mhurhangee/patent-ind-claim-en huggingface dataset:
A gas processing system , comprising: a propulsion engine which consumes fuel of first pressure; a power generating engine which consumes fuel of second pressure that is lower than the first pressure; a Boil Off Gas, BOG, compressor having a capacity to compress BOG to required pressure of the propulsion engine which compresses BOG generated in a liquefied gas storage tank in multiple stages and supplies the BOG to the propulsion engine or the power generating engine ; a first supply line which connects the liquefied gas storage tank and the propulsion engine and is provided with the BOG compressor ; and a second supply line which is branched from the first supply line to be connected with the power generating engine , wherein the second supply line is branched in a downstream side of the BOG compressor on the first supply line, and is not provided with a separate decompressing means, a controller configured to determine whether the propulsion engine operates and to control inflow fuel pressure of the power generating engine , wherein when the propulsion engine is erroneously operated or an operation of the propulsion engine is stopped, the controller is configured to stop the propulsion engine and to operate the power generating engine , wherein the controller determines a demand source , to which the BOG compressed by the BOG compressor is to be supplied, between the propulsion engine and the power generating engine , and performs variable frequency drive control on the BOG compressor so that the BOG compressor discharges the BOG with the first pressure or the second pressure. a propulsion engine which consumes fuel of first pressure; a power generating engine which consumes fuel of second pressure that is lower than the first pressure; a Boil Off Gas, BOG, compressor having a capacity to compress BOG to required pressure of the propulsion engine which compresses BOG generated in a liquefied gas storage tank in multiple stages and supplies the BOG to the propulsion engine or the power generating engine ; a first supply line which connects the liquefied gas storage tank and the propulsion engine and is provided with the BOG compressor ; and a second supply line which is branched from the first supply line to be connected with the power generating engine , wherein the second supply line is branched in a downstream side of the BOG compressor on the first supply line, and is not provided with a separate decompressing means, a controller configured to determine whether the propulsion engine operates and to control inflow fuel pressure of the power generating engine , wherein when the propulsion engine is erroneously operated or an operation of the propulsion engine is stopped, the controller is configured to stop the propulsion engine and to operate the power generating engine , wherein the controller determines a demand source , to which the BOG compressed by the BOG compressor is to be supplied, between the propulsion engine and the power generating engine , and performs variable frequency drive control on the BOG compressor so that the BOG compressor discharges the BOG with the first pressure or the second pressure.
A light diffuser which comprises a thermoplastic resin and transparent particles added thereto, a total light transmittance of the light diffuser being 75% or more, a degree of dispersion of the light diffuser being 2° or more, wherein the degree of dispersion is defined as a transmission angle at which a light transmittance is 50% of a rectilinear light transmittance when light is emitted to a surface of the light diffuser in a direction normal to the surface, and a difference between a rectilinear light transmittance at a wavelength of 460 nm and a rectilinear light transmittance at a wavelength of 580 nm of the light diffuser being 0.96% or less, wherein a number average particle size of the transparent particles is in a range of 1 to 20 μm, wherein, provided that a content of particles whose particle size is 0.9 to 1.1 times the number average particle size of the transparent particles is divided by two, a result of which is taken as a first value, and that a content of particles whose particle size is 0.8 to 1.2 times the number average particle size of the transparent particles is divided by four, a result of which is taken as a second value, an absolute value of a difference between the first value and the second value is 1.0 % by number or less.
A protection system for the physical protection of plants , in particular of a plurality of plants arranged in a row (R), and their flowers and/or fruiting heads , comprising at least one protective net ; at least one rotary shaft ; wherein the protective net is fastened to the rotary shaft with a first net edge region , in particular a first net edge, and is fastened to a carrier element with a second net edge region , in particular a second net edge, which carrier element is arranged in an upper region or above the plants and is connected to at least one pole-like support , such that the protective net can be unrolled from the rotary shaft from top to bottom or can be rolled up onto the rotary shaft from bottom to top as required, characterized in that the protection system has a plurality of boom devices which are indirectly connected to the rotary shaft at a first, in particular outer, end and are rotatably mounted on a respective pole-like support at a second, in particular inner, end , such that the rotary shaft can be moved along an arcuate path (BB) during unrolling/rolling up, in that a guide sleeve is attached to the first end of a respective boom device , in which guide sleeve the rotary shaft is received, wherein the guide sleeve has an outlet opening over its entire axial length, through which outlet opening the protective net extends, and in that the guide sleeve has a concave sleeve portion which surrounds the rotary shaft , except in the region of the outlet opening , wherein a convex net guide portion adjoins the concave sleeve portion on that side of the guide sleeve which faces the boom device . at least one protective net ; at least one rotary shaft ; wherein the protective net is fastened to the rotary shaft with a first net edge region , in particular a first net edge, and is fastened to a carrier element with a second net edge region , in particular a second net edge, which carrier element is arranged in an upper region or above the plants and is connected to at least one pole-like support , such that the protective net can be unrolled from the rotary shaft from top to bottom or can be rolled up onto the rotary shaft from bottom to top as required, characterized in that the protection system has a plurality of boom devices which are indirectly connected to the rotary shaft at a first, in particular outer, end and are rotatably mounted on a respective pole-like support at a second, in particular inner, end , such that the rotary shaft can be moved along an arcuate path (BB) during unrolling/rolling up, in that a guide sleeve is attached to the first end of a respective boom device , in which guide sleeve the rotary shaft is received, wherein the guide sleeve has an outlet opening over its entire axial length, through which outlet opening the protective net extends, and in that the guide sleeve has a concave sleeve portion which surrounds the rotary shaft , except in the region of the outlet opening , wherein a convex net guide portion adjoins the concave sleeve portion on that side of the guide sleeve which faces the boom device .
Piece of luggage comprising a housing with a front wall , a back wall , a top wall, a bottom wall and side walls , wherein said front wall and said back wall forming major faces of the housing , wherein said side walls forming side faces of the housing and extend between the front wall and the back wall and wherein said top wall and said bottom wall forming top and bottom ends of the housing and extend between the front wall and the back wall ; and at least one pair of caster wheels , which each of said caster wheels comprises a swivel axis (S) and at least one wheel with a peripheral surface rotating around a rotation axis (R) which rotation axis (R) runs perpendicular to said swivel axis (S), wherein said pair of caster wheels is arranged proximate the bottom end, wherein the diameter (D) of said at least one wheel is as large as possible under the provision that in a rotational position parts of the peripheral surface of the wheel extend in a space between a center plane (C) extending centrally between said front wall and said back wall and a reference plane (P) extending parallel and at a distance (A) to said center plane (C), which distance (A) between the center plane (C) and the reference plane (P) amounts up to 30% of the diameter (D) of said wheel , in particular up to 20% or up to 10% of the diameter (D) of said wheel and/or which distance (A) between the center plane (C) and the reference plane (P) amounts up to 25% of the distance between the front wall and the back wall , in particular up to 20% or 10% of the distance between the front wall and the back wall and/or which distance (A) is defined as being the distance between the center plane (C) and the reference plane (P) which reference plane (P) extends as seen from said central plane (C) through the outermost parts of a longitudinal closure element extending between said caster wheels , wherein the bottom wall extends as seen from a bearing point at which said swivel axis (S) intersects with the bottom wall with a curved surface partly around said wheel , wherein the sidewalls , the top wall and the bottom wall are separated by means of a longitudinally extending closure element , which longitudinal closure element extends along said walls and wherein said longitudinally extending closure element extends also along said curved surface .
A header for a heat exchanger, comprising: a first cylindrical portion having a first diameter extending over a first length portion of the header ; a plurality of tube receiving slots arranged along the first length portion ; an end cap received into an opening at an end of the first cylindrical portion and joined thereto to seal a first end of the header ; a second cylindrical portion , the second cylindrical portion extending over a second length portion of the header coaxial with the first cylindrical portion ; an open end of the second cylindrical portion arranged at a second end of the header opposite the first end to allow for fluid flow into or out of the header ; and a circumferential bead located between the first and second cylindrical portions and extending radially outward of the first cylindrical portion characterized in that the second cylindrical portion has a second diameter that is smaller than the first diameter and in that at least one of the plurality of tube receiving slots is located a distance no greater than one and a half times the first diameter from the circumferential bead . a first cylindrical portion having a first diameter extending over a first length portion of the header ; a plurality of tube receiving slots arranged along the first length portion ; an end cap received into an opening at an end of the first cylindrical portion and joined thereto to seal a first end of the header ; a second cylindrical portion , the second cylindrical portion extending over a second length portion of the header coaxial with the first cylindrical portion ; an open end of the second cylindrical portion arranged at a second end of the header opposite the first end to allow for fluid flow into or out of the header ; and a circumferential bead located between the first and second cylindrical portions and extending radially outward of the first cylindrical portion characterized in that the second cylindrical portion has a second diameter that is smaller than the first diameter and in that at least one of the plurality of tube receiving slots is located a distance no greater than one and a half times the first diameter from the circumferential bead .
A thermoplastic composition comprising: a) an aromatic polycarbonate resin; b) a laser direct structuring additive and c) a polyarylate resin wherein the total amount of the components a) and c) is 75-99.5 wt% with respect to the total composition, wherein a molded part of the composition has UL94 V1 or V0 rating at a thickness of 3.0 mm (±10%) and/or UL94 V1 or V0 rating at a thickness of 1.5 mm (±10%). a) an aromatic polycarbonate resin; b) a laser direct structuring additive and c) a polyarylate resin
An air deflector motion device, comprising an air deflector and an air outlet frame , the air deflector is of a strip-shaped structure; the air deflector being hinged to the air outlet frame by a first rotating shaft ; the first rotating shaft has two protruding ends; wherein the air deflector motion device further comprises a driving assembly hinged to the air deflector by a second rotating shaft ; the second rotating shaft has only one protruding end; the driving assembly is preset with a driving range, and the driving assembly drives the air deflector to rotate around the first rotating shaft in the driving range, so that a center of gravity of the air deflector is located at a side of the first rotating shaft close to the second rotating shaft , or a center of gravity of the air deflector is located between the first rotating shaft and the second rotating shaft ; the air deflector motion device is characterised in that the driving assembly comprises a driver and a connecting rod connected with the driver , and the connecting rod is connected with the second rotating shaft ; wherein the driving assembly further comprises a crank arranged between the driver and the connecting rod ; the crank is hinged to the connecting rod . the air deflector motion device is characterised in that the driving assembly comprises a driver and a connecting rod connected with the driver , and the connecting rod is connected with the second rotating shaft ; wherein the driving assembly further comprises a crank arranged between the driver and the connecting rod ; the crank is hinged to the connecting rod .
A pretensioning system for pretensioning bolts, comprising at least one pretensioning tool for bolts, which pretensioning tool comprises - a sensor for measuring tension created during operation, - a bus connection for electronic communication with said sensor , and - an address circuit configured to utilize an identifier of said sensor when communicating through said bus connection , characterized in that the pretensioning system further comprises a central unit , wherein: - the central unit comprises and/or has access to an operation log, and - the central unit is configured to store into said operation log an indication of use of said pretensioning tool on the basis of executed communications between the central unit and said pretensioning tool , during which communications said identifier of said sensor was used. - a sensor for measuring tension created during operation, - a bus connection for electronic communication with said sensor , and - an address circuit configured to utilize an identifier of said sensor when communicating through said bus connection , characterized in that the pretensioning system further comprises a central unit , wherein: - the central unit comprises and/or has access to an operation log, and - the central unit is configured to store into said operation log an indication of use of said pretensioning tool on the basis of executed communications between the central unit and said pretensioning tool , during which communications said identifier of said sensor was used.
An apparatus (400; 600) comprising: a phase-change material (402; 602); a first electrode (404-1 ; 604-1) at a first end of the phase-change material; a second electrode (404-2; 604-2) at a second end of the phase-change material; a heating element (408; 608) coupled to a least a given portion of the phase-change material between the first enc and the second end; a first input terminal (X1; 403; 603) coupled to the heating element a second input terminal (X2; 405; 605) coupled to the heating element; and an output terminal (OUT (Y); 407; 607) coupled to the second electrode characterized in that , the first input terminal comprises a first diode (410; 610) comprising a first terminal and a second terminal, and a first resistive element (R p ; 412; 612), the second terminal of the first diode being coupled to the first resistive element, and the first resistive element being coupled to the heating element. a phase-change material (402; 602); a first electrode (404-1 ; 604-1) at a first end of the phase-change material; a second electrode (404-2; 604-2) at a second end of the phase-change material; a heating element (408; 608) coupled to a least a given portion of the phase-change material between the first enc and the second end; a first input terminal (X1; 403; 603) coupled to the heating element a second input terminal (X2; 405; 605) coupled to the heating element; and an output terminal (OUT (Y); 407; 607) coupled to the second electrode characterized in that , the first input terminal comprises a first diode (410; 610) comprising a first terminal and a second terminal, and a first resistive element (R p ; 412; 612), the second terminal of the first diode being coupled to the first resistive element, and the first resistive element being coupled to the heating element.
A case for accommodating a fiber cleaver that includes a main body and a slider attached to the main body, the slider being provided with a blade for scoring the fiber, the case comprising: a base having a positioning wall and a positioning space configured to position the main body of the cleaver, wherein the positioning wall has a latch protruding inwardly in the base of the case and having a slant portion slanting downwardly and inwardly in the base of the case, the latch , as a first latch, configured to retain the slider in a sliding direction and, as a second latch, configured to retain the main body of the cleaver in a direction along the height of the base of the case. a base having a positioning wall and a positioning space configured to position the main body of the cleaver, wherein the positioning wall has a latch protruding inwardly in the base of the case and having a slant portion slanting downwardly and inwardly in the base of the case, the latch , as a first latch, configured to retain the slider in a sliding direction and, as a second latch, configured to retain the main body of the cleaver in a direction along the height of the base of the case.
A method performed by a device in a wireless communication system, the method comprising: receiving system information including a value for indicating one of physical uplink control channel, PUCCH, resource sets, wherein the indicated PUCCH resource set comprises a first resource block, RB, offset; receiving downlink control information, DCI, comprising a 3-bit resource indicator, RI, related to a PUCCH signal; and transmitting the PUCCH signal using a frequency hopping, FH, from a first RB to a second RB, wherein the first RB is a K th RB from a first edge or a second edge of an uplink band, based on a FH direction of the PUCCH signal, and wherein, based on no dedicated PUCCH resource being configured, the K is an integer based on a sum of the first RB offset and a second RB offset, and the second RB offset is associated with one of two RB offsets based on a first 1-bit value of the 3-bit RI, the FH direction of the PUCCH signal is associated with one of two FH directions based on a second 1-bit value of the 3-bit RI, and a cyclic shift, CS, index used for the PUCCH signal is associated with two of four CS indexes based on a third 1-bit value of the 3-bit RI. receiving system information including a value for indicating one of physical uplink control channel, PUCCH, resource sets, wherein the indicated PUCCH resource set comprises a first resource block, RB, offset; receiving downlink control information, DCI, comprising a 3-bit resource indicator, RI, related to a PUCCH signal; and transmitting the PUCCH signal using a frequency hopping, FH, from a first RB to a second RB, wherein the first RB is a K th RB from a first edge or a second edge of an uplink band, based on a FH direction of the PUCCH signal, and wherein, based on no dedicated PUCCH resource being configured, the K is an integer based on a sum of the first RB offset and a second RB offset, and the second RB offset is associated with one of two RB offsets based on a first 1-bit value of the 3-bit RI, the FH direction of the PUCCH signal is associated with one of two FH directions based on a second 1-bit value of the 3-bit RI, and a cyclic shift, CS, index used for the PUCCH signal is associated with two of four CS indexes based on a third 1-bit value of the 3-bit RI. the K is an integer based on a sum of the first RB offset and a second RB offset, and the second RB offset is associated with one of two RB offsets based on a first 1-bit value of the 3-bit RI, the FH direction of the PUCCH signal is associated with one of two FH directions based on a second 1-bit value of the 3-bit RI, and a cyclic shift, CS, index used for the PUCCH signal is associated with two of four CS indexes based on a third 1-bit value of the 3-bit RI.