsulation layer disposed between the optoelectronic device and the front sheet, wherein the back sheet is a layered structure of a hydrogenated styrene elastomer resin layer and a polyolefin layer, and the hydrogenated styrene elastomer resin layer is disposed between the optoelectronic device and the polyolefin layer.
A frame to be installed on the front side of a main body of a refrigerating apparatus, the frame comprising an upper component, a lower component, a left component and a right component, wherein the upper component and the lower component are attached to the left component and the right component respectively so as to form a rectangular frame; a vacuum insulation panel material is placed inside of at least one frame component, the vacuum insulation panel material comprising a core and a coating layer surrounding the core, especially a vacuum heat preservation material formed by packaging glass wool core material having extremely strong insulation characteristics together in a vacuum state with a high barrier packaging material; and the frame forms an opening to the refrigerating apparatus that is used for retrieving and placing items to be refrigerated.