mhurhangee/ep-ind-claims huggingface dataset:
A method implemented by one or more network devices implementing a software defined networking, SDN, controller to configure a switch communicatively coupled to the controller to perform translation module bypass in a container orchestration system, wherein the controller is communicatively coupled to a load balancer of the container orchestration system, wherein the load balancer is configured to generate translation rules for flows to be installed in a translation module of the container orchestration system that specify network address translations to be applied to packets belonging to the flows to cause the packets to be sent to or from one or more processing units of the container orchestration system, and wherein the one or more processing units form a service and each of the one or more processing units includes one or more containers, the method comprising: receiving, from the load balancer, a translation rule for a flow, wherein the translation rule for the flow specifies one or more attributes that identify the flow and a network address translation to apply to packets belonging to the flow; sending, to the switch, translation module bypass instructions for the flow in response to receiving the translation rule for the flow, wherein the translation module bypass instructions for the flow include instructions for the switch to stop sending the packets belonging to the flow to the translation module and to apply the network address translation specified by the translation rule for the flow to the packets belonging to the flow; and sending an indication to the load balancer that the packets belonging to the flow are to bypass the translation module to cause the load balancer to disable timeout processing for the flow in the translation module. receiving, from the load balancer, a translation rule for a flow, wherein the translation rule for the flow specifies one or more attributes that identify the flow and a network address translation to apply to packets belonging to the flow; sending, to the switch, translation module bypass instructions for the flow in response to receiving the translation rule for the flow, wherein the translation module bypass instructions for the flow include instructions for the switch to stop sending the packets belonging to the flow to the translation module and to apply the network address translation specified by the translation rule for the flow to the packets belonging to the flow; and sending an indication to the load balancer that the packets belonging to the flow are to bypass the translation module to cause the load balancer to disable timeout processing for the flow in the translation module.
A rotatable mop structure comprising: a hollow outer rod, two rows of gear units being diagonally disposed on an inner wall of the outer rod; a hollow inner rod with an outer diameter smaller than an inner diameter of the outer rod rotatably inserted into the outer rod, a mop disc being coupled at a lower end of the inner rod; and a driving gear component, characterised in that the driving gear component is composed of a case for limitation of two driving gear elements and a driven gear element, the two driving gear elements being engaged with the two gear units, a small diameter quill being extended from opposite inner ends of the two driving gear elements respectively, protruded portions being protrudingly disposed on a side of the case offsetting from the two gear units for pressing against the inner wall of the outer rod without the disposition of the gear units in order that the driving gear elements and the gear units being engaged with each other tightly for enabling the two driving gear elements to move reciprocally upward and downward along the gear units by an external force and enabling the driven gear element to drive the inner rod to turn inside the outer rod, an inner bevel gear is protrudingly disposed on inner ends of the small diameter quills respectively, a hole being disposed at a center of one of the inner bevel gears and a pole being disposed at a center of the other inner bevel gear for inserting and supporting each other interactively, the driven gear element being a bevel gear engaging with lower ends of the two inner bevel gears and connected drivenly and downwardly to an upper end of the inner rod. a hollow outer rod, two rows of gear units being diagonally disposed on an inner wall of the outer rod; a hollow inner rod with an outer diameter smaller than an inner diameter of the outer rod rotatably inserted into the outer rod, a mop disc being coupled at a lower end of the inner rod; and a driving gear component,
A bolt having a tempered martensite structure, wherein the bolt has a composition, in which: 0.50 mass% or more and 0.65 mass% or less of carbon; 1.5 mass% or more and 2.5 mass% or less of silicon (Si); 1.0 mass% or more and 2.0 mass% or less of chromium (Cr); 0.2 mass% or more and 1.0 mass% or less of manganese (Mn); and 1.5 mass% or more and 5.0 mass% or less of molybdenum (Mo); are contained; a total content of impurities being phosphor and sulfur is 0.03 mass% or less; and the remaining is iron (Fe); and a carbon concentration of the bolt satisfies the following Formula: 0.75 ≦ X < 1 in which, in Formula, X represents a surface carbon concentration / an inner carbon concentration, and the surface carbon concentration is a carbon concentration, in mass%, at a position 0.025 mm deep from an uppermost surface of a bolt shank portion, and the inner carbon concentration is a carbon concentration, in mass%, at a position on a center line of the bolt shank portion; wherein the bolt satisfies the following Formula: − 20 HV ≦ H ≦ 50 HV wherein, in Formula, H represents an inner hardness - a surface hardness, the inner hardness being a Vickers hardness at a position on a center line of the bolt shank portion, and the surface hardness being a Vickers hardness at a position 0.05 mm deep from the uppermost surface of the bolt shank portion; wherein the surface hardness is 420 or more and 600 or less. 0.50 mass% or more and 0.65 mass% or less of carbon; 1.5 mass% or more and 2.5 mass% or less of silicon (Si); 1.0 mass% or more and 2.0 mass% or less of chromium (Cr); 0.2 mass% or more and 1.0 mass% or less of manganese (Mn); and 1.5 mass% or more and 5.0 mass% or less of molybdenum (Mo); are contained; a total content of impurities being phosphor and sulfur is 0.03 mass% or less; and the remaining is iron (Fe); and a carbon concentration of the bolt satisfies the following Formula: 0.75 ≦ X < 1 in which, in Formula, X represents a surface carbon concentration / an inner carbon concentration, and the surface carbon concentration is a carbon concentration, in mass%, at a position 0.025 mm deep from an uppermost surface of a bolt shank portion, and the inner carbon concentration is a carbon concentration, in mass%, at a position on a center line of the bolt shank portion; wherein the bolt satisfies the following Formula: − 20 HV ≦ H ≦ 50 HV wherein, in Formula, H represents an inner hardness - a surface hardness, the inner hardness being a Vickers hardness at a position on a center line of the bolt shank portion, and the surface hardness being a Vickers hardness at a position 0.05 mm deep from the uppermost surface of the bolt shank portion; wherein the surface hardness is 420 or more and 600 or less.
A high-speed multi-channel data transmission method, comprising: replacing, by a data sender, data that are located at every Nth period in data channels, each of the data channels having N periods, with frame headers of each the data channels; storing, sequentially in a Deskew channel, the original data of each of the data channels that were replaced with the frame headers of each the data channels; and sending data of the data channels and data of the Deskew channel to a data receiver; wherein the replacing of the data that are at every Nth period in the data channels, with the frame headers of the data channels comprises: frame headers of every two adjacent data channels have an offset of one period, wherein a frame header of one of the two adjacent data channels is one period later than a frame header of the other one of the two adjacent data channels; and wherein frame headers of the data channels do not overlap in time; and wherein a frame header of a data channel transmitted prior to any other frame header, is one period later than a frame header of the Deskew channel. replacing, by a data sender, data that are located at every Nth period in data channels, each of the data channels having N periods, with frame headers of each the data channels; storing, sequentially in a Deskew channel, the original data of each of the data channels that were replaced with the frame headers of each the data channels; and sending data of the data channels and data of the Deskew channel to a data receiver; wherein the replacing of the data that are at every Nth period in the data channels, with the frame headers of the data channels comprises: frame headers of every two adjacent data channels have an offset of one period, wherein a frame header of one of the two adjacent data channels is one period later than a frame header of the other one of the two adjacent data channels; and wherein frame headers of the data channels do not overlap in time; and wherein a frame header of a data channel transmitted prior to any other frame header, is one period later than a frame header of the Deskew channel. frame headers of every two adjacent data channels have an offset of one period, wherein a frame header of one of the two adjacent data channels is one period later than a frame header of the other one of the two adjacent data channels; and wherein frame headers of the data channels do not overlap in time; and wherein a frame header of a data channel transmitted prior to any other frame header, is one period later than a frame header of the Deskew channel.
A cathode material for a lithium secondary battery, comprising a heat-treated mixture of an oxide powder (a) represented by Formula I and an oxide powder (b) represented by Formula II, wherein a mixing ratio of the oxide powder (a):oxide powder (b) is in the range of 30:70 to 90:10, the oxide powder (a) is monolithic particles having a D50 of more than 10 μ m, and the oxide powder (b) is agglomerated particles having a D50 of less than 10 μ m, and heat treatment is carried out at a temperature of 400°C to 1050°C, the oxide powder (a) having a stoichiometric composition and the oxide powder (b) acting as a lithium buffer material, LiCoO 2 Li z MO 2 wherein 0.95 < z < 1.1; M = Ni 1-x-y Mn x Co y, 0 < y < 0.5, and a ratio of Mn to Ni (x/(1-x-y)) is in the range of 0.4 to 1.1.
Control device intended to be employed in a switched electrical power supply system to control a DC/DC converter of said switched electrical power supply system, said control device comprising a first input terminal and a second input terminal, a first transistor connected via its source to the second input terminal and furnished with a gate intended to receive control signals originating from a control unit and a second transistor provided with a gate and connected via its drain to the first input terminal, and via its source to the first transistor, the control device including: - a control assembly connected to the gate of the second transistor and to the second input terminal and including a capacitor (Ca) and a Zener diode connected in series to said capacitor (Ca), said capacitor (Ca) being arranged to compensate the voltage drops of said Zener diodes, - a second Zener diode connected between the gate and the source of the second transistor. - a control assembly connected to the gate of the second transistor and to the second input terminal and including a capacitor (Ca) and a Zener diode connected in series to said capacitor (Ca), said capacitor (Ca) being arranged to compensate the voltage drops of said Zener diodes, - a second Zener diode connected between the gate and the source of the second transistor.
A networking device (220, 320, 420, 500, 600, 720) for interfacing with a first memory, the networking device comprising: logic comprising: a queue reader (223, 426, 726) configured to read a first queue entry from a send queue in response to a first doorbell ring communicated by a host; a data reader (224, 427, 727) configured to read, based on the first queue entry, a first data stored in the first memory; wherein the first memory resides in the host; an interface configured to output the read first data from the networking device; and a second memory configured to store a second data received from a host, wherein the second memory resides in the networking device; wherein the logic is configured to output the second data from the networking device in response to a second doorbell ring, wherein the second doorbell ring is communicated by the host. logic comprising: a queue reader (223, 426, 726) configured to read a first queue entry from a send queue in response to a first doorbell ring communicated by a host; a data reader (224, 427, 727) configured to read, based on the first queue entry, a first data stored in the first memory; wherein the first memory resides in the host; an interface configured to output the read first data from the networking device; and a second memory configured to store a second data received from a host, wherein the second memory resides in the networking device; wherein the logic is configured to output the second data from the networking device in response to a second doorbell ring, wherein the second doorbell ring is communicated by the host. a queue reader (223, 426, 726) configured to read a first queue entry from a send queue in response to a first doorbell ring communicated by a host; a data reader (224, 427, 727) configured to read, based on the first queue entry, a first data stored in the first memory; wherein the first memory resides in the host; an interface configured to output the read first data from the networking device; and a second memory configured to store a second data received from a host, wherein the second memory resides in the networking device; wherein the logic is configured to output the second data from the networking device in response to a second doorbell ring, wherein the second doorbell ring is communicated by the host.
Method for controlling a wireless communication unit comprising - a registration unit and - a main control unit comprising a command interface, a command interpreter, the command interpreter being configured to process commands received by means of the command interface and to execute wireless communication tasks with a wireless network, the main control unit being configured to receive commands by means of the command interface, the wireless communication unit further comprising an internal operating platform, the internal operating platform comprising at least one secondary control unit, configured to execute commands, the method comprising the steps of, for the registration unit: - receiving from the secondary control unit a registration request for registration of a command, - storing representation relative to the command corresponding to the received registration request, further comprising the step for the main control unit, upon reception of a command by means of the command interface, - checking received command with registration unit, - in case a representation relative to received command being stored in registration unit, forwarding received command to secondary control unit, wherein in response to said forwarding of the command, - receiving at the main control unit from said secondary control unit a command response comprising a processing indicator, said processing indicator indicating if the forwarded command is completely processed, - executing said command at the command interpreter of the main control unit, if the processing indicator indicates that the command is not completely processed, - otherwise returning the command response to the command interface. - a registration unit and - a main control unit comprising a command interface, a command interpreter, the command interpreter being configured to process commands received by means of the command interface and to execute wireless communication tasks with a wireless network, - receiving from the secondary control unit a registration request for registration of a command, - storing representation relative to the command corresponding to the received registration request, further comprising the step for the main control unit, upon reception of a command by means of the command interface, - checking received command with registration unit, - in case a representation relative to received command being stored in registration unit, forwarding received command to secondary control unit, wherein in response to said forwarding of the command, - receiving at the main control unit from said secondary control unit a command response comprising a processing indicator, said processing indicator indicating if the forwarded command is completely processed, - executing said command at the command interpreter of the main control unit, if the processing indicator indicates that the command is not completely processed, - otherwise returning the command response to the command interface.
A method in a wireless communication system, comprising the steps of: generating channel quality indicator, CQI, bits and antenna weight indicator, AWI, bits for transfer to an encoder in a user equipment; characterized by utilizing a (20,10,6) code, provided from a quadratic residue generator matrix of a (24,12,8) Golay code, said (20,10,6) code comprising 40 codewords having a Hamming distance 6 from an all-zero codeword, said code being stored in the UE to produce a codeword according to a ten bit sequence comprising the CQI bits and AWI bits; and transmitting the codeword to a receiver. generating channel quality indicator, CQI, bits and antenna weight indicator, AWI, bits for transfer to an encoder in a user equipment; characterized by utilizing a (20,10,6) code, provided from a quadratic residue generator matrix of a (24,12,8) Golay code, said (20,10,6) code comprising 40 codewords having a Hamming distance 6 from an all-zero codeword, said code being stored in the UE to produce a codeword according to a ten bit sequence comprising the CQI bits and AWI bits; and transmitting the codeword to a receiver.
Assembly system for assembling, disassembling and/or maintaining a gas turbine, comprising: - a first guide carriage for holding a first engine component, in particular a turbine module of the gas turbine; - a second guide carriage for holding a second engine component, in particular a compressor module of the gas turbine; and - a connection module which can be detachably connected to the first and to the second guide carriage (14a, 14b) by corresponding coupling means, characterized in that at least one of the guide carriages (14a-c) comprises an engine mount by means of which the associated engine component (16a-c) can be rotatably mounted, outside its center of mass, about three axes (x, y, z), and in that at least one of the guide carriages (14b, c) comprises an engine mount by means of which the associated engine component (16b, c) can be moved translationally along at least one axis (z). - a first guide carriage for holding a first engine component, in particular a turbine module of the gas turbine; - a second guide carriage for holding a second engine component, in particular a compressor module of the gas turbine; and - a connection module which can be detachably connected to the first and to the second guide carriage (14a, 14b) by corresponding coupling means,
A radiographic imaging apparatus comprising: a capturing device to generate X-rays and to radiate the X-rays towards a subject so as to capture an image of the subject; wherein the capturing device comprises a shifter to shift an X-ray irradiation position or direction; a controller connected to the capturing device to control the capturing device; a manipulation device connectable to the controller to allow an inspector to input commands to control the capturing device and to display information on the capturing device; and a docking device provided at the capturing device so that the manipulation device is detachably mountable to the capturing device through the docking device; characterised in that the manipulation device is configured to manipulate the shifter to shift the X-ray irradiation position or direction when the manipulation device is separated from the capturing device, and the manipulation device comprises a shift manipulation unit being configured such that one or more frequently used X-ray irradiation positions and directions are set in a macro form through the shift manipulation unit to shift the capturing device to a predetermined irradiation position and direction through one input. a capturing device to generate X-rays and to radiate the X-rays towards a subject so as to capture an image of the subject; wherein the capturing device comprises a shifter to shift an X-ray irradiation position or direction; a controller connected to the capturing device to control the capturing device; a manipulation device connectable to the controller to allow an inspector to input commands to control the capturing device and to display information on the capturing device; and a docking device provided at the capturing device so that the manipulation device is detachably mountable to the capturing device through the docking device; characterised in that the manipulation device is configured to manipulate the shifter to shift the X-ray irradiation position or direction when the manipulation device is separated from the capturing device, and the manipulation device comprises a shift manipulation unit being configured such that one or more frequently used X-ray irradiation positions and directions are set in a macro form through the shift manipulation unit to shift the capturing device to a predetermined irradiation position and direction through one input.
An imprint lithography template comprising: a body comprising a first surface; and a plurality of recesses on the first surface, wherein at least a portion of the recesses have a feature size of less than about 250 nm; the first surface comprising an imprinting area and a kerf area, wherein at least a portion of the plurality of recesses forms a pattern on the imprinting area, and wherein an excess fluid relief structure is formed in the kerf area and is recessed into the first surface. a body comprising a first surface; and a plurality of recesses on the first surface, wherein at least a portion of the recesses have a feature size of less than about 250 nm; the first surface comprising an imprinting area and a kerf area, wherein at least a portion of the plurality of recesses forms a pattern on the imprinting area, and wherein an excess fluid relief structure is formed in the kerf area and is recessed into the first surface.