mhurhangee/patent-ind-claim-en huggingface dataset:
A touch screen (TSP) comprising: a substrate including an active area (SA) and a non-active area (NSA) being adjacent to the active area (SA); touch sensing electrodes (TSE) including first sensing electrodes (TSE1) in the active area (SA) and at least one second sensing electrode (TSE2), the second sensing electrode (TSE2) for sensing a touch; and a pad portion (PDA) including a plurality of pads electrically connected to respective sensing electrodes (TSE) characterized in that the active area (SA) includes at least one fingerprint recognition area (FS), the at least one second sensing electrode (TSE2) being in the fingerprint recognition area (FS), and the second sensing electrode (TSE2) is further for recognizing a fingerprint, wherein the at least one second sensing electrode (TSE2) comprises: a plurality of sub electrodes extending in one direction; and a plurality of fingerprint recognition lines (FSL) connecting the sub electrodes to the pad portion (PDA), and wherein the fingerprint recognition lines (FSL) are in a same fingerprint recognition area (FS) extend in a same direction. a substrate including an active area (SA) and a non-active area (NSA) being adjacent to the active area (SA); touch sensing electrodes (TSE) including first sensing electrodes (TSE1) in the active area (SA) and at least one second sensing electrode (TSE2), the second sensing electrode (TSE2) for sensing a touch; and a pad portion (PDA) including a plurality of pads electrically connected to respective sensing electrodes (TSE) characterized in that the active area (SA) includes at least one fingerprint recognition area (FS), the at least one second sensing electrode (TSE2) being in the fingerprint recognition area (FS), and the second sensing electrode (TSE2) is further for recognizing a fingerprint, wherein the at least one second sensing electrode (TSE2) comprises: a plurality of sub electrodes extending in one direction; and a plurality of fingerprint recognition lines (FSL) connecting the sub electrodes to the pad portion (PDA), and a plurality of sub electrodes extending in one direction; and a plurality of fingerprint recognition lines (FSL) connecting the sub electrodes to the pad portion (PDA), and wherein the fingerprint recognition lines (FSL) are in a same fingerprint recognition area (FS) extend in a same direction.
A light emitting diode (LED) package comprising: a first plastic portion having a mounting surface , a side wall surface inclined relative to the mounting surface that creates a cavity for the mounting surface, and a lower surface ; and a second portion surrounding the first plastic portion and exposing the mounting surface and the lower surface of the first plastic portion, wherein the first plastic portion and the second portion have different optical properties and wherein the first plastic portion further comprises an outer wall surface having a plurality of interlocking grooves , and wherein the second portion includes an inner surface with patterns that match the plurality of interlocking grooves. a first plastic portion having a mounting surface , a side wall surface inclined relative to the mounting surface that creates a cavity for the mounting surface, and a lower surface ; and a second portion surrounding the first plastic portion and exposing the mounting surface and the lower surface of the first plastic portion, wherein the first plastic portion and the second portion have different optical properties and wherein the first plastic portion further comprises an outer wall surface having a plurality of interlocking grooves , and wherein the second portion includes an inner surface with patterns that match the plurality of interlocking grooves.
A preparation method of decanedioic acid, comprising: culturing Candida tropicalis to prepare a seed; inoculating the obtained seed with fermentation medium; starting fermentation process to produce fermentation broth by adding decane; and purifying the obtained fermentation broth to give the decanedioic acid; wherein, the fermentation medium comprises the following ingredients: 25 - 40 g/L glucose, 1.2 - 2.5 g/L potassium nitrate, 2 - 5 g/L corn steep liquor, 1 - 3 g/L yeast extract, 1.8 - 3.5 g/L potassium phosphate monobasic, and 1.2 - 2 g/L ammonium sulfate; and the relative dissolved oxygen is maintained from 10% to 70% in the fermentation process. culturing Candida tropicalis to prepare a seed; inoculating the obtained seed with fermentation medium; starting fermentation process to produce fermentation broth by adding decane; and purifying the obtained fermentation broth to give the decanedioic acid; wherein, the fermentation medium comprises the following ingredients: 25 - 40 g/L glucose, 1.2 - 2.5 g/L potassium nitrate, 2 - 5 g/L corn steep liquor, 1 - 3 g/L yeast extract, 1.8 - 3.5 g/L potassium phosphate monobasic, and 1.2 - 2 g/L ammonium sulfate; and the relative dissolved oxygen is maintained from 10% to 70% in the fermentation process.
A computer-implemented method for securely validating access tokens, the method comprising: receiving , at a token validation resource, a token provided from a network application for assertion at a destination network resource, the token being associated with a destination network address of the destination network resource, wherein: the token was dynamically created, and the token was provided to the network application by an authorization server; performing a validation process for the token, the validation process being based on a comparison of the destination network address to a whitelist maintained on the token validation resource to determine whether the destination network address is a valid address of the destination network resource; generating, based on a successful outcome of the validation process, additional security data based on the token; transmitting, to a device associated with the network application, a validation result indicating the successful outcome and including the additional security data; and determining , based on a verification of the additional security data, whether to permit the network application to assert the token to the destination network resource. receiving , at a token validation resource, a token provided from a network application for assertion at a destination network resource, the token being associated with a destination network address of the destination network resource, wherein: the token was dynamically created, and the token was provided to the network application by an authorization server; the token was dynamically created, and the token was provided to the network application by an authorization server; performing a validation process for the token, the validation process being based on a comparison of the destination network address to a whitelist maintained on the token validation resource to determine whether the destination network address is a valid address of the destination network resource; generating, based on a successful outcome of the validation process, additional security data based on the token; transmitting, to a device associated with the network application, a validation result indicating the successful outcome and including the additional security data; and determining , based on a verification of the additional security data, whether to permit the network application to assert the token to the destination network resource.
A high volume dental evacuation tip comprising: an elongated body member having two open ends , an outer surface , a hollow interior , a proximal portion of the dental evacuation tip , wherein said proximal portion is formed for connection to a suction device; a substantially distal portion , connected to the proximal portion , together defining an entire length of the dental suction tip , and forming a longitudinal axis; the length of the elongated body member including a plurality of functional apertures located on all surfaces in the entire length of said elongated body member, said apertures covered by vent shells ; the substantially distal portion of the elongated body member having an opening, characterised in that a silicone wedges nozzle is connected to the distal portal of the elongated body member, and the plurality of apertures covered by shells extend radially outwardly from the outer surface of the proximal portion to the distal portion of the tip . two open ends , an outer surface , a hollow interior , a proximal portion of the dental evacuation tip , wherein said proximal portion is formed for connection to a suction device; a substantially distal portion , connected to the proximal portion , together defining an entire length of the dental suction tip , and forming a longitudinal axis; the length of the elongated body member including a plurality of functional apertures located on all surfaces in the entire length of said elongated body member, said apertures covered by vent shells ; the substantially distal portion of the elongated body member having an opening, characterised in that a silicone wedges nozzle is connected to the distal portal of the elongated body member, and the plurality of apertures covered by shells extend radially outwardly from the outer surface of the proximal portion to the distal portion of the tip .
A method, implemented by a computer (ORD), for extracting visual features from images using two convolutional neural networks, and for transferring training from the first convolutional neural network to the second convolutional neural network, comprising the following steps of: a) training the first convolutional neural network from a database of images labelled according to a plurality of categories of the most specific level of the database, each image being able to be represented by a feature vector; b) constructing at least one sub-category for each of the categories of the most specific level; c) relabelling the database of images with all the sub-categories in order to form a relabelled database of images; d) training the second convolutional neural network from the relabelled database of images; with step b) of constructing at least one sub-category comprising the sub-steps of: b1) partitioning, for each of the categories of the most specific level, the images of the category (I.C) into a plurality of sub-groups (C.W.M.C); b2) determining, for each sub-group (C.W.M.C), the number of images (I.R) and, if the number of images (I.R) is below a threshold, attaching each image (I.R) of the sub-group (C.W.M.C) to a sub-group (C.W.M.C), called large sub-group, whose number of images is greater than the threshold, each image (I.R) being attached to the closest large sub-group (C.W.M.C), by determining a feature vector of a large sub-group (C.W.M.C) closest to the feature vector representing the image; b3) determining a matrix (Ms) of similarity measurements between each of the large sub-groups (C.W.M.C); b4) merging the large sub-groups as a function of the matrix of similarity measurements in order to form the sub-categories (M.S.C). a) training the first convolutional neural network from a database of images labelled according to a plurality of categories of the most specific level of the database, each image being able to be represented by a feature vector; b) constructing at least one sub-category for each of the categories of the most specific level; c) relabelling the database of images with all the sub-categories in order to form a relabelled database of images; d) training the second convolutional neural network from the relabelled database of images; b1) partitioning, for each of the categories of the most specific level, the images of the category (I.C) into a plurality of sub-groups (C.W.M.C); b2) determining, for each sub-group (C.W.M.C), the number of images (I.R) and, if the number of images (I.R) is below a threshold, attaching each image (I.R) of the sub-group (C.W.M.C) to a sub-group (C.W.M.C), called large sub-group, whose number of images is greater than the threshold, each image (I.R) being attached to the closest large sub-group (C.W.M.C), by determining a feature vector of a large sub-group (C.W.M.C) closest to the feature vector representing the image; b3) determining a matrix (Ms) of similarity measurements between each of the large sub-groups (C.W.M.C); b4) merging the large sub-groups as a function of the matrix of similarity measurements in order to form the sub-categories (M.S.C).
A method for making a gas transport film comprising a brominated styrene-butadiene copolymer, comprising brominating a starting styrene-butadiene copolymer and then forming the brominated styrene-butadiene copolymer into a film, wherein the brominated styrene-butadiene copolymer contains from 40 to 80 mole-% brominated or unbrominated butadiene units, from 20 to 60 mole-% brominated or unbrominated styrene units, and no more than 10 mole percent of repeating units other than styrene and butadiene units, and wherein at least 60% of the butadiene units of the styrene-butadiene copolymer are brominated, and no more than 10% of the rings of the styrene units of the styrene-butadiene copolymer are brominated.
A heat exchanger header comprising: a first inlet ; a first passageway that fluidically connects the first inlet to a first outlet ; a first wall defining the passageway; a second wall attached to the first wall opposite the first passageway; and a second inlet ; wherein the first inlet extends through both the first wall and the second wall, a second passageway that fluidically connects the second inlet to a second outlet, wherein the first inlet, the first passageway, and the first outlet are fluidically isolated from the second inlet, the second passageway, and the second outlet, the second passageway is between the first wall and the second wall, the second passageway comprises at least one partition extending from the first wall to the second wall, and the at least one partition creates a channel within the second passageway that is configured to guide a flow from the second inlet to the second outlet; the heat exchanger header being characterised in that the second inlet extends through only the second wall, and in that an insulation layer is attached to the second wall opposite the first wall. a first inlet ; a first passageway that fluidically connects the first inlet to a first outlet ; a first wall defining the passageway; a second wall attached to the first wall opposite the first passageway; and a second inlet ; wherein the first inlet extends through both the first wall and the second wall, a second passageway that fluidically connects the second inlet to a second outlet, wherein the first inlet, the first passageway, and the first outlet are fluidically isolated from the second inlet, the second passageway, and the second outlet, the second passageway is between the first wall and the second wall, the second passageway comprises at least one partition extending from the first wall to the second wall, and the at least one partition creates a channel within the second passageway that is configured to guide a flow from the second inlet to the second outlet; the heat exchanger header being characterised in that the second inlet extends through only the second wall, and in that an insulation layer is attached to the second wall opposite the first wall.
Watch external component , taken from middle part, back, bezel, bracelet, clasp, the material of which is a titratable alloy, characterised in that said alloy includes at least titanium and palladium, the mass content of palladium being at least 50.0%, and less than or equal to 51.0% of the total of said alloy, and in that : - said alloy includes niobium and conforms to the atomic formula i a Pd b M c T d , where a, b, c, d are atomic fractions of the total, such that a+b+c+d= 1. - where the atomic fraction d is the sum of the atomic fractions of metal traces T, each said metal trace T being taken with an atomic proportion of less than 3.0% of the total of said alloy, which alloy includes at least 0.05% of boron in atomic fraction, said metal traces T are taken from a sub-group of traces including V, Ru, Rh, Au, Pt, Cr, B, - the atomic complement to 100% consisting of niobium, - and said atomic fractions a, b, c, d are such that: - a is comprised between 0.49 and 0.51 inclusive, - b is comprised between 0.34 and 0.38 inclusive, - c is comprised between 0.09 and 0.16 inclusive, - d is comprised between 0.001 and 0.03 inclusive. - said alloy includes niobium and conforms to the atomic formula i a Pd b M c T d , where a, b, c, d are atomic fractions of the total, such that a+b+c+d= 1. - where the atomic fraction d is the sum of the atomic fractions of metal traces T, each said metal trace T being taken with an atomic proportion of less than 3.0% of the total of said alloy, which alloy includes at least 0.05% of boron in atomic fraction, said metal traces T are taken from a sub-group of traces including V, Ru, Rh, Au, Pt, Cr, B, - the atomic complement to 100% consisting of niobium, - and said atomic fractions a, b, c, d are such that: - a is comprised between 0.49 and 0.51 inclusive, - b is comprised between 0.34 and 0.38 inclusive, - c is comprised between 0.09 and 0.16 inclusive, - d is comprised between 0.001 and 0.03 inclusive.
Method for processing a message (MOPT, MOPT') received from a first device (D1, D1') and intended for a second device (D2, D2') managed by an IP multimedia core network (CN2, CN2'), said method being intended to be implemented by a processing entity (2, D2') when said received message (MOPT, MOPT') is a message for discovering the capabilities and the status of the second device (D2, D2') and comprising: - a step (E20, F40) of obtaining an identifier (ID1, ID1') of the first device (D1, D1') from a field of the received discovery message (MOPT, MOPT'); and - a step (E50, E70, F70, F90) of selecting, on the basis of this identifier (ID1, ID1'), a response mode (M1, M2) for responding to the received discovery message from a predefined set (Ω) containing at least two response modes (M1, M2), said predefined set (Ω) containing at least: - a response mode (M2) comprising sending, to the first device, a partial or incorrect response to the discovery message, a partial response identifying only some of the capabilities of the second device or reflecting only the status of the second device, and an incorrect response reflecting a status distinct from the actual status of the second device and/or capabilities that do not correspond to the capabilities of the second device; and - a response mode (M1) comprising sending, to the first device, a transparent response to the discovery message containing the capabilities and the status of the second device to the discovery message. - a step (E20, F40) of obtaining an identifier (ID1, ID1') of the first device (D1, D1') from a field of the received discovery message (MOPT, MOPT'); and - a step (E50, E70, F70, F90) of selecting, on the basis of this identifier (ID1, ID1'), a response mode (M1, M2) for responding to the received discovery message from a predefined set (Ω) containing at least two response modes (M1, M2), - a response mode (M2) comprising sending, to the first device, a partial or incorrect response to the discovery message, a partial response identifying only some of the capabilities of the second device or reflecting only the status of the second device, and an incorrect response reflecting a status distinct from the actual status of the second device and/or capabilities that do not correspond to the capabilities of the second device; and - a response mode (M1) comprising sending, to the first device, a transparent response to the discovery message containing the capabilities and the status of the second device to the discovery message.
A method for the manufacture of a porous fibre composite material , wherein the method comprises: - Providing a fibre structure , which is infiltrated with a liquid mixture, comprising a polymer resin , an organic solvent , in particular isopropanol , and a formaldehyde former ; - Curing of the liquid mixture with the formation of a fibre/polymer resin material with a porous structure ; - Infiltration with water of the fibre/polymer resin material with the porous structure ; and - Tempering the fibre/polymer resin material with the porous structure and infiltrated with water . - Providing a fibre structure , which is infiltrated with a liquid mixture, comprising a polymer resin , an organic solvent , in particular isopropanol , and a formaldehyde former ; - Curing of the liquid mixture with the formation of a fibre/polymer resin material with a porous structure ; - Infiltration with water of the fibre/polymer resin material with the porous structure ; and - Tempering the fibre/polymer resin material with the porous structure and infiltrated with water .
A thermal energy removal system usable with a rail of a railway track , the system comprising: a cooling module configured to mount on a side of the rail to remove heat stored inside the rail , the cooling module including: a solid state electrical insulation sandwiched between a plate and a heat sink ; a first terminal ; and a second terminal , wherein the first and second terminals are configured to provide an electric energy source based on the heat extracted and harnessed for powering a railway infrastructure device , wherein the cooling module is a thermoelectric generator , and wherein the cooling module further comprising: a controller board configured to determine a heat gradient between the plate and the heat sink and operate the thermoelectric generator based on the heat gradient . a cooling module configured to mount on a side of the rail to remove heat stored inside the rail , the cooling module including: a solid state electrical insulation sandwiched between a plate and a heat sink ; a first terminal ; and a second terminal , wherein the first and second terminals are configured to provide an electric energy source based on the heat extracted and harnessed for powering a railway infrastructure device , a solid state electrical insulation sandwiched between a plate and a heat sink ; a first terminal ; and a second terminal , wherein the first and second terminals are configured to provide an electric energy source based on the heat extracted and harnessed for powering a railway infrastructure device , wherein the cooling module is a thermoelectric generator , and wherein the cooling module further comprising: a controller board configured to determine a heat gradient between the plate and the heat sink and operate the thermoelectric generator based on the heat gradient .
Method for detecting a fault (F) in an arrangement comprising a transformer that has a primary winding (L1) which can be connected in series with a DC voltage line (DC+, DC-) and a secondary winding (L2) coupled magnetically to the primary winding (L1), and comprising an evaluation unit that processes a secondary signal (i2) on the secondary winding (L2), characterized in that a signal component (n(fn)) at at least one frequency (fn) is determined from the secondary signal (i2) and a signal level (P(fn)) of the signal component (n(fn)) is compared with a signal threshold (P_min(fn)), and in that the fault (F) is detected in the arrangement when the signal level (P(fn)) falls below the signal threshold (P_min(fn)), at least one noise frequency typically occurring on the secondary winding (L2) of the fault-free arrangement being used as at least one frequency (fn).