mhurhangee/ep-ind-claims huggingface dataset:
A media supply apparatus for supplying a medical treatment device with a medium, characterised by an air conditioning device for air conditioning a separate medical treatment device that is connected to the media supply apparatus, wherein the air conditioning device comprises an exhaust air duct (2; 2A, 2B) for discharging air from the surroundings of the medical treatment device, wherein a first ventilator (3; 3A, 3B) for discharging air from the surroundings of the medical treatment device into the exhaust air duct (2; 2A, 2B) is provided.
An apparatus (100, 280, 284, 292, 500) for storing and changing needles for connection with a medicament delivery device, the apparatus comprising: an inner housing (124, 504) having a floor disposed at a distal end thereof; a needle holder (192, 300, 304, 308, 312, 560) disposed within the housing, for fluidly connecting with the medicament container of the medicament delivery device; a user interface (108, 508) adapted to displace the needle holder; a plurality of needles displaceably disposed on the needle holder, each needle having a needle hub disposed around a portion of the needle; a user interface disposed on the housing to individually select one of the plurality of needles and displace the selected needle; and a plurality of sterility barriers for ensuring sterility of a patient portion of each needle prior to exposure to an outside of the apparatus; wherein each sterility barrier comprises a boot disposed at a distal end of the patient portion of the needle; characterized in that the needle holder is displaceable along a substantially planar circuitous path; each sterility barrier comprises an introducer, slidable relative to the respective needle hub; wherein the introducer is adapted to slide relative to the boot, the boot having a sterile floor at a distal end thereof; and wherein the introducer has a distal cutting tip adapted to cut a portion of the sterile floor, and a proximal shoulder adapted to engage the boot. an inner housing (124, 504) having a floor disposed at a distal end thereof; a needle holder (192, 300, 304, 308, 312, 560) disposed within the housing, for fluidly connecting with the medicament container of the medicament delivery device; a user interface (108, 508) adapted to displace the needle holder; a plurality of needles displaceably disposed on the needle holder, each needle having a needle hub disposed around a portion of the needle; a user interface disposed on the housing to individually select one of the plurality of needles and displace the selected needle; and a plurality of sterility barriers for ensuring sterility of a patient portion of each needle prior to exposure to an outside of the apparatus; wherein each sterility barrier comprises a boot disposed at a distal end of the patient portion of the needle; characterized in that the needle holder is displaceable along a substantially planar circuitous path; each sterility barrier comprises an introducer, slidable relative to the respective needle hub; wherein the introducer is adapted to slide relative to the boot, the boot having a sterile floor at a distal end thereof; and wherein the introducer has a distal cutting tip adapted to cut a portion of the sterile floor, and a proximal shoulder adapted to engage the boot.
Formwork body for producing floors, in particular floors with screed-covered cable ducts, characterized in that the formwork body comprises a baseplate which is oriented horizontally towards the floor and which has an external substantially quadrangular outline, and also comprising a vertical centring element and at least one formwork body module, wherein the baseplate is formed with an aperture for mounting the vertical centring element and the formwork module or modules forming the formwork body, wherein the vertical centring element comprises at least one wall which projects up vertically away from the aperture in the baseplate and the floor and is provided with a sufficient thickness in order to form, along the wall, two opposite lateral, vertical contact surfaces (8, 8') or two pairs of opposite vertically extending contact edges (9, 9') which are provided to stack up or plug on the at least one ring-like and horizontally oriented formwork body module of the formwork body to be formed, wherein the shape, in particular the shape of the lateral vertical outer surfaces, of this ring-like formwork body module or of the ring-like formwork body modules which are stacked on one another or plugged on finally defines or define the geometry of the outer shape and height of the entire desired formwork body, and wherein the shape of the aperture in the baseplate and the shape of the inner region of the ring-like formwork body module or of the ring-like formwork body modules which are stacked on one another or plugged on form at least one hollow passage which allows cables or tubes to be pulled through under the baseplate and upwards along the inner cavity or the inner cavities of the ring-like formwork body module or of the ring-like formwork body modules to the desired height.
A method comprising the following steps performed by a mobile device: receiving a call from an emergency call center outside of an emergency callback period; receiving an emergency signal, associated with the call, indicating that the call is an emergency call; and enabling geographic location determination on the mobile device in response to receiving the emergency signal; localizing information identifying the emergency call in accordance with a preferred locale of a subscriber; and displaying the localized information on the mobile device. receiving a call from an emergency call center outside of an emergency callback period; receiving an emergency signal, associated with the call, indicating that the call is an emergency call; and enabling geographic location determination on the mobile device in response to receiving the emergency signal; localizing information identifying the emergency call in accordance with a preferred locale of a subscriber; and displaying the localized information on the mobile device.
Method for operating a hydraulic brake system of a vehicle, wherein a predefined value which is made available by a vehicle-mounted control system and related to a set point change in pressure is received in at least one wheel brake cylinder (64a to 64d), connected to a master brake cylinder via at least one brake circuit (62a, 62b), of the hydraulic brake system, wherein at least one sealing element is adjusted as a function of the predefined value to a sealing position with respect to at least one connecting duct of the master brake cylinder leading to a braking medium reservoir of the hydraulic brake system, wherein a set point feed variable for at least one braking medium feed element (30, 88a, 88'a, 88b, 90) of the hydraulic brake system is defined for the feeding of a braking medium volume between at least one storage volume of the hydraulic brake system and a storage-external volume of the at least one brake circuit (62a, 62b) while taking into account the received predefined value, and wherein the at least one braking medium feed element (30, 88a, 88'a, 88b, 90) is actuated in accordance with the defined set point feed variable, characterized in that the at least one sealing element is moved by means of an electric motor, which can be mechanically coupled to the at least one sealing element, of an electromechanical brake booster of the hydraulic brake system, which can be moved into a position in which mechanical contact is present between the electric motor and the at least one sealing element, into the sealing position; and at least one plunger (88a, 88'a, 88b, 90) is actuated as the at least one braking medium feed element (88a, 88'a, 88b, 90) in such a way that an ACT braking medium volume, corresponding to the defined set point feed variable, is moved between at least one plunger storage chamber as the at least one storage volume and the storage-external volume of the at least one brake circuit.
A method for washing a pipetting-dispensing device, comprising at least one tubular pipetting-dispensing needle, said method comprising at least one step for rinsing the pipetting-dispensing device using a detergent product, said product being injected into an upstream end of the needle and dispensed from said needle by a downstream end, said method being characterized in that it further comprises the following steps: - pipetting a mucolytic product through the downstream end of the needle, - dispensing said mucolytic product through said downstream end, - pipetting a disinfectant product through the downstream end of the needle, and - dispensing said disinfectant product through said downstream end. - pipetting a mucolytic product through the downstream end of the needle, - dispensing said mucolytic product through said downstream end, - pipetting a disinfectant product through the downstream end of the needle, and - dispensing said disinfectant product through said downstream end.
A method of measuring hydrophobic contaminants in a pulp slurry or a papermaking system, said method comprising the steps of: providing an aqueous paper mill sample, filtering the aqueous paper mill sample to produce a filtrate comprising particles, collecting an image of the particles in a measured volume of the filtrate, analyzing the image to determine a size and morphology of the particles in the measured volume of filtrate, identifying spherical particles having a size of from about 1 micron to about 20 microns in the measured volume of filtrate, and quantifying a number of the spherical particles having the size of from about 1 micron to about 20 microns in the measured volume of filtrate. providing an aqueous paper mill sample, filtering the aqueous paper mill sample to produce a filtrate comprising particles, collecting an image of the particles in a measured volume of the filtrate, analyzing the image to determine a size and morphology of the particles in the measured volume of filtrate, identifying spherical particles having a size of from about 1 micron to about 20 microns in the measured volume of filtrate, and quantifying a number of the spherical particles having the size of from about 1 micron to about 20 microns in the measured volume of filtrate.
A method for compensating for diamond tool geometry comprising: creating a representation of a part surface as a spiral and defining meridians within the spiral; calculating X and Z values for specific X and Z locations, the X locations being established by measuring the distance between two curves of the spiral along a given one of the said meridians and dividing the distance between the curves of the spiral by the number of meridians, and the Z locations being established by matching the X locations to locations along a zero meridian, the zero meridian being a 2-dimensional path that corresponds to the path of a diamond tool having a diamond tool radius; calculating the desired position of the diamond tool relative to a surface point to be cut; compensating for the diamond tool radius to determine proper tool position to generate recalculated points, said compensation comprising offsetting the desired position of the diamond tool by the value of the diamond tool radius perpendicular to the meridian being compensated; and calculating a geometry-compensated zero meridian, said calculation comprising rotating the recalculated points about the origin by a tool axis angle and averaging the values of the highest and lowest meridians at each point calculated. creating a representation of a part surface as a spiral and defining meridians within the spiral; calculating X and Z values for specific X and Z locations, the X locations being established by measuring the distance between two curves of the spiral along a given one of the said meridians and dividing the distance between the curves of the spiral by the number of meridians, and the Z locations being established by matching the X locations to locations along a zero meridian, the zero meridian being a 2-dimensional path that corresponds to the path of a diamond tool having a diamond tool radius; calculating the desired position of the diamond tool relative to a surface point to be cut; compensating for the diamond tool radius to determine proper tool position to generate recalculated points, said compensation comprising offsetting the desired position of the diamond tool by the value of the diamond tool radius perpendicular to the meridian being compensated; and calculating a geometry-compensated zero meridian, said calculation comprising rotating the recalculated points about the origin by a tool axis angle and averaging the values of the highest and lowest meridians at each point calculated.
A method comprising: receiving, at a receiving device, a signal including data comprising a first product of an inverse transpose of a transmit coupling matrix of a transmitting device and a transpose of a receive coupling matrix of the transmitting device, wherein the transmit coupling matrix of the transmitting device is based on a source impedance matrix of a transmitter at the transmitting device and an impedance matrix of an array of antennas at the transmitting device, and the receive coupling matrix of the transmitting device is based on a load impedance of a receiver at the transmitting device and an impedance matrix of an array of antennas at the transmitting device; calculating a second product of a transmit coupling matrix of the receiving device and an inverse of a receive coupling matrix of the receiving device, wherein the transmit coupling matrix of the receiving device is based on a source impedance matrix of a transmitter at the receiving device and an impedance matrix of an array of antennas at the receiving device, and the receive coupling matrix of the receiving device is based on a load impedance of a receiver at the receiving device and an impedance matrix of an array of antennas at the receiving device; measuring, at the receiving device, a receive channel between the transmitting device and the receiving device using reference symbols received from the transmitting device; determining a reverse channel based on the signal, the second product, and the measurement of the receive channel; and transmitting a precoded signal based on the reverse channel. receiving, at a receiving device, a signal including data comprising a first product of an inverse transpose of a transmit coupling matrix of a transmitting device and a transpose of a receive coupling matrix of the transmitting device, wherein the transmit coupling matrix of the transmitting device is based on a source impedance matrix of a transmitter at the transmitting device and an impedance matrix of an array of antennas at the transmitting device, and the receive coupling matrix of the transmitting device is based on a load impedance of a receiver at the transmitting device and an impedance matrix of an array of antennas at the transmitting device; calculating a second product of a transmit coupling matrix of the receiving device and an inverse of a receive coupling matrix of the receiving device, wherein the transmit coupling matrix of the receiving device is based on a source impedance matrix of a transmitter at the receiving device and an impedance matrix of an array of antennas at the receiving device, and the receive coupling matrix of the receiving device is based on a load impedance of a receiver at the receiving device and an impedance matrix of an array of antennas at the receiving device; measuring, at the receiving device, a receive channel between the transmitting device and the receiving device using reference symbols received from the transmitting device; determining a reverse channel based on the signal, the second product, and the measurement of the receive channel; and transmitting a precoded signal based on the reverse channel.
A transistor arrangement, comprising: in a semiconductor body, a drift region of a first doping type, a compensation region of a second doping type complementary to the first doping type, a body region of the second doping type, and a source region of the first doping type; a gate electrode, wherein the gate electrode is coupled to a gate node, is dielectrically insulated from the semiconductor body and is arranged in a gate trench that extends into the semiconductor body and adjoins the compensation region; a first field electrode, wherein the first field electrode (55 1) is dielectrically insulated from the semiconductor body and is arranged in a first isolation trench that extends into the semiconductor body, wherein the first isolation trench is spaced apart from the gate trench and adjoins the compensation region; and a bias node different from the gate node and connected to the first field electrode. in a semiconductor body, a drift region of a first doping type, a compensation region of a second doping type complementary to the first doping type, a body region of the second doping type, and a source region of the first doping type; a gate electrode, wherein the gate electrode is coupled to a gate node, is dielectrically insulated from the semiconductor body and is arranged in a gate trench that extends into the semiconductor body and adjoins the compensation region; a first field electrode, wherein the first field electrode (55 1) is dielectrically insulated from the semiconductor body and is arranged in a first isolation trench that extends into the semiconductor body, wherein the first isolation trench is spaced apart from the gate trench and adjoins the compensation region; and a bias node different from the gate node and connected to the first field electrode.
A lateral flow capillary device (24, 46) comprising: a) a unipath bibulous capillary flow matrix having an upstream end and a downstream end defining a flow direction, said matrix being compressible; b) at least two reservoirs including a first upstream reservoir and a second downstream reservoir in fluid communication with said capillary flow matrix each through respective first and second liquid receiving zones, the reservoirs being situated between the ends and spaced from each other in the flow direction defined by the capillary matrix; each of said first and second reservoirs contacts its respective said liquid receiving zones, through an opening constituting a hollow conduit having a rim, CHARACTERIZED IN THAT: each of said rims is pressing said matrix, wherein the rims are pressed into said matrix when the matrix is dry; wherein a portion of said capillary flow matrix between said two rims is an interface creation zone; and wherein the device (24, 46) is suitable for a sequential draining of said reservoirs in the downstream direction. a) a unipath bibulous capillary flow matrix having an upstream end and a downstream end defining a flow direction, said matrix being compressible; b) at least two reservoirs including a first upstream reservoir and a second downstream reservoir in fluid communication with said capillary flow matrix each through respective first and second liquid receiving zones, the reservoirs being situated between the ends and spaced from each other in the flow direction defined by the capillary matrix; each of said first and second reservoirs contacts its respective said liquid receiving zones, through an opening constituting a hollow conduit having a rim, each of said rims is pressing said matrix, wherein the rims are pressed into said matrix when the matrix is dry; wherein a portion of said capillary flow matrix between said two rims is an interface creation zone; and wherein the device (24, 46) is suitable for a sequential draining of said reservoirs in the downstream direction.
Apparatus for the delivery of fluid products comprising a base, a base support associated with said base, a plurality of dispensing units to dispense said fluid products contained in containing receptacles, which are disposed on a platform selectively rotatable with respect to said base support around a vertical axis of rotation in order to dispose at least one of said dispensing units in at least a first position in which said fluid products are suitable to be delivered from said receptacles to a container, sliding means being provided in order to allow the rotation of said platform, characterized in that rapid connection means (21, 22; 110, 113) are provided so as to achieve at least one of either the connection of said base support with said base or the connection of said base support with said sliding means in order to achieve their selective stable coupling and to prevent their reciprocal vertical movement along said axis of rotation.
A vibration measuring assembly, comprising a vibration sensor, which is arranged on an arranging device, with an oscillation member that can be excited by means of a drive unit to carry out a measurement oscillation, wherein the measuring assembly can be arranged on a container by means of a fastening device, wherein the vibration measuring assembly has a compensation device for interfering oscillations, characterized in that the compensation device has a compensation mass arranged in a manner capable of oscillation and is supported by at least one spring member, wherein the compensation device is configured so that a spring constant of the spring member and/or a mass of the compensation mass and/or a position of a center of gravity of the compensation mass can be set, so that a resonance frequency f res of the compensation device can be set to an interfering frequency of an interfering oscillation f S.
A co-consolidation tool (100, 101) to form a thermoplastic fuselage skin with integrally formed thermoplastic stiffening elements, comprising: a heating assembly, comprising one or more heating surfaces, to receive and apply a consolidation temperature to a thermoplastic fuselage skin and one or more thermoplastic stiffening elements; a pressure bladder, disposed within the heating assembly, to apply a consolidation pressure to the thermoplastic fuselage skin and the one or more thermoplastic stiffening elements; and a plurality of support inserts, disposed within the heating assembly, to support and at least partially surround the one or more thermoplastic stiffening elements, wherein the pressure bladder and the plurality of support inserts are thermally conductive, wherein the pressure bladder is configured to press the thermoplastic fuselage skin and the one or more thermoplastic stiffening elements together when the pressure bladder is pressurized, and wherein the pressure bladder is configured to press the thermoplastic fuselage skin and the one or more thermoplastic stiffening elements in contact with at least one of the one or more heating surfaces when the pressure bladder is pressurized. a heating assembly, comprising one or more heating surfaces, to receive and apply a consolidation temperature to a thermoplastic fuselage skin and one or more thermoplastic stiffening elements; a pressure bladder, disposed within the heating assembly, to apply a consolidation pressure to the thermoplastic fuselage skin and the one or more thermoplastic stiffening elements; and a plurality of support inserts, disposed within the heating assembly, to support and at least partially surround the one or more thermoplastic stiffening elements, wherein the pressure bladder and the plurality of support inserts are thermally conductive, wherein the pressure bladder is configured to press the thermoplastic fuselage skin and the one or more thermoplastic stiffening elements together when the pressure bladder is pressurized, and wherein the pressure bladder is configured to press the thermoplastic fuselage skin and the one or more thermoplastic stiffening elements in contact with at least one of the one or more heating surfaces when the pressure bladder is pressurized.