mhurhangee/patent-ind-claim-en huggingface dataset:
Transmitting device for a multi-carrier wireless communication system , the transmitting device comprising: a processor , and a transmitter ; wherein the processor is configured to map a plurality of synchronization signal sequences to time and frequency resource elements of one Orthogonal Frequency Division Multiplex, OFDM, symbol, wherein at least two of the plurality of synchronization signal sequences are of a first kind; wherein the transmitter is configured to transmit a multi-carrier signal comprising the one OFDM symbol; characterized in that , at least one of said at least two synchronisation signal sequences is completely or partially repeated in frequency domain such that a preamble for synchronisation is transmitted over a same bandwidth and with the same power as a data symbol. a processor , and a transmitter ; wherein the processor is configured to map a plurality of synchronization signal sequences to time and frequency resource elements of one Orthogonal Frequency Division Multiplex, OFDM, symbol, wherein at least two of the plurality of synchronization signal sequences are of a first kind; wherein the transmitter is configured to transmit a multi-carrier signal comprising the one OFDM symbol; characterized in that , at least one of said at least two synchronisation signal sequences is completely or partially repeated in frequency domain such that a preamble for synchronisation is transmitted over a same bandwidth and with the same power as a data symbol.
A sensor assembly, comprising: a wear sensor having: an encapsulation body with a wear face ; a sacrificial conductor embedded within the encapsulation body and spaced apart from the wear face; and a monitoring lead extending into the encapsulation body and connected to the sacrificial conductor; and a seal member fixed relative to the wear sensor, characterised in that the encapsulation body has wear coefficient that is greater than a wear coefficient of the seal member. a wear sensor having: an encapsulation body with a wear face ; a sacrificial conductor embedded within the encapsulation body and spaced apart from the wear face; and a monitoring lead extending into the encapsulation body and connected to the sacrificial conductor; and an encapsulation body with a wear face ; a sacrificial conductor embedded within the encapsulation body and spaced apart from the wear face; and a monitoring lead extending into the encapsulation body and connected to the sacrificial conductor; and a seal member fixed relative to the wear sensor, characterised in that the encapsulation body has wear coefficient that is greater than a wear coefficient of the seal member.
Mounting rail for a firearm, wherein said rail comprises at least one catch arranged on a flat upper surface of said rail , the at least one catch serving as a means of attachment for at least one accessory, the rail comprising a housing that extends longitudinally, said housing adapted for receiving a printed circuit board allowing an electrical connection with the at least one accessory, characterized in that the housing is partially defined by at least one recess , the or each recess is arranged between and opens onto two opposite flanks of the or each corresponding catch , in that a top of the or each corresponding catch extends transversely on either side of a median plane of said rail , above said recess , and in that the or each recess has a ceiling arranged beneath the top of the or each corresponding catch .
Method for determining a local tissue function (GF) of tissue in a body region of interest of an examination object , wherein the tissue is a tumour tissue or comprises a lesion of an unknown nature suspected of being tumour tissue, comprising the steps: - segmentation (S3) of an outer contour (AK3, AK4) of the tissue using at least one medical image recording representing the body region of interest of the examination object comprising the tissue; - subdivision (S4) of the segmented tissue into at least two tissue regions (GB; GB31-GB35, GB41-GB45); and - ascertaining (S5) a function parameter (FP; G31-G35, G41-G45) relating to the tissue function for each of the at least two tissue regions, wherein the at least two tissue regions are arranged in slices such that a first tissue region (GB31, GB32) completely encloses a second tissue region (GB32, GB42). - segmentation (S3) of an outer contour (AK3, AK4) of the tissue using at least one medical image recording representing the body region of interest of the examination object comprising the tissue; - subdivision (S4) of the segmented tissue into at least two tissue regions (GB; GB31-GB35, GB41-GB45); and - ascertaining (S5) a function parameter (FP; G31-G35, G41-G45) relating to the tissue function for each of the at least two tissue regions, wherein the at least two tissue regions are arranged in slices such that a first tissue region (GB31, GB32) completely encloses a second tissue region (GB32, GB42).
A class-D amplifier, comprising: a loop filter , a control signal generator , a first power driver , and a first feedback circuit , configured to establish a first loop for signal amplification; a settling circuit (including 112 and 114), configured to be combined with the loop filer and the control signal generator to establish a second loop to settle the loop filter and the control signal generator before the first loop is enabled; and a pre-charging circuit , which, when the second loop is enabled, is configured to pre-charge a positive output terminal (Vop) and a negative output terminal (Von) of the first power driver which are a first positive feedback terminal and a second negative feedback terminal, respectively; characterized in that the pre-charging circuit is configured to pre-charge the positive output terminal (Vop) and the negative output terminal (Von) of the first power driver to a common voltage, such that a voltage drop between the positive output terminal (Vop) and the negative output terminal (Von) is suppressed to zero before the first loop for signal amplification is enabled whereby a pop-click noise is eliminated. a loop filter , a control signal generator , a first power driver , and a first feedback circuit , configured to establish a first loop for signal amplification; a settling circuit (including 112 and 114), configured to be combined with the loop filer and the control signal generator to establish a second loop to settle the loop filter and the control signal generator before the first loop is enabled; and a pre-charging circuit , which, when the second loop is enabled, is configured to pre-charge a positive output terminal (Vop) and a negative output terminal (Von) of the first power driver which are a first positive feedback terminal and a second negative feedback terminal, respectively; characterized in that the pre-charging circuit is configured to pre-charge the positive output terminal (Vop) and the negative output terminal (Von) of the first power driver to a common voltage, such that a voltage drop between the positive output terminal (Vop) and the negative output terminal (Von) is suppressed to zero before the first loop for signal amplification is enabled whereby a pop-click noise is eliminated.
Ironing appliance comprising a water tank , an iron having a steam chamber for producing steam and a steam control member to be manually operated by a user and configured to control a water supply to the steam chamber when the steam control member is actuated, the iron further comprising an electric heating resistor configured to heat the steam chamber and a heating control circuit configured to control the power supply of the electric heating resistor , characterised in that the steam control member is connected to the heating control circuit and is configured to control the communication of an actuation signal to the heating control circuit when the steam control member is actuated, and in that the heating control circuit is configured to change the power supply of the electric heating resistor when an actuating signal is communicated to the heating control circuit .
Panel light , comprising: an optical element panel substantially extending in a plane and having a front side , a rear side and a circumferential side edge extending between the front side and the rear side , a light source to emit light via the optical element panel for light output of the panel light , an electronic module to run the light source , and a luminaire housing for carrying the optical element panel , wherein an opening penetrates the optical element panel to connect the front side and the rear side wherein the luminaire housing comprises a base portion covering the rear side of the optical element panel , wherein the base portion is in flat contact with the rear side of the optical element panel and extends over the whole rear side to thus completely cover and support the optical element panel at its rear side, and wherein the base portion comprises a second opening being coaxially arranged with the opening of the optical element panel to form a through hole designed to receive at least part of a functional component . an optical element panel substantially extending in a plane and having a front side , a rear side and a circumferential side edge extending between the front side and the rear side , a light source to emit light via the optical element panel for light output of the panel light , an electronic module to run the light source , and a luminaire housing for carrying the optical element panel , wherein an opening penetrates the optical element panel to connect the front side and the rear side wherein the luminaire housing comprises a base portion covering the rear side of the optical element panel , wherein the base portion is in flat contact with the rear side of the optical element panel and extends over the whole rear side to thus completely cover and support the optical element panel at its rear side, and wherein the base portion comprises a second opening being coaxially arranged with the opening of the optical element panel to form a through hole designed to receive at least part of a functional component .
A data centre cabinet, comprising a cabinet body, a cooling liquid oil, an oil distributor and a plurality of liquid distributors , wherein the cabinet body comprises a plurality of mounting racks; the cabinet body is sequentially mounted with a plurality of server housings from high to low; a server is placed in each of the server housings ; one of the liquid distributors is provided above each of the server housings ; the oil distributor is mounted above all the liquid distributors ; the oil distributor is connected to the liquid distributors via an oil intake device ; such that the cooling liquid oil can be distributed and flow to the liquid distributors through the oil distributor , and the liquid distributors can spray the cooling liquid oil to the servers for cooling; characterized in that the liquid distributors comprise an oil return chamber , an oil spray chamber , a liquid distribution oil inlet and an oil return port ; the oil return chamber is positioned above the oil spray chamber ; the liquid distribution oil inlet is positioned in the oil spray chamber ; a lower bottom face of the oil spray chamber is provided with a spray hole ; the spray hole is directly opposite the server placed in the server housing above which the respective liquid distributor is placed; the oil return chamber receives the cooling liquid oil flowing through the server above the respective liquid distributor ; and the oil return port is used for discharging the cooling liquid oil in the oil return chamber . one of the liquid distributors is provided above each of the server housings ; the oil distributor is mounted above all the liquid distributors ; the oil distributor is connected to the liquid distributors via an oil intake device ; such that the cooling liquid oil can be distributed and flow to the liquid distributors through the oil distributor , and the liquid distributors can spray the cooling liquid oil to the servers for cooling; characterized in that the liquid distributors comprise an oil return chamber , an oil spray chamber , a liquid distribution oil inlet and an oil return port ; the oil return chamber is positioned above the oil spray chamber ; the liquid distribution oil inlet is positioned in the oil spray chamber ; a lower bottom face of the oil spray chamber is provided with a spray hole ; the spray hole is directly opposite the server placed in the server housing above which the respective liquid distributor is placed; the oil return chamber receives the cooling liquid oil flowing through the server above the respective liquid distributor ; and the oil return port is used for discharging the cooling liquid oil in the oil return chamber .
An electronic antitheft device comprising electronic detection means, a first part and a second part , each provided with a so-called contact inner surface , and the first part being movable with respect to the second part so as to cooperate by clamping at their respective contact surface , characterised in that at least one of the parts, preferably both parts , comprise, on their contact surface , an abrasive covering in the form of a support carrying abrasive grains.
An indoor unit for an air conditioner, adapted to receive an infrared signal containing operation instruction information, the indoor unit comprising: a first light-receiving window to allow the infrared signal to pass through the first light-receiving window, the first light-receiving window having transmittance equal to or greater than a first value in a first wavelength range that is an infrared wavelength range; a light-receiving element to receive the infrared signal; and a second light-receiving window disposed between the first light-receiving window and the light-receiving element and having transmittance equal to or greater than a second value in the first wavelength range, the second value being smaller than the first value, and the second light-receiving window being made by a transparent resin with a white pigment, wherein a ratio of transmittance of the second light-receiving window in a second wavelength range to the transmittance of the second light-receiving window in the first wavelength range is smaller than a ratio of transmittance of the first light-receiving window in the second wavelength range to the transmittance of the first light-receiving window in the first wavelength range, the second wavelength range being a range of wavelengths shorter than the wavelengths in the a first light-receiving window to allow the infrared signal to pass through the first light-receiving window, the first light-receiving window having transmittance equal to or greater than a first value in a first wavelength range that is an infrared wavelength range; a light-receiving element to receive the infrared signal; and a second light-receiving window disposed between the first light-receiving window and the light-receiving element and having transmittance equal to or greater than a second value in the first wavelength range, the second value being smaller than the first value, and the second light-receiving window being made by a transparent resin with a white pigment, wherein a ratio of transmittance of the second light-receiving window in a second wavelength range to the transmittance of the second light-receiving window in the first wavelength range is smaller than a ratio of transmittance of the first light-receiving window in the second wavelength range to the transmittance of the first light-receiving window in the first wavelength range, the second wavelength range being a range of wavelengths shorter than the wavelengths in the
A method of sequestering carbon dioxide, comprising: (a) heating a first halide or hydrate thereof with water, at least a part of which is obtained from the water of step (b), under conditions suitable to form a first product mixture comprising a first hydroxide, oxide, and/or hydroxychloride and HCl; (b) admixing some or all of the first hydroxide, oxide, and/or hydroxychloride with a second halide or hydrate thereof and carbon dioxide under conditions suitable to form a second product mixture comprising a first halide or hydrate thereof, a carbonate salt, and water; and (c) separating some or all of the carbonate salt from step (b), and (d) admixing a Group 2 silicate mineral with HCl obtained from step (a), under conditions suitable to form a third product mixture comprising a Group 2 chloride, water, and silicon dioxide, wherein the silicon dioxide is removed from the Group 2 chloride formed and the Group 2 chloride is used as some or all of the second halide or hydrate thereof in step (b), whereby the carbon dioxide is sequestered into a mineral product form. (a) heating a first halide or hydrate thereof with water, at least a part of which is obtained from the water of step (b), under conditions suitable to form a first product mixture comprising a first hydroxide, oxide, and/or hydroxychloride and HCl; (b) admixing some or all of the first hydroxide, oxide, and/or hydroxychloride with a second halide or hydrate thereof and carbon dioxide under conditions suitable to form a second product mixture comprising a first halide or hydrate thereof, a carbonate salt, and water; and (c) separating some or all of the carbonate salt from step (b), and (d) admixing a Group 2 silicate mineral with HCl obtained from step (a), under conditions suitable to form a third product mixture comprising a Group 2 chloride, water, and silicon dioxide, wherein the silicon dioxide is removed from the Group 2 chloride formed and the Group 2 chloride is used as some or all of the second halide or hydrate thereof in step (b), whereby the carbon dioxide is sequestered into a mineral product form.
Method for transmitting a quantum-secure key between two network nodes which are equipped with means for generating quantum-secure keys but are not connected directly to each other via a quantum channel, in which method the quantum-secure key, which is later used as useful key for securely transmitting data between the two network nodes, is generated in one of the two network nodes and is transmitted to the other network node via a transmission path having at least one intermediate network node , characterized in that the useful key is transmitted within the intermediate network node from an input-side unit , which receives the useful key having a bit sequence arriving from a preceding network node on the transmission path, to an output-side unit , which transmits the useful key having a bit sequence intended for a following network node on the transmission path, in the form of a bit sequence formed by bitwise XOR operation of the useful key using a PQC key mediated between the input-side unit and the output-side unit according to a PQC method, that is to say a method of Post Quantum Cryptography, wherein the useful key is present in the intermediate network node outside of the input-side and the output-side unit only in the form of the bit sequence formed by bitwise XOR operation using the PQC key.
An immunological test apparatus adapted to receive a carrier holding a reagent, which is combined with a test substance as an antigen of an infectious disease to be colored, and having a sample dropped thereon, to measure coloration, and to determine whether or not the test substance is present in the sample based on a result of the measurement, wherein the apparatus comprises a timing unit adapted to count an elapsed time; and an information output unit , characterized in that the timing unit is adapted to count an elapsed time (TP) from start of a test; and an information output unit adapted to output required determination time information regarding a required determination time, which is the elapsed time (TP) taken until a determination result indicating that the test substance is present in the sample is obtained, so as to be associated with information of the determination result. characterized in that the timing unit is adapted to count an elapsed time (TP) from start of a test; and an information output unit adapted to output required determination time information regarding a required determination time, which is the elapsed time (TP) taken until a determination result indicating that the test substance is present in the sample is obtained, so as to be associated with information of the determination result.
A holder for fastening a sanitary component to a wall , having a housing with at least one compartment for at least one glue component, wherein the at least one glue component can be pressed out of the at least one compartment by means of a mechanical actuator such that the at least one glue component exits from at least one opening of the housing , wherein the at least one opening opens into at least one curing compartment for the at least one glue component and wherein the at least one curing compartment is delimited by at least one grate such that as the at least one glue component cures in the at least one curing compartment , ambient air reaches the at least one glue component through the at least one grate .
A method of providing an overcoated printed substrate, the method comprising: providing a printed substrate comprising a primer layer disposed on a print substrate and a liquid electrostatically printed layer disposed on the primer layer; and applying a UV curable overcoat composition to the printed layer of the printed substrate, wherein the UV curable overcoat composition comprises a UV curable resin and inorganic nanoparticles dispersed therein. providing a printed substrate comprising a primer layer disposed on a print substrate and a liquid electrostatically printed layer disposed on the primer layer; and applying a UV curable overcoat composition to the printed layer of the printed substrate,
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 an up-sampling of spectral coefficients of the previous segment, when the previous segment displays a coarser 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 an up-sampling of spectral coefficients of the previous segment, when the previous segment displays a coarser spectral resolution than the current segment.