mhurhangee/ep-ind-claims huggingface dataset:
Battery of lithium electrochemical cells comprising: - a casing; - a plurality of lithium electrochemical cells (3, 3', 3") housed in the casing, each cell comprising a container and at least one electrochemical cell comprising a container having an end closed by a wall having a thinning (13, 13', 13") adapted to be ruptured by an overpressure inside the container, the container being of cylindrical shape and the thinning having a circular shape; - a rigid, flame-retardant foam with closed porosity formed of an electrically insulating material filling the space between the inner wall of the casing and the free surface of the side wall of the container of each electrochemical cell, said foam covering the free surface of the side wall of the container of each electrochemical cell over a length representing at least 25 % of the height of the container, said foam covering the closed end on a surface located outside the circular shape, the thinning not being masked by the foam, said foam retaining its closed porosity as well as its rigid and watertight structure, even in case of a sharp increase in its temperature due to a fire and/or hot gases, the hot gases escaping in a volume delimited by the bottom container, the bottom of the casing and the foam. - a casing; - a plurality of lithium electrochemical cells (3, 3', 3") housed in the casing, each cell comprising a container and at least one electrochemical cell comprising a container having an end closed by a wall having a thinning (13, 13', 13") adapted to be ruptured by an overpressure inside the container, the container being of cylindrical shape and the thinning having a circular shape; - a rigid, flame-retardant foam with closed porosity formed of an electrically insulating material filling the space between the inner wall of the casing and the free surface of the side wall of the container of each electrochemical cell, said foam covering the free surface of the side wall of the container of each electrochemical cell over a length representing at least 25 % of the height of the container, said foam covering the closed end on a surface located outside the circular shape, the thinning not being masked by the foam, said foam retaining its closed porosity as well as its rigid and watertight structure, even in case of a sharp increase in its temperature due to a fire and/or hot gases, the hot gases escaping in a volume delimited by the bottom container, the bottom of the casing and the foam.
A method of storing data allowing a seed value for generating an encryption key to be retrieved, the method comprising: obtaining, for each of a plurality of biological data sources, a respective set of biometric data from an authorised user; generating, from each set of biometric data, a respective biometric identifier; storing the biometric identifiers in a database; generating a plurality of seed portions that are combinable using a non-commutative function to generate the seed value; storing each seed portion in the database in association with a biometric identifier; and receiving a code from the user defining a sequence of the biometric identifiers indicating which biological data sources the user intends to use, wherein a respective one of the plurality of seed portions is generated for each biometric identifier and stored in the database in association with the corresponding biometric identifier. obtaining, for each of a plurality of biological data sources, a respective set of biometric data from an authorised user; generating, from each set of biometric data, a respective biometric identifier; storing the biometric identifiers in a database; generating a plurality of seed portions that are combinable using a non-commutative function to generate the seed value; storing each seed portion in the database in association with a biometric identifier; and receiving a code from the user defining a sequence of the biometric identifiers indicating which biological data sources the user intends to use, wherein a respective one of the plurality of seed portions is generated for each biometric identifier and stored in the database in association with the corresponding biometric identifier.
Method for controlling a system for supplying diesel fuel on a motor vehicle, the system comprising a fuel tank, a first pump called a low-pressure pump taking fuel from the tank and delivering it to a second pump called the high-pressure pump, in which method the first pump is controlled to regulate the quantity of fuel provided as a function of the needs of the second pump, characterized in that the geographical position of the vehicle is determined and the first pump is controlled to a maximum pressure level if the vehicle is in one of several predefined probable stopping zones.
A network-based method of improving communications in a cellular wireless communication network, wherein a first serving node including a first transceiver provides communication services to users in a cell covering a geographic area, the method comprising, by an Application Server or Operation and Support System in the cellular wireless communication network or by the first serving node: monitoring activities of the users and determining that the cell has a capacity deficiency if a traffic load in the cell exceeds a predetermined threshold; determining whether the capacity deficiency is localized within an area of the cell; characterized by when the capacity deficiency is localized within the area, determining a geographic position of the localized area by determining a geographic position of at least one user in the localized area experiencing the capacity deficiency; and in response to a pattern of the capacity deficiency at the geographic position of the localized area in the cell, determining that a second serving node (16, 18, 20) should be deployed near the determined geographic position of the localized area to alleviate the capacity deficiency, wherein the second serving node (16, 18, 20) transmits at a lower power level than the first serving node. monitoring activities of the users and determining that the cell has a capacity deficiency if a traffic load in the cell exceeds a predetermined threshold; determining whether the capacity deficiency is localized within an area of the cell; characterized by when the capacity deficiency is localized within the area, determining a geographic position of the localized area by determining a geographic position of at least one user in the localized area experiencing the capacity deficiency; and in response to a pattern of the capacity deficiency at the geographic position of the localized area in the cell, determining that a second serving node (16, 18, 20) should be deployed near the determined geographic position of the localized area to alleviate the capacity deficiency, wherein the second serving node (16, 18, 20) transmits at a lower power level than the first serving node.
A method of anchoring a vehicle on an equal potential zone comprising: placing a first vehicle on the equal potential zone; electrically bonding the first vehicle to the equal potential zone; characterized by locating an anchor off of the equal potential zone and spaced from the equal potential zone; mechanically connecting the anchor to the first vehicle; and electrically insulating the anchor from the first vehicle.
A vibration exciting system, comprising: a mounting ring, configured to be annular; a plurality of fixing parts, each having one end fixedly connected to the mounting ring; a length direction of each fixing part is along a radial direction of the mounting ring; a plurality of holders, each slidably mounted at the other end of each of the fixing parts, the plurality of holders being arranged circumferentially of the mounting ring; and characterised in that the vibration exciting system further comprises: a plurality of guide rails, each connecting two adjacent holders, wherein connection positions of each of the guide rails and the two adjacent holder being adjustable; and a plurality of nozzle assemblies, are mounted on the holders respectively. a mounting ring, configured to be annular; a plurality of fixing parts, each having one end fixedly connected to the mounting ring; a length direction of each fixing part is along a radial direction of the mounting ring; a plurality of holders, each slidably mounted at the other end of each of the fixing parts, the plurality of holders being arranged circumferentially of the mounting ring; and characterised in that the vibration exciting system further comprises: a plurality of guide rails, each connecting two adjacent holders, wherein connection positions of each of the guide rails and the two adjacent holder being adjustable; and a plurality of nozzle assemblies, are mounted on the holders respectively. a plurality of guide rails, each connecting two adjacent holders, wherein connection positions of each of the guide rails and the two adjacent holder being adjustable; and a plurality of nozzle assemblies, are mounted on the holders respectively.
A field device for use in an industrial process, wherein the field device is configured to communicate with a central location, the field device comprising: a process interface element configured to measure or control a process variable; a first communication system configured to provide communications between at least two first components of the field device; a second communication system configured to provide communications between at least two second components of the field device; characterized by: a signal inverter configured to couple an inverted signal from the second communication system to the first communication system to thereby reduce interference received by the first communication system from the second communication system. a process interface element configured to measure or control a process variable; a first communication system configured to provide communications between at least two first components of the field device; a second communication system configured to provide communications between at least two second components of the field device; characterized by: a signal inverter configured to couple an inverted signal from the second communication system to the first communication system to thereby reduce interference received by the first communication system from the second communication system.
Paper mill rewinder for forming reels of paper strip material around a winding rod, the ends of which are provided with two spindles (2', 2"), where said rewinder comprises: - a supporting frame; - feed means for a winding rod; - a main forming cradle for a reel around said winding rod, comprising a first and a second winding roller; - means for unloading said reel once formed; - a control unit; - a secondary pre-forming cradle for said reel, comprising a third winder roller and lateral supporting means for said reel; - means for transferring said reel from said secondary pre-forming cradle to said main forming cradle, where said transfer takes place without interruption to the winding of the strip onto said rod, the paper mill rewinder being characterized in that it also comprises: - first motor means adapted to cooperate with said spindles (2', 2") and to impart a rotation movement to said winding rod inside said secondary cradle; - gripping means (9', 9") adapted to cooperate idly with said spindles (2', 2") and to support said winding rod above said main cradle, where the cooperation between said motor means and said gripping means (9', 9") with said spindles (2', 2") makes it possible to never abandon the reel in all forming phases. - a supporting frame; - feed means for a winding rod; - a main forming cradle for a reel around said winding rod, comprising a first and a second winding roller; - means for unloading said reel once formed; - a control unit; - a secondary pre-forming cradle for said reel, comprising a third winder roller and lateral supporting means for said reel; - means for transferring said reel from said secondary pre-forming cradle to said main forming cradle, where said transfer takes place without interruption to the winding of the strip onto said rod, the paper mill rewinder being characterized in that it also comprises: - first motor means adapted to cooperate with said spindles (2', 2") and to impart a rotation movement to said winding rod inside said secondary cradle; - gripping means (9', 9") adapted to cooperate idly with said spindles (2', 2") and to support said winding rod above said main cradle, - first motor means adapted to cooperate with said spindles (2', 2") and to impart a rotation movement to said winding rod inside said secondary cradle; - gripping means (9', 9") adapted to cooperate idly with said spindles (2', 2") and to support said winding rod above said main cradle,
A method of manufacturing a hot-dip galvanized steel sheet, the method comprising: preparing a base steel sheet; forming an iron Fe-plated layer on the prepared base steel sheet wherein a coating weight of the Fe-plated layer is in a range of 0.25 g/m 2 to 2 g/m 2; oxidation heating the steel sheet having the Fe-plated layer formed thereon at a temperature ranging from 640°C to 750°C, wherein the heating is performed in a direct flame furnace by controlling an air-fuel ratio as defined herein, and the air-fuel ratio is controlled to be between 1.08 and 1.35; maintaining the heated steel sheet at a temperature ranging from 780°C to 850°C for 10-60 seconds in a reducing atmosphere with a dew point of between -10°C to 5°C including 20 ppm or less of oxygen, 2 vol% to 20 vol% of H 2, and N 2 as well as unavoidable gases as a remainder; cooling the maintained steel sheet; and plating the cooled steel sheet by dipping in a hot-dip galvanizing bath, wherein a temperature of the hot-dip galvanizing bath is in a range of 445°C to 470°C, wherein the base steel sheet comprises 0.3 wt% or less of carbon, 1.0 wt% to 6.0 wt% of one or more of silicon (Si), manganese (Mn), and aluminum (Al), and 0.5 wt% or less of one or more of chromium (Cr), nickel (Ni), copper (Cu), molybdenum (Mo), phosphorous, sulfur, antimony (Sb), titanium (Ti), niobium (Nb), and nitrogen. preparing a base steel sheet; forming an iron Fe-plated layer on the prepared base steel sheet wherein a coating weight of the Fe-plated layer is in a range of 0.25 g/m 2 to 2 g/m 2; oxidation heating the steel sheet having the Fe-plated layer formed thereon at a temperature ranging from 640°C to 750°C, wherein the heating is performed in a direct flame furnace by controlling an air-fuel ratio as defined herein, and the air-fuel ratio is controlled to be between 1.08 and 1.35; maintaining the heated steel sheet at a temperature ranging from 780°C to 850°C for 10-60 seconds in a reducing atmosphere with a dew point of between -10°C to 5°C including 20 ppm or less of oxygen, 2 vol% to 20 vol% of H 2, and N 2 as well as unavoidable gases as a remainder; cooling the maintained steel sheet; and plating the cooled steel sheet by dipping in a hot-dip galvanizing bath, wherein a temperature of the hot-dip galvanizing bath is in a range of 445°C to 470°C, wherein the base steel sheet comprises 0.3 wt% or less of carbon, 1.0 wt% to 6.0 wt% of one or more of silicon (Si), manganese (Mn), and aluminum (Al), and 0.5 wt% or less of one or more of chromium (Cr), nickel (Ni), copper (Cu), molybdenum (Mo), phosphorous, sulfur, antimony (Sb), titanium (Ti), niobium (Nb), and nitrogen.
A surgical robotic system comprising: a surgical console including a handle controller; a robotic arm including an instrument having: a plurality of cables (380a,b,c) that are movable longitudinally; and an end effector movable by the cables, the end effector having a pair of opposing jaws; and a processor configured to: determine an amount of orientation misalignment of an instrument tool center point, and adjust the instrument based on the amount of orientation misalignment of the instrument tool center point; wherein the processor is further configured to calculate a motion axis based on a difference between a current instrument desired orientation and a previous instrument desired orientation, the current instrument desired orientation being based on an orientation of the handle controller; wherein the processor is further configured to calculate a user delta orientation input based on a difference between a current orientation of the handle controller and a previous orientation of the handle controller; wherein the processor is further configured to calculate an unadjusted instrument commanded orientation by adding the user delta orientation input to a previous instrument commanded orientation; wherein the processor is further configured to calculate a misalignment axis, which is a difference between the current instrument desired orientation and the unadjusted instrument commanded orientation; wherein the processor is further configured to calculate an adjustment value based on an angle between the motion axis and the misalignment axis, characterized wherein the processor is further configured to calculate the adjustment value using a first negative punishing scale in response to a cosine of the angle being positive; wherein the processor is further configured to calculate the adjustment value using a second negative punishing scale in response to a cosine of the angle being negative, the second negative punishing scale being larger than the first negative punishing scale in absolute value. a surgical console including a handle controller; a robotic arm including an instrument having: a plurality of cables (380a,b,c) that are movable longitudinally; and an end effector movable by the cables, the end effector having a pair of opposing jaws; and a plurality of cables (380a,b,c) that are movable longitudinally; and an end effector movable by the cables, the end effector having a pair of opposing jaws; and a processor configured to: determine an amount of orientation misalignment of an instrument tool center point, and adjust the instrument based on the amount of orientation misalignment of the instrument tool center point; determine an amount of orientation misalignment of an instrument tool center point, and adjust the instrument based on the amount of orientation misalignment of the instrument tool center point;
A method implemented at a network device, comprising: dividing a wireless system bandwidth into a plurality of non-overlapping bandwidth ranges each comprising a plurality of operating channels available for channel bonding; allocating one of the plurality of bandwidth ranges for a wireless communication between the network device and a terminal device served by the network device; and determining, from the plurality of operating channels for the bandwidth range, one operating channel as a primary channel of the wireless communication; wherein allocating one bandwidth range for the wireless communication comprises: determining, through a communication between the network device and a neighboring network device, at least one of a bandwidth range used by the neighboring network device and a bandwidth range used by a terminal device served by the neighboring network device; and selecting, from the plurality of bandwidth ranges, a bandwidth range non-overlapping with the determined bandwidth range for the wireless communication. dividing a wireless system bandwidth into a plurality of non-overlapping bandwidth ranges each comprising a plurality of operating channels available for channel bonding; allocating one of the plurality of bandwidth ranges for a wireless communication between the network device and a terminal device served by the network device; and determining, from the plurality of operating channels for the bandwidth range, one operating channel as a primary channel of the wireless communication; wherein allocating one bandwidth range for the wireless communication comprises: determining, through a communication between the network device and a neighboring network device, at least one of a bandwidth range used by the neighboring network device and a bandwidth range used by a terminal device served by the neighboring network device; and selecting, from the plurality of bandwidth ranges, a bandwidth range non-overlapping with the determined bandwidth range for the wireless communication. determining, through a communication between the network device and a neighboring network device, at least one of a bandwidth range used by the neighboring network device and a bandwidth range used by a terminal device served by the neighboring network device; and selecting, from the plurality of bandwidth ranges, a bandwidth range non-overlapping with the determined bandwidth range for the wireless communication.
A filling apparatus for filling cavities of a rotary press, comprising a filling material reservoir and a filling chamber, which is connected to the filling material reservoir, with a filling opening, from which filling material can enter the cavities of the rotary press, wherein a first rotationally driven stirrer blade wheel with stirrer blades and a second rotationally driven stirrer blade wheel with stirrer blades are arranged one above the other in the filling chamber, characterized in that the first stirrer blade wheel and the second stirrer blade wheel are rotationally driven by concentric rotary shafts, wherein the first and second stirrer blade wheels (26, 28) differ with regard to their direction of rotation and/or their rotational speed.
A method for transmitting capability information in a wireless communication system, the method performed by a user equipment, UE, which supports a device to device, D2D, communication and a D2D discovery, and comprising: generating (S210, S310) the capability information indicating a capability of the UE; and transmitting (S220, S320) the capability information to a network, wherein the capability information includes simultaneous support band information and D2D discovery support band information, wherein the simultaneous support band information includes at least one frequency band on which the UE supports a simultaneous transmission of a cellular communication and the D2D communication, and wherein the D2D discovery support band information includes frequency bands on which the UE supports the D2D discovery. generating (S210, S310) the capability information indicating a capability of the UE; and transmitting (S220, S320) the capability information to a network, wherein the capability information includes simultaneous support band information and D2D discovery support band information, wherein the simultaneous support band information includes at least one frequency band on which the UE supports a simultaneous transmission of a cellular communication and the D2D communication, and wherein the D2D discovery support band information includes frequency bands on which the UE supports the D2D discovery.
A method for opening value document packages in which value documents, in particular banknotes, are packaged with a packaging material, wherein a region of the packaging material is heated with hot air in such a manner that the packaging material opens along a cutting pattern.
Regulating valve for a drive of a door or of a window, having a valve body, consisting in particular of plastic, and a valve member, wherein the valve body comprises a valve head which is provided with a tool receptacle for an actuating tool, characterized in that the tool receptacle of the valve head, which consists of elastic material, is configured as an elongate slot which extends transversely through the valve head, and the valve head is provided with two mutually opposite prestressing flanks which are arranged on its circumference and which extend radially outwards transversely to the longitudinal direction of the slot.