mhurhangee/ep-ind-claims huggingface dataset:
A photomask blank comprising a transparent substrate and a light-shielding film disposed thereon, containing silicon and nitrogen, but being free of transition metal, wherein said light-shielding film is a single layer or multiple layers, and the single layer or one of the multiple layers is a light-shielding layer containing silicon and nitrogen, free of transition metal, and having a nitrogen content of 3 to 50 at% based on the sum of silicon and nitrogen.
Process for the manufacture of particles of free polyamide-based powder impregnated with at least one cosmetic or pharmaceutical agent, said cosmetic agent being, at a temperature within the range from 15 to 25°C, in the form of a pure liquid; said process consisting of the following successive stages: - dropwise addition or addition by spraying of said cosmetic or pharmaceutical agent in the liquid state to particles of free powder with stirring, so that it represents at least 25% by weight of the powder particles, said particles being porous and having an SSA of greater than 8 m 2 /g, - stopping the addition before the powder particles begin to agglomerate, - maintaining the stirring for at least 5 minutes, then - recovering the free powder obtained impregnated with said cosmetic or pharmaceutical agent. - dropwise addition or addition by spraying of said cosmetic or pharmaceutical agent in the liquid state to particles of free powder with stirring, so that it represents at least 25% by weight of the powder particles, said particles being porous and having an SSA of greater than 8 m 2 /g, - stopping the addition before the powder particles begin to agglomerate, - maintaining the stirring for at least 5 minutes, then - recovering the free powder obtained impregnated with said cosmetic or pharmaceutical agent.
Ply extending along a main direction (P'), comprising: - a polymer matrix, - metallic monofilaments embedded in the polymer matrix, the metallic monofilaments being substantially parallel relative to one another and to the main direction (P') of the ply, each metallic monofilament having a main axis and a torsional elastic deformation about its main axis, the ply comprising first and second groups of metallic monofilaments, each metallic monofilament of the first group having a torsional elastic deformation in a first direction about its main axis, each metallic monofilament (46") of the second group having a torsional elastic deformation in a second direction about its main axis, the first direction being opposite to the second direction, and it being understood that the torsional elastic deformation is positive in the first direction and negative in the second direction, the metallic monofilaments being such that: ∘ the absolute value of the torsional elastic deformation C of each metallic monofilament is such that |C| ≤ 6 turns per ten metres of metallic monofilament, and ∘ the mean S of the torsional elastic deformations of the metallic monofilaments of the ply is such that -0.25 turn per ten metres of metallic monofilaments ≤ S ≤ +0.25 turn per ten metres of metallic monofilaments, the metallic monofilaments being arranged next to one another so as to alternate one or more metallic monofilaments of the first group with one or more metallic monofilaments (46") of the second group. - a polymer matrix, - metallic monofilaments embedded in the polymer matrix, the metallic monofilaments being substantially parallel relative to one another and to the main direction (P') of the ply, each metallic monofilament having a main axis and a torsional elastic deformation about its main axis, ∘ the absolute value of the torsional elastic deformation C of each metallic monofilament is such that |C| ≤ 6 turns per ten metres of metallic monofilament, and ∘ the mean S of the torsional elastic deformations of the metallic monofilaments of the ply is such that -0.25 turn per ten metres of metallic monofilaments ≤ S ≤ +0.25 turn per ten metres of metallic monofilaments,
A method for calculating visibility functions for an interferometric synthetic aperture radiometer including an antenna array and several receiver chains, each receiver chain being respectively associated with an antenna of the antenna array, said method including, for each receiver chain, digitising, over a frequency band of interest, a signal received by the antenna of said receiver chain with a sampling frequency at least equal to the width of said frequency band of interest, said method further including: - for each receiver chain, filtering the digitised signal in several frequency sub-bands, all of said frequency sub-bands covering the band of interest, in order to obtain, in each frequency sub-band, several filtered samples, each filtered sample corresponding with a filtering period having a predetermined duration (δt), - calculating, for each frequency sub-band, an intercorrelation matrix, an element of an intercorrelation matrix being associated with a pair of two antennas of the antenna array and taking a value calculating as a function of the filtered samples associated with said antennas during an accumulation period having a predetermined duration (Δt), - detecting invalid intercorrelation matrices from a set of intercorrelation matrices respectively obtained for the different frequency sub-bands and for different accumulation periods, - calculating visibility functions from the intercorrelation matrices which have not been detected as invalid. - for each receiver chain, filtering the digitised signal in several frequency sub-bands, all of said frequency sub-bands covering the band of interest, in order to obtain, in each frequency sub-band, several filtered samples, each filtered sample corresponding with a filtering period having a predetermined duration (δt), - calculating, for each frequency sub-band, an intercorrelation matrix, an element of an intercorrelation matrix being associated with a pair of two antennas of the antenna array and taking a value calculating as a function of the filtered samples associated with said antennas during an accumulation period having a predetermined duration (Δt), - detecting invalid intercorrelation matrices from a set of intercorrelation matrices respectively obtained for the different frequency sub-bands and for different accumulation periods, - calculating visibility functions from the intercorrelation matrices which have not been detected as invalid.
A diesel-boiling range fuel composition comprising: at least 60 wt% naphthenes; less than 1.5 wt% aromatics; and at least 10 wt% non-cyclic paraffins; wherein multi-ring naphthenes are present in an amount of at least 50% w/w relative to a total amount of naphthenes, and wherein the multi-ring naphthenes are selected from the group consisting of two-ring naphthenes, three-ring naphthenes, four-ring naphthenes, five-ring naphthenes, six-ring naphthenes, and a combination thereof; and wherein said fuel composition further satisfies at least two of the following: (i) four-ring naphthenes are present in an amount of 2.0% w/w to 10% w/w relative to the total amount of naphthenes; (ii) five-ring naphthenes are present in an amount of 1.0% w/w to 2.6% w/w relative to the total amount of naphthenes; and (iii) six-ring naphthenes are present in an amount of 0.20% w/w to 1.0% w/w relative to the total amount of naphthenes. at least 60 wt% naphthenes; less than 1.5 wt% aromatics; and at least 10 wt% non-cyclic paraffins; wherein multi-ring naphthenes are present in an amount of at least 50% w/w relative to a total amount of naphthenes, and wherein the multi-ring naphthenes are selected from the group consisting of two-ring naphthenes, three-ring naphthenes, four-ring naphthenes, five-ring naphthenes, six-ring naphthenes, and a combination thereof; and wherein said fuel composition further satisfies at least two of the following: (i) four-ring naphthenes are present in an amount of 2.0% w/w to 10% w/w relative to the total amount of naphthenes; (ii) five-ring naphthenes are present in an amount of 1.0% w/w to 2.6% w/w relative to the total amount of naphthenes; and (iii) six-ring naphthenes are present in an amount of 0.20% w/w to 1.0% w/w relative to the total amount of naphthenes. (i) four-ring naphthenes are present in an amount of 2.0% w/w to 10% w/w relative to the total amount of naphthenes; (ii) five-ring naphthenes are present in an amount of 1.0% w/w to 2.6% w/w relative to the total amount of naphthenes; and (iii) six-ring naphthenes are present in an amount of 0.20% w/w to 1.0% w/w relative to the total amount of naphthenes.
A conformal integrated circuit, IC, device comprising a flexible printed circuit board assembly, FPCBA, comprising electronic circuitry (308, 310, 312) attached to a flexible printed circuit board, FPCB, with a flexible substrate; and a flexible multi-part encapsulation housing encasing therein the electronic circuitry and the flexible substrate, the multi-part encapsulation housing including a first molded, flexible encapsulation housing component attached by adhesive to a second molded, flexible encapsulation housing component, the first flexible encapsulation housing component having at least one first prefabricated recessed pocket region seating therein at least some of the electronic circuitry and the flexible substrate, and the second flexible encapsulation housing component having at least one second prefabricated recessed pocket region seating therein at least a portion of the flexible substrate and at least some of the electronic circuitry; wherein the FPCBA is attached to each of the first and second flexible encapsulation housing components by adhesive. a flexible printed circuit board assembly, FPCBA, comprising electronic circuitry (308, 310, 312) attached to a flexible printed circuit board, FPCB, with a flexible substrate; and a flexible multi-part encapsulation housing encasing therein the electronic circuitry and the flexible substrate, the multi-part encapsulation housing including a first molded, flexible encapsulation housing component attached by adhesive to a second molded, flexible encapsulation housing component, the first flexible encapsulation housing component having at least one first prefabricated recessed pocket region seating therein at least some of the electronic circuitry and the flexible substrate, and the second flexible encapsulation housing component having at least one second prefabricated recessed pocket region seating therein at least a portion of the flexible substrate and at least some of the electronic circuitry; wherein the FPCBA is attached to each of the first and second flexible encapsulation housing components by adhesive.
A liquid ejecting head comprising: a nozzle through which liquid can be ejected; a flow path substrate in which a pressure chamber that communicates with the nozzle and a liquid supply chamber that communicates with the pressure chamber are formed; a vibration plate that is installed on the flow path substrate and overlaps with the pressure chamber and the liquid supply chamber; and a piezoelectric element that is formed on the vibration plate on an opposite side from the pressure chamber, characterized in that a portion of the vibration plate overlapping with the pressure chamber is thinner in a thickness than a portion of the vibration plate overlapping with the liquid supply chamber, wherein the portion of the vibration plate overlapping with the liquid supply chamber includes a filter section in which a plurality of through-holes is formed, wherein the vibration plate includes a first layer and a second layer which are laminated from the flow path substrate side in that order, and wherein the plurality of through-holes passes through both of the first layer and the second layer. a nozzle through which liquid can be ejected; a flow path substrate in which a pressure chamber that communicates with the nozzle and a liquid supply chamber that communicates with the pressure chamber are formed; a vibration plate that is installed on the flow path substrate and overlaps with the pressure chamber and the liquid supply chamber; and a piezoelectric element that is formed on the vibration plate on an opposite side from the pressure chamber, characterized in that a portion of the vibration plate overlapping with the pressure chamber is thinner in a thickness than a portion of the vibration plate overlapping with the liquid supply chamber, wherein the portion of the vibration plate overlapping with the liquid supply chamber includes a filter section in which a plurality of through-holes is formed, wherein the vibration plate includes a first layer and a second layer which are laminated from the flow path substrate side in that order, and wherein the plurality of through-holes passes through both of the first layer and the second layer.
An exhaust aftertreatment system for treating exhaust from an engine, the exhaust aftertreatment system comprising: an exhaust flow conduit through which the exhaust flows, the exhaust flow conduit having a longitudinal axis; a doser mounting unit disposed along the exhaust flow conduit; a dosing conduit disposed within the exhaust flow conduit, the dosing conduit defining a passage extending along a first axis that is angled relative to the longitudinal axis of the exhaust flow conduit, the first axis intersecting the doser mounting unit, the dosing conduit (122defining a perforated region; and a plurality of flow guides disposed within the dosing conduit in alignment with the perforated region, the flow guides being offset radially inwardly from an interior surface of the dosing conduit, characterized in that the flow guides are separate from each other and each flow guide includes a vane extending from a base end to a free end, the base end being connected to the doser mounting unit. an exhaust flow conduit through which the exhaust flows, the exhaust flow conduit having a longitudinal axis; a doser mounting unit disposed along the exhaust flow conduit; a dosing conduit disposed within the exhaust flow conduit, the dosing conduit defining a passage extending along a first axis that is angled relative to the longitudinal axis of the exhaust flow conduit, the first axis intersecting the doser mounting unit, the dosing conduit (122defining a perforated region; and a plurality of flow guides disposed within the dosing conduit in alignment with the perforated region, the flow guides being offset radially inwardly from an interior surface of the dosing conduit, characterized in that the flow guides are separate from each other and each flow guide includes a vane extending from a base end to a free end, the base end being connected to the doser mounting unit.
An orthopedic device with an upper part and a lower part, which are connected to each other by at least one joint device so as to be pivotable about a joint axis and has at least one fastening device with which the orthopedic device can be secured to a limb, and with an actuator, which is secured to the upper part and the lower part at fastening points (15, 25) and influences a pivoting of the upper part relative to the lower part, wherein the orientation of the lower part is adjustable relative to the limb that can be secured to the upper part, characterized in that the fastening point (15, 25) is mounted displaceably or rotatably on the upper part or lower part or on a force-transmitting interface (51, 52) or that the fastening point (15, 25) is arranged or formed on an exchangeable component, in order to realize different positions of the fastening point (15, 25) for the actuator.
A method of executing an application program through an internet protocol, IP, address linkage in an image forming apparatus supporting a peer-to-peer, P2P, connection, the method comprising: P2P connecting the image forming apparatus to a wireless device through a wireless local area network, WLAN; driving, by the image forming apparatus a soft access point, AP, module of the image forming apparatus so that the image forming apparatus functions as an AP; driving, by the image forming apparatus, a dynamic host configuration protocol, DHCP, server of the image forming apparatus to allocate a dynamic IP address to the wireless device; storing, by the image forming apparatus, device information of the wireless device including the dynamic IP address allocated to the wireless device and a media access control, MAC, address of the wireless device; linking the dynamic IP address allocated to the wireless device with a static IP address that is preset with respect to the wireless device in the application program by using the stored device information; and executing, by the image forming apparatus, the application program using the dynamic IP address.
A method of training, by a training apparatus, a recognition apparatus for recognizing a face of a user, the method comprising: determine, in each training image from a plurality of training images, a plurality of areas; wherein the training images from the plurality of training images are face images including faces of various users, and wherein the plurality of areas comprises an entire face area, a zoom-in area and a nose area; training, for each area from the plurality of areas, an individual recognition model (1020, 1030, 1040), such that said model is configured to extract features from the corresponding area (1015, 1025, 1035) in the plurality of training images; extracting a plurality of guide features, using the corresponding trained individual recognition models (1020, 1030, 1040), from the plurality of areas (1015, 1025, 1035) in the input training images; training a single recognition model,using at least one of the areas from the plurality of areas and the guide features as a ground truth, wherein a plurality of features extracted using the single recognition model becomes similar to the guide features and orthogonality among the plurality of features extracted using the single recognition model increases; wherein the trained single recognition model enables, during recognition: extracting a plurality of features from an input image including a face of a user, using the trained single recognition model; and recognizing the face of the user in the input image based on the extracted plurality of features. determine, in each training image from a plurality of training images, a plurality of areas; wherein the training images from the plurality of training images are face images including faces of various users, and wherein the plurality of areas comprises an entire face area, a zoom-in area and a nose area; training, for each area from the plurality of areas, an individual recognition model (1020, 1030, 1040), such that said model is configured to extract features from the corresponding area (1015, 1025, 1035) in the plurality of training images; extracting a plurality of guide features, using the corresponding trained individual recognition models (1020, 1030, 1040), from the plurality of areas (1015, 1025, 1035) in the input training images; training a single recognition model,using at least one of the areas from the plurality of areas and the guide features as a ground truth, wherein a plurality of features extracted using the single recognition model becomes similar to the guide features and orthogonality among the plurality of features extracted using the single recognition model increases; wherein the trained single recognition model enables, during recognition: extracting a plurality of features from an input image including a face of a user, using the trained single recognition model; and recognizing the face of the user in the input image based on the extracted plurality of features. extracting a plurality of features from an input image including a face of a user, using the trained single recognition model; and recognizing the face of the user in the input image based on the extracted plurality of features.
A transmitting electronic device, comprising an interface circuit configured to communicate with at least a receiving electronic device, wherein the transmitting electronic device is configured to: measure received power (410, 512) in a channel during time intervals between received packets; compare the measured received power to a first threshold value and a second threshold value, wherein the first threshold value is larger than the second threshold value; when the measured received power is between the first threshold value and the second threshold value: perform a remedial action based on one of: the measured received power, and a metric associated with the measured received power; and transmit a packet in the channel to the receiving electronic device in a manner consistent with the remedial action; wherein the remedial action includes one of a group comprising: (i) selecting the receiving electronic device at a distance less than a threshold distance value from the transmitting electronic device, and (ii) selecting an antenna pattern for one or more antennas of the transmitting electronic device; and when the measured received power is greater than the first threshold value, not allow transmission of packets on the channel. measure received power (410, 512) in a channel during time intervals between received packets; compare the measured received power to a first threshold value and a second threshold value, wherein the first threshold value is larger than the second threshold value; when the measured received power is between the first threshold value and the second threshold value: perform a remedial action based on one of: the measured received power, and a metric associated with the measured received power; and transmit a packet in the channel to the receiving electronic device in a manner consistent with the remedial action; wherein the remedial action includes one of a group comprising: (i) selecting the receiving electronic device at a distance less than a threshold distance value from the transmitting electronic device, and (ii) selecting an antenna pattern for one or more antennas of the transmitting electronic device; and perform a remedial action based on one of: the measured received power, and a metric associated with the measured received power; and transmit a packet in the channel to the receiving electronic device in a manner consistent with the remedial action; wherein the remedial action includes one of a group comprising: (i) selecting the receiving electronic device at a distance less than a threshold distance value from the transmitting electronic device, and (ii) selecting an antenna pattern for one or more antennas of the transmitting electronic device; and (i) selecting the receiving electronic device at a distance less than a threshold distance value from the transmitting electronic device, and (ii) selecting an antenna pattern for one or more antennas of the transmitting electronic device; and when the measured received power is greater than the first threshold value, not allow transmission of packets on the channel.