mhurhangee/ep-ind-claims huggingface dataset:
A switching device, comprising more than one functional units (111, 112, 113) and a number of ports (121, 122), wherein the ports (121, 122) are configured to input messages to the more than one functional units (111, 112, 113), or receive messages from the more than one functional units (111, 112, 113) and forward the received messages; the switching device further comprising: a discarded message collection processing unit (110, 230, 330) and multiple discarded packet counters (311, 312, 313, 314, 315, 316, 317, 318), wherein the discarded message collection processing unit comprises: a collection component, configured to collect and store messages discarded by each functional unit and port; each discarded packet counter (311, 312, 313, 314, 315, 316, 317, 318) corresponds to one functional unit and to one port corresponding to the functional unit, and is configured to count a number of messages discarded by the functional unit corresponding to the discarded packet counter and by the port corresponding to the functional unit. a collection component, configured to collect and store messages discarded by each functional unit and port; each discarded packet counter (311, 312, 313, 314, 315, 316, 317, 318) corresponds to one functional unit and to one port corresponding to the functional unit, and is configured to count a number of messages discarded by the functional unit corresponding to the discarded packet counter and by the port corresponding to the functional unit.
A honeycomb body comprising: intersecting porous walls forming a matrix of repeating structural units arranged in a repeating pattern, wherein each of the repeating structural units comprises: a plurality of inlet channels and a plurality of outlet channels that extend parallel to each other in an axial direction from an inlet face to an outlet face; each of the inlet channels and the outlet channels have a same cross-sectional size and cross-sectional shape in a transverse plane orthogonal to the axial direction; wherein each of the inlet channels and outlet channels in each of the repeating structural units is hexagonal in cross-section in the transverse plane; each of the inlet channels directly abuts at least one of the outlet channels; and characterized in that an I/O ratio of a number of the inlet channels to a number of the outlet channels in each of the repeating structural units is greater than 2.0 and less than 3.0. a plurality of inlet channels and a plurality of outlet channels that extend parallel to each other in an axial direction from an inlet face to an outlet face; each of the inlet channels and the outlet channels have a same cross-sectional size and cross-sectional shape in a transverse plane orthogonal to the axial direction; wherein each of the inlet channels and outlet channels in each of the repeating structural units is hexagonal in cross-section in the transverse plane; each of the inlet channels directly abuts at least one of the outlet channels; and characterized in that an I/O ratio of a number of the inlet channels to a number of the outlet channels in each of the repeating structural units is greater than 2.0 and less than 3.0.
A system comprising a controller for controlling a robotic tool, comprising: a memory that stores instructions; and a processor that executes the instructions, wherein, when executed by the processor, the instructions cause the controller to perform a process comprising: monitoring sequential motion of tissue in a three-dimensional space, from sensing signal of tissue motion; projecting locations and corresponding times when the tissue will be at projected locations in the three-dimensional space; identifying an identified location of the tissue in the three-dimensional space based on the projected locations; and setting a trajectory of the robotic tool to meet the tissue at the identified location at a projected time corresponding to the identified location; sending control signal to the robot tool in accordance with the set trajectory. a memory that stores instructions; and a processor that executes the instructions, wherein, when executed by the processor, the instructions cause the controller to perform a process comprising: monitoring sequential motion of tissue in a three-dimensional space, from sensing signal of tissue motion; projecting locations and corresponding times when the tissue will be at projected locations in the three-dimensional space; identifying an identified location of the tissue in the three-dimensional space based on the projected locations; and setting a trajectory of the robotic tool to meet the tissue at the identified location at a projected time corresponding to the identified location; sending control signal to the robot tool in accordance with the set trajectory. monitoring sequential motion of tissue in a three-dimensional space, from sensing signal of tissue motion; projecting locations and corresponding times when the tissue will be at projected locations in the three-dimensional space; identifying an identified location of the tissue in the three-dimensional space based on the projected locations; and setting a trajectory of the robotic tool to meet the tissue at the identified location at a projected time corresponding to the identified location; sending control signal to the robot tool in accordance with the set trajectory.
A vessel for a metal melt, comprising: a) a bottom, b) a peripherally arranged endless wall, extending, in an axial direction of the vessel, away from its bottom, c) externally the wall features a metallic envelope and internally a refractory ceramic lining, d) at its free end, opposite to said bottom, the refractory ceramic lining is made of bricks, assembled next to each other to at least one first ring and featuring at least one opening of said vessel, e) adjacent bricks of said first ring are arranged at a distance to each other and either laid in a dry state or a compressible or combustible joint seal is arranged between adjacent bricks, f) along the backside a majority of said bricks of said first ring provides an inclined surface extending inwardly and away from bottom, adjacent to the metallic envelope, g) radially outwardly, behind the bricks of the first ring, a first stop, featuring an inner stop surfaces, which corresponds to the inclined surface of the bricks. extends between the metal envelope and bricks, which stop being fastened to the metal envelope. a) a bottom, b) a peripherally arranged endless wall, extending, in an axial direction of the vessel, away from its bottom, c) externally the wall features a metallic envelope and internally a refractory ceramic lining, d) at its free end, opposite to said bottom, the refractory ceramic lining is made of bricks, assembled next to each other to at least one first ring and featuring at least one opening of said vessel, e) adjacent bricks of said first ring are arranged at a distance to each other and either laid in a dry state or a compressible or combustible joint seal is arranged between adjacent bricks, f) along the backside a majority of said bricks of said first ring provides an inclined surface extending inwardly and away from bottom, adjacent to the metallic envelope, g) radially outwardly, behind the bricks of the first ring, a first stop, featuring an inner stop surfaces, which corresponds to the inclined surface of the bricks. extends between the metal envelope and bricks, which stop being fastened to the metal envelope.
An electronic device, comprising: a circuit board, comprising a signal source; a support located on a side of the circuit board and supporting the circuit board; a first antenna radiator located on the support, electrically connected to the signal source, and configured to radiate a wireless signal of a first wavelength; a back cover located on a side of the support away from the circuit board; and a second antenna radiator located on a side of the back cover facing the first antenna radiator, wherein the second antenna radiator and the first antenna radiator are electrically connected through electromagnetic coupling; wherein the second antenna radiator comprises a rectangular portion and a protruding portion located on a first side of the rectangular portion, an orthographic projection of the protruding portion on the support covers an entire orthographic projection of the first antenna radiator on the support, and when the first antenna radiator radiates a wireless signal of the first wavelength, the second antenna radiator is configured to generate and radiate a wireless signal of the second wavelength through resonance, and the second wavelength is half of the first wavelength. a circuit board, comprising a signal source; a support located on a side of the circuit board and supporting the circuit board; a first antenna radiator located on the support, electrically connected to the signal source, and configured to radiate a wireless signal of a first wavelength; a back cover located on a side of the support away from the circuit board; and a second antenna radiator located on a side of the back cover facing the first antenna radiator, wherein the second antenna radiator and the first antenna radiator are electrically connected through electromagnetic coupling; wherein the second antenna radiator comprises a rectangular portion and a protruding portion located on a first side of the rectangular portion, an orthographic projection of the protruding portion on the support covers an entire orthographic projection of the first antenna radiator on the support, and when the first antenna radiator radiates a wireless signal of the first wavelength, the second antenna radiator is configured to generate and radiate a wireless signal of the second wavelength through resonance, and the second wavelength is half of the first wavelength.
An optical member comprising: a light source; a light guide plate; a wavelength conversion member disposed between the light source and the light guide plate; wherein the wavelength conversion member comprises: a receiving part; a host in the receiving part; and a plurality of wavelength conversion particles in the host, wherein the receiving part comprises a light incident part and a light exit part, the light incident part is bonded to a light incident surface of the light source through an adhesive member said light incident part is making contact with the host; the light exit part is opposite to the light incident part and opposite to the light guide plate, the host is sandwiched between the light incident part and the light exit part, and wherein a thickness of the light incident part is greater than a thickness of the light exit part, so that the light emitted from the light source is arranged to be sufficiently diffused through the light incident part before the light is incident into the host, wherein the receiving part has a tube shape, wherein the light incident part has a thickness of 100μm or more. a light source; a light guide plate; a wavelength conversion member disposed between the light source and the light guide plate; wherein the wavelength conversion member comprises: a receiving part; a host in the receiving part; and a plurality of wavelength conversion particles in the host, a receiving part; a host in the receiving part; and a plurality of wavelength conversion particles in the host, wherein the receiving part comprises a light incident part and a light exit part, the light incident part is bonded to a light incident surface of the light source through an adhesive member said light incident part is making contact with the host; the light exit part is opposite to the light incident part and opposite to the light guide plate, the host is sandwiched between the light incident part and the light exit part, and wherein a thickness of the light incident part is greater than a thickness of the light exit part, so that the light emitted from the light source is arranged to be sufficiently diffused through the light incident part before the light is incident into the host, wherein the receiving part has a tube shape, wherein the light incident part has a thickness of 100μm or more.
Robot hole punch (10, 30, 70), comprising - a die (12, 32, 60, 72, 92) having an interaction surface and a through hole opening out therein, - a stamp (16, 36, 86), movable along a reference axis (14, 34, 74) extending perpendicularly to the interaction surface, with an outer cross-section adapted to the inner cross-section of the through hole, - a drive device in order to move the stamp (16, 36, 86) in a punching movement from an initial position spaced from the die (12, 32, 60, 72, 92) through its through-hole, such that thereby a flat material (54, 82) located between interaction surface of the die (12, 32, 60, 72, 92) and stamp (16, 36, 86) is punched, and - a collecting container (50, 76) provided at the side, facing away from the interaction surface, of the die (12, 32, 60, 72, 92) for waste pieces (44, 46, 48, 84) of the flat material (54, 82) resulting from the punching and pressed through the through hole, wherein in the region of the through-hole is provided a retention device (22, 40, 66, 68, 80, 96) in order to avoid the waste pieces falling out of the collecting container (50, 76), characterised in - that at least two serration-like cut-outs (80, 96) are provided along the circumference of the through-hole, to which the cross-section of the stamp (16, 36, 86) is adapted by means of corresponding serration-like protrusions (89, 98), such that the die (12, 32, 60, 72, 92) itself acts as a retention device (22, 40, 66, 68, 80, 96). - a die (12, 32, 60, 72, 92) having an interaction surface and a through hole opening out therein, - a stamp (16, 36, 86), movable along a reference axis (14, 34, 74) extending perpendicularly to the interaction surface, with an outer cross-section adapted to the inner cross-section of the through hole, - a drive device in order to move the stamp (16, 36, 86) in a punching movement from an initial position spaced from the die (12, 32, 60, 72, 92) through its through-hole, such that thereby a flat material (54, 82) located between interaction surface of the die (12, 32, 60, 72, 92) and stamp (16, 36, 86) is punched, and - a collecting container (50, 76) provided at the side, facing away from the interaction surface, of the die (12, 32, 60, 72, 92) for waste pieces (44, 46, 48, 84) of the flat material (54, 82) resulting from the punching and pressed through the through hole, wherein in the region of the through-hole is provided a retention device (22, 40, 66, 68, 80, 96) in order to avoid the waste pieces falling out of the collecting container (50, 76), characterised in - that at least two serration-like cut-outs (80, 96) are provided along the circumference of the through-hole, to which the cross-section of the stamp (16, 36, 86) is adapted by means of corresponding serration-like protrusions (89, 98), such that the die (12, 32, 60, 72, 92) itself acts as a retention device (22, 40, 66, 68, 80, 96).
An azeotropic composition comprising 1,1,3,3-tetrachloro-1-fluoropropane (HCFC-241fa) and hydrogen fluoride, wherein the composition comprises from 70 weight percent to 1 weight percent HCFC-241fa.
An actuator for a pilot valve, the actuator comprising a housing; a piston movably mounted in the housing; an actuator chamber defined between the piston and the housing; a control fluid feed (16, 18) for introducing a fluid into the actuator chamber to selectively control a fluid pressure in the actuator chamber, wherein the piston is arranged to be acted on by the fluid pressure in the actuator chamber; an actuation member for acting on the pilot valve; and a loading spring between the piston and the actuation member, wherein the loading spring is arranged to bias the piston against the fluid pressure in the actuation chamber; wherein the control fluid feed (16, 18) is arranged to control the fluid pressure in the actuator chamber so the fluid pressure acts on the piston against the bias of the loading spring to control the biasing force exerted by the loading spring on the actuation member for actuating the pilot valve; and characterised in that: the control fluid feed (16, 18) comprises an inlet valve for controlling the flow of fluid into the actuator chamber and an outlet valve for controlling the flow of fluid out of the actuator chamber, wherein the inlet valve and the outlet valve are directly mounted on the housing. a housing; a piston movably mounted in the housing; an actuator chamber defined between the piston and the housing; a control fluid feed (16, 18) for introducing a fluid into the actuator chamber to selectively control a fluid pressure in the actuator chamber, wherein the piston is arranged to be acted on by the fluid pressure in the actuator chamber; an actuation member for acting on the pilot valve; and a loading spring between the piston and the actuation member, wherein the loading spring is arranged to bias the piston against the fluid pressure in the actuation chamber; wherein the control fluid feed (16, 18) is arranged to control the fluid pressure in the actuator chamber so the fluid pressure acts on the piston against the bias of the loading spring to control the biasing force exerted by the loading spring on the actuation member for actuating the pilot valve; and characterised in that: the control fluid feed (16, 18) comprises an inlet valve for controlling the flow of fluid into the actuator chamber and an outlet valve for controlling the flow of fluid out of the actuator chamber, wherein the inlet valve and the outlet valve are directly mounted on the housing.
A method performed by a Network Functions Virtualization Orchestrator - NFVO -, the method comprising: obtaining a radio service descriptor defining communication parameters for a radio in a virtual Radio Access Network, wherein the radio service descriptor includes at least one of Layer 2 radio parameters or Layer 3 radio parameters; based on the radio service descriptor, determining whether a virtual distributed unit that is configured in accordance with the communication parameters and a virtual centralized unit that is configured in accordance with the communication parameters are already instantiated in the virtual Radio Access Network; and if it is determined that the virtual distributed unit or the virtual centralized unit is not already instantiated, automatically instantiating the virtual distributed unit or the virtual centralized unit in the virtual Radio Access Network. obtaining a radio service descriptor defining communication parameters for a radio in a virtual Radio Access Network, wherein the radio service descriptor includes at least one of Layer 2 radio parameters or Layer 3 radio parameters; based on the radio service descriptor, determining whether a virtual distributed unit that is configured in accordance with the communication parameters and a virtual centralized unit that is configured in accordance with the communication parameters are already instantiated in the virtual Radio Access Network; and if it is determined that the virtual distributed unit or the virtual centralized unit is not already instantiated, automatically instantiating the virtual distributed unit or the virtual centralized unit in the virtual Radio Access Network.
A biomass pyrolysis apparatus comprising: a combustion furnace that produces a heat quantity by causing a stable property fuel to combust; a pyrolysis gasification furnace that produces a torrefied material and a pyrolysis gas by pyrolyzing woody biomass by a heat quantity produced by the combustion furnace; a boiler; a pyrolysis gas introduction passage that introduces the pyrolysis gas from the pyrolysis gasification furnace into the boiler, into which the torrefied material is introduced; characterized in that the biomass pyrolysis apparatus further comprises a control device that controls a temperature of the pyrolysis gasification furnace, wherein the control device controls a temperature of the pyrolysis gasification furnace so that the current value of a pulverizer that pulverizes the torrefied material produced by the pyrolysis gasification furnace and feeds it to the boiler is generally in a constant range. a combustion furnace that produces a heat quantity by causing a stable property fuel to combust; a pyrolysis gasification furnace that produces a torrefied material and a pyrolysis gas by pyrolyzing woody biomass by a heat quantity produced by the combustion furnace; a boiler; a pyrolysis gas introduction passage that introduces the pyrolysis gas from the pyrolysis gasification furnace into the boiler, into which the torrefied material is introduced; characterized in that the biomass pyrolysis apparatus further comprises a control device that controls a temperature of the pyrolysis gasification furnace, wherein the control device controls a temperature of the pyrolysis gasification furnace so that the current value of a pulverizer that pulverizes the torrefied material produced by the pyrolysis gasification furnace and feeds it to the boiler is generally in a constant range.
A pharmaceutical composition for use in treating a skin disorder in a patient characterized in that the composition is administered topically, wherein said composition comprises a compound which is 3-{(3R,4R)-4-methyl-3-[methyl-(7H-pyrrolo[2,3-d]pyrimidin-4-yl)amino]-piperidin-1-yl}-3-oxo-propionitrile, or a pharmaceutically acceptable salt form thereof.
A timepiece mechanism comprising at least two coaxial pipes inserted one into the other along an axis; said at least two pipes both comprising a lateral opening characterized in that the pipes and openings are configured such that there is a relative angular position in which the openings are aligned in a direction substantially perpendicular to the axis.