mhurhangee/ep-ind-claims huggingface dataset:
A device for drying objects, in particular painted vehicle bodies, having a) a drying tunnel, whereof the interior is filled with an inert gas atmosphere and which has at least one heating device for heating the inert gas atmosphere; b) a UV radiation chamber, which is connected downstream of the drying tunnel and likewise contains an inert gas atmosphere; c) at least one UV lamp, which is arranged in the UV radiation chamber and has a cooling device operating with a coolant; d) a conveyor system, which guides the objects through the drying tunnel and the UV radiation chamber; wherein e) the coolant of the UV lamp (8, 9) can be returned to the drying tunnel and can be thermally linked there to the inert gas atmosphere prevailing therein so that the heat generated by the UV lamp (8, 9) partially contributes to heating the inert gas atmosphere in the drying tunnel. a) a drying tunnel, whereof the interior is filled with an inert gas atmosphere and which has at least one heating device for heating the inert gas atmosphere; b) a UV radiation chamber, which is connected downstream of the drying tunnel and likewise contains an inert gas atmosphere; c) at least one UV lamp, which is arranged in the UV radiation chamber and has a cooling device operating with a coolant; d) a conveyor system, which guides the objects through the drying tunnel and the UV radiation chamber; wherein e) the coolant of the UV lamp (8, 9) can be returned to the drying tunnel and can be thermally linked there to the inert gas atmosphere prevailing therein so that the heat generated by the UV lamp (8, 9) partially contributes to heating the inert gas atmosphere in the drying tunnel.
A hydraulic binder comprising: - 25 to 60 % by mass of Portland clinker; - 5 to 15 % by mass of a first mineral addition selected from: ∘ mineral additions reacting with at least 400 mg/g of CaO according to the method at 90°C described in the NF P 18-513 Standard of December 30, 2011, in Appendix A, and ∘ latent hydraulic materials; - a second mineral addition reacting with less than 400 mg/g of CaO according to the method described herein above; and - either a third mineral addition with a base of calcium carbonate or calcium sulphate, or both; the hydraulic binder comprising at least 1% by mass of reactive aluminium, which is to say that contributes to the development of strengths. - 25 to 60 % by mass of Portland clinker; - 5 to 15 % by mass of a first mineral addition selected from: ∘ mineral additions reacting with at least 400 mg/g of CaO according to the method at 90°C described in the NF P 18-513 Standard of December 30, 2011, in Appendix A, and ∘ latent hydraulic materials; ∘ mineral additions reacting with at least 400 mg/g of CaO according to the method at 90°C described in the NF P 18-513 Standard of December 30, 2011, in Appendix A, and ∘ latent hydraulic materials; - a second mineral addition reacting with less than 400 mg/g of CaO according to the method described herein above; and - either a third mineral addition with a base of calcium carbonate or calcium sulphate, or both;
Method for flicker reduction in steel production by means of an electric arc furnace, having the following steps - providing a flicker database by means of a storage unit, in which overall time curves of instantaneous flicker are stored in dependence on state variables and operating variables; - measuring a time curve of instantaneous flicker by means of a capture device during an initial melting phase of the steel production and determining associated state variables and operating variables; - comparing the measured time curve of instantaneous flicker during the melting phase to the stored time curves of the melting phases of the overall curves of the flicker database with consideration of the state variables and operating variables by means of a computer unit; - selecting an overall time curve having maximum correspondence of instantaneous flicker and also state variables and operating variables as a predicted overall curve of the flicker by means of the computer unit; - executing preventive dynamic adaptation of the further control of the steel production process upon comparison of the predicted overall curve to predefined limiting values for flicker by means of a control unit. - providing a flicker database by means of a storage unit, in which overall time curves of instantaneous flicker are stored in dependence on state variables and operating variables; - measuring a time curve of instantaneous flicker by means of a capture device during an initial melting phase of the steel production and determining associated state variables and operating variables; - comparing the measured time curve of instantaneous flicker during the melting phase to the stored time curves of the melting phases of the overall curves of the flicker database with consideration of the state variables and operating variables by means of a computer unit; - selecting an overall time curve having maximum correspondence of instantaneous flicker and also state variables and operating variables as a predicted overall curve of the flicker by means of the computer unit; - executing preventive dynamic adaptation of the further control of the steel production process upon comparison of the predicted overall curve to predefined limiting values for flicker by means of a control unit.
A positive electrode active material for a lithium secondary battery, the positive electrode active material comprising: a lithium-nickel-based transition metal oxide; and a coating layer formed on the lithium-nickel-based transition metal oxide, wherein the coating layer comprises a metal oxalate compound. a lithium-nickel-based transition metal oxide; and a coating layer formed on the lithium-nickel-based transition metal oxide, wherein the coating layer comprises a metal oxalate compound.
Trailer coupling for a motor vehicle, in particular a car, for attaching a trailer to the motor vehicle, with a coupling body support attachable or attached to the motor vehicle and a coupling body (15; 115; 215) provided at a free end of the coupling body support and on to which a towing coupling seating of a towing coupling of the trailer may be fitted, wherein the coupling body (15; 115; 215) has at least one thrust bearing surface for a closing part of the towing coupling, which may be adjusted between a closed position moved towards the thrust bearing surface, locking the towing coupling to the coupling body (15; 115; 215) and provided for operation of the combination comprised of motor vehicle and trailer, and an open position moved away from the thrust bearing surface and provided for removing the towing coupling from the coupling body (15; 115; 215), wherein the trailer coupling (10; 119; 210) has a sensor array (30; 130; 230), characterised in that the sensor array (30; 130; 230) has at least one closing sensor for detecting the closed position of the closing part of the towing coupling.
Device for treating the human or animal brain with shockwaves, comprising at least one shockwave transducer, having a focal area, the device further comprising - at least one position sensor, providing at least one signal indicating the position and/or orientation of the at least one shockwave transducer, - at least one evaluation means for evaluating the signals of the at least one position sensor and calculating the position of the focal area of the at least one shockwave transducer, and - a mapping device for mapping the movement of the focal area of the at least one shockwave transducer over a plurality of positions (41, 42, 43) together with the applied shockwave dose at each of the positions, characterized in that the device delivers pulses with an energy of 0.01 to 1 mJ/mm 2 delivered to the focal area and with a pulse rate between 1 and 20 pulses per second. - at least one position sensor, providing at least one signal indicating the position and/or orientation of the at least one shockwave transducer, - at least one evaluation means for evaluating the signals of the at least one position sensor and calculating the position of the focal area of the at least one shockwave transducer, and - a mapping device for mapping the movement of the focal area of the at least one shockwave transducer over a plurality of positions (41, 42, 43) together with the applied shockwave dose at each of the positions,
Back-contact photovoltaic cell of crystalline silicon of the type called Metal Wrap Through or MWT, for a dedicated conductive backsheet, said cell being intended to be supported and electrically contacted only on the back face by means of said conductive backsheet which, acting as a support and back completion of a photovoltaic panel with a back-contact architecture comprising multiple cells, integrates on the face facing the cells a contacting conductive layer which is electrically connected to N through-holes and to back contacting P points of said cells, called N holes and P points respectively, in such a way as to complete the electrical circuit of said photovoltaic panel up to the contacting blocks of the junction box; said cell being of square configuration and having a width of 156 mm with a tolerance of +/- 0.5 mm; said cell having said N holes aligned along 4 parallel rows called N rows and said P points aligned along 3 parallel rows called P rows, wherein said P rows are interposed to said N rows with the second P row positioned centrally like a centre line of said back face of the cell; said N rows and P rows being in their turn parallel to each other; said cell being characterised in that it has said back face having said N rows formed by 6 N holes each, for a total of 24 N holes, and having said P rows formed by 5 P points each, for a total of 15 P points, wherein the centre-to-centre distance between said N rows is constant and is of 38.5 mm, there remaining a space from the side edge which is complementary and symmetrical with respect to the opposite edge, that is to say, it is of 20.25 mm, and wherein the centre-to-centre distance between said P rows P is constant and is of 44.7 mm, there remaining a space from the side edge which is complementary and symmetrical with respect to the opposite edge, that is to say, it is of 33.3 mm, with said values having a tolerance of +/- 5%; said P points of each P row being offset in an alternate way with respect to said N holes or with the centre-to-centre distance on the centre line (102, NI2); said N holes of each N row having a centre-to-centre distance which is constant and is of 25.5 mm, there remaining a space from the side edge which is complementary and symmetrical with respect to the opposite edge, that is to say, it is of 14.25 mm, with said values having a tolerance of +/- 5%; said P points of each P row having a centre-to-centre distance which is constant and is of 25.5 mm, there remaining a space from the side edge which is symmetrically complementary, that is to say, it is of 27 mm, with said values having a tolerance of +/- 5%; and wherein said N holes have a diameter between 80 micrometres and 220 micrometres, while said P points are circular, with a diameter between 1 mm and 4 mm.
A device, comprising: a stressed substrate; a heater thermally coupled to the stressed substrate, the heater comprising a fuse portion; and a power source; trigger circuitry, comprising: a sensor configured to generate a trigger signal when exposed to a trigger stimulus; and a switch configured to couple the power source to the heater when activated by the trigger signal, wherein, when coupled to the power source for a predetermined period of time, the fuse portion is configured to heat up and break, and wherein, after the fuse portion breaks, the stressed substrate is configured to initiate self-destruction and break during a cool-down cycle. a stressed substrate; a heater thermally coupled to the stressed substrate, the heater comprising a fuse portion; and a power source; trigger circuitry, comprising: a sensor configured to generate a trigger signal when exposed to a trigger stimulus; and a switch configured to couple the power source to the heater when activated by the trigger signal, wherein, when coupled to the power source for a predetermined period of time, the fuse portion is configured to heat up and break, and wherein, after the fuse portion breaks, the stressed substrate is configured to initiate self-destruction and break during a cool-down cycle. a sensor configured to generate a trigger signal when exposed to a trigger stimulus; and a switch configured to couple the power source to the heater when activated by the trigger signal, wherein, when coupled to the power source for a predetermined period of time, the fuse portion is configured to heat up and break, and wherein, after the fuse portion breaks, the stressed substrate is configured to initiate self-destruction and break during a cool-down cycle.
Photovoltaic module comprising: - a substrate, and - a plurality of photovoltaic cells encapsulated in the substrate, the module having: - a first part comprising the photovoltaic cells divided into at least two photovoltaic sub-modules (2A, 2B, etc.) that are disjoint from one another, and - a second part free of photovoltaic cells and extending from the first part of the module to form a connecting member joining the photovoltaic sub-modules (2A, 2B, etc.) to one another, the connecting member, at least partially formed by the substrate, being configured to be mounted on a supporting structure and to have a flexibility such that a deformation of the connecting member induces a movement of at least one, preferably of several, potentially of each, of the photovoltaic sub-modules (2A, 2B, etc.), without deforming the photovoltaic sub-modules (2A, 2B, etc.), said movement being a function of the deformation of the connecting member, the module being characterised in that, since the connecting member extends in a determined main direction D, the deformation of the connecting member comprises a twisting of the connecting member with a moment of force acting in said main direction D. - a substrate, and - a plurality of photovoltaic cells encapsulated in the substrate, the module having: - a first part comprising the photovoltaic cells divided into at least two photovoltaic sub-modules (2A, 2B, etc.) that are disjoint from one another, and - a second part free of photovoltaic cells and extending from the first part of the module to form a connecting member joining the photovoltaic sub-modules (2A, 2B, etc.) to one another, - a first part comprising the photovoltaic cells divided into at least two photovoltaic sub-modules (2A, 2B, etc.) that are disjoint from one another, and - a second part free of photovoltaic cells and extending from the first part of the module to form a connecting member joining the photovoltaic sub-modules (2A, 2B, etc.) to one another, the connecting member, at least partially formed by the substrate, being configured to be mounted on a supporting structure and to have a flexibility such that a deformation of the connecting member induces a movement of at least one, preferably of several, potentially of each, of the photovoltaic sub-modules (2A, 2B, etc.), without deforming the photovoltaic sub-modules (2A, 2B, etc.), said movement being a function of the deformation of the connecting member, the module being characterised in that, since the connecting member extends in a determined main direction D, the deformation of the connecting member comprises a twisting of the connecting member with a moment of force acting in said main direction D.
An implantable sensor having an in vivo functionality, the sensor comprising: a sensor body (802, 1003, 1103) encasing a photosensitive detector element and a light source, the sensor body comprising an exterior surface; and a porous sensor graft layer (801, 1000) comprising one or more indicator macromolecules, wherein the exterior surface of the sensor body comprises the porous sensor graft layer; characterized in that the implantable sensor further comprises: a protective material in close proximity to a surface of the implantable sensor, wherein: the protective material is a layer of protective coating applied by sputter deposition onto the porous sensor graft layer; the protective material prevents or reduces degradation or interference of the porous sensor graft layer due to inflammation reactions and/or foreign body response; the protective material comprises a metal or metal oxide which catalytically decomposes or inactivates in vivo reactive oxygen species or biological oxidizers; and the protective material allows an analyte to pass through the protective material into the porous sensor graft layer and interact with the one or more indicator macromolecules. a sensor body (802, 1003, 1103) encasing a photosensitive detector element and a light source, the sensor body comprising an exterior surface; and a porous sensor graft layer (801, 1000) comprising one or more indicator macromolecules, wherein the exterior surface of the sensor body comprises the porous sensor graft layer; the protective material is a layer of protective coating applied by sputter deposition onto the porous sensor graft layer; the protective material prevents or reduces degradation or interference of the porous sensor graft layer due to inflammation reactions and/or foreign body response; the protective material comprises a metal or metal oxide which catalytically decomposes or inactivates in vivo reactive oxygen species or biological oxidizers; and the protective material allows an analyte to pass through the protective material into the porous sensor graft layer and interact with the one or more indicator macromolecules.
Apparatus for measuring the shoulder joint position of continuously conveyed poultry bodies, comprising a conveying line having a conveying device having a plurality of receiving elements for holding the poultry bodies, which conveying device is adapted to continuously convey the poultry bodies in a conveying direction along a conveying path, wherein the conveying device is configured to convey the poultry bodies, at least in a measuring section of the conveying line, with the shoulder joints (15, 16) leading in the conveying direction, and a measuring station, arranged along the conveying line in the measuring section, having two measuring elements (19, 20) which are adapted, as one of the poultry bodies passes, to come into mechanical contact with the shoulder joints (15, 16) of the poultry body, and wherein the measuring elements (19, 20) are each arranged so as to be pivotable about a pivot axis (21, 22) such that, in a rest position, they extend projecting into the conveying path at least substantially transversely to the conveying direction and, on contact with the shoulder joints (15, 16) of the poultry body in a working position, are adapted to be pivotably movably deflectable in the conveying direction, wherein the measuring station has detection means for detecting the working positions of the measuring elements (19, 20), characterised in that the measuring elements (19, 20) comprise mechanical damping elements (25, 26) which are adapted to mechanically damp the measuring elements (19, 20) in the rest position. a conveying line having a conveying device having a plurality of receiving elements for holding the poultry bodies, which conveying device is adapted to continuously convey the poultry bodies in a conveying direction along a conveying path, wherein the conveying device is configured to convey the poultry bodies, at least in a measuring section of the conveying line, with the shoulder joints (15, 16) leading in the conveying direction, and a measuring station, arranged along the conveying line in the measuring section, having two measuring elements (19, 20) which are adapted, as one of the poultry bodies passes, to come into mechanical contact with the shoulder joints (15, 16) of the poultry body, and wherein the measuring elements (19, 20) are each arranged so as to be pivotable about a pivot axis (21, 22) such that, in a rest position, they extend projecting into the conveying path at least substantially transversely to the conveying direction and, on contact with the shoulder joints (15, 16) of the poultry body in a working position, are adapted to be pivotably movably deflectable in the conveying direction, wherein the measuring station has detection means for detecting the working positions of the measuring elements (19, 20), characterised in that the measuring elements (19, 20) comprise mechanical damping elements (25, 26) which are adapted to mechanically damp the measuring elements (19, 20) in the rest position.
An extraction assembly for extracting a content from a bag for pharmaceutical and chemical sectors, said bag having an end mouth formed by two opposing flaps, comprising a separation wall which separates a first environment and a second environment at different contamination classes, said separation wall being provided with an opening communicating the first environment and the second environment, at said opening being associated closing partitions movable between a closing position wherein they shut said opening and an opening position wherein they free said opening, characterised in that it comprises a gripper housed in said first environment and suitable to keep closed said flaps of the end mouth of the bag and in that each closing partition is provided with coupling elements to couple with a respective jaw of said gripper, wherein at least one among said jaws of said gripper and said coupling elements of the closing partition is provided with at least one retention device for said bag, the spacing apart of said closing partitions causing the spacing apart of said jaws of said gripper and the consequent opening of the end mouth of the bag by means of said retention device and also the communicating of the inside of the bag and of the content with said second environment through said opening.