mhurhangee/patent-ind-claim-en huggingface dataset:
A vacuum pump, in particular a turbomolecular vacuum pump, comprising a rotor shaft ; a rolling element bearing for supporting the rotor shaft ; an operating medium store for storing an operating medium for the rolling element bearing in a storage material; and a gas connection , characterized in that the gas connection is connected to a first side of the rolling element bearing facing the operating medium store , with the first side of the rolling element bearing being connected to the gas connection by a channel which is formed by the operating medium store . a rotor shaft ; a rolling element bearing for supporting the rotor shaft ; an operating medium store for storing an operating medium for the rolling element bearing in a storage material; and a gas connection , characterized in that the gas connection is connected to a first side of the rolling element bearing facing the operating medium store , with the first side of the rolling element bearing being connected to the gas connection by a channel which is formed by the operating medium store .
A Pd-supporting Zr-based composite oxide, wherein Pd is supported on a Zr-containing composite oxide support, and wherein the location of the maximum peak in a Pd bond distance range of 2.500 Å to 3.500 Å, is 3.050 Å to 3.110 Å, as determined by XAFS (X-Ray Absorption Fine Structure) analysis. wherein Pd is supported on a Zr-containing composite oxide support, and wherein the location of the maximum peak in a Pd bond distance range of 2.500 Å to 3.500 Å, is 3.050 Å to 3.110 Å, as determined by XAFS (X-Ray Absorption Fine Structure) analysis.
A method of controlling the flowability of plant seeds by placing the plant seeds of a mass of seeds in contact with dry free flowing particles of a flowability enhancing agent that is made up of at least one species of electret particles made up of a wax, the particles having a volume mean diameter in the range of up to 200 μm, wherein the electret particles adhere more firmly to the plant seeds than do particles that comprise a dry free flowing substance that is or includes a mineral earth component, such as talc, diatomaceous earth, kaolin, or the like.
A microscope system , comprising: - a light sheet microscopic functional unit that illuminates and images a sample in a first operating state of the microscope system with a light sheet-like illumination light distribution, - a scanning microscopic functional unit that illuminates and images the sample in a second operating state of the microscope system with a point-like illumination light distribution, - a first scanning element that uniaxially scans the sample in the first operating state with the light sheet-like illumination light distribution generated by the light sheet microscopic functional unit , and uniaxially scans the sample , in the second operating state, with the point-like illumination light distribution generated by the scanning microscopic functional unit , - a second scanning element that uniaxially scans the sample in the second operating state with the point-like illumination light distribution generated by the scanning microscopic functional unit and thereby, in the second operating state, together with the first scanning element , generates a biaxial scanning of the sample with the point-like illumination light distribution generated by the scanning microscopic functional unit , and - a control unit that switches between the first operating state and the second operating state. - a light sheet microscopic functional unit that illuminates and images a sample in a first operating state of the microscope system with a light sheet-like illumination light distribution, - a scanning microscopic functional unit that illuminates and images the sample in a second operating state of the microscope system with a point-like illumination light distribution, - a first scanning element that uniaxially scans the sample in the first operating state with the light sheet-like illumination light distribution generated by the light sheet microscopic functional unit , and uniaxially scans the sample , in the second operating state, with the point-like illumination light distribution generated by the scanning microscopic functional unit , - a second scanning element that uniaxially scans the sample in the second operating state with the point-like illumination light distribution generated by the scanning microscopic functional unit and thereby, in the second operating state, together with the first scanning element , generates a biaxial scanning of the sample with the point-like illumination light distribution generated by the scanning microscopic functional unit , and - a control unit that switches between the first operating state and the second operating state.
A CMOS image sensor comprising: a semiconductor substrate ; a dielectric layer disposed on the semiconductor substrate ; a plurality of pixel regions in the semiconductor substrate ; a deep trench disposed between two adjacent pixel regions; a polysilicon layer having a first conductivity type filling the deep trench ; a plurality of well regions having a second conductivity type in each of the pixel regions, the first and second conductivity types being opposite conductivity types; a through hole 207, 307) connected to the polysilicon layer passing through the dielectric layer ; an metal interconnect layer disposed on the dielectric layer and connected to the through hole ; an isolation well having the first conductivity type, disposed between the two adjacent pixel regions and configured to isolate adjacent pixel regions; characterized in that the isolation well surrounds a portion of the deep trench , the isolation well having a bottom that is higher than a bottom of the deep trench . a semiconductor substrate ; a dielectric layer disposed on the semiconductor substrate ; a plurality of pixel regions in the semiconductor substrate ; a deep trench disposed between two adjacent pixel regions; a polysilicon layer having a first conductivity type filling the deep trench ; a plurality of well regions having a second conductivity type in each of the pixel regions, the first and second conductivity types being opposite conductivity types; a through hole 207, 307) connected to the polysilicon layer passing through the dielectric layer ; an metal interconnect layer disposed on the dielectric layer and connected to the through hole ; an isolation well having the first conductivity type, disposed between the two adjacent pixel regions and configured to isolate adjacent pixel regions; characterized in that the isolation well surrounds a portion of the deep trench , the isolation well having a bottom that is higher than a bottom of the deep trench .
An aerosol delivery system , comprising: a control body portion including a first elongate tubular member having opposed ends, and a power source disposed therein; a cartridge body portion including a second tubular member having opposed first and second ends, the first end being engaged with one of the opposed ends of the control body portion , the cartridge body portion further comprising a first aerosol generation arrangement disposed within the second tubular member and configured to operably engage the power source upon engagement between the one of the opposed ends of the control body portion and the first end of the cartridge body portion , the second end of the cartridge body portion facing toward a mouth-engaging end of the aerosol delivery system ; and a second aerosol generation arrangement disposed between the first aerosol generation arrangement and the mouth-engaging end of the aerosol delivery system , the second aerosol generation arrangement being either removably engaged with the cartridge body portion or housed within the second tubular member of the cartridge body portion , wherein the second aerosol generation arrangement further includes a plurality of aerosol-generating elements selected from one or more of milled tobacco lamina, particulate tobacco, and beads or pellets comprising tobacco. a control body portion including a first elongate tubular member having opposed ends, and a power source disposed therein; a cartridge body portion including a second tubular member having opposed first and second ends, the first end being engaged with one of the opposed ends of the control body portion , the cartridge body portion further comprising a first aerosol generation arrangement disposed within the second tubular member and configured to operably engage the power source upon engagement between the one of the opposed ends of the control body portion and the first end of the cartridge body portion , the second end of the cartridge body portion facing toward a mouth-engaging end of the aerosol delivery system ; and a second aerosol generation arrangement disposed between the first aerosol generation arrangement and the mouth-engaging end of the aerosol delivery system , the second aerosol generation arrangement being either removably engaged with the cartridge body portion or housed within the second tubular member of the cartridge body portion , wherein the second aerosol generation arrangement further includes a plurality of aerosol-generating elements selected from one or more of milled tobacco lamina, particulate tobacco, and beads or pellets comprising tobacco.
A method for determining positions of molecules (M) spaced apart from one another in one or more spatial directions in a sample comprising the steps of: - generating a plurality of light distributions, each light distribution comprising a local intensity minimum and intensity increasing regions adjacent thereto, the light distributions comprising an excitation light distribution and a deactivation light distribution , particularly a STED light distribution, - illuminating the sample with the excitation light distribution and the deactivation light distribution , - detecting photons emitted by the molecule (M) for different positionings of the excitation light distribution , and - deriving the position of the molecule (M) based on the photons detected for the different positionings of the excitation light distribution , wherein the local minimum of the excitation light distribution is successively arranged at a plurality of scanning positions within a scanning region , characterized in that the light intensity of the deactivation light in a catch region assigned to the scanning region , in which the position of the molecule (M) can be unambiguously derived from the scanning positions and the associated detected photons, corresponds at most to a saturation intensity. - generating a plurality of light distributions, each light distribution comprising a local intensity minimum and intensity increasing regions adjacent thereto, the light distributions comprising an excitation light distribution and a deactivation light distribution , particularly a STED light distribution, - illuminating the sample with the excitation light distribution and the deactivation light distribution , - detecting photons emitted by the molecule (M) for different positionings of the excitation light distribution , and - deriving the position of the molecule (M) based on the photons detected for the different positionings of the excitation light distribution , wherein the local minimum of the excitation light distribution is successively arranged at a plurality of scanning positions within a scanning region , characterized in that the light intensity of the deactivation light in a catch region assigned to the scanning region , in which the position of the molecule (M) can be unambiguously derived from the scanning positions and the associated detected photons, corresponds at most to a saturation intensity. wherein the local minimum of the excitation light distribution is successively arranged at a plurality of scanning positions within a scanning region , characterized in that the light intensity of the deactivation light in a catch region assigned to the scanning region , in which the position of the molecule (M) can be unambiguously derived from the scanning positions and the associated detected photons, corresponds at most to a saturation intensity.
A method of initiating a laser tip assembly , comprising: providing a laser tip assembly including an uninitiated optical fiber , the uninitiated optical fiber comprising a distal portion including a distal end portion defining a distal end; and applying an initiating material to at least a portion of the distal end portion , the initiating material comprising an enamel material and a base material; wherein the base material comprises at least one solvent, and the enamel material comprises metal powder or pigment; operatively coupling the uninitiated optical fiber to a laser source, the laser source operative to emit laser energy at prescribed wavelengths and output power ranges; and firing the laser source for a prescribed time interval, wherein the laser energy is at least partially absorbed in the initiating material , characterised in that the at least on solvent is organic, ignitable and flammable in air; and in that the absorbed energy ignites the organic solvent, and the ignition and combustion melts portions of the optical fiber so that the optical fiber gets impregnated with the metal powder or pigment of the initiating material . providing a laser tip assembly including an uninitiated optical fiber , the uninitiated optical fiber comprising a distal portion including a distal end portion defining a distal end; and applying an initiating material to at least a portion of the distal end portion , the initiating material comprising an enamel material and a base material; wherein the base material comprises at least one solvent, and the enamel material comprises metal powder or pigment; operatively coupling the uninitiated optical fiber to a laser source, the laser source operative to emit laser energy at prescribed wavelengths and output power ranges; and firing the laser source for a prescribed time interval, wherein the laser energy is at least partially absorbed in the initiating material , characterised in that the at least on solvent is organic, ignitable and flammable in air; and in that the absorbed energy ignites the organic solvent, and the ignition and combustion melts portions of the optical fiber so that the optical fiber gets impregnated with the metal powder or pigment of the initiating material .
Combination of a cooling system and a feed grate of an incinerator of solid materials, the feed grate comprising a plurality of grate bars , at least one of the grate bars including a body having atop surface , a bottom surface , a first end and a second end , the cooling system comprising: a first aperture in the body and a second aperture in the body , and an internal passageway defined within the body and fluidly connecting the first aperture to the second aperture , the first aperture being arranged to receive a gas therethrough into the body , and the second aperture arranged to provide an egress for the gas out of the body ; and a manifold duct fluidly coupled to the second aperture for receiving the gas from the second aperture ; wherein the gas is independent of the primary combustion air of the incinerator; characterized by a heat exchanger fluidly connected to the manifold duct and forming a closed loop with the internal passageway in the body of the grate bar . a first aperture in the body and a second aperture in the body , and an internal passageway defined within the body and fluidly connecting the first aperture to the second aperture , the first aperture being arranged to receive a gas therethrough into the body , and the second aperture arranged to provide an egress for the gas out of the body ; and a manifold duct fluidly coupled to the second aperture for receiving the gas from the second aperture ; wherein the gas is independent of the primary combustion air of the incinerator; characterized by a heat exchanger fluidly connected to the manifold duct and forming a closed loop with the internal passageway in the body of the grate bar .
Method for operating a hearing aid , a. wherein the hearing aid comprises an ANC unit , b. wherein the ANC unit comprises a feedforward unit , which outputs a feedforward signal (ff) for suppressing external interference noises entering an auditory canal of a user of the hearing aid from the outside, c. wherein the ANC unit comprises a feedback unit , which outputs a feedback signal (fb) for suppressing internal interference noises present within the auditory canal , d. wherein the hearing aid has a signal processing unit , which has an adjustable amplification and which amplifies an input signal (E1) of the hearing aid and outputs it as an amplified signal (S), e. wherein the amplification is set in dependence of the frequency, namely only in those frequency ranges, in which the user's own voice lies, characterized in f. that the feedback signal (fb) is used as a measure of the user's own voice and the amplification of the signal processing unit is set depending on the feedback signal (fb) and thus also depending on the own voice. a. wherein the hearing aid comprises an ANC unit , b. wherein the ANC unit comprises a feedforward unit , which outputs a feedforward signal (ff) for suppressing external interference noises entering an auditory canal of a user of the hearing aid from the outside, c. wherein the ANC unit comprises a feedback unit , which outputs a feedback signal (fb) for suppressing internal interference noises present within the auditory canal , d. wherein the hearing aid has a signal processing unit , which has an adjustable amplification and which amplifies an input signal (E1) of the hearing aid and outputs it as an amplified signal (S), e. wherein the amplification is set in dependence of the frequency, namely only in those frequency ranges, in which the user's own voice lies, characterized in f. that the feedback signal (fb) is used as a measure of the user's own voice and the amplification of the signal processing unit is set depending on the feedback signal (fb) and thus also depending on the own voice.
A key derivation method in a core network including a plurality of network slices, the key derivation method comprising: deriving a key for each of the plurality of network slices; and deriving a common key common to the plurality of network slices, wherein both the key for each of the plurality of network slices and the common key are derived from one master key. deriving a key for each of the plurality of network slices; and deriving a common key common to the plurality of network slices, wherein both the key for each of the plurality of network slices and the common key are derived from one master key.
A method for using a network slice, performed by a base station, the method comprising: determining one or more first network slices capable of being supported by the base station; generating first network slice information, wherein the first network slice information is used to characterize each of the first network slices; and transmitting the first network slice information to a terminal, to enable the terminal to determine, according to the first network slice information, each of the first network slices capable of being supported by the base station characterized by , receiving second network slice information transmitted by the terminal, wherein the second network slice information is used to characterize at least one third network slice, and the third network slice is at least one network slice, matching at least one of the first network slices, among one or more second network slices required by the terminal; selecting a corresponding first access and mobility management function AMF for the terminal according to the third network slice, in response to an AMF being required to be selected for the terminal; generating first indication information, wherein the first indication information is used to characterize the first AMF; and transmitting the first indication information to the terminal through a radio resource control RRC setup complete signaling, to enable the terminal to determine the first AMF according to the first indication information. determining one or more first network slices capable of being supported by the base station; generating first network slice information, wherein the first network slice information is used to characterize each of the first network slices; and transmitting the first network slice information to a terminal, to enable the terminal to determine, according to the first network slice information, each of the first network slices capable of being supported by the base station characterized by , receiving second network slice information transmitted by the terminal, wherein the second network slice information is used to characterize at least one third network slice, and the third network slice is at least one network slice, matching at least one of the first network slices, among one or more second network slices required by the terminal; selecting a corresponding first access and mobility management function AMF for the terminal according to the third network slice, in response to an AMF being required to be selected for the terminal; generating first indication information, wherein the first indication information is used to characterize the first AMF; and transmitting the first indication information to the terminal through a radio resource control RRC setup complete signaling, to enable the terminal to determine the first AMF according to the first indication information.