mhurhangee/ep-ind-claims huggingface dataset:
A method for making available at least one sound signal that is combined with a Higher Order Ambisonics signal denoted HOA signal, said method including: - splitting said HOA signal into a selected signal part comprising a zero order channel of the HOA signal and a remaining signal part; - extracting from said remaining signal part at least one partial signal comprising at least one channel of the HOA signal; - combining said at least one partial signal with said selected signal part so as to form an amended selected signal part (S+) - outputting said remaining signal part, said amended selected signal part (S+), and side information data which is suitable for removing at a decoding side said at least one partial signal from said amended selected signal part (S+) so as to get said selected signal part, and for merging said remaining signal part and said selected signal part and for decoding said HOA signal, and - making said amended selected signal part (S+) available for listening without HOA decoding. - splitting said HOA signal into a selected signal part comprising a zero order channel of the HOA signal and a remaining signal part; - extracting from said remaining signal part at least one partial signal comprising at least one channel of the HOA signal; - combining said at least one partial signal with said selected signal part so as to form an amended selected signal part (S+) - outputting said remaining signal part, said amended selected signal part (S+), and side information data which is suitable for removing at a decoding side said at least one partial signal from said amended selected signal part (S+) so as to get said selected signal part, and for merging said remaining signal part and said selected signal part and for decoding said HOA signal, and - making said amended selected signal part (S+) available for listening without HOA decoding.
A cranial drilling system comprising a surgical drill element (304, 1304) for drilling into the skull and an element (302; 1302) for penetrating the dura (152; 1152), characterised in that the surgical drill element (304, 1304) comprises a profile (306, 308, 324; 1306, 1308, 1324) that forms an opening (153; 1153) in the skull (151; 1151) having a narrower diameter portion (153a; 1153a) and a wider diameter portion and the element (302; 1302) for penetrating the dura (152; 1152) is arranged to be a close fit in the narrower diameter portion (153a; 1153a) of the opening (153; 1153).
A four-wheel-drive vehicle comprising: an engine configured to generate driving force for the vehicle; a transmission device configured to shift rotation of an output shaft of the engine by transmission ratios of a plurality of stages; a driving force transmission system capable of transmitting output of the transmission device to main drive wheels which are one of front wheels and rear wheels and auxiliary drive wheels which are the other of the front wheels and the rear wheels; a control device configured to set a torque value to be transmitted to the auxiliary drive wheels; and a driving force transmitting device configured to transmit driving force depending on the value set by the control device to the auxiliary drive wheels, characterized in that the control device is configured to, when a rotational speed of the output shaft of the engine is in a range in which abnormal sound of the driving force transmission system due to pulsation of the driving force can be generated, namely when the rotational speed of the output shaft of the engine is lower than a predetermined value, set the torque value to be transmitted to the auxiliary drive wheels to a value capable of reducing the abnormal sound depending on the driving force of the engine. an engine configured to generate driving force for the vehicle; a transmission device configured to shift rotation of an output shaft of the engine by transmission ratios of a plurality of stages; a driving force transmission system capable of transmitting output of the transmission device to main drive wheels which are one of front wheels and rear wheels and auxiliary drive wheels which are the other of the front wheels and the rear wheels; a control device configured to set a torque value to be transmitted to the auxiliary drive wheels; and a driving force transmitting device configured to transmit driving force depending on the value set by the control device to the auxiliary drive wheels, characterized in that the control device is configured to, when a rotational speed of the output shaft of the engine is in a range in which abnormal sound of the driving force transmission system due to pulsation of the driving force can be generated, namely when the rotational speed of the output shaft of the engine is lower than a predetermined value, set the torque value to be transmitted to the auxiliary drive wheels to a value capable of reducing the abnormal sound depending on the driving force of the engine.
A pipe comprising a cross-linked polyolefin composition which is obtained by subjecting a polyolefin composition to cross-linking conditions, the polyolefin composition comprising: - a base resin comprising a cross-linkable olefin homo- or copolymer which comprises hydrolysable silicon-containing groups, and - a filler selected from the group consisting of a mineral glass filler, mica, wollastonite, feldspar, barytes, and carbon fibers. - a base resin comprising a cross-linkable olefin homo- or copolymer which comprises hydrolysable silicon-containing groups, and - a filler selected from the group consisting of a mineral glass filler, mica, wollastonite, feldspar, barytes, and carbon fibers.
A method for producing branched insoluble polyphosphonates comprising: combining one or more phosphonic acid diaryl esters, one or more bisphenols and an alkali catalyst in a reaction vessel to form a reaction mixture; heating the reaction mixture for a first time under vacuum to a temperature where phenol begins to distill from the vessel and continuing heating until evolution of phenol has stopped; and heating the reaction mixture for a second time to a temperature where evolution of at least phenol has restarted and has stopped wherein the step of heating the reaction mixture for a second time is carried out for a time that is at least equal to the step of heating the reaction mixture for a first time, and wherein the melt viscosity of the reaction mixture increases by at least 10 times during the step of heating the reaction mixture of a second time and the polyphosphonate, is insoluble in methylene chloride at 23°C after 8 hours immersion. combining one or more phosphonic acid diaryl esters, one or more bisphenols and an alkali catalyst in a reaction vessel to form a reaction mixture; heating the reaction mixture for a first time under vacuum to a temperature where phenol begins to distill from the vessel and continuing heating until evolution of phenol has stopped; and heating the reaction mixture for a second time to a temperature where evolution of at least phenol has restarted and has stopped wherein the step of heating the reaction mixture for a second time is carried out for a time that is at least equal to the step of heating the reaction mixture for a first time, and wherein the melt viscosity of the reaction mixture increases by at least 10 times during the step of heating the reaction mixture of a second time and the polyphosphonate, is insoluble in methylene chloride at 23°C after 8 hours immersion.
A transmit power determining method, comprising: determining, by a first device, a relative power ratio of a phase tracking reference signal, PTRS, to a data channel according to mapping relations between a quantity of transport layers and the relative power ratio of the PTRS; determining, by the first device, a transmit power of the PTRS based on the relative power ratio of the PTRS to the data channel; and sending, by the first device, the PTRS to a second device using the transmit power of the PTRS, wherein, during uplink transmission, the mapping relations comprise: when the quantity of transport layers is 1, the relative power ratio of the PTRS to the data channel is 0 dB; when the quantity of transport layers is 2, the relative power ratio of the PTRS to the data channel is 3 dB; when the quantity of transport layers is 3, the relative power ratio of the PTRS to the data channel is 4.77 dB; and when the quantity of transport layers is 4, the relative power ratio of the PTRS to the data channel is 6 dB, wherein a quantity of PTRS ports for the PTRS is less than the quantity of transport layers. determining, by a first device, a relative power ratio of a phase tracking reference signal, PTRS, to a data channel according to mapping relations between a quantity of transport layers and the relative power ratio of the PTRS; determining, by the first device, a transmit power of the PTRS based on the relative power ratio of the PTRS to the data channel; and sending, by the first device, the PTRS to a second device using the transmit power of the PTRS, wherein, during uplink transmission, the mapping relations comprise: when the quantity of transport layers is 1, the relative power ratio of the PTRS to the data channel is 0 dB; when the quantity of transport layers is 2, the relative power ratio of the PTRS to the data channel is 3 dB; when the quantity of transport layers is 3, the relative power ratio of the PTRS to the data channel is 4.77 dB; and when the quantity of transport layers is 4, the relative power ratio of the PTRS to the data channel is 6 dB, when the quantity of transport layers is 1, the relative power ratio of the PTRS to the data channel is 0 dB; when the quantity of transport layers is 2, the relative power ratio of the PTRS to the data channel is 3 dB; when the quantity of transport layers is 3, the relative power ratio of the PTRS to the data channel is 4.77 dB; and when the quantity of transport layers is 4, the relative power ratio of the PTRS to the data channel is 6 dB, wherein a quantity of PTRS ports for the PTRS is less than the quantity of transport layers.
A device comprising: a. a body portion including: i. a first end and ii. a second end; b. a holder at the first end; c. a holder at the second end; d. a rotation device at the first end in communication with the holder at the first end; characterised in that the holder is fixedly attached to a split gear having a channel that extends through the split gear so that one or more flexible mediums may be placed through the channel and removed from a work area located between the holder at the first end and the holder at the second end. a. a body portion including: i. a first end and ii. a second end; i. a first end and ii. a second end; b. a holder at the first end; c. a holder at the second end; d. a rotation device at the first end in communication with the holder at the first end; characterised in that the holder is fixedly attached to a split gear having a channel that extends through the split gear so that one or more flexible mediums may be placed through the channel and removed from a work area located between the holder at the first end and the holder at the second end.
A method of determining whether a compound is capable of altering immune response in a subject, comprising: (a) contacting a first cell from a subject with the compound in vitro; (b) obtaining a first sample from the first cell from step (a); (c) determining the level of IKZF1 (Ikaros) in the first sample; and (d) comparing the level of said IKZF1 (Ikaros) from step (c) to the level of IKZF1 (Ikaros) obtained from a reference sample, wherein a change in the level as compared to the reference is indicative of the efficacy of the compound for altering immune response in the subject. (a) contacting a first cell from a subject with the compound in vitro; (b) obtaining a first sample from the first cell from step (a); (c) determining the level of IKZF1 (Ikaros) in the first sample; and (d) comparing the level of said IKZF1 (Ikaros) from step (c) to the level of IKZF1 (Ikaros) obtained from a reference sample,
A method implemented by a wireless transmit/receive unit, WTRU, comprising: receiving a radio resource control, RRC, message, the RRC message comprising an index associated with physical uplink control channel, PUCCH, transmission resource; encoding a set of control information bits to generate encoded control information bits; scrambling the encoded control information bits to generate scrambled control information bits; modulating the scrambled control information bits into a plurality of modulated symbols; spreading each of the plurality of modulated symbols block-wise using at least one orthogonal sequence, wherein the at least one orthogonal sequence is configured based on the index associated with PUCCH transmission resource that was received in the RRC message; determining a cyclic shift based on the index associated with PUCCH transmission resource that was received in the RRC message; applying the cyclic shift to a base sequence to generate a demodulation reference signal, DMRS; and sending a PUCCH transmission comprising the DMRS and the block-wise spread modulated symbols. receiving a radio resource control, RRC, message, the RRC message comprising an index associated with physical uplink control channel, PUCCH, transmission resource; encoding a set of control information bits to generate encoded control information bits; scrambling the encoded control information bits to generate scrambled control information bits; modulating the scrambled control information bits into a plurality of modulated symbols; spreading each of the plurality of modulated symbols block-wise using at least one orthogonal sequence, wherein the at least one orthogonal sequence is configured based on the index associated with PUCCH transmission resource that was received in the RRC message; determining a cyclic shift based on the index associated with PUCCH transmission resource that was received in the RRC message; spreading each of the plurality of modulated symbols block-wise using at least one orthogonal sequence, wherein the at least one orthogonal sequence is configured based on the index associated with PUCCH transmission resource that was received in the RRC message; determining a cyclic shift based on the index associated with PUCCH transmission resource that was received in the RRC message; applying the cyclic shift to a base sequence to generate a demodulation reference signal, DMRS; and sending a PUCCH transmission comprising the DMRS and the block-wise spread modulated symbols.
Steam turbine plant for district heating applications, comprising at least a first turbine and a second turbine, wherein an outlet of the first turbine is in steam communication with an inlet of the second turbine by a main line, and wherein a reheater is located within said main line for reheating of steam from the outlet of the first turbine, wherein a bypass line is provided for steam communication between the first turbine and the second turbine for bypassing a part of the steam around the reheater characterized in that the upstream part of bypass line is connected to a separate bypass outlet of the first turbine and/or the downstream part of the bypass line is connected to a separate bypass inlet of the second turbine.
A method for measuring a height in a cabin of a plane applied to an electronic device, such as a wearable device, wherein the electronic device comprises an altimeter function when the electronic device is located in the cabin of the plane, comprising: displaying, by the electronic device, an altitude obtained in a first detection manner, wherein the first detection manner is a default altitude detection manner of the electronic device and is a manner of detecting altitude using a barometric pressure sensor of the electronic device; and if it is determined that a first switching condition is met, displaying, by the electronic device, an altitude obtained in a second detection manner, different from the first detection manner, wherein the first switching condition comprises: the data obtained by the electronic device in the first detection manner is determined as invalid, and wherein it is determined that the data obtained in the first detection manner is invalid when a value by which an altitude value of the electronic device increases within a first preset duration is greater than a preset first height threshold indicating that the pressure in the cabin of the plane has been boosted. displaying, by the electronic device, an altitude obtained in a first detection manner, wherein the first detection manner is a default altitude detection manner of the electronic device and is a manner of detecting altitude using a barometric pressure sensor of the electronic device; and if it is determined that a first switching condition is met, displaying, by the electronic device, an altitude obtained in a second detection manner, different from the first detection manner, wherein the first switching condition comprises: the data obtained by the electronic device in the first detection manner is determined as invalid, and wherein it is determined that the data obtained in the first detection manner is invalid when a value by which an altitude value of the electronic device increases within a first preset duration is greater than a preset first height threshold indicating that the pressure in the cabin of the plane has been boosted.
Positioning and adjusting device for at least a cleaning brush of a fabric finishing machine such as a teaseling machine, a fluffing machine or similar, comprising a plurality of rotating chocks having needles or pointed protuberances, said at least one cleaning brush comprising a plurality of fibers or filaments suitable to remove, during use, possible residues of fabric or other types of residue from said chocks, characterized in that it comprises image acquisition means, disposed in proximity to said at least one cleaning brush and suitable to acquire images of the zone of proximity and/or contact between the ends of said fibers and the ends of said needles in order to find the distance (D1, D2, D3) between the latter and in that it also comprises control means, connected to said image acquisition means and which are suitable to receive and process said images in order to find said distance (D1, D2, D3), and movement means commanded by said control means and suitable to move said cleaning brush toward said chocks so that said cleaning brush is positioned, in use, in a position such that said fibers penetrate into said chocks to a desired depth.
An electronically scanned array comprising: an injection molded nose cone formed of a dielectric material and defining an axis; a plurality of radiating horns (202, 204), each disposed around the axis defined by the nose cone; and a feed layer connected to each of the radiating horns, wherein: the plurality of radiating horns is embedded in the dielectric material of the nose cone; and the feed layer is configured to simultaneously activate each of the plurality of radiating horns to produce a limited scan steerable radiation pattern. an injection molded nose cone formed of a dielectric material and defining an axis; a plurality of radiating horns (202, 204), each disposed around the axis defined by the nose cone; and a feed layer connected to each of the radiating horns, wherein: the plurality of radiating horns is embedded in the dielectric material of the nose cone; and the feed layer is configured to simultaneously activate each of the plurality of radiating horns to produce a limited scan steerable radiation pattern. the plurality of radiating horns is embedded in the dielectric material of the nose cone; and the feed layer is configured to simultaneously activate each of the plurality of radiating horns to produce a limited scan steerable radiation pattern.
A liquid chromatography measurement method, comprising: switching between a first measurement mode using a liquid chromatography method in which hemoglobin A1c and a hemoglobin variant are measured in a measurement sample by sequentially delivering: a first eluent for hemoglobin A1c; a second eluent for a hemoglobin variant; the first eluent; a wash eluent; and the first eluent to an analytical column; and a second measurement mode using the liquid chromatography method in which the hemoglobin A1c is measured by sequentially delivering: the first eluent; the wash eluent; and the first eluent to the analytical column; wherein the wash eluent in the first measurement mode is delivered prior to an influence from the second eluent disappearing; and the delivery duration is controlled for at least one of the first eluent delivered directly after the second eluent, or the first eluent delivered directly after the wash eluent, such that a first retention time of the hemoglobin A1c from the introduction of the measurement sample in the first measurement mode and a second retention time of the hemoglobin A1c from the introduction of the measurement sample in the second measurement mode are substantially the same. a first eluent for hemoglobin A1c; a second eluent for a hemoglobin variant; the first eluent; a wash eluent; and the first eluent to an analytical column; and a second measurement mode using the liquid chromatography method in which the hemoglobin A1c is measured by sequentially delivering: the first eluent; the wash eluent; and the first eluent to the analytical column; wherein the wash eluent in the first measurement mode is delivered prior to an influence from the second eluent disappearing; and the delivery duration is controlled for at least one of the first eluent delivered directly after the second eluent, or the first eluent delivered directly after the wash eluent, such that a first retention time of the hemoglobin A1c from the introduction of the measurement sample in the first measurement mode and a second retention time of the hemoglobin A1c from the introduction of the measurement sample in the second measurement mode are substantially the same. the first eluent; the wash eluent; and the first eluent to the analytical column; wherein the wash eluent in the first measurement mode is delivered prior to an influence from the second eluent disappearing; and the delivery duration is controlled for at least one of the first eluent delivered directly after the second eluent, or the first eluent delivered directly after the wash eluent, such that a first retention time of the hemoglobin A1c from the introduction of the measurement sample in the first measurement mode and a second retention time of the hemoglobin A1c from the introduction of the measurement sample in the second measurement mode are substantially the same.