mhurhangee/ep-ind-claims huggingface dataset:
A semiconductor light emitting device comprising: a conductive substrate; a light emitting structure having a second semiconductor layer, an active layer, and a first semiconductor layer sequentially stacked; a first electrode layer disposed between the conductive substrate and the light emitting structure, the first electrode layer extending toward an upper surface of the light emitting structure through contact holes to be in contact with an inside of the first semiconductor layer, and the contact holes penetrating the second semiconductor layer and the active layer, wherein the contact holes are uniformly arranged and each of the contact holes has a radius of approximately 1 μ m to 50 μ m; and an insulating layer electrically separating the first electrode layer from the conductive substrate, the second semiconductor layer and the active layer; characterized in that the first electrode layer extends beyond a side surface of the light emitting structure to have an electrical connection portion exposed outwardly of the light emitting structure; a contact area between the first electrode layer and the first semiconductor layer is 6,150 μ m 2 to 156,800 μ m 2 per 1,000,000 μ m 2 area of a total area of the upper surface of the semiconductor light emitting device; and a distance between central points of adjacent contact holes among the contact holes is 5 μ m to 500 μ m. a conductive substrate; a light emitting structure having a second semiconductor layer, an active layer, and a first semiconductor layer sequentially stacked; a first electrode layer disposed between the conductive substrate and the light emitting structure, the first electrode layer extending toward an upper surface of the light emitting structure through contact holes to be in contact with an inside of the first semiconductor layer, and the contact holes penetrating the second semiconductor layer and the active layer, wherein the contact holes are uniformly arranged and each of the contact holes has a radius of approximately 1 μ m to 50 μ m; and an insulating layer electrically separating the first electrode layer from the conductive substrate, the second semiconductor layer and the active layer;
A method of de-blocking an edge (709, 711) of a block of samples in a frame of sample data, the method comprising: decoding a first prediction mode for a first block of two adjacent blocks (803, 805) of sample data, each of the blocks (803, 805) of sample data including luma channel and at least one chroma channel; decoding a second prediction mode for a second block of the two adjacent blocks (803, 805) of sample data; the method being characterised by determining a boundary strength value for a block of samples (704, 706) along an edge (709, 711) corresponding to a boundary between said first block of sample data and said second block of sample data if the first prediction mode and the second prediction mode are both intra-block copy mode, wherein the boundary strength value indicates application of a weak de-blocking filter if block vectors (524, 608, 612) respectively associated with the first block and the second block are different, and the boundary strength value indicates no de-blocking filtering is applied if the block vectors (524, 608, 612) are equal wherein each of the block vectors (524, 608, 612) is defined at integer pixel precision for referencing a block of samples (526, 610, 614) in the frame; in a case where the determined boundary strength value indicates the application of the weak de-blocking filter, applying a de-blocking filter (330, 430) to the luma channel of the first and second blocks of samples (704, 706) along said edge (709, 711) without also applying a de-blocking filter to the at least one chroma channel of the first and second blocks of samples (704, 706) along said edge (709, 711). decoding a first prediction mode for a first block of two adjacent blocks (803, 805) of sample data, each of the blocks (803, 805) of sample data including luma channel and at least one chroma channel; decoding a second prediction mode for a second block of the two adjacent blocks (803, 805) of sample data; the method being characterised by determining a boundary strength value for a block of samples (704, 706) along an edge (709, 711) corresponding to a boundary between said first block of sample data and said second block of sample data if the first prediction mode and the second prediction mode are both intra-block copy mode, wherein the boundary strength value indicates application of a weak de-blocking filter if block vectors (524, 608, 612) respectively associated with the first block and the second block are different, and the boundary strength value indicates no de-blocking filtering is applied if the block vectors (524, 608, 612) are equal wherein each of the block vectors (524, 608, 612) is defined at integer pixel precision for referencing a block of samples (526, 610, 614) in the frame; in a case where the determined boundary strength value indicates the application of the weak de-blocking filter, applying a de-blocking filter (330, 430) to the luma channel of the first and second blocks of samples (704, 706) along said edge (709, 711) without also applying a de-blocking filter to the at least one chroma channel of the first and second blocks of samples (704, 706) along said edge (709, 711).
A method of imaging with an optical coherence tomography - OCT-system, comprising: generating an electrical OCT signal by a first detector (204, 300); generating a first electrical signal, wherein the first electrical signal carries synchronization information of a light source sweeping of the OCT system, wherein the first electrical signal is a signature signal generated by a second detector (204, 304) that detects an optical signal, wherein the second detector (204, 304) detects the optical signal from a fiber Bragg grating, such that the first electrical signal is based on the optical signal from the fiber Bragg grating; electrically mixing the first electrical signal and the electrical OCT signal with an electrical signal mixer; and generating an output signal comprising the electrically mixed first electrical signal and the electrical OCT signal, wherein the electrical signal mixer (312, 318, 410, 412, 500, 600) receives the first electrical signal at a first input and the electrical OCT signal from the first detector (204, 300) at a second input, and outputs the output signal to an analog-to-digital converter. generating an electrical OCT signal by a first detector (204, 300); generating a first electrical signal, wherein the first electrical signal carries synchronization information of a light source sweeping of the OCT system, wherein the first electrical signal is a signature signal generated by a second detector (204, 304) that detects an optical signal, wherein the second detector (204, 304) detects the optical signal from a fiber Bragg grating, such that the first electrical signal is based on the optical signal from the fiber Bragg grating; electrically mixing the first electrical signal and the electrical OCT signal with an electrical signal mixer; and generating an output signal comprising the electrically mixed first electrical signal and the electrical OCT signal, wherein the electrical signal mixer (312, 318, 410, 412, 500, 600) receives the first electrical signal at a first input and the electrical OCT signal from the first detector (204, 300) at a second input, and outputs the output signal to an analog-to-digital converter.
A composition comprising a recombinant DNA polymerase, which recombinant DNA polymerase comprises an amino acid sequence that is at least 80% identical to SEQ ID NO:1, which recombinant DNA polymerase comprises a glutamic acid residue, an aspartic acid residue, a histidine residue, a lysine residue, an arginine residue, or a tyrosine residue at position A484, wherein identification of positions is relative to SEQ ID NO:1, and which recombinant DNA polymerase exhibits polymerase activity.
A foam-forming composition comprising (a) an azeotropic or azeotrope-like mixture of cis-1,1,1,4,4,4-hexafluoro-2-butene and cyclopentane, and (b) an active hydrogen-containing compound having two or more active hydrogens, wherein azeotrope-like is defined as a difference in dew point pressure and bubble point pressure of less than or equal to 3 percent (based upon the bubble point pressure).
Pipe-receiving element having a base, at least two lateral parts or webs extending from the base in the same direction, and having a cover closing at least the free ends of the lateral parts or webs in order to form at least one chamber receiving a pipe, characterised in that the base is provided with a fastening device on the side facing away from the cover, the fastening device is at least one projection disposed on the base and extending oppositely to the lateral parts or webs, the cross-section of which projection, as seen in the longitudinal direction, can be brought into engagement on at least one undercut of at least one undercut groove disposed in a profiled rod, all the components consist of least one synthetic material and that the least one cover is provided with at least one longitudinal slot extending in the longitudinal direction of the chamber, whereby the cover consists of two movable lips per chamber, and that the base, the webs, the cover and the projection consist of one piece made from different materials, wherein the cover material and the projection material are more elastic than the web material.
A method of manufacturing a combustible heat source for a smoking article, the combustible heat source having a barrier affixed to an end face thereof, characterized in that the method comprises the steps of: providing a hollow die having a first opening and an opposed second opening; covering the first opening of the hollow die with a laminar barrier material; punching a barrier from the laminar barrier material by inserting a first punch into the hollow die through the first opening; placing one or more particulate components in the hollow die through the second opening; compressing the one or more particulate components to form a combustible heat source and affixing the barrier to an end face of the combustible heat source by inserting a second punch into the hollow die through the second opening; and ejecting the combustible heat source having the barrier affixed to the end face thereof from the hollow die. providing a hollow die having a first opening and an opposed second opening; covering the first opening of the hollow die with a laminar barrier material; punching a barrier from the laminar barrier material by inserting a first punch into the hollow die through the first opening; placing one or more particulate components in the hollow die through the second opening; compressing the one or more particulate components to form a combustible heat source and affixing the barrier to an end face of the combustible heat source by inserting a second punch into the hollow die through the second opening; and ejecting the combustible heat source having the barrier affixed to the end face thereof from the hollow die.
Method for manufacturing a stretch fabric comprising the following operating steps: - providing a stretch twisted yarn comprising a plurality of single threads (10, 12, 14) twisted together and wherein there are: a pair of mixed single threads (10, 12), and an elastic single thread, said elastic single thread comprising synthetic elastic fibers; - providing a further yarn; - manufacturing a fabric through weaving by interlacing a set of said stretch twisted yarns with a set of said further yarns; said method being characterized in that said mixed single thread (10, 12) comprises linen fibers mixed with synthetic fibers made of polyvinyl alcohol; in that said further yarn comprises linen fibers; and in that said method comprises the operating step of dissolving said synthetic fibers made of polyvinyl alcohol from said fabric. - providing a stretch twisted yarn comprising a plurality of single threads (10, 12, 14) twisted together and wherein there are: a pair of mixed single threads (10, 12), and an elastic single thread, said elastic single thread comprising synthetic elastic fibers; a pair of mixed single threads (10, 12), and an elastic single thread, said elastic single thread comprising synthetic elastic fibers; - providing a further yarn; - manufacturing a fabric through weaving by interlacing a set of said stretch twisted yarns with a set of said further yarns; said method being characterized in that said mixed single thread (10, 12) comprises linen fibers mixed with synthetic fibers made of polyvinyl alcohol; in that said further yarn comprises linen fibers; and in that said method comprises the operating step of dissolving said synthetic fibers made of polyvinyl alcohol from said fabric. said method being characterized in that said mixed single thread (10, 12) comprises linen fibers mixed with synthetic fibers made of polyvinyl alcohol; in that said further yarn comprises linen fibers; and in that said method comprises the operating step of dissolving said synthetic fibers made of polyvinyl alcohol from said fabric.
Solid pharmaceutical composition comprising cytisine as an active substance, characterized in that said composition does not contain lactose and comprises from 20% to 75% by weight of microcrystalline cellulose, glidant and at least one pharmaceutically acceptable excipient chosen from the group comprising: mannitol, colloidal silicon dioxide, calcium hydrogen phosphate, whereby at least 60% of cytisine particles have size from 10 μm to 200 μm, and the pharmaceutical composition is in a form of tablet manufactured by direct compression method.
A method for establishing an enhanced cutting pattern for performing ophthalmic laser surgery using a device configured to transmit a pulsed laser beam, the ophthalmic laser surgery including directing the pulsed laser beam to make a generally circular cut around a periphery of a patient capsule according to the enhanced cutting pattern, comprising: establishing an initial cutting pattern comprising a plurality of original photodisruption points; characterized by establishing an enhanced cutting pattern comprising a plurality of enhanced photodisruption points selected to decrease potential adverse effects due to patient movement and having increased density over a fixed area as compared with the plurality of original photodisruption points, wherein each photodisruption point in the initial cutting pattern and the enhanced cutting pattern comprises a laser target point, and wherein the generally circular cut made around the periphery of the patient capsule provides an increased scanning pattern length relative to a cut made according to the initial cutting pattern. establishing an initial cutting pattern comprising a plurality of original photodisruption points; characterized by establishing an enhanced cutting pattern comprising a plurality of enhanced photodisruption points selected to decrease potential adverse effects due to patient movement and having increased density over a fixed area as compared with the plurality of original photodisruption points, wherein each photodisruption point in the initial cutting pattern and the enhanced cutting pattern comprises a laser target point, and wherein the generally circular cut made around the periphery of the patient capsule provides an increased scanning pattern length relative to a cut made according to the initial cutting pattern.
A Packet Mobile Switching Center, PMSC, for providing a circuit switched telecommunication service to a mobile station utilizing a Long Term Evolution, LTE, packet switched access network, said packet mobile switching center comprising: a network controller for receiving control plane information tunneled through a packet switched network from the LTE access network, and for requesting resources from a Policy and Charging Rules Function, PCRF, in the packet switched network; a Mobile Switching Center Server, MSC-S, in communication with the network controller for setting up sessions between the mobile station and a circuit switched core network; a Circuit Switched Media Gateway, CS-MGW, in communication with the MSC-S for forwarding a media stream to and from the circuit switched core network; and an interworking unit, IWU, in communication with the network controller and the CS-MGW for receiving user plane information tunneled through the packet switched network from the LTE access network, and for repacking the user plane information from Real Time Protocol, RTP, to Nb framing for use by the CS-MGW. a network controller for receiving control plane information tunneled through a packet switched network from the LTE access network, and for requesting resources from a Policy and Charging Rules Function, PCRF, in the packet switched network; a Mobile Switching Center Server, MSC-S, in communication with the network controller for setting up sessions between the mobile station and a circuit switched core network; a Circuit Switched Media Gateway, CS-MGW, in communication with the MSC-S for forwarding a media stream to and from the circuit switched core network; and an interworking unit, IWU, in communication with the network controller and the CS-MGW for receiving user plane information tunneled through the packet switched network from the LTE access network, and for repacking the user plane information from Real Time Protocol, RTP, to Nb framing for use by the CS-MGW.
Gas cooking appliance comprising - a plurality of gas burners (B1-B3), - an electrode associated with each burner (B1-B3) for generating sparks next to said burner (B1-B3) when it is activated, - a flame sensor associated with each burner (B1-B3) for monitoring the presence or absence of the flame when it is activated, the flame sensor being configured to provide a detection signal based on the presence or absence of the flame, - a gas valve associated with each burner (B1-B3) for regulating the gas flow reaching the corresponding burner (B1-B3) from a gas conduit, - at least one electric switch associated with an actuator and configured to be activated when the actuator is actuated, and - a control unit electrically connected to the electrodes, the flame sensors and the switch, the control unit being configured for monitoring the presence or absence of flame produced in the gas burners (B1-B3) based on the reception of the detection signals provided by the flame sensors in a monitoring step, wherein the control unit is configured to carry out an ignition step of at least one burner (B1-B3) when the at least one switch is actuated for igniting said at least one burner (B1-B3), during said ignition step the electrodes and the flame sensors of at least said at least one burner (B1-B3) being activated, the control unit being also configured to carry out the monitoring step after the ignition step, so that, during said monitoring step, when at least two burners (B1-B3) have been lit, the control unit sequentially monitors in time cycles T the presence or absence of flame in the burners (B1-B3) which have been lit during the ignition step, monitoring the detection signal of each flame sensor associated to said burners (B1-B3) one at a time during each of the repeating time cycles T. - a plurality of gas burners (B1-B3), - an electrode associated with each burner (B1-B3) for generating sparks next to said burner (B1-B3) when it is activated, - a flame sensor associated with each burner (B1-B3) for monitoring the presence or absence of the flame when it is activated, the flame sensor being configured to provide a detection signal based on the presence or absence of the flame, - a gas valve associated with each burner (B1-B3) for regulating the gas flow reaching the corresponding burner (B1-B3) from a gas conduit, - at least one electric switch associated with an actuator and configured to be activated when the actuator is actuated, and - a control unit electrically connected to the electrodes, the flame sensors and the switch, the control unit being configured for monitoring the presence or absence of flame produced in the gas burners (B1-B3) based on the reception of the detection signals provided by the flame sensors in a monitoring step,
An electrically controllable transmission system (400, 450, 900), the system comprising: a first input hub (410A, 410B) for receiving power from a power source; a first electrically controllable clutch (415A, 415B) having a first portion (416A, 416B) configured to be coupled to the first input hub and a second portion (417A, 417B), where the first and second portions are configured to be electrically controllably coupled to one another such that power is transmitted from the first portion to the second portion; a shuttle connected to the second portion of the first electrically controllable clutch; a first one-way clutch (430A, 430B) configured to couple the shuttle to a stationary chassis; an output hub; and a bias member coupling the shuttle to the output hub. a first input hub (410A, 410B) for receiving power from a power source; a first electrically controllable clutch (415A, 415B) having a first portion (416A, 416B) configured to be coupled to the first input hub and a second portion (417A, 417B), where the first and second portions are configured to be electrically controllably coupled to one another such that power is transmitted from the first portion to the second portion; a shuttle connected to the second portion of the first electrically controllable clutch; a first one-way clutch (430A, 430B) configured to couple the shuttle to a stationary chassis; an output hub; and a bias member coupling the shuttle to the output hub.
Cable comprising a cable outer sheath surrounding a cable core and at least two rings (21, 23, 25, 28, 30) surrounding partly said cable outer sheath so that said rings (21, 23, 25, 28, 30) presse said cable outer sheath on said cable core in a way adapted to increase a transfer of a pulling effort exerted on said cable outer sheath to said cable core, wherein a distance between at least two of said rings (21, 23, 25, 28, 30), ranges from 10cm to 100cm.