mhurhangee/ep-ind-claims huggingface dataset:
An Ethernet switch device connectable between a first network that is an Open System Interface, OSI, Layer-2 Ethernet bridged network that uses MAC address-based routing, and a Customer Premises equipment, CPE, addressable by a first Medium Access Control, MAC, address, the device comprising: a CPE interface connectable for receiving frames from, and transmitting frames to, the CPE; and a network interface connectable for receiving frames from, and transmitting frames to, the first network, characterized in that the device is operative to generate and to handle frames marked as spoke-originated frames defined by a first indication placed in an header field of the frames, and further to handle frames marked as hub-originated frames defined by a second indication placed in the header field of the frames, wherein frames received from the CPE via the CPE interface and having a destination address that is associated with the first network are marked as spoke-originated frames and are forwarded (78, 98) by the device to the first network via the network interface, wherein frames marked as spoke-originated frames that are received from the first network via the network interface are discarded, and wherein frames marked as hub-originated frames that are received from the first network via the network interface and having a destination address that is associated with the CPE are forwarded (78, 98) to the CPE via the CPE interface. a CPE interface connectable for receiving frames from, and transmitting frames to, the CPE; and a network interface connectable for receiving frames from, and transmitting frames to, the first network, characterized in that the device is operative to generate and to handle frames marked as spoke-originated frames defined by a first indication placed in an header field of the frames, and further to handle frames marked as hub-originated frames defined by a second indication placed in the header field of the frames, wherein frames received from the CPE via the CPE interface and having a destination address that is associated with the first network are marked as spoke-originated frames and are forwarded (78, 98) by the device to the first network via the network interface, wherein frames marked as spoke-originated frames that are received from the first network via the network interface are discarded, and wherein frames marked as hub-originated frames that are received from the first network via the network interface and having a destination address that is associated with the CPE are forwarded (78, 98) to the CPE via the CPE interface.
Device for continuously sorting a particulate stream, comprising: a) a screw conveyor for conveying the particulate stream to a separation device, b) a sieve for separating the particulate stream according to size, further comprising c) a pre-sieve comprising elongated sieve openings formed by fingers extending towards an end portion of the pre-sieve with the tips of the fingers not being connected in that end portion, the pre-sieve being located between the conveyor outlet and the sieve, and d) the radial distance between the conveyor screw and the pre-sieve being less than 10%, preferably less than 5% of the conveyor screw diameter, characterized in that e) the pre-sieve encloses part of the circumference of the conveyor screw in an axial end portion of the conveyor screw. a) a screw conveyor for conveying the particulate stream to a separation device, b) a sieve for separating the particulate stream according to size, further comprising c) a pre-sieve comprising elongated sieve openings formed by fingers extending towards an end portion of the pre-sieve with the tips of the fingers not being connected in that end portion, the pre-sieve being located between the conveyor outlet and the sieve, and d) the radial distance between the conveyor screw and the pre-sieve being less than 10%, preferably less than 5% of the conveyor screw diameter, characterized in that e) the pre-sieve encloses part of the circumference of the conveyor screw in an axial end portion of the conveyor screw.
An aeroengine having a compressor inlet comprising: an inlet duct for directing an air flow to a compressor; and at least one deformable wall (36, 38; 63a, 63b) providing a portion of a peripheral wall of the inlet duct and being deformable between an undeployed and a deployed position, the at least one deformable wall (36, 38; 63a, 63b) having a first surface exposed to the air flow and a second surface opposite to the first surface, the at least one deformable wall (36, 38; 63a, 63b) in the undeployed position being shaped as part of the peripheral wall to substantially avoid interfering with the air flow through the inlet duct, and the at least one deformable wall (36, 32; 63a, 63b) in the deployed position being deformed to project into the inlet duct to reduce an effective cross-sectional area of the inlet duct to reduce line-of-sight noise propagation; wherein the inlet duct has an upstream portion and a downstream portion, the downstream portion being annular to direct the airflow in an annular stream toward the compressor and the upstream portion being defined with the peripheral wall, the peripheral wall having opposed and substantially parallel top and bottom walls (32, 34), and side walls; and a plurality of acoustic cells are attached to the second surface of the at least one deformable wall (36, 38; 63a, 63b), the at least one deformable wall (36, 38; 63a, 63b) having a plurality of holes extending therethrough from the first to the second surface and being in communication with the respective acoustic cells. an inlet duct for directing an air flow to a compressor; and at least one deformable wall (36, 38; 63a, 63b) providing a portion of a peripheral wall of the inlet duct and being deformable between an undeployed and a deployed position, the at least one deformable wall (36, 38; 63a, 63b) having a first surface exposed to the air flow and a second surface opposite to the first surface, the at least one deformable wall (36, 38; 63a, 63b) in the undeployed position being shaped as part of the peripheral wall to substantially avoid interfering with the air flow through the inlet duct, and the at least one deformable wall (36, 32; 63a, 63b) in the deployed position being deformed to project into the inlet duct to reduce an effective cross-sectional area of the inlet duct to reduce line-of-sight noise propagation; wherein the inlet duct has an upstream portion and a downstream portion, the downstream portion being annular to direct the airflow in an annular stream toward the compressor and the upstream portion being defined with the peripheral wall, the peripheral wall having opposed and substantially parallel top and bottom walls (32, 34), and side walls; and a plurality of acoustic cells are attached to the second surface of the at least one deformable wall (36, 38; 63a, 63b), the at least one deformable wall (36, 38; 63a, 63b) having a plurality of holes extending therethrough from the first to the second surface and being in communication with the respective acoustic cells.
A subsea splice termination unit for terminating and splicing two fiber optic cables, the subsea splice termination unit being configured for deployment in an underwater environment, wherein the subsea splice termination unit comprises: - a subsea enclosure, - a first termination assembly for terminating a first fiber optic cable at the subsea splice termination unit, - a second termination assembly for terminating a second fiber optic cable at the subsea splice termination unit, - a chamber inside the subsea enclosure, - a first penetrator leading at least a first optical fiber of the first fiber optic cable into the chamber, - a second penetrator leading at least a second optical fiber of the second fiber optic cable into the chamber, wherein a splice between the first optical fiber and the second optical fiber is arranged in said chamber, whereby the first and/or second termination assembly (11, 48) comprises a fiber optic penetrator for leading an optical fiber (22, 50) of the respective fiber optic cable (18, 49) into the chamber, the fiber optic penetrator providing sealing of the chamber, characterised in that the fiber optic penetrator comprises a glass to glass seal for sealing against the optical fiber (22, 50). - a subsea enclosure, - a first termination assembly for terminating a first fiber optic cable at the subsea splice termination unit, - a second termination assembly for terminating a second fiber optic cable at the subsea splice termination unit, - a chamber inside the subsea enclosure, - a first penetrator leading at least a first optical fiber of the first fiber optic cable into the chamber, - a second penetrator leading at least a second optical fiber of the second fiber optic cable into the chamber,
- Pharmaceutical composition comprising at least one compound with Formula I: where: X 1, X 2, X 3, X 4 = NR 3, O R 3 = H, C m H 2m+1, m = 1, 2, 3, 4, 5, 6 n, f, l, v = 0,1 j, k, q, t, z = 1, 2 R 1, R 2 = C m H 2m+1, m = 1, 2, 3, 4, 5, 6 or alternatively form a cycle and have the following meaning: R 1, R 2 = where: Y = NR 3, O R 3 = H, C m H 2m+1, m = 1, 2, 3, 4, 5, 6 p= 0, 1, 2, 3, 4; s= 0, 1, 2 r= 1, 2 and at least one DNA demethylating agent. X 1, X 2, X 3, X 4 = NR 3, O R 3 = H, C m H 2m+1, m = 1, 2, 3, 4, 5, 6 n, f, l, v = 0,1 j, k, q, t, z = 1, 2 R 1, R 2 = C m H 2m+1, m = 1, 2, 3, 4, 5, 6 or alternatively form a cycle and have the following meaning: R 1, R 2 = where: Y = NR 3, O R 3 = H, C m H 2m+1, m = 1, 2, 3, 4, 5, 6 p= 0, 1, 2, 3, 4; s= 0, 1, 2 r= 1, 2 and at least one DNA demethylating agent. Y = NR 3, O R 3 = H, C m H 2m+1, m = 1, 2, 3, 4, 5, 6 p= 0, 1, 2, 3, 4; s= 0, 1, 2 r= 1, 2 and at least one DNA demethylating agent.
A composition comprising a mixture of two or more imidazolium ionic liquids and between 0.1 and 50%wt of cellulose, wherein the mixed ionic liquids configure a eutectic system and their anions are selected from chloride and acetate.
Longitudinal seat adjuster for a seat, in particular a vehicle seat, comprising at least - a rail pair (P1, P2) having a lower rail and an upper rail which is displaceably mounted on the lower rail, - a drive unit, - a transmission unit having a transmission housing (8.1), wherein the transmission unit and the drive unit are coupled to each other, - a holder (10.2) for fastening the transmission housing (8.1) to the upper rail, and - a covering element (11.1), wherein the upper rail has at least one through-opening (4.2), through which at least one housing portion (8.1.1) of the transmission housing (8.1) projects, and the covering element (11.1) for covering the transmission housing (8.1) comprises at least one covering region (11.4.1), which is formed by two covering legs (11.4) arranged opposite each other in parallel, and the covering element (11.1) comprises at least one covering sub-region (11.4.1a) arranged laterally with respect to the covering region (11.4.1), wherein the covering sub-region (11.4.1a) is defined by means of a covering wing (11.4.2) which projects perpendicularly in a longitudinal direction from one of the covering legs (11.4), wherein the covering region (11.4.1) is connected to the housing portion (8.1.1) in a force-fitting and/or form-fitting manner, and the covering sub-region (11.4.1a) covers at least one connection region of the holder (10.2) with the upper rail above the upper rail by means of the covering wings (11.4.2). - a rail pair (P1, P2) having a lower rail and an upper rail which is displaceably mounted on the lower rail, - a drive unit, - a transmission unit having a transmission housing (8.1), wherein the transmission unit and the drive unit are coupled to each other, - a holder (10.2) for fastening the transmission housing (8.1) to the upper rail, and - a covering element (11.1), wherein the upper rail has at least one through-opening (4.2), through which at least one housing portion (8.1.1) of the transmission housing (8.1) projects, and the covering element (11.1) for covering the transmission housing (8.1) comprises at least one covering region (11.4.1), which is formed by two covering legs (11.4) arranged opposite each other in parallel, and the covering element (11.1) comprises at least one covering sub-region (11.4.1a) arranged laterally with respect to the covering region (11.4.1), wherein the covering sub-region (11.4.1a) is defined by means of a covering wing (11.4.2) which projects perpendicularly in a longitudinal direction from one of the covering legs (11.4), wherein the covering region (11.4.1) is connected to the housing portion (8.1.1) in a force-fitting and/or form-fitting manner, and the covering sub-region (11.4.1a) covers at least one connection region of the holder (10.2) with the upper rail above the upper rail by means of the covering wings (11.4.2).
A display apparatus comprising: - a frame; - a plurality of light emitting diode packages regularly arranged on the frame; and - an optical part disposed above the plurality of light emitting diode packages and comprising a display panel and at least one of a phosphor sheet and an optical sheet, - wherein each of the light emitting diode packages comprises a light emitting diode chip; a reflector disposed on an upper surface of the light emitting diode chip and reflecting at least part of light emitted from the light emitting diode chip; and a molding part disposed to cover upper and side surfaces of the light emitting diode chip and the reflector, and wherein the reflector comprises a distributed Bragg reflector. - a frame; - a plurality of light emitting diode packages regularly arranged on the frame; and - an optical part disposed above the plurality of light emitting diode packages and comprising a display panel and at least one of a phosphor sheet and an optical sheet, - wherein each of the light emitting diode packages comprises a light emitting diode chip; a reflector disposed on an upper surface of the light emitting diode chip and reflecting at least part of light emitted from the light emitting diode chip; and a molding part disposed to cover upper and side surfaces of the light emitting diode chip and the reflector, and
A jack connector comprising: a contact that has a first end comprising a coupling part provided with a signal contact point and a ground contact point configured to connect to a center conductor and an external conductor of a coaxial cable respectively, and a second end provided with a signal terminal and a ground terminal configured to connect to a substrate; a body that includes a contact mount to which the contact is mounted and a substrate mount to which the substrate is mounted; and a bracket attached to the substrate mount, the substrate mount being configured to hold the substrate, and the bracket including a slot into which the signal terminal and ground terminal are inserted: characterized in that the bracket is detachably attached to the substrate mount; and the bracket is configured such that, when the bracket is attached to the body, the bracket applies pressure to the signal terminal and ground terminal, such that the signal terminal and ground terminal apply pressure to the substrate and contact the substrate. a contact that has a first end comprising a coupling part provided with a signal contact point and a ground contact point configured to connect to a center conductor and an external conductor of a coaxial cable respectively, and a second end provided with a signal terminal and a ground terminal configured to connect to a substrate; a body that includes a contact mount to which the contact is mounted and a substrate mount to which the substrate is mounted; and a bracket attached to the substrate mount, the substrate mount being configured to hold the substrate, and the bracket including a slot into which the signal terminal and ground terminal are inserted: characterized in that the bracket is detachably attached to the substrate mount; and the bracket is configured such that, when the bracket is attached to the body, the bracket applies pressure to the signal terminal and ground terminal, such that the signal terminal and ground terminal apply pressure to the substrate and contact the substrate.
A pesticidal composition comprising a carboxamide compound of formula and one or more pyrethroid compound(s) selected from tefluthrin, lambda-cyhalothrin, cypermethrin, beta-cyfluthrin, permethrin, deltamethrin and bifenthrin.
An imager device comprising: a pixel array; first and second readout chains (80, 82; 580, 582); a switch circuit (58, 598); and a column sample and hold circuitry (130; 530) configured to generate signals from the pixel array, wherein said signals are output on first and second channels (ChA, ChB), characterized in that the switch circuit (58, 598) is configured to operate in a first mode and a second mode, wherein in the first mode, both readout chains are enabled and the switch circuit is configured to couple said pixel array to said first and second readout chains (80, 82, 580, 582), and the switch circuit is further configured to direct signals from the column sample and hold circuitry carried on the first channel (ChA) to one of said first and second readout chains (80, 82, 580, 582), and to direct signals from the column sample and hold circuitry carried on the second channel (ChB) to the other one of said first and second readout chains (80, 82, 580, 582), and wherein in the second mode, only one of said first and second readout chains is enabled while the other one of said first and second readout chains is disabled so as to reduce power consumption and the switch circuit is configured to couple said pixel array to the only enabled one of said first and second readout chains (80, 82, 580, 582) and the switch circuit is further configured to alternate between directing signals from the column sample and hold circuitry carried on the first channel to the enabled readout chain and directing signals from the column sample and hold circuitry carried on the second channel to the enabled readout chain. a pixel array; first and second readout chains (80, 82; 580, 582); a switch circuit (58, 598); and a column sample and hold circuitry (130; 530) configured to generate signals from the pixel array, wherein said signals are output on first and second channels (ChA, ChB),
A laminating adhesive having a high melt flow rate, low viscosity, high strength, and good elastic properties, intended for textile applications, comprising: a blend of styrenic block copolymer and tackifying resin, said styrenic block copolymer being selectively hydrogenated styrene-diene-styrene or a selectively hydrogenated controlled distribution styrene -diene/styrene -styrene, where diene can be butadiene, isoprene, or mixtures thereof, said styrenic block copolymer possess a melt flow rate equal to or greater than 100 g/10 min., measured according to ASTM D-1238 at 230°C and 2.16 kg, wherein said styrenic block copolymer has a minimum linear true peak molecular weight (Mp) of 45,000 to 65,000; a polystyrene content of between 18 to 45%; a vinyl content of 65 to 80 %, and a coupling efficiency of 60 to 97%, and wherein said blend having a melt flow rate greater than 15 g/10 min. at 160°C and 2.16 kg.
A trailer detection device (10, 40) for detecting a trailer coupled to a towing vehicle, wherein the trailer comprises a trailer lighting system with at least one light, comprising a voltage measurement circuit (32, 42) and a constant current source (34, 44) which comprises two connections (36, 38), wherein a first connection of the constant current source is connected to the on-board power system of the towing vehicle for obtaining electric energy and a second connection of the constant current source (34, 44) is connected to both a line for the controlled supply of a light of the trailer with electric energy from the on-board power system of the towing vehicle and to the voltage measurement circuit (32, 42), wherein the constant current source (34, 44) is of the electronic type and obtains its electric energy, from which the constant current is gained and provided, from the on-board power system, such that the constant current source (34, 44) provides a constant electric current over a pre-determinable voltage range, which voltage range is limited by reference potentials to which the constant current source (34, 44) is connected, wherein it can be determined by evaluating the detected electric voltage, whether an electric connection to the light is established and whether a trailer is properly coupled to the towing vehicle and wherein the trailer detection device comprises decoupling means which enable to decouple the trailer detection device (10, 40) from the light, in particular during the lighting operation of the light, in order to not disturb the proper operation of the light.
OxRAM resistive memory cell (50; 60; 80) comprising a lower electrode, an upper electrode (53; 63; 83), and an active layer (54; 64; 84) which extends between the lower electrode and the upper electrode (53; 63; 83), - the active layer (54; 64; 84) comprising at least one layer of a first electrically insulating oxide (EOx), wherein an electrically conductive filament can be formed, then subsequently broken and reformed several times successively, - the upper electrode (53; 63; 83) comprising a reservoir layer (55; 65; 85) capable of receiving oxygen, a portion at least of the reservoir layer (55; 65; 85) being made of a metal, - characterised in that said reservoir layer (55; 65; 85) comprises an upper part (551; 651; 851) made of said metal and a lower part (552; 652; 852) made of a second oxide (MOy), the second oxide (MOy) being an oxide of said metal and comprising a proportion (y) of oxygen such that the second oxide is electrically conductive, with an electrical conductivity greater than 100 Siemens per metre. - the active layer (54; 64; 84) comprising at least one layer of a first electrically insulating oxide (EOx), wherein an electrically conductive filament can be formed, then subsequently broken and reformed several times successively, - the upper electrode (53; 63; 83) comprising a reservoir layer (55; 65; 85) capable of receiving oxygen, a portion at least of the reservoir layer (55; 65; 85) being made of a metal, - characterised in that said reservoir layer (55; 65; 85) comprises an upper part (551; 651; 851) made of said metal and a lower part (552; 652; 852) made of a second oxide (MOy), the second oxide (MOy) being an oxide of said metal and comprising a proportion (y) of oxygen such that the second oxide is electrically conductive, with an electrical conductivity greater than 100 Siemens per metre.