mhurhangee/ep-ind-claims huggingface dataset:
A light emitting device comprising: a first semiconductor layer of a first conductivity type, the first semiconductor layer having a recess; an active layer disposed on the first semiconductor layer, the active layer having a first opening; a second semiconductor layer of a second conductivity type adjacent to the active layer, the second semiconductor layer having a second opening; a semiconductor region of a second conductivity type in the first semiconductor layer; a first electrode on the semiconductor region; a second electrode layer adjacent to the second semiconductor layer, wherein the first and second openings and the recess are substantially aligned, and the second electrode layer includes a protrusive portion which extends into the first and second openings and the recess to contact the first semiconductor layer; and a dielectric layer formed on all side wallsof the first opening, second opening and the recess, such that the protrusive portion does not contact the active layer and the second semiconductor layer, characterised in that the first semiconductor layer of first conductivity type, the active layer, and the second semiconductor layer of the second conductivity type compose a light emitting structure, and wherein the first electrode is disposed on the semiconductor region and wherein the first electrode is formed only on an upper surface of the semiconductor region. a first semiconductor layer of a first conductivity type, the first semiconductor layer having a recess; an active layer disposed on the first semiconductor layer, the active layer having a first opening; a second semiconductor layer of a second conductivity type adjacent to the active layer, the second semiconductor layer having a second opening; a semiconductor region of a second conductivity type in the first semiconductor layer; a first electrode on the semiconductor region; a second electrode layer adjacent to the second semiconductor layer, wherein the first and second openings and the recess are substantially aligned, and the second electrode layer includes a protrusive portion which extends into the first and second openings and the recess to contact the first semiconductor layer; and a dielectric layer formed on all side wallsof the first opening, second opening and the recess, such that the protrusive portion does not contact the active layer and the second semiconductor layer, characterised in that the first semiconductor layer of first conductivity type, the active layer, and the second semiconductor layer of the second conductivity type compose a light emitting structure, and wherein the first electrode is disposed on the semiconductor region and wherein the first electrode is formed only on an upper surface of the semiconductor region.
A secondary coil module whose power for use in charging a storage battery by a contactless charging technique is supplied via a primary coil, including the storage battery; a charging control circuit controlling charging of the storage battery; a tubular core made of magnetic material and covering an outer circumferential face of at least one of the storage battery and the charging control circuit; and a wire made of conductive material, the wire being connected to the charging control circuit and wound around the outer circumferential face of the core, characterized by the tubular core made of a resin sheet containing magnetic material; and a lid member made of a resin sheet containing magnetic material closing at least one of axial ends of the tubular core oriented toward the primary coil at the time of charging the storage battery.
A vehicle heat-exchange module comprising: a rectangular heat exchanger (2,3); and a fan unit provided on a downstream side of the heat exchanger (2,3), wherein the fan unit is provided with a fan shroud having a ring-shaped opening, wherein a propeller fan with rotor blades having a diameter D is disposed in the ring-shaped opening of the fan shroud, and wherein a fan motor for driving the propeller fan is supported on the fan shroud at the downstream side of the propeller fan via motor support struts formed into stator blades in a radiating pattern, and characterised in that the narrowest axial clearance L1 between the rotor blades of the propeller fan and the stator blades formed of the motor support struts is set to be larger than 0.018D and smaller than 0.033D and is set within a range in which a static pressure recovery level (Pa) includes a peak level thereof, the static pressure recovery level (Pa) being defined by subtracting stator-blade pressure loss from a dynamic pressure recovery level. a rectangular heat exchanger (2,3); and a fan unit provided on a downstream side of the heat exchanger (2,3), wherein the fan unit is provided with a fan shroud having a ring-shaped opening, wherein a propeller fan with rotor blades having a diameter D is disposed in the ring-shaped opening of the fan shroud, and wherein a fan motor for driving the propeller fan is supported on the fan shroud at the downstream side of the propeller fan via motor support struts formed into stator blades in a radiating pattern, and characterised in that the narrowest axial clearance L1 between the rotor blades of the propeller fan and the stator blades formed of the motor support struts is set to be larger than 0.018D and smaller than 0.033D and is set within a range in which a static pressure recovery level (Pa) includes a peak level thereof, the static pressure recovery level (Pa) being defined by subtracting stator-blade pressure loss from a dynamic pressure recovery level.
A cluster composition which comprises a suspension of clusters in an aqueous biocompatible medium, where said clusters have a diameter in the range 1 to 10 μm, and a circularity < 0.9 and comprise: (i) a first component which comprises a gas microbubble and first stabilizer to stabilize said microbubble, wherein the gas of the gas microbubble comprises sulphur hexafluoride, a C3-6 perfluorocarbon, nitrogen, air or mixtures thereof; and (ii) a second component which comprises a microdroplet comprising an oil phase and second stabilizer to stabilize said microdroplet, where the oil comprises a diffusible component capable of diffusing into said gas microbubble so as to at least transiently increase the size thereof, and wherein the oil phase comprises a partly or fully halogenated hydrocarbon or a mixture thereof; where the microbubbles and microdroplets of said first and second components have opposite surface charges and form said clusters via attractive electrostatic interactions, where the first stabilizer and the second stabilizer each have a net electrostatic charge that is opposite to that of the other, and wherein the first stabilizer and the second stabilizer each independently comprises a phospholipid, a protein, or a polymer. (i) a first component which comprises a gas microbubble and first stabilizer to stabilize said microbubble, wherein the gas of the gas microbubble comprises sulphur hexafluoride, a C3-6 perfluorocarbon, nitrogen, air or mixtures thereof; and (ii) a second component which comprises a microdroplet comprising an oil phase and second stabilizer to stabilize said microdroplet, where the oil comprises a diffusible component capable of diffusing into said gas microbubble so as to at least transiently increase the size thereof, and wherein the oil phase comprises a partly or fully halogenated hydrocarbon or a mixture thereof;
A method of forming a plate for an article of footwear, the method comprising: applying a first strand portion to a base layer including positioning adjacent segments of the first strand portion to form a first layer on the base layer, the adjacent segments of the first strand portion having a greater density across a width of the plate between a medial side and a lateral side at a midfoot region of the plate than at a forefoot region of the plate and at a heel region of the plate; applying at least one of heat and pressure to the first strand portion and to the base layer to conform the first strand portion and the base layer to a predetermined shape, characterized by attaching the first strand portion to the base layer using stitching. applying a first strand portion to a base layer including positioning adjacent segments of the first strand portion to form a first layer on the base layer, the adjacent segments of the first strand portion having a greater density across a width of the plate between a medial side and a lateral side at a midfoot region of the plate than at a forefoot region of the plate and at a heel region of the plate; applying at least one of heat and pressure to the first strand portion and to the base layer to conform the first strand portion and the base layer to a predetermined shape, characterized by attaching the first strand portion to the base layer using stitching.
A method of producing a peptide compound comprising a cyclic portion, wherein the compound is composed of natural amino acids and/or amino acid analogs, wherein the peptide compound has the following features: (i) comprising at least two N-substituted amino acids, and at least one non-N-substituted amino acid; and (ii) having a ClogP value of 6 or greater; wherein the method comprises a cyclization reaction step of cyclizing a cyclization precursor of the peptide compound in at least one continuous stirred tank reactor (CSTR). (i) comprising at least two N-substituted amino acids, and at least one non-N-substituted amino acid; and (ii) having a ClogP value of 6 or greater;
An ingestible bio-telemetry communication network, comprising: a plurality of ingestible devices, wherein, in use, the plurality of ingestible devices are taken by a patient, wherein each of the plurality of ingestible devices is configured to obtain data relating to the patient, and transmit the data by bursting bits of the data with a selected pulse spacing that is directly related to a carrier frequency generated and used by each of the plurality of ingestible devices, wherein the bursting bits are made of pulses which represent the presence of a data bit, wherein each pulse is repeated one or more times for a given data bit, and a burst pattern of the data is configured to have 50% or more burst density, wherein the pulses transmitted by each of the plurality of ingestible devices have a duty cycle of about 1 to 1000; and a receiver configured to be positioned outside the patient's body and simultaneously receive the data transmitted from each of the plurality of ingestible devices. a plurality of ingestible devices, wherein, in use, the plurality of ingestible devices are taken by a patient, wherein each of the plurality of ingestible devices is configured to obtain data relating to the patient, and transmit the data by bursting bits of the data with a selected pulse spacing that is directly related to a carrier frequency generated and used by each of the plurality of ingestible devices, wherein the bursting bits are made of pulses which represent the presence of a data bit, wherein each pulse is repeated one or more times for a given data bit, and a burst pattern of the data is configured to have 50% or more burst density, wherein the pulses transmitted by each of the plurality of ingestible devices have a duty cycle of about 1 to 1000; and a receiver configured to be positioned outside the patient's body and simultaneously receive the data transmitted from each of the plurality of ingestible devices.
A pneumatic tire having a carcass and a belt structure, the carcass comprising an inner liner, at least two inner plies (1, 2, 3, 4) which are wound around a annular bead member from axially inside of the annular bead member toward axially outside thereof and which extend radially outward of the annular bead member towards the tire crown to form respective turnup portions (10, 20, 30, 40), and at least one outer carcass ply (5, 6) that extends radially inward from the crown and axially outward of the annular bead member, wherein the at least one outer carcass ply (5, 6) is only partially wrapped around the annular bead member and terminates in an ending (50, 60), and wherein a barrier ply is located between the inner liner and the axially innermost inner ply (1, 2, 3, 4), and wherein at least one outer ply (5, 6) has a terminal end located in a zone B, wherein zone B is defined by a first plane that intersects the center point of the annular bead member and that is parallel to the axis of rotation of the tire and by a second plane that is perpendicular to the first plane and intersects the center point of the annular bead member and wherein zone B is radially inward of the first plane and axially inward of the second plane, characterized in that the barrier ply has a second end located in zone B.
A hydrogel comprising at least 4% (w/v) of an enzymatically cross-linked silk sericin wherein the silk sericin is enzymatically cross-linked by an enzyme complex selected from the following list: horseradish peroxidase and hydrogen peroxide, laccase, transglutaminase or mixtures thereof, preferably horseradish peroxidase and hydrogen peroxide; wherein a cross-section of said hydrogel has pores with a diameter between 50-100 μm; for use in medicine, in veterinary, cosmetic or as an in vitro model for cell culture studies. wherein the silk sericin is enzymatically cross-linked by an enzyme complex selected from the following list: horseradish peroxidase and hydrogen peroxide, laccase, transglutaminase or mixtures thereof, preferably horseradish peroxidase and hydrogen peroxide; wherein a cross-section of said hydrogel has pores with a diameter between 50-100 μm; for use in medicine, in veterinary, cosmetic or as an in vitro model for cell culture studies.
A method for producing a core structure, the method comprising: positioning a first core structure layer and a second core structure layer, both having an extension direction (b) at a defined distance (a) by moving a spacer element in the direction of the extension direction (b) thereby spacing the first core structure layer and the second core structure layer using the spacer element; introducing a reinforcement element into a cavity between the first core structure layer and the second core structure layer behind the spacer element; wherein the reinforcement element, the first core structure layer, and the second core structure layer form a self-supporting core structure and are fastened together. positioning a first core structure layer and a second core structure layer, both having an extension direction (b) at a defined distance (a) by moving a spacer element in the direction of the extension direction (b) thereby spacing the first core structure layer and the second core structure layer using the spacer element; introducing a reinforcement element into a cavity between the first core structure layer and the second core structure layer behind the spacer element; wherein the reinforcement element, the first core structure layer, and the second core structure layer form a self-supporting core structure and are fastened together.
A compound of the formula or a pharmaceutically acceptable salt thereof, wherein R is an optionally substituted saturated branched or unbranched hydrocarbon having from 1 to 10 carbon atoms; X is O and G is -C OR 2; or, X is O and G is -C NR 3 R 4; or, X is N(R 1) and G is -C OR 2; R 1 is hydrogen or optionally substituted aliphatic; R 2 is optionally substituted aliphatic, optionally substituted aromatic, optionally substituted heterocyclic, optionally substituted heteroaromatic or optionally substituted aralkyl; and R 3 and R 4 independently are H, optionally substituted aliphatic, optionally substituted aromatic, optionally substituted heterocyclic, optionally substituted heteroaromatic or optionally substituted aralkyl; wherein when a substituent is optionally substituted, it is substituted with nitro, halo and/or a saturated branched or unbranched hydrocarbon having from 1 to 10 carbon atoms. wherein R is an optionally substituted saturated branched or unbranched hydrocarbon having from 1 to 10 carbon atoms; X is O and G is -C OR 2; or, X is O and G is -C NR 3 R 4; or, X is N(R 1) and G is -C OR 2; R 1 is hydrogen or optionally substituted aliphatic; R 2 is optionally substituted aliphatic, optionally substituted aromatic, optionally substituted heterocyclic, optionally substituted heteroaromatic or optionally substituted aralkyl; and R 3 and R 4 independently are H, optionally substituted aliphatic, optionally substituted aromatic, optionally substituted heterocyclic, optionally substituted heteroaromatic or optionally substituted aralkyl; wherein when a substituent is optionally substituted, it is substituted with nitro, halo and/or a saturated branched or unbranched hydrocarbon having from 1 to 10 carbon atoms.
A network access node for a wireless communication system, the network access node being configured to transmit demodulation reference signals, DMRSs, according to a first DMRS pattern in a radio channel to a client device; upon determining that a delay spread of the radio channel exceeds a cyclic prefix length of the first DMRS pattern obtaining a second DMRS pattern formed from the first DMRS pattern with one or more nulled resource elements associated with DMRSs, wherein no transmission is scheduled in the nulled resource elements of the second DMRS pattern, the resource elements are nulled in an OFDM symbol that carried the DMRS pattern and the DMRS pattern of the second DMRS pattern forms a comb structure; transmit DMRSs according to the second DMRS pattern to the client device. transmit demodulation reference signals, DMRSs, according to a first DMRS pattern in a radio channel to a client device; upon determining that a delay spread of the radio channel exceeds a cyclic prefix length of the first DMRS pattern obtaining a second DMRS pattern formed from the first DMRS pattern with one or more nulled resource elements associated with DMRSs, wherein no transmission is scheduled in the nulled resource elements of the second DMRS pattern, the resource elements are nulled in an OFDM symbol that carried the DMRS pattern and the DMRS pattern of the second DMRS pattern forms a comb structure; transmit DMRSs according to the second DMRS pattern to the client device.
A process for oxidizing an alkane to an alkane oxygenate, comprising (a) contacting the alkane and (i) a soft oxidizing electrophile comprising a main group element selected from the group consisting of gallium, arsenic, selenium, indium, antimony, tellurium, thallium, and bismuth in oxidized form, or (ii) an oxidant and a reduced form of the soft oxidizing electrophile, in an acidic medium comprising an oxygen acid, in the absence of both a super-acid and concentrated sulfuric acid, at a temperature of less than 300°C, to provide the alkane oxygenate and an electrophile reduction product, and (b) separating the alkane oxygenate and the electrophile reduction product, wherein the soft oxidizing electrophile is present in at least stoichiometric quantities relative to the alkane converted to oxygenated products in the acidic medium. (a) contacting the alkane and (i) a soft oxidizing electrophile comprising a main group element selected from the group consisting of gallium, arsenic, selenium, indium, antimony, tellurium, thallium, and bismuth in oxidized form, or (ii) an oxidant and a reduced form of the soft oxidizing electrophile, in an acidic medium comprising an oxygen acid, in the absence of both a super-acid and concentrated sulfuric acid, at a temperature of less than 300°C, to provide the alkane oxygenate and an electrophile reduction product, and (i) a soft oxidizing electrophile comprising a main group element selected from the group consisting of gallium, arsenic, selenium, indium, antimony, tellurium, thallium, and bismuth in oxidized form, or (ii) an oxidant and a reduced form of the soft oxidizing electrophile, (b) separating the alkane oxygenate and the electrophile reduction product, wherein the soft oxidizing electrophile is present in at least stoichiometric quantities relative to the alkane converted to oxygenated products in the acidic medium.
A medical lighting device, notably adapted for surgical lighting, comprising a lighting module in which are positioned several light sources, an optical element positioned between said light sources and the area to be illuminated, and control means intended to individually control the intensity of said light sources, wherein: - on the one hand, said control means are configured so that the illuminated field assumes a full substantially circular shape, and - on the other hand, said optical element comprises a first planar diopter and oriented towards this said area to be illuminated and a second diopter oriented towards said light sources and having at least two facets (6, 7, 8) tilted relative to each other for which at least one is not parallel to the first diopter, characterized in that the diameter of the illuminated field, a so-called focusing field, varies by the selective control of said light sources, while maintaining the light intensity constant. - on the one hand, said control means are configured so that the illuminated field assumes a full substantially circular shape, and - on the other hand, said optical element comprises a first planar diopter and oriented towards this said area to be illuminated and a second diopter oriented towards said light sources and having at least two facets (6, 7, 8) tilted relative to each other for which at least one is not parallel to the first diopter,
Air conditioner comprising: a casing that houses a heat exchanger; a front grill fitted to a front side of the casing; a front panel a temperature sensor placed between the heat exchanger and a connection piping (L1, L2) connected to the heat exchanger; and a cover for shielding the temperature sensor from the heat exchanger and/or the connection piping (L1, L2), characterized in that said front panel is fitted to a front side of said front grill and in that the temperature sensor is provided so as to be located in an air passage between the front grill and the front panel. a casing that houses a heat exchanger; a front grill fitted to a front side of the casing; a front panel a temperature sensor placed between the heat exchanger and a connection piping (L1, L2) connected to the heat exchanger; and a cover for shielding the temperature sensor from the heat exchanger and/or the connection piping (L1, L2), characterized in that said front panel is fitted to a front side of said front grill and in that the temperature sensor is provided so as to be located in an air passage between the front grill and the front panel.