mhurhangee/ep-ind-claims huggingface dataset:
Method for checking a license for using at least one performance feature in an Internet-of-Things (IoT) device on the basis of a license identifier, comprising - stipulating at least one license condition for using the performance feature of the IoT device by means of at least one attribute contained in the license identifier, - transmitting and storing the license identifier on the IoT device, - checking the license conditions by a) generating pseudo-access assigned to the performance feature of the IoT device by means of a pseudo-holder unit formed on the IoT device, and b) checking an authorization for the pseudo-access by checking the attributes of the license identifier by means of a verification unit formed on the IoT device, and - activating the at least one performance feature if the pseudo-access is confirmed as permitted by a positive checking result for the license identifier, wherein the license identifier, the pseudo-holder unit and the verification unit are designed on the basis of a specification for verifiable credentials of a World Wide Web Consortium (W3C for short), and the license identifier is based on a structure of the verifiable credentials, the verification unit corresponds to a modified verifier and the pseudo-holder unit corresponds to a modified holder which is designed as a local unit on the IoT device and provides the verification unit with the license identifier. - stipulating at least one license condition for using the performance feature of the IoT device by means of at least one attribute contained in the license identifier, - transmitting and storing the license identifier on the IoT device, - checking the license conditions by a) generating pseudo-access assigned to the performance feature of the IoT device by means of a pseudo-holder unit formed on the IoT device, and b) checking an authorization for the pseudo-access by checking the attributes of the license identifier by means of a verification unit formed on the IoT device, and a) generating pseudo-access assigned to the performance feature of the IoT device by means of a pseudo-holder unit formed on the IoT device, and b) checking an authorization for the pseudo-access by checking the attributes of the license identifier by means of a verification unit formed on the IoT device, and - activating the at least one performance feature if the pseudo-access is confirmed as permitted by a positive checking result for the license identifier,
An optical system (200, 600) for providing illumination to a pupil (290, 690) of an imaging device, the optical system (200, 60) comprising: a first set of first reflectors (250a-d, 650a-d) disposed as an array in a first direction and staggered in a second direction toward the pupil (290, 690), the second direction being orthogonal to the first direction, wherein each first reflector (250a-d, 650a-d) is tilted to reflect one or more first light beams incident in the first direction into the second direction toward the pupil (290, 690); and a second set of second reflectors (260a-d, 660a-d) disposed as an array in the first direction and staggered in the second direction toward the pupil (290, 690), each second reflector (260a-d, 660a-d) comprising one or more transparent regions, wherein each second reflector (260a-d, 660a-d) is tilted to reflect one or more second light beams incident in the first direction into the second direction toward the pupil (290, 690), wherein each second reflector (260a-d, 660a-d) is stacked in front of a corresponding first reflector (250a-d, 650a-d) in the second direction toward the pupil (290, 690), and each second reflector (260a-d, 660a-d) is tilted to transmit the one or more first light beams reflected by the corresponding first reflector (250a-d, 650a-d) through the one or more transparent regions on the second reflector (260a-d, 660a-d), wherein the one or more first light beams and the one or more second light beams are incident from a same side for both the first and second reflectors (250a-d, 650a-d). a first set of first reflectors (250a-d, 650a-d) disposed as an array in a first direction and staggered in a second direction toward the pupil (290, 690), the second direction being orthogonal to the first direction, wherein each first reflector (250a-d, 650a-d) is tilted to reflect one or more first light beams incident in the first direction into the second direction toward the pupil (290, 690); and a second set of second reflectors (260a-d, 660a-d) disposed as an array in the first direction and staggered in the second direction toward the pupil (290, 690), each second reflector (260a-d, 660a-d) comprising one or more transparent regions, wherein each second reflector (260a-d, 660a-d) is tilted to reflect one or more second light beams incident in the first direction into the second direction toward the pupil (290, 690), wherein each second reflector (260a-d, 660a-d) is stacked in front of a corresponding first reflector (250a-d, 650a-d) in the second direction toward the pupil (290, 690), and each second reflector (260a-d, 660a-d) is tilted to transmit the one or more first light beams reflected by the corresponding first reflector (250a-d, 650a-d) through the one or more transparent regions on the second reflector (260a-d, 660a-d), wherein the one or more first light beams and the one or more second light beams are incident from a same side for both the first and second reflectors (250a-d, 650a-d).
A flow path member comprising a first substrate having a first main surface, a second substrate having a second main surface, a bonding member bonding the first main surface and the second main surface, and a flow path positioned between the first substrate and the second substrate and extended along the first main surface and the second main surface, wherein the bonding member has a projection which is protruded from a portion between the first main surface and the second main surface toward an inner part of the flow path, characterized in that the flow path has a first portion having the projection provided in an inner part and a second portion linked to the first portion adjacently to an opposite side to a side where the projection of the first portion is provided, and a height of the first portion is greater than a height of the second portion.
A data transmission and reception method, wherein the method comprises: determining a type of a first subframe for data transmission and reception, wherein the type of the first subframe is a first-type subframe, wherein the first-type subframe comprises an uplink control channel and a downlink channel, the uplink control channel of the first-type subframe is after the downlink channel of the first-type subframe, and there is a guard period between the uplink control channel of the first-type subframe and the downlink channel of the first-type subframe; determining, a type of a second subframe for data transmission and reception, wherein the type of the second subframe is a second-type subframe, wherein the second-type subframe comprises an uplink channel and a downlink control channel, the uplink channel of the second-type subframe is located after the downlink control channel of the second-type subframe, and there is a guard period between the uplink channel of the second-type subframe and the downlink control channel of the second-type subframe; and transmitting and receiving data in the first subframe according to the determined type of the first subframe; transmitting and receiving data in the second subframe according to the determined type of the second subframe, wherein the second subframe is adjacent to the first subframe in time domain. determining a type of a first subframe for data transmission and reception, wherein the type of the first subframe is a first-type subframe, wherein the first-type subframe comprises an uplink control channel and a downlink channel, the uplink control channel of the first-type subframe is after the downlink channel of the first-type subframe, and there is a guard period between the uplink control channel of the first-type subframe and the downlink channel of the first-type subframe; determining, a type of a second subframe for data transmission and reception, wherein the type of the second subframe is a second-type subframe, wherein the second-type subframe comprises an uplink channel and a downlink control channel, the uplink channel of the second-type subframe is located after the downlink control channel of the second-type subframe, and there is a guard period between the uplink channel of the second-type subframe and the downlink control channel of the second-type subframe; and transmitting and receiving data in the first subframe according to the determined type of the first subframe; transmitting and receiving data in the second subframe according to the determined type of the second subframe, wherein the second subframe is adjacent to the first subframe in time domain.
Tool for agricultural equipment to collect agricultural products, such as forage or straw, said tool comprising at least an oblong bar shaped to define at least one tooth at a free end, and wherein at least one longitudinal portion of said bar is provided with a plurality of surface irregularities to increase the action of collecting said agricultural products, characterized in that said longitudinal portion in which said surface irregularities are made extends from the free end of said bar toward the inside of the latter and for a length of said longitudinal portion comprised between 10 mm and 250 mm, in that said surface irregularities are knurls uniformly distributed along the entire longitudinal portion of the bar and have a roughness comprised between 0.1 mm and 2.0 mm and in that said knurls have an inclination with respect to an axis of said bar comprised between 10° and 170°, preferably between 45° and 135°.
An electroforming method comprising: a mold forming step of forming an insulating layer (14, 14a) so that the insulating layer (14, 14a) is placed on an upper surface of a conductive base material, providing a recessed part in the insulating layer(14, 14a), and forming a mold (11, 31, 41, 51, 61, 71-88) with the conductive base material exposed from at least part of a bottom surface of the recessed part; and an electrodepositing step of applying a voltage to the mold (11, 31, 41, 51, 61, 71-88) disposed in an electrolytic bath and electrodepositing a metal on an exposed surface of the conductive base material inside the recessed part, characterized in that, in the electrodepositing step: the recessed part has a width equal to or longer than 300 μm, and a metal layer is let grow inside the recessed part so that a space with a height 1/2.85 times as long as the width of the recessed part or longer is left. a mold forming step of forming an insulating layer (14, 14a) so that the insulating layer (14, 14a) is placed on an upper surface of a conductive base material, providing a recessed part in the insulating layer(14, 14a), and forming a mold (11, 31, 41, 51, 61, 71-88) with the conductive base material exposed from at least part of a bottom surface of the recessed part; and an electrodepositing step of applying a voltage to the mold (11, 31, 41, 51, 61, 71-88) disposed in an electrolytic bath and electrodepositing a metal on an exposed surface of the conductive base material inside the recessed part, the recessed part has a width equal to or longer than 300 μm, and a metal layer is let grow inside the recessed part so that a space with a height 1/2.85 times as long as the width of the recessed part or longer is left.
A method of handling a plurality of sensors in a context aware platform comprising: providing an application programming interface to enable communication between a provider manager and a plurality of context providers, wherein the plurality of context providers is to support the application programming interface; generating a hint signal based on predicted usage levels of the plurality of sensors, wherein the hint signal is to specify preferred activity level of the plurality of sensors; activating a first set of sensors coupled to the context provider if the preferred activity level for the first set of sensors is set to an activate state in the hint signal, wherein the plurality of sensors include the first set of sensors; getting contextual information from the first set of sensors using the application programming interface; loading a context provider of the plurality of context providers if a first value is stored in a load field of the hint signal; and unloading the context provider if a second value is stored in the load field of the hint signal; wherein the hint signal is used to activate or deactivate one or more of the plurality of sensors to conserve resources consumed by the plurality of sensors. providing an application programming interface to enable communication between a provider manager and a plurality of context providers, wherein the plurality of context providers is to support the application programming interface; generating a hint signal based on predicted usage levels of the plurality of sensors, wherein the hint signal is to specify preferred activity level of the plurality of sensors; activating a first set of sensors coupled to the context provider if the preferred activity level for the first set of sensors is set to an activate state in the hint signal, wherein the plurality of sensors include the first set of sensors; getting contextual information from the first set of sensors using the application programming interface; loading a context provider of the plurality of context providers if a first value is stored in a load field of the hint signal; and unloading the context provider if a second value is stored in the load field of the hint signal; wherein the hint signal is used to activate or deactivate one or more of the plurality of sensors to conserve resources consumed by the plurality of sensors.
A sheet for ink-jet printing including a base sheet and a printing layer formed on a surface of said base sheet and containing a plaster (shikkui) and an organic binder, wherein said printing layer, further, contains at least one kind of additive selected from the group consisting of glycerin and water-soluble polymer.
A pneumatic tire comprising: a tread portion; a pair of sidewall portions; a pair of bead portions having respective bead cores embedded therein; and a toroidal carcass disposed between the pair of bead portions, wherein the carcass includes a first ply extending on and between the pair of bead portions, and a second ply disposed, in the tread portion, outward of the first ply in a tire radial direction and extending on and between the pair of bead portions, the first ply is formed as a layer of first cords, and the second ply is formed as a layer of second cords, characterized in that a thickness of each second cord is 1.1 to 2.0 times a thickness of each first cord (1 1c). a tread portion; a pair of sidewall portions; a pair of bead portions having respective bead cores embedded therein; and a toroidal carcass disposed between the pair of bead portions, wherein the carcass includes a first ply extending on and between the pair of bead portions, and a second ply disposed, in the tread portion, outward of the first ply in a tire radial direction and extending on and between the pair of bead portions, a first ply extending on and between the pair of bead portions, and a second ply disposed, in the tread portion, outward of the first ply in a tire radial direction and extending on and between the pair of bead portions, the first ply is formed as a layer of first cords, and the second ply is formed as a layer of second cords, characterized in that a thickness of each second cord is 1.1 to 2.0 times a thickness of each first cord (1 1c).
An image sensing apparatus comprising: sensing means for successively sensing images; storage means for temporally storing the successively sensed images; face detection means for detecting a face region from each of the successively sensed images; extraction means for extracting predetermined features representing parts of a face from the detected face region in each of the successively sensed images; determination means for determining a score for an expression of the face on the basis of the predetermined features extracted from the face region; recording means for recording an image; and control means for controlling said recording means to selectively record an image of the successively sensed images from which the face region has been detected, if the score for the expression of the face satisfies a condition concerning a smile. sensing means for successively sensing images; storage means for temporally storing the successively sensed images; face detection means for detecting a face region from each of the successively sensed images; extraction means for extracting predetermined features representing parts of a face from the detected face region in each of the successively sensed images; determination means for determining a score for an expression of the face on the basis of the predetermined features extracted from the face region; recording means for recording an image; and control means for controlling said recording means to selectively record an image of the successively sensed images from which the face region has been detected, if the score for the expression of the face satisfies a condition concerning a smile.
A compound of formula: wherein: L is selected from the group consisting of -(CZ 1 Z 2 -CZ 1 Z 2 -CZ 1 Z 2)-, -(CZ 1 Z 2 -CZ 1 Z 2)-, and - (CZ 1 Z 2)-; R 1 is selected from the group consisting of R 2 is selected from the group consisting of hydrogen, C 1 -C 6 alkyl, and substituted C 1 -C 6 alkyl; R 3 is selected from the group consisting of hydrogen, methyl and ethyl; R 4 is selected from the group consisting of methyl and ethyl; R 5 is selected from the group consisting of methyl and ethyl; R 6 is selected from the group consisting of H and C 1 -C 6 alkyl; each occurrence of Z 1 and Z 2 is independently selected from the group consisting of hydrogen, fluoro, and methyl; X is selected from the group consisting of S, O, and N-R 7; each occurrence of R is independently selected from the group consisting of hydrogen, fluoro, chloro, bromo, iodo, cyano, nitro, hydroxyl, C 1 -C 6 alkoxy, C 1 -C 6 alkyl, substituted C 1 -C 6 alkyl, C 2 -C 6 alkenyl, substituted C 2 -C 6 alkenyl, alkynyl, substituted C 2 -C 6 alkynyl, phenyl, substituted phenyl, -COOR 7, and carboxamide; or-L-R 1 combine to form H, C 1 -C 6 alkyl, or substituted C 1 -C 6 alkyl; each occurrence of p is independently selected from the group consisting of 0, 1, 2 and 3; and each occurrence of R 7 is independently selected from the group consisting of hydrogen and C 1 -C 6 alkyl; or a salt, solvate, enantiomer, diastereoisomer and/or tautomer thereof, and any mixtures thereof. L is selected from the group consisting of -(CZ 1 Z 2 -CZ 1 Z 2 -CZ 1 Z 2)-, -(CZ 1 Z 2 -CZ 1 Z 2)-, and - (CZ 1 Z 2)-; R 1 is selected from the group consisting of R 2 is selected from the group consisting of hydrogen, C 1 -C 6 alkyl, and substituted C 1 -C 6 alkyl; R 3 is selected from the group consisting of hydrogen, methyl and ethyl; R 4 is selected from the group consisting of methyl and ethyl; R 5 is selected from the group consisting of methyl and ethyl; R 6 is selected from the group consisting of H and C 1 -C 6 alkyl; each occurrence of Z 1 and Z 2 is independently selected from the group consisting of hydrogen, fluoro, and methyl; X is selected from the group consisting of S, O, and N-R 7; each occurrence of R is independently selected from the group consisting of hydrogen, fluoro, chloro, bromo, iodo, cyano, nitro, hydroxyl, C 1 -C 6 alkoxy, C 1 -C 6 alkyl, substituted C 1 -C 6 alkyl, C 2 -C 6 alkenyl, substituted C 2 -C 6 alkenyl, alkynyl, substituted C 2 -C 6 alkynyl, phenyl, substituted phenyl, -COOR 7, and carboxamide; or-L-R 1 combine to form H, C 1 -C 6 alkyl, or substituted C 1 -C 6 alkyl; each occurrence of p is independently selected from the group consisting of 0, 1, 2 and 3; and each occurrence of R 7 is independently selected from the group consisting of hydrogen and C 1 -C 6 alkyl; or a salt, solvate, enantiomer, diastereoisomer and/or tautomer thereof, and any mixtures thereof.
A radial fan wheel having a plurality of fan wheel blades arranged in a blade ring and at least one plate that, at least in sections, covers the fan wheel blades axially on the front side, wherein two adjacent fan wheel blades form a blade channel therebetween, the flow cross section of which is axially limited by the plate, an axial width of the blade channel increasing to a maximum at least along an outer periphery of the radial fan wheel starting from a suction side of a fan wheel blade limiting the blade channel in the direction of a pressure side of the adjacent fan wheel blade limiting the blade channel, wherein the maximum lies on a radial section of the fan wheel, which radial section lies between 55 and 95% of the distance between the suction side of the fan wheel blade limiting the blade channel and the pressure side of the adjacent fan wheel blade limiting the blade channel such that the plate, when viewed in the circumferential direction, has an asymmetrical shape between two adjacent fan wheel blades, characterized in that the maximum lies on a radial section of the radial fan wheel, which radial section lies between 65 and 80% of the distance between the suction side of the fan wheel blade limiting the blade channel and the pressure side of the adjacent fan wheel blade limiting the blade channel, wherein the axial width of each blade channel along the outer periphery of the radial fan wheel is defined by the formulas B x = BS + BE − BE P − X P) 2 with X ≤ P, and B x = BS + BE − BE X − P 1 − P 2 with X > P and 0 < P < 1 wherein BS is an axial width of the blade channel at the fan wheel blade, BE is the extension of the axial width of the blade channel to the maximum, P is a position of the maximum of the axial width of the blade channel starting from the suction side of the fan wheel blade limiting the blade channel and X is a circumferential direction of an unfolded section along the contour of the plate. the maximum lies on a radial section of the radial fan wheel, which radial section lies between 65 and 80% of the distance between the suction side of the fan wheel blade limiting the blade channel and the pressure side of the adjacent fan wheel blade limiting the blade channel, wherein the axial width of each blade channel along the outer periphery of the radial fan wheel is defined by the formulas B x = BS + BE − BE P − X P) 2 with X ≤ P, and B x = BS + BE − BE X − P 1 − P 2 with X > P and 0 < P < 1 wherein BS is an axial width of the blade channel at the fan wheel blade, BE is the extension of the axial width of the blade channel to the maximum, P is a position of the maximum of the axial width of the blade channel starting from the suction side of the fan wheel blade limiting the blade channel and X is a circumferential direction of an unfolded section along the contour of the plate.