mhurhangee/ep-ind-claims huggingface dataset:
A method for a radio node, the method comprising: determining a source codebook associated with at least one antenna port; determining a target codebook associated with at least one physical antenna, the target codebook being based on at least one radiation pattern corresponding to at least one of the at least one physical antenna; and determining a port-to-antenna mapping matrix based at least in part on the determined source codebook and the determined target codebook. determining a source codebook associated with at least one antenna port; determining a target codebook associated with at least one physical antenna, the target codebook being based on at least one radiation pattern corresponding to at least one of the at least one physical antenna; and determining a port-to-antenna mapping matrix based at least in part on the determined source codebook and the determined target codebook.
A testing assembly configured for operation within a chamber of a multi-instrument assembly, each instrument of the multi-instrument assembly includes a working region, the working regions defining a localized coincidence region, the testing assembly comprising: a testing assembly platform configured for coupling with a mounting stage of the multi-instrument assembly; a mechanical testing instrument coupled with the testing assembly platform, the mechanical testing instrument is configured to engage and test a sample on a sample stage surface; a multiple degree of freedom sample stage assembly coupled with the testing assembly platform, the multiple degree of freedom sample stage includes: the sample stage surface, a plurality of linear stages (300, 302, 304) coupled in series with the testing assembly platform, a rotation stage, and a tilt stage, wherein the rotation and tilt stages (600, 602) are coupled between the sample stage surface and the plurality of linear stages (300, 302, 304); wherein the multiple degree of freedom sample stage is configured to orient the sample stage surface within the localized coincidence region to each of the working regions in the localized coincidence region through a combination of movement of linear stages (300, 302, 304) and one or more of rotation or tilt stages (600, 602); and wherein in an installed configuration with the testing assembly platform coupled with the mounting stage of the multi-instrument assembly, the testing assembly is recessed from walls of the multi-instrument assembly chamber. a testing assembly platform configured for coupling with a mounting stage of the multi-instrument assembly; a mechanical testing instrument coupled with the testing assembly platform, the mechanical testing instrument is configured to engage and test a sample on a sample stage surface; a multiple degree of freedom sample stage assembly coupled with the testing assembly platform, the multiple degree of freedom sample stage includes: the sample stage surface, a plurality of linear stages (300, 302, 304) coupled in series with the testing assembly platform, a rotation stage, and a tilt stage, wherein the rotation and tilt stages (600, 602) are coupled between the sample stage surface and the plurality of linear stages (300, 302, 304); the sample stage surface, a plurality of linear stages (300, 302, 304) coupled in series with the testing assembly platform, a rotation stage, and a tilt stage, wherein the rotation and tilt stages (600, 602) are coupled between the sample stage surface and the plurality of linear stages (300, 302, 304); wherein the multiple degree of freedom sample stage is configured to orient the sample stage surface within the localized coincidence region to each of the working regions in the localized coincidence region through a combination of movement of linear stages (300, 302, 304) and one or more of rotation or tilt stages (600, 602); and wherein in an installed configuration with the testing assembly platform coupled with the mounting stage of the multi-instrument assembly, the testing assembly is recessed from walls of the multi-instrument assembly chamber.
A method of processing media content in a video stream including predicting point cloud attribute coding, the method being performed by at least one processor, comprising: receiving point cloud data comprising one or more candidate points; extracting one or more candidate attribute values for the one or more candidate points from the received point cloud data; calculating a weighted median from the one or more extracted candidate attribute values and a weight factor, wherein the weight factor corresponds to a relative importance factor of a candidate vector associated with the extracted candidate attribute values; assigning one or more prediction indices to the candidate points in response to the calculation of the weighted median, wherein the prediction indices correspond to attribute data for video encoding; and processing the media content to encode the attribute data associated with the candidate points having the lowest prediction indices. receiving point cloud data comprising one or more candidate points; extracting one or more candidate attribute values for the one or more candidate points from the received point cloud data; calculating a weighted median from the one or more extracted candidate attribute values and a weight factor, wherein the weight factor corresponds to a relative importance factor of a candidate vector associated with the extracted candidate attribute values; assigning one or more prediction indices to the candidate points in response to the calculation of the weighted median, wherein the prediction indices correspond to attribute data for video encoding; and processing the media content to encode the attribute data associated with the candidate points having the lowest prediction indices.
A thin film transistor comprising: a gate electrode; an organic semiconductor overlapping the gate electrode; a gate insulating layer between the gate electrode and the organic semiconductor; a source electrode and a drain electrode disposed on and electrically connected to the organic semiconductor; and a solvent selective photosensitive pattern on the organic semiconductor and between the source electrode and the drain electrode, charaterised in that the source electrode and drain electrode are overlapping opposing edges of the solvent selective photosensitive pattern. a gate electrode; an organic semiconductor overlapping the gate electrode; a gate insulating layer between the gate electrode and the organic semiconductor; a source electrode and a drain electrode disposed on and electrically connected to the organic semiconductor; and a solvent selective photosensitive pattern on the organic semiconductor and between the source electrode and the drain electrode, charaterised in that the source electrode and drain electrode are overlapping opposing edges of the solvent selective photosensitive pattern.
A washing agent packaged in portions in a wrapping which is made of a water-soluble material and has two chambers, which washing agent contains a combination of a peroxidic bleaching agent and acylhydrazone of the general formula, in which R 1 represents a CF 3 or a C 1-28 alkyl, C 2-28 alkenyl, C 2-22 alkinyl, C 3-12 cycloalkyl, C 3-12 cycloalkenyl, phenyl, naphthyl, C 7-9 aralkyl, C 3-20 heteroalkyl or C 3-12 cycloheteroalkyl group, R 1 and R 3 represent, independently of one another, hydrogen or an optionally substituted C 1-28 alkyl, C 2-28 alkenyl, C 2-22 alkinyl, C 3-12 cycloalkyl, C 3-12 cycloalkenyl, C 7-9 aralkyl, C 3-28 heteroalkyl, C 3-12 cycloheteroalkyl, C 5-16 heteroaralkyl, phenyl, naphthyl or heteroaryl group, or R 2 and R 3, together with the carbon atom which binds them, represent an optionally substituted 5-, 6-, 7-, 8- or 9- membered ring which can optionally contain heteroatoms, and R 4 represents hydrogen or a C 1-28 alkyl, C 2-28 alkenyl, C 2-22 alkinyl, C 3-12 cycloalkyl, C 3-12 cycloalkenyl, C 7-9 aralkyl, C 3-20 heteroalkyl, C 3-12 cycloheteroalkyl, C 5-16 heteroaralkyl group or an optionally substituted phenyl or naphthyl or heteroaryl group, wherein the first chamber contains a liquid partial composition and the second chamber contains a solid partial composition, and the partial compositions differ from one another in at least one ingredient and/or in the content of at least one ingredient, and wherein a partial composition comprises acylhydrazone and a further partial composition which is separate therefrom comprises a peroxidic bleaching agent, wherein the former partial composition does not comprise a peroxidic bleaching agent and the latter partial composition does not comprise acylhydrazone, and the partial composition in which the acylhydrazone is present has a pH of up to pH 7, and the partial composition in which the peroxidic bleaching agent is present has a pH that is higher than pH 7.
A simulator for facilitating virtual welding activity, comprising: a logic processor based subsystem operable to execute coded instructions for generating an interactive welding environment including a section of a virtual pipe displaying means operatively connected to the logic processor based subsystem for visually depicting the interactive welding environment, wherein said displaying means depicts the section of virtual pipe; characterized in that the interactive welding environment emulates (i) an orbital welding system having a welding tractor configured to travel around a section of the virtual pipe and (ii) welding activity with the orbital welding system on the section of virtual pipe having at least one virtual weld joint; and further characterized by a pendant for performing setup of the orbital welding system and the virtual welding activity within the orbital welding system on the at least one virtual weld joint in real time. a logic processor based subsystem operable to execute coded instructions for generating an interactive welding environment including a section of a virtual pipe displaying means operatively connected to the logic processor based subsystem for visually depicting the interactive welding environment, wherein said displaying means depicts the section of virtual pipe; characterized in that the interactive welding environment emulates (i) an orbital welding system having a welding tractor configured to travel around a section of the virtual pipe and (ii) welding activity with the orbital welding system on the section of virtual pipe having at least one virtual weld joint; and further characterized by a pendant for performing setup of the orbital welding system and the virtual welding activity within the orbital welding system on the at least one virtual weld joint in real time.
Connection method by means of a welding auxiliary joining part for at least a first component (20; 22) without pre-punching the at least one first component (20; 22) consisting of a non-weldable or electrically non-conductive material with at least a second component of weldable or electrically conductive material or having a section of weldable or electrically conductive material, wherein the method comprises the following steps: a. driving in of the welding auxiliary joining part by means of an electrode punch into the at least one first component by means of a combined mechanical-thermal load of at least the welding auxiliary joining part, wherein the welding auxiliary joining part is guided via an electrode blank holder and the electrode punch and the electrode blank holder have different electrical polarities, so that a current flows between the electrode punch and electrode blank holder via the welding auxiliary joining part, which heats at least the welding auxiliary joining part, b. deforming the welding auxiliary joining part under combined mechanical-thermal load on the at least one second component and c. welding of the welding auxiliary joining part to the at least one second component so that the at least one first component and the at least one second component are connected to each other by means of the welding auxiliary joining part, wherein d. the connection method takes place continuously in a mechanical-thermal setting-welding-process. a. driving in of the welding auxiliary joining part by means of an electrode punch into the at least one first component by means of a combined mechanical-thermal load of at least the welding auxiliary joining part, wherein the welding auxiliary joining part is guided via an electrode blank holder and the electrode punch and the electrode blank holder have different electrical polarities, so that a current flows between the electrode punch and electrode blank holder via the welding auxiliary joining part, which heats at least the welding auxiliary joining part, b. deforming the welding auxiliary joining part under combined mechanical-thermal load on the at least one second component and c. welding of the welding auxiliary joining part to the at least one second component so that the at least one first component and the at least one second component are connected to each other by means of the welding auxiliary joining part, wherein d. the connection method takes place continuously in a mechanical-thermal setting-welding-process.
Ultrasonic transducer (10, 40, 50, 60, 70, 80, 90) having a membrane which can be made to vibrate and which comprises an elongate membrane surface which is of thin design, and having at least one piezo-vibrator (28, 42) which is arranged on the membrane surface, wherein the membrane surface has at least one constriction (20, 22, 62, 64) on each of its longitudinal sides, characterized in that the membrane surface is composed of at least two circular membrane surface sections (14.1, 14.2) which overlap in the region between the constrictions (20, 22, 62, 64) which lie opposite one another.
A heavy duty tire comprising a carcass extending from a tread part through a sidewall part to a bead core of a bead part and a belt layer arranged outside in a tire radial direction of the carcass and inside of the tread part, wherein the belt layer is formed by a belt ply comprising a first belt layer, a second belt layer, and a third belt layer which are laminated in order from inside in the tire radial direction, wherein the tread has a plurality of main grooves extending continuously in a tire circumferential direction, wherein the tread comprises a cap rubber layer constituting a tread surface and a base rubber layer ()28 adjacent to inside in a tire radial direction of the cap rubber layer, wherein the cap rubber layer and the base rubber layer are composed of a rubber composition comprising a rubber component, wherein the rubber component constituting the cap rubber layer comprises an isoprene-based rubber and a styrene-butadiene rubber, characterised in that the rubber composition constituting the cap rubber layer comprises 30 parts by mass or more of silica having a nitrogen adsorption specific surface area (N 2 SA) of 200 to 250 m 2 /g based on 100 parts by mass of the rubber component, and wherein a tan δ of the rubber composition constituting the base rubber layer at 70°C is 0.04 to 0.07, wherein the "70°C tan δ" refers to a loss tangent tan δ under a condition of a temperature at 70°C, an initial strain of 10%, a dynamic strain of ± 2%, and a frequency of 10 Hz, and wherein the N 2 SA of silica is a value measured by a BET method according to ASTM D3037-93. wherein the belt layer is formed by a belt ply comprising a first belt layer, a second belt layer, and a third belt layer which are laminated in order from inside in the tire radial direction, wherein the tread has a plurality of main grooves extending continuously in a tire circumferential direction, wherein the tread comprises a cap rubber layer constituting a tread surface and a base rubber layer ()28 adjacent to inside in a tire radial direction of the cap rubber layer, wherein the cap rubber layer and the base rubber layer are composed of a rubber composition comprising a rubber component, wherein the rubber component constituting the cap rubber layer comprises an isoprene-based rubber and a styrene-butadiene rubber, characterised in that the rubber composition constituting the cap rubber layer comprises 30 parts by mass or more of silica having a nitrogen adsorption specific surface area (N 2 SA) of 200 to 250 m 2 /g based on 100 parts by mass of the rubber component, and wherein a tan δ of the rubber composition constituting the base rubber layer at 70°C is 0.04 to 0.07, wherein the "70°C tan δ" refers to a loss tangent tan δ under a condition of a temperature at 70°C, an initial strain of 10%, a dynamic strain of ± 2%, and a frequency of 10 Hz, and wherein the N 2 SA of silica is a value measured by a BET method according to ASTM D3037-93.
A method of monitoring parameters of an electrical installation, the method comprising: performing plural successive iterations of a process in which a difference between a current set of plural monitored parameters of the electrical installation and a previous set of plural monitored parameters of the electrical installation is compared to a threshold criterion; wherein, when the difference is determined as exceeding the threshold criterion, the current set of plural monitored parameters is transmitted and/or stored; wherein, when the difference is determined as not exceeding the threshold criterion, the current set of plural monitored parameters is not transmitted and/or not stored; and wherein the difference which is compared to the threshold criterion comprises or is based on a vector difference between a vector formed of the current set of plural monitored parameters and a vector formed of the previous set of plural monitored parameters. performing plural successive iterations of a process in which a difference between a current set of plural monitored parameters of the electrical installation and a previous set of plural monitored parameters of the electrical installation is compared to a threshold criterion; wherein, when the difference is determined as exceeding the threshold criterion, the current set of plural monitored parameters is transmitted and/or stored; wherein, when the difference is determined as not exceeding the threshold criterion, the current set of plural monitored parameters is not transmitted and/or not stored; and wherein the difference which is compared to the threshold criterion comprises or is based on a vector difference between a vector formed of the current set of plural monitored parameters and a vector formed of the previous set of plural monitored parameters.
A process for casting TiAl components, comprising the following process steps: - producing a melt of the TiAl material below an inert gas fill; - placing a casting mold on a gate in a gastight manner; - flooding the casting mold with inert gas by opening a closure mechanism which is arranged at the gate and is connected to an inert gas source; - pressing the melt through the gate into the casting mold by increasing the pressure of the inert gas fill above the melt while at the same time evacuating the inert gas from the casting mold, and - stopping the inflow of inert gas as soon as it is determined that the melt passes above the position of the closure mechanism, characterized by the process step of reducing the pressure of the inert gas fill as soon as the casting mold has been filled, and restarting the supply of inert gas to the closure mechanism until the fill level of the melt has reached below the closure mechanism. - producing a melt of the TiAl material below an inert gas fill; - placing a casting mold on a gate in a gastight manner; - flooding the casting mold with inert gas by opening a closure mechanism which is arranged at the gate and is connected to an inert gas source; - pressing the melt through the gate into the casting mold by increasing the pressure of the inert gas fill above the melt while at the same time evacuating the inert gas from the casting mold, and - stopping the inflow of inert gas as soon as it is determined that the melt passes above the position of the closure mechanism,
A support device comprising: a backing layer comprising a first surface and second surface, opposite the first surface, wherein the backing layer is highly moisture vapor permeable having a rate of at least 300 g/m 2 /24 hrs at 37°C/100-10% RH when measured using the inverted cup method described in U.S. Pat. No. 4,595,001 and the first surface of the backing layer is liquid water impermeable; a cushioning element positioned adjacent the second surface of the backing layer; a base layer comprising a first surface adjacent the cushioning element and a second surface, opposite the first surface of the cushioning element, wherein the base layer is highly moisture vapor permeable having a rate of at least 300 g/m 2 /24 hrs at 37°C/100-10% RH when measured using the inverted cup method described in U.S. Pat. No. 4,595,001; wherein the base layer is entirely contiguous such that the base layer is free of perforations; wherein the second surface of the base layer comprises an adhesive; wherein the base layer and backing layer connect entirely around the cushioning element. a backing layer comprising a first surface and second surface, opposite the first surface, wherein the backing layer is highly moisture vapor permeable having a rate of at least 300 g/m 2 /24 hrs at 37°C/100-10% RH when measured using the inverted cup method described in U.S. Pat. No. 4,595,001 and the first surface of the backing layer is liquid water impermeable; a cushioning element positioned adjacent the second surface of the backing layer; a base layer comprising a first surface adjacent the cushioning element and a second surface, opposite the first surface of the cushioning element, wherein the base layer is highly moisture vapor permeable having a rate of at least 300 g/m 2 /24 hrs at 37°C/100-10% RH when measured using the inverted cup method described in U.S. Pat. No. 4,595,001; wherein the base layer is entirely contiguous such that the base layer is free of perforations; wherein the second surface of the base layer comprises an adhesive; wherein the base layer and backing layer connect entirely around the cushioning element.