mhurhangee/ep-ind-claims huggingface dataset:
Electronic memory cell (100, 200, 300, 400, 1002) including at least: - one active area formed in a semi-conductor layer and including a channel provided between a source and a drain, - one first gate provided at least on one first part of the channel, - at least one portion of a first lateral spacer provided against at least one lateral flank of the first gate, a part of which forms a second gate provided on at least one second part of the channel, one of the first or the second gate further including a stack of layers, of which at least one of said layers is capable of storing electrical charges, the memory cell (100, 200, 300, 400, 1002) further including at least one portion (135, 143) of a second lateral spacer provided against at least one lateral flank of a block distinct from the first gate and provided on the semi-conductor layer, the second lateral spacer being in contact with the first lateral spacer, the first and second lateral spacers being composed of similar materials, said portion (135, 143) of the second lateral spacer forming at least one part of an electrical contact pad electrically connected to the second gate. - one active area formed in a semi-conductor layer and including a channel provided between a source and a drain, - one first gate provided at least on one first part of the channel, - at least one portion of a first lateral spacer provided against at least one lateral flank of the first gate, a part of which forms a second gate provided on at least one second part of the channel,
A refrigerator comprising a body; a crisper which is disposed in the body and wherein the vegetables and fruits are placed; at least one light source which emits light into the crisper; a glass which is positioned so as to cover the light source; a shaft which is connected to the glass or the light source, a motor which enables the shaft to be moved, characterized in that the glass has at least two colors to simulate the sunlight and in that the refrigerator further comprises a control unit which enables the motor to trigger the shaft such that the light source sweeps the colors on the glass in an order predetermined by the producer. characterized in that the glass has at least two colors to simulate the sunlight and in that the refrigerator further comprises a control unit which enables the motor to trigger the shaft such that the light source sweeps the colors on the glass in an order predetermined by the producer.
Method for requesting a plurality of chunks by an adaptive streaming client (108, 302) comprised in a user device on the basis of a single request message, said chunks being defined on the basis of a manifest file comprising chunk identifiers for determining at least one delivery node for delivering chunks defined by said chunk identifiers to said client, said method comprising at least one processor in said client executing computer readable program code causing said client to perform the following steps: determining on the basis of said manifest file a first request message, being one of a HTTP GET message or a HTTP HEADERS Frame message or a WebSocket based message, for requesting a first plurality of chunks, said first request message comprising a first chunk template and one or more first chunk template parameters; sending said first request message to a first network node, wherein said first network node is configured for determining a first plurality of URLs, associated with said first plurality of chunks on the basis of said one or more first chunk template parameters and said first chunk template, said first chunk template comprising one or more chunk template parameters fields and, receiving at least one response message (306,324) comprising a chunk associated with one of said chunk identifiers that were determined on the basis of said first chunk template and said one or more first chunk template parameters. determining on the basis of said manifest file a first request message, being one of a HTTP GET message or a HTTP HEADERS Frame message or a WebSocket based message, for requesting a first plurality of chunks, said first request message comprising a first chunk template and one or more first chunk template parameters; sending said first request message to a first network node, wherein said first network node is configured for determining a first plurality of URLs, associated with said first plurality of chunks on the basis of said one or more first chunk template parameters and said first chunk template, said first chunk template comprising one or more chunk template parameters fields and, receiving at least one response message (306,324) comprising a chunk associated with one of said chunk identifiers that were determined on the basis of said first chunk template and said one or more first chunk template parameters.
A lacing engine for an automated footwear platform, the lacing engine comprising: a housing; a lace spool at least partially disposed within the housing, the lace spool adapted to collect a portion of a lace cable in response to rotation in a first direction during tightening of the footwear platform; and a detection mechanism to directly measure a characteristic of the lace cable while the lace cable is manipulated by the lacing engine; characterized in that: the detection mechanism includes an electrode adapted to measure an impedance across the electrode and the lace spool. a housing; a lace spool at least partially disposed within the housing, the lace spool adapted to collect a portion of a lace cable in response to rotation in a first direction during tightening of the footwear platform; and a detection mechanism to directly measure a characteristic of the lace cable while the lace cable is manipulated by the lacing engine; characterized in that: the detection mechanism includes an electrode adapted to measure an impedance across the electrode and the lace spool.
A method for producing a quickly wettable shaped body made from a gelatin containing material, in which a shaped body made from a gelatin containing material with a cellular structure is first mechanically compressed and is then exposed to a plasma.
A method of assessing asphaltene inhibitor/dispersant efficacy in a crude oil, the method comprising: a) weighing a first coupon; immersing the first coupon or a portion thereof into a first sample for a first selected time period, the first sample comprising an aliquot of the crude oil; adding a precipitant to the first sample within the first selected time period; removing the first coupon from the first sample at the end of the first selected time period; and drying and weighing the first coupon; b) weighing a second coupon; immersing the second coupon or a portion thereof into a second sample for a second selected time period, the second sample comprising an aliquot of the crude oil and an asphaltene inhibitor/dispersant; adding a precipitant to the second sample within the second selected time period; removing the second coupon from the second sample at the end of the second selected time period; and drying and weighing the second coupon; c) determining the weight of asphaltenes deposited on the first coupon and the weight of asphaltenes deposited on the second coupon; and d) determining the % asphaltene deposition inhibition via equation, % Inhibition = 100 x 1 − Weight of asphaltenes deposited on the second coupon Weight of asphaltenes deposited on the first coupon characterized in that the coupons are coupons comprised of any metal. a) weighing a first coupon; immersing the first coupon or a portion thereof into a first sample for a first selected time period, the first sample comprising an aliquot of the crude oil; adding a precipitant to the first sample within the first selected time period; removing the first coupon from the first sample at the end of the first selected time period; and drying and weighing the first coupon; b) weighing a second coupon; immersing the second coupon or a portion thereof into a second sample for a second selected time period, the second sample comprising an aliquot of the crude oil and an asphaltene inhibitor/dispersant; adding a precipitant to the second sample within the second selected time period; removing the second coupon from the second sample at the end of the second selected time period; and drying and weighing the second coupon; c) determining the weight of asphaltenes deposited on the first coupon and the weight of asphaltenes deposited on the second coupon; and d) determining the % asphaltene deposition inhibition via equation, % Inhibition = 100 x 1 − Weight of asphaltenes deposited on the second coupon Weight of asphaltenes deposited on the first coupon characterized in that the coupons are coupons comprised of any metal.
A monopile fastening system (1, 9, 17) for retaining one or more elongated monopile during sea transport and/or quay transport, said system comprising: - at least two supporting devices (3, 11, 18); - a supporting frame (2, 10, 23) for securing said at least two supporting devices (3, 11, 18) to a surface of a vessel, barge or a sea transport unit, said at least two supporting devices (3, 11, 18) having each at least one surface (6, 32) in contact with a surface (7, 33) of said supporting frame (2, 10, 23); wherein each of said at least two supporting devices (3, 11, 18) comprises, at least two supporting elements (4, 5, 12, 13, 20, 24, 27), said at least two supporting elements having each at least one surface (14, 15, 25, 26, 28, 29) in contact with each other; characterised in that said at least two supporting elements (4, 5, 12, 13, 20, 24, 27) are connected with each other through one or more displacing means (16, 22, 30); and wherein said one or more displacing means (16, 22, 30) are means for displacing said at least two supporting elements (4, 5, 12, 13, 20, 24, 27) along said at least one surface (14, 15, 25, 26, 28, 29) in contact with each other. - at least two supporting devices (3, 11, 18); - a supporting frame (2, 10, 23) for securing said at least two supporting devices (3, 11, 18) to a surface of a vessel, barge or a sea transport unit, said at least two supporting devices (3, 11, 18) having each at least one surface (6, 32) in contact with a surface (7, 33) of said supporting frame (2, 10, 23); wherein each of said at least two supporting devices (3, 11, 18) comprises, at least two supporting elements (4, 5, 12, 13, 20, 24, 27), said at least two supporting elements having each at least one surface (14, 15, 25, 26, 28, 29) in contact with each other; characterised in that said at least two supporting elements (4, 5, 12, 13, 20, 24, 27) are connected with each other through one or more displacing means (16, 22, 30); and wherein said one or more displacing means (16, 22, 30) are means for displacing said at least two supporting elements (4, 5, 12, 13, 20, 24, 27) along said at least one surface (14, 15, 25, 26, 28, 29) in contact with each other.
Nuclear fuel rod, comprising an optical measurement device for measuring the temperature and the expansion of a structure (1, 2) in a severe environment subjected to a minimum temperature of 150°C and/or a minimum pressure of 10 bar, suitable for measuring the temperature and the longitudinal expansion of the wall of the nuclear fuel rod, the optical measurement device comprising: - a support of longitudinal axis X, suitable for being fixed onto the structure, so as to be deformed by the expansion of the structure, and comprising at least one first recess and at least one second recess extending along the axis X, the support being designed so as to withstand the stresses linked to the environment; - a first fibre Bragg grating, intended to allow an expansion measurement and a temperature measurement, the first fibre Bragg grating being housed and fixed at least partly in the first recess of the support; - a second fibre Bragg grating, intended to allow a temperature measurement, the second fibre Bragg grating being housed at least partly in the second recess of the support, one of the ends of the second fibre Bragg grating being left free along the axis X. - a support of longitudinal axis X, suitable for being fixed onto the structure, so as to be deformed by the expansion of the structure, and comprising at least one first recess and at least one second recess extending along the axis X, the support being designed so as to withstand the stresses linked to the environment; - a first fibre Bragg grating, intended to allow an expansion measurement and a temperature measurement, the first fibre Bragg grating being housed and fixed at least partly in the first recess of the support; - a second fibre Bragg grating, intended to allow a temperature measurement, the second fibre Bragg grating being housed at least partly in the second recess of the support, one of the ends of the second fibre Bragg grating being left free along the axis X.
A thin film transistor, comprising: a substrate; a gate, a source, a drain and a semiconductor layer formed on the substrate; a first gate protection layer; a gate isolation layer; and a second gate protection layer, wherein the first gate protection layer is at least partly located between the gate and the semiconductor layer, and is a insulating layer, the gate isolation layer is at least partly located between the first gate protection layer and the second gate protection layer, and the second gate protection layer is at least partly located between the gate isolation layer and the semiconductor layer, and is an insulating layer, characterised in that the gate isolation layer is a conductive layer for blocking metallic ions in the gate from diffusing into the semiconductor layer. a substrate; a gate, a source, a drain and a semiconductor layer formed on the substrate; a first gate protection layer; a gate isolation layer; and a second gate protection layer, wherein the first gate protection layer is at least partly located between the gate and the semiconductor layer, and is a insulating layer, the gate isolation layer is at least partly located between the first gate protection layer and the second gate protection layer, and the second gate protection layer is at least partly located between the gate isolation layer and the semiconductor layer, and is an insulating layer, characterised in that the gate isolation layer is a conductive layer for blocking metallic ions in the gate from diffusing into the semiconductor layer.
An optical integrator of a wavefront splitting type comprising a first optical element, and a second optical element disposed behind the first optical element along the optical axis in an order mentioned from the entrance side of light, wherein the first optical element comprises a plurality of optical elements each comprising a first entrance surface having a predetermined refractive power in a first direction in a plane perpendicular to the optical axis and substantially no refractive power in a second direction perpendicular to the first direction in the plane perpendicular to the optical axis, and a first exit surface having a predetermined refractive power in the first direction and substantially no refractive power in the second direction, wherein the second optical element comprises a plurality of optical elements each comprising a second entrance surface having a predetermined refractive power in the second direction and substantially no refractive power in the first direction, and a second exit surface having a predetermined refractive power in the second direction and substantially no refractive power in the first direction, characterized in that a) the plurality of the first entrance surfaces of the first optical element are arranged in parallel along the first direction with a first pitch; the plurality of the second entrance surfaces of the second optical element are arranged in parallel along the second direction with a second pitch larger than the first pitch, and b) the refractive power ratio of the plurality of the first entrance surfaces of the first optical element and the plurality of the first exit surfaces of the first optical element, and a pitch ratio between the first pitch and the second pitch are set so that a rear focus position in the first direction and a rear focus position in the second direction of the composite system of the first optical element and the second optical element are located behind the second optical element along the optical axis as seen from the entrance side of light. a) the plurality of the first entrance surfaces of the first optical element are arranged in parallel along the first direction with a first pitch; the plurality of the second entrance surfaces of the second optical element are arranged in parallel along the second direction with a second pitch larger than the first pitch, and b) the refractive power ratio of the plurality of the first entrance surfaces of the first optical element and the plurality of the first exit surfaces of the first optical element, and a pitch ratio between the first pitch and the second pitch are set so that a rear focus position in the first direction and a rear focus position in the second direction of the composite system of the first optical element and the second optical element are located behind the second optical element along the optical axis as seen from the entrance side of light.
A method for producing an optical article having antireflection or reflective properties, comprising at least the steps of: - providing an optical article comprising a substrate having at least one main surface; - depositing onto a main surface of the substrate a sub-layer having an exposed surface, said sub-layer comprising a SiO 2 based layer; - depositing onto said exposed surface of the sub-layer a multilayered antireflection or reflective stack comprising at least one high refractive index layer and at least one low refractive index layer, - recovering an optical article comprising a substrate having a main surface coated with an antireflection or a reflective coating comprising said sub-layer and said multilayered stack, wherein the exposed surface of the sub-layer has been submitted to an ionic bombardment treatment prior to depositing said multilayered stack, and wherein the deposition of said SiO 2 based layer is conducted without ion assistance in a vacuum chamber in which at least one supplementary gas allowing to regulate the pressure is supplied during said deposition. - providing an optical article comprising a substrate having at least one main surface; - depositing onto a main surface of the substrate a sub-layer having an exposed surface, said sub-layer comprising a SiO 2 based layer; - depositing onto said exposed surface of the sub-layer a multilayered antireflection or reflective stack comprising at least one high refractive index layer and at least one low refractive index layer, - recovering an optical article comprising a substrate having a main surface coated with an antireflection or a reflective coating comprising said sub-layer and said multilayered stack,
An automatic gain control method in a wireless local area network according to an IEEE802.11ax standard, comprising: generating a physical layer packet, wherein the physical layer packet comprises a high efficiency long training field, HEW-LTF, and does not comprise a high efficiency short training field, HEW-STF, the HEW-LTF comprises N symbols, a length of a cyclic prefix CP of a first symbol in the N symbols is greater than or equal to a minimum length required by a receiver device to perform automatic gain control AGC estimation, and N is a positive integer, wherein the length of the CP of the first symbol in the N symbols of the HEW-LTF is greater than a length of a CP of another symbol in the N symbols; and sending the physical layer packet to the receiver device. generating a physical layer packet, wherein the physical layer packet comprises a high efficiency long training field, HEW-LTF, and does not comprise a high efficiency short training field, HEW-STF, the HEW-LTF comprises N symbols, a length of a cyclic prefix CP of a first symbol in the N symbols is greater than or equal to a minimum length required by a receiver device to perform automatic gain control AGC estimation, and N is a positive integer, wherein the length of the CP of the first symbol in the N symbols of the HEW-LTF is greater than a length of a CP of another symbol in the N symbols; and sending the physical layer packet to the receiver device.
A computer system for creating a fingerprint for a device, the computer system comprising at least one processor operatively coupled to at least one database, the at least one processor configured for: receiving a first payload from a device, the first payload composed by different segments comprising data, a device indicator comprising a unique identifier used for identifying the device, and an indication of a version of firmware running on the device; wherein each of the segments is in a particular format; creating a fingerprint for the device by: parsing the particular format of each of the different segments of the first payload into one or more distinct sections of the particular format; determining the section of the particular format of each of the one or more different segments; creating a record of the section of the particular format of each of the one or more different segments; and comparing the section of the particular format of each of the segments of each subsequent payload received from the device to the fingerprint for the device to determine whether the device has been compromised. receiving a first payload from a device, the first payload composed by different segments comprising data, a device indicator comprising a unique identifier used for identifying the device, and an indication of a version of firmware running on the device; wherein each of the segments is in a particular format; creating a fingerprint for the device by: parsing the particular format of each of the different segments of the first payload into one or more distinct sections of the particular format; determining the section of the particular format of each of the one or more different segments; creating a record of the section of the particular format of each of the one or more different segments; and parsing the particular format of each of the different segments of the first payload into one or more distinct sections of the particular format; determining the section of the particular format of each of the one or more different segments; creating a record of the section of the particular format of each of the one or more different segments; and comparing the section of the particular format of each of the segments of each subsequent payload received from the device to the fingerprint for the device to determine whether the device has been compromised.