mhurhangee/ep-ind-claims huggingface dataset:
A method at a receiving node, the method comprising: receiving a data transmission comprising control information and a content payload; performing an action in response to determining that the control information includes an instruction to execute the action; and forwarding the content payload in accordance with the control information wherein the instruction comprises an indication for the receiving node to cache the content payload; and performing the action comprises caching the content payload in a cache at the receiving node; wherein the control information further comprises a command specified in a command field and metadata in a metadata field, the metadata specifying at least one of parameters for the command or data required to perform the command; and performing the action comprises performing the command as specified by the metadata; characterized in that the command comprises an instruction to communicate to another node whether a content item is cached at the receiving node, and the metadata identifies the another node and the content item. receiving a data transmission comprising control information and a content payload; performing an action in response to determining that the control information includes an instruction to execute the action; and forwarding the content payload in accordance with the control information wherein the instruction comprises an indication for the receiving node to cache the content payload; and performing the action comprises caching the content payload in a cache at the receiving node; wherein the control information further comprises a command specified in a command field and metadata in a metadata field, the metadata specifying at least one of parameters for the command or data required to perform the command; and performing the action comprises performing the command as specified by the metadata; characterized in that the command comprises an instruction to communicate to another node whether a content item is cached at the receiving node, and the metadata identifies the another node and the content item.
A rail mountable device configured to mount on a rail associated with a weapon, the rail mountable device comprising: a housing; and a rail clamp comprising: a screw receptacle, a screw configured to be threaded into the screw receptacle, a first ramp member coupled to the screw and configured to move relative to the screw, and a second ramp member coupled to the screw receptacle and configured to move relative to the screw receptacle, wherein the screw and the screw receptacle are configured to be pulled toward each other in response to a rotation of the screw about an axis in a first direction, and wherein the first ramp member and the second ramp member are configured to be pulled toward each other in response to the pulling together of the screw and the screw receptacle, wherein the first and second ramp members comprise substantially inclined surfaces (206A, 206B) relative to the axis, wherein the inclined surfaces are configured to slide against complementary inclined surfaces of the housing in response to the rotation, the rail mountable device being characterized in that the screw receptacle is configured to be positioned within a transversal groove of the rail. a housing; and a rail clamp comprising: a screw receptacle, a screw configured to be threaded into the screw receptacle, a first ramp member coupled to the screw and configured to move relative to the screw, and a second ramp member coupled to the screw receptacle and configured to move relative to the screw receptacle, wherein the screw and the screw receptacle are configured to be pulled toward each other in response to a rotation of the screw about an axis in a first direction, and wherein the first ramp member and the second ramp member are configured to be pulled toward each other in response to the pulling together of the screw and the screw receptacle, wherein the first and second ramp members comprise substantially inclined surfaces (206A, 206B) relative to the axis, wherein the inclined surfaces are configured to slide against complementary inclined surfaces of the housing in response to the rotation, the rail mountable device being characterized in that the screw receptacle is configured to be positioned within a transversal groove of the rail. a screw receptacle, a screw configured to be threaded into the screw receptacle, a first ramp member coupled to the screw and configured to move relative to the screw, and a second ramp member coupled to the screw receptacle and configured to move relative to the screw receptacle, wherein the screw and the screw receptacle are configured to be pulled toward each other in response to a rotation of the screw about an axis in a first direction, and wherein the first ramp member and the second ramp member are configured to be pulled toward each other in response to the pulling together of the screw and the screw receptacle, wherein the first and second ramp members comprise substantially inclined surfaces (206A, 206B) relative to the axis, wherein the inclined surfaces are configured to slide against complementary inclined surfaces of the housing in response to the rotation,
A rotor for a gas turbine engine, the rotor comprising rotor blades circumferentially distributed around and extending a full span length from a central hub, the rotor blades including alternating first and second rotor blades (28, 30), wherein the first rotor blades have a baseline profile, the second rotor blades have a modified profile being the same as the baseline profile but for a trailing edge cutback, the trailing edge cutback extends from a tip position to a second span position, the second span position is located at a distance away from the hub exceeding 75% of the total span length, characterized in that the tip position corresponds to a maximum deflection point for a selected natural vibration mode of a rotor blade having the baseline profile, wherein the selected natural vibration mode is a natural vibration mode higher than the 1 st natural vibration mode, and the second span position is located radially inwardly of the maximum deflection point, which is a location on the trailing edge where an anti-node with a maximum deflection (AN-MD) is located for the selected natural vibration mode associated with flow induced resonance.
A light guide bar, adapted to be disposed between two connectors, wherein the two connectors are adapted to be disposed on a main board, each of the two connectors comprises a connector lateral wall, and at least one of the two connectors comprises at least one positioning protrusion that protrudes from the connector lateral wall, the light guide bar comprising: a light guide bar body comprising two opposite light guide bar lateral walls and at least one positioning recess, wherein each of the at least one positioning recess is formed on one of the light guide bar lateral walls and the at least one positioning recess is adapted to be positioned on the positioning protrusion of the at least one of the connectors; wherein the light guide bar body comprises a light guide bar bottom surface connecting the two light guide bar lateral walls, the light guide bar comprises at least one guiding part, and each of the at least one guiding part is disposed on one of the light guide bar lateral walls and located between the positioning recess and the light guide bar bottom surface; the light guide bar being characterized in that the guiding part has an inclined surface, a bottom portion of the inclined surface is in contact with or is close to the light guide bar bottom surface and gradually inclines outward away from the light guide bar bottom surface. a light guide bar body comprising two opposite light guide bar lateral walls and at least one positioning recess, wherein each of the at least one positioning recess is formed on one of the light guide bar lateral walls and the at least one positioning recess is adapted to be positioned on the positioning protrusion of the at least one of the connectors; wherein the light guide bar body comprises a light guide bar bottom surface connecting the two light guide bar lateral walls, the light guide bar comprises at least one guiding part, and each of the at least one guiding part is disposed on one of the light guide bar lateral walls and located between the positioning recess and the light guide bar bottom surface; the light guide bar being characterized in that the guiding part has an inclined surface, a bottom portion of the inclined surface is in contact with or is close to the light guide bar bottom surface and gradually inclines outward away from the light guide bar bottom surface.
A method for monitoring an inverter that comprises separate input-side connectors for multiple direct-current generators with regard to the occurrence of a critical fault current (I R), - wherein differential currents (I diff) between input lines (14, 15) are measured in the inverter, wherein these input lines (14, 15) in their entirety conduct all currents that are fed in at the individual connectors, and - wherein the differential currents (I diff) are compared with a limit value, wherein in the case of the limit value being exceeded this is recognized as a fault, characterized in - that the differential currents (I diff) in the inverter in at least two pairs of input lines (14, 15) are measured separately, wherein these at least two pairs of input lines (14, 15) conduct the currents that are fed in at different input-side connectors; - that the differential currents (I diff) are compared with the limit value separately for each pair of input lines (14, 15); and - that additionally a sum of the simultaneously and separately measured differential currents (I diff) in all pairs of input lines (14, 15) is determined and said sum is compared with a further limit value, wherein in the case of the further limit value being exceeded this is likewise recognized as a fault. - wherein differential currents (I diff) between input lines (14, 15) are measured in the inverter, wherein these input lines (14, 15) in their entirety conduct all currents that are fed in at the individual connectors, and - wherein the differential currents (I diff) are compared with a limit value, wherein in the case of the limit value being exceeded this is recognized as a fault, - that the differential currents (I diff) in the inverter in at least two pairs of input lines (14, 15) are measured separately, wherein these at least two pairs of input lines (14, 15) conduct the currents that are fed in at different input-side connectors; - that the differential currents (I diff) are compared with the limit value separately for each pair of input lines (14, 15); and - that additionally a sum of the simultaneously and separately measured differential currents (I diff) in all pairs of input lines (14, 15) is determined and said sum is compared with a further limit value, wherein in the case of the further limit value being exceeded this is likewise recognized as a fault.
A housing used for an electric part, including: a wire section electrically connected to an electric circuit including an electric component; and a housing body composed of resin, wherein the wire section includes: a first terminal part exposed at a surface of the housing body; a second terminal part exposed at a surface of the housing body; and a thermally conductive part formed between the first terminal part and the second terminal part, and embedded in the housing body, the thermally conductive part having a width greater than the same of the first and second terminal parts (321, 324), characterized in that the thermally conductive part comprises a plurality of horizontally arranged layers or vertically arranged layers (322x, 322y, 322z), the layers (322x, 322y, 322z) being arranged to be spaced away from one another, adjacent layers (322x, 322y, 322z) being connected to each other through a bending part formed at peripheries of the adjacent layers, each of the layers (322x, 322y, 322z) being arranged in parallel with one another and being formed with at least one through-hole into which a pole (PU1-PU6, PD1-PD6) is insertable perpendicularly to the layers (322x, 322y, 322z). a wire section electrically connected to an electric circuit including an electric component; and a housing body composed of resin, wherein a first terminal part exposed at a surface of the housing body; a second terminal part exposed at a surface of the housing body; and a thermally conductive part formed between the first terminal part and the second terminal part, and embedded in the housing body, the thermally conductive part having a width greater than the same of the first and second terminal parts (321, 324), characterized in that the thermally conductive part comprises a plurality of horizontally arranged layers or vertically arranged layers (322x, 322y, 322z), the layers (322x, 322y, 322z) being arranged to be spaced away from one another, adjacent layers (322x, 322y, 322z) being connected to each other through a bending part formed at peripheries of the adjacent layers, each of the layers (322x, 322y, 322z) being arranged in parallel with one another and being formed with at least one through-hole into which a pole (PU1-PU6, PD1-PD6) is insertable perpendicularly to the layers (322x, 322y, 322z).
An apparatus comprising: a moveable partition (228; 406) configured for use with a first lavatory (128; 206) and a second lavatory (130; 208), wherein the moveable partition (228; 406) is configured to separate the first lavatory (128; 206) and the second lavatory (130; 208) into separate spaces (238, 240; 304, 306) within a fixed perimeter for the first lavatory (128; 206) and the second lavatory (130; 208) when the moveable partition (228; 406) is in a first configuration and wherein the moveable partition (228; 406) is configured to define a single space (242; 310) within the fixed perimeter when the moveable partition (228; 406) is in a second configuration, characterized in that the moveable partition (228; 406) is connected to a door (224; 408) for the first lavatory (128; 206) in the second configuration, wherein the moveable partition (228; 406) is foldable and configured to be folded against the door (224; 408) in the second configuration. a moveable partition (228; 406) configured for use with a first lavatory (128; 206) and a second lavatory (130; 208), wherein the moveable partition (228; 406) is configured to separate the first lavatory (128; 206) and the second lavatory (130; 208) into separate spaces (238, 240; 304, 306) within a fixed perimeter for the first lavatory (128; 206) and the second lavatory (130; 208) when the moveable partition (228; 406) is in a first configuration and wherein the moveable partition (228; 406) is configured to define a single space (242; 310) within the fixed perimeter when the moveable partition (228; 406) is in a second configuration, characterized in that the moveable partition (228; 406) is connected to a door (224; 408) for the first lavatory (128; 206) in the second configuration, wherein the moveable partition (228; 406) is foldable and configured to be folded against the door (224; 408) in the second configuration.
A contact head for a current collector adapted for charging a vehicle equipped with an electric drive in rapid charging systems, comprising at least two oppositely arranged electrical contacts mounted on at least two pressing elements that are rotatably disposed on at least one axis of rotation with a limited angle of rotation and having at least one resilient element for pressing the electrical contacts against at least two conductive strips of a compatible contact device of a charging station, said conductive strips being arranged on opposite sides of the contact head and through which the power supply voltage is applied, whereas the pressing elements are formed as opposing arms (2, 3) - a first arm and a second arm; at least one electrical contact is provided on the first arm; at least one electrical contact is provided on the second arm; characterized in that at least one axis of rotation around which the arms (2, 3) rotate is aligned essentially in the direction of the longitudinal axis of the vehicle, parallel to the direction of vehicle movement; wherein to the second arm, on an axis parallel to the at least one axis of rotation, a third arm is rotatably attached through a resilient element, on said third arm an earthing contact is arranged, the earthing contact being in an extended position and protruding beyond the boundary of the head, so that when connecting the head to the charging station, the earthing contact contacts the conductive strip as the first of all contacts; wherein on one of the arms (2, 3), from the side facing the conductive strips, a communication contact is provided. the pressing elements are formed as opposing arms (2, 3) - a first arm and a second arm; at least one electrical contact is provided on the first arm; at least one electrical contact is provided on the second arm; characterized in that at least one axis of rotation around which the arms (2, 3) rotate is aligned essentially in the direction of the longitudinal axis of the vehicle, parallel to the direction of vehicle movement; wherein to the second arm, on an axis parallel to the at least one axis of rotation, a third arm is rotatably attached through a resilient element, on said third arm an earthing contact is arranged, the earthing contact being in an extended position and protruding beyond the boundary of the head, so that when connecting the head to the charging station, the earthing contact contacts the conductive strip as the first of all contacts; wherein on one of the arms (2, 3), from the side facing the conductive strips, a communication contact is provided.
A particulate matter sensor for detecting an amount of particulate matter in a gas to be measured, the particulate matter sensor comprising: an insulating substrate; and a pair of electrodes (10, 12) which is disposed on a main surface of the insulating substrate and positioned apart from each other; wherein the insulating substrate includes, on a part of the main surface which is sandwiched between the pair of the electrodes (10, 12) and where the pair of the electrodes (10, 12) is not formed, an insulating portion, characterized in that the insulating portion is higher than the pair of the electrodes (10, 12) in a direction perpendicular to the main surface wherein the difference in height between the insulating portion and the electrodes (10, 12) is such that the large particles having diameters more than several micrometer are prevented from adhering between electrodes (10, 12), while the particles to be measured having peak diameter equal to or lower than about 100 nm form the conductive pass between the electrodes (10, 12). an insulating substrate; and a pair of electrodes (10, 12) which is disposed on a main surface of the insulating substrate and positioned apart from each other; wherein the insulating substrate includes, on a part of the main surface which is sandwiched between the pair of the electrodes (10, 12) and where the pair of the electrodes (10, 12) is not formed, an insulating portion, characterized in that the insulating portion is higher than the pair of the electrodes (10, 12) in a direction perpendicular to the main surface wherein the difference in height between the insulating portion and the electrodes (10, 12) is such that the large particles having diameters more than several micrometer are prevented from adhering between electrodes (10, 12), while the particles to be measured having peak diameter equal to or lower than about 100 nm form the conductive pass between the electrodes (10, 12).
A hot-rolled steel sheet comprising: a chemical composition consisting of: in mass%, C: 0.01 to 0.2%; Si: 0.001 to 2.5%; Mn: 0.10 to 4.0%; P: 0.10% or less; S: 0.030% or less; Al: 0.001 to 2.0%; N: 0.01% or less; Ti: (0.005 + 48/14 + 48/32)% ≤ Ti ≤ 0.3%; Nb: 0 to 0.06%; Cu: 0 to 1.2%; Ni: 0 to 0.6%; Mo: 0 to 1%; V: 0 to 0.2%; Cr: 0 to 2%; Mg: 0 to 0.01%; Ca: 0 to 0.01%; REM: 0 to 0.1%; and B: 0 to 0.002%, with a balance being composed of Fe and impurities; a texture in which, at a central portion of a sheet thickness that is a steel sheet portion sectioned at a 3/8 thickness position and a 5/8 thickness position of the sheet thickness from a surface of the steel sheet, an average value of X-ray random intensity ratios of a group of <011> to <110> orientations of a sheet plane is 6.5 or less and an X-ray random intensity ratio of a <113> crystal orientation is 5.0 or less; and a microstructure in which a total area ratio of tempered martensite, martensite and lower bainite is more than 85 %, and an average crystal grain diameter is 12.0 μm or less. a chemical composition consisting of: in mass%, C: 0.01 to 0.2%; Si: 0.001 to 2.5%; Mn: 0.10 to 4.0%; P: 0.10% or less; S: 0.030% or less; Al: 0.001 to 2.0%; N: 0.01% or less; Ti: (0.005 + 48/14 + 48/32)% ≤ Ti ≤ 0.3%; Nb: 0 to 0.06%; Cu: 0 to 1.2%; Ni: 0 to 0.6%; Mo: 0 to 1%; V: 0 to 0.2%; Cr: 0 to 2%; Mg: 0 to 0.01%; Ca: 0 to 0.01%; REM: 0 to 0.1%; and B: 0 to 0.002%, with a balance being composed of Fe and impurities; a texture in which, at a central portion of a sheet thickness that is a steel sheet portion sectioned at a 3/8 thickness position and a 5/8 thickness position of the sheet thickness from a surface of the steel sheet, an average value of X-ray random intensity ratios of a group of <011> to <110> orientations of a sheet plane is 6.5 or less and an X-ray random intensity ratio of a <113> crystal orientation is 5.0 or less; and a microstructure in which a total area ratio of tempered martensite, martensite and lower bainite is more than 85 %, and an average crystal grain diameter is 12.0 μm or less.
A layered board comprising: a first panel (13, 113) and a second panel (15, 115) each made of a thermoplastic material; and a reinforcing body placed between the first panel and the second panel, the reinforcing body being a cylinder assembly including plural rows of cylinders made of paper arranged in parallel and defined by vertical wall and hollow portions surrounded by the vertical walls; and a first sheet is placed between the first panel (13, 113) and the cylinder assembly, and a second sheet is placed between the second panel (15, 115) and the cylinder assembly, wherein an axial direction of the cylinders composing the cylinder assembly conforms to a direction intersecting a plane direction of the first sheet and the second sheet; one side of the first sheet is attached to the cylinder assembly and another side is welded to the first panel (13, 113) via a thermoplastic material; one side of the second sheet is attached to the cylinder assembly and another side is welded to the second panel (15, 115) via a thermoplastic material, and an edge of the first panel (13, 113) and an edge of the second panel (15,115) are directly welded together to form a welded portion (35, 135, 235). a first panel (13, 113) and a second panel (15, 115) each made of a thermoplastic material; and a reinforcing body placed between the first panel and the second panel, the reinforcing body being a cylinder assembly including plural rows of cylinders made of paper arranged in parallel and defined by vertical wall and hollow portions surrounded by the vertical walls; and a first sheet is placed between the first panel (13, 113) and the cylinder assembly, and a second sheet is placed between the second panel (15, 115) and the cylinder assembly, wherein an axial direction of the cylinders composing the cylinder assembly conforms to a direction intersecting a plane direction of the first sheet and the second sheet; one side of the first sheet is attached to the cylinder assembly and another side is welded to the first panel (13, 113) via a thermoplastic material; one side of the second sheet is attached to the cylinder assembly and another side is welded to the second panel (15, 115) via a thermoplastic material, and