mhurhangee/ep-ind-claims huggingface dataset:
A method for obtaining a cell identifier in an orthogonal frequency-division multiple access, OFDMA, transmission comprising: receiving a signal sample at a processor, wherein the signal sample comprises a transmission on a primary synchronization channel, PSS, and a transmission on a secondary synchronization channel, SSS; the method characterized by: determining in the processor a correlation, P, of a first symbol transmitted in the PSS of the signal sample to a first known symbol at each time, t, of time increments, k, of the signal sample, wherein P is a complex number; determining in the processor a correlation, S, of a second symbol transmitted in the SSS to a second known symbol at each time t-.5/7msecs, wherein S is a complex number; receiving at the processor a candidate phase rotation of θ i from a set of i candidates; determining in the processor a correlation, C max, over the time increments k, wherein C max is a complex number and C max = max{ abs ( P* exp( j*θ i) + S)}; and wherein C max represents a maximum amplitude of a combined correlation of S and P, with P rotated by θ i, and determining in the processor the cell identifier from the first and second known symbols that produced S and P of C max. receiving a signal sample at a processor, wherein the signal sample comprises a transmission on a primary synchronization channel, PSS, and a transmission on a secondary synchronization channel, SSS; determining in the processor a correlation, P, of a first symbol transmitted in the PSS of the signal sample to a first known symbol at each time, t, of time increments, k, of the signal sample, wherein P is a complex number; determining in the processor a correlation, S, of a second symbol transmitted in the SSS to a second known symbol at each time t-.5/7msecs, wherein S is a complex number; receiving at the processor a candidate phase rotation of θ i from a set of i candidates; determining in the processor a correlation, C max, over the time increments k, wherein C max is a complex number and C max = max{ abs ( P* exp( j*θ i) + S)}; and wherein C max represents a maximum amplitude of a combined correlation of S and P, with P rotated by θ i, and determining in the processor the cell identifier from the first and second known symbols that produced S and P of C max.
A saddle-ride type vehicle, comprising: a vehicle body frame; an engine pivotably supported with respect to the vehicle body frame; a radiator disposed laterally to the engine, wherein the radiator includes a radiator main body and a radiator cap attached to a top surface of the radiator main body; an outer exhaust pipe connected to the engine, wherein the outer exhaust pipe is backwardly extended from the engine; a muffler disposed rearwards of the radiator, wherein the muffler includes an inner exhaust pipe connected to the outer exhaust pipe, and an outer pipe accommodating the inner exhaust pipe; and a rear wheel disposed behind the engine, wherein the rear wheel includes a tire and a rim fitted with the tire, wherein an intersection between the muffler and a conceptual extended line of the top surface of the radiator main body is positioned forwards of a conceptual vertical line in a vehicle side view, the conceptual vertical line is passing through a rotary center of the rear wheel, the conceptual vertical line is arranged perpendicularly to the conceptual extended line, wherein a front end of the muffler is positioned higher than a conceptual extended line of a bottom surface of the radiator main body, and wherein a center axis of a main body pipe portion of the muffler is extended rearwards and obliquely upwards, characterized in that a rear end of the muffler is overlapped with the rear wheel in a vehicle side view, and a rear end of the outer pipe is positioned radially inside an inner peripheral surface of the rim in a vehicle side view. a vehicle body frame; an engine pivotably supported with respect to the vehicle body frame; a radiator disposed laterally to the engine, wherein the radiator includes a radiator main body and a radiator cap attached to a top surface of the radiator main body; an outer exhaust pipe connected to the engine, wherein the outer exhaust pipe is backwardly extended from the engine; a muffler disposed rearwards of the radiator, wherein the muffler includes an inner exhaust pipe connected to the outer exhaust pipe, and an outer pipe accommodating the inner exhaust pipe; and a rear wheel disposed behind the engine, wherein the rear wheel includes a tire and a rim fitted with the tire, wherein an intersection between the muffler and a conceptual extended line of the top surface of the radiator main body is positioned forwards of a conceptual vertical line in a vehicle side view, the conceptual vertical line is passing through a rotary center of the rear wheel, the conceptual vertical line is arranged perpendicularly to the conceptual extended line, wherein a front end of the muffler is positioned higher than a conceptual extended line of a bottom surface of the radiator main body, and wherein a center axis of a main body pipe portion of the muffler is extended rearwards and obliquely upwards, characterized in that a rear end of the muffler is overlapped with the rear wheel in a vehicle side view, and a rear end of the outer pipe is positioned radially inside an inner peripheral surface of the rim in a vehicle side view.
A device for performing a surface coating of pieces, wherein said device comprises a housing including at least: - one leak-tight cavity containing a drum where the pieces to be coated are introduced, - heating means, - at least one water inlet conduit and one dyeing agent inlet conduit for entry to said leak-tight cavity and drum, and - a recovery tank in communication with said leak-tight cavity and a fluid recirculation circuit from said recovery tank to said leak-tight cavity and drum, wherein said at least one water inlet conduit and dyeing agent inlet conduit are operated by a control unit by means of a control device (9a, 9b), characterized in that said leak-tight cavity includes a first level sensor which is directly or indirectly connected to said control device of the at least one water inlet conduit, such that the entry of water to the leak-tight cavity is interrupted when a specific level, compatible with its capacity, is reached inside the cavity, and in that the recovery tank includes at least a second level sensor directly or indirectly connected to the control device (9a, 9b) of the at least one water inlet conduit and of the at least one dyeing agent inlet conduit, such that the entry of water and dyeing agent to the leak-tight cavity is interrupted if a specific level, compatible with its capacity, is exceeded inside the recovery tank. - one leak-tight cavity containing a drum where the pieces to be coated are introduced, - heating means, - at least one water inlet conduit and one dyeing agent inlet conduit for entry to said leak-tight cavity and drum, and - a recovery tank in communication with said leak-tight cavity and a fluid recirculation circuit from said recovery tank to said leak-tight cavity and drum, wherein said at least one water inlet conduit and dyeing agent inlet conduit are operated by a control unit by means of a control device (9a, 9b), characterized in that said leak-tight cavity includes a first level sensor which is directly or indirectly connected to said control device of the at least one water inlet conduit, such that the entry of water to the leak-tight cavity is interrupted when a specific level, compatible with its capacity, is reached inside the cavity, and in that the recovery tank includes at least a second level sensor directly or indirectly connected to the control device (9a, 9b) of the at least one water inlet conduit and of the at least one dyeing agent inlet conduit, such that the entry of water and dyeing agent to the leak-tight cavity is interrupted if a specific level, compatible with its capacity, is exceeded inside the recovery tank.
A table saw, comprising: a swing arm assembly configured to rotatably support a blade and movable along a swing arm path between a first swing arm position adjacent a latch hold mechanism and a second swing arm position spaced apart from the latch hold mechanism; wherein the latch hold mechanism is movable with respect to the swing arm assembly between a first latch hold position adjacent to the swing path and a second latch hold position whereat at least one portion of the latch hold mechanism is within the swing arm path; and wherein the swing arm assembly includes a latch movable between a first latch position whereat the latch is held by the latch hold mechanism and the swing arm assembly is maintained at the first swing arm position, and a second latch position whereat the latch is not held by the latch hold mechanism and the swing arm assembly is not maintained at the first swing arm position; an actuating device configured to transfer a force to the swing arm assembly when the swing arm assembly is maintained at the first swing arm position resulting in a bias on the latch in a direction toward the second latch position; and a control system configured to control the actuating device to transfer a force to the swing arm assembly when the swing arm assembly is maintained at the first swing arm position sufficient to move the latch from the first latch position to the second latch position. a swing arm assembly configured to rotatably support a blade and movable along a swing arm path between a first swing arm position adjacent a latch hold mechanism and a second swing arm position spaced apart from the latch hold mechanism; wherein the latch hold mechanism is movable with respect to the swing arm assembly between a first latch hold position adjacent to the swing path and a second latch hold position whereat at least one portion of the latch hold mechanism is within the swing arm path; and wherein the swing arm assembly includes a latch movable between a first latch position whereat the latch is held by the latch hold mechanism and the swing arm assembly is maintained at the first swing arm position, and a second latch position whereat the latch is not held by the latch hold mechanism and the swing arm assembly is not maintained at the first swing arm position; an actuating device configured to transfer a force to the swing arm assembly when the swing arm assembly is maintained at the first swing arm position resulting in a bias on the latch in a direction toward the second latch position; and a control system configured to control the actuating device to transfer a force to the swing arm assembly when the swing arm assembly is maintained at the first swing arm position sufficient to move the latch from the first latch position to the second latch position.
An airship comprising: a hull configured to be inflated with a first, lighter-than-air gas; and a ballonet in the hull, the ballonet configured to be inflated with a second gas, which is heavier than the first, lighter-than-air gas; and characterized by further comprising: a fan configured to draw the second gas into the ballonet; an air cushion landing system, ACLS, configured to form a plenum chamber formed by a landing surface and the ACLS when the ACLS is in contact with a landing surface; and a valve coupled between the plenum chamber and the ballonet, the valve being configured to selectively allow air to flow between the ballonet and the plenum chamber, and the valve being configured to allow air to flow from the plenum chamber to the ballonet while the ACLS is in contact with the landing surface and the airship has a downward velocity. a hull configured to be inflated with a first, lighter-than-air gas; and a ballonet in the hull, the ballonet configured to be inflated with a second gas, which is heavier than the first, lighter-than-air gas; a fan configured to draw the second gas into the ballonet; an air cushion landing system, ACLS, configured to form a plenum chamber formed by a landing surface and the ACLS when the ACLS is in contact with a landing surface; and a valve coupled between the plenum chamber and the ballonet, the valve being configured to selectively allow air to flow between the ballonet and
A bogey undercarriage (2; 102; 202) having at least two axles, each carrying at least two wheels, wherein at least one of the axles carries a "motor-driven wheel" (6A; 106A; 206A) fitted with a rotary drive device and no brake device, and a "braked" wheel (6B; 106B; 206B) fitted with a brake device and no drive device, the other wheels (6B; 106B; 206B) being braked wheels.
A wireless terminal for terminating music reproduction, the wireless terminal comprising: a key input unit adapted to include at least one specific key for terminating music reproduction; and a controller adapted to terminate an application which controls the music reproduction, characterized in that: the at least one specific key is a volume down key, the controller is further adapted to, when inputting of the volume down key is detected, start a timer and reduce the volume down up to volume level "0", if the volume down key is input for a predetermined time or more, determine termination of the music reproduction, and terminate the application controlling the music reproduction when the input of the volume down key is maintained for at least the predetermined amount of time, and when the wireless terminal is in a locked state. a key input unit adapted to include at least one specific key for terminating music reproduction; and a controller adapted to terminate an application which controls the music reproduction, the at least one specific key is a volume down key, the controller is further adapted to, when inputting of the volume down key is detected, start a timer and reduce the volume down up to volume level "0", if the volume down key is input for a predetermined time or more, determine termination of the music reproduction, and terminate the application controlling the music reproduction when the input of the volume down key is maintained for at least the predetermined amount of time, and when the wireless terminal is in a locked state.
Socket for fastening on an in particular rod-form, cable-form or tube-form article, having a first end, which has an opening for accommodating a portion of the article and also has a clamping element (140; 190), which socket can be positioned on an outer surface of the aforementioned portion and has an essentially sleeve-form bracing element which can be coupled under shear loading to the clamping element (140; 190) in the longitudinal direction of the socket and is intended for subjecting the clamping element (140; 190) to an axial force, wherein the clamping element (140; 190) is formed, and designed, such that, when subjected to the axial force, it narrows in the radial direction, and the bracing element is designed, and arranged, such that, when the clamping element is subjected externally to the action of a fluid pressure medium, it extends axially and thus causes the clamping element (140; 190) to be subjected to the axial force, and the bracing element is designed such that it can be transferred from a starting configuration, via a dead-centre configuration, into an end configuration, wherein the length of the bracing element is smallest in the starting configuration, greatest in the dead-centre configuration and, in the end configuration, somewhat smaller than in the dead-centre configuration but considerably greater than in the starting configuration, characterized in that the bracing element has a snap-action function, wherein the bracing element transfers abruptly from its dead-centre configuration into its end configuration and remains in the latter without any external force acting thereon.
A system to remove hydrogen sulfide in water and oil, comprising: a first container, holding sour water and comprising a vapor space above the sour water; a vent stack; an air compressor; a first line, conveying air from the air compressor to the first container; a cap assembly, sealing the first line; an air dispenser bar, submerged in the sour water in the first container; a second line, conveying air from the cap assembly to the air dispenser bar; a third line, conveying air from the vapor space of the first container to the vent stack; a fourth line, conveying air from the air compressor to the vent stack, the air conveyed by the fourth line diluting the air conveyed by the third line; a gauge, metering an amount of hydrogen sulfide in the vent stack; a second container, holding equalized sour oil and water; a pump; a fifth line, conveying lean water from the first container to the pump; a sixth line, conveying lean water from the pump to a top of the second container, whereby the lean water, having a lower specific gravity than the sour oil in the second container, passes through the sour oil in the second container and removes hydrogen sulfide from the sour oil to form sour water; and a seventh line, conveying sour water from the second container to the first container via hydrostatic pressure. a first container, holding sour water and comprising a vapor space above the sour water; a vent stack; an air compressor; a first line, conveying air from the air compressor to the first container; a cap assembly, sealing the first line; an air dispenser bar, submerged in the sour water in the first container; a second line, conveying air from the cap assembly to the air dispenser bar; a third line, conveying air from the vapor space of the first container to the vent stack; a fourth line, conveying air from the air compressor to the vent stack, the air conveyed by the fourth line diluting the air conveyed by the third line; a gauge, metering an amount of hydrogen sulfide in the vent stack; a second container, holding equalized sour oil and water; a pump; a fifth line, conveying lean water from the first container to the pump; a sixth line, conveying lean water from the pump to a top of the second container, whereby the lean water, having a lower specific gravity than the sour oil in the second container, passes through the sour oil in the second container and removes hydrogen sulfide from the sour oil to form sour water; and a seventh line, conveying sour water from the second container to the first container via hydrostatic pressure.
A martensitic stainless steel pipe having a heat-affected zone with high resistance to intergranular stress corrosion cracking, consisting of on a % by mass basis: less than 0.0100% of C; less than 0.0100% of N; 10% to 14% of Cr; 3% to 8% of Ni; 0.0005% to 0.010% Ca; 0.02% to 0.10% V; 0.03% to 0.15% Ti, 0.05% to 1.0% of Si; 0.1% to 2.0% of Mn; 0.010% to 0.03% of P; 0.0005% to 0.010% of S; 0.001% to 0.10% of Al; one or more selected from the group consisting of 1% to 4% of Cu, 1% to 4% of Co, 0.3% to 4% of Mo, and 1% to 4% W; optionally one or more selected from the group consisting of 0.03% to 0.10% of Nb, 0.03% to 0.10% of Zr, 0.03% to 0.20% of Hf, 0.03% to 0.20% of Ta; further optionally one or more selected from the group consisting of 0.0010% to 0.010% Mg, 0.0010% to 0.010% of REM, 0.0005 % to 0.010% of B; and the remainder being Fe and unavoidable impurities, wherein the content C sol defined by the following equation is equal to less than 0.0050%: C sol = C − 1 / 3 × C pre where C pre = 12.0 {Ti/47.9 + 1/2 (Nb/92.9 + Zr/91.2) + 1/3 (V/50.9 + Hf/178.5 + Ta/180.9) - N/14.0} or C pre = 0 when C pre < 0, where C represents the carbon content, Ti represents the titanium content, Nb represents the niobium content, Zr represents the zirconium content, V represents the vanadium content, Hf represents the hafnium content, Ta represents the tantalum content, N represents the nitrogen content on a mass basis, and C sol represents an effective content of dissolved C, which is the amount of carbon that forms Cr carbides during welding of the steel. less than 0.0100% of C; less than 0.0100% of N; 10% to 14% of Cr; 3% to 8% of Ni; 0.0005% to 0.010% Ca; 0.02% to 0.10% V; 0.03% to 0.15% Ti, 0.05% to 1.0% of Si; 0.1% to 2.0% of Mn; 0.010% to 0.03% of P; 0.0005% to 0.010% of S; 0.001% to 0.10% of Al; one or more selected from the group consisting of 1% to 4% of Cu, 1% to 4% of Co, 0.3% to 4% of Mo, and 1% to 4% W; optionally one or more selected from the group consisting of 0.03% to 0.10% of Nb, 0.03% to 0.10% of Zr, 0.03% to 0.20% of Hf, 0.03% to 0.20% of Ta; further optionally one or more selected from the group consisting of 0.0010% to 0.010% Mg, 0.0010% to 0.010% of REM, 0.0005 % to 0.010% of B; and the remainder being Fe and unavoidable impurities, wherein the content C sol defined by the following equation is equal to less than 0.0050%: C sol = C − 1 / 3 × C pre where C pre = 12.0 {Ti/47.9 + 1/2 (Nb/92.9 + Zr/91.2) + 1/3 (V/50.9 + Hf/178.5 + Ta/180.9) - N/14.0} or C pre = 0 when C pre < 0, where C represents the carbon content, Ti represents the titanium content, Nb represents the niobium content, Zr represents the zirconium content, V represents the vanadium content, Hf represents the hafnium content, Ta represents the tantalum content, N represents the nitrogen content on a mass basis, and C sol represents an effective content of dissolved C, which is the amount of carbon that forms Cr carbides during welding of the steel.
A heating assembly comprising a first cylindrical member provided in one end with a first opening, in which a flavor generating article can be inserted, and in the other end with a second opening that forms an air inlet; a heating member; and heat insulating material, the heating assembly further comprising a second cylindrical member disposed to enclose the first cylindrical member, characterized in that a sealed region is provided between the first cylindrical member and the second cylindrical member, and the heating member and the heat insulating material are accommodated in the sealed region. the heating assembly further comprising a second cylindrical member disposed to enclose the first cylindrical member, characterized in that a sealed region is provided between the first cylindrical member and the second cylindrical member, and the heating member and the heat insulating material are accommodated in the sealed region.