mhurhangee/ep-ind-claims huggingface dataset:
Arrangement comprising at least one solar module and at least one mounting device for mounting the at least one solar module on a base, wherein the at least one mounting device comprises a first bearing element having a connecting portion, a supporting portion and a mounting portion which is arranged between the connecting portion and supporting portion and intended for receiving said at least one solar module, and a second bearing element having a connecting portion, a supporting portion and an optional mounting portion, wherein the at least one solar module is mounted with said mounting portions, wherein the connecting portion of the first bearing element is pivotably in connection with the connecting portion of the second bearing element, and wherein the two bearing elements (4, 8) can stand indirectly on the base by way of the respective supporting portion (6, 10), wherein the mounting device further has a fastening element which can be placed on the base and/or which can run above the base, wherein a relative movement between the first bearing element and the second bearing element or between the bearing elements (4, 8) and the base can be prevented by means of the fastening element, wherein the fastening element has the form of at least one profile element, wherein the profile element provides a receptacle for the supporting portion (6, 10) of the respective bearing element (4, 8), wherein, as viewed in cross section, the at least one profile element comprises a base leg which extends in the direction of a profile axis and from which a receiving leg for receiving the supporting portions (6, 10) is integrally formed on at least one side, preferably on both sides, wherein the first bearing element extends along a first centre axis, and that the second bearing element extends along a second centre axis, wherein a plane extends through these centre axes (M1, M2) or wherein a plane extends parallel to these centre axes (M1, M2), and that the at least one profile element runs substantially at a right angle to this plane, and/or that the profile element extends substantially at a right angle to the centre axis or centre axes (M1, M2), characterized in that the receiving leg partially extends around an axis running parallel to the profile axis, such that a cylindrical receiving space with an access opening for the supporting portion (6, 10) is provided.
Method for selectively removing an emitter layer on a single side of a silicon substrate, wherein the silicon substrate initially comprises an emitter layer at both opposing sides (13, 15) and wherein the silicon substrate initially comprises a silicate glass layer covering the emitter layer at both opposing sides (13, 15), wherein the method comprises: - selectively removing the silicate glass layer exclusively on a first side of a silicon substrate by contacting the silicate glass layer exclusively on the first side with a first etching solution, the first etching solution etching silicate glass and not substantially etching silicon; and - removing the emitter layer on the first side of a silicon substrate by contacting the emitter layer on the first side with a second etching solution, the second etching solution etching silicon and not substantially etching silicate glass, wherein, in the step of removing the emitter layer, the silicon substrate is arranged with its first side directed in an upwards direction, wherein the second etching solution is applied on top of the first side of the silicon substrate and wherein, in the step of removing the emitter layer, a non-etching liquid is brought into contact with the second side of the silicon substrate. - selectively removing the silicate glass layer exclusively on a first side of a silicon substrate by contacting the silicate glass layer exclusively on the first side with a first etching solution, the first etching solution etching silicate glass and not substantially etching silicon; and - removing the emitter layer on the first side of a silicon substrate by contacting the emitter layer on the first side with a second etching solution, the second etching solution etching silicon and not substantially etching silicate glass, wherein, in the step of removing the emitter layer, the silicon substrate is arranged with its first side directed in an upwards direction, wherein the second etching solution is applied on top of the first side of the silicon substrate and wherein, in the step of removing the emitter layer, a non-etching liquid is brought into contact with the second side of the silicon substrate.
An agricultural harvester comprising a self-propelled vehicle; a feederhouse; a driveshaft having a proximal end and a distal end, wherein the driveshaft is supported on the feederhouse wherein the proximal end is configured to be driven in rotation to transmit power from the agricultural harvester to an agricultural harvesting head; and a first coupler fixed to the distal end of the driveshaft, the first coupler further comprising a coupler body and a piston, characterized in that the piston is disposed inside the coupler body, that a first key is mechanically coupled to the piston to be actuated by the piston, and that the first key is extendable from and retractable into the coupler body when the piston is actuated.
Method of manufacturing a lighting device comprising the steps of: • a/ weaving a fabric, comprising: * warp and weft yarns that form the core of the fabric; * weft- or warp-woven optical fibres within said fabric; said optical fibres being formed by a core and a sheath surrounding said core; * binding yarns forming part of the warp or weft yarns, maintaining said optical fibres inside the fabric; • b/ surface treatment of the fabric comprising optical fibres to modify the surface of said fibres, said surface treatment including mechanical, thermal or chemical treatment for forming surface modifications on the surface of each of the fibres allowing light propagating within the fibre to escape therefrom by said surface modifications; • c/ removing the optical fibres fully from the treated fabric; • d/ inserting a portion of said fibres grouped together in at least one bundle into a translucent casing. • a/ weaving a fabric, comprising: * warp and weft yarns that form the core of the fabric; * weft- or warp-woven optical fibres within said fabric; said optical fibres being formed by a core and a sheath surrounding said core; * binding yarns forming part of the warp or weft yarns, maintaining said optical fibres inside the fabric; * warp and weft yarns that form the core of the fabric; * weft- or warp-woven optical fibres within said fabric; said optical fibres being formed by a core and a sheath surrounding said core; * binding yarns forming part of the warp or weft yarns, maintaining said optical fibres inside the fabric; • b/ surface treatment of the fabric comprising optical fibres to modify the surface of said fibres, said surface treatment including mechanical, thermal or chemical treatment for forming surface modifications on the surface of each of the fibres allowing light propagating within the fibre to escape therefrom by said surface modifications; • c/ removing the optical fibres fully from the treated fabric; • d/ inserting a portion of said fibres grouped together in at least one bundle into a translucent casing.
Composite material, comprising at least a first material and particles, wherein the particles have a negative coefficient of thermal expansion a, wherein the particles have a sphericity ψ of at least 0.7 and the composite material contains at least 30 vol% of the particles at a particle size of d 50 ≤1.0 μm, or that the composite material contains at least 40 vol% of the particles at a particle size d50 > 1.0 μm, characterized in that the particles comprise - ZrW 2 O 8 as the main crystal phase from the phase system ZrO 2 -WO 3 -Al 2 O 3 -P 2 O 5. - ZrW 2 O 8 as the main crystal phase
A multiple flow system for detecting substances in a fluid, the system comprising: a first fluid tube containing a first fluid; a second fluid tube containing a second fluid, wherein the first fluid is different from the second fluid, wherein the first and second fluids are immiscible; a common fluid tube; a connector coupled to the first fluid tube, the second fluid tube, and the common fluid tube, wherein fluid flows from the first fluid tube and the second fluid tube into the common fluid tube via the connector such that alternating discrete compartments of the first fluid and the second fluid flow through the common fluid tube; and a substance detector coupled to the common fluid tube, wherein the substance detector comprises a flow chamber having an internal wall, wherein the alternating discrete compartments flow through the flow chamber and are analyzed by the substance detector, wherein the substance detector further comprises: a laser; and a pulsator, wherein the laser is a photoacoustic laser, wherein the substance detector is configured to detect substances in the discrete compartments of the first and second fluids flowing through the flow chamber using imaging generated with the photoacoustic laser, wherein the multiple flow system is configured for detecting circulating tumor cells.
A method for the biological purification of coking plant wastewater which is contaminated with nitrogen compounds, cyanides, phenols and sulphides, wherein the coking plant wastewater is fed for removal of contaminants that inhibit nitrification, along with a material flow containing biomass, to a detoxification reactor that has a gasification zone and a reaction zone, wherein the feed mixture fed to the detoxification reactor is exposed in the gasification zone to a gaseous oxidizing agent and a material flow enriched with the oxidizing agent is fed to the reaction zone, in which cyanides and other harmful substances inhibiting nitrification are biodegraded, wherein a material flow is removed from the reaction zone and fed back to the detoxification reactor, wherein a wastewater flow from the detoxification reactor is separated by means of membrane filtration into a retained material flow containing biomass and a purified permeate flow, wherein a partial flow that carries along excess sludge is expelled from the retained material flow and the retained material flow is fed back into the detoxification reactor after the partial flow has been separated off wherein modules with membranes over which liquid flows are used for membrane filtration and the overflow speed on the membranes is set by a liquid volume flow guided in the cycle, wherein the permeate flow is purified by nitrification with subsequent denitrification and wherein biomass for operating the detoxification reactor uses activated sludge from municipal installations which is adapted over an adaptation period lasting several weeks to the coking plant wastewater.
A slip ring platter for a contacting ring system, the platter comprising: a printed circuit board with a first side and a second side, a plurality of concentric spaced conductive rings (1302A, 1302B) located on the first side of the PCB, a first and second feedline routed internally within the PCB, a ground plane is located on the second side of the PCB, characterised by the first feedline being coupled to a first of the concentric spaced conductive rings at multiple points by respective phasing lines and the second feedline being coupled to a second of the concentric spaced conductive rings at multiple points by respective phasing lines; and a groove formed in the PCB between said first and second concentric spaced conductive rings, and the first and second feedlines being gradated. a printed circuit board with a first side and a second side, a plurality of concentric spaced conductive rings (1302A, 1302B) located on the first side of the PCB, a first and second feedline routed internally within the PCB, a ground plane is located on the second side of the PCB, characterised by the first feedline being coupled to a first of the concentric spaced conductive rings at multiple points by respective phasing lines and the second feedline being coupled to a second of the concentric spaced conductive rings at multiple points by respective phasing lines; and a groove formed in the PCB between said first and second concentric spaced conductive rings, and the first and second feedlines being gradated.
A decoloring apparatus comprising: a heating rotating member for decoloring a decolorable colorant comprising an electron donating color assuming agent, an electron accepting color developing agent, and a binder resin, by heat, the heating rotating member having roughness (Rz) of a surface, which comes into contact with a conveyed sheet, equal to or larger than 3.5 μm and equal to or smaller than 6.0 μm; a controller configured to heat the heating rotating member to heat the decolorable colorant to a temperature higher than a fixing temperature of the decolorable colorant and decolor the decolorable colorant on the sheet; and a pressing member configured to come into press contact with the heating rotating member to form a nip section between the pressing member and the heating rotating member and cooperate with the heating rotating member to nip and convey the sheet. a heating rotating member for decoloring a decolorable colorant comprising an electron donating color assuming agent, an electron accepting color developing agent, and a binder resin, by heat, the heating rotating member having roughness (Rz) of a surface, which comes into contact with a conveyed sheet, equal to or larger than 3.5 μm and equal to or smaller than 6.0 μm; a controller configured to heat the heating rotating member to heat the decolorable colorant to a temperature higher than a fixing temperature of the decolorable colorant and decolor the decolorable colorant on the sheet; and a pressing member configured to come into press contact with the heating rotating member to form a nip section between the pressing member and the heating rotating member and cooperate with the heating rotating member to nip and convey the sheet.
A fuel cell system having a fuel cell module configured to generate power by using gas supplied via a gas meter which supplies gas to the fuel cell system and one or more gas appliances (103a, 103b, 103c), a controller configured to control power generation of the fuel cell module, and a gas flow meter configured to measure a gas flow rate of gas supplied to the fuel cell module from the gas meter, wherein the controller, is configured to: detect, based on a gas flow rate measured by the gas meter and a gas flow rate measured by the gas flow meter, a first predetermined period of time that the gas supplied via the gas meter is not supplied to anything else other than the fuel cell module, and control the fuel cell system to stop the power generation of the fuel cell module for a second predetermined period of time in response to detecting the first predetermined period of time. detect, based on a gas flow rate measured by the gas meter and a gas flow rate measured by the gas flow meter, a first predetermined period of time that the gas supplied via the gas meter is not supplied to anything else other than the fuel cell module, and control the fuel cell system to stop the power generation of the fuel cell module for a second predetermined period of time in response to detecting the first predetermined period of time.
A method for manufacturing ceramic articles comprising; - a step of feeding, during which at least two different ceramic powders are fed so as to obtain a strip of ceramic powders extending along a longitudinal direction and a transverse direction and having at least a first zone and at least a second zone, which have different contents of said ceramic powders; the second zone having a given shape; - a step of compacting, during which the strip of ceramic powders is compacted so as to obtain a compacted layer of ceramic powders, which is expanded in the longitudinal direction and/or in the transverse direction relative to the strip of ceramic powders; characterized in that it further comprises: - a step of printing, during which a decoration is applied on the surface of the compacted layer of ceramic powders; - a step of determination, during which a first value of expansion of the compacted layer of ceramic powders in the longitudinal direction and/or a second value of expansion in the transverse direction are determined; and - a step of transformation, during which the given shape is transformed based on the first expansion value and/or the second expansion value so as to obtain a derived shape; and during the step of printing, the decoration is applied based on the derived shape. - a step of feeding, during which at least two different ceramic powders are fed so as to obtain a strip of ceramic powders extending along a longitudinal direction and a transverse direction and having at least a first zone and at least a second zone, which have different contents of said ceramic powders; the second zone having a given shape; - a step of compacting, during which the strip of ceramic powders is compacted so as to obtain a compacted layer of ceramic powders, which is expanded in the longitudinal direction and/or in the transverse direction relative to the strip of ceramic powders; characterized in that it further comprises: - a step of printing, during which a decoration is applied on the surface of the compacted layer of ceramic powders; - a step of determination, during which a first value of expansion of the compacted layer of ceramic powders in the longitudinal direction and/or a second value of expansion in the transverse direction are determined; and - a step of transformation, during which the given shape is transformed based on the first expansion value and/or the second expansion value so as to obtain a derived shape; and during the step of printing, the decoration is applied based on the derived shape. - a step of printing, during which a decoration is applied on the surface of the compacted layer of ceramic powders; - a step of determination, during which a first value of expansion of the compacted layer of ceramic powders in the longitudinal direction and/or a second value of expansion in the transverse direction are determined; and - a step of transformation, during which the given shape is transformed based on the first expansion value and/or the second expansion value so as to obtain a derived shape; and
A catheter system (102, 202, 402, 1202, 1702) comprising: an elongate tubular member (118, 218) having a proximal end portion, a distal end portion and a lumen extending through at least a portion of a length of said elongate tubular member, said distal end portion dimensioned and adapted to advance to or in proximity to a treatment site of a subject; a microbubble device in fluid communication with said lumen, said microbubble device including at least one input port for receiving a flow of material into said device and an output port configured to output microbubbles from said microbubble device; a second tubular member in fluid communication with one of said at least one input ports; and a pressure fitting arrangement adapted to maintain a seal between said second tubular member and said input port; and a macro chamber surrounding said microbubble device except for said output port, said macro chamber configured to be pressurized internally to an internal pressure greater than a pressure outside of said macro chamber, thereby reducing a pressure differential across said pressure fitting arrangement. an elongate tubular member (118, 218) having a proximal end portion, a distal end portion and a lumen extending through at least a portion of a length of said elongate tubular member, said distal end portion dimensioned and adapted to advance to or in proximity to a treatment site of a subject; a microbubble device in fluid communication with said lumen, said microbubble device including at least one input port for receiving a flow of material into said device and an output port configured to output microbubbles from said microbubble device; a second tubular member in fluid communication with one of said at least one input ports; and a pressure fitting arrangement adapted to maintain a seal between said second tubular member and said input port; and a macro chamber surrounding said microbubble device except for said output port, said macro chamber configured to be pressurized internally to an internal pressure greater than a pressure outside of said macro chamber, thereby reducing a pressure differential across said pressure fitting arrangement.
A non-transitory machine-readable storage medium comprising instructions that, when executed by a processing resource, cause a system, comprising a host computer, a computer connected via a network to the host computer, and a printer that has connected to a wireless network, to: receive, by the host computer from the computer, via a web application, subscription data indicative of a subscription for the printer, wherein the printer is connected to a supply of marking agent, the subscription authorizes the printer to consume a subscription amount of marking agent; send, from the host computer to the computer, via the web application, a browser plug-in to enable the computer to discover the printer via a wireless connection and to obtain, via the browser plug-in, printer identification data from the printer; receive, by the host computer from the computer, the printer identification data via the browser plug-in; utilize, at the host computer, the identification data to establish an operative connection with the printer; and send, from the host computer to the printer, via the operative connection, a credit to authorize consumption of at least a portion of the subscription amount from the supply; store in association, on the host computer, the identification data and an email address for the printer; receive, by the host computer, a print job via the email address; and send, by the host computer, the job to the printer for printing. receive, by the host computer from the computer, via a web application, subscription data indicative of a subscription for the printer, wherein the printer is connected to a supply of marking agent, the subscription authorizes the printer to consume a subscription amount of marking agent; send, from the host computer to the computer, via the web application, a browser plug-in to enable the computer to discover the printer via a wireless connection and to obtain, via the browser plug-in, printer identification data from the printer; receive, by the host computer from the computer, the printer identification data via the browser plug-in; utilize, at the host computer, the identification data to establish an operative connection with the printer; and send, from the host computer to the printer, via the operative connection, a credit to authorize consumption of at least a portion of the subscription amount from the supply; store in association, on the host computer, the identification data and an email address for the printer; receive, by the host computer, a print job via the email address; and send, by the host computer, the job to the printer for printing.