mhurhangee/ep-ind-claims huggingface dataset:
Metering and mixing device for multi-component substances, in particular multi-component adhesives, comprising: 1.1. at least two associated cartridge accommodating devices (2, 3) for accommodating replaceable cartridges (2.1, 3.1) having individual substance components, 1.2. a discharging device (4, 5, 8, 9, 11, 16) for simultaneously discharging the substance components from the cartridges (2.1, 3.1) through component outlets by means of discharging pistons that plunge into the cartridge accommodating device (2, 3) or cartridges (2.1, 3.1), 1.3. a mixing device, which is connected to the component outlets, mixes the discharge substance components, and outputs them in the mixed state, characterized in that 1.4. at least one discharging piston has a thread (11.1) in such a way that the discharging piston can be driven forward by means of the thread when the discharging piston is rotated relative to the cartridge accommodating device (2, 3). 1.1. at least two associated cartridge accommodating devices (2, 3) for accommodating replaceable cartridges (2.1, 3.1) having individual substance components, 1.2. a discharging device (4, 5, 8, 9, 11, 16) for simultaneously discharging the substance components from the cartridges (2.1, 3.1) through component outlets by means of discharging pistons that plunge into the cartridge accommodating device (2, 3) or cartridges (2.1, 3.1), 1.3. a mixing device, which is connected to the component outlets, mixes the discharge substance components, and outputs them in the mixed state, characterized in that 1.4. at least one discharging piston has a thread (11.1) in such a way that the discharging piston can be driven forward by means of the thread when the discharging piston is rotated relative to the cartridge accommodating device (2, 3).
Bite registration tool set having an upper-jaw bite registration tool and a lower-jaw bite registration tool, comprising tooth casts that are lined up in an occlusal position, wherein the lined-up tooth casts are artificially produced teeth, wherein a coding element is provided in the bite registration tool (OKB, UKB), wherein the coding element is arranged orally and can be broken up, and wherein a bite fork with connection element is provided, which can be fixed to the upper-jaw bite registration tool via the coding element.
A nanoscale switching device, comprising: a first electrode of a nanoscale width; a second electrode of a nanoscale width; an active region disposed between the first and second electrodes (110, 120), the active region having a non-conducting portion comprising an electronically semiconducting or nominally insulating and a weak ionic conductor switching material capable of carrying a species of dopants and transporting the dopants under an electric field and a source portion that acts as a source or sink for the dopants; an oxide layer (115, 125) with thickness less than 5 nm either formed on the first electrode, between the first electrode and the active region or formed on the second electrode, between the second electrode and the active region, wherein the electrode (110, 120) with which the oxide layer (115, 125) is associated is a metal, and characterized in that the oxide layer (115, 125) is an oxide of the same metal. a first electrode of a nanoscale width; a second electrode of a nanoscale width; an active region disposed between the first and second electrodes (110, 120), the active region having a non-conducting portion comprising an electronically semiconducting or nominally insulating and a weak ionic conductor switching material capable of carrying a species of dopants and transporting the dopants under an electric field and a source portion that acts as a source or sink for the dopants; an oxide layer (115, 125) with thickness less than 5 nm either formed on the first electrode, between the first electrode and the active region or formed on the second electrode, between the second electrode and the active region, wherein the electrode (110, 120) with which the oxide layer (115, 125) is associated is a metal, and characterized in that the oxide layer (115, 125) is an oxide of the same metal.
A depositing arrangement for evaporation of a dielectric material, particularly a lithium-containing dielectric material, comprising: a vapor distribution showerhead (106, 506, 606) wherein the vapor distribution showerhead is at least one of a linear vapor distribution showerhead and an elongated tube or cuboid; a holder for providing the dielectric material in the vapor distribution showerhead, wherein the holder has a feeding unit for feeding the dielectric material into the vapor distribution showerhead; an energy source (108, 336) configured for melting and evaporating the dielectric material in the vapor distribution showerhead or sublimating the dielectric material in the vapor distribution showerhead, wherein the vapor distribution showerhead has outlets (507, 517, 617, 618) for directing the vaporized dielectric material towards a substrate, and particularly wherein the energy source emits electrons or photons, wherein the electrons or photons melt and evaporate the dielectric material or sublimate the dielectric material; and a plasma source (218, 718) configured for providing a plasma between the vapor distribution showerhead and the substrate. a vapor distribution showerhead (106, 506, 606) wherein the vapor distribution showerhead is at least one of a linear vapor distribution showerhead and an elongated tube or cuboid; a holder for providing the dielectric material in the vapor distribution showerhead, wherein the holder has a feeding unit for feeding the dielectric material into the vapor distribution showerhead; an energy source (108, 336) configured for melting and evaporating the dielectric material in the vapor distribution showerhead or sublimating the dielectric material in the vapor distribution showerhead, wherein the vapor distribution showerhead has outlets (507, 517, 617, 618) for directing the vaporized dielectric material towards a substrate, and particularly wherein the energy source emits electrons or photons, wherein the electrons or photons melt and evaporate the dielectric material or sublimate the dielectric material; and a plasma source (218, 718) configured for providing a plasma between the vapor distribution showerhead and the substrate.
A staple formation recognition system for use with an anvil member of a surgical stapler comprising: an anvil member defining a staple crimping pocket system having first and second staple pockets (92, 94); a trace system (120; 150) at least partially extending within the staple crimping pocket system; and a controller electrically connected to the trace system (120; 150) for detecting a condition of the trace system (120; 150); characterised in that: the trace system (120; 150) and the controller forms an open electrical circuit; and the trace system (120; 150) includes a first trace pad (122; 152) extending across the first staple pocket of the staple crimping pocket system, and a second trace pad (124; 162) extending across the second staple pocket of the staple crimping pocket system, such that a surgical staple properly formed in the staple crimping pocket system completes the electrical circuit when in contact with the first and second trace pads (122, 124; 152, 162). an anvil member defining a staple crimping pocket system having first and second staple pockets (92, 94); a trace system (120; 150) at least partially extending within the staple crimping pocket system; and a controller electrically connected to the trace system (120; 150) for detecting a condition of the trace system (120; 150); characterised in that: the trace system (120; 150) and the controller forms an open electrical circuit; and the trace system (120; 150) includes a first trace pad (122; 152) extending across the first staple pocket of the staple crimping pocket system, and a second trace pad (124; 162) extending across the second staple pocket of the staple crimping pocket system, such that a surgical staple properly formed in the staple crimping pocket system completes the electrical circuit when in contact with the first and second trace pads (122, 124; 152, 162). the trace system (120; 150) and the controller forms an open electrical circuit; and the trace system (120; 150) includes a first trace pad (122; 152) extending across the first staple pocket of the staple crimping pocket system, and a second trace pad (124; 162) extending across the second staple pocket of the staple crimping pocket system, such that a surgical staple properly formed in the staple crimping pocket system completes the electrical circuit when in contact with the first and second trace pads (122, 124; 152, 162).
Vehicle with a fuel cell system comprising: - a rear vessel for hydrogen gas located in the rear part of the vehicle, - a hydrogen dosing unit, - an air supply; - a fuel cell connected to the hydrogen dosing unit and the air supply, the air supply being provided with means for providing the fuel cell with air, the hydrogen dosing unit providing the fuel cell with hydrogen, - a battery, - a DC/DC- converter, characterised in that the vehicle further comprises: - a front vessel for hydrogen gas located in the front part of the vehicle, - a hydrogen control unit connected to the hydrogen dosing unit, to the rear vessel and to the front vessel, the hydrogen control unit being provided with first means for equalizing the pressure between the first rear vessel and the front vessel, the hydrogen control unit being provided with second means for transferring hydrogen at a predetermined pressure level to the hydrogen dosing unit from the two vessels (V1; V2), and - the fuel cell being connected to the battery so as to provide the battery with energy, the battery and the DC/DC-converter being interconnected so as to exchange energy, the fuel cell and the battery, being located at the bottom of the vehicle. - a rear vessel for hydrogen gas located in the rear part of the vehicle, - a hydrogen dosing unit, - an air supply; - a fuel cell connected to the hydrogen dosing unit and the air supply, the air supply being provided with means for providing the fuel cell with air, the hydrogen dosing unit providing the fuel cell with hydrogen, - a battery, - a DC/DC- converter, - a front vessel for hydrogen gas located in the front part of the vehicle, - a hydrogen control unit connected to the hydrogen dosing unit, to the rear vessel and to the front vessel, the hydrogen control unit being provided with first means for equalizing the pressure between the first rear vessel and the front vessel, the hydrogen control unit being provided with second means for transferring hydrogen at a predetermined pressure level to the hydrogen dosing unit from the two vessels (V1; V2), and - the fuel cell being connected to the battery so as to provide the battery with energy, the battery and the DC/DC-converter being interconnected so as to exchange energy, the fuel cell and the battery, being located at the bottom of the vehicle.
Method for transferring, in a predefined transfer time (Tt), the electrical power supply of an electrical distribution line, from a first source to a second source, without overlap of the two sources, a first switch, connected on the one hand to the first source and on the other hand to the distribution line, being commanded to close or to open in order to connect or disconnect the first source to or from the distribution line, a second switch, connected on the one hand to the second source and on the other hand to the distribution line, being commanded to open or to close in order to connect or disconnect the second source to or from said distribution line, this method being characterized in that: - either a first delay is applied before a command to open the first switch when a second manoeuvre time taken to connect the second source is longer than the sum of a third manoeuvre time taken to disconnect the first source and of the transfer time (Tt), - or a second delay is applied before a command to close the second switch when the second manoeuvre time taken to connect the second source is shorter than the sum of the third manoeuvre time taken to disconnect the first source and of the transfer time (Tt), the first delay or second delay being computed so that the time interval between a disconnection of the first source and a connection of the second source is equal to the transfer time (Tt). - either a first delay is applied before a command to open the first switch when a second manoeuvre time taken to connect the second source is longer than the sum of a third manoeuvre time taken to disconnect the first source and of the transfer time (Tt), - or a second delay is applied before a command to close the second switch when the second manoeuvre time taken to connect the second source is shorter than the sum of the third manoeuvre time taken to disconnect the first source and of the transfer time (Tt),
A reduced-alcohol antimicrobial mouth rinse composition comprising: a. an oil phase comprising one or more antimicrobial essential oils; b. a solvent system comprising at least one polyol solvent and at least one sugar alcohol solvent; c. at least one alkyl sulfate surfactant; d. optionally, at least one additional surfactant; and e. an aqueous phase comprising water wherein the total amount of polyol solvent is in an amount of from 5.0% to 15.0% w/v of the composition, wherein the total amount of sugar alcohol solvent is in an amount of from 5.0% to 15.0% w/v of the composition, and; wherein the total amount of solvent system is in an amount of from 10% to 20% w/v of the composition, and; wherein the mouth rinse composition is a microemulsion comprising micelles having an aggregate size less than about 200nm, wherein the aggregate size is measured using the methods described in the description and; wherein the composition contains up to 5% by weight of the total composition bioavailability affecting compounds, wherein bioavailability affecting compounds are compounds selected from the group consisting of polyethylene oxide/polypropylene oxide block copolymers such as poloxamers, cyclodextrins, polysorbates and mixtures thereof, and; wherein the composition contains up to 10 % v/v of the total composition C 2 to C 4 monohydric alcohols. a. an oil phase comprising one or more antimicrobial essential oils; b. a solvent system comprising at least one polyol solvent and at least one sugar alcohol solvent; c. at least one alkyl sulfate surfactant; d. optionally, at least one additional surfactant; and e. an aqueous phase comprising water
A skin treatment device, in particular a temporal hair removal device, comprising: a light emission unit comprising a substrate, a plurality of first LED dies mounted on the substrate on an area of at least 0.2 cm 2, in particular of at least 1.0 cm 2, where the first LED dies are each arranged for emitting light at a first peak emission wavelength in the far red or infrared wavelength range of between 700 nm and 980 nm, and at least one second LED die arranged for emitting light at a second peak emission wavelength in the visible wavelength range of between 400 nm and below 700 nm; wherein the skin treatment device is arranged to activate the first LED dies to emit a treatment light pulse, the treatment light pulse having a pulse length of between 60 ms and 300 ms, and the first LED dies have a radiant flux such that a radiant fluence on the skin of a user of at least 4 J/cm 2 is achieved by application of the treatment light pulse; the skin treatment device is arranged to activate the at least one second LED die to emit a visible light pulse simultaneously with the emission of the treatment light pulse; and wherein the skin treatment device is arranged to control at least one of the intensity or color of the visible light pulse, in particular in dependence on at least one of a user's input, a chosen skin treatment function, a radiant fluence of the treatment light pulse, a battery charge status, or a device temperature value. a light emission unit comprising a substrate, a plurality of first LED dies mounted on the substrate on an area of at least 0.2 cm 2, in particular of at least 1.0 cm 2, where the first LED dies are each arranged for emitting light at a first peak emission wavelength in the far red or infrared wavelength range of between 700 nm and 980 nm, and at least one second LED die arranged for emitting light at a second peak emission wavelength in the visible wavelength range of between 400 nm and below 700 nm; wherein the skin treatment device is arranged to activate the first LED dies to emit a treatment light pulse, the treatment light pulse having a pulse length of between 60 ms and 300 ms, and the first LED dies have a radiant flux such that a radiant fluence on the skin of a user of at least 4 J/cm 2 is achieved by application of the treatment light pulse; the skin treatment device is arranged to activate the at least one second LED die to emit a visible light pulse simultaneously with the emission of the treatment light pulse; and wherein the skin treatment device is arranged to control at least one of the intensity or color of the visible light pulse, in particular in dependence on at least one of a user's input, a chosen skin treatment function, a radiant fluence of the treatment light pulse, a battery charge status, or a device temperature value.
Use of tissue type plasminogen activator (tPA) and/or plasminogen activator inhibitor (PAI-1), for prognosticating or predicting in vitro a thrombotic event associated to the treatment with mesenchymal stem cells (MSCs) of a human subject suffering from an inflammatory disease.
A link component with an oil hole, the link component being attached to a crankshaft of an internal combustion engine and the oil hole allowing communication from an outside to the crankshaft side, characterised in that the oil hole has an inclined surface along an opening rim on the crankshaft side, a surface other than the oil hole has a carbon concentration of 0.5 wt% or more, and the inclined surface has a carbon concentration within a range of 0.7 wt% or more and 0.9 wt% or less.
A capacitive sensing system comprising: a fluid cup configured to receive a fluid; and a capacitive sensing circuit including processing circuitry and a capacitive sensor coupled to one another, the fluid cup being movably aligned with the capacitive sensor such that the capacitive sensor is a distance separated from and has a surface facing the fluid in parallel with a top surface of the fluid in the fluid cup, the distance the capacitive sensor is separated from the top surface of the fluid being variable with a fill level of the fluid in the fluid cup, characterized in that the capacitive sensor comprises a sensor pad that forms a plate of a capacitor having a dielectric comprising the fluid in the fluid cup, the capacitor having a capacitance that is a function of at least the distance the surface facing the fluid of the capacitive sensor pad is separated from the top surface of the fluid, the capacitance being variable with the distance and thereby the fill level of the fluid in the fluid cup, wherein the processing circuitry is configured to measure a change in signal corresponding to a change in capacitance of the capacitor as the fill level of the fluid in the fluid cup changes, and determine the fill level of the fluid in the fluid cup based on a magnitude of the change in signal; wherein the distance that the surface facing the fluid of the capacitive sensor pad is separated from the top surface of the fluid in the fluid cup is between about 0.5 mm to about 2.5 mm; preferably between about 1.0 mm to about 2.0 mm. a fluid cup configured to receive a fluid; and a capacitive sensing circuit including processing circuitry and a capacitive sensor coupled to one another, the fluid cup being movably aligned with the capacitive sensor such that the capacitive sensor is a distance separated from and has a surface facing the fluid in parallel with a top surface of the fluid in the fluid cup, the distance the capacitive sensor is separated from the top surface of the fluid being variable with a fill level of the fluid in the fluid cup, characterized in that the capacitive sensor comprises a sensor pad that forms a plate of a capacitor having a dielectric comprising the fluid in the fluid cup, the capacitor having a capacitance that is a function of at least the distance the surface facing the fluid of the capacitive sensor pad is separated from the top surface of the fluid, the capacitance being variable with the distance and thereby the fill level of the fluid in the fluid cup, wherein the processing circuitry is configured to measure a change in signal corresponding to a change in capacitance of the capacitor as the fill level of the fluid in the fluid cup changes, and determine the fill level of the fluid in the fluid cup based on a magnitude of the change in signal; wherein the distance that the surface facing the fluid of the capacitive sensor pad is separated from the top surface of the fluid in the fluid cup is between about 0.5 mm to about 2.5 mm; preferably between about 1.0 mm to about 2.0 mm.
A method of generating frequency combs consisting of a predetermined number of rays, the method comprising steps of: A) Generation of a main ray by a laser source; B) generation of a first plurality of rays by modulating the main ray with a first radio frequency signal; C) generation of a second plurality of rays by modulating each ray of the first plurality of rays with a second radio-frequency signal other than the first radio-frequency signal; D) generation of a third plurality of rays by modulating each ray of the second plurality of rays with a third radio-frequency signal other than the first and second radio-frequency signals; and E) formation of a comb from the rays of the third plurality of rays, each of the first, second and third radio-frequency signals being at a respective frequency value, and the respective frequency values of the first, second and third RF signals comprising a first frequency value, a second frequency value equal to twice the first frequency value and a third frequency value equal to three times the first frequency value. A) Generation of a main ray by a laser source; B) generation of a first plurality of rays by modulating the main ray with a first radio frequency signal; C) generation of a second plurality of rays by modulating each ray of the first plurality of rays with a second radio-frequency signal other than the first radio-frequency signal; D) generation of a third plurality of rays by modulating each ray of the second plurality of rays with a third radio-frequency signal other than the first and second radio-frequency signals; and E) formation of a comb from the rays of the third plurality of rays, each of the first, second and third radio-frequency signals being at a respective frequency value, and the respective frequency values of the first, second and third RF signals comprising a first frequency value, a second frequency value equal to twice the first frequency value and a third frequency value equal to three times the first frequency value.