mhurhangee/ep-ind-claims huggingface dataset:
Heat exchanger comprising a housing designed to envelop a heat-exchange core bundle, said housing being provided with an opening that allows said heat-exchange core bundle to be housed inside said housing, and with a heat-exchange core bundle, said heat-exchange core bundle comprising a first end designed to plug the opening of the housing when the heat-exchange core bundle is inserted inside said housing, characterized in that a second end of the heat-exchange core bundle, opposite said first end, is provided with at least one fastening means (21, 22, 23, 41, 51, 61) in the form of a peg, for fastening said second end of the heat-exchange core bundle to the wall of the housing.
Method of predicting the generation of upward lightnings originating from the wind-driven power generators of a wind farm during a winter storm and for warning about said possible generation, and to that end in the method - the presence or absence of a storm cell in the wind farm and/or in the vicinity thereof, preferably within a radius of less than 400 km, is detected; - the local electric field in the wind farm is measured; wherein - temperature in the wind farm, or in the vicinity thereof, is identified or measured under given premises of pressure and/or height with respect to sea level; and - the probabilities of the generation of upward lightnings originating from the wind-driven power generators of the wind farm are determined depending on the result of said measurements, identifications and detections; a warning signal being transmitted in the event that the determined probability exceeds a given threshold value, and wherein the determined probability exceeds the given threshold value if - a sudden growth of the local electric field or a positive local electric field with respect to a predetermined threshold value is detected, said threshold value corresponding to the value of the local electric field in good weather conditions, - the presence of a storm cell is detected, and - the relationship between temperature and the given premises is a temperature less than -10°C at a pressure of 700 hPa, and/or at a height of about 3 km with respect to sea level. - the presence or absence of a storm cell in the wind farm and/or in the vicinity thereof, preferably within a radius of less than 400 km, is detected; - the local electric field in the wind farm is measured; - temperature in the wind farm, or in the vicinity thereof, is identified or measured under given premises of pressure and/or height with respect to sea level; and - the probabilities of the generation of upward lightnings originating from the wind-driven power generators of the wind farm are determined depending on the result of said measurements, identifications and detections; - a sudden growth of the local electric field or a positive local electric field with respect to a predetermined threshold value is detected, said threshold value corresponding to the value of the local electric field in good weather conditions, - the presence of a storm cell is detected, and - the relationship between temperature and the given premises is a temperature less than -10°C at a pressure of 700 hPa, and/or at a height of about 3 km with respect to sea level.
A method at a user equipment for handover from a serving cell associated to a source network element to a target cell associated to a target network element, the method comprising: measuring, at the user equipment, a difference between downlink times of arrival for the target cell and the serving cell; sending, from the user equipment, a measurement report to the serving cell, the measurement report including the difference between downlink times of arrival for the target cell and the serving cell; receiving (630, 734) a RRCConnectionReconfiguration message from the serving cell, the RRCConnectionReconfiguration message including at least one downlink subframe to receive an uplink grant from the target cell; and transmitting (654, 742) a RRCConnectionReconfigurationComplete message to the target cell during the at least one downlink subframe, wherein the transmitting comprises adjusting uplink transmit timing at the user equipment based on the measured downlink difference of time of arrival between the target cell and the serving cell. measuring, at the user equipment, a difference between downlink times of arrival for the target cell and the serving cell; sending, from the user equipment, a measurement report to the serving cell, the measurement report including the difference between downlink times of arrival for the target cell and the serving cell; receiving (630, 734) a RRCConnectionReconfiguration message from the serving cell, the RRCConnectionReconfiguration message including at least one downlink subframe to receive an uplink grant from the target cell; and transmitting (654, 742) a RRCConnectionReconfigurationComplete message to the target cell during the at least one downlink subframe, wherein the transmitting comprises adjusting uplink transmit timing at the user equipment based on the measured downlink difference of time of arrival between the target cell and the serving cell.
A process for microalgae and/or cyanobacteria cultivation in a photobioreactor containing a nutrient medium including a carbon source, the carbon source being an industrial gaseous effluent containing carbon dioxide, and the process comprising the following successive steps: a) - Capturing the wet industrial gaseous effluent containing carbon dioxide, b) - Drying/purifying said gaseous effluent by cooling, causing the condensation of the wet fraction and obtaining a dry gaseous effluent, c) - Separating the condensate of the dry gaseous effluent containing carbon dioxide, d) - Following the pH of the culture medium in the photobioreactor containing one or more strains of microalgae and/or cyanobacteria, with the determination of an optimal pH range for the growth of said strains, e1) - Enriching with carbon dioxide (carbonation) a nutrient solution of microalgae and/or cyanobacteria by means of said dry/purified effluent, as a function of the pH of the culture medium, of the injection of said nutrient solution enriched with carbon dioxide into the photobioreactor, or e2) - Direct injection of the dry effluent containing carbon dioxide into the photobioreactor, f) - Collection of the biomass produced in view of the exploitation thereof, characterised in that the gaseous effluent is an effluent that comes from the cement industry, more particularly captured in the conduit of the stack of a cement works, being discharged into the atmosphere, and in that the cooling of the effluent is performed at a temperature less than or equal to 5°C, and in that the microalgae or cyanobacteria are chosen from the following strains: Arthrospira platensis (spirulina), Chlorella vulgaris or Nannochloropsis oculata. a) - Capturing the wet industrial gaseous effluent containing carbon dioxide, b) - Drying/purifying said gaseous effluent by cooling, causing the condensation of the wet fraction and obtaining a dry gaseous effluent, c) - Separating the condensate of the dry gaseous effluent containing carbon dioxide, d) - Following the pH of the culture medium in the photobioreactor containing one or more strains of microalgae and/or cyanobacteria, with the determination of an optimal pH range for the growth of said strains, e1) - Enriching with carbon dioxide (carbonation) a nutrient solution of microalgae and/or cyanobacteria by means of said dry/purified effluent, as a function of the pH of the culture medium, of the injection of said nutrient solution enriched with carbon dioxide into the photobioreactor, or e2) - Direct injection of the dry effluent containing carbon dioxide into the photobioreactor, f) - Collection of the biomass produced in view of the exploitation thereof, characterised in that the gaseous effluent is an effluent that comes from the cement industry, more particularly captured in the conduit of the stack of a cement works, being discharged into the atmosphere, and in that the cooling of the effluent is performed at a temperature less than or equal to 5°C, and in that the microalgae or cyanobacteria are chosen from the following strains: Arthrospira platensis (spirulina), Chlorella vulgaris or Nannochloropsis oculata.
A computer implemented method for performing a normalization of intensity values obtained to perform sequencing analysis, the method comprises the steps: receiving a plurality of image data (11a-11d, 15a-15d) for a plurality of channels (a-d), each image data (11a-11d, 15a-15d) describes for the respective channel (a-d) an intensity distribution over all positions of an image of the plurality of image data (11a-11d, 15a-15d); parametrization of the intensity distribution over all positions for the plurality of channels (a-d) to obtain parametrized distributions for the plurality of channels (a-d); wherein the parametrized distributions for the plurality of channels (a-d) is described using the mean of the intensity values over all positions for the plurality of channels (a-d); combining the parametrized distributions for the plurality of channels (a-d) to obtain a common distribution for all of the plurality of channels (a-d); wherein the common distribution represents an average of all parametrized distributions of the plurality of channels; and determining and applying for each of the plurality of channels (a-d) a transfer function such that the respective transfer function for the respective channel (a-d) maps the corresponding intensity distribution to the common distribution. receiving a plurality of image data (11a-11d, 15a-15d) for a plurality of channels (a-d), each image data (11a-11d, 15a-15d) describes for the respective channel (a-d) an intensity distribution over all positions of an image of the plurality of image data (11a-11d, 15a-15d); parametrization of the intensity distribution over all positions for the plurality of channels (a-d) to obtain parametrized distributions for the plurality of channels (a-d); wherein the parametrized distributions for the plurality of channels (a-d) is described using the mean of the intensity values over all positions for the plurality of channels (a-d); combining the parametrized distributions for the plurality of channels (a-d) to obtain a common distribution for all of the plurality of channels (a-d); wherein the common distribution represents an average of all parametrized distributions of the plurality of channels; and determining and applying for each of the plurality of channels (a-d) a transfer function such that the respective transfer function for the respective channel (a-d) maps the corresponding intensity distribution to the common distribution.
A surgical microscopy system having an optical coherence tomography, OCT, facility, the system comprising: microscopy optics for generating an image of a first object region, the microscopy optics comprising an objective lens; an OCT system providing an OCT beam path and comprising a OCT-measuring light source, a reflector, imaging optics disposed between the OCT-measuring light source and the reflector, and a beam scanner (2, 3) disposed between the OCT-measuring light source and the imaging optics, wherein the reflector is configured and arranged to reflect a beam of OCT-measuring light, supplied from the imaging optics, such that it traverses the objective lens and is directed onto the first object region, and characterized in that the imaging optics comprises an afocal system (9, 11), and a magnification, β, of the imaging optics is changeable. microscopy optics for generating an image of a first object region, the microscopy optics comprising an objective lens; an OCT system providing an OCT beam path and comprising a OCT-measuring light source, a reflector, imaging optics disposed between the OCT-measuring light source and the reflector, and a beam scanner (2, 3) disposed between the OCT-measuring light source and the imaging optics, wherein the reflector is configured and arranged to reflect a beam of OCT-measuring light, supplied from the imaging optics, such that it traverses the objective lens and is directed onto the first object region, and characterized in that the imaging optics comprises an afocal system (9, 11), and a magnification, β, of the imaging optics is changeable.
An arrangement made up of hanger bolt, clamping element and seal, particularly for fastening photovoltaic modules on roofs, characterised in that the hanger bolt has a threadless shaft between its upper and lower ends, which is surrounded by the seal and against which the clamping element bears in a clamping manner above the seal, and in that the seal bears against the shaft, surrounding the same completely or in part in a positive-fitting and sealing manner, and has a sealing body, on the underside of which, which underside faces away from the clamping element, at least one surrounding sealing lip is arranged obliquely to the longitudinal axis, a supporting lip is arranged parallel to the longitudinal axis of the hanger bolt and an indentation is arranged next to the sealing lip, wherein in a ready state of the arrangement, the sealing lip ends below the supporting lip and in an operating state, the sealing lip, which is elastically deformed by a pressure force ends at the height of the supporting lip and the indentation reduces in size or closes compared to the ready state and the clamping element opposes the pressure force, which is acting against the underside of the sealing body, in a frictionally-engaged manner.
A panel assembly comprising: a first panel defining a slot; a second panel comprising a tab, wherein said tab is received in said slot and defines a gap in said slot between said tab and said first panel; and a joining assembly positioned in said gap, said joining assembly comprising: an outer rack member engaged with said first panel; an inner rack member engaged with said second panel; and a shim in ratcheting engagement with said outer rack member and said inner rack member. a first panel defining a slot; a second panel comprising a tab, wherein said tab is received in said slot and defines a gap in said slot between said tab and said first panel; and a joining assembly positioned in said gap, said joining assembly comprising: an outer rack member engaged with said first panel; an inner rack member engaged with said second panel; and a shim in ratcheting engagement with said outer rack member and said inner rack member. an outer rack member engaged with said first panel; an inner rack member engaged with said second panel; and a shim in ratcheting engagement with said outer rack member and said inner rack member.
An axial separating apparatus having at least one intake head housing and a pair of separating rotors which are arranged in mutually parallel juxtaposed relationship and which project with a first end portion-wise into the intake head housing, wherein the intake head housing has a flat intake portion extending over the width of the respective separating rotor, between which is arranged a ramp-shaped housing portion having a substantially concave profile and which at least promotes division of a crop material flow into two partial flows to be fed to the separating rotors, characterised in that arranged on the ramp-shaped housing portion is a substantially blade-shaped separating element extending in substantially axis-parallel relationship with the ramp-shaped housing portion.
Lighting system for a vehicle, with a vehicle exterior lighting (14, 16) and an operating device, by means of which following lighting modes of the vehicle exterior lighting (14, 16) can be set: deactivated, parking light, daytime running light, driving light and automatic mode, in which the vehicle exterior lighting (14, 16) is operated by means of an automatic driving light control system, characterised in that - the operating device has a monostable operating element by means of which the lighting modes deactivated, parking light, daytime running light and driving light can be set, wherein the operating device has a further operating element in the form of a button or toggle lever by means of which the automatic mode can be set. - the operating device has a monostable operating element by means of which the lighting modes deactivated, parking light, daytime running light and driving light can be set, wherein the operating device has a further operating element in the form of a button or toggle lever by means of which the automatic mode can be set.
A method for a remote server managing a wireless broadband device, comprising: when the wireless broadband device is in a disconnect network state, the wireless broadband device setting parameter information within a local Node Value, NV, according to a request for setting parameter information of the wireless broadband device sent by a network administrator terminal; when the wireless broadband device is in a log-in network state, the wireless broadband device sending an update notification to the remote server, and the update notification carrying changed contents of the parameter information within the local NV; and the remote server setting corresponding parameter information in a management information base, MIB, preset in the wireless broadband device according to the update notification, to make parameter information within an object identifier, OID, of the MIB consistent with the parameter information within the local NV. when the wireless broadband device is in a disconnect network state, the wireless broadband device setting parameter information within a local Node Value, NV, according to a request for setting parameter information of the wireless broadband device sent by a network administrator terminal; when the wireless broadband device is in a log-in network state, the wireless broadband device sending an update notification to the remote server, and the update notification carrying changed contents of the parameter information within the local NV; and the remote server setting corresponding parameter information in a management information base, MIB, preset in the wireless broadband device according to the update notification, to make parameter information within an object identifier, OID, of the MIB consistent with the parameter information within the local NV.
Secondary side rectifier of an inductive energy transmission system, wherein the secondary side rectifier has a single-phase resonant circuit, which has at least one inductivity and at least one capacity (C s) which can be magnetically coupled to a primary side resonant circuit, and in that the secondary side rectifier has a B2 bridge circuit, comprising four diodes (D1, D2, D3, D4) which is connected with its input side to the secondary side resonant circuit; and whose outlet voltage is smoothened by at least one smoothing capacitor (C gr), characterised in that a switching means is connected in parallel with a diode (D1, D2, D3, D4) by means of which the diode (D1, D2, D3, D4) can be short-circuited, wherein in a first mode, in which the switching means is switched off and the associated diode is therefore not short-circuited, the secondary side rectifier is a normal rectifier, and in that in a second mode, in which the switching means is switched on and the associated diode is therefore short-circuited, the secondary side rectifier together with the at least one capacity (C s) of the secondary side resonant circuit forms a voltage doubler.
A use of a titanium alloy, wherein the titanium alloy consists of, in mass%, a platinum group element: greater than or equal to 0.01 % and less than or equal to 0.10%, a rare earth element: greater than or equal to 0.001% and less than 0.02%, O: greater than or equal to 0% and less than 0.1%, and optionally contains, instead of part of Ti, one or more selected from the group consisting of Ni, Co, Mo, V, Cr, and W, wherein the content of Ni is less than or equal to 1.0 mass%, the content of Co is less than or equal to 1.0 mass%, the content of Mo is less than or equal to 0.5 mass%, the content of V is less than or equal to 0.5 mass%, the content of Cr is less than or equal to 0.5 mass%, and the content of W is less than or equal to 0.5 mass%, and the balance: Ti and impurities for providing corrosion resistance in a bromine-ion-containing environment.
An apparatus comprising: a first network node configured to transmit a first message to a second network node, wherein the first message is a protocol independent multicast, PIM, join message that comprises data designating the first network node as a member of a first multicast channel (S1, G1), characterized in that the first message comprises data indicating a network address of a third network node (207 - 208) that is designated as a last hop router, LHR, of the first multicast channel (S1, G1). a first network node configured to transmit a first message to a second network node, wherein the first message is a protocol independent multicast, PIM, join message that comprises data designating the first network node as a member of a first multicast channel (S1, G1), characterized in that the first message comprises data indicating a network address of a third network node (207 - 208) that is designated as a last hop router, LHR, of the first multicast channel (S1, G1).
A method for joining a first blank and a second blank, wherein at least one of the first and second blanks (A; B) comprises at least a layer (111; 112) of aluminum or an aluminum alloy, the method comprising: • placing the first and second (A; B) blanks for welding; • laser welding the first and second blanks (A; B) following a welding path without using a filler, and • hot deforming and quenching the welded blanks to form a component, characterized in that the welding path combines a linear movement along a welding direction (320; WD) and oscillating movements substantially transverse to the welding direction (320; WD). • placing the first and second (A; B) blanks for welding; • laser welding the first and second blanks (A; B) following a welding path without using a filler, and • hot deforming and quenching the welded blanks to form a component,
Air recirculation system for an exhaust-gas turbocharger, in which a bypass is provided between a suction side and a pressure side of a compressor of the exhaust-gas turbocharger and runs between a charge-air cooler tank and the suction side of the compressor, wherein a cooler is provided for cooling the charge air, from which cooler the charge air is conducted to an engine, and wherein, in the charge-air cooler tank which is assigned to the cooler, the compressed air is collected and distributed into the cooler, characterized in that the charge-air cooler tank is equipped with a connector to which a bypass line of the bypass is connected such that the compressed air is extracted from the charge-air cooler tank and conducted to the suction side of the compressor, wherein the connector is integrated in the charge-air cooler tank.
A process of producing ethanol from starch-containing material in a fermentation medium using a fermenting organism, where one or more aldehyde dehydrogenases selected from the group of enzymes classified in EC 1.2.1.3, EC 1.2.1.4 and EC 1.2.1.5 are added to the fermentation medium, and wherein the process comprises the steps of: (a) saccharifying starch-containing material at a temperature below the initial gelatinization temperature of said starch-containing material; (b) fermenting using a fermenting organism, wherein the fermenting organism is a yeast. (a) saccharifying starch-containing material at a temperature below the initial gelatinization temperature of said starch-containing material; (b) fermenting using a fermenting organism, wherein the fermenting organism is a yeast.