mhurhangee/ep-ind-claims huggingface dataset:
A modular overvoltage protection unit for electrically connecting a first power line and/or a second power line to a protected earth line in the case of an overvoltage event on the first or second power line, the overvoltage protection unit comprising: a unit enclosure defining an enclosure cavity; first and second surge protection devices (SPDs) each disposed in the enclosure cavity, each of the first and second SPDs including: a first electrode in the form of a metal housing defining a housing cavity; a second electrode disposed within the housing cavity; and a varistor member captured between and electrically connected with each of the first and second electrodes, wherein the varistor member is formed of a varistor material; a first line terminal to connect the first power line to the overvoltage protection unit, wherein the first line terminal is electrically connected to the second electrode of the first SPD; a second line terminal to connect the second power line to the overvoltage protection unit, wherein the second line terminal is electrically connected to the second electrode of the second SPD; and a PE terminal to connect the PE line to the overvoltage protection unit, wherein the PE terminal is electrically connected to the metal housing of the second SPD; wherein the metal housing of the first SPD is electrically connected to the PE terminal through the metal housing of the second SPD. a unit enclosure defining an enclosure cavity; first and second surge protection devices (SPDs) each disposed in the enclosure cavity, each of the first and second SPDs including: a first electrode in the form of a metal housing defining a housing cavity; a second electrode disposed within the housing cavity; and a varistor member captured between and electrically connected with each of the first and second electrodes, wherein the varistor member is formed of a varistor material; a first electrode in the form of a metal housing defining a housing cavity; a second electrode disposed within the housing cavity; and a varistor member captured between and electrically connected with each of the first and second electrodes, wherein the varistor member is formed of a varistor material; a first line terminal to connect the first power line to the overvoltage protection unit, wherein the first line terminal is electrically connected to the second electrode of the first SPD; a second line terminal to connect the second power line to the overvoltage protection unit, wherein the second line terminal is electrically connected to the second electrode of the second SPD; and a PE terminal to connect the PE line to the overvoltage protection unit, wherein the PE terminal is electrically connected to the metal housing of the second SPD; wherein the metal housing of the first SPD is electrically connected to the PE terminal through the metal housing of the second SPD.
A stationary shelter for storing at least one electrical energy storage unit, said shelter comprising at least one element (35, 36) for receiving said unit, shaped so that said electrical energy storage unit can be inserted therein or extracted therefrom, and this through an access opening formed in a wall of said stationary shelter, said shelter further comprising a device for lifting and handling said unit, said shelter being characterized in that this lifting and handling device is disposed inside said shelter, above the receiving element (35, 36) located uppermost in the shelter and in that the lifting and handling device comprises a fixed part (210, 240, 260) secured to least one inner wall of said shelter and one movable part (21, 22, 23, 24, 25, 26) configured to be moved between a position called stowed position, in which it fits completely inside said shelter, and a position called working position, in which it is located outside said shelter and in which it allows the loading and unloading of an electrical energy storage unit in and out of the receiving element (35, 36).
A rewinding machine for winding web material into a log about a core, the machine comprising: a winding drum rotatable about a center axis and about which the web material to be wound is directed, the machine characterized by a continuous loop spaced from the winding drum and with the winding drum defining a winding nest with a nip through which the core is inserted and through which web material is directed when winding the web material about the core in the winding nest, the continuous loop being adapted and configured to move in a direction generally opposite a direction of the winding drum at the nip and to change speed relative to a speed of the winding drum during winding of the web material about the core. a winding drum rotatable about a center axis and about which the web material to be wound is directed, the machine characterized by a continuous loop spaced from the winding drum and with the winding drum defining a winding nest with a nip through which the core is inserted and through which web material is directed when winding the web material about the core in the winding nest, the continuous loop being adapted and configured to move in a direction generally opposite a direction of the winding drum at the nip and to change speed relative to a speed of the winding drum during winding of the web material about the core.
A power system comprising: a storage battery; a water electrolyzer; a fuel cell configured to generate electricity using hydrogen supplied from a hydrogen reservoir that stores hydrogen generated by the water electrolyzer; a detector (8, 13, 15, 17) configured to detect whether there is a person in a building; a power generation device configured to generate electric power using renewable energy and supply the generated electric power to the storage battery and the water electrolyzer; and characterized by a controller configured to perform at least one of first control and second control, the first control configured to determine a priority of electric power supply from the power generation device to each of the storage battery and the water electrolyzer based on information detected by the detector (8, 13, 15, 17), and the second control configured to determine a priority of the electric power supply from each of the storage battery and the fuel cell to a power load provided in the building based on the information detected by the detector (8, 13, 15, 17). a storage battery; a water electrolyzer; a fuel cell configured to generate electricity using hydrogen supplied from a hydrogen reservoir that stores hydrogen generated by the water electrolyzer; a detector (8, 13, 15, 17) configured to detect whether there is a person in a building; a power generation device configured to generate electric power using renewable energy and supply the generated electric power to the storage battery and the water electrolyzer; and characterized by a controller configured to perform at least one of first control and second control, the first control configured to determine a priority of electric power supply from the power generation device to each of the storage battery and the water electrolyzer based on information detected by the detector (8, 13, 15, 17), and the second control configured to determine a priority of the electric power supply from each of the storage battery and the fuel cell to a power load provided in the building based on the information detected by the detector (8, 13, 15, 17).
Support element as part of a motor vehicle trailer coupling or a trailer or a load carrier for attaching to a motor vehicle trailer coupling, wherein the support element has at least one sensor for detecting a deformation of the support element of the trailer coupling due to a load acting on the support element, wherein there is provided on the support element at least one recess (21, 121) for the sensor or sensors in the area of a support section (31; 331; 731) of the support element which deforms under the loading of a load, wherein the sensor or sensors is or are provided for measuring a distance between reference surfaces (25, 26) of the recess or recesses (21, 121), and wherein the support element is in the form of a profile body (665, 765) with at least two bearing walls (660, 761) at an angle to one another or joined together via a curved section, which enclose an intermediate space or hollow space (664, 764), characterised in that at least one of the reference surfaces (25, 26) is provided at a through opening of the profile body (665, 765) or on an indicator element (736, 737) protruding from the profile body (665, 765) and that the reference surfaces (25, 26), during deformation of the support element, move relative to one another, in particular towards or away from one another.
A method (140, 150), performed by a server, of performing a handover of a first call leg for a voice communication established at a wireless device over a first communication network of a first type, said method (140, 150) comprising: maintaining (140a, 140b, 150a, 150b) the first call leg to the wireless device and a second call leg to a second device; receiving (140c, 150c) an indication that a handover of the first call leg is being attempted by the wireless device between two access points of the first communication network; and after detecting (140d, 150d) that the handover of the first call leg did not occur within a predetermined period of time causing the first call leg to be dropped: initiating (140f, 150f) a third call leg to the wireless device using the first communication network and, simultaneously, initiating (140g, 150g) a fourth call leg to the wireless device using a second communication network of a second type; establishing (140h, 150i) at least one of the third or fourth call legs to the wireless device; and connecting (140j, 140k, 150j, 150k) an established one of the third or fourth call legs to the second call leg to re-establish the voice communication at the wireless device. maintaining (140a, 140b, 150a, 150b) the first call leg to the wireless device and a second call leg to a second device; receiving (140c, 150c) an indication that a handover of the first call leg is being attempted by the wireless device between two access points of the first communication network; and after detecting (140d, 150d) that the handover of the first call leg did not occur within a predetermined period of time causing the first call leg to be dropped: initiating (140f, 150f) a third call leg to the wireless device using the first communication network and, simultaneously, initiating (140g, 150g) a fourth call leg to the wireless device using a second communication network of a second type; establishing (140h, 150i) at least one of the third or fourth call legs to the wireless device; and connecting (140j, 140k, 150j, 150k) an established one of the third or fourth call legs to the second call leg to re-establish the voice communication at the wireless device. initiating (140f, 150f) a third call leg to the wireless device using the first communication network and, simultaneously, initiating (140g, 150g) a fourth call leg to the wireless device using a second communication network of a second type; establishing (140h, 150i) at least one of the third or fourth call legs to the wireless device; and connecting (140j, 140k, 150j, 150k) an established one of the third or fourth call legs to the second call leg to re-establish the voice communication at the wireless device.
Awning for a vehicle, comprising a supporting frame, which, in the mounted state, spans a roof area, wherein at least one roofing membrane is allocated to the roof area, wherein the roofing membrane is connected to the supporting frame, wherein the supporting frame comprises frame elements, characterised in that the frame elements comprise a sheathing, in which an air hose is arranged, wherein the sheathing is closed by means of a cover on at least one end side (9, 10), wherein the cover can be at least partially removed to extend the air hose.
A system for controlling movement of a magnetic capsule in a human GI track, comprising: a magnetic capsule for placement in the human GI track: two magnetic balls (5, 8) each having a horizontal magnetization, the two magnetic balls being aligned vertically with a distance between centers of the two magnetic balls more than 50 cm in the vertical direction, configured to be moved simultaneously in a XY plane and individually along X direction, Y direction and Z direction; two three-dimensional magnetic sensors and one three-dimensional acceleration sensor provided inside the magnetic capsule, the magnetic sensors being configured for measuring a resulting combined magnetic field on the magnetic capsule, and calculating a position and orientation of the magnetic capsule with the three-dimensional acceleration sensor; the two magnetic balls being further configured to be moved to adjust their magnetic directions so that the magnetic capsule can image an open space of the human GI track, and the two magnetic balls being moved to be ahead of the magnetic capsule's moving direction, the magnetic capsule being moved forward by rotating the two magnetic balls to change their magnetization direction; and the two magnetic balls each being driven by an external magnetic control assembly, the external magnetic control assembly being capable of driving the corresponding magnetic ball to move along X direction, Y direction and Z direction individually. two magnetic balls (5, 8) each having a horizontal magnetization, the two magnetic balls being aligned vertically with a distance between centers of the two magnetic balls more than 50 cm in the vertical direction, configured to be moved simultaneously in a XY plane and individually along X direction, Y direction and Z direction; two three-dimensional magnetic sensors and one three-dimensional acceleration sensor provided inside the magnetic capsule, the magnetic sensors being configured for measuring a resulting combined magnetic field on the magnetic capsule, and calculating a position and orientation of the magnetic capsule with the three-dimensional acceleration sensor; the two magnetic balls being further configured to be moved to adjust their magnetic directions so that the magnetic capsule can image an open space of the human GI track, and the two magnetic balls being moved to be ahead of the magnetic capsule's moving direction, the magnetic capsule being moved forward by rotating the two magnetic balls to change their magnetization direction; and the two magnetic balls each being driven by an external magnetic control assembly, the external magnetic control assembly being capable of driving the corresponding magnetic ball to move along X direction, Y direction and Z direction individually.
Feeding device for wrapping machines for confectionery products, characterized in that it comprises a transfer and orientation unit comprising a tilting arm operated in alternated motion on a vertical plane longitudinal to a feeding line, suitable to transport an ordered series of confectionery products to be wrapped until a picking zone, for transferring single products from said picking zone to a spaced release zone in which lift means are suitable to operate for the transport of a product to be wrapped to a wrapping head; a grip member for said single products to be transferred, having substantially the shape of pliers, carried by said tilting arm and provided with a couple of levers (14, 15) carrying respective jaws (17, 18) of said pliers, said levers (14, 15) being pivoted on said tilting arm according to a same rotation axis defined by a pivot pin, said jaws (17, 18) being operable to close through the angular rotation of the said levers (14, 15); kinematic means (21, 22) suitable to command the angular rotation in the same direction of said levers (14, 15) of the grip member, so as to cause a corresponding angular rotation of the said jaws (17, 18) for performing, simultaneously with the tilting motion of said arm of the transfer and orientation member, the shifting of said products to be wrapped on a plane vertical and parallel to said plane longitudinal to the feeding line.
A process for making a mineral melt comprising: providing a circulating combustion chamber which contains circulating chamber gases, injecting a stream of particulate fuel into the combustion chamber through a fuel feed pipe, injecting combustion gas into the combustion chamber; mixing the stream of particulate fuel with the combustion gas and with the circulating chamber gases by injecting into the combustion chamber secondary gas, through a secondary gas inlet, wherein the secondary gas is injected adjacent to the stream of particulate fuel and the injection speed of the secondary gas is at least 100 m/s greater than the injection speed of the particulate fuel; suspending particulate mineral material in the circulating chamber gases and combusting the fuel, thereby melting the particulate mineral material and forming a mineral melt and hot exhaust gases; and separating the hot exhaust gases from the melt and collecting the melt. providing a circulating combustion chamber which contains circulating chamber gases, injecting a stream of particulate fuel into the combustion chamber through a fuel feed pipe, injecting combustion gas into the combustion chamber; mixing the stream of particulate fuel with the combustion gas and with the circulating chamber gases by injecting into the combustion chamber secondary gas, through a secondary gas inlet, wherein the secondary gas is injected adjacent to the stream of particulate fuel and the injection speed of the secondary gas is at least 100 m/s greater than the injection speed of the particulate fuel; suspending particulate mineral material in the circulating chamber gases and combusting the fuel, thereby melting the particulate mineral material and forming a mineral melt and hot exhaust gases; and separating the hot exhaust gases from the melt and collecting the melt.
Aqueous emulsion of an associative thickener obtained by polymerization: a) of at least one monomer which is (meth)acrylic acid, preferentially methacrylic acid, b) of at least one monomer which is an ester of (meth)acrylic acid, preferentially ethyl aciylate, c) of at least one monomer having at least one hydrophobic group, the hydrophobic group of the monomer containing at least one hydrophobic group has at least 6 and at most 36 carbon atoms characterized in that d) at least one polyglycerol of formula is used during the said polymerization: where R designates hydrogen, an ester group functionalised by an alkyl group having 8 to 22 carbon atoms or an alkyl group having 8 to 22 carbon atoms, and preferentially an alkyl group having 8 to 22 carbon atoms. a) of at least one monomer which is (meth)acrylic acid, preferentially methacrylic acid, b) of at least one monomer which is an ester of (meth)acrylic acid, preferentially ethyl aciylate, c) of at least one monomer having at least one hydrophobic group,
A catheter system, comprising: - a stent delivery catheter having a proximal end and a distal end and an interior lumen extending between the proximal end and the distal end; - a stent having a proximal end and a distal end and a stent lumen extending between the proximal end and the distal end, the stent having an expanded state and an unexpanded state; - and an embolic protection filter having an expanded state and an unexpanded state; the catheter system having a deployed position and an undeployed position characterized in that, when the catheter system is in the undeployed position, the stent is in its unexpanded state and positioned within the interior lumen of the stent delivery catheter and the embolic protection filter is in its unexpanded state and positioned within the stent lumen of the stent. - a stent delivery catheter having a proximal end and a distal end and an interior lumen extending between the proximal end and the distal end; - a stent having a proximal end and a distal end and a stent lumen extending between the proximal end and the distal end, the stent having an expanded state and an unexpanded state; - and an embolic protection filter having an expanded state and an unexpanded state;
Method for determining the state of energy of an electrochemical accumulator, including the following steps: - using a predetermined set of quadruplets of values relating to operating points of the electrochemical accumulator, including power, temperature, state of energy SOE and remaining energy En, or to operating points of the electrochemical accumulator, including power, temperature, state of energy SOE and slope of the remaining energy En in the accumulator as a function of the state of energy SOE of the accumulator, notably dEn dSOE or dSOE dEn, - reading a first state of energy SOE1 from a memory, - measuring a temperature, and a power, representing the current operation of the accumulator, - determining, on the basis of the predetermined set of quadruplets, a slope of the remaining energy En in the accumulator as a function of the state of energy SOE of the accumulator, notably a slope dEn dSOE or dSOE dEn, at a point representing the first state of energy SOE1, as a function of the measured temperature and measured power (T1, P1), - determining a second state of energy SOE2 as a function of the determined slope, notably dEn dSOE or dSOE dEn, of the first state of energy SOE1, and an energy quantity (P.dt). - using a predetermined set of quadruplets of values relating to operating points of the electrochemical accumulator, including power, temperature, state of energy SOE and remaining energy En, or to operating points of the electrochemical accumulator, including power, temperature, state of energy SOE and slope of the remaining energy En in the accumulator as a function of the state of energy SOE of the accumulator, notably dEn dSOE or dSOE dEn, - reading a first state of energy SOE1 from a memory, - measuring a temperature, and a power, representing the current operation of the accumulator, - determining, on the basis of the predetermined set of quadruplets, a slope of the remaining energy En in the accumulator as a function of the state of energy SOE of the accumulator, notably a slope dEn dSOE or dSOE dEn, at a point representing the first state of energy SOE1, as a function of the measured temperature and measured power (T1, P1), - determining a second state of energy SOE2 as a function of the determined slope, notably dEn dSOE or dSOE dEn, of the first state of energy SOE1, and an energy quantity (P.dt).
A medical device comprising a medicament comprising a hydrophobic analog of a taxane which has the following formula: wherein, R 1 is H; R 2 is COPh or CO(CH 2) 4 CH 3;and R 3 is OtBu, wherein the medical device is selected from a stent, a catheter, a balloon, a wire guide, a cannula, central line, vascular valve, and a prosthetic, wherein the prosthetic is used for treatment of aneurysm.
A process of isolating 1,4-butanediol (1,4-BDO) from a fermentation broth consisting of separating a first liquid fraction of the fermentation broth enriched in 1,4-BDO from a solid fraction of the fermentation broth comprising cells in a separation step consisting of filtration, wherein the filtration consists of micro filtration followed by ultrafiltration, centrifugation followed by ultrafiltration or ultrafiltration and wherein the fermentation broth is from a batch or fed-batch fermentation and comprises 1,4-BDO at a concentration of about 5%-15% by weight of 1,4-BDO; removing salts from the first liquid fraction to produce a second liquid fraction, wherein the salts are removed by nanofiltration and ion exchange; removing water from the second liquid fraction to produce a third liquid fraction, wherein removing water is accomplished by evaporation with an evaporator system comprising one or more effects and a mechanical vapor recompressor, and purifying 1,4-BDO from the third liquid fraction by distillation; to produce a 1,4-BDO product at least 98% pure.
A cable comprising a copper conductor and a polymer layer adjacent to the copper conductor, wherein the polymer layer comprises a polymer composition comprising a polymer of ethylene, which comprises a comonomer with silane groups containing units that are hydrolysable, and a benzotriazole compound.