mhurhangee/ep-ind-claims huggingface dataset:
A basecoat composition for paperboard, the composition comprising: a carrier; and a pigment component dispersed in said carrier, said pigment component comprising all pigments in said basecoat composition, wherein said pigment component has a median particle size between about 3 and about 8 micrometers, and wherein at most about 15 percent by weight of said pigment component has a particle size smaller than 1 micrometer. a carrier; and a pigment component dispersed in said carrier, said pigment component comprising all pigments in said basecoat composition, wherein said pigment component has a median particle size between about 3 and about 8 micrometers, and wherein at most about 15 percent by weight of said pigment component has a particle size smaller than 1 micrometer. wherein said pigment component has a median particle size between about 3 and about 8 micrometers, and wherein at most about 15 percent by weight of said pigment component has a particle size smaller than 1 micrometer.
Method for transporting frames sent by endpoints over a low power wide area LPWAN network by means of a first so called AMM powerline communication network of a system for the automated management of metering from a plurality of electricity meters (120A, 120B, 120C, 120D, 120E), referred to as meters, said meters in the plurality of meters being attached to at least one data concentrator via the AMM network, each data concentrator being connected to a server via a second network and serving as a relay between said meters and the server, wherein said method is executed by a meter in the plurality of meters and comprises: receiving at least one frame in accordance with a communication protocol suited to LPWAN networks, each frame received corresponding to a same frame sent over the LPWAN network by an endpoint; relaying a received frame, referred to as the first frame, corresponding to said sent frame, in the direction of the server, the first frame being selected in accordance with a first predetermined criterion; when a plurality of frames corresponding to said sent frame is received, rejecting at least a subset of frames in the plurality of frames different from the first frame, each frame in the subset being selected in accordance with a second predetermined criterion. receiving at least one frame in accordance with a communication protocol suited to LPWAN networks, each frame received corresponding to a same frame sent over the LPWAN network by an endpoint; relaying a received frame, referred to as the first frame, corresponding to said sent frame, in the direction of the server, the first frame being selected in accordance with a first predetermined criterion; when a plurality of frames corresponding to said sent frame is received, rejecting at least a subset of frames in the plurality of frames different from the first frame, each frame in the subset being selected in accordance with a second predetermined criterion.
A method for labeling a plurality of packages (60, 62, 140, 142) with a movable label applicator assembly including at least a printer and an applicator, the method comprising steps of: receiving data representing height and length of each of the packages (60, 62, 140, 142) transported along a conveyor (24, 25, 26, 31); printing data by way of the printer on a first label, and applying the first label to the first package with the label applicator assembly positioned above the conveyor; adjusting a vertical height of the label applicator assembly, based on any calculated height difference between a first package and a trailing second package, at a sufficient height required for labeling of the second package; printing data, by way of the printer, on a second label intended for the second package; characterized by the steps of controlling conveyor speed based on a calculated pitch required between the first package (300, 320, 325) and the second package (305, 325, 330); the step of controlling conveyor speed comprises: - measuring the length and height of the packages, - calculating the time required to cycle through the print and apply sequence for each package and to adjust the height of the label applicator assembly, - minimizing the gap between two subsequent packages by controlling the speed of at least one conveyor based on the calculated required time. receiving data representing height and length of each of the packages (60, 62, 140, 142) transported along a conveyor (24, 25, 26, 31); printing data by way of the printer on a first label, and applying the first label to the first package with the label applicator assembly positioned above the conveyor; adjusting a vertical height of the label applicator assembly, based on any calculated height difference between a first package and a trailing second package, at a sufficient height required for labeling of the second package; printing data, by way of the printer, on a second label intended for the second package; characterized by the steps of controlling conveyor speed based on a calculated pitch required between the first package (300, 320, 325) and the second package (305, 325, 330); the step of controlling conveyor speed comprises: - measuring the length and height of the packages, - calculating the time required to cycle through the print and apply sequence for each package and to adjust the height of the label applicator assembly, - minimizing the gap between two subsequent packages by controlling the speed of at least one conveyor based on the calculated required time. - measuring the length and height of the packages, - calculating the time required to cycle through the print and apply sequence for each package and to adjust the height of the label applicator assembly, - minimizing the gap between two subsequent packages by controlling the speed of at least one conveyor based on the calculated required time.
An emergency vessel towing system comprising: a vessel attachment system configured to operatively connect to a vessel at sea, the vessel attachment system including a continuous bridle line and a hawser assembly having a hawser line, and a hawser bushing secured to a proximal end of the hawser line wherein the continuous bridle line is slidingly disposed through a central opening of the hawser bushing, wherein the continuous bridle line is configured to engage fittings on two sides of a foredeck of the vessel to distribute a load applied to the hawser line over the fittings on the two sides of the foredeck and to equalize the load distribution over the fittings on two sides of the foredeck independent of a position of the hawser bushing along the continuous bridle line; and a towing line detachably connected to the vessel attachment system in a towing position, wherein a proximal end of the towing line is detachably connected to a distal end of the hawser line in the towing position. a vessel attachment system configured to operatively connect to a vessel at sea, the vessel attachment system including a continuous bridle line and a hawser assembly having a hawser line, and a hawser bushing secured to a proximal end of the hawser line wherein the continuous bridle line is slidingly disposed through a central opening of the hawser bushing, wherein the continuous bridle line is configured to engage fittings on two sides of a foredeck of the vessel to distribute a load applied to the hawser line over the fittings on the two sides of the foredeck and to equalize the load distribution over the fittings on two sides of the foredeck independent of a position of the hawser bushing along the continuous bridle line; and a towing line detachably connected to the vessel attachment system in a towing position, wherein a proximal end of the towing line is detachably connected to a distal end of the hawser line in the towing position.
A cooling system comprising: a fan duct; a fan in the fan duct; an electronics housing mounted on the exterior of the fan duct, the electronics housing having sides defining an interior; and electrical components mounted in the interior of the electronics housing for cooling; an air intake drawing air into the electronics housing from a region of the fan duct downstream of the fan; characterised by: an air outlet (24;25) expelling air from the electronics housing into a region of the fan duct upstream of the fan; and a cooling passage fluidly connecting the air intake to the air outlet, the cooling passage being located in the sides of the housing but fluidly isolated from the interior of the housing, so as to cool the electrical components by indirect air cooling. a fan duct; a fan in the fan duct; an electronics housing mounted on the exterior of the fan duct, the electronics housing having sides defining an interior; and electrical components mounted in the interior of the electronics housing for cooling; an air intake drawing air into the electronics housing from a region of the fan duct downstream of the fan; characterised by: an air outlet (24;25) expelling air from the electronics housing into a region of the fan duct upstream of the fan; and a cooling passage fluidly connecting the air intake to the air outlet, the cooling passage being located in the sides of the housing but fluidly isolated from the interior of the housing, so as to cool the electrical components by indirect air cooling. an air outlet (24;25) expelling air from the electronics housing into a region of the fan duct upstream of the fan; and a cooling passage fluidly connecting the air intake to the air outlet, the cooling passage being located in the sides of the housing but fluidly isolated from the interior of the housing, so as to cool the electrical components by indirect air cooling.
A material processing system comprising: an energy generating system comprising a plurality of electromagnetic energy generators; a pump configured to provide a flow of material to be processed; and a multi-zone applicator spaced from the energy generating system and comprising: a plurality of application zones, each of the application zones configured to receive electromagnetic energy generated by at least one of the plurality of generators; and a material conduit coupled to the pump to receive the flow of material and extending through the application zones, at least part of the material conduit being transparent to the electromagnetic energy to allow the material to be exposed to the electromagnetic energy as the material passes through the application zones; wherein the application zones have the same shape, are arranged in a common generally horizontal orientation, and are vertically aligned; the material processing system being characterised in that the material conduit has a continuously upward slope throughout the multi-zone applicator. an energy generating system comprising a plurality of electromagnetic energy generators; a pump configured to provide a flow of material to be processed; and a multi-zone applicator spaced from the energy generating system and comprising: a plurality of application zones, each of the application zones configured to receive electromagnetic energy generated by at least one of the plurality of generators; and a material conduit coupled to the pump to receive the flow of material and extending through the application zones, at least part of the material conduit being transparent to the electromagnetic energy to allow the material to be exposed to the electromagnetic energy as the material passes through the application zones; a plurality of application zones, each of the application zones configured to receive electromagnetic energy generated by at least one of the plurality of generators; and a material conduit coupled to the pump to receive the flow of material and extending through the application zones, at least part of the material conduit being transparent to the electromagnetic energy to allow the material to be exposed to the electromagnetic energy as the material passes through the application zones; wherein the application zones have the same shape, are arranged in a common generally horizontal orientation, and are vertically aligned; the material processing system being characterised in that the material conduit has a continuously upward slope throughout the multi-zone applicator.
A microfluidic needle comprising - an interface portion containing at least one fluid communication channel, - an elongated needle portion projecting away from the interface portion, the needle portion having a tapered tip portion and sidewalls connecting the tip portion to the interface portion, - at least two parallel microfluidic channels (43A, 43B), each being in fluidic connection with at least one fluid communication channel, and extending within said needle portion in parallel with the same towards said tip portion, wherein - said microfluidic channels (43A, 43B) being arranged to turn perpendicularly within and to exit at the sidewalls of said needle portion at a distance from the tip portion. - an interface portion containing at least one fluid communication channel, - an elongated needle portion projecting away from the interface portion, the needle portion having a tapered tip portion and sidewalls connecting the tip portion to the interface portion, - at least two parallel microfluidic channels (43A, 43B), each being in fluidic connection with at least one fluid communication channel, and extending within said needle portion in parallel with the same towards said tip portion, wherein - said microfluidic channels (43A, 43B) being arranged to turn perpendicularly within and to exit at the sidewalls of said needle portion at a distance from the tip portion.
Highly durable paper medium for printing a security document, especially a banknote, comprising cellulose fibers, according to a proportion of at least 50% by mass relative to the total mass of the paper medium in the dry state, additives and adjuvants, at least one binder, and which further comprises at least one oleophobic and hydrophobic agent based on an organic compound containing perfluoropolyether (PFPE) groups, according to a concentration greater than 0% and less than or equal to 5% by mass in the dry state relative to the total mass of the paper medium in the dry state, characterized in that it also comprises at least one non-fibrous structural reinforcement agent of the family of softening agents, i.e., agents increasing the flexibility of cellulose fibres, according to a quantity comprised between 0.5% and 15% by mass relative to the total mass of the paper medium in the dry state.
A wire harness designed to be assembled through a body under floor which is outside of a body frame of the vehicle body, comprising; a plurality of high voltage electrical wires and a plurality of low-voltage wires; a protection member which protects the plurality of high-voltage electrical wires and the plurality of low-voltage wires; fixed members; wherein the protection member has protection members for vehicle interior (27,28) designed to be located at the vehicle interior in the body floor side, one of which is designed to be arranged in the vehicle interior front side and the other one of which is designed to be arranged in the vehicle interior back side, a protection member for body under floor in which the circuits (22a,22b) composed of the plurality of the high-voltage electrical wires are received, and a protection member for body under floor in which a circuit composed of the low-voltage electrical wires is received; wherein each of the protection members for vehicle interior (27, 28) is a round-corrugated tube which cross-section is a round shape; wherein the protection members for body under floor (29,30) are flat-corrugated tubes formed into noncircular-shape; wherein the fixed members are formed for connecting the protection member for vehicle interior and the protection member for vehicle interior to the protection members for body under floor (29, 30).
A method, comprising: creating, by a network device provided in a network, a plurality of bit index forwarding tables, each of the plurality of bit index forwarding tables including information associated with a first set of destinations and a second set of destinations, the first set of destinations being different than the second set of destinations; determining, by the network device and for each of the plurality of bit index forwarding tables, next hops for the first set of destinations, a particular one of the next hops being assigned to a particular one of the plurality of bit index forwarding tables based on the first set of destinations comprising two destinations having the particular next hop; determining, by the network device and for each of the plurality of bit index forwarding tables, equal cost multipath next hops for the second set of destinations; populating, by the network device, the plurality of bit index forwarding tables with information associated with the next hops and the equal cost multipath next hops; receiving a multicast packet and analyzing, by the network device, a header of the multicast packet to determine a particular bit index forwarding table, of the plurality of bit index forwarding tables, to use for the multicast packet; and using the particular bit index forwarding table to forward the multicast packet toward a plurality of destinations. creating, by a network device provided in a network, a plurality of bit index forwarding tables, each of the plurality of bit index forwarding tables including information associated with a first set of destinations and a second set of destinations, the first set of destinations being different than the second set of destinations; determining, by the network device and for each of the plurality of bit index forwarding tables, next hops for the first set of destinations, a particular one of the next hops being assigned to a particular one of the plurality of bit index forwarding tables based on the first set of destinations comprising two destinations having the particular next hop; determining, by the network device and for each of the plurality of bit index forwarding tables, equal cost multipath next hops for the second set of destinations; populating, by the network device, the plurality of bit index forwarding tables with information associated with the next hops and the equal cost multipath next hops; receiving a multicast packet and analyzing, by the network device, a header of the multicast packet to determine a particular bit index forwarding table, of the plurality of bit index forwarding tables, to use for the multicast packet; and using the particular bit index forwarding table to forward the multicast packet toward a plurality of destinations.
A permanent magnet electric motor comprising: - a rotor which is cylindrically formed of a magnetic body and in which a plurality of magnet embedding holes (12a,..., 12f) are annularly formed at predetermined intervals in a circumferential direction, plate-like permanent magnets (13a,..., 13f) being embedded in the magnet embedding holes (12a,..., 12f), and - a yoke teeth stator that is disposed on the outer circumferential side of the rotor and in which conductive wires are respectively wound on a plurality of teeth extending toward the inner circumferential side from an annular yoke, and wherein the rotor comprises: - a first nonmagnetic portion (14a,..., 14f, 15a,..., 15f) that is disposed toward an outer circumference of the rotor from a circumferential end of each of the magnet embedding holes (12a,..., 12f); and - a second nonmagnetic portion (19a,..., 19f, 20a,..., 20f) that is disposed to be adjacent to the first nonmagnetic portion (14a,..., 14f; 15a,..., 15f); and wherein a notch portion (16a,..., 16f; 17a,..., 17f) is provided on the outer circumference of the rotor opposing the first nonmagnetic portion (14a,..., 14f; 15a,..., 15f) in a diameter direction of the rotor, characterized in that the second nonmagnetic portion (19a,..., 19f; 20a,..., 20f) is a long hole extending from an inner circumferential side of the rotor toward an outer circumferential side thereof being formed by bending an outer circumferential side end of the long hole along the outer circumference of the rotor in a direction of becoming distant from the first nonmagnetic portion (14a,..., 14f; 15a,..., 15f). - a rotor which is cylindrically formed of a magnetic body and in which a plurality of magnet embedding holes (12a,..., 12f) are annularly formed at predetermined intervals in a circumferential direction, plate-like permanent magnets (13a,..., 13f) being embedded in the magnet embedding holes (12a,..., 12f), and - a yoke teeth stator that is disposed on the outer circumferential side of the rotor and in which conductive wires are respectively wound on a plurality of teeth extending toward the inner circumferential side from an annular yoke, and - a first nonmagnetic portion (14a,..., 14f, 15a,..., 15f) that is disposed toward an outer circumference of the rotor from a circumferential end of each of the magnet embedding holes (12a,..., 12f); and - a second nonmagnetic portion (19a,..., 19f, 20a,..., 20f) that is disposed to be adjacent to the first nonmagnetic portion (14a,..., 14f; 15a,..., 15f); and
An apparatus for suppressing shock-induced separation of high speed airflow from a relatively low-energy boundary layer of a fluid mass flowing along a wall, the apparatus comprising: an engine inlet comprising a generally continuous interior wall; and a plurality of actuators configured to alternately inhale fluid from a shock-induced boundary layer separation bubble and exhale fluid; wherein the apparatus includes a plurality of phased actuator arrays each comprising a plurality of said actuators disposed adjacent one another and distributed along the interior wall transverse to the flow direction of the fluid mass, in respective locations where the boundary layer separation bubble forms along the interior wall when the fluid mass is flowing; the plurality of phased actuator arrays are distributed around the generally continuous interior wall of the engine inlet; and the actuators are positioned to direct exhaled fluid back into the boundary layer in a generally downstream exhalation direction. an engine inlet comprising a generally continuous interior wall; and a plurality of actuators configured to alternately inhale fluid from a shock-induced boundary layer separation bubble and exhale fluid; wherein the apparatus includes a plurality of phased actuator arrays each comprising a plurality of said actuators disposed adjacent one another and distributed along the interior wall transverse to the flow direction of the fluid mass, in respective locations where the boundary layer separation bubble forms along the interior wall when the fluid mass is flowing; the plurality of phased actuator arrays are distributed around the generally continuous interior wall of the engine inlet; and the actuators are positioned to direct exhaled fluid back into the boundary layer in a generally downstream exhalation direction.