mhurhangee/ep-ind-claims huggingface dataset:
A fluid dispenser comprising a fluid reservoir in which the fluid is stored under pressure, and a fluid outlet valve that is actuatable from a closed position to an open position so as to define a dispenser orifice, the outlet valve including a movable member that bears, in the closed position, in sealed manner against a seat formed by the edge of the dispenser orifice and that is not in contact with the seat in the open position, the movable member being axially movable and resiliently biased against the seat, the dispenser also comprising an actuator member for moving the movable member between the closed and open positions, characterized in that the actuator member is formed by a rotary disk that is provided with the dispenser orifice, the movable member being formed by a lid mounted on the reservoir, the rotary disk being rotatably mounted on the lid to turn about the movable member, the rotary disk comprising a cam element to transform the rotary movement of the disk into axial movement of the movable member.
A loading-detecting orthosis having a sensor generating sensor signals that has sensor elements (2a,2b,2c) in pressure areas (I,II), and a sensor signal-evaluating electronics therefor designed to indicate critical loading, characterized in that the sensor signal-evaluating electronics is designed to ascertain characteristic values regarding pressure loading events detected at least per pressure area by way of the sensor elements (2a,2b,2c), to form a sum value into which the characteristic values are incorporated by amount in weighted form such that at least three different weights are used, and to generate an alert signal when the sum value exceeds a stipulated amount. a sensor generating sensor signals that has sensor elements (2a,2b,2c) in pressure areas (I,II), and a sensor signal-evaluating electronics therefor designed to indicate critical loading, characterized in that the sensor signal-evaluating electronics is designed to ascertain characteristic values regarding pressure loading events detected at least per pressure area by way of the sensor elements (2a,2b,2c), to form a sum value into which the characteristic values are incorporated by amount in weighted form such that at least three different weights are used, and to generate an alert signal when the sum value exceeds a stipulated amount.
A method for transmitting a data transport block, characterized by comprising: determining cells of a first type supporting transmission of scheduling allocation signaling and cells of a second type supporting only data transmission; transmitting a scheduling allocation signaling of a first type and one or more scheduling allocation signalings of a second type in the cells of the first type, wherein the scheduling allocation signaling of the first type is used for indicating that a same data transport block is transmitted over a plurality of transmission time intervals included within predetermined time, and the scheduling allocation signaling of the second type transmitted over a predetermined transmission time interval within the predetermined time is used for indicating that the data transport block is transmitted over the predetermined transmission time interval; and transmitting the data transport block in the cells of the second type according to the scheduling allocation signaling of the first type, and transmitting the data transport block in the cells of the first type and/or the cells of the second type according to the scheduling allocation signaling of the second type. determining cells of a first type supporting transmission of scheduling allocation signaling and cells of a second type supporting only data transmission; transmitting a scheduling allocation signaling of a first type and one or more scheduling allocation signalings of a second type in the cells of the first type, wherein the scheduling allocation signaling of the first type is used for indicating that a same data transport block is transmitted over a plurality of transmission time intervals included within predetermined time, and the scheduling allocation signaling of the second type transmitted over a predetermined transmission time interval within the predetermined time is used for indicating that the data transport block is transmitted over the predetermined transmission time interval; and transmitting the data transport block in the cells of the second type according to the scheduling allocation signaling of the first type, and transmitting the data transport block in the cells of the first type and/or the cells of the second type according to the scheduling allocation signaling of the second type.
Method for optimising the allocation of resources in a mobile radio communication cellular network, said cellular network comprising at least one base station, called BTS, controlled by a base station controller, called BSC, and a connecting network connecting said BTS(s) with said BSC, The method being of the type consisting of setting up, maintaining and termination of communications with mobile station of said cellular network, the setting up, the maintaining and the terminating of said communications implementing exchanges of signalling messages, said connecting network including at least one link of the radio type with shared resources between said base station(s) and said base station controller, the method comprising the following phases: - a first analysing phase of the content of all or a portion of said signalling messages, said analysing phase including a step of searching for and detecting in said content of said signalling messages data indicating a traffic activity; - a second phase of allocating or not allocating of resources within said radio link with shared resources according to said data indicating a traffic activity, Said method being characterized in that said radio link with shared resources is constituted of a plurality of transmission channels that can be reserved incrementally, and in that the method comprises a prediction of radio resource needs which takes into account the radio resources that have already been allocated in said radio link with shared resources, and an adaptation of the resources of said radio link according to the predication. - a first analysing phase of the content of all or a portion of said signalling messages, said analysing phase including a step of searching for and detecting in said content of said signalling messages data indicating a traffic activity; - a second phase of allocating or not allocating of resources within said radio link with shared resources according to said data indicating a traffic activity,
A Schottky barrier diode comprising: a first conductivity type substrate (100;200); a second conductivity type well isolation region (102;202) on said first conductivity type substrate; a first conductivity type well region (110; 210) on said second conductivity type well isolation region, said first conductivity type well region comprising a lower portion contacting said second conductivity type well isolation region; a second conductivity type well region (104; 204) on said second conductivity type well isolation region; a second conductivity type contact region (108;208) on said second conductivity type well region; a first conductivity type contact region (112;212) on said first conductivity type well region, said first conductivity type contact region surrounding an inner portion of said first conductivity type well region, said inner portion of said first conductivity type well region being positioned within a center of said first conductivity type contact region, and said inner portion of said first conductivity type well region having a smaller circumference than said lower portion of said first conductivity type well region; a first ohmic metallic layer on said first conductivity type contact region; and, a second metallic layer on said inner portion of said first conductivity type well region, said second metallic layer contacting said inner portion of said first conductivity type well region at a junction, said junction comprising a Schottky barrier of said Schottky barrier diode; said Schottky barrier diode being characterized by: said second conductivity type well region comprising a lower portion contacting said first conductivity type substrate; said lower portion of said second conductivity type well region contacting and surrounding said second conductivity type well isolation region; and, said Schottky barrier diode further comprising a perimeter capacitance well junction ring on said second conductivity type well isolation region, said perimeter capacitance well junction ring comprising an undoped material, said perimeter capacitance well junction ring surrounding and contacting said lower portion of said first conductivity type well region, said second conductivity type well region comprising an upper portion surrounding and contacting said perimeter capacitance well junction ring, and said perimeter capacitance well junction ring being positioned between and separating said first conductivity type well region and said second conductivity type well region.
A method for the air conditioning of closed environments, particularly for vertical farms, the closed environment comprising a floor, a ceiling and is delimited by at least two opposite, lateral side walls (318a, 318b), substantially perpendicular to the floor and to the ceiling; the method comprising the steps of: conditioning the air by means of an air treatment unit; distributing and returning the conditioned air present in the closed environment through a plurality of channels (303, 305, 306, 307, 308, 309) connected to said air treatment unit; generating an horizontal flow of conditioned air inside the closed environment, exiting through a plurality of openings of a first vertical panel and entering through a plurality of openings of a second opposite vertical panel wherein the first and second vertical panel (315, 317) is provided at the opposite vertical walls (318a, 318b) of the closed environment; alternatively inverting the delivery direction of the conditioned air along a substantially parallel direction with respect to the floor of the closed environment so as to hit the inside of the closed environment alternatively from one direction and subsequently from the opposite direction of the two vertical walls (318a, 318b). conditioning the air by means of an air treatment unit; distributing and returning the conditioned air present in the closed environment through a plurality of channels (303, 305, 306, 307, 308, 309) connected to said air treatment unit; generating an horizontal flow of conditioned air inside the closed environment, exiting through a plurality of openings of a first vertical panel and entering through a plurality of openings of a second opposite vertical panel wherein the first and second vertical panel (315, 317) is provided at the opposite vertical walls (318a, 318b) of the closed environment; alternatively inverting the delivery direction of the conditioned air along a substantially parallel direction with respect to the floor of the closed environment so as to hit the inside of the closed environment alternatively from one direction and subsequently from the opposite direction of the two vertical walls (318a, 318b).
A vehicle light comprising a lighting unit (300; 300 A-C) including multiple light-emitting elements, LEEs,, one or more couplers (320; 320 A-C), a light guide (330; 330 A-C); and an extractor (340; 340 A-C; 540; 640); the lighting unit (300; 300 A-C) having a curved elongate extension; each of the couplers (320; 320 A-C) having an input aperture coupled with one or more of the LEEs and an exit aperture coupled with a first edge of the light guide (330; 330 A-C) and being configured to couple light from the LEEs into the light guide, the light guide configured to propagate light via total internal reflection to a second edge of the light guide; the extractor (340; 340 A-C; 540; 640) having an input aperture (542; 642) coupled with the second edge of the light guide and an output surface (340 A-C; 544; 644) configured to emit light into an ambient environment, characterized in that the output surface (340 A-C; 544; 644) is convex, wherein the extractor (340; 340 A-C; 540; 640) further comprises a first side surface (546; 646) and a second side surface (548; 648), wherein the first side surface (546; 646) is concave. the extractor (340; 340 A-C; 540; 640) having an input aperture (542; 642) coupled with the second edge of the light guide and an output surface (340 A-C; 544; 644) configured to emit light into an ambient environment, characterized in that the output surface (340 A-C; 544; 644) is convex, wherein the extractor (340; 340 A-C; 540; 640) further comprises a first side surface (546; 646) and a second side surface (548; 648), wherein the first side surface (546; 646) is concave.
A sling carrier for skis (42, 43) and ski boots (48, 49) comprising: an upper ski strap for securing a first end of two snow skis; the upper ski strap having a ring; a pouch for securing said two skis at a second end of said two skis whereby said skis are slung over a back of a user in a diagonal orientation during use of the sling carrier, and a sling strap that extends from said pouch to said ring of said upper ski strap, said upper ski strap and said sling strap being completely securable within said pouch, characterised in that an upper pole strap is provided for securing a first end of two ski poles (46, 47), a lower ski and pole strap (90, 100) is provided for securing said two skis and said two ski poles at the second end of said two skis and said two ski poles, and the upper pole strap has "O" or "D" rings (71, 75) on distal ends of said upper pole strap for portions of the upper pole strap looped through the "O" or "D" rings to be tightened around hand grips of the respective ski poles, and there is a clasp on said upper pole strap between said "O" or "D" rings for securing the upper pole strap to the ring of the upper ski strap. an upper ski strap for securing a first end of two snow skis; the upper ski strap having a ring; a pouch for securing said two skis at a second end of said two skis whereby said skis are slung over a back of a user in a diagonal orientation during use of the sling carrier, and a sling strap that extends from said pouch to said ring of said upper ski strap, said upper ski strap and said sling strap being completely securable within said pouch, characterised in that an upper pole strap is provided for securing a first end of two ski poles (46, 47), a lower ski and pole strap (90, 100) is provided for securing said two skis and said two ski poles at the second end of said two skis and said two ski poles, and the upper pole strap has "O" or "D" rings (71, 75) on distal ends of said upper pole strap for portions of the upper pole strap looped through the "O" or "D" rings to be tightened around hand grips of the respective ski poles, and there is a clasp on said upper pole strap between said "O" or "D" rings for securing the upper pole strap to the ring of the upper ski strap.
A stabilized oil comprising: - an edible oil comprising a polyunsaturated fat selected from the group consisting of ALA, EPA and DHA; and - an antioxidant composition, wherein the antioxidant composition comprises α-lipoic acid, ascorbyl palmitate, and least one of green tea extract and lecithin. - an edible oil comprising a polyunsaturated fat selected from the group consisting of ALA, EPA and DHA; and - an antioxidant composition,
A surface capable of filtering a plurality of frequency bands, this surface comprising a set of separate identical elementary conductive patterns (31; 51; 61; 71; 81; 91), repeated according to a periodic layout on a dielectric support, the elementary pattern comprising: a tripole formed of three identical segments extending in a star from a center; and two branches (32; 72) extending symmetrically from an intermediate point of each segment, this intermediate point being located at a same distance (D b) from the center for each of the segments, the general directions of the two branches forming an angle of approximately 120° and defining an outward-pointing arrowhead, the branches (32; 72) associated with two different segments being non-secant, the elementary pattern being repeated by translation along each of the directions of the segments so that a same distance (D m) separates each end of a segment of a pattern from the center of a neighboring pattern. a tripole formed of three identical segments extending in a star from a center; and two branches (32; 72) extending symmetrically from an intermediate point of each segment, this intermediate point being located at a same distance (D b) from the center for each of the segments, the general directions of the two branches forming an angle of approximately 120° and defining an outward-pointing arrowhead, the branches (32; 72) associated with two different segments being non-secant, the elementary pattern being repeated by translation along each of the directions of the segments so that a same distance (D m) separates each end of a segment of a pattern from the center of a neighboring pattern.
Transmission control apparatus, in particular for a motor vehicle, comprising a circuit board element, wherein a base having a cavity for receiving at least part of a signal input element is attached to a first surface of the circuit board element, wherein the signal input element is at least partly attached in the cavity and is electrically connected to the circuit board element via the base, wherein the circuit board element has an opening for the insertion of the signal input element into the cavity through the circuit board element, wherein the signal input element is formed as a sensor device having a sensor dome, a sensor and connection lines (70, 71), characterized in that a first fixing layer for sealing the area between the base and the circuit board element is arranged on the first surface of the circuit board element and on part of the base, wherein the signal input element is electrically connected to the circuit board element via connection elements (43, 44) of the base, wherein the connection elements (43, 44) protrude from the base into the cavity in the direction of the signal input element and press the connection elements (43, 44) against one or more connection lines (70, 71) of the signal input element and thereby clamp the sensor device between them. wherein a base having a cavity for receiving at least part of a signal input element is attached to a first surface of the circuit board element, wherein the signal input element is at least partly attached in the cavity and is electrically connected to the circuit board element via the base, wherein the circuit board element has an opening for the insertion of the signal input element into the cavity through the circuit board element, wherein the signal input element is formed as a sensor device having a sensor dome, a sensor and connection lines (70, 71), characterized in that a first fixing layer for sealing the area between the base and the circuit board element is arranged on the first surface of the circuit board element and on part of the base, wherein the signal input element is electrically connected to the circuit board element via connection elements (43, 44) of the base, wherein the connection elements (43, 44) protrude from the base into the cavity in the direction of the signal input element and press the connection elements (43, 44) against one or more connection lines (70, 71) of the signal input element and thereby clamp the sensor device between them.
A method for producing a monocrystalline silicon ingot having a neck, a main body suspended from the neck, and an outwardly flaring portion disposed between the neck and the ingot main body, by the horizontal magnetic field Czochralski method, the monocrystalline silicon ingot being grown in an ingot puller apparatus having a heat shield, the method comprising: contacting a seed crystal with a silicon melt held within a crucible; pulling the neck from the silicon melt, wherein: a horizontal magnetic field is not applied to the melt while the neck is pulled from the melt; the crucible is rotated at a crucible rotation rate of 8 rpm or more while pulling the neck from the melt; and a distance between the melt and a bottom of the heat shield is at least 60 mm while pulling the neck from the melt; pulling the outwardly flaring portion from the melt, wherein a horizontal magnetic field is not applied to the melt while pulling the outwardly flaring portion from the melt; and pulling the ingot main body from the melt, the main body being suspended from the neck, the outwardly flaring portion being disposed between the neck and the ingot main body, wherein a horizontal magnetic field is applied to the melt while the ingot main body is pulled from the melt. contacting a seed crystal with a silicon melt held within a crucible; pulling the neck from the silicon melt, wherein: a horizontal magnetic field is not applied to the melt while the neck is pulled from the melt; the crucible is rotated at a crucible rotation rate of 8 rpm or more while pulling the neck from the melt; and a distance between the melt and a bottom of the heat shield is at least 60 mm while pulling the neck from the melt; a horizontal magnetic field is not applied to the melt while the neck is pulled from the melt; the crucible is rotated at a crucible rotation rate of 8 rpm or more while pulling the neck from the melt; and a distance between the melt and a bottom of the heat shield is at least 60 mm while pulling the neck from the melt; pulling the outwardly flaring portion from the melt, wherein a horizontal magnetic field is not applied to the melt while pulling the outwardly flaring portion from the melt; and pulling the ingot main body from the melt, the main body being suspended from the neck, the outwardly flaring portion being disposed between the neck and the ingot main body, wherein a horizontal magnetic field is applied to the melt while the ingot main body is pulled from the melt.
A concentrated emulsion comprising: (a) from 60 to 95 wt %, based on the total weight of the emulsion, of an internal phase comprising: (i) a low density polyolefin with a density equal to or below 0.90 g/cm 3, and (ii) a cosmetically acceptable solvent; (b) from 0.1 to 30 wt %, based on the total weight of the emulsion, of a surfactant; and (c) balance water as a continuous phase. (a) from 60 to 95 wt %, based on the total weight of the emulsion, of an internal phase comprising: (i) a low density polyolefin with a density equal to or below 0.90 g/cm 3, and (ii) a cosmetically acceptable solvent; (i) a low density polyolefin with a density equal to or below 0.90 g/cm 3, and (ii) a cosmetically acceptable solvent; (b) from 0.1 to 30 wt %, based on the total weight of the emulsion, of a surfactant; and (c) balance water as a continuous phase.