mhurhangee/ep-ind-claims huggingface dataset:
Emulsion of polyorganosiloxanes comprising polyorganosiloxanes which have a viscosity greater than 10 000 mm 2 /s, measured at 25°C, at least one emulsifier of the formula n P (3-n) in which R can be identical or different and is monovalent hydrocarbon radicals having 4 to 30 carbon atoms, n is 1 or 2, and/or salts thereof and water, with the proviso that the emulsion comprises less than 2% by weight of octaorganylcyclotetrasiloxane (D 4), based on component. polyorganosiloxanes which have a viscosity greater than 10 000 mm 2 /s, measured at 25°C, at least one emulsifier of the formula n P (3-n) in which R can be identical or different and is monovalent hydrocarbon radicals having 4 to 30 carbon atoms, n is 1 or 2, and/or salts thereof and R can be identical or different and is monovalent hydrocarbon radicals having 4 to 30 carbon atoms, n is 1 or 2, and/or salts thereof water,
A method for producing glass or glass ceramic elements from sheet-like glass or glass ceramic parts with high accuracy and reduced grinding volume, wherein - filamentary defects are generated in the interior of the glass or glass ceramic part adjacent to one another along a separation line; - the defects are generated by laser pulses of an ultra-short pulse laser, wherein the material of the glass or glass ceramic element is at least partially transparent for the laser pulses, so that the laser radiation can penetrate into the glass or the glass ceramic for generating the defects in the interior thereof; and - the pulsed laser beam and the surface of the glass or glass ceramic part are moved relative to each other, so that the points of incidence of the laser pulses on the surface of the glass or glass ceramic element line up adjacent to one another along the separation line; and wherein - once the filamentary defects have been introduced adjacent to one another along the separation line, the glass or glass ceramic element is worked out by severing along the separation line; and wherein - the edge surface of the glass or glass ceramic element formed by the severing is partially processed by grinding, so that the edge surface comprises at least one strip-shaped region generated by the introducing of the filamentary defects and the severing, which has elongated juxtaposed parallel filamentary defects with a longitudinal extension transversely to the faces (25, 26), and an adjacent strip-shaped region that has been further processed by grinding. - filamentary defects are generated in the interior of the glass or glass ceramic part adjacent to one another along a separation line; - the defects are generated by laser pulses of an ultra-short pulse laser, wherein the material of the glass or glass ceramic element is at least partially transparent for the laser pulses, so that the laser radiation can penetrate into the glass or the glass ceramic for generating the defects in the interior thereof; and - the pulsed laser beam and the surface of the glass or glass ceramic part are moved relative to each other, so that the points of incidence of the laser pulses on the surface of the glass or glass ceramic element line up adjacent to one another along the separation line; and wherein - once the filamentary defects have been introduced adjacent to one another along the separation line, the glass or glass ceramic element is worked out by severing along the separation line; and wherein - the edge surface of the glass or glass ceramic element formed by the severing is partially processed by grinding, so that the edge surface comprises at least one strip-shaped region generated by the introducing of the filamentary defects and the severing, which has elongated juxtaposed parallel filamentary defects with a longitudinal extension transversely to the faces (25, 26), and an adjacent strip-shaped region that has been further processed by grinding.
A Nuclear Magnetic Resonance probe comprising: a primary circuit including a primary inductor coil located in a first region above a lower insulator with a primary resonance mode; one or more secondary circuits including one or more secondary inductor coils located in a second region below the lower insulator, where the one or more secondary inductor coils are electrically connected to the primary inductor coil; and one or more inductive coupling loops located below the lower insulator inductively coupled to the one or more secondary inductor coils. a primary circuit including a primary inductor coil located in a first region above a lower insulator with a primary resonance mode; one or more secondary circuits including one or more secondary inductor coils located in a second region below the lower insulator, where the one or more secondary inductor coils are electrically connected to the primary inductor coil; and one or more inductive coupling loops located below the lower insulator inductively coupled to the one or more secondary inductor coils.
Switchboard enclosure with at least one rear panel, one base panel, one top panel and at least two side panels (8, 10), wherein: - a covering part of the switchboard enclosure, which is formed from the rear panel and the side panels (8, 10), is formed in one piece from a pre-coated sheet metal bent in a U-shape with an inwardly bent peripheral cut edge; - the bottom panel and the top panel are connected to the U-shaped bent sheet metal in such a way that respective cut edges are covered; and wherein no cut edges of the pre-coated sheet metal are visible due to the direct connection or arrangement of the bottom panel and the top panel to the U-shaped bent sheet metal and due to the circumferential cut edges bent inwards into the non-visible area; - critical corner areas without bending are butted against the top panel or base panel, so that the cut edges provided there on the covering part are not visible; - the rear panel and/or the side panels (8, 10) is/are at least partially electrically insulated on the inside with an inner lining of insulating material; - the covering part is closed with the base panel and the top panel, each of which is made of insulating material - the base panel and the top panel are detachably connected to the U-shaped bent sheet; and - the covering part as well as the bottom wall and the top panel have correspondingly adapted latching means, for example latching hooks or protrusions as well as complementary latching lugs or recesses. - a covering part of the switchboard enclosure, which is formed from the rear panel and the side panels (8, 10), is formed in one piece from a pre-coated sheet metal bent in a U-shape with an inwardly bent peripheral cut edge; - the bottom panel and the top panel are connected to the U-shaped bent sheet metal in such a way that respective cut edges are covered; and wherein no cut edges of the pre-coated sheet metal are visible due to the direct connection or arrangement of the bottom panel and the top panel to the U-shaped bent sheet metal and due to the circumferential cut edges bent inwards into the non-visible area; - critical corner areas without bending are butted against the top panel or base panel, so that the cut edges provided there on the covering part are not visible; - the rear panel and/or the side panels (8, 10) is/are at least partially electrically insulated on the inside with an inner lining of insulating material; - the covering part is closed with the base panel and the top panel, each of which is made of insulating material - the base panel and the top panel are detachably connected to the U-shaped bent sheet; and - the covering part as well as the bottom wall and the top panel have correspondingly adapted latching means, for example latching hooks or protrusions as well as complementary latching lugs or recesses.
A photon phase modulating system for quantum key distribution, comprising: circuitry configured to randomly generate two separate digital driving signals (P1, P2), each digital driving signal representing a string of binary digits for performing random four-phase modulation on photons; characterised by a gain control network, configured to perform gain control on the two separate digital driving signals (P1, P2) respectively, and to generate two driving signals (Pout1, Pout2) for driving an electro-optic phase modulator; and the electro-optic phase modulator having two separate modulation electrodes (1301, 1302), each of which receives a corresponding one of the two driving signals (Pout1, Pout2), the electro-optic phase modulator being configured to perform phase modulation on an inputted photon and implement four-phase modulation on the inputted photon based on a combination of the two separate digital driving signals (P1, P2). circuitry configured to randomly generate two separate digital driving signals (P1, P2), each digital driving signal representing a string of binary digits for performing random four-phase modulation on photons; characterised by a gain control network, configured to perform gain control on the two separate digital driving signals (P1, P2) respectively, and to generate two driving signals (Pout1, Pout2) for driving an electro-optic phase modulator; and the electro-optic phase modulator having two separate modulation electrodes (1301, 1302), each of which receives a corresponding one of the two driving signals (Pout1, Pout2), the electro-optic phase modulator being configured to perform phase modulation on an inputted photon and implement four-phase modulation on the inputted photon based on a combination of the two separate digital driving signals (P1, P2).
A heat pump, in particular a heat pump installed indoors, comprising - a refrigerant circuit with a flammable refrigerant, in particular R454C, and - a housing, in which the refrigerant circuit is arranged, wherein the housing comprises a vent duct with an outlet opening and a fan arranged in the vent duct, wherein the fan is configured to suction air from the interior of the housing via the vent duct and the outlet opening out of the housing such that a vacuum is maintained inside the housing, and wherein the fan is configured as a radial fan and is configured to additionally suction air from outside the housing, characterised in that the radial fan has a suction surface, which is divided into two areas which each suction air from the interior of the housing or air from outside the housing. - a refrigerant circuit with a flammable refrigerant, in particular R454C, and - a housing, in which the refrigerant circuit is arranged, wherein the housing comprises a vent duct with an outlet opening and a fan arranged in the vent duct, wherein the fan is configured to suction air from the interior of the housing via the vent duct and the outlet opening out of the housing such that a vacuum is maintained inside the housing, and wherein the fan is configured as a radial fan and is configured to additionally suction air from outside the housing, characterised in that the radial fan has a suction surface, which is divided into two areas which each suction air from the interior of the housing or air from outside the housing. wherein the housing comprises a vent duct with an outlet opening and a fan arranged in the vent duct, wherein the fan is configured to suction air from the interior of the housing via the vent duct and the outlet opening out of the housing such that a vacuum is maintained inside the housing, and wherein the fan is configured as a radial fan and is configured to additionally suction air from outside the housing, characterised in that the radial fan has a suction surface, which is divided into two areas which each suction air from the interior of the housing or air from outside the housing.
A method for encoding a sequence of segments of coefficients, the segments being subsequent to each other in time, the method comprising the steps of providing the sequence of segments of coefficients from an audio stream representing a sampled audio signal by using different transform lengths such that segments of coefficients for which different transform lengths are used, spectrally represent the sampled audio signal at different frequency resolutions and such that the segments are of 1024 and 128 spectral coefficients, respectively; deriving a coding context for a currently encoded coefficient of a current segment based on a previously encoded coefficient of a previous segment, the previous and current segments corresponding to different frequency resolutions and different transform lengths, respectively; and entropy encoding the current coefficient based on the coding context to obtain an encoded audio stream, wherein the providing and the deriving are performed based on a down-sampling of spectral coefficients of the previous segment, when the previous segment displays a finer spectral resolution than the current segment. providing the sequence of segments of coefficients from an audio stream representing a sampled audio signal by using different transform lengths such that segments of coefficients for which different transform lengths are used, spectrally represent the sampled audio signal at different frequency resolutions and such that the segments are of 1024 and 128 spectral coefficients, respectively; deriving a coding context for a currently encoded coefficient of a current segment based on a previously encoded coefficient of a previous segment, the previous and current segments corresponding to different frequency resolutions and different transform lengths, respectively; and entropy encoding the current coefficient based on the coding context to obtain an encoded audio stream, wherein the providing and the deriving are performed based on a down-sampling of spectral coefficients of the previous segment, when the previous segment displays a finer spectral resolution than the current segment.
A method of processing an audio signal in an audio conferencing system, comprising: detecting a microphone movement of a microphone associated with the audio conferencing system; receiving from the microphone an indication of the detected microphone movement, the method being characterized by: detecting that a double talk condition exists in the audio conference system at the same time as the indication of the detected microphone movement is received; and receiving an audio signal from the microphone and using the received indication of the detected microphone movement and the detected double talk condition to control audio signal processing performed by the audio conferencing system on the audio signal, wherein the control of the audio signal processing comprises overriding an operation of the audio conferencing system to prevent changing the rate at which coefficients associated with an adaptive filter are updated. detecting a microphone movement of a microphone associated with the audio conferencing system; receiving from the microphone an indication of the detected microphone movement, the method being characterized by: detecting that a double talk condition exists in the audio conference system at the same time as the indication of the detected microphone movement is received; and receiving an audio signal from the microphone and using the received indication of the detected microphone movement and the detected double talk condition to control audio signal processing performed by the audio conferencing system on the audio signal, wherein the control of the audio signal processing comprises overriding an operation of the audio conferencing system to prevent changing the rate at which coefficients associated with an adaptive filter are updated. detecting that a double talk condition exists in the audio conference system at the same time as the indication of the detected microphone movement is received; and receiving an audio signal from the microphone and using the received indication of the detected microphone movement and the detected double talk condition to control audio signal processing performed by the audio conferencing system on the audio signal, wherein the control of the audio signal processing comprises overriding an operation of the audio conferencing system to prevent changing the rate at which coefficients associated with an adaptive filter are updated.
A hybrid automatic repeat request acknowledgment, HARQ ACK, feedback method comprising: determining, by a terminal, a candidate physical downlink shared channel, PDSCH, reception occasion set based on a slot timing set corresponding to an actual HARQ ACK feedback unit, wherein in the slot timing set, each element corresponds to one first slot set and each element corresponds to a different first slot set, wherein the first slot set comprises at least two consecutive slot units; and determining, by the terminal, a HARQ ACK feedback codebook based on the candidate PDSCH reception occasion set. determining, by a terminal, a candidate physical downlink shared channel, PDSCH, reception occasion set based on a slot timing set corresponding to an actual HARQ ACK feedback unit, wherein in the slot timing set, each element corresponds to one first slot set and each element corresponds to a different first slot set, wherein the first slot set comprises at least two consecutive slot units; and determining, by the terminal, a HARQ ACK feedback codebook based on the candidate PDSCH reception occasion set.
A hanger assembly for coupling a heat shield liner to a case, the hanger assembly comprising: a pivoting joint coupling a first segment to a second segment, the first segment being coupled in a mounted state to a liner by a liner attachment assembly, the second segment being coupled in a mounted state to the case by a case attachment assembly; at least one of the liner attachment assembly and the case attachment assembly permitting translational movement of the first or second segments (53, 58) respectively with respect to the case respectively; characterized in that the case attachment assembly includes an annular outer bushing passing through and connected to the case, the outer bushing accommodates an annular inner bushing, the inner bushing is coupled to a fastener that couples the inner bushing to the second segment, the inner bushing is spaced apart from the outer bushing to define an annular gap between the outer and inner bushings (65, 67) that permits translational movement of the second segment and fastener with respect to the outer bushing and the case. a pivoting joint coupling a first segment to a second segment, the first segment being coupled in a mounted state to a liner by a liner attachment assembly, the second segment being coupled in a mounted state to the case by a case attachment assembly; at least one of the liner attachment assembly and the case attachment assembly permitting translational movement of the first or second segments (53, 58) respectively with respect to the case respectively; characterized in that the case attachment assembly includes an annular outer bushing passing through and connected to the case, the outer bushing accommodates an annular inner bushing, the inner bushing is coupled to a fastener that couples the inner bushing to the second segment, the inner bushing is spaced apart from the outer bushing to define an annular gap between the outer and inner bushings (65, 67) that permits translational movement of the second segment and fastener with respect to the outer bushing and the case.
A method of synchronising an optical transmitter and modulator comprising transmitting a calibration sequence of pulses through free space from the transmitter to the modulator; varying a control timing drawn from the set comprising the transmit interval timings and the modulator transmission interval timings; monitoring the resulting pulses retro-reflected by the modulator and selecting a preferred control timing; controlling the optical transmitter and/or modulator responsive to the selected control timing.
A composite part, comprising: a component comprising a bushing with an apex portion with a peak point; a first set of first composite plies with finite lengths, respective ends of each being wrapped around the bushing and the apex portion with the peak point of the component in a counter-clockwise wrapping direction and comprising first fibers; and a second set of second composite plies with finite lengths, respective ends of each being wrapped around the bushing and the apex portion with the peak point of the component in a clockwise wrapping direction and comprising second fibers, wherein the first and second sets of the first and second composite plies, respectively, terminate at increasing distances from the peak point. a component comprising a bushing with an apex portion with a peak point; a first set of first composite plies with finite lengths, respective ends of each being wrapped around the bushing and the apex portion with the peak point of the component in a counter-clockwise wrapping direction and comprising first fibers; and a second set of second composite plies with finite lengths, respective ends of each being wrapped around the bushing and the apex portion with the peak point of the component in a clockwise wrapping direction and comprising second fibers, wherein the first and second sets of the first and second composite plies, respectively, terminate at increasing distances from the peak point.
An ultrasonic transducer comprising: a piezoelectric element; an acoustic matching layer arranged on a surface of the piezoelectric element and having a thickness of at least one-quarter of a first wavelength in the matching layer at a center resonant frequency of the transducer; and a front metal layer arranged on a surface of the acoustic matching layer opposite that of the piezoelectric element and having a thickness equal to one-half of a second wavelength in the front metal layer at the center resonant frequency, characterized in that the thickness of the acoustic matching layer is between one-quarter and one-half of the first wavelength in the matching layer at the center resonant frequency. a piezoelectric element; an acoustic matching layer arranged on a surface of the piezoelectric element and having a thickness of at least one-quarter of a first wavelength in the matching layer at a center resonant frequency of the transducer; and a front metal layer arranged on a surface of the acoustic matching layer opposite that of the piezoelectric element and having a thickness equal to one-half of a second wavelength in the front metal layer at the center resonant frequency, characterized in that the thickness of the acoustic matching layer is between one-quarter and one-half of the first wavelength in the matching layer at the center resonant frequency.
A safety device for at least one container, in particular a blow-moulded plastic container, preferably in ampule form, having a storage part for holding a medium which can be dispensed by means of a container opening, the container opening being able to be closed by means of a first safety part that counteracts opening forces with a pre-definable resistance, the pre-definable resistance being able to be overcome with the aid of a second safety part interacting with the first safety part to clear the container opening, the respective second safety part being attached detachably to the assigned container, the second safety part being moulded integrally onto the assigned container, and being able to be detached by breaking a first predetermined point of separation, the first safety part being a closure part which is moulded integrally onto the container opening such as to form a second predetermined point of separation on the head end of the supply part, and the second predetermined point of separation counteracting the opening forces with the pre-definable resistance, characterised in that the second safety part is a head part which is moulded integrally onto the head end of the storage part that has the container opening and onto the closure part over the first predetermined point of separation.