mhurhangee/patent-ind-claim-en huggingface dataset:
A device for creating a barrier to resist unauthorised boarding a vessel, the device comprises: a mounting member and a fend plate ; wherein the mounting member is configured to be connected in a substantially vertical orientation to a perimeter part of a vessel; wherein the fend plate defines a first sloped surface, which extends outwardly and downwardly from a junction with an uppermost edge of the mounting member when the mounting member is in an in use orientation, wherein the fend plate comprises a front edge, which defines a second sloped surface, wherein the second sloped surface is defined by an acute angle, which is greater than an acute angle defining the first sloped surface, whereby the second sloped surface defines a steeper slope than the first sloped surface, wherein the acute angles are measured relative to a common horizontal datum; and wherein one or more grooves is provided on an upper and outer exposed section of the second sloped surface. a mounting member and a fend plate ; wherein the mounting member is configured to be connected in a substantially vertical orientation to a perimeter part of a vessel; wherein the fend plate defines a first sloped surface, which extends outwardly and downwardly from a junction with an uppermost edge of the mounting member when the mounting member is in an in use orientation, wherein the fend plate comprises a front edge, which defines a second sloped surface, wherein the second sloped surface is defined by an acute angle, which is greater than an acute angle defining the first sloped surface, whereby the second sloped surface defines a steeper slope than the first sloped surface, wherein the acute angles are measured relative to a common horizontal datum; and wherein one or more grooves is provided on an upper and outer exposed section of the second sloped surface.
A drug injection device comprising: a housing ; a container disposed within the housing , the container having a needle and a plunger and being adapted to store a product for administration to a patient at an injection site, the plunger adapted to expel the product through the needle , wherein a portion of the needle extends out of the housing ; a needle guard coupled to the housing adjacent to the needle of the container ; and at least one indicia disposed on the needle guard , the at least one indicia providing a visual indication of the position of the needle relative to the injection site based on a position of the needle guard relative to the housing , characterized in that the needle guard comprises an outer surface and is movable relative to the housing between (a) a fully extended position wherein the needle guard extends from the housing and beyond the portion of the needle extending out of the housing , (b) an intermediate position wherein the needle guard extends from the housing approximately the same distance that the needle extends out of the housing , and (c) a fully retracted position wherein a substantial portion of the needle extending out of the housing is exposed beyond the needle guard and the outer surface of the needle guard is concealed inside the housing . a housing ; a container disposed within the housing , the container having a needle and a plunger and being adapted to store a product for administration to a patient at an injection site, the plunger adapted to expel the product through the needle , wherein a portion of the needle extends out of the housing ; a needle guard coupled to the housing adjacent to the needle of the container ; and at least one indicia disposed on the needle guard , the at least one indicia providing a visual indication of the position of the needle relative to the injection site based on a position of the needle guard relative to the housing , characterized in that the needle guard comprises an outer surface and is movable relative to the housing between (a) a fully extended position wherein the needle guard extends from the housing and beyond the portion of the needle extending out of the housing , (b) an intermediate position wherein the needle guard extends from the housing approximately the same distance that the needle extends out of the housing , and (c) a fully retracted position wherein a substantial portion of the needle extending out of the housing is exposed beyond the needle guard and the outer surface of the needle guard is concealed inside the housing .
A method of obtaining a high-temperature refractory composite from boron carbide and an intermetallic compound of the Ti-Si system, comprising mixing starter powders in the form of boron carbide B 4 C, an intermetallic compound of the Ti-Si system and carbon C in an alcohol environment, forming the mixture of powders into shaped pieces and subjecting them to sintering, characterized in that titanium silicide Ti 5 Si 3 and carbon C are added to the boron carbide B 4 C powder in a molar ratio of B 4 C:Ti 5 Si 3 :C of 5:2:1, and subsequently all components are mixed in isopropyl alcohol environment for 20-60 minutes and are dried until complete evaporation of the alcohol for 20-120 minutes; then, the shaped pieces are pre-formed and subjected to isostatic pressing at a pressure of 100-200 MPa, and the compacts obtained are subjected to free sintering in an argon atmosphere at a temperature of 1650-1750°C with a temperature increase of 2-10°C/minute and a holding time at the maximum temperature of 5-30 minutes, to obtain TiB 2 -TiC-SiC-Ti 5 Si 3 composite consisting of 70.0-75.0% TiB 2 , 0.5-2.5% TiC, 20.0-27.5% SiC and 0.2-1.0% Ti 5 Si 3 by weight, with the process yield of at least 99%.
A method of manufacturing a thermoelectric conversion material, the method comprising: a sintering step of obtaining a sintered body of a material to be sintered by applying a voltage to a conductive mold in a first direction so as to cause energization under a condition in which an insulating layer is disposed in at least a portion between an inner wall of the mold and the material to be sintered, and the insulating layer keeps having insulating properties, wherein the sintered body is a thermoelectric conversion substance, wherein the voltage is applied between a positive electrode and a negative electrode, wherein the inner wall of the mold includes a first surface close to the positive electrode and a second surface close to the negative electrode, wherein in the sintering step, the insulating layer is disposed so as to cover the first surface and the second surface, wherein an inner portion of the mold has a pillar shape, wherein the first surface is one of a bottom surface and a top surface of the pillar, wherein the second surface is the other one of the bottom surface and the top surface of the pillar, wherein a side surface of the pillar has a curved surface, wherein a maximum width of the sintered body in a direction perpendicular to the first direction is set to be equal to or more than 30 mm and equal to or less than 500 mm, and wherein the insulating layer has voltage resistance that does not cause dielectric breakdown when a DC voltage of 10 V is applied in the first direction at 1000°C for one second. a sintering step of obtaining a sintered body of a material to be sintered by applying a voltage to a conductive mold in a first direction so as to cause energization under a condition in which an insulating layer is disposed in at least a portion between an inner wall of the mold and the material to be sintered, and the insulating layer keeps having insulating properties, wherein the sintered body is a thermoelectric conversion substance, wherein the voltage is applied between a positive electrode and a negative electrode, wherein the inner wall of the mold includes a first surface close to the positive electrode and a second surface close to the negative electrode, wherein in the sintering step, the insulating layer is disposed so as to cover the first surface and the second surface, wherein an inner portion of the mold has a pillar shape, wherein the first surface is one of a bottom surface and a top surface of the pillar, wherein the second surface is the other one of the bottom surface and the top surface of the pillar, wherein a side surface of the pillar has a curved surface, wherein a maximum width of the sintered body in a direction perpendicular to the first direction is set to be equal to or more than 30 mm and equal to or less than 500 mm, and wherein the insulating layer has voltage resistance that does not cause dielectric breakdown when a DC voltage of 10 V is applied in the first direction at 1000°C for one second.
A method performed by a User Equipment, UE, for transmitting channel quality information for a downlink channel, the method comprising: receiving (S1310), a downlink signal from a base station comprising uplink scheduling information wherein the uplink scheduling information indicates a channel state information, CSI, reporting method to be used by the UE, determining (S1320, S1330, S1340, S1340, S1350, S1360, S1370) a channel quality information, CQI, index, transmitting (S1380), to a base station, based on the indicated CSI reporting method to be used by the UE, the CSI reporting, wherein the CSI reporting includes the determined CQI index, wherein the CQI index is determined based on a number of physical downlink shared channel, PDSCH, resource elements, REs, wherein the number of PDSCH REs is determined based on a number of demodulation reference signal, DM-RS, REs and a determination that a CSI-reference signal, CSI-RS, does not exist. receiving (S1310), a downlink signal from a base station comprising uplink scheduling information wherein the uplink scheduling information indicates a channel state information, CSI, reporting method to be used by the UE, determining (S1320, S1330, S1340, S1340, S1350, S1360, S1370) a channel quality information, CQI, index, transmitting (S1380), to a base station, based on the indicated CSI reporting method to be used by the UE, the CSI reporting, wherein the CSI reporting includes the determined CQI index, wherein the CQI index is determined based on a number of physical downlink shared channel, PDSCH, resource elements, REs, wherein the number of PDSCH REs is determined based on a number of demodulation reference signal, DM-RS, REs and a determination that a CSI-reference signal, CSI-RS, does not exist.
A kingpin arrangement , in particular for an automatic coupling system, comprising a kingpin , a turntable and a support structure , wherein the kingpin extends in a kingpin direction (R10), wherein the turntable is mounted rotatably about the kingpin direction (R10) relative to the kingpin , in particular is mounted on a plain-bearing, wherein the turntable has an opening through which the kingpin extends, wherein the support structure extends in a radial direction (R), wherein the support structure comprises fastening means for indirectly and/or directly fastening and/or mounting a plug connector, and wherein the support structure is fixed indirectly and/or directly to the turntable , in particular with a first end of the support structure , characterized in that the support structure has two legs , wherein each of the legs is indirectly and/or directly fixed to the turntable , wherein the kingpin is at least partially arranged between the legs . a kingpin , a turntable and a support structure , wherein the kingpin extends in a kingpin direction (R10), wherein the turntable is mounted rotatably about the kingpin direction (R10) relative to the kingpin , in particular is mounted on a plain-bearing, wherein the turntable has an opening through which the kingpin extends, wherein the support structure extends in a radial direction (R), wherein the support structure comprises fastening means for indirectly and/or directly fastening and/or mounting a plug connector, and wherein the support structure is fixed indirectly and/or directly to the turntable , in particular with a first end of the support structure , characterized in that the support structure has two legs , wherein each of the legs is indirectly and/or directly fixed to the turntable , wherein the kingpin is at least partially arranged between the legs .
A method for evaluating a degree of transformation ratio of kerogen to oil and/or gas and/or gas to oil generation index using a pyrolysis gas chromatography, said method comprising: providing a rock sample in powdered form; determining , by a source rock analysis instrument, total organic carbon (TOC) in said rock sample, remaining hydrocarbon generation potential (S 2 ) in rock sample, and a maturity (T max ) of rock sample; feeding said sample in a tube of a pyrolyzer if said sample satisfies a pre-defined condition, which is TOC > 2%, (S2) > 5mg/g and (Tmax) < 435°C; pyrolyzing , said sample in said pyrolyzer, by heating said sample in a step-wise manner at increasing pyrolysis temperatures between 300°C and 800°C in pyrolysis steps of 50°C and for pyrolysis time of 40s; determining , by a gas chromatograph, a peak area of hydrocarbons generated at each pyrolysis step; evaluating , by said gas chromatograph, said degree of transformation ratio of said sample to oil and/or gas and/or said gas to oil generation index at each pyrolysis step, said degree of transformation ratio of kerogen to oil and/or gas being determined at n th pyrolysis step using an equation: (sum of area of C 1 to n-C 5 Compounds of 1 st to n th pyrolysis step + Sum of area of n-C 5 to n-C 14 Compounds 1 st to n th pyrolysis step + Sum of area of n-C 14 + Compounds 1 st to n th pyrolysis step)* 100/ Total Area, where Total Area is the sum of the area of all hydrocarbons generated over all the pyrolysis steps, and/or said gas to oil generation index being determined at n th pyrolysis step using an equation: (Area of C 1 to n-C 5 Compounds) / (Area of n-C 5 to n-C 14 Compounds + Area of n-C 14 + Compounds) for n th pyrolysis step. providing a rock sample in powdered form; determining , by a source rock analysis instrument, total organic carbon (TOC) in said rock sample, remaining hydrocarbon generation potential (S 2 ) in rock sample, and a maturity (T max ) of rock sample; feeding said sample in a tube of a pyrolyzer if said sample satisfies a pre-defined condition, which is TOC > 2%, (S2) > 5mg/g and (Tmax) < 435°C; pyrolyzing , said sample in said pyrolyzer, by heating said sample in a step-wise manner at increasing pyrolysis temperatures between 300°C and 800°C in pyrolysis steps of 50°C and for pyrolysis time of 40s; determining , by a gas chromatograph, a peak area of hydrocarbons generated at each pyrolysis step; evaluating , by said gas chromatograph, said degree of transformation ratio of said sample to oil and/or gas and/or said gas to oil generation index at each pyrolysis step, said degree of transformation ratio of kerogen to oil and/or gas being determined at n th pyrolysis step using an equation: (sum of area of C 1 to n-C 5 Compounds of 1 st to n th pyrolysis step + Sum of area of n-C 5 to n-C 14 Compounds 1 st to n th pyrolysis step + Sum of area of n-C 14 + Compounds 1 st to n th pyrolysis step)* 100/ Total Area, where Total Area is the sum of the area of all hydrocarbons generated over all the pyrolysis steps, and/or
A method of slowing an aircraft overrunning a runway, comprising: a) paving an area immediately beyond the end of a runway with foamed glass bodies to define a bed, wherein the foamed glass bodies have a crush strength of between 345 kPa and 689kPa (between 50 PSI and 100 PSI); b) covering the bed with a layer of cementitious material to define a composite bed that provides a composite runway safety area comprising foamed glass bodies in a structural matrix, wherein the surface of the area is concrete; and c) crushing at least a portion of the composite bed with an oncoming aircraft, wherein crushing the at least a portion of the composite bed removes kinetic energy from the oncoming aircraft to slow the oncoming aircraft; wherein the composite bed is generally resistant to fire. a) paving an area immediately beyond the end of a runway with foamed glass bodies to define a bed, wherein the foamed glass bodies have a crush strength of between 345 kPa and 689kPa (between 50 PSI and 100 PSI); b) covering the bed with a layer of cementitious material to define a composite bed that provides a composite runway safety area comprising foamed glass bodies in a structural matrix, wherein the surface of the area is concrete; and c) crushing at least a portion of the composite bed with an oncoming aircraft, wherein crushing the at least a portion of the composite bed removes kinetic energy from the oncoming aircraft to slow the oncoming aircraft;
A laser recording device is configured to perform recording by irradiating a recording medium with laser light, the recording medium including: a plurality of thermal recording layers (13; 15; 17) including thermal materials with different color development threshold temperatures, stacked in an ascending order of the threshold temperatures of the thermal materials from a surface, and irradiated with the laser light; and an intermediate layer (14; 16) provided between the thermal recording layers (13; 15; 17) for thermal insulation and thermal conduction, the laser recording device characterized by comprising a controller configured to irradiate the thermal recording layers (13; 15; 17) with the laser light for recording such that the higher the threshold temperature of the thermal recording layers (13; 15; 17), the relatively higher a power density of the laser light irradiating the thermal recording layers, and that the lower the threshold temperature of the thermal recording layers, the effectively longer a length of irradiation time for the thermal recording layers (13; 15; 17), wherein the controller is configured to repeatedly scan the thermal recording layers (13; 15; 17) with the laser light a plurality of times for recording on each recording position such that the lower the threshold temperature of the thermal recording layers is, the longer the waiting time is set.
A resin composition, comprising a polycarbonate resin; a rubber-modified aromatic vinyl-based copolymer resin; a conductive additive comprising a carbon fiber and a carbon nanotube; talc; and a foaming agent, wherein a weight ratio of the carbon fiber and the carbon nanotube is 1 : 0.1 to 1 : 0.4, wherein the resin composition further comprises a phosphorus-based flame retardant and a flame retardant auxiliary agent. a polycarbonate resin; a rubber-modified aromatic vinyl-based copolymer resin; a conductive additive comprising a carbon fiber and a carbon nanotube; talc; and a foaming agent, wherein a weight ratio of the carbon fiber and the carbon nanotube is 1 : 0.1 to 1 : 0.4, wherein the resin composition further comprises a phosphorus-based flame retardant and a flame retardant auxiliary agent.
A flange extender for an ostomy bag characterised in that the flange extender is manufactured of a composition which comprises 0.01% to 2% honey by weight and 95% to 99.99% hydrocolloid by weight.
An apparatus for controlling irradiated light of a forklift, the apparatus comprising: a lamp driving unit for controlling an illumination angle of a lamp that illuminates the forklift; a fork position sensing unit provided at one side of the fork or a carriage , and sensing a lifted position of the fork ; a control unit for controlling the illumination angle of the lamp through the lamp driving unit according to the lifted position of the fork input from the fork position sensing unit ; and a speed detection unit for detecting a travel speed of the forklift , wherein the control unit determines that the forklift is in a traveling mode when the travel speed becomes a predetermined speed or higher, wherein the control unit is characterized in fixing the illumination angle of the lamp to a predetermined traveling angle, when the control unit determines that the forklift is in the traveling mode. a lamp driving unit for controlling an illumination angle of a lamp that illuminates the forklift; a fork position sensing unit provided at one side of the fork or a carriage , and sensing a lifted position of the fork ; a control unit for controlling the illumination angle of the lamp through the lamp driving unit according to the lifted position of the fork input from the fork position sensing unit ; and a speed detection unit for detecting a travel speed of the forklift , wherein the control unit determines that the forklift is in a traveling mode when the travel speed becomes a predetermined speed or higher, wherein the control unit is characterized in fixing the illumination angle of the lamp to a predetermined traveling angle, when the control unit determines that the forklift is in the traveling mode.
A network management method, comprising: receiving, by a requesting interface device (ID1), a user request to record a video program; determining , by the requesting interface device (ID1), that tuning resources of the requesting interface device are unavailable for recording the video program; sending , from the requesting interface device to a plurality of other interface devices (ID2, ID3), a request to temporarily use tuning resources of the plurality of other interface devices (ID2, ID3) for recording the video program; dividing recording responsibilities for the video program between a first interface device (ID2) of the plurality of other interface devices (ID2, ID3) and a second interface device (ID3) of the plurality of other interface devices (ID2, ID3); and combining a first recorded portion of the video program from the first interface device (ID2) and a second recorded portion of the video program from the second interface device (ID3) to form the video program . receiving, by a requesting interface device (ID1), a user request to record a video program; determining , by the requesting interface device (ID1), that tuning resources of the requesting interface device are unavailable for recording the video program; sending , from the requesting interface device to a plurality of other interface devices (ID2, ID3), a request to temporarily use tuning resources of the plurality of other interface devices (ID2, ID3) for recording the video program; dividing recording responsibilities for the video program between a first interface device (ID2) of the plurality of other interface devices (ID2, ID3) and a second interface device (ID3) of the plurality of other interface devices (ID2, ID3); and combining a first recorded portion of the video program from the first interface device (ID2) and a second recorded portion of the video program from the second interface device (ID3) to form the video program .
A compound of Formula I: a pharmaceutically acceptable salt thereof, and/or a solvate of any of the foregoing, wherein: A is R 1 is chosen from hydrogen and methyl; R 2 is chosen from hydrogen and methyl, or R 1 and R 2 taken together form a cyclopropyl; R 3 is chosen from hydrogen and methyl; R 4 is chosen from hydrogen and methyl, or R 3 and R 4 taken together form a cyclopropyl; R 5 is chosen from hydrogen and methyl; R 6 is chosen from hydrogen and methyl, or R 5 and R 6 taken together form a cyclopropyl, or one of R 2 or R 4 taken together with R 6 forms a cyclobutyl; R 7 is hydrogen, or one of R 2 , R 4 , or R 6 taken together with R 7 forms a ring chosen from oxetane, tetrahydrofuran, and tetrahydropyran, wherein said tetrahydrofuran or tetrahydropyran is optionally substituted with hydroxyl; m is 0 or 1; and n is 0 or 1. A is R 1 is chosen from hydrogen and methyl; R 2 is chosen from hydrogen and methyl, or R 1 and R 2 taken together form a cyclopropyl; R 3 is chosen from hydrogen and methyl; R 4 is chosen from hydrogen and methyl, or R 3 and R 4 taken together form a cyclopropyl; R 5 is chosen from hydrogen and methyl; R 6 is chosen from hydrogen and methyl, or R 5 and R 6 taken together form a cyclopropyl, or one of R 2 or R 4 taken together with R 6 forms a cyclobutyl; R 7 is hydrogen, or one of R 2 , R 4 , or R 6 taken together with R 7 forms a ring chosen from oxetane, tetrahydrofuran, and tetrahydropyran, wherein said tetrahydrofuran or tetrahydropyran is optionally substituted with hydroxyl; m is 0 or 1; and n is 0 or 1.