mhurhangee/ep-ind-claims huggingface dataset:
A stacked plate heat exchanger - having a plurality of elongated plates which are stacked on top of one another and connected to one another, and which have a cavity through which a medium to be cooled is conducted in the longitudinal direction of the plates, and which plates delimit a further cavity for conducting a coolant therethrough, - wherein approximately in the two end regions of each elongated plate, a through hole is arranged for supplying the medium to be cooled, which through hole is at least partially surrounded at its boundary by a dome, - wherein the through hole is arranged approximately at the edge of the elongated plate, wherein the dome and/or the through hole is integrated in the edge of the elongated plate, characterized in - that the dome completely fills a space between a rim delimiting a base plate of the plate and the respective through hole, - that an outer wall of the dome, which outer wall runs along the edge of the plate, is integrated in the rim. - having a plurality of elongated plates which are stacked on top of one another and connected to one another, and which have a cavity through which a medium to be cooled is conducted in the longitudinal direction of the plates, and which plates delimit a further cavity for conducting a coolant therethrough, - wherein approximately in the two end regions of each elongated plate, a through hole is arranged for supplying the medium to be cooled, which through hole is at least partially surrounded at its boundary by a dome, - wherein the through hole is arranged approximately at the edge of the elongated plate, wherein the dome and/or the through hole is integrated in the edge of the elongated plate, - that the dome completely fills a space between a rim delimiting a base plate of the plate and the respective through hole, - that an outer wall of the dome, which outer wall runs along the edge of the plate, is integrated in the rim.
A method for sending signaling information, comprising: sending, by a base station, signaling information corresponding to an uplink channel to a terminal, wherein the signaling information comprises information related to a correspondence between a sequence parameter and a time domain symbol, wherein the sequence parameter corresponds to a sequence on the uplink channel, and wherein the sequence parameter comprises at least a sequence group number or a sequence number; wherein the correspondence between the sequence parameter and the time domain symbol comprises: the sequence parameter changes every R3 time domain symbols and remains unchanged for the R3 time domain symbols wherein R3 is an integer, wherein each of the R3 time domain symbols comprises the uplink channel, wherein R3 is equal to a frequency domain repeated transmission parameter R, wherein R is a positive integer, and wherein R represents that a signal corresponding to the sequence on the uplink channel changes in frequency domain every R time domain symbols and remains unchanged for the R time domain symbols; and receiving, by the base station, the sequence from the terminal on the uplink channel according to the sequence parameter. sending, by a base station, signaling information corresponding to an uplink channel to a terminal, wherein the signaling information comprises information related to a correspondence between a sequence parameter and a time domain symbol, wherein the sequence parameter corresponds to a sequence on the uplink channel, and wherein the sequence parameter comprises at least a sequence group number or a sequence number; wherein the correspondence between the sequence parameter and the time domain symbol comprises: the sequence parameter changes every R3 time domain symbols and remains unchanged for the R3 time domain symbols wherein R3 is an integer, wherein each of the R3 time domain symbols comprises the uplink channel, wherein R3 is equal to a frequency domain repeated transmission parameter R, wherein R is a positive integer, and wherein R represents that a signal corresponding to the sequence on the uplink channel changes in frequency domain every R time domain symbols and remains unchanged for the R time domain symbols; and receiving, by the base station, the sequence from the terminal on the uplink channel according to the sequence parameter.
A power plant, comprising: a steam turbine; a steam generating source that is configured to supply a working fluid to the steam turbine; a thermal storage unit configured to store a thermal storage working medium that is further configured to discharge thermal energy into the working fluid supplied from the steam generating source to supplement power generation by the steam turbine, wherein the thermal storage unit includes a cold tank configured to contain the thermal storage working medium in a cold state and a hot tank configured to contain the thermal storage working medium in a heated state; a heat exchanger in flow communication with the steam turbine, the steam generating source and the thermal storage unit, the heat exchanger configured to facilitate a direct heat transfer of thermal energy between the thermal storage working medium in the thermal storage unit and the working fluid supplied from the steam generating source to the steam turbine, wherein the steam generator source is configured to supply all of the working fluid directly to the steam turbine without any heat transfer with the thermal storage working medium via the heat exchanger during a thermal storage unit off mode of operation, and the power plant is further configured such that a predetermined amount of the thermal storage working medium in the hot tank is supplied to the thermal storage working medium in the cold tank during the thermal storage unit off mode of operation to inhibit solidification of the working medium in the cold tank. a steam turbine; a steam generating source that is configured to supply a working fluid to the steam turbine; a thermal storage unit configured to store a thermal storage working medium that is further configured to discharge thermal energy into the working fluid supplied from the steam generating source to supplement power generation by the steam turbine, wherein the thermal storage unit includes a cold tank configured to contain the thermal storage working medium in a cold state and a hot tank configured to contain the thermal storage working medium in a heated state; a heat exchanger in flow communication with the steam turbine, the steam generating source and the thermal storage unit, the heat exchanger configured to facilitate a direct heat transfer of thermal energy between the thermal storage working medium in the thermal storage unit and the working fluid supplied from the steam generating source to the steam turbine, wherein the steam generator source is configured to supply all of the working fluid directly to the steam turbine without any heat transfer with the thermal storage working medium via the heat exchanger during a thermal storage unit off mode of operation, and the power plant is further configured such that a predetermined amount of the thermal storage working medium in the hot tank is supplied to the thermal storage working medium in the cold tank during the thermal storage unit off mode of operation to inhibit solidification of the working medium in the cold tank.
Timepiece including: - a flange positioned between a dial and a glass of the timepiece, completely covered by the glass, said flange comprising a body movable in rotation about a second rotation axis independently of a bezel of the timepiece on which the glass is fitted, said body being provided with rolling teeth - a control system for said flange, comprising ∘ a control element for actuating said flange, and ∘ a transmission device between said control element and said flange, characterised in that said transmission device is a hybrid gearing device comprising a first element, which is movable around a first rotation axis provided with a drive runner made from elastomeric material, said drive runner cooperating with said rolling tooth system by friction. characterised in that the first rotation axis of the first element is perpendicular to the second rotation axis of the body of the flange, and in that the first element passes through a middle part of the timepiece, said middle part being separate from the bezel. - a flange positioned between a dial and a glass of the timepiece, completely covered by the glass, said flange comprising a body movable in rotation about a second rotation axis independently of a bezel of the timepiece on which the glass is fitted, said body being provided with rolling teeth - a control system for said flange, comprising ∘ a control element for actuating said flange, and ∘ a transmission device between said control element and said flange, characterised in that said transmission device is a hybrid gearing device comprising a first element, which is movable around a first rotation axis provided with a drive runner made from elastomeric material, said drive runner cooperating with said rolling tooth system by friction. ∘ a control element for actuating said flange, and ∘ a transmission device between said control element and said flange, characterised in that said transmission device is a hybrid gearing device comprising a first element, which is movable around a first rotation axis provided with a drive runner made from elastomeric material, said drive runner cooperating with said rolling tooth system by friction.
A filter material, in particular for an air filter of an internal combustion engine, wherein - the filter material has a degressive pore size in flow direction, - the filter material comprises a substrate layer on the upstream side and a fine-fibre layer, in particular a melt-blown layer, on the downstream side, characterized in that - a connection region is arranged between the substrate layer and the fine-fibre layer, - the filter material has a thickness (d) of d > 0.35 mm, - an impregnation is applied single-sidedly on the upstream side of the substrate layer, - the substrate layer is formed of a cellulose material and the impregnation is formed of a resin, - the resin content in the substrate layer amounts to 22 mass-%. - the filter material has a degressive pore size in flow direction, - the filter material comprises a substrate layer on the upstream side and a fine-fibre layer, in particular a melt-blown layer, on the downstream side, - a connection region is arranged between the substrate layer and the fine-fibre layer, - the filter material has a thickness (d) of d > 0.35 mm, - an impregnation is applied single-sidedly on the upstream side of the substrate layer, - the substrate layer is formed of a cellulose material and the impregnation is formed of a resin, - the resin content in the substrate layer amounts to 22 mass-%.
A durable dental film-forming composition, comprising: an acrylate/octylacrylamide copolymer, wherein the acrylate/octylacrylamide copolymer is present in an amount from about 0.1% to about 50% by weight, an adhesive comprising a rosin, and an orally acceptable solvent. an acrylate/octylacrylamide copolymer, wherein the acrylate/octylacrylamide copolymer is present in an amount from about 0.1% to about 50% by weight, an adhesive comprising a rosin, and an orally acceptable solvent.
A plant disease control composition comprising a carboxamide compound: and one or more QoI compound(s) selected from azoxystrobin, fluoxastrobin, pyraclostrobin, picoxystrobin, trifloxystrobin and N-methyl-α-methoxyimino-2-[2,5-dimethylphenoxy)methyl]phenylacetamide.
Preform for the production of a plastics container in a stretch blow molding process with an elongate, tubular preform body closed at one of its longitudinal ends by a preform base and having at its other longitudinal end a preform neck, where the preform consists at least in some regions of polyethylene furanoate, characterized in that during the production of the preform the viscosity of the polyethylene furanoate is from 0.75 dl/g to 0.9 dl/g measured by a measurement method in accordance with ASTM D4603, and the water content thereof is less than 50 ppm.
A resonance-type power transfer coil (3, 4) comprising: a conductor wound into a multiple-layered helical shape; and an insulating member provided between layers of the conductor, characterized in that the conductor is wound on an outermost layer in a direction opposite to a winding direction in other layers and the outermost layer is concentrically stacked on a layer adjacent to the outermost layer a conductor wound into a multiple-layered helical shape; and an insulating member provided between layers of the conductor, characterized in that the conductor is wound on an outermost layer in a direction opposite to a winding direction in other layers and the outermost layer is concentrically stacked on a layer adjacent to the outermost layer
Mower comprising a number of cutting elements which are attached to a mowing device, are rotatingly driven about an approximately vertical axis and have, on their circumference, at least two rotatably arranged cutting tools which, due to the centrifugal force, face radially outwards and produce a cutting effect, comprising a transverse conveyor which is arranged downstream of the mowing device and comprises a transversal screw conveyor which is oriented around a lying and at least approximately transversely to the travel and working direction, is arranged directly behind the mowing device and takes the mown crop directly from the mowing device, comprising a hood which at least partly surrounds the transversal screw conveyor and has an inlet opening facing in the travel and working direction and an inner lateral surface which delimits a conveyor gap together with an outer contour of the transversal screw conveyor, the width of the conveyor gap between the inner lateral surface of the hood and the outer contour of the transversal screw conveyor being designed to be changeable by means of an adjusting apparatus, characterised in that the inner lateral surface is adjustable relative to the hood by means of an adjusting apparatus.
An apparatus comprising: a power harvesting unit configured to generate power using a first wireless signal; a sensor interface configured to receive information from a number of sensors; and a wireless communications unit connected to the sensor interface and the power harvesting unit and configured to use the power generated by the power harvesting unit and to transmit the information using a second wireless signal; a stringer for connection to an aircraft structure, the stringer having a channel; and a waveguide located at least partially within the channel, wherein the first wireless signal is transmitted to the power harvesting unit through the waveguide and the wireless communications unit transmits the second wireless signal through the waveguide. a power harvesting unit configured to generate power using a first wireless signal; a sensor interface configured to receive information from a number of sensors; and a wireless communications unit connected to the sensor interface and the power harvesting unit and configured to use the power generated by the power harvesting unit and to transmit the information using a second wireless signal; a stringer for connection to an aircraft structure, the stringer having a channel; and a waveguide located at least partially within the channel, wherein the first wireless signal is transmitted to the power harvesting unit through the waveguide and the wireless communications unit transmits the second wireless signal through the waveguide.
A method (700, 730) comprising: receiving an initial log-derived velocity model for an anisotropic formation; receiving crosswell shot data comprising compressional wave signals and shear wave signals that span a depth range of the anisotropic formation via receivers disposed in a vertical portion of an offset monitoring well in the anisotropic formation responsive to stimulation of the anisotropic formation via a source disposed in vertical portion of a stimulation well in the formation, wherein the source is triggered at controlled times and depths, with a controlled radiation pattern and within a controlled frequency range; calibrating vertical and horizontal velocities of the initial velocity model using the received crosswell shot data to generate a crosswell calibrated velocity model; storing the crosswell calibrated velocity model; receiving seismic data responsive to a stimulation of the anisotropic formation via a first perforation in a horizontal portion of the stimulation well, wherein the first seismic data comprises seismic data received by the receivers of the offset monitoring well; receiving the crosswell calibrated velocity model; locating a microseismic event generated by a stimulation of the anisotropic formation using the received first seismic data and the crosswell calibrated velocity model; and rendering the located microseismic event to a display with respect to one or more dimensions of the anisotropic formation. receiving an initial log-derived velocity model for an anisotropic formation; receiving crosswell shot data comprising compressional wave signals and shear wave signals that span a depth range of the anisotropic formation via receivers disposed in a vertical portion of an offset monitoring well in the anisotropic formation responsive to stimulation of the anisotropic formation via a source disposed in vertical portion of a stimulation well in the formation, wherein the source is triggered at controlled times and depths, with a controlled radiation pattern and within a controlled frequency range; calibrating vertical and horizontal velocities of the initial velocity model using the received crosswell shot data to generate a crosswell calibrated velocity model; storing the crosswell calibrated velocity model; receiving seismic data responsive to a stimulation of the anisotropic formation via a first perforation in a horizontal portion of the stimulation well, wherein the first seismic data comprises seismic data received by the receivers of the offset monitoring well; receiving the crosswell calibrated velocity model; locating a microseismic event generated by a stimulation of the anisotropic formation using the received first seismic data and the crosswell calibrated velocity model; and rendering the located microseismic event to a display with respect to one or more dimensions of the anisotropic formation.
Analytical device comprising an oven arrangement with an oven, an insulation system comprising a lateral insulation jacket resting on a base insulation, a ventilation system and a housing, characterized in that the ventilation system comprises a first and a second convection system, wherein the first convection system is a natural convection system, which is configured to cool the housing; and the second convection system is a forced convection system, which is configured to reduce the temperature within the oven, whereby said insulation jacket surrounds the oven and is separated from the oven in order to let a free space between the lateral insulation jacket and the oven forming an inner air chamber, whereby the base insulation comprises apertures allowing air to flow from a bottom air chamber into the inner air chamber. characterized in that the ventilation system comprises a first and a second convection system, wherein the first convection system is a natural convection system, which is configured to cool the housing; and the second convection system is a forced convection system, which is configured to reduce the temperature within the oven, whereby said insulation jacket surrounds the oven and is separated from the oven in order to let a free space between the lateral insulation jacket and the oven forming an inner air chamber, whereby the base insulation comprises apertures allowing air to flow from a bottom air chamber into the inner air chamber.
A polynucleotide cassette for enhanced expression of a transgene in cone cells of a mammalian retina, comprising: (a) a promoter region consisting of a truncated M-Opsin promoter having the sequence of SEQ ID NO: 80 or a functional fragment or variant thereof having a sequence identity of 85% or more to SEQ ID NO: 80; (b) a coding sequence operatively linked to the promoter region, wherein the coding sequence encodes a therapeutic protein having a sequence identity of at least 85% to SEQ ID NO: 11 or SEQ ID NO: 32; and (c) a polyadenylation site operatively linked to the coding sequence. (a) a promoter region consisting of a truncated M-Opsin promoter having the sequence of SEQ ID NO: 80 or a functional fragment or variant thereof having a sequence identity of 85% or more to SEQ ID NO: 80; (b) a coding sequence operatively linked to the promoter region, wherein the coding sequence encodes a therapeutic protein having a sequence identity of at least 85% to SEQ ID NO: 11 or SEQ ID NO: 32; and (c) a polyadenylation site operatively linked to the coding sequence.
An electrode structure (10, 10A), comprising: a water-repellent layer which is permeable to oxygen; an electric conductor layer which is laid on the water-repellent layer and holds an oxygen reduction catalyst; and a filter layer which is laid on a surface of the electric conductor layer on the opposite side to the surface on which the water-repellent layer is laid, the filter layer including a plurality of through holes having a diameter of 0.01 μm to 0.5 μm, wherein the filter layer is an aggregation of a plurality of particles of a carbon material. a water-repellent layer which is permeable to oxygen; an electric conductor layer which is laid on the water-repellent layer and holds an oxygen reduction catalyst; and a filter layer which is laid on a surface of the electric conductor layer on the opposite side to the surface on which the water-repellent layer is laid, the filter layer including a plurality of through holes having a diameter of 0.01 μm to 0.5 μm, wherein the filter layer is an aggregation of a plurality of particles of a carbon material.
Method for producing pulp from lignocellulose made from wood, preferably in the form of wood chips, where the lignocellulose material is impregnated with chemicals from a mixture of sodium sulphite and sodium bisulphite and then subjected to a grinding process in a refiner, characterized in that chemicals are fed directly to the refiner in addition in a mixture of sodium sulphite and sodium bisulphite, where the chemicals are fed to the impregnation stage at a pH of 6.0-7.5, preferably 6.5-7.0, and the additional chemicals are added in the refiner with a pH of 4.0-5.5., preferably 4.2-4.5.