mhurhangee/ep-ind-claims huggingface dataset:
A device for filtering emissions on a network supplied with current, positioned upstream of an apparatus to be protected, the filtering device having at least the following elements in combination: - a bidirectional DC-to-DC conversion manager adapted to supply a setpoint value to the terminals of an energy reserve capacitor, - a module for extracting the current flowing in the network, configured to transmit an extracted current I C to a bandpass filter adapted to eliminate the DC component of the extracted current, - a subtractor configured to receive the remaining AC component of the extracted current and a given reference current value I ref, and adapted to generate an error signal S e, - a correction module adapted to process the error signal S e and to generate a corresponding voltage value V cons, and to transmit the error voltage value V cons to a summer adapted to receive a reference voltage value and a charging voltage value of the energy reserve and to weight these three values before transmitting them to a component manager configured to provide the bidirectional DC-to-DC conversion manager with commands so that said bidirectional DC-to-DC conversion manager applies a voltage to the terminals of the energy reserve capacitor such that said energy reserve capacitor supplies energy to the network or, by contrast, takes energy from the network by charging itself. - a bidirectional DC-to-DC conversion manager adapted to supply a setpoint value to the terminals of an energy reserve capacitor, - a module for extracting the current flowing in the network, configured to transmit an extracted current I C to a bandpass filter adapted to eliminate the DC component of the extracted current, - a subtractor configured to receive the remaining AC component of the extracted current and a given reference current value I ref, and adapted to generate an error signal S e, - a correction module adapted to process the error signal S e and to generate a corresponding voltage value V cons, and to transmit the error voltage value V cons to a summer adapted to receive a reference voltage value and a charging voltage value of the energy reserve and to weight these three values before transmitting them to a component manager configured to provide the bidirectional DC-to-DC conversion manager with commands so that said bidirectional DC-to-DC conversion manager applies a voltage to the terminals of the energy reserve capacitor such that said energy reserve capacitor supplies energy to the network or, by contrast, takes energy from the network by charging itself.
Surgical implant for the treatment of the prolapse of a pelvic organ (1a,1b) by laparoscopy and via sacrocolpopexy and/or sacrohysteropexy, comprising a fabric of implantable material including; - a first portion for the fastening of said fabric to one or more points of the pelvic cavity, - a second portion which is joined to said first portion for the fastening of said fabric to said pelvic organ (1a,1b), said second portion of fabric including; - two sections (5a,5b) of fabric to respectively fix in the anterior and posterior part of said pelvic organ (1a,1b), said two sections (5a,5b) of fabric being disposed substantially parallel in the same plane and separated from one another by a distance "d", said second portion of fabric further comprising; - a third section of fabric which acts as connecting bridge of said two parallel sections (5a,5b) to cover said distance "d" of separation, wherein said third section of fabric which act as a bridge extends between said two parallel sections with its lateral edge substantially aligned with the edge of the ends of said two parallel sections, toward the first portion and wherein said first portion for the fastening of the fabric to the pelvic cavity includes; - a section of fabric to fix to the sacral promontory which extends substantially aligned with and joined to the end of one of said two parallel sections (5a,5b), said section of fabric to fix to the sacral promontory forming a substantially right angle with the third section which acts as a bridge, making it possible for said third bridge section to partially and laterally surround said pelvic organ (1a,1b) to place said two parallel sections (5a,5b) in the anterior or posterior part of said organ (1a, 1b). - a first portion for the fastening of said fabric to one or more points of the pelvic cavity, - a second portion which is joined to said first portion for the fastening of said fabric to said pelvic organ (1a,1b), said second portion of fabric including; - two sections (5a,5b) of fabric to respectively fix in the anterior and posterior part of said pelvic organ (1a,1b), said two sections (5a,5b) of fabric being disposed substantially parallel in the same plane and separated from one another by a distance "d", said second portion of fabric further comprising; - a third section of fabric which acts as connecting bridge of said two parallel sections (5a,5b) to cover said distance "d" of separation, wherein said third section of fabric which act as a bridge extends between said two parallel sections with its lateral edge substantially aligned with the edge of the ends of said two parallel sections, toward the first portion and wherein - a section of fabric to fix to the sacral promontory which extends substantially aligned with and joined to the end of one of said two parallel sections (5a,5b), said section of fabric to fix to the sacral promontory forming a substantially right angle with the third section which acts as a bridge, making it possible for said third bridge section to partially and laterally surround said pelvic organ (1a,1b) to place said two parallel sections (5a,5b) in the anterior or posterior part of said organ (1a, 1b).
A method of configuring an intelligent electronic device, IED, hosting a logical node instance, the method comprising: binding incoming signals of the IED to inputs of a function to map the incoming signals to the inputs of the function, the function being performed by the logical node instance in operation of an industrial automation control system, IACS, wherein binding the incoming signals to the inputs of the function comprises the following steps performed by a computing device prior to operation of the IED: determining, based on an input data template of the logical node instance, which data is required by the logical node instance to perform the function, wherein the input data template is a template input section for late binding that is included in a configuration description; determining, using process related information of the IACS included in the configuration description, source IEDs (22, 23) of the IACS that provide the data required by the logical node instance to perform the function, and names of the signals at the source IEDs (22, 23); and complementing configuration data of the IED by adding the names of the signals at the source IEDs (22, 23) to the template input section. determining, based on an input data template of the logical node instance, which data is required by the logical node instance to perform the function, wherein the input data template is a template input section for late binding that is included in a configuration description; determining, using process related information of the IACS included in the configuration description, source IEDs (22, 23) of the IACS that provide the data required by the logical node instance to perform the function, and names of the signals at the source IEDs (22, 23); and source IEDs (22, 23) of the IACS that provide the data required by the logical node instance to perform the function, and names of the signals at the source IEDs (22, 23); and complementing configuration data of the IED by adding the names of the signals at the source IEDs (22, 23) to the template input section.
An exposure apparatus comprising: a formation module configured to form a plurality of charged particle beams with different irradiation positions on a specimen, wherein the formation module includes a particle source configured to emit a charged particle beam from an emission region in which a width in a longitudinal direction is different from a width in a lateral direction orthogonal to the longitudinal direction, an aperture array device provided with a plurality of openings arranged in an illuminated region in which a width in a longitudinal direction is different from a width in a lateral direction orthogonal to the longitudinal direction, an illumination lens (30, 50) provided between the particle source and the aperture array device, and characterized in that the formation module further includes a beam cross-section deformation device provided between the particle source and the aperture array device, and configured to deform a cross-sectional shape of the charged particle beam into a longer and thinner shape than a shape of the emission region by an action of any of a magnetic field and an electric field. a formation module configured to form a plurality of charged particle beams with different irradiation positions on a specimen, wherein the formation module includes a particle source configured to emit a charged particle beam from an emission region in which a width in a longitudinal direction is different from a width in a lateral direction orthogonal to the longitudinal direction, an aperture array device provided with a plurality of openings arranged in an illuminated region in which a width in a longitudinal direction is different from a width in a lateral direction orthogonal to the longitudinal direction, an illumination lens (30, 50) provided between the particle source and the aperture array device, and characterized in that the formation module further includes a beam cross-section deformation device provided between the particle source and the aperture array device, and configured to deform a cross-sectional shape of the charged particle beam into a longer and thinner shape than a shape of the emission region by an action of any of a magnetic field and an electric field.
A method for generating a personalized scaffold for an individual, the method comprising: acquiring images of an anatomy of interest corresponding to an intended scaffold location; acquiring test results related to the anatomy of interest; generating one or more functional specifications based on the images and test results; selecting one or more scaffold parameters based on the one or more functional specifications; generating a final scaffold using the one or more scaffold parameters (325, 330), characterized in that the one or more functional specifications comprise one or more clinical parameters, wherein the one or more clinical parameters comprise one or more of a diameter, ejection fraction, flow or volume corresponding to the anatomy of interest, wherein one or more scaffold parameters comprise a set of optimal printer parameters and generating the final scaffold using the one or more scaffold parameters comprises: identifying a mapping function which describes a relationship between the one or more functional specifications and printer parameters corresponding to a three-dimensional printer; selecting one or more desired output characteristics; generating the set of optimal printer parameters by optimizing the mapping function according to the one or more desired output characteristics; and using the three-dimensional printer to print a personalized organ according to the set of optimal printer parameters. acquiring images of an anatomy of interest corresponding to an intended scaffold location; acquiring test results related to the anatomy of interest; generating one or more functional specifications based on the images and test results; selecting one or more scaffold parameters based on the one or more functional specifications; generating a final scaffold using the one or more scaffold parameters (325, 330), characterized in that identifying a mapping function which describes a relationship between the one or more functional specifications and printer parameters corresponding to a three-dimensional printer; selecting one or more desired output characteristics; generating the set of optimal printer parameters by optimizing the mapping function according to the one or more desired output characteristics; and using the three-dimensional printer to print a personalized organ according to the set of optimal printer parameters.
Adjustable lighting device for vehicles comprising a housing or headlamp body designed to be at least partially housed inside an engine compartment of a vehicle and provided externally with at least one control device for an adjusting device of the tilt angle of emission of a light beam of at least one headlight of the lighting device; the control device comprising a rotating element carried idly by the housing or headlamp body inside a seat of the housing or headlamp body accessible from the outside of the housing or headlamp body; the rotating element being provided with a gripping cavity adapted to receive through the seat a male tool for driving in rotation the rotating element; wherein the housing or headlamp body is provided externally, at the seat for the rotating element, with a guide bracket that extends upwards, from the seat for the rotating element up to the vicinity of an upper portion of the housing or headlamp body, at which the guide bracket has an upper end provided with a first inlet opening for the male tool, which first inlet opening, in use, is arranged in a visible and accessible way in the engine, when the adjustable lighting device being installed in the vehicle; wherein the guide bracket delimits therein a substantially rectilinear guide channel for the male tool, the guide channel extending from the first inlet opening up to a base of the guide bracket, said base being open towards the seat of the rotating element and being arranged facing the rotating element, characterised in that - the gripping cavity is adapted to receive through the seat the male tool with a hexagonal ball head; - the guide bracket has a second inlet opening for the male tool arranged at the base of the guide bracket opposite to the upper end of the guide bracket, the gripping cavity of the rotating element being directly accessible for the male tool through the second inlet opening; - the guide channel being arranged laterally to the second inlet opening, - the guide channel terminating in the open base of the guide bracket and being intersected at least partially by the second inlet opening at the base of the guide bracket, the gripping cavity of the rotating element thus being accessible for the male tool both through the guide channel and through the second inlet opening. - the gripping cavity is adapted to receive through the seat the male tool with a hexagonal ball head; - the guide bracket has a second inlet opening for the male tool arranged at the base of the guide bracket opposite to the upper end of the guide bracket, the gripping cavity of the rotating element being directly accessible for the male tool through the second inlet opening; - the guide channel being arranged laterally to the second inlet opening, - the guide channel terminating in the open base of the guide bracket and being intersected at least partially by the second inlet opening at the base of the guide bracket, the gripping cavity of the rotating element thus being accessible for the male tool both through the guide channel and through the second inlet opening.
A magnetron cooling fin comprising: a body including a through-hole configured to allow an anode unit of a magnetron to pass through, a fin collar provided at an edge of the through-hole, and a first corrugated region formed from a lower end of the fin collar and extending around an outer perimeter of the fin collar; and a plurality of fins extending from the body, wherein a diameter of the through-hole is less than an outer diameter of the first corrugated region, and wherein a plurality of second corrugated regions (281c1, 281c2, 281c3, 281c4) is protruded from the body in the same direction as the fin collar and said plurality of second corrugated regions (281 c1, 281c2, 281c3, 281c4) are positioned at corner areas of the body around an outer diameter of the first corrugated region. a body including a through-hole configured to allow an anode unit of a magnetron to pass through, a fin collar provided at an edge of the through-hole, and a first corrugated region formed from a lower end of the fin collar and extending around an outer perimeter of the fin collar; and a plurality of fins extending from the body, wherein a diameter of the through-hole is less than an outer diameter of the first corrugated region, and wherein a plurality of second corrugated regions (281c1, 281c2, 281c3, 281c4) is protruded from the body in the same direction as the fin collar and said plurality of second corrugated regions (281 c1, 281c2, 281c3, 281c4) are positioned at corner areas of the body around an outer diameter of the first corrugated region.
An aircraft having a fuel tank disposed in a wing and a wireless fuel sensor system comprising: a plurality of wireless fuel sensors (106;200;300) each comprising: a sensor (202;310) configured to measure an indication of an amount of fuel in the fuel tank; a transmitter coupled to the sensor; an antenna coupled to the transmitter; and a battery and a generator (204;312) configured to provide power to the sensor and the transmitter, wherein the generator is configured to harvest energy from the operating environment of the aircraft; and a controller configured to receive data from each of the plurality of wireless fuel sensors and to responsively calculate the amount of fuel in the fuel tank; wherein the plurality of wireless fuel sensors are mounted on the inside of the fuel tank and the tank wall includes a radio frequency window allowing communication. a plurality of wireless fuel sensors (106;200;300) each comprising: a sensor (202;310) configured to measure an indication of an amount of fuel in the fuel tank; a transmitter coupled to the sensor; an antenna coupled to the transmitter; and a battery and a generator (204;312) configured to provide power to the sensor and the transmitter, wherein the generator is configured to harvest energy from the operating environment of the aircraft; and a sensor (202;310) configured to measure an indication of an amount of fuel in the fuel tank; a transmitter coupled to the sensor; an antenna coupled to the transmitter; and a battery and a generator (204;312) configured to provide power to the sensor and the transmitter, wherein the generator is configured to harvest energy from the operating environment of the aircraft; and a controller configured to receive data from each of the plurality of wireless fuel sensors and to responsively calculate the amount of fuel in the fuel tank; wherein the plurality of wireless fuel sensors are mounted on the inside of the fuel tank and the tank wall includes a radio frequency window allowing communication.
A method of operating a paging controller in a wireless communication system including a first network that provides coverage to a plurality of first tracking areas and operates according to a first radio access technology and a second network that provides coverage to a plurality of second tracking areas and operates according to a second radio access technology, the first network including a first control plane entity and the second network including a second control plane entity, and wherein the first tracking areas at least partially overlap with the second tracking areas, the method comprising: providing, to at least one first base station in the first network, a request to transmit a page to a first tracking area associated with a mobile unit, and providing, via an interface between the first control plane entity and the second control plane entity, a request to transmit the page to at least one second tracking area associated with the mobile unit. providing, to at least one first base station in the first network, a request to transmit a page to a first tracking area associated with a mobile unit, and providing, via an interface between the first control plane entity and the second control plane entity, a request to transmit the page to at least one second tracking area associated with the mobile unit.
A laser comprising: a. a gain material comprising at least two, compositionally non-identical, layers forming a superlattice, wherein the gain material generates photons by intersubband or interband transitions; b. at least two lasing sections placed in series, wherein each lasing section comprises gratings have non-equivalent periods or Bragg wavelengths, and characterised in that the lasing sections are separated by a electrical isolation region; and c. a waveguide structure comprising: i. an active waveguide in contact with a gain material; ii. at least one bridge; and iii. a passive waveguide; wherein: 1. each bridge is spatially located between the active waveguide and passive waveguide; and 2. the active waveguide, at least one bridge, and passive waveguide are not physically connected via a waveguide material. a. a gain material comprising at least two, compositionally non-identical, layers forming a superlattice, wherein the gain material generates photons by intersubband or interband transitions; b. at least two lasing sections placed in series, wherein each lasing section comprises gratings have non-equivalent periods or Bragg wavelengths, and characterised in that the lasing sections are separated by a electrical isolation region; and c. a waveguide structure comprising: i. an active waveguide in contact with a gain material; ii. at least one bridge; and iii. a passive waveguide; wherein: 1. each bridge is spatially located between the active waveguide and passive waveguide; and 2. the active waveguide, at least one bridge, and passive waveguide are not physically connected via a waveguide material. i. an active waveguide in contact with a gain material; ii. at least one bridge; and iii. a passive waveguide; wherein: 1. each bridge is spatially located between the active waveguide and passive waveguide; and 2. the active waveguide, at least one bridge, and passive waveguide are not physically connected via a waveguide material. 1. each bridge is spatially located between the active waveguide and passive waveguide; and 2. the active waveguide, at least one bridge, and passive waveguide are not physically connected via a waveguide material.
Castor for transport devices in particular, for example pallet transport trolleys, having a wheel mounted in a fork, the fork being rotatable about an axis of rotation (x) relative to a stationary holding part, a pretensioning part (8, 8') also being provided which, in order to align the wheel relative to the holding part in a pretensioning direction, interacts with an alignment protrusion (9, 9') arranged non-rotatably with respect to the fork or the holding part, and the pretensioning part (8, 8') acting on the alignment protrusion (9, 9') with a pretensioning force directed perpendicularly to the axis of rotation (x), based on a projection, the action, with the exception of a rotational position of the fork, being eccentric with respect to the axis of rotation (x), the pretensioning part (8, 8') having a spring guided on a bolt for transmitting a compressive force to the alignment protrusion (9, 9'), characterised in that one or two pretensioning parts (8, 8') are arranged displaceably on one bolt, which pretensioning parts, in the case of two pretensioning parts, are each spring-loaded in the direction of the central axis of rotation (x) by means of a cylinder compression spring, two alignment protrusions (9, 9') being provided, and each pretensioning part (8, 8'), regardless of the rotational position of the fork relative to the holding part, always resting against at least one alignment protrusion (9, 9'), and in that, in an embodiment having only one pretensioning part and one alignment protrusion, the pin longitudinal axis of an alignment protrusion intersects the geometrical bolt longitudinal axis (u) of the bolt carrying the pretensioning part in a preferred and defined basic rotational orientation of the fork.