mhurhangee/ep-ind-claims huggingface dataset:
Ceiling-mounted loudspeaker unit, having a housing having a first front housing portion, wherein a woofer unit, an acoustic baffle and a tweeter unit are arranged in the first housing portion in a 2-way coaxial system, wherein the tweeter unit has a tweeter and a tweeter horn having a plurality of webs and a plurality of recesses between the webs at the edge of the tweeter horn, wherein the woofer unit and the tweeter unit are arranged so as to be recessed in the acoustic baffle, wherein the tweeter unit is arranged in front of the woofer unit, characterised in that the recesses are constructed at the edge of the tweeter horn in such a manner that the noise of the woofer unit can be emitted via the recesses and wherein the surface of the tweeter unit is greater than the surface of the woofer unit, and wherein the tweeter unit is arranged in front of the woofer unit in such a manner that a wider emission angle is achieved.
The use of polydextrose in the preparation of a composition for stimulating the immune system of the gastrointestinal tract of a mammal, comprising mixing at least one pharmacologically acceptable carrier or vehicle with polydextrose, said polydextrose being effective in increasing the immunoglobulin A (IgA) concentration in the gut of said mammal.
Plug for sealing a hole provided in a work piece, which plug comprises a front part and a sealing part, wherein the sealing part is conical with an increasing diameter in direction from the front part, and that the sealing part comprises a cutting thread, and wherein the profile of the thread comprises a sharp tapered top, two flanks, and a bottom of the thread, and the top is sharp tapered by that the two flanks meet in a common intersection point - the top, characterized in that the flanks are flat by that an angle (α, γ) at the intersection between the flanks is between 110-160°, and the transitions between the flanks and the bottom are smooth.
A SPR sensing method comprising the steps of: providing a SPR sensor comprising a SPR supporting sensor surface; contacting a sample to be analysed with said sensor surface and monitoring at least one resonance condition at said SPR supporting sensor surface by illuminating said sensor surface with an SPR exciting test light beam and sensing the reflected or transmitted test light beam; determining at least one property of said reflected or transmitted test light beam; characterized by illuminating said sensor surface with a reference light beam under conditions selected so as not to excite SPR at said sensor surface and sensing the intensity of the reflected or transmitted reference light beam; wherein the determination of said at least one property of said reflected or transmitted test light beam takes into account the sensed intensity of the reflected or transmitted reference light beam. providing a SPR sensor comprising a SPR supporting sensor surface; contacting a sample to be analysed with said sensor surface and monitoring at least one resonance condition at said SPR supporting sensor surface by illuminating said sensor surface with an SPR exciting test light beam and sensing the reflected or transmitted test light beam; determining at least one property of said reflected or transmitted test light beam; characterized by illuminating said sensor surface with a reference light beam under conditions selected so as not to excite SPR at said sensor surface and sensing the intensity of the reflected or transmitted reference light beam; wherein the determination of said at least one property of said reflected or transmitted test light beam takes into account the sensed intensity of the reflected or transmitted reference light beam.
A device for engaging a driver during an autonomous mode comprising: a drive mode monitoring module configured to detect a transition from a manual drive mode to an autonomous drive mode; a driver monitoring module to monitor driver alertness during the autonomous drive mode; and an interactive module, further comprising; a processing module configured to activate an interactive training program in case alertness of the driver falls below a first threshold value wherein the first threshold value for alertness is determined based on plurality of attributes; a training module configured to receive activation or deactivation instructions from the processing module, characterized by the interactive training program enhances vehicle operation error rule knowledge of the driver, further characterized in that the vehicle operation error rule knowledge of the driver is determined based on vehicle operational issues faced by the driver in the past or by other vehicle drivers in general. a drive mode monitoring module configured to detect a transition from a manual drive mode to an autonomous drive mode; a driver monitoring module to monitor driver alertness during the autonomous drive mode; and an interactive module, further comprising; a processing module configured to activate an interactive training program in case alertness of the driver falls below a first threshold value wherein the first threshold value for alertness is determined based on plurality of attributes;
A video decoding method comprising: receiving encoded video information in a bit stream; and decoding an interlaced forward-predicted field using the encoded video information, including processing a variable length code that jointly signals macroblock mode information for a macroblock of the interlaced forward-predicted field, wherein the macroblock is motion-compensated, and wherein the jointly signaled macroblock mode information is one of plural combinations of options for a macroblock type, whether a coded block pattern is present or absent, and whether motion vector data is present or absent for the motion-compensated macroblock of the interlaced forward-predicted field, the plural combinations including at least one combination in which the coded block pattern is absent for the motion-compensated macroblock of the interlaced forward-predicted field. receiving encoded video information in a bit stream; and decoding an interlaced forward-predicted field using the encoded video information, including processing a variable length code that jointly signals macroblock mode information for a macroblock of the interlaced forward-predicted field, wherein the macroblock is motion-compensated, and wherein the jointly signaled macroblock mode information is one of plural combinations of options for a macroblock type, whether a coded block pattern is present or absent, and whether motion vector data is present or absent for the motion-compensated macroblock of the interlaced forward-predicted field, the plural combinations including at least one combination in which the coded block pattern is absent for the motion-compensated macroblock of the interlaced forward-predicted field.
A process for recovering a fluorinated emulsifier from an anion exchange resin, comprising contacting the anion exchange resin with a recovery fluid to form an eluate, the recovery fluid comprising an ammonium salt, water, and a water-miscible solvent, wherein the fluorinated emulsifier is of the formula: [Rf-(O-R'f) n -O-CF(CF 3)-C O -] i M +i wherein Rf is a fluorinated alkyl group comprising 1 to 5 carbon atoms; R'f is a divalent fluorinated group comprising 1 to 5 carbon atoms; n is 0, 1, 2, or 3; and M +i represents a cation having the valance i and i is 1, 2 or 3; and separating the anion exchange resin from the eluate.
An evacuation unit for a rail vehicle, the rail vehicle comprising a side wall having at least one exterior opening, the evacuation unit comprising: a. an evacuation device comprising: i. a support for attachment to the side wall of the vehicle so as to pivot between a first position in which the support closes the outer opening and a second position in which the support clears the outer opening to allow passage of an individual, ii. a tube, one end of which is attached to the support, the tube being retractable into the support, the evacuation device being configured to assume two states: a first state, known as the rest state, in which the support is in the first position and the tube is retracted into the support and a second state, known as the evacuation state, in which the support is in the second position and the tube is deployed out from the support, b. an actuator configured to move the evacuation device from the rest state to the evacuation state. a. an evacuation device comprising: i. a support for attachment to the side wall of the vehicle so as to pivot between a first position in which the support closes the outer opening and a second position in which the support clears the outer opening to allow passage of an individual, ii. a tube, one end of which is attached to the support, the tube being retractable into the support, the evacuation device being configured to assume two states: a first state, known as the rest state, in which the support is in the first position and the tube is retracted into the support and a second state, known as the evacuation state, in which the support is in the second position and the tube is deployed out from the support, i. a support for attachment to the side wall of the vehicle so as to pivot between a first position in which the support closes the outer opening and a second position in which the support clears the outer opening to allow passage of an individual, ii. a tube, one end of which is attached to the support, the tube being retractable into the support, b. an actuator configured to move the evacuation device from the rest state to the evacuation state.
Enzymatic reactor system comprising an enzyme capable of catalyzing the reaction ATP + Acetate + CoA → AMP + Pyrophosphate + Acetyl-CoA immobilized on a polymer microgel, wherein preferably said enzyme is an Acetyl-coenzyme A synthetase, wherein the polymer microgel comprises a cationic polymer.
A composition for application to a mucosa comprising i) from 0.1 to 10 weight percent of a tonicity-adjusting agent, based on the total weight of the composition, ii) a liquid diluent of which at least 55 weight percent is water, and iii) from 0.1 to 6 weight percent of a cellulose ether, based on the total weight of the composition, wherein the cellulose ether has a viscosity of from 1.2 to 8000 mPa•s, measured as 2 wt. % aqueous solution at 20 °C at a shear rate of 10 s -1, and wherein the cellulose ether has anhydroglucose units joined by 1-4 linkages and has methyl groups, hydroxyalkyl groups, and optionally alkyl groups being different from methyl as substituents such that hydroxyl groups of anhydroglucose units are substituted with methyl groups such that s23/s26 is 0.29 or less, wherein s23 is the molar fraction of anhydroglucose units wherein only the two hydroxyl groups in the 2- and 3-positions of the anhydroglucose unit are substituted with a methyl group and wherein s26 is the molar fraction of anhydroglucose units wherein only the two hydroxyl groups in the 2- and 6-positions of the anhydroglucose unit are substituted with a methyl group. i) from 0.1 to 10 weight percent of a tonicity-adjusting agent, based on the total weight of the composition, ii) a liquid diluent of which at least 55 weight percent is water, and iii) from 0.1 to 6 weight percent of a cellulose ether, based on the total weight of the composition,
A composition for a non-aqueous secondary battery positive electrode, comprising: a positive electrode active material; a conductive material; and a binder composition for a non-aqueous secondary battery positive electrode, wherein the binder composition comprises: a first binder; iron; and at least one of ruthenium and rhodium, wherein total iron, ruthenium, and rhodium content is no greater than 5×10 -3 parts by mass per 100 parts by mass of the first binder; iron content is at least 4×10 -5 parts by mass and no greater than 4×10 -3 parts by mass per 100 parts by mass of the first binder; total ruthenium and rhodium content is at least 4×10 -5 parts by mass and no greater than 4×10 -3 parts by mass per 100 parts by mass of the first binder; the first binder includes a polymer including an alkylene structural unit and a nitrile group-containing monomer unit; wherein the polymer does not include a repeating unit derived from a polymerizable monomer containing a hydrophilic group, the polymer has a degree of swelling in electrolysis solution of at least 200 mass% and no greater than 700 mass%; and the polymer has an iodine value of at least 0.01 mg/100 mg and no greater than 65 mg/100 mg. a first binder; iron; and at least one of ruthenium and rhodium, wherein total iron, ruthenium, and rhodium content is no greater than 5×10 -3 parts by mass per 100 parts by mass of the first binder; iron content is at least 4×10 -5 parts by mass and no greater than 4×10 -3 parts by mass per 100 parts by mass of the first binder; total ruthenium and rhodium content is at least 4×10 -5 parts by mass and no greater than 4×10 -3 parts by mass per 100 parts by mass of the first binder; the first binder includes a polymer including an alkylene structural unit and a nitrile group-containing monomer unit; wherein the polymer does not include a repeating unit derived from a polymerizable monomer containing a hydrophilic group, the polymer has a degree of swelling in electrolysis solution of at least 200 mass% and no greater than 700 mass%; and the polymer has an iodine value of at least 0.01 mg/100 mg and no greater than 65 mg/100 mg.
A system comprising: a storage volume; a processor comprising a translation lookaside buffer, TLB,; a field populator module to populate mapping fields (108a, 108b) and respective operation fields (110a, 110b) in the TLB, wherein operation fields (110a, 110b) are populated based on processes, running on the processor, corresponding to the respective mapping fields (108a, 108b), wherein operation fields are populated based on access rights of the processes for accessing the storage volume and functions related to data in the storage volume; a media controller, communicatively coupled to the storage volume and the processor, to control access to and perform functions related to data in the storage volume; and a field content transmitter module to, in response to a storage volume access request generated by one of the processes: identify, based on contents of one of the mapping fields (108a, 108b) that matches the storage volume access request, a memory address corresponding to a memory location in the storage volume; and transmit, to the media controller, a translated address based on the identified memory address, and contents of the respective operation field (110a, 110b). a storage volume; a processor comprising a translation lookaside buffer, TLB,; a field populator module to populate mapping fields (108a, 108b) and respective operation fields (110a, 110b) in the TLB, wherein operation fields (110a, 110b) are populated based on processes, running on the processor, corresponding to the respective mapping fields (108a, 108b), wherein operation fields are populated based on access rights of the processes for accessing the storage volume and functions related to data in the storage volume; a media controller, communicatively coupled to the storage volume and the processor, to control access to and perform functions related to data in the storage volume; and a field content transmitter module to, in response to a storage volume access request generated by one of the processes: identify, based on contents of one of the mapping fields (108a, 108b) that matches the storage volume access request, a memory address corresponding to a memory location in the storage volume; and transmit, to the media controller, a translated address based on the identified memory address, and contents of the respective operation field (110a, 110b). identify, based on contents of one of the mapping fields (108a, 108b) that matches the storage volume access request, a memory address corresponding to a memory location in the storage volume; and transmit, to the media controller, a translated address based on the identified memory address, and contents of the respective operation field (110a, 110b).
A support (1; 101; 201; 401) comprising at least one component (5; 105; 205; 405) and shielding (6; 106; 206; 406) for said component, the shielding comprising at least two distinct structures (7, 8; 107, 108; 207, 208; 407, 408) of electrically conductive material that are arranged to cover at least a main face of the component, without touching each other, each structure having a portion (11, 13; 111, 113; 211, 213; 411, 413) of electrically conductive material that extends over the main face of the component and facing the corresponding portion of the other structure, the shielding further including at least one layer of electrically insulating material (14; 114; 214; 414) extending between the two portions in order to co-operate with said portions to form a capacitor, the support being characterized in that the layer of electrically insulating material extends outside at least one of the portions in order to encompass at least said portion.
A method for inspecting a battery tab, comprising obtaining a side view of a plurality of layers of tabs (11~22) of a battery to be inspected; identifying and analyzing the side view to obtain a plurality of connected domains (1~6), wherein each connected domain (1~6) comprises one tab (11~22) or a plurality of tabs (11~22) that are bonded with each other; determining, based on positions and a number of intersection points (100~108) of tab (11~22) bonding in each connected domain (1~6), a number of layers of tabs (11~22) corresponding to each connected domain; calculating a total number of layers of the plurality of layers of tabs (11~22) in the side view based on the number of layers of tabs (11~22) corresponding to each connected domain; and determining, based on the total number of layers of tabs (11~22) and a preset real number of layers of tabs (11~22), whether the plurality of layers of tabs (11~22) are folded. obtaining a side view of a plurality of layers of tabs (11~22) of a battery to be inspected; identifying and analyzing the side view to obtain a plurality of connected domains (1~6), wherein each connected domain (1~6) comprises one tab (11~22) or a plurality of tabs (11~22) that are bonded with each other; determining, based on positions and a number of intersection points (100~108) of tab (11~22) bonding in each connected domain (1~6), a number of layers of tabs (11~22) corresponding to each connected domain; calculating a total number of layers of the plurality of layers of tabs (11~22) in the side view based on the number of layers of tabs (11~22) corresponding to each connected domain; and determining, based on the total number of layers of tabs (11~22) and a preset real number of layers of tabs (11~22), whether the plurality of layers of tabs (11~22) are folded.
An in vitro method for detecting the level of a nucleosome-protein adduct in a blood, serum or plasma sample, wherein the protein adducted to the nucleosome is a transcription factor, which comprises the steps of: (i) contacting the blood, serum or plasma sample with a first binding agent which binds to nucleosomes; (ii) contacting the blood, serum or plasma sample bound in step (i) with a second binding agent which binds to the transcription factor adducted to the nucleosome; (iii) detecting or quantifying the binding of said second binding agent to the adducted transcription factor in the blood, serum or plasma sample; and (iv) using the presence or degree of such binding as a measure of the level of nucleosome-transcription factor adducts in the blood, serum or plasma sample. (i) contacting the blood, serum or plasma sample with a first binding agent which binds to nucleosomes; (ii) contacting the blood, serum or plasma sample bound in step (i) with a second binding agent which binds to the transcription factor adducted to the nucleosome; (iii) detecting or quantifying the binding of said second binding agent to the adducted transcription factor in the blood, serum or plasma sample; and (iv) using the presence or degree of such binding as a measure of the level of nucleosome-transcription factor adducts in the blood, serum or plasma sample.
Method of estimating a position of a satellite receiver, comprising: • computing quantities indicative of degradations experienced by satellite signals and due to multipath interference; • computing a weight matrix based on the computed quantities; and • computing an estimated position of the satellite receiver based on the weight matrix; characterized in that computing the weight matrix includes: • classifying received signals into elevation classes based on elevations of the satellites that have emitted the signals; • for each elevation class, classifying the signals belonging to the elevation class into degradation classes based on the corresponding degradations, each degradation class having a corresponding cardinality defined by the number of signals with degradations falling within the degradation class; • for each elevation class, identifying different distribution functions which globally fit the distribution of the corresponding numbers of signals with degradations falling within the corresponding degradation classes; • for each elevation class, associating each degradation class with one of the corresponding distribution functions that satisfies a given criterion in relation to the number of signals with degradations falling within the corresponding degradation class; and • computing the weight matrix based on quantities related to parameters of the distribution functions associated with the degradation classes. • computing quantities indicative of degradations experienced by satellite signals and due to multipath interference; • computing a weight matrix based on the computed quantities; and • computing an estimated position of the satellite receiver based on the weight matrix; characterized in that computing the weight matrix includes: • classifying received signals into elevation classes based on elevations of the satellites that have emitted the signals; • for each elevation class, classifying the signals belonging to the elevation class into degradation classes based on the corresponding degradations, each degradation class having a corresponding cardinality defined by the number of signals with degradations falling within the degradation class; • for each elevation class, identifying different distribution functions which globally fit the distribution of the corresponding numbers of signals with degradations falling within the corresponding degradation classes; • for each elevation class, associating each degradation class with one of the corresponding distribution functions that satisfies a given criterion in relation to the number of signals with degradations falling within the corresponding degradation class; and • computing the weight matrix based on quantities related to parameters of the distribution functions associated with the degradation classes.