mhurhangee/ep-ind-claims huggingface dataset:
A multi-object audio encoding method for encoding a multi-object audio signal using a post downmix signal inputted from an outside, the multi-object audio encoding method comprising: generating, by an object information extraction and downmix generation unit, object information and a downmix signal from input object signals; determining, by a parameter determination unit, a downmix information parameter using the generated downmix signal and the post downmix signal; and combining, by a bitstream generation unit, the object information and the downmix information parameter and generating, by the bitstream generation unit, an object bitstream, wherein the determining a downmix information parameter comprises: scaling, by a power offset calculation unit of the parameter determination unit, the post downmix signal as a predetermined value to enable an average power of the post downmix signal in a particular frame to be identical to an average power of the generated downmix signal; and extracting, by a parameter extraction unit of the parameter determination unit, the downmix information parameter from the scaled post downmix signal in the particular frame. generating, by an object information extraction and downmix generation unit, object information and a downmix signal from input object signals; determining, by a parameter determination unit, a downmix information parameter using the generated downmix signal and the post downmix signal; and combining, by a bitstream generation unit, the object information and the downmix information parameter and generating, by the bitstream generation unit, an object bitstream, wherein the determining a downmix information parameter comprises: scaling, by a power offset calculation unit of the parameter determination unit, the post downmix signal as a predetermined value to enable an average power of the post downmix signal in a particular frame to be identical to an average power of the generated downmix signal; and extracting, by a parameter extraction unit of the parameter determination unit, the downmix information parameter from the scaled post downmix signal in the particular frame. scaling, by a power offset calculation unit of the parameter determination unit, the post downmix signal as a predetermined value to enable an average power of the post downmix signal in a particular frame to be identical to an average power of the generated downmix signal; and extracting, by a parameter extraction unit of the parameter determination unit, the downmix information parameter from the scaled post downmix signal in the particular frame.
An ice maker for a home appliance, in particular for a refrigerator or freezer, including: an upper assembly including an upper tray having at least one upper chamber part; a lower assembly including a lower support and a lower tray having at least one lower chamber part, wherein the lower assembly is movable with respect to the upper assembly between an open position and a closed position, wherein in the closed position, the lower chamber part and the upper chamber part form at least one ice chamber in which ice is to be formed, characterized in that the ice maker further includes: a lower heater being provided in the lower assembly between the lower support and the lower tray, wherein the lower heater provides heat to the lower chamber part during an ice making process so that ice within the ice chamber is frozen from an upper side for making clear ice. an upper assembly including an upper tray having at least one upper chamber part; a lower assembly including a lower support and a lower tray having at least one lower chamber part, wherein the lower assembly is movable with respect to the upper assembly between an open position and a closed position, wherein in the closed position, the lower chamber part and the upper chamber part form at least one ice chamber in which ice is to be formed, characterized in that the ice maker further includes: a lower heater being provided in the lower assembly between the lower support and the lower tray, wherein the lower heater provides heat to the lower chamber part during an ice making process so that ice within the ice chamber is frozen from an upper side for making clear ice.
A method of controlling a turbine of a floating wind turbine structure to reduce fatigue of its moorings (12a, 12b, 12c), comprising curtailing the turbine based on a motion of the wind turbine structure and a wind direction at the wind turbine structure relative to the directions in which each of the moorings extends away from the wind turbine.
A bright pigment comprising a flaky particle and a metal oxide layer covering a surface of the flaky particle, wherein the bright pigment has a particle diameter corresponding to a 90% volume-cumulative particle diameter from a small particle diameter side, in a particle size distribution, of 55 μm or less, the flaky particle is formed of a material having a refractive index of 1.4 to 1.8, wherein the material is at least one kind selected from the group consisting of glass, silica, alumina, and mica, the metal oxide layer is formed of at least any one kind selected from the group consisting of titanium dioxide, reduced titanium oxide, iron oxide, and reduced iron oxide, and the flaky particle has an average thickness of 0.35 μm to 0.55 μm and the proportion of flaky particles having a thickness of 0.15 μm or less is 1% or less in terms of the number.
Hot rolled steel sheet having yield strength of more than 690 MPa and less than or equal to 840 MPa, strength between 780 MPa and 950 MPa, elongation at break greater than 10% and hole expansion ratio greater than or equal to 50%, the chemical composition of which comprises, the amounts being expressed by weight: 0.040% ≤ C ≤ 0.065% 1.4% ≤ Mn ≤ 1.9% 0.1 % ≤ Si ≤ 0.55% 0.095% ≤ Ti ≤ 0.145% 0.025% ≤ Nb ≤ 0.045% 0.005% ≤ Al ≤ 0.1% 0.002% ≤ N ≤ 0.007% S ≤ 0.004% P<0.020% optionally Cr≤ 0.7% Cu≤ 0.1% Ni≤ 0.25% B≤0.003% Ca ≤ 0.005% Mg ≤ 0.005% the remainder being composed of iron and inevitable impurities due to production, whereof the microstructure is composed of granular bainite, ferrite, and cementite in surface percentage of less than 1.5%, and titanium and niobium carbonitrides, whereof the density of titanium nitrides of average size greater than 6 micrometers is less than or equal to 3/mm 2, and the ratio between the grain size D L measured parallel to the direction of rolling and the grain size D N measured perpendicular to the direction of rolling is less than or equal to 1.4. 0.040% ≤ C ≤ 0.065% 1.4% ≤ Mn ≤ 1.9% 0.1 % ≤ Si ≤ 0.55% 0.095% ≤ Ti ≤ 0.145% 0.025% ≤ Nb ≤ 0.045% 0.005% ≤ Al ≤ 0.1% 0.002% ≤ N ≤ 0.007% S ≤ 0.004% P<0.020% optionally Cr≤ 0.7% Cu≤ 0.1% Ni≤ 0.25% B≤0.003% Ca ≤ 0.005% Mg ≤ 0.005%
A motion sensing apparatus for a moving child support device, said motion sensing apparatus comprising: a housing defining a longitudinal axis; at least one piezoelectric sensor having a sensing surface positioned within the housing; a weighted member positioned within the housing and configured for movement in the direction of the housing's longitudinal axis; and a signal filtering amplifier; wherein the weighted member is configured to apply a variable force to the sensing surface of the piezoelectric sensor in response to movement of the motion sensing apparatus, wherein the piezoelectric sensor is configured to output a voltage signal corresponding to the magnitude of the variable force applied by the weighted member, the output voltage signal being indicative of the motion sensing apparatus's movement with respect to the housing longitudinal axis; and wherein the signal filtering amplifier is configured to receive the voltage signal output by the piezoelectric sensor and filter the voltage signal in order to output a motion signal indicative of the frequency of the motion sensing apparatus's oscillation with respect to the housing's longitudinal axis. a housing defining a longitudinal axis; at least one piezoelectric sensor having a sensing surface positioned within the housing; a weighted member positioned within the housing and configured for movement in the direction of the housing's longitudinal axis; and a signal filtering amplifier; wherein the weighted member is configured to apply a variable force to the sensing surface of the piezoelectric sensor in response to movement of the motion sensing apparatus, wherein the piezoelectric sensor is configured to output a voltage signal corresponding to the magnitude of the variable force applied by the weighted member, the output voltage signal being indicative of the motion sensing apparatus's movement with respect to the housing longitudinal axis; and wherein the signal filtering amplifier is configured to receive the voltage signal output by the piezoelectric sensor and filter the voltage signal in order to output a motion signal indicative of the frequency of the motion sensing apparatus's oscillation with respect to the housing's longitudinal axis.
A die-cutting press for cutting and forming one or more dual-purpose compressed and uncompressed honeycomb paper structures, comprising a first and second die stamp (10, 20) movable toward each other to close the press, with the first die stamp comprising a plurality of cutting knives (11S, 11L) protruding therefrom and at least a pressing and a holding surface (12, 13) thereon, wherein the pressing surface(s) (12, 12') is/are arranged at different height(s) with respect to the holding surface(s) (13, 13'), and the amount of protrusion of a first set of the knives located between a pressing surface (12, 12') and a holding surface (13, 13') is less than that of a second set of the remaining knives, characterized in that the plurality of cutting knives (11S, 11L) is arranged around the at least one pressing surface and holding surface (12, 13) on the first die stamp, the first die stamp comprises at least one ejector element associated with each pressing and holding surface (12, 13) to eject the honeycomb paper structures therefrom.
Tool (502; 602) for shaping a material, in particular for bending plate material, comprising: - a mounting part (511; 611) directed in a first direction, the first direction corresponding to the shaping direction, and configured to be at least partially received in a receiving space of an apparatus, - a shaping part (513; 613) extending from the mounting part (511; 611) in a second direction opposite the first direction, wherein the shaping part (513; 613) has a substantially V-shaped groove (514; 614), and - means for displacing the mounting part (511; 611) in longitudinal direction parallel to the groove (514; 614) through the receiving space, wherein the displacing means comprise at least one displacing member (532; 632) protruding from the mounting part (511; 611) of the tool (1502; 602), wherein the at least one displacing member (532; 632) is mounted rotatably in the tool (502; 602), and comprise a roller arranged rotatably on a shaft (534; 634) via an internal bearing (533; 633), characterized in that the mounting part (511; 611) has an end surface where the at least one displacing member (532; 632) protrudes, and wherein the at least one displacing member (532; 632) is movable in the first direction relative to the tool (502; 602). - a mounting part (511; 611) directed in a first direction, the first direction corresponding to the shaping direction, and configured to be at least partially received in a receiving space of an apparatus, - a shaping part (513; 613) extending from the mounting part (511; 611) in a second direction opposite the first direction, wherein the shaping part (513; 613) has a substantially V-shaped groove (514; 614), and - means for displacing the mounting part (511; 611) in longitudinal direction parallel to the groove (514; 614) through the receiving space, wherein the displacing means comprise at least one displacing member (532; 632) protruding from the mounting part (511; 611) of the tool (1502; 602), wherein the at least one displacing member (532; 632) is mounted rotatably in the tool (502; 602), and comprise a roller arranged rotatably on a shaft (534; 634) via an internal bearing (533; 633), characterized in that the mounting part (511; 611) has an end surface where the at least one displacing member (532; 632) protrudes, and wherein the at least one displacing member (532; 632) is movable in the first direction relative to the tool (502; 602).
A mobile network system comprising: a guidance message control server; a call control server; and a plurality of access gateways (5051, 5052, 5053) each of which is connected to a mobile terminal via a wireless base station (5071, 5072, 5073, 5074), wherein the call control server includes, a receiving section adapt to receive from a first access gateway included in the plurality of access gateways a call request notification that a first mobile terminal has made a call request for a second mobile terminal, a determination section adapt to determine whether a second access gateway that is included in the plurality of access gateways and is connected to the second mobile terminal specified in the call request notification received by the receiving section is call-restricted, an instructing section adapt to transmit a message transmission instruction including message specifying information and group specifying information to the guidance message control server, and a response section adapt, in a case where the determination section determines that the second access gateway is call-restricted, to transmit a response message including the same group specifying information as that included in the message transmission instruction to the first access gateway, wherein the guidance message control server includes, an instruction receiving section adapt to receive the message transmission instruction from the call control server, an acquisition section adapt to acquire guidance message data specified by the message specifying information included in the message transmission instruction received by the instruction receiving section, and a transmission section adapt to multicast transmit the guidance message data acquired by the acquisition section to a multicast group specified by the group specifying information included in the message transmission instruction received by the instruction receiving section, and wherein the first access gateway (5051, 5052, 5053) includes, a relay section adapt to receive from the first mobile terminal via the wireless base station a call connection request for the second mobile terminal and transmits the call request notification to the call control server in response to the call connection request, a processing section adapt, in a case where the processing section receives the response message from the call control server, to perform multicast group participation processing for participating in the multicast group specified by the group specifying information included in the response message, and a guidance transmission section adapt to transmit the guidance message data that is received as a result of the multicast group participation processing performed by the processing section to the first mobile terminal. a guidance message control server; a call control server; and a plurality of access gateways (5051, 5052, 5053) each of which is connected to a mobile terminal via a wireless base station (5071, 5072, 5073, 5074),
A warpage-preventing structure for a metal-bonded substrate, wherein the metal-bonded substrate has a substrate having a first surface and a second surface and at least one metal layer for circuit pattern disposed on at least one surface of the substrate, the warpage-preventing structure comprising: At least one additional metal layer pattern along an edge of the first surface of the metal-bonded substrate, and at least one additional metal layer pattern along an edge of the second surface of the metal-bonded substrate, and wherein at least one of the two the additional metal layer patterns is formed by at least one predetermined area of the metal layer which is clear of metal, wherein the entire mass of the additional metal layer pattern formed on the first surface of the substrate is different from the entire mass of the additional metal layer pattern formed on the second surface of the substrate, wherein a ratio of the entire mass of the additional metal layer pattern formed on the first surface to the entire mass of the additional metal layer pattern formed on the second surface is 1:0.20 to 1:0.80. At least one additional metal layer pattern along an edge of the first surface of the metal-bonded substrate, and at least one additional metal layer pattern along an edge of the second surface of the metal-bonded substrate, and wherein at least one of the two the additional metal layer patterns is formed by at least one predetermined area of the metal layer which is clear of metal, wherein the entire mass of the additional metal layer pattern formed on the first surface of the substrate is different from the entire mass of the additional metal layer pattern formed on the second surface of the substrate, wherein a ratio of the entire mass of the additional metal layer pattern formed on the first surface to the entire mass of the additional metal layer pattern formed on the second surface is 1:0.20 to 1:0.80.
A nut device (100, 200) comprising: a body (110, 210) comprising a first surface (112, 212) and second surface (114, 214) connected by an outer wall (116, 216) and by a central threaded aperture (119, 219) with female threads (118, 218) for engaging an elongate fastening member; and a deformation measurement device being received or formed with the body (110, 210), characterised in that the deformation measurement device is located circumferentially about the body (110, 210). a body (110, 210) comprising a first surface (112, 212) and second surface (114, 214) connected by an outer wall (116, 216) and by a central threaded aperture (119, 219) with female threads (118, 218) for engaging an elongate fastening member; and a deformation measurement device being received or formed with the body (110, 210), characterised in that the deformation measurement device is located circumferentially about the body (110, 210).
A charging device comprising: a rotatably supported charging roller configured to charge a surface of an image supporting medium with an externally applied voltage; and a charging cleaning component configured to make contact with a surface of the charging roller, wherein the charging roller comprises a resistance adjustment layer made of a resin composite and formed on an outer periphery of a core metal, and has a JIS-D hardness of 45 degrees or more, wherein the charging cleaning component comprises a core metal and a melamine resin foam which is provided on a peripheral surface of the core metal, and make contact with the surface of the charging roller, wherein the melamine resin foam is formed into a roller configuration, characterised in that the melamine resin foam has a tensile strength in a range of 1.7±0.5 kg/cm 2, and a density in a range of 5 to 15 kg/m 3, and in that the melamine resin foam of the charging cleaning component is heat-compressed from an original shape in a radial direction of the charging cleaning component so as to have a compressibility in a range of 30 ±15%, wherein the compressibility is determined in accordance with the following formula: compressibility in % = diameter before compression − diameter after compression / diameter before compression × 100. a rotatably supported charging roller configured to charge a surface of an image supporting medium with an externally applied voltage; and a charging cleaning component configured to make contact with a surface of the charging roller, wherein the charging roller comprises a resistance adjustment layer made of a resin composite and formed on an outer periphery of a core metal, and has a JIS-D hardness of 45 degrees or more, wherein the charging cleaning component comprises a core metal and a melamine resin foam which is provided on a peripheral surface of the core metal, and make contact with the surface of the charging roller, wherein the melamine resin foam is formed into a roller configuration, characterised in that the melamine resin foam has a tensile strength in a range of 1.7±0.5 kg/cm 2, and a density in a range of 5 to 15 kg/m 3, and in that the melamine resin foam of the charging cleaning component is heat-compressed from an original shape in a radial direction of the charging cleaning component so as to have a compressibility in a range of 30 ±15%, wherein the compressibility is determined in accordance with the following formula: compressibility in % = diameter before compression − diameter after compression / diameter before compression × 100.
Method for adapting an upper headlight beam boundary of a headlight cone of at least one headlight of a vehicle, wherein the method comprises the following steps: reading at least one arrangement position of an illumination unit of an other vehicle and evaluation of a number of illumination units of the other vehicle and/or reading a vehicle contour of the other vehicle to provide an other-vehicle identification signal; ascertaining one vehicle type of the other vehicle using the other-vehicle identification signal, wherein a vehicle type is understood to be a class of vehicles such as passenger cars, lorries, motorcycles, cyclists and/or a specific vehicle type of a vehicle manufacturer; and outputting a control signal for adapting the upper headlight beam boundary, wherein the control signal is output taking into account the ascertained vehicle type. reading at least one arrangement position of an illumination unit of an other vehicle and evaluation of a number of illumination units of the other vehicle and/or reading a vehicle contour of the other vehicle to provide an other-vehicle identification signal; ascertaining one vehicle type of the other vehicle using the other-vehicle identification signal, wherein a vehicle type is understood to be a class of vehicles such as passenger cars, lorries, motorcycles, cyclists and/or a specific vehicle type of a vehicle manufacturer; and outputting a control signal for adapting the upper headlight beam boundary, wherein the control signal is output taking into account the ascertained vehicle type.
A pivot and fanning drive for solar panels, with a turning plate, and a swivel plate on which the solar panels can be mounted about a fan axis such that they can be fanned in and out, characterized in that the pivot and fanning drive is further provided with the following: at least one crank, which is rotatably mounted on the turning plate, and a connecting rod which connects the crank with the swivel plate, such that the turning plate, the swivel plate, the crank and the connecting rod form a crankshaft gear, with a swivel movement of the crank causing a swivel movement of the swivel plate around a substantially horizontal axis. with a turning plate, and a swivel plate on which the solar panels can be mounted about a fan axis such that they can be fanned in and out, characterized in that the pivot and fanning drive is further provided with the following: at least one crank, which is rotatably mounted on the turning plate, and a connecting rod which connects the crank with the swivel plate, such that the turning plate, the swivel plate, the crank and the connecting rod form a crankshaft gear, with a swivel movement of the crank causing a swivel movement of the swivel plate around a substantially horizontal axis. at least one crank, which is rotatably mounted on the turning plate, and a connecting rod which connects the crank with the swivel plate, such that the turning plate, the swivel plate, the crank and the connecting rod form a crankshaft gear, with a swivel movement of the crank causing a swivel movement of the swivel plate around a substantially horizontal axis.