mhurhangee/ep-ind-claims huggingface dataset:
Method for estimating a molecular mass parameter (m, Sp) in a sample that includes at least one component with a given molecular mass, comprising the following steps: - passing the sample through a processing chain comprising a mass spectrometer with a MEMS or NEMS electromechanical sensor, in order to count the number of successive detections of said component's adsorption, - in this way obtaining a signal representing the molecular mass parameter (m, Sp), and - estimating (104, 106, 108, 200) the molecular mass parameter ( m, Sp) by means of a signal processing device, characterized in that the molecular mass parameter (m, Sp) is defined on the basis of a parameter ( q, m) of time distribution of successive detections, by the MEMS or NEMS electromechanical sensor, of the adsorption of said component, and in that the estimation (104, 106, 108, 200) thereof is made by Bayesian inference, on the basis of a direct analytical modeling of said signal according to the molecular mass parameter and to technical parameters (Ge, Gf, Gc, f, c, g, h, ε) of the processing chain comprising at least one technical parameter (c) of the MEMS or NEMS electromechanical sensor. - passing the sample through a processing chain comprising a mass spectrometer with a MEMS or NEMS electromechanical sensor, in order to count the number of successive detections of said component's adsorption, - in this way obtaining a signal representing the molecular mass parameter (m, Sp), and - estimating (104, 106, 108, 200) the molecular mass parameter ( m, Sp) by means of a signal processing device,
A rolling mill for producing rolling mill product, said rolling mill comprising: a rolling mill line that moves the rolling mill product; a plurality of rolling mill stands (STD13, STD14) that are coupled to the rolling mill line that receives the rolling mill product and rolls the rolling mill product; a plurality of speed measuring devices that are positioned in close proximity to each rolling mill stand, each speed measuring device measures the speed of the rolling mill product as it passes the speed measuring devices; and a control device that receives information associated with the speed measuring devices characterized in that said control device adjusts the speed of the rolling mill product for any speed differential that might exist between any of the rolling mill stands, wherein the speed differential is the difference between the actual speed of the rolling mill product with a calculated speed at a point on the rolling mill line. a rolling mill line that moves the rolling mill product; a plurality of rolling mill stands (STD13, STD14) that are coupled to the rolling mill line that receives the rolling mill product and rolls the rolling mill product; a plurality of speed measuring devices that are positioned in close proximity to each rolling mill stand, each speed measuring device measures the speed of the rolling mill product as it passes the speed measuring devices; and a control device that receives information associated with the speed measuring devices characterized in that said control device adjusts the speed of the rolling mill product for any speed differential that might exist between any of the rolling mill stands, wherein the speed differential is the difference between the actual speed of the rolling mill product with a calculated speed at a point on the rolling mill line.
Membrane holder for hollow fibre membranes, in particular for applying in a tube filter, comprising - a central pipe having spaced apart bands of inlet openings formed along a circumference of the central pipe to flow liquid through the central pipe; - holding elements arranged around the central pipe, which holding elements have radially extending wall parts distributed along the circumference of the central pipe, and closing parts extending between the free ends of theradially extending wall parts for confining a bundle of hollow fibre membranes between two adjacent radially extending wall parts and a closing part; characterized by deflector plates concentrically arranged around and spaced apart from the central pipe and, when viewed in radial direction, covering the bands of inlet openings. - a central pipe having spaced apart bands of inlet openings formed along a circumference of the central pipe to flow liquid through the central pipe; - holding elements arranged around the central pipe, which holding elements have radially extending wall parts distributed along the circumference of the central pipe, and closing parts extending between the free ends of theradially extending wall parts for confining a bundle of hollow fibre membranes between two adjacent radially extending wall parts and a closing part; characterized by
A disposable wearing article having a longitudinal direction, a transverse direction orthogonal to said longitudinal direction and comprising a front waist region, a rear waist region, a crotch region extending between said front and rear waist regions, a waist-opening and a pair of leg-openings, annular elastic waist panels defining said front and rear waist regions and a liquid-absorbent structure attached to the inner surface of said elastic waist panel to define at least a part of said crotch region, said rear waist region comprising a rear waist main section and a buttocks-covering section lying adjacent to said crotch region; said rear waist main section being divided into an upper area lying adjacent to said waist-opening and a lower area lying adjacent to said crotch region; said front waist region being divided into an upper area lying adjacent to said waist-opening and a lower area lying adjacent to said crotch region; and a tensile stress per unit width dimension in said buttocks-covering section being lower than a tensile stress per unit width dimension in said lower area of said rear waist main section; wherein a tensile stress per unit width dimension in said lower area of said front waist region is higher than a tensile stress per unit width dimension in said lower area of said rear waist main section.
Method for controlling a loading process of a feed mixing wagon having a feed hopper, at least one loading component and a loading control unit for controlling the loading component so as to perform the process of loading the feed mixing wagon with feed, the method comprising the following steps: - the control unit receiving information about at least one feed component to be introduced into the feed mixing wagon, - the control unit actuating the at least one loading component as a function of the at least one feed component to be introduced, wherein the control unit only actuates the at least one loading component once the driver of the feed mixing wagon has activated a filling process or activated the corresponding loading component. - the control unit receiving information about at least one feed component to be introduced into the feed mixing wagon, - the control unit actuating the at least one loading component as a function of the at least one feed component to be introduced,
A process for generating signals specific to a plurality of devices, for transmission by a control centre to the devices, each signal including a spread spectrum coding sequence specific to the respective device convolved with a code specific to a command to be performed by an actuator associated with the device, for transmission over a multiple access channel carrying a plurality of such signals, each specific to a respective device, wherein commands relating to each device are capable of extraction by convolving the signal with the spread spectrum encoding sequence specific to the respective device, wherein a further broadcast spread spectrum coding sequence is allocated to a broadcast channel readable by a plurality of the devices and used to transmit general commands for operation by the plurality of devices, wherein the devices are configured to respond to the general commands by changing spread spectrum encoding sequences allocated to the devices for transmission and receiving data, and one or more devices of a first group respond to a set of general commands by switching between a first receive only mode, using a first spread spectrum sequence, a second transmit only mode using the same or a second spread spectrum sequence, full duplex mode using two spread spectrum sequences to transmit and receive simultaneously, and an idle mode in which the devices of the first group are responsive only to the broadcast spread spectrum encoding sequence, and wherein the same set of general commands causes a second group of devices to respond in a manner complementary to the responses of the first group, so that a set of spread spectrum sequences is allocated to the two groups in common, each sequence being used at any given time by only one or other of the two groups.
A linear actuator (1200; 1330) for a gas regulating valve, comprising: a housing; a hollow yoke mounted inside the housing: a coil assembly including a hollow bobbin inserted within the yoke; a magnetic element inserted within the coil assembly; a circuit assembly coupled to the outer surface of the yoke; and a central aperture of the yoke, the coil assembly and the magnetic element adapted to receive a gas flow path therethrough, wherein the coil assembly includes the bobbin having a wire coil wound thereon and wire aligning structures (1212a, 1212b) adapted to facilitate attachment of ends of the wire coil to the circuit assembly through apertures provided in the yoke, and wherein the coil assembly is adapted to move in a linear direction within the yoke in response to electro-magnetic forces applied by the stationary magnetic element a housing; a hollow yoke mounted inside the housing: a coil assembly including a hollow bobbin inserted within the yoke; a magnetic element inserted within the coil assembly; a circuit assembly coupled to the outer surface of the yoke; and a central aperture of the yoke, the coil assembly and the magnetic element adapted to receive a gas flow path therethrough, a coil assembly including a hollow bobbin inserted within the yoke; a magnetic element inserted within the coil assembly; a circuit assembly coupled to the outer surface of the yoke; and a central aperture of the yoke, the coil assembly and the magnetic element adapted to receive a gas flow path therethrough, wherein the coil assembly includes the bobbin having a wire coil wound thereon and wire aligning structures (1212a, 1212b) adapted to facilitate attachment of ends of the wire coil to the circuit assembly through apertures provided in the yoke, and wherein the coil assembly is adapted to move in a linear direction within the yoke in response to electro-magnetic forces applied by the stationary magnetic element
A method for a UE (170, 270, 370, 470), comprising: - the UE (170, 270, 370, 470) registering with a network via a cell, wherein the cell is a femto cell of a Close Subscriber Group, CSG; - the UE (170, 270, 370, 470), during registration via the cell: requesting a type of connectivity supported in the cell for a specific access point name, APN, the type of connectivity comprising local access wherein the local access is an internet protocol, IP, access; receiving an indication of the type of connectivity supported for the specific APN via the cell; and - the UE (170, 270, 370, 470), based on the indication, deciding whether to establish a connection to the APN via the cell, the connection using the type of connectivity supported. - the UE (170, 270, 370, 470) registering with a network via a cell, wherein the cell is a femto cell of a Close Subscriber Group, CSG; - the UE (170, 270, 370, 470), during registration via the cell: requesting a type of connectivity supported in the cell for a specific access point name, APN, the type of connectivity comprising local access wherein the local access is an internet protocol, IP, access; receiving an indication of the type of connectivity supported for the specific APN via the cell; and requesting a type of connectivity supported in the cell for a specific access point name, APN, the type of connectivity comprising local access wherein the local access is an internet protocol, IP, access; receiving an indication of the type of connectivity supported for the specific APN via the cell; and - the UE (170, 270, 370, 470), based on the indication, deciding whether to establish a connection to the APN via the cell, the connection using the type of connectivity supported.
A method for manufacturing a semiconductor package containing a heat dissipating member, an insulation member and a joining layer, wherein the heat dissipating member comprises an aluminum-diamond composite containing diamond grains and a metal containing aluminum, the insulation member is composed of alumina, silicon nitride or aluminum nitride, the heat dissipating member comprises a composited portion of the aluminum-diamond composite and surface layers provided on both surfaces of the composited portion, and the surface layers are composed of at least 99 mass-% of aluminum, characterized in that the method comprises: a step of providing a composite material containing an aliphatic carboxylic acid or an amine compound coated silver fine particles having an average particle size of at least 1 nm and at most 100 μm in a joint portion between the heat dissipating member and the insulation member; and a step of heating to a temperature of at least 520 °C and at most 550 °C so as to form the composite material into the joining layer joining the heat dissipating member and the insulation member. the heat dissipating member comprises an aluminum-diamond composite containing diamond grains and a metal containing aluminum, the insulation member is composed of alumina, silicon nitride or aluminum nitride, the heat dissipating member comprises a composited portion of the aluminum-diamond composite and surface layers provided on both surfaces of the composited portion, and the surface layers are composed of at least 99 mass-% of aluminum, characterized in that the method comprises: a step of providing a composite material containing an aliphatic carboxylic acid or an amine compound coated silver fine particles having an average particle size of at least 1 nm and at most 100 μm in a joint portion between the heat dissipating member and the insulation member; and a step of heating to a temperature of at least 520 °C and at most 550 °C so as to form the composite material into the joining layer joining the heat dissipating member and the insulation member. a step of providing a composite material containing an aliphatic carboxylic acid or an amine compound coated silver fine particles having an average particle size of at least 1 nm and at most 100 μm in a joint portion between the heat dissipating member and the insulation member; and a step of heating to a temperature of at least 520 °C and at most 550 °C so as to form the composite material into the joining layer joining the heat dissipating member and the insulation member.
Method for identifying an object in a surrounding region of a motor vehicle as a stationary object, wherein in the method, the surrounding region is captured in images (12, 14) using a vehicle-side capture device and the object is detected in at least one of the captured images (12, 14) using an image processing device, wherein a first position of the object in the surrounding region relative to the motor vehicle is estimated on the basis of at least one first captured image, wherein the first position describes a first, possible distance of the captured object from the motor vehicle, a movement sequence of the object (8', 8") in image coordinates (a, b) is determined on the basis of the first image and at least one second captured image, a first movement sequence that characterizes a first, stationary object in the image coordinates (a, b) is determined proceeding from the first estimated position in the surrounding region, and the captured object is identified as a stationary object on the basis of a comparison of the movement sequence of the captured object (8', 8") to the first characterizing movement sequence, characterized in that a second position of the object in the surrounding region relative to the motor vehicle is estimated additionally on the basis of the at least one first image, wherein the second position describes a second, possible distance of the object from the motor vehicle, and, proceeding from the second estimated position in the surrounding region, a second movement sequence that characterizes a stationary object in the image coordinates (a, b) is determined, and the captured object is identified on the basis of the comparison of the movement sequence of the captured object (8', 8") to the first and the second characterizing movement sequence.
A human-carried work machine comprising an engine and an electric motor as prime movers for driving a tool, wherein the engine comprises an output shaft that is connected to the tool, characterised in that the electric motor is configured to apply torque to the output shaft of the engine.
A method for sealing a glass package comprising: providing an assembly comprising first and second glass substrates (28, 30) and a sealing material disposed between the first and second substrates (28, 30); and directing a fluid against the assembly to apply a predetermined force against the assembly; irradiating the sealing material with an irradiation source; and translating the force and the irradiation source over the sealing material in unison during the irradiating, thereby forming a seal between the first and second substrates (28, 30). providing an assembly comprising first and second glass substrates (28, 30) and a sealing material disposed between the first and second substrates (28, 30); and directing a fluid against the assembly to apply a predetermined force against the assembly; irradiating the sealing material with an irradiation source; and translating the force and the irradiation source over the sealing material in unison during the irradiating, thereby forming a seal between the first and second substrates (28, 30).
A wall having a stiffener integrally formed therein, the stiffener comprising: a first side panel that extends from the wall; a second side panel that extends from the wall; and an intermediate panel that extends between the first side panel and the second side panel; wherein the first and second side panels (30, 32) and the intermediate panel at least substantially enclose a cavity there between, and the first side panel of the stiffener includes a base portion and a distal portion, wherein the base portion extends from the wall, and wherein the distal portion is connected to the intermediate panel of the stiffener, characterised in that: the first side panel of the stiffener further includes a bent portion extending between the base portion and the distal portion. a first side panel that extends from the wall; a second side panel that extends from the wall; and an intermediate panel that extends between the first side panel and the second side panel; wherein the first and second side panels (30, 32) and the intermediate panel at least substantially enclose a cavity there between, and the first side panel of the stiffener includes a base portion and a distal portion, wherein the base portion extends from the wall, and wherein the distal portion is connected to the intermediate panel of the stiffener, characterised in that: the first side panel of the stiffener further includes a bent portion extending between the base portion and the distal portion.
A running gear for a low floor rail vehicle, comprising: - a frame defining a transverse reference axis and a vertical transverse reference plane containing the transverse reference axis, a vertical longitudinal median plane perpendicular to the transverse reference axis and a horizontal reference plane containing the transverse reference axis; - a single pair of independent left and right wheels, located on a left, respectively right side of the vertical longitudinal median plane, equidistant from the vertical longitudinal median plane; - a single pair of left and right rotation bearings attached to the frame, allowing the left and right wheels, to independently spin about a left, respectively right spin axis (100L, 100R) aligned with the transverse reference axis; - a secondary suspension resting on the frame for supporting a vehicle body of the rail vehicle; and - lateral stop means fixed to the frame for laterally guiding the vehicle body of the rail vehicle, the lateral stop means comprising a left and a right contact face facing a left, respectively right, transverse direction parallel to the transverse reference axis, wherein the left and right contact faces are located between the left and right wheels, characterised in that the frame includes a pair of left and right longitudinal beams which support each a respective one of the left and right rotation bearings, a pair of front and rear transverse beams, each extending between respective ends of the left and right longitudinal beams on opposite sides of the vertical transverse reference plane, and at least one longitudinal support beam extending between the front and rear transverse beam, wherein at least one of the left and right contact faces is supported by the longitudinal support beam. - a frame defining a transverse reference axis and a vertical transverse reference plane containing the transverse reference axis, a vertical longitudinal median plane perpendicular to the transverse reference axis and a horizontal reference plane containing the transverse reference axis; - a single pair of independent left and right wheels, located on a left, respectively right side of the vertical longitudinal median plane, equidistant from the vertical longitudinal median plane; - a single pair of left and right rotation bearings attached to the frame, allowing the left and right wheels, to independently spin about a left, respectively right spin axis (100L, 100R) aligned with the transverse reference axis; - a secondary suspension resting on the frame for supporting a vehicle body of the rail vehicle; and - lateral stop means fixed to the frame for laterally guiding the vehicle body of the rail vehicle, the lateral stop means comprising a left and a right contact face facing a left, respectively right, transverse direction parallel to the transverse reference axis, wherein the left and right contact faces are located between the left and right wheels,