mhurhangee/ep-ind-claims huggingface dataset:
Electronic protection device for a low voltage electric line, said protection device being provided with a control unit comprising a controller including digital data processing resources clocked by a first clock source adapted to provide a first clock signal with a first nominal clock frequency (f 1), said control unit comprising a clock testing arrangement adapted to check whether said first clock source is properly operating, characterised in that said clock testing arrangement comprises: - a second clock source adapted to provide a second clock signal with a second nominal clock frequency (f 2), said second clock source being adapted to operate independently from said first clock source; - a task-performing module clocked by said second clock source, said task-performing module being adapted to perform a predefined testing task within an expected time interval (T E); - a data processing module clocked by said first clock source and adapted to control the operation of said task-performing module, said data processing module being adapted to determine whether said first clock source is properly operating by obtaining a measured time value (T M) indicative of the time employed by said task-performing module to perform said predefined testing task and by comparing said measured time value (T M) with said expected time interval (T E). - a second clock source adapted to provide a second clock signal with a second nominal clock frequency (f 2), said second clock source being adapted to operate independently from said first clock source; - a task-performing module clocked by said second clock source, said task-performing module being adapted to perform a predefined testing task within an expected time interval (T E); - a data processing module clocked by said first clock source and adapted to control the operation of said task-performing module, said data processing module being adapted to determine whether said first clock source is properly operating by obtaining a measured time value (T M) indicative of the time employed by said task-performing module to perform said predefined testing task and by comparing said measured time value (T M) with said expected time interval (T E).
A yarn splicing nozzle configured to splice yarns by injection of compressed air, the yarn splicing nozzle comprising: a nozzle body; an upstream splicing chamber formed in the nozzle body and having a planar flat wall at a part of an inner wall; a downstream splicing chamber formed in the nozzle body, communicatively connected to the upstream splicing chamber, and having a planar flat wall at a part of an inner wall; a first upstream injection hole and a second upstream injection hole formed in the nozzle body and configured to inject compressed air toward the upstream splicing chamber; and a first downstream injection hole and a second downstream injection hole formed in the nozzle body and configured to inject compressed air toward the downstream splicing chamber, characterized in that the first upstream injection hole injects compressed air along the flat wall of the upstream splicing chamber, and the first downstream injection hole injects compressed air along the flat wall of the downstream splicing chamber. a nozzle body; an upstream splicing chamber formed in the nozzle body and having a planar flat wall at a part of an inner wall; a downstream splicing chamber formed in the nozzle body, communicatively connected to the upstream splicing chamber, and having a planar flat wall at a part of an inner wall; a first upstream injection hole and a second upstream injection hole formed in the nozzle body and configured to inject compressed air toward the upstream splicing chamber; and a first downstream injection hole and a second downstream injection hole formed in the nozzle body and configured to inject compressed air toward the downstream splicing chamber, characterized in that the first upstream injection hole injects compressed air along the flat wall of the upstream splicing chamber, and the first downstream injection hole injects compressed air along the flat wall of the downstream splicing chamber.
A micro-fluidic device comprising: a housing disposed on a base, said housing comprising a flow path for a first liquid medium; holding pens disposed within said housing, each said pen comprising: a physical enclosure enclosing an interior space, said enclosure structured to (i) hold a biological micro-object suspended in a second liquid medium and (ii) impede a direct flow of said first medium into said second medium in said interior space, and an opening in said enclosure disposed adjacent said flow path; wherein each said pen is structured to allow more than 50% diffusive mixing of said first liquid medium from said flow path with said second liquid medium in said interior space; and an electrode mechanism configured to create selectively electrokinetic forces on biological micro-objects, wherein biological micro-objects can be deterministically selected, moved from the flow path into pens, and removed from pens. a housing disposed on a base, said housing comprising a flow path for a first liquid medium; holding pens disposed within said housing, each said pen comprising: a physical enclosure enclosing an interior space, said enclosure structured to (i) hold a biological micro-object suspended in a second liquid medium and (ii) impede a direct flow of said first medium into said second medium in said interior space, and an opening in said enclosure disposed adjacent said flow path; wherein each said pen is structured to allow more than 50% diffusive mixing of said first a physical enclosure enclosing an interior space, said enclosure structured to (i) hold a biological micro-object suspended in a second liquid medium and (ii) impede a direct flow of said first medium into said second medium in said interior space, and an opening in said enclosure disposed adjacent said flow path; wherein each said pen is structured to allow more than 50% diffusive mixing of said first liquid medium from said flow path with said second liquid medium in said interior space; and an electrode mechanism configured to create selectively electrokinetic forces on biological micro-objects, wherein biological micro-objects can be deterministically selected, moved from the flow path into pens, and removed from pens.
Cooling module for cells or module (s) of an electric battery, in particular a hybrid or electric vehicle battery, comprising a main body in the form of a composite plate, preferably of rectangular shape and integrating at least one circuit for the circulation of a heat transfer fluid with a fluid inlet and a fluid outlet, this composite plate comprising a baseplate made of a rigid material with low thermal conductivity, in which is formed an array of channels, and at least one covering plate made of a material with high thermal conductivity, which is mounted on the baseplate and forms an at least peripheral seal, which through cooperation with the channels of the baseplate, forms the duct or ducts or duct segment (s) of the circuit (s) and is intended to come into surface contact with cells or at least one module of the battery to be cooled, each covering plate and circuit of duct(s) assembly forming a temperature-controlled reception site, module characterized in that it also comprises, along one of the lateral sides of the composite plate, a protruding formation that is inclined relative to said composite plate, which integrates feed and evacuation duct portions (11, 11') respectively connected to the fluid inlet and to the fluid outlet of the or each of the circuits of duct(s) of the composite plate, which is made of a material with low thermal conductivity, and at least one part of which, preferably a major part including channels (11") corresponding to the feed and evacuation duct portions, and is produced in one piece with the baseplate of the main body.
A connection terminal comprising two terminal members (2, 3) which have hollow and tubular wire connecting parts (21, 31) to which conductors of electric wires are inserted and the conductors are electrically connected, and flat plate shaped attaching parts (22,32) continuous to the wire connecting parts (21, 31), wherein the two terminal members (2, 3) are configured such that the attaching part of the other terminal member is mounted on the attaching part of the one terminal member and an engaging part provided in the one terminal member is engaged with an engaged part provided in the other terminal member, the engaging part is extended from the attaching part of the one terminal member in parallel with the attaching part and a tip end part of the engaging part is bent toward the attaching part side of the other terminal member, the engaging part has an opening formed in a base end of the tip end part of the engaging part to insert and engage the tip end part of the engaged part in the opening, characterized in that the engaged part is extended from the attaching part of the other terminal member toward the one terminal member and a tip end part of the engaged part is bent to a direction separating from the attaching part so as to be parallel to the attaching part of the other terminal member, and a tip end of the engaging part is located below the attaching part of the other terminal member.
A data processing method, wherein the method is applied to a storage system, and the storage system comprises a host and a flash device, wherein the flash device includes a user storage space and an over provisioning space, wherein if the flash device has not been used or formatted, the over provisioning space capacity is set according to a default over provisioning level; and the method is performed by the flash device and comprises: receiving an operation instruction sent by the host; performing, according to the operation instruction, an operation on data stored in the flash device; determining a target over provisioning level corresponding to an interval of the user storage space capacity according to a size of the data that is obtained after the operation and that is saved in the flash device by the user; wherein the target over provisioning level corresponds to a ratio of the over provisioning space capacity to the user storage space capacity; and adjusting the over provisioning space capacity of the flash device based on the target over provisioning level. receiving an operation instruction sent by the host; performing, according to the operation instruction, an operation on data stored in the flash device; determining a target over provisioning level corresponding to an interval of the user storage space capacity according to a size of the data that is obtained after the operation and that is saved in the flash device by the user; wherein the target over provisioning level corresponds to a ratio of the over provisioning space capacity to the user storage space capacity; and adjusting the over provisioning space capacity of the flash device based on the target over provisioning level.
A method for estimating a distance of an object from a Light Detection and Ranging, LIDAR, system, comprising: transmitting a first light signal towards the object using the LIDAR system; detecting a second light signal by a light sensor to generate a detected signal, the second light signal comprising a reflection of the first light signal from the object; generating a filtered signal by applying a time-dependent adjustable filter (314, 400, 506) to the detected signal, wherein the time-dependent adjustable filter is a variable frequency low-pass filter; and estimating the distance of the object from the LIDAR system based at least on the filtered signal. transmitting a first light signal towards the object using the LIDAR system; detecting a second light signal by a light sensor to generate a detected signal, the second light signal comprising a reflection of the first light signal from the object; generating a filtered signal by applying a time-dependent adjustable filter (314, 400, 506) to the detected signal, wherein the time-dependent adjustable filter is a variable frequency low-pass filter; and estimating the distance of the object from the LIDAR system based at least on the filtered signal.
A kit comprising: a) a topical composition comprising one or more oil or water soluble ultraviolet sunscreen agents and a fluorescent chromophore, wherein the fluorescent chromophore is oil soluble and has a wavelength of excitation greater than 400 nm; and b) a handheld and battery powered device for determining the presence of the composition on a surface, wherein said device comprises a light emitter, a light detector, an electronic evaluation system to determine the level of fluorescence of the fluorescent chromophore, and a display system, these elements being linked electronically and contained in a single housing. a) a topical composition comprising one or more oil or water soluble ultraviolet sunscreen agents and a fluorescent chromophore, wherein the fluorescent chromophore is oil soluble and has a wavelength of excitation greater than 400 nm; and b) a handheld and battery powered device for determining the presence of the composition on a surface, wherein said device comprises a light emitter, a light detector, an electronic evaluation system to determine the level of fluorescence of the fluorescent chromophore, and a display system, these elements being linked electronically and contained in a single housing.
An array of absorbent articles comprising a first absorbent article comprising a topsheet, a backsheet and an absorbent core disposed between the topsheet and backsheet, and a first ear laminate having a first plurality of ultrasonic bonds disposed in a first elasticized region (306 F); and a second absorbent article comprising a topsheet, a backsheet and an absorbent core disposed between the topsheet and backsheet, and a second ear laminate having a second plurality of ultrasonic bonds disposed in a second elasticized region; wherein the first and second ear laminate differ in bond pattern, wherein the first plurality of ultrasonic bonds is disposed in a first collective pattern; and the second plurality of ultrasonic bonds is disposed in a second collective pattern; wherein the first collective pattern differs from the second collective pattern by average bond spacing, pattern uniformity, bond size, bond shape, bond orientation, aggregate bond area, aggregate pattern shape and combinations thereof.
An imprinting method, comprising: providing first and second spaced target regions of a substrate with imprintable medium; contacting the first and second spaced target regions with first and second templates respectively to form respective first and second imprints in the medium; separating the first and second templates from the imprinted medium; providing third and fourth spaced target regions of the substrate with imprintable medium; displacing the first template in a first direction from the first region to a third region of the medium and displacing the second template in a second direction from the second region to a fourth region of the medium; and contacting the third and fourth target regions with the first and second templates respectively to form respective third and fourth imprints in the medium; wherein the first template is moveable relative to the second template. providing first and second spaced target regions of a substrate with imprintable medium; contacting the first and second spaced target regions with first and second templates respectively to form respective first and second imprints in the medium; separating the first and second templates from the imprinted medium; providing third and fourth spaced target regions of the substrate with imprintable medium; displacing the first template in a first direction from the first region to a third region of the medium and displacing the second template in a second direction from the second region to a fourth region of the medium; and contacting the third and fourth target regions with the first and second templates respectively to form respective third and fourth imprints in the medium; wherein the first template is moveable relative to the second template.
A method of interactively and graphically interfacing with a user of an HVAC system controlled by a thermostat, the thermostat comprising a housing, a ring-shaped user-interface component, a processing system, and an electronic display, the method being characterized by: on a touch-screen display in a location separate and apart from the thermostat, graphically displaying a circular region and one or more control symbols located thereon, the one or more control symbols graphically representing user manipulation of said ring-shaped user-interface component on the thermostat; detecting user input motion on the touch screen display in response to a touch and drag gesture by a user which is representative of user manipulation of said ring-shaped user-interface component on the thermostat; dynamically identifying a setpoint temperature value based on the detected user input motion; on the touch-screen display, dynamically displaying in real-time information representative of the identified set point temperature value on the circular region of the touch-screen display; waiting for an amount of time such that there is a relatively high likelihood that the identified setpoint temperature value corresponds to a setpoint temperature desired by the user; and after said waiting, wirelessly transmitting data representative of said identified setpoint temperature value. on a touch-screen display in a location separate and apart from the thermostat, graphically displaying a circular region and one or more control symbols located thereon, the one or more control symbols graphically representing user manipulation of said ring-shaped user-interface component on the thermostat; detecting user input motion on the touch screen display in response to a touch and drag gesture by a user which is representative of user manipulation of said ring-shaped user-interface component on the thermostat; dynamically identifying a setpoint temperature value based on the detected user input motion; on the touch-screen display, dynamically displaying in real-time information representative of the identified set point temperature value on the circular region of the touch-screen display; waiting for an amount of time such that there is a relatively high likelihood that the identified setpoint temperature value corresponds to a setpoint temperature desired by the user; and after said waiting, wirelessly transmitting data representative of said identified setpoint temperature value.
A centrifuge apparatus comprising: a tank assembly; a drive turbine housed within said tank assembly; a first rotor assembly having a first centrifugation volume and being selectively positionable in said tank assembly so that said drive turbine spins said first rotor assembly; and a second rotor assembly having a second centrifugation volume and being selectively positionable in said tank assembly so that said drive turbine spins said second rotor assembly, said first centrifugation volume being different than said second centrifugation volume, said first rotor assembly comprising a first rotor core having an inner cylinder with a first radius from a center of said first rotor core, a first core length, and a plurality of fins depending from said inner cylinder with a second radius from said center such that said first rotor core defines a first sedimentation path, said second rotor assembly comprising a second rotor core having an inner cylinder with said first radius, a second core length, and a plurality of fins depending from said inner cylinder with said second radius such that said second rotor core defines a second sedimentation path that is substantially the same as said first sedimentation path, said first and second core lengths (L1, L2) being the same, and said first and second rotor assemblies being sufficient to allow linear scale ups or scale downs of product samples to be centrifuged. a tank assembly; a drive turbine housed within said tank assembly; a first rotor assembly having a first centrifugation volume and being selectively positionable in said tank assembly so that said drive turbine spins said first rotor assembly; and a second rotor assembly having a second centrifugation volume and being selectively positionable in said tank assembly so that said drive turbine spins said second rotor assembly, said first centrifugation volume being different than said second centrifugation volume, said first rotor assembly comprising a first rotor core having an inner cylinder with a first radius from a center of said first rotor core, a first core length, and a plurality of fins depending from said inner cylinder with a second radius from said center such that said first rotor core defines a first sedimentation path, said second rotor assembly comprising a second rotor core having an inner cylinder with said first radius, a second core length, and a plurality of fins depending from said inner cylinder with said second radius such that said second rotor core defines a second sedimentation path that is substantially the same as said first sedimentation path, said first and second core lengths (L1, L2) being the same, and said first and second rotor assemblies being sufficient to allow linear scale ups or scale downs of product samples to be centrifuged.