mhurhangee/ep-ind-claims huggingface dataset:
An audio decoding device that is configured to decode an encoded signal resulting from encoding an input signal, the input signal including a channel-based audio signal and an object-based audio signal, the encoded signal containing a channel-based encoded signal resulting from encoding the channel-based audio signal, an object-based encoded signal resulting from encoding the object-based audio signal as audio objects, and an audio scene encoded signal resulting from encoding audio scene information extracted from the input signal, the audio decoding device comprising: a demultiplexing unit configured to demultiplex the encoded signal into the channel-based encoded signal, the object-based encoded signal, and the audio scene encoded signal; an audio scene decoding unit configured to decode the audio scene encoded signal demultiplexed in the demultiplexing unit, and output audio scene information; a channel-based decoder that is configured to decode the channel-based audio signal; an object-based decoder that is configured to decode the object-based audio signal by using the audio scene information decoded by the audio scene decoding unit; and an audio scene synthesis unit configured to combine an output signal of the channel-based decoder and an output signal of the object-based decoder based on speaker arrangement information provided separately from the audio scene information, and reproduce a combined audio scene synthesis signal, wherein the audio scene information is a number of encoding bits of audio objects, and the audio decoding device is configured to determine, based on information that is provided separately, an audio object that is not to be reproduced from among the audio objects, and skip the audio object that is not to be reproduced, based on the number of encoding bits of the audio object. a demultiplexing unit configured to demultiplex the encoded signal into the channel-based encoded signal, the object-based encoded signal, and the audio scene encoded signal; an audio scene decoding unit configured to decode the audio scene encoded signal demultiplexed in the demultiplexing unit, and output audio scene information; a channel-based decoder that is configured to decode the channel-based audio signal; an object-based decoder that is configured to decode the object-based audio signal by using the audio scene information decoded by the audio scene decoding unit; and an audio scene synthesis unit configured to combine an output signal of the channel-based decoder and an output signal of the object-based decoder based on speaker arrangement information provided separately from the audio scene information, and reproduce a combined audio scene synthesis signal, wherein the audio scene information is a number of encoding bits of audio objects, and the audio decoding device is configured to determine, based on information that is provided separately, an audio object that is not to be reproduced from among the audio objects, and skip the audio object that is not to be reproduced, based on the number of encoding bits of the audio object.
A drum-type washing machine comprising: (a) a water tub for storing wash water having an opening directed to a front face of the housing; (b) a rotary drum having a rotary axis which tilts rearward relative to the horizontal disposed rotatably in the water tub and having an opening at a front face of the rotary drum; (c) a motor for driving the rotary drum; (d) a water circulating path for circulating the wash water stored in the water tub to the rotary drum; (i) wherein the nozzle water path is configured to have two end parts. (f) a plurality of nozzles (26a-26g) for jetting the wash water, transmitted thereto by the pump, into the rotary drum; and (g) a nozzle water path for conveying the wash water from the water circulating path to the plurality of nozzles (26a-26g), characterized in that (h) the nozzle water path is formed around a front face of the water tub and on the inner face of the opening viewed from the opening of the drum and outside of a rim of the opening of the drum in order to surround almost the entire circumference around the rotary axis, (e) a pump for conveying the wash water stored in the water tub to the water circulating path. (a) a water tub for storing wash water having an opening directed to a front face of the housing; (b) a rotary drum having a rotary axis which tilts rearward relative to the horizontal disposed rotatably in the water tub and having an opening at a front face of the rotary drum; (c) a motor for driving the rotary drum; (d) a water circulating path for circulating the wash water stored in the water tub to the rotary drum; (i) wherein the nozzle water path is configured to have two end parts. (f) a plurality of nozzles (26a-26g) for jetting the wash water, transmitted thereto by the pump, into the rotary drum; and (g) a nozzle water path for conveying the wash water from the water circulating path to the plurality of nozzles (26a-26g), characterized in that (h) the nozzle water path is formed around a front face of the water tub and on the inner face of the opening viewed from the opening of the drum and outside of a rim of the opening of the drum in order to surround almost the entire circumference around the rotary axis, (e) a pump for conveying the wash water stored in the water tub to the water circulating path.
An adhesive composition for an organic fiber, the adhesive composition containing: (a) an epoxy compound that is a sorbitol polyglycidyl ether and has a chlorine content not greater than 9.6% by weight; and (b) a blocked isocyanate. (a) an epoxy compound that is a sorbitol polyglycidyl ether and has a chlorine content not greater than 9.6% by weight; and (b) a blocked isocyanate.
A droplet actuator for manipulating a fluid using an electrical field, comprising: (a) an actuator electrode (114, 810) configured to communicate the electrical field to the fluid; (b) a reference electrode (122, 822) in communication with the actuator electrode (114, 810); (c) a capacitance detection circuit in communication with the reference electrode (122, 822) and configured to detect a capacitance of the fluid (130, 846); and (d) a processor in communication with the capacitance detection circuit and configured to determine a position of the fluid (130, 846) based on the detected capacitance of the fluid (130, 846); characterised by: a first electronic switch for selectively connecting the actuator electrode (114, 810) to a high-voltage supply; a ground node, a high voltage node and a high impedance node having an intermediate potential; and a second electronic switch for selectively connecting the reference electrode (122, 822) to one of the ground node, the high voltage node and the high impedance node. (a) an actuator electrode (114, 810) configured to communicate the electrical field to the fluid; (b) a reference electrode (122, 822) in communication with the actuator electrode (114, 810); (c) a capacitance detection circuit in communication with the reference electrode (122, 822) and configured to detect a capacitance of the fluid (130, 846); and (d) a processor in communication with the capacitance detection circuit and configured to determine a position of the fluid (130, 846) based on the detected capacitance of the fluid (130, 846); characterised by: a first electronic switch for selectively connecting the actuator electrode (114, 810) to a high-voltage supply; a ground node, a high voltage node and a high impedance node having an intermediate potential; and a second electronic switch for selectively connecting the reference electrode (122, 822) to one of the ground node, the high voltage node and the high impedance node. a first electronic switch for selectively connecting the actuator electrode (114, 810) to a high-voltage supply; a ground node, a high voltage node and a high impedance node having an intermediate potential; and a second electronic switch for selectively connecting the reference electrode (122, 822) to one of the ground node, the high voltage node and the high impedance node.
A sound barrier component, wherein the sound barrier component is formed as an integral concrete body, and wherein a first surface of the concrete body is formed as an acoustic absorber in order to dampen airborne sound, wherein the concrete body has a substantially homogeneous structure, characterized in that the concrete body contains aggregates with a bulk density of between 2000 kg/m 3 and 3000 kg/m 3, and that the concrete body is formed as a bulk-porous concrete.
A motor control apparatus, comprising: an inverter configured to apply a motor driving voltage to a motor based on a control signal; a current detection unit provided between the inverter and the motor to detect a motor driving current applied to the motor; and a control unit configured to calculate a reference voltage based on the motor driving current and a reference motor speed, to generate the control signal based on the reference voltage and a triangular carrier wave, and to output the control signal to the inverter, characterized in that the control unit is configured to calculate a speed of the motor based on the motor driving current, to generate a reference current based on the reference motor speed and the calculated motor speed, to sample the motor driving current at least twice within a period of the triangular carrier wave and calculates the reference voltage based on the sampled motor driving current at least twice within a period of the triangular carrier wave. an inverter configured to apply a motor driving voltage to a motor based on a control signal; a current detection unit provided between the inverter and the motor to detect a motor driving current applied to the motor; and a control unit configured to calculate a reference voltage based on the motor driving current and a reference motor speed, to generate the control signal based on the reference voltage and a triangular carrier wave, and to output the control signal to the inverter, characterized in that the control unit is configured to calculate a speed of the motor based on the motor driving current, to generate a reference current based on the reference motor speed and the calculated motor speed, to sample the motor driving current at least twice within a period of the triangular carrier wave and calculates the reference voltage based on the sampled motor driving current at least twice within a period of the triangular carrier wave.
A method comprising: obtaining a blood glucose reference sample measurement from a patient; observing a blood glucose level in said patient by processing signals from a continuous blood glucose sensor; and determining a time for obtaining a subsequent blood glucose reference sample measurement from said patient based, at least in part, on an indicator indicative of a stability of the observed blood glucose level; wherein said indicator is based, at least in part, on a length of time the observed blood glucose level is within a target range. obtaining a blood glucose reference sample measurement from a patient; observing a blood glucose level in said patient by processing signals from a continuous blood glucose sensor; and determining a time for obtaining a subsequent blood glucose reference sample measurement from said patient based, at least in part, on an indicator indicative of a stability of the observed blood glucose level; wherein said indicator is based, at least in part, on a length of time the observed blood glucose level is within a target range.
A signal generation method for generating, from a plurality of baseband signals, a plurality of signals for transmission on a common frequency band and at a common time, comprising the steps of: performing a change of phase on each of a first baseband signal s1 generated from a first set of bits and a second baseband signal s2 generated from a second set of bits, thus generating a first post-phase change baseband signal s1' and a second post-phase change baseband signal s2'; and applying weighting to the first post-phase change baseband signal s1' and to the second post-phase change baseband signal s2' according to a predetermined matrix F, thus generating a first weighted signal z1 and a second weighted signal z2 as the plurality of signals for transmission on the common frequency band and at the common time, wherein the first weighted signal z1 and the second weighted signal z2 satisfy the relation: z 1, z 2 T = F s 1 ′, s 2 ′ T characterized in that the change of phase is performed on the first baseband signal s1 and the second baseband signal s2 using a phase modification value sequentially selected from among N phase modification value candidates, N being an integer equal to or greater than two and each of the N phase modification value candidates being selected at least once within a predetermined period; and a difference between two adjacent phase change value candidates of the N phase change values is 2π/N. performing a change of phase on each of a first baseband signal s1 generated from a first set of bits and a second baseband signal s2 generated from a second set of bits, thus generating a first post-phase change baseband signal s1' and a second post-phase change baseband signal s2'; and applying weighting to the first post-phase change baseband signal s1' and to the second post-phase change baseband signal s2' according to a predetermined matrix F, thus generating a first weighted signal z1 and a second weighted signal z2 as the plurality of signals for transmission on the common frequency band and at the common time, wherein the first weighted signal z1 and the second weighted signal z2 satisfy the relation: z 1, z 2 T = F s 1 ′, s 2 ′ T characterized in that the change of phase is performed on the first baseband signal s1 and the second baseband signal s2 using a phase modification value sequentially selected from among N phase modification value candidates, N being an integer equal to or greater than two and each of the N phase modification value candidates being selected at least once within a predetermined period; and a difference between two adjacent phase change value candidates of the N phase change values is 2π/N.
A winter tire, comprising a tread comprising a rubber composition, characterised by the rubber composition satisfying the following relationships and: 0.65 ≤ tan δ at − 30 ° C ≤ 1.10 and 0.14 ≤ tan δ at − 30 ° C / E * at 0 ° C ≤ 0.40 wherein the tan δ at -30°C represents the tan δ at -30°C under the shear mode conditions below, and the tan δ at - 30°C and the E* at 0°C represent the tan δ at -30°C and the E* at 0°C, respectively, under the elongation mode conditions below: [Shear mode] Stress: 0.2 MPa, Frequency: 10 Hz, tan δ measurement temperature: -30°C; [Elongation mode] Elongation strain: 2.5%, Frequency: 10 Hz, tan δ measurement temperature: -30°C, E* measurement temperature: 0°C, wherein E* is the complex modulus in MPa, wherein the rubber composition contains one or more types of styrene-butadiene rubber, wherein the amount of the styrene-butadiene rubber based on 100% by mass of the rubber components is 5% by mass or more and 30% by mass or less. [Shear mode] Stress: 0.2 MPa, Frequency: 10 Hz, tan δ measurement temperature: -30°C; Stress: 0.2 MPa, Frequency: 10 Hz, tan δ measurement temperature: -30°C; [Elongation mode] Elongation strain: 2.5%, Frequency: 10 Hz, tan δ measurement temperature: -30°C, E* measurement temperature: 0°C, wherein E* is the complex modulus in MPa, wherein the rubber composition contains one or more types of styrene-butadiene rubber, wherein the amount of the styrene-butadiene rubber based on 100% by mass of the rubber components is 5% by mass or more and 30% by mass or less. Elongation strain: 2.5%, Frequency: 10 Hz, tan δ measurement temperature: -30°C, E* measurement temperature: 0°C, wherein E* is the complex modulus in MPa, wherein the rubber composition contains one or more types of styrene-butadiene rubber, wherein the amount of the styrene-butadiene rubber based on 100% by mass of the rubber components is 5% by mass or more and 30% by mass or less. wherein E* is the complex modulus in MPa, wherein the rubber composition contains one or more types of styrene-butadiene rubber, wherein the amount of the styrene-butadiene rubber based on 100% by mass of the rubber components is 5% by mass or more and 30% by mass or less.
Drive mechanism for an injection device, the mechanism comprising a housing (4; 104; 204; 304; 404) and a dosing member (7; 107; 206; 306; 407), which during dose setting, dose resetting and dose dispensing rotates relative to the housing between a zero dose position and a maximum dose position, an insert (5; 126; 205; 307; 431) which is rotationally constrained to the housing, wherein the dosing member (7; 107; 206; 306; 407) and the insert (5; 126; 205; 307; 431) each comprise at least one abutment feature (22, 24; 122, 124; 222; 321; 422, 424) contacting each other when the dosing member (7; 107; 206; 306; 407) reaches its zero dose position during dose dispensing, and wherein an audible and/or tactile feedback is generated by the contact of the abutment features (22, 24; 122, 124; 222; 321; 422, 424), characterized in that the mechanism further comprises an additional component part (8; 126; 431) which is axially movable between a dose dispensing position and a dose setting and resetting position wherein the abutment features (22, 24; 122, 124; 222; 321; 422, 424) contact each other only when the additional component part (8; 126; 431) is in its dose dispensing position.
A method for producing a marker element for an implant from a planar or hollow body-shaped semi-finished product consisting of the material of the marker element, comprising the following steps: - cutting out at least one portion from the semi-finished product, in such a way that the portion is connected via at least one web to the rest of the material of the semi-finished product, - whilst the portion is still connected to the semi-finished product via the at least one web: - covering a first surface of the portion and - performing a subsequent plasma electrolytic treatment of at least a second surface of the portion, wherein the at least one second surface is different from the first surface, and the side face of the marker element, which runs transversely to the second surface, wherein a porous layer is formed at least on the second surface of the portion and at least partially on the side face by the plasma electrolytic treatment, and - separating the portion by severing the at least one web, wherein the separated portion of the semi-finished product forms the marker element. - cutting out at least one portion from the semi-finished product, in such a way that the portion is connected via at least one web to the rest of the material of the semi-finished product, - whilst the portion is still connected to the semi-finished product via the at least one web: - covering a first surface of the portion and - performing a subsequent plasma electrolytic treatment of at least a second surface of the portion, wherein the at least one second surface is different from the first surface, and the side face of the marker element, which runs transversely to the second surface, wherein a porous layer is formed at least on the second surface of the portion and at least partially on the side face by the plasma electrolytic treatment, and - covering a first surface of the portion and - performing a subsequent plasma electrolytic treatment of at least a second surface of the portion, wherein the at least one second surface is different from the first surface, and the side face of the marker element, which runs transversely to the second surface, wherein a porous layer is formed at least on the second surface of the portion and at least partially on the side face by the plasma electrolytic treatment, and - separating the portion by severing the at least one web, wherein the separated portion of the semi-finished product forms the marker element.
A harvesting vehicle including a display system for facilitating user-controlled aiming of a movable crop-delivery spout of the harvesting vehicle with respect to a separate material receiving vehicle (2a, 2b), the system comprising: an image device for viewing a field of view including at least a portion of the material receiving vehicle and arranged to generate an image signal; a display device arranged to display to a user of the harvesting vehicle an image based on said image signal; wherein the image device is operable to adjust a viewed field of view by a controlled adjustment extent; position determining means (10e, f, g) arranged to generate an indication of the position of the crop delivery spout relative to the harvesting vehicle, and a control unit coupled to the image device and position determining means and arranged to automatically vary the adjustment extent in response to the spout position indication; wherein the image device is a camera; characterised in that adjustment of the viewed field of view is achieved by adjustment of a zoom function of the camera. an image device for viewing a field of view including at least a portion of the material receiving vehicle and arranged to generate an image signal; a display device arranged to display to a user of the harvesting vehicle an image based on said image signal; wherein the image device is operable to adjust a viewed field of view by a controlled adjustment extent; position determining means (10e, f, g) arranged to generate an indication of the position of the crop delivery spout relative to the harvesting vehicle, and a control unit coupled to the image device and position determining means and arranged to automatically vary the adjustment extent in response to the spout position indication; wherein the image device is a camera; characterised in that adjustment of the viewed field of view is achieved by adjustment of a zoom function of the camera.
Structure with hollow or partially hollow structural elements (P1, P2, P2'), shading or covering in general or suited to be used for furniture in general, comprising a plurality of said hollow or partially hollow structural elements (P1, P2, P2') and a system of joints (1, 2, 1', 2', 3, 4, 5, 6) configured to join said structural elements (P1, P2, P2') to one another, characterized in that each one of said joints (1, 2, 1', 2', 3, 4, 5, 6): • is axially fitted in said structural elements (P1, P2, P2'), • is substantially prismatic in shape, with cross section in a shape substantially matching the cross section of said structural elements (P1, P2, P2'), and wherein each one of said joints (1, 2, 1', 2', 3, 4, 5, 6) comprises one or more through holes (14, 24) at least in the longitudinal direction, meaning the direction of insertion in said structural elements (P1, P2, P2'), and/or one or more through or blind holes according to one or more transverse directions, said holes (14, 24, 15) being suitable for the insertion of means for fixing at least two of said joints (1, 2, 1', 2', 3, 4, 5, 6) to each other, thus also joining the structural elements (P1, P2, P2') in which the latter are inserted. • is axially fitted in said structural elements (P1, P2, P2'), • is substantially prismatic in shape, with cross section in a shape substantially matching the cross section of said structural elements (P1, P2, P2'),