mhurhangee/patent-ind-claim-en huggingface dataset:
Light source , in particular for a medical examination device, comprising an LED assembly and a base assembly to which the LED assembly is attached, the LED assembly comprising an LED and a first metal connection leg , in particular for an anode of the LED , and a second metal connection leg , in particular for a cathode of the LED , and the base assembly comprising a main body , the main body being made from an electrically insulating material, in particular a plastics material, and having a first channel and a second channel , the first channel having a front channel opening in an upper face of the main body , the upper face facing the LED , and a rear channel opening in a lower face of the main body , the lower face facing away from the LED , the second channel having a front channel opening also in the upper face of the main body , and the first connection leg being inserted into the first channel and the second connection leg being inserted into the second channel , characterized in that the second channel has a rear channel opening in a side surface of the main body , the side surface being formed between the upper face and the lower face , and the second connection leg protruding from the rear channel opening of the second channel . the LED assembly comprising an LED and a first metal connection leg , in particular for an anode of the LED , and a second metal connection leg , in particular for a cathode of the LED , and the base assembly comprising a main body , the main body being made from an electrically insulating material, in particular a plastics material, and having a first channel and a second channel , the first channel having a front channel opening in an upper face of the main body , the upper face facing the LED , and a rear channel opening in a lower face of the main body , the lower face facing away from the LED , the second channel having a front channel opening also in the upper face of the main body , and the first connection leg being inserted into the first channel and the second connection leg being inserted into the second channel , characterized in that the second channel has a rear channel opening in a side surface of the main body , the side surface being formed between the upper face and the lower face , and the second connection leg protruding from the rear channel opening of the second channel .
A method for heating plastic preforms , wherein the plastic preforms are transported along a predetermined transport path and are heated during this transport by applying electromagnetic radiation, wherein an absorption and/or transmission of the plastic preforms is determined for radiation in an infrared wavelength range, characterized in that an absorption and/or transmission of the plastic preforms and/or of the plastic containers produced from these plastic preforms is determined for radiation in a visible wavelength range.
A conductive bridging method, comprising: providing a base substrate ; and forming first electrode lines and second electrode lines , which mutually intersect, on said base substrate , wherein said second electrode lines are interrupted at positions where they intersect said first electrode lines , characterized in that , the conductive bridging method further comprises: sequentially forming an insulating layer and a self-assembled-monolayer on said base substrate provided with said first electrode lines and said second electrode lines ; forming via holes penetrating through said insulating layer and said self-assembled-monolayer ; removing the self-assembled-monolayer between two adjacent via holes close to a same first electrode line ; filling a conductive dispersion liquid in said via holes and a region between said two adjacent via holes ; and treating said conductive dispersion liquid to form a conductive film . providing a base substrate ; and forming first electrode lines and second electrode lines , which mutually intersect, on said base substrate , wherein said second electrode lines are interrupted at positions where they intersect said first electrode lines , characterized in that , the conductive bridging method further comprises: sequentially forming an insulating layer and a self-assembled-monolayer on said base substrate provided with said first electrode lines and said second electrode lines ; forming via holes penetrating through said insulating layer and said self-assembled-monolayer ; removing the self-assembled-monolayer between two adjacent via holes close to a same first electrode line ; filling a conductive dispersion liquid in said via holes and a region between said two adjacent via holes ; and treating said conductive dispersion liquid to form a conductive film . sequentially forming an insulating layer and a self-assembled-monolayer on said base substrate provided with said first electrode lines and said second electrode lines ; forming via holes penetrating through said insulating layer and said self-assembled-monolayer ; removing the self-assembled-monolayer between two adjacent via holes close to a same first electrode line ; filling a conductive dispersion liquid in said via holes and a region between said two adjacent via holes ; and treating said conductive dispersion liquid to form a conductive film .
A thermoplastic resin composition comprising: 100 parts by weight of a base resin comprising 65 wt% to 95 wt% of a polypropylene resin and 5 wt% to 35 wt% of a polyolefin copolymer resin; and 0.5 parts by weight to 10 parts by weight of zinc oxide, wherein the polyolefin copolymer resin comprises at least one of an ethylene-α-olefin copolymer resin, a propylene-α-olefin copolymer resin, an epoxy-modified polyolefin copolymer resin, and a maleic anhydride-modified polyolefin copolymer resin; and wherein the zinc oxide has an average particle diameter of 0.5 μm to 3 μm, a BET specific surface area of 1 m 2 /g to 10 m 2 /g, and a peak position degree (2θ) in the range of 35° to 37° and a crystallite size of 1,000 Å to 2,000 Å in X-ray diffraction (XRD) analysis, as calculated by Equation 1: Crystallite size D = Kλ β cos θ where K is a shape factor, λ is an X-ray wavelength, β is an FWHM value (degree) of an X-ray diffraction peak, and θ is a peak position degree. 100 parts by weight of a base resin comprising 65 wt% to 95 wt% of a polypropylene resin and 5 wt% to 35 wt% of a polyolefin copolymer resin; and 0.5 parts by weight to 10 parts by weight of zinc oxide, wherein the polyolefin copolymer resin comprises at least one of an ethylene-α-olefin copolymer resin, a propylene-α-olefin copolymer resin, an epoxy-modified polyolefin copolymer resin, and a maleic anhydride-modified polyolefin copolymer resin; and wherein the zinc oxide has an average particle diameter of 0.5 μm to 3 μm, a BET specific surface area of 1 m 2 /g to 10 m 2 /g, and a peak position degree (2θ) in the range of 35° to 37° and a crystallite size of 1,000 Å to 2,000 Å in X-ray diffraction (XRD) analysis, as calculated by Equation 1: Crystallite size D = Kλ β cos θ where K is a shape factor, λ is an X-ray wavelength, β is an FWHM value (degree) of an X-ray diffraction peak, and θ is a peak position degree.
A method for validation of a license associated with an application stored on a non-transitory computer readable medium of a telecommunication device , comprising: collecting, by the telecommunication device , license validation information for validation of a license associated with the application; the telecommunication device sending a license request message to a license server , the license request message comprising the collected license validation information, characterized in that the license request message is structured as a SIP MESSAGE that has a header and a body, wherein the header includes the address of the license server, and wherein the body includes a body that is formatted to be compliant with SIP and also with the Multipurpose Internet Mail Extension, MIME, specification. collecting, by the telecommunication device , license validation information for validation of a license associated with the application; the telecommunication device sending a license request message to a license server , the license request message comprising the collected license validation information,
A vacuum pump, in particular a scroll pump , comprising a check valve comprising a passage for a fluid, a movable closing element and a seal seat , wherein the closing element and the seal seat are configured as corresponding such that the closing element blocks the passage when said closing element is in contact with the seal seat , characterized by a mass element which is designed separately from the closing element and which is connected to the closing element , wherein the closing element is preloaded against the seal seat by means of a spring , and wherein the mass element and the closing element together have a mass m and wherein the spring has a spring constant k, wherein the ratio k/m is at most 110,000 s -2 . a passage for a fluid, a movable closing element and a seal seat , wherein the closing element and the seal seat are configured as corresponding such that the closing element blocks the passage when said closing element is in contact with the seal seat , characterized by a mass element which is designed separately from the closing element and which is connected to the closing element , wherein the closing element is preloaded against the seal seat by means of a spring , and wherein the mass element and the closing element together have a mass m and wherein the spring has a spring constant k, wherein the ratio k/m is at most 110,000 s -2 .
A functional polyorganosiloxane comprising at least one SiH group, at least one diorganosiloxy group, which does not comprise an acid anhydride group, and at least one siloxy group having at least one organic group bound to the silicon atom via a carbon atom, said organic group comprising at least one acid anhydride group.
A sequenced transmit muting wideband power amplifier , the power amplifier comprising: at least one pre-driver stage including a transmit radio frequency, RF, input and at least a first pre-driver (212-1) and a second pre-driver (212-2); a mute switch configured to selectively establish a communication path between the first and second pre-drivers and couple the second pre-driver to a termination resistor ; at least one pre-driver switch configured to selectively couple a supply voltage and ground to the first and second pre-drivers; a driver stage in communication with the at least one pre-driver stage, the driver stage including at least one first driver (211-1); a final amplifier stage including a transmit RF output and at least one second driver (211-2, 211-3); at least one slow negative-bias-switching, S-NBS, switch configured to selectively couple one of a first voltage and a second voltage to the at least one first driver and at least one second driver; and at least one controller configured to activate the at least one pre-driver switch, the mute switch, the at least one S-NBS switch configured to to selectively place the amplifier in one of a transmit mode and a mute mode. at least one pre-driver stage including a transmit radio frequency, RF, input and at least a first pre-driver (212-1) and a second pre-driver (212-2); a mute switch configured to selectively establish a communication path between the first and second pre-drivers and couple the second pre-driver to a termination resistor ; at least one pre-driver switch configured to selectively couple a supply voltage and ground to the first and second pre-drivers; a driver stage in communication with the at least one pre-driver stage, the driver stage including at least one first driver (211-1); a final amplifier stage including a transmit RF output and at least one second driver (211-2, 211-3); at least one slow negative-bias-switching, S-NBS, switch configured to selectively couple one of a first voltage and a second voltage to the at least one first driver and at least one second driver; and at least one controller configured to activate the at least one pre-driver switch, the mute switch, the at least one S-NBS switch configured to to selectively place the amplifier in one of a transmit mode and a mute mode.
A method for scaling an application , the method comprising: monitoring a workload associated with an application , the application comprising a plurality of components of different types and at least one deployed instance of each of the components, the application combining functionalities of the components to provide a service; determining that a component of a first type of the application requires an increased number of instances; obtaining a first logical distance metric defining a maximum allowable network delay between instances of the component of the first type and a second logical distance metric defining a maximum allowable network delay between an instance of said component of the first type requiring an increased number of instances and an instance of a component of a second type, wherein obtaining the first and second logical distance metrics includes receiving the distance metrics from another network entity or retrieving the distance metrics from memory; selecting a server hosting the new instance of said component in accordance with at least the first logical distance metric and the second logical distance metric; and instantiating a new instance of the component of the first type on the selected server. monitoring a workload associated with an application , the application comprising a plurality of components of different types and at least one deployed instance of each of the components, the application combining functionalities of the components to provide a service; determining that a component of a first type of the application requires an increased number of instances; obtaining a first logical distance metric defining a maximum allowable network delay between instances of the component of the first type and a second logical distance metric defining a maximum allowable network delay between an instance of said component of the first type requiring an increased number of instances and an instance of a component of a second type, wherein obtaining the first and second logical distance metrics includes receiving the distance metrics from another network entity or retrieving the distance metrics from memory; selecting a server hosting the new instance of said component in accordance with at least the first logical distance metric and the second logical distance metric; and instantiating a new instance of the component of the first type on the selected server.
A container for an aerosol-generating device , comprising: a first compartment , being sealed and tubular and comprising a nicotine source; a second compartment , being sealed and tubular and comprising a delivery enhancing compound; and a transfer section arranged between the first compartment and the second compartment , characterized in that the first compartment and the second compartment are formed from a laminate material, the laminate comprising at least one layer of cardboard material and at least one layer of polymeric material , and wherein, the layer of polymeric material forms the internal surface of the first compartment and second compartment . a first compartment , being sealed and tubular and comprising a nicotine source; a second compartment , being sealed and tubular and comprising a delivery enhancing compound; and a transfer section arranged between the first compartment and the second compartment , characterized in that the first compartment and the second compartment are formed from a laminate material, the laminate comprising at least one layer of cardboard material and at least one layer of polymeric material , and wherein, the layer of polymeric material forms the internal surface of the first compartment and second compartment . characterized in that the first compartment and the second compartment are formed from a laminate material, the laminate comprising at least one layer of cardboard material and at least one layer of polymeric material , and wherein, the layer of polymeric material forms the internal surface of the first compartment and second compartment .
A nasal high flow system configured for providing a hypoxic flow of gases to a user, comprising: an apparatus comprising a gas flow path, an ambient air inlet , and a hypoxic gas source inlet configured to connect to a hypoxic gas source and configured to create a hypoxic gas composition upon mixing of ambient air and hypoxic gas; a user interface comprising a nasal cannula comprising nasal prongs ; a gas flow generation element configured to deliver the hypoxic gas composition to nares of the user at a predetermined high flow rate of at least about 10 liters/minute; a sensor configured to measure a physiological parameter of the user, wherein the physiological parameter is blood oxygen saturation; and a controller configured to automatically control the delivery of the hypoxic gas composition based on the measured physiological parameter; wherein the nasal cannula is non-sealed. an apparatus comprising a gas flow path, an ambient air inlet , and a hypoxic gas source inlet configured to connect to a hypoxic gas source and configured to create a hypoxic gas composition upon mixing of ambient air and hypoxic gas; a user interface comprising a nasal cannula comprising nasal prongs ; a gas flow generation element configured to deliver the hypoxic gas composition to nares of the user at a predetermined high flow rate of at least about 10 liters/minute; a sensor configured to measure a physiological parameter of the user, wherein the physiological parameter is blood oxygen saturation; and a controller configured to automatically control the delivery of the hypoxic gas composition based on the measured physiological parameter; wherein the nasal cannula is non-sealed.
A medical container provided by joining together rims of a set of sheet-shaped members disposed facing each other, the medical container comprising: an accommodation part disposed at a central part in a width direction (WD); and a pair of extending parts that is disposed on one end side in a height direction (HD) of the accommodation part , and extends outward in the width direction (WD) from the accommodation part , and characterized in that : partition joining parts that extend from the other end side to the one end side in the height direction (HD), and partition the accommodation part and the extending parts at boundary portions between the accommodation part and a pair of the extending parts , wherein the accommodation part and the extending parts have communicating portions on the one end side in the height direction (HD) of the accommodation part . an accommodation part disposed at a central part in a width direction (WD); and a pair of extending parts that is disposed on one end side in a height direction (HD) of the accommodation part , and extends outward in the width direction (WD) from the accommodation part , and characterized in that : partition joining parts that extend from the other end side to the one end side in the height direction (HD), and partition the accommodation part and the extending parts at boundary portions between the accommodation part and a pair of the extending parts , wherein the accommodation part and the extending parts have communicating portions on the one end side in the height direction (HD) of the accommodation part . partition joining parts that extend from the other end side to the one end side in the height direction (HD), and partition the accommodation part and the extending parts at boundary portions between the accommodation part and a pair of the extending parts , wherein the accommodation part and the extending parts have communicating portions on the one end side in the height direction (HD) of the accommodation part .
A press-fit-interlocking connection of an inner part to an outer part, which is fastened on the inner part, wherein: - the press-fit connection comprises a cylindrical press joint between the outer part and the inner part, - and the interlocking connection is formed by an axial stop with contacting stop parts on the inner part and on the outer part, wherein the press-fit-interlocking connection comprises an edge support in contact with the stop parts , which contact one another in a first principal plane of curvature (E 1 ), to which the cylinder axis of the press joint is perpendicular, with radii of curvature (r a1 , r i1 ) of equal size, characterized in that the stop parts contact one another in a second principal plane of curvature (E 2 ), in which the cylinder axis of the press joint lies, with radii of curvature (r a2 , r i2 ) of different sizes. - the press-fit connection comprises a cylindrical press joint between the outer part and the inner part, - and the interlocking connection is formed by an axial stop with contacting stop parts on the inner part and on the outer part, wherein the press-fit-interlocking connection comprises an edge support in contact with the stop parts , which contact one another in a first principal plane of curvature (E 1 ), to which the cylinder axis of the press joint is perpendicular, with radii of curvature (r a1 , r i1 ) of equal size, characterized in that the stop parts contact one another in a second principal plane of curvature (E 2 ), in which the cylinder axis of the press joint lies, with radii of curvature (r a2 , r i2 ) of different sizes.
Test device and connected adapter cable therewith for a control unit of a switching device of a substation , wherein the test device has a number of signal inputs (BE) and a number of signal outputs (BA, AA) and the test device is connectable to the control device via the adapter cable and simulates the test device for testing switching device , characterized in that a storage unit is provided at the adapter cable , on which configuration-specific data can be stored and read by the test device and that the test device is designed to automatically configure its signal inputs (BE) and signal outputs (BA,AA) necessary to perform a test according to the configuration-specific data.
Battery support frame for an electric vehicle, having a longitudinal profile and having a transverse profile , wherein the support frame comprises at least one support frame corner defining an internal angle, characterized in that a compensation insert is arranged between the longitudinal profile and the transverse profile as tolerance compensation, the longitudinal profile and the transverse profile being connected to one another with the integration of the compensation insert .
A method comprising: disposing a support layer on a surface of a wavelength converting ceramic wafer ; dicing the wavelength converting ceramic wafer and the support layer to form wavelength converting members ; attaching a wavelength converting member to a light emitting device ; and after attaching the wavelength converting member (40A, 40B, 40C, ...) to the light emitting device , removing the support layer. disposing a support layer on a surface of a wavelength converting ceramic wafer ; dicing the wavelength converting ceramic wafer and the support layer to form wavelength converting members ; attaching a wavelength converting member to a light emitting device ; and after attaching the wavelength converting member (40A, 40B, 40C, ...) to the light emitting device , removing the support layer.