mhurhangee/patent-ind-claim-en huggingface dataset:
Method for stiffening a sheet element comprising: - provision of stiffening modules comprising a flange and a web - attaching the stiffening modules sequentially along a load path on the sheet element , wherein the stiffening modules are connected via their respective flanges using connecting means and/or joining methods for a positive, frictional and/or materially bonded connection to form a stiffening structure , such that the stiffening modules have a combined effect, specifically stiffening and reinforcing the sheet element along the load path wherein the load path for the sheet element has been determined in a topology-optimized manner on the basis of a stress-optimized simulation and/or calculation, and wherein the load path is not rectilinear. - provision of stiffening modules comprising a flange and a web - attaching the stiffening modules sequentially along a load path on the sheet element , wherein the stiffening modules are connected via their respective flanges using connecting means and/or joining methods for a positive, frictional and/or materially bonded connection to form a stiffening structure , such that the stiffening modules have a combined effect, specifically stiffening and reinforcing the sheet element along the load path
Securing device for securing a construction accessory to a construction element, the device comprising at least: - an attachment base , said attachment base comprising at least one first fastening hook for being secured to a first reinforcement of the construction element and a second fastening hook for being secured to a second reinforcement of the construction element, the two hooks facing away from one another, the first hook facing a first end of the attachment base and the second hook facing a second end of the attachment base, said second end being opposite the first end; - accommodating means connected to the attachment base of the device and designed, during use, to receive the construction accessory, the base comprising at least one third hook arranged after the second hook and oriented like it, a fourth hook arranged after the third hook and oriented like it and a fifth hook arranged after the fourth hook and oriented like it, said securing device being characterised in that the second hook, third hook, fourth hook and fifth hook each comprise a flank and a counter-flank facing the flank. - an attachment base , said attachment base comprising at least one first fastening hook for being secured to a first reinforcement of the construction element and a second fastening hook for being secured to a second reinforcement of the construction element, the two hooks facing away from one another, the first hook facing a first end of the attachment base and the second hook facing a second end of the attachment base, said second end being opposite the first end; - accommodating means connected to the attachment base of the device and designed, during use, to receive the construction accessory,
An inductor comprising: a printed wiring board, PWB, ; and a plurality of electrically-conductive heat pipes operatively connected to the PWB, wherein the PWB includes electrically conductive traces electrically connected to the plurality of electrically-conductive heat pipes so the traces and plurality of electrically conductive heat pipes form an inductor winding, wherein each of the electrically conductive traces is defined in multiple layers of the PWB. a printed wiring board, PWB, ; and a plurality of electrically-conductive heat pipes operatively connected to the PWB, wherein the PWB includes electrically conductive traces electrically connected to the plurality of electrically-conductive heat pipes so the traces and plurality of electrically conductive heat pipes form an inductor winding, wherein each of the electrically conductive traces is defined in multiple layers of the PWB.
A multi-level passive optical network, PON, management method, comprising: receiving , by a primary user-side device, a first ONT/ONU management and control interface OMCI message from an optical line terminal, OLT, , wherein the first OMCI message comprises first identification information and configuration information, the first identification information indicates a to-be-configured secondary user-side device, and the configuration information is information for configuring the secondary user-side device; determining , by the primary user-side device, a configuration mode of the secondary user-side device based on the first identification information; and processing , by the primary user-side device, the configuration information based on the configuration mode, and configuring the secondary user-side device corresponding to the first identification information. receiving , by a primary user-side device, a first ONT/ONU management and control interface OMCI message from an optical line terminal, OLT, , wherein the first OMCI message comprises first identification information and configuration information, the first identification information indicates a to-be-configured secondary user-side device, and the configuration information is information for configuring the secondary user-side device; determining , by the primary user-side device, a configuration mode of the secondary user-side device based on the first identification information; and processing , by the primary user-side device, the configuration information based on the configuration mode, and configuring the secondary user-side device corresponding to the first identification information.
A medical implant comprising a plurality of biocomposite layers , said biocomposite comprising a polymer and a plurality of continuous reinforcement fibers ; such that each layer comprises said biocomposite, wherein said fibers are uni-directionally aligned within each layer ; wherein said implant is bioabsorbable and said polymer is biodegradable; wherein said fibers are continuous fibers, wherein said continuous fibers are longer than 4 mm.
A hearing device , comprising a controller module and a receiver module including a speaker and an active vent which can be switched between an open state and a closed state, wherein the speaker is electrically connected to the controller module by two differential audio lines (5.1, 5.2), wherein the active vent comprises a solenoid with an inductor having a first terminal (6.1) and a second terminal (6.2), wherein the first terminal (6.1) is connected to the controller module via one of the differential audio lines (5.1), characterized in that the second terminal (6.2) is connected to at least one control output of the controller module via a separate control line, the hearing device further comprising at least one semiconductor driver having at least one output (10.1, 10.8) and one or more inputs (10.2 to 10.7), wherein the second terminal (6.2) of the inductor is connected to the at least one output (10.1, 10.8) of the semiconductor driver , wherein at least one of the one or more inputs (10.2 to 10.7) of the semiconductor driver is connected to the at least one control output of the controller module .
A method for detecting an analyte in a sample, comprising: a) capturing a series of two or more images of a nanostructured sensor surface comprising two or more metallic layers and a dielectric material between said metallic layers, wherein the nanostructured sensor surface is capable of sustaining a localized surface plasmon resonance; b) randomly selecting one or more corresponding regions of interest in the series of two or more images; c) measuring a change in RGB value or greyscale value within the selected regions of interest over the series of two or more images; and d) detecting an analyte based on the measured changes in RGB value or greyscale value. a) capturing a series of two or more images of a nanostructured sensor surface comprising two or more metallic layers and a dielectric material between said metallic layers, wherein the nanostructured sensor surface is capable of sustaining a localized surface plasmon resonance; b) randomly selecting one or more corresponding regions of interest in the series of two or more images; c) measuring a change in RGB value or greyscale value within the selected regions of interest over the series of two or more images; and d) detecting an analyte based on the measured changes in RGB value or greyscale value.
A semiconductor package structure , comprising: a substrate ; a semiconductor die disposed over the substrate ; a molding material surrounding the semiconductor die and adjoining the sidewalls of the semiconductor die ; a first bonding layer disposed over the semiconductor die ; a metal layer disposed between the first bonding layer and the semiconductor die ; and a heatsink disposed over the first bonding layer and bonded onto the semiconductor die through the first bonding layer and the metal layer , characterised by a thermal interface material disposed over the molding material and at least partially surrounding the first bonding layer , wherein the thermal interface material connects the molding material and the heatsink with the heatsink being bonded on the thermal interface material ; wherein the first bonding layer has better thermal conductivity than the thermal interface material ; wherein the thermal interface material is spaced apart from the first bonding layer and the metal layer by a first gap to prevent issues caused by different coefficients of thermal expansion, CTEs, of the thermal interface material , the metal layer and the first bonding layer ; and wherein the thermal interface material is cut off by one or more second gaps configured to release gas generated during the manufacturing process and/or comprises one or more notches configured to release the gas generated during the manufacturing process. a substrate ; a semiconductor die disposed over the substrate ; a molding material surrounding the semiconductor die and adjoining the sidewalls of the semiconductor die ; a first bonding layer disposed over the semiconductor die ; a metal layer disposed between the first bonding layer and the semiconductor die ; and a heatsink disposed over the first bonding layer and bonded onto the semiconductor die through the first bonding layer and the metal layer , characterised by a thermal interface material disposed over the molding material and at least partially surrounding the first bonding layer , wherein the thermal interface material connects the molding material and the heatsink with the heatsink being bonded on the thermal interface material ; wherein the first bonding layer has better thermal conductivity than the thermal interface material ; wherein the thermal interface material is spaced apart from the first bonding layer and the metal layer by a first gap to prevent issues caused by different coefficients of thermal expansion, CTEs, of the thermal interface material , the metal layer and the first bonding layer ; and wherein the thermal interface material is cut off by one or more second gaps configured to release gas generated during the manufacturing process and/or comprises one or more notches configured to release the gas generated during the manufacturing process.
Sensor device with a beaker-like sensor housing and a wired sensor, wherein the beaker-like sensor housing has an introduction region for the wired sensor, an orientation region for the sensor which has an internal cross-sectional contour which is adapted to the cross-sectional contour of the sensor, a placement region of the sensor close to the end face of the sensor housing , and wherein in the sensor housing is provided a curable material, and the sensor in the sensor housing is inserted into the curable material into its placement region , characterised in that a) a tapering cross-section for guiding the sensor into the placement region is provided in front of or at the orientation region of the sensor, b) the orientation region has a cross-section in the form of an oval . c) four guide bars for the sensor at the same angular distance from each other, are provided in the introduction region , d) the curable material is cured with the sensor embedded. wherein the beaker-like sensor housing has an introduction region for the wired sensor, an orientation region for the sensor which has an internal cross-sectional contour which is adapted to the cross-sectional contour of the sensor, a placement region of the sensor close to the end face of the sensor housing , and wherein in the sensor housing is provided a curable material, and the sensor in the sensor housing is inserted into the curable material into its placement region , characterised in that a) a tapering cross-section for guiding the sensor into the placement region is provided in front of or at the orientation region of the sensor, b) the orientation region has a cross-section in the form of an oval . c) four guide bars for the sensor at the same angular distance from each other, are provided in the introduction region , d) the curable material is cured with the sensor embedded. a) a tapering cross-section for guiding the sensor into the placement region is provided in front of or at the orientation region of the sensor, b) the orientation region has a cross-section in the form of an oval . c) four guide bars for the sensor at the same angular distance from each other, are provided in the introduction region , d) the curable material is cured with the sensor embedded.
Clamping and operating arrangement with a clamping device for firm mounting of a workpiece during processing and a gripping and positioning arrangement , which is connectable to the clamping device to be releasable, for transport of the clamping device between different positions, wherein the gripping and positioning arrangement comprises a coupling arrangement for releasable connection of the gripping and positioning arrangement to the clamping device and firm mounting of the clamping device during transport, and wherein the clamping device is made as a vice with a base body and at least two clamping jaws and has at least one zero-point clamping element for positioning and mounting on a processing table and at least one adapter piece for connection with the coupling arrangement of the gripping and positioning arrangement , characterised in that the gripping and positioning arrangement comprises an integrated drive for moving the clamping device between a clamping position and release position.
A method for decoding encoded image data, the method comprising: receiving quantized transform coefficients; dequantizing the quantized transform coefficients; performing an inverse transform process to the dequantized transform coefficients, wherein the elements of the inverse transform process and the dequantization process are obtained by: factorizing an inverse discrete cosine transform matrix into a product of matrices, at least one of the matrices being a diagonal matrix and at least one of the matrices being a non-diagonal simplified inverse transform matrix comprising elements constituting irrational numbers; approximating elements of the non-diagonal simplified inverse transform matrix constituting irrational numbers by rational numbers to form a further simplified inverse transform matrix; characterised by adjusting elements of the diagonal matrix to compensate for the approximation of elements of the non-diagonal simplified inverse transform matrix by rational numbers such that a product of a reassembled matrix and the transpose of the reassembled matrix is equal to the identity matrix, when the reassembled matrix is formed from the further simplified inverse transform matrix and the adjusted diagonal matrix; and calculating elements of a dequantization matrix based on a quantization parameter and on the adjusted elements of the diagonal matrix. receiving quantized transform coefficients; dequantizing the quantized transform coefficients; performing an inverse transform process to the dequantized transform coefficients, factorizing an inverse discrete cosine transform matrix into a product of matrices, at least one of the matrices being a diagonal matrix and at least one of the matrices being a non-diagonal simplified inverse transform matrix comprising elements constituting irrational numbers; approximating elements of the non-diagonal simplified inverse transform matrix constituting irrational numbers by rational numbers to form a further simplified inverse transform matrix; adjusting elements of the diagonal matrix to compensate for the approximation of elements of the non-diagonal simplified inverse transform matrix by rational numbers such that a product of a reassembled matrix and the transpose of the reassembled matrix is equal to the identity matrix, when the reassembled matrix is formed from the further simplified inverse transform matrix and the adjusted diagonal matrix; and calculating elements of a dequantization matrix based on a quantization parameter and on the adjusted elements of the diagonal matrix.
A battery, comprising: a positive electrode; a negative electrode; and an electrolyte layer provided between the positive electrode and the negative electrode, wherein the electrolyte layer includes a first solid electrolyte material; the first solid electrolyte material includes Li, M, and X, and does not include sulfur; M is at least one selected from the group consisting of metalloid elements and metal elements other than Li, X is at least one selected from the group consisting of CI, Br, and I; and the negative electrode includes a negative electrode active material and a sulfide solid electrolyte. a positive electrode; a negative electrode; and an electrolyte layer provided between the positive electrode and the negative electrode, wherein the electrolyte layer includes a first solid electrolyte material; the first solid electrolyte material includes Li, M, and X, and does not include sulfur; M is at least one selected from the group consisting of metalloid elements and metal elements other than Li, X is at least one selected from the group consisting of CI, Br, and I; and the negative electrode includes a negative electrode active material and a sulfide solid electrolyte.
A method of transmitting video data from a first entity to a second entity , whereby the video data comprise information bits , the method comprises the steps of: applying a systematic channel encoding on the information bits of the video data and obtaining a sequence comprising encoded information bits and error correction bits of the information bits , the systematic channel encoding being based on a Hamming code, a LDPC code, or a convolutional code; generating a primary coded picture network abstraction layer comprising the encoded information bits of the video data; inserting the error correction bits into a redundant coded picture network abstraction layer by including, in the redundant coded picture network abstraction layer , said error correction bits having higher error correction power and having smaller size than a copy of the encoded data, instead of inserting a copy of the encoded data; transferring the primary coded picture network abstraction layer and the redundant coded picture network abstraction layer from the first entity to the second entity ; receiving the primary coded picture network abstraction layer and the redundant coded picture network abstraction layer at the second entity ; using the error correction bits in the redundant coded picture network abstraction layer for detecting and correcting errors in the received primary coded picture network abstraction layer ; and performing the video decoding of the corrected primary coded picture network abstraction layer resulting in corrected information bits which carry the video data. applying a systematic channel encoding on the information bits of the video data and obtaining a sequence comprising encoded information bits and error correction bits of the information bits , the systematic channel encoding being based on a Hamming code, a LDPC code, or a convolutional code; generating a primary coded picture network abstraction layer comprising the encoded information bits of the video data; inserting the error correction bits into a redundant coded picture network abstraction layer by including, in the redundant coded picture network abstraction layer , said error correction bits having higher error correction power and having smaller size than a copy of the encoded data, instead of inserting a copy of the encoded data; transferring the primary coded picture network abstraction layer and the redundant coded picture network abstraction layer from the first entity to the second entity ; receiving the primary coded picture network abstraction layer and the redundant coded picture network abstraction layer at the second entity ; using the error correction bits in the redundant coded picture network abstraction layer for detecting and correcting errors in the received primary coded picture network abstraction layer ; and performing the video decoding of the corrected primary coded picture network abstraction layer resulting in corrected information bits which carry the video data.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station , a message including first information configuring a timing for a measurement of a received signal strength indicator, RSSI, and second information configuring a report of the RSSI; performing the measurement of the RSSI during the timing determined by the first information; and transmitting, to the base station , a result of the measurement of the RSSI based on the second information, wherein the result includes a percentage of time for which a measured RSSI is above a threshold for the measurement of the RSSI. receiving, from a base station , a message including first information configuring a timing for a measurement of a received signal strength indicator, RSSI, and second information configuring a report of the RSSI; performing the measurement of the RSSI during the timing determined by the first information; and transmitting, to the base station , a result of the measurement of the RSSI based on the second information, wherein the result includes a percentage of time for which a measured RSSI is above a threshold for the measurement of the RSSI.
A granulate based on high-temperature thermoplastics, selected from the group of polyaryl ether sulfones, polyaryl ether ketones, polyphenylene sulfides, polyetherimides, polyphenyleneamides, polycarbonates, aromatic polyester carbonates, high-temperature polyamides (HTPA), thermoplastic polyoxazolidones and copolycarbonates or mixtures thereof, with a bulk density in the range of 100 to 650 kg/m 3 in accordance with DIN ISO 697:1982 and less than 0.1% by weight content of volatile organic compounds.