mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: bonding a connector to a bamboo pole, said connector comprising a body formed with an internal passageway (12, 13) that opens to an outer contour of said connector, by inserting said outer contour of said connector into an open end of said bamboo pole and causing an adhesive to flow into said internal passageway (12, 13) and flow to said outer contour of said connector such that said adhesive coats a gap between said outer contour of said connector and an inner contour of said bamboo pole and bonds said connector to said bamboo pole, and wherein said connector is rotatable along its longitudinal axis after insertion into said bamboo pole to help smear said adhesive around said outer contour of said connector, and said internal passageway (12, 13) that opens to an outer contour of said connector comprises a transverse aperture which communicates with a longitudinal opening. bonding a connector to a bamboo pole, said connector comprising a body formed with an internal passageway (12, 13) that opens to an outer contour of said connector, by inserting said outer contour of said connector into an open end of said bamboo pole and causing an adhesive to flow into said internal passageway (12, 13) and flow to said outer contour of said connector such that said adhesive coats a gap between said outer contour of said connector and an inner contour of said bamboo pole and bonds said connector to said bamboo pole, and wherein said connector is rotatable along its longitudinal axis after insertion into said bamboo pole to help smear said adhesive around said outer contour of said connector, and said internal passageway (12, 13) that opens to an outer contour of said connector comprises a transverse aperture which communicates with a longitudinal opening.
A lighting control system for an automotive vehicle having external running lights implementable in different available lighting configurations, said control system comprising: • a controller to control and implement lighting configurations, • an input device (2, 21, 22, 23, 24, 25) that can be manually actuated, • at least one sensor (4, 5, 6) connected to the controller, that is able to detect at least one environment parameter and to transmit to the controller data corresponding to said parameter, • a memory connected to the controller wherein different lighting configurations are stored, whereby • the controller is configured to automatically select, depending on said parameter and among the different available lighting configurations, which lighting configurations can be implemented and is configured to automatically determine in which order the selected lighting configurations are implemented when the input device (2, 21, 22, 23, 24, 25) is manually actuated, and characterized in that • depending on said environmental parameter, each lighting configuration stored in the memory is associated with a rank, and when the controller detects a motion of the input device (2, 21, 22, 23, 24, 25) or a motion on the input device, it is configured to increment the active lighting configuration rank by at least one rank to define a new active lighting configuration rank and to control the implementation of at least one new lighting configuration that corresponds to the new active lighting configuration rank. • a controller to control and implement lighting configurations, • an input device (2, 21, 22, 23, 24, 25) that can be manually actuated, • at least one sensor (4, 5, 6) connected to the controller, that is able to detect at least one environment parameter and to transmit to the controller data corresponding to said parameter, • a memory connected to the controller wherein different lighting configurations are stored, whereby • the controller is configured to automatically select, depending on said parameter and among the different available lighting configurations, which lighting configurations can be implemented and is configured to automatically determine in which order the selected lighting configurations are implemented when the input device (2, 21, 22, 23, 24, 25) is manually actuated, and characterized in that • depending on said environmental parameter, each lighting configuration stored in the memory is associated with a rank, and when the controller detects a motion of the input device (2, 21, 22, 23, 24, 25) or a motion on the input device, it is configured to increment the active lighting configuration rank by at least one rank to define a new active lighting configuration rank and to control the implementation of at least one new lighting configuration that corresponds to the new active lighting configuration rank.
A control unit for an electric motor, including a circuit board comprising circuit elements and having a multilayer structure in which multiple circuit conductive layers (31a-31d) having circuit patterns are laminated with non-conductive layers (32a-32c) interposed between the circuit conductive layers (31a-31d), and a plate-like base to which the circuit board is fixed, wherein: the circuit board has a control pattern portion in which control circuit patterns constituting wirings of a control circuit that outputs a control signal are formed, and a drive pattern portion in which drive circuit patterns constituting wirings of a drive circuit that supplies a drive current to the electric motor based on the control signal are formed, the control pattern portion and the drive pattern portion being formed in different regions, the drive pattern portion of the circuit board is fixed to the base; and the drive pattern portion of the circuit board is insulated from the base; characterized in that, a recessed portion is formed in the base; and the control pattern portion is arranged above the recessed portion; and a space in which a circuit element is received is formed between the control pattern portion and the recessed portion. the circuit board has a control pattern portion in which control circuit patterns constituting wirings of a control circuit that outputs a control signal are formed, and a drive pattern portion in which drive circuit patterns constituting wirings of a drive circuit that supplies a drive current to the electric motor based on the control signal are formed, the control pattern portion and the drive pattern portion being formed in different regions, the drive pattern portion of the circuit board is fixed to the base; and the drive pattern portion of the circuit board is insulated from the base; a recessed portion is formed in the base; and the control pattern portion is arranged above the recessed portion; and a space in which a circuit element is received is formed between the control pattern portion and the recessed portion.
An exhaust emission control device for an internal combustion engine comprising: a plurality of reed valve chambers respectively including reed valves, and provided at a cylinder head portion (40L, 40R) of a multi-cylinder internal combustion engine; characterized in that the reed valve chambers are formed by covering recessed portions provided in the cylinder head portion (40L, 40R) respectively with reed valve covers, the reed valve chambers having upstream sides which communicate with the atmosphere via a secondary air supply pipe, and downstream sides which communicate with exhaust ports via communication passages provided in the cylinder head portion (40L, 40R); and the reed valves are interposed between the upstream sides and the downstream sides of the reed valve chambers, and the reed valves are opened by exhaust pulsation pressure, wherein in the cylinder head portion (40L, 40R), the plurality of reed valve chambers are disposed with spaces therebetween, and the plurality of reed valve covers communicate individually with, and are formed integrally with, the secondary air supply pipe, and the reed valve covers are connected in series by the secondary air supply pipe; and in that each of the reed valve chambers is disposed to be inclined from a horizontal direction, a communication passage inlet leading to a corresponding one of the communication passages is formed above a bottom portion of an inside of the reed valve chamber, and a bottom portion of an intra-pipe passage of the secondary air supply pipe is disposed above the communication passage inlet. a plurality of reed valve chambers respectively including reed valves, and provided at a cylinder head portion (40L, 40R) of a multi-cylinder internal combustion engine; characterized in that the reed valve chambers are formed by covering recessed portions provided in the cylinder head portion (40L, 40R) respectively with reed valve covers, the reed valve chambers having upstream sides which communicate with the atmosphere via a secondary air supply pipe, and downstream sides which communicate with exhaust ports via communication passages provided in the cylinder head portion (40L, 40R); and the reed valves are interposed between the upstream sides and the downstream sides of the reed valve chambers, and the reed valves are opened by exhaust pulsation pressure, wherein in the cylinder head portion (40L, 40R), the plurality of reed valve chambers are disposed with spaces therebetween, and the plurality of reed valve covers communicate individually with, and are formed integrally with, the secondary air supply pipe, and the reed valve covers are connected in series by the secondary air supply pipe; and in that each of the reed valve chambers is disposed to be inclined from a horizontal direction, a communication passage inlet leading to a corresponding one of the communication passages is formed above a bottom portion of an inside of the reed valve chamber, and a bottom portion of an intra-pipe passage of the secondary air supply pipe is disposed above the communication passage inlet.
A hydraulic forging press unit having devices arranged in a building-block-type, wherein the devices of the hydraulic forging press unit are arranged in different layers (a, b, c, d) in a building block type, to hierarchically combine and correspondingly arrange a main device, a hydraulic pump station, an electronic control system, an intelligent conversion system for hydraulic power source, and an intelligent filtration and cooling system of the hydraulic forging press unit correspondingly in a space, the main device comprising a lower fixed beam; the hydraulic pump station comprising an electric motor, a hydraulic pump, and a fuel tank; the electronic control system comprising a power receiving transformer, a strong power cabinet, a control cabinet, and a console; the intelligent conversion system for hydraulic power source comprising an energy accumulator and a booster; the intelligent filtration and cooling system comprising a buffer tank, a filter, and a cooler, characterized in that the space is divided into an underground layer and overground layers, wherein the underground layer is a basement first floor (a), the overground layers comprise upward from ground, a first floor (b), a second floor (c), and a third floor (d) in sequence, and the basement first floor (a), the first floor (b), the second floor (c), and the third floor (d) are each provided with a left chamber and a right chamber, and left chambers on the basement first floor (a), the first floor (b), the second floor (c), and the third floor (d) communicate with each other vertically; the devices being arranged in a following way: the main device is placed in the left chamber on the basement first floor (a), and extends through the left chambers on the basement first floor (a), the first floor, the second floor (c), and the third floor (d); the hydraulic pump station is placed in the right chamber on the basement first floor (a); the electronic control system is placed in the right chamber on the first floor (b); the intelligent conversion system for hydraulic power source is placed in the right chamber on the second floor (c); and the intelligent filtration and cooling system is placed in the right chamber on the third floor (d). the main device is placed in the left chamber on the basement first floor (a), and extends through the left chambers on the basement first floor (a), the first floor, the second floor (c), and the third floor (d); the hydraulic pump station is placed in the right chamber on the basement first floor (a); the electronic control system is placed in the right chamber on the first floor (b); the intelligent conversion system for hydraulic power source is placed in the right chamber on the second floor (c); and the intelligent filtration and cooling system is placed in the right chamber on the third floor (d).
A computer program product comprising one or more computer-readable media having one or more computer-executable instructions that, when executed by one or more processors of a computing system, the one or more computer-executable instructions cause the computing system to perform a method for using a running operating system to launch a hypervisor, the method comprising: an act of launching an operating system; an act of the operating system discovering at least one physical resource of a computing system; an act of the operating system launching a hypervisor; an act of the operating system providing state information for the at least one physical resource to the hypervisor, the state information including at least an identification of the corresponding physical resource; an act of the operating system pausing execution and passing control to the hypervisor; an act of the hypervisor creating a virtual machine instance for the operating system; an act of initializing the virtual machine instance with state information provided by the operating system; an act of the hypervisor resuming the operating system in the virtual machine environment, after initializing the virtual machine instance; and after the operating system is resumed, an act of the hypervisor using the virtual machine instance to virtualize the at least one physical resource to the operating system. an act of launching an operating system; an act of the operating system discovering at least one physical resource of a computing system; an act of the operating system launching a hypervisor; an act of the operating system providing state information for the at least one physical resource to the hypervisor, the state information including at least an identification of the corresponding physical resource; an act of the operating system pausing execution and passing control to the hypervisor; an act of the hypervisor creating a virtual machine instance for the operating system; an act of initializing the virtual machine instance with state information provided by the operating system; an act of the hypervisor resuming the operating system in the virtual machine environment, after initializing the virtual machine instance; and after the operating system is resumed, an act of the hypervisor using the virtual machine instance to virtualize the at least one physical resource to the operating system.
A forged aluminum alloy for automobiles, comprising: Mg: 0.70-1.50 mass%; Si: 0.60-1.50 mass%; Cu: 0.20-0.70 mass%; Ti: 0.001-0.100 mass%, and comprising two elements or more out of Mn: 0.01-0.80 mass%; Cr: 0.10-0.30 mass%; and Zr: 0.05-0.25 mass%, the balance being Al and inevitable impurities, wherein the number density of acicular precipitates having the circle equivalent diameter of 2-10 nm is 30,000 pieces/μm 3 or more. Mg: 0.70-1.50 mass%; Si: 0.60-1.50 mass%; Cu: 0.20-0.70 mass%; Ti: 0.001-0.100 mass%, and comprising two elements or more out of Mn: 0.01-0.80 mass%; Cr: 0.10-0.30 mass%; and Zr: 0.05-0.25 mass%, the balance being Al and inevitable impurities, wherein Mn: 0.01-0.80 mass%; Cr: 0.10-0.30 mass%; and Zr: 0.05-0.25 mass%, the balance being Al and inevitable impurities, wherein
A gasification reactor with a heat exchange unit comprising a gas flow channel and one or more heat exchangers arranged within the gas flow channel, the heat exchangers comprising one or more heat exchange surfaces and one or more support structures carrying at least one heat exchanger and at least one deflector to guide the gas flow towards the heat exchange surfaces, wherein the support structures are provided with one or more blasters directed to blast over an upstream surface of the support structure and wherein the deflector comprises a cover plate with an upstream surface provided with a blaster having one or more nozzles directed to blast in a direction parallel to the upstream surface; and wherein the support structure comprises a plurality of radial arms extending from a central point, wherein at least part of the arms are within the scope of the one or more blasters.
A method for transmitting aperiodic Sounding Reference Symbol, SRS, comprising: receiving, by a terminal equipment, time-domain configuration parameters of the aperiodic SRS sent by an Evolved Node B, eNB, through high-layer signalling or Physical Downlink Control Channel, PDCCH, signalling; characterized in that, the method further comprises: receiving aperiodic SRS activation signaling sent by the eNB after the eNB sends the time-domain configuration parameters; directly sending, in accordance with the time-domain configuration parameters of the aperiodic SRS, the aperiodic SRS in all configuration subframes within one time-domain resource configuration periodicity after a number of subframes subsequent to receiving aperiodic SRS activation signaling, wherein the all configuration subframes within one time-domain resource configuration periodicity are determined according to the time-domain configuration parameters. receiving, by a terminal equipment, time-domain configuration parameters of the aperiodic SRS sent by an Evolved Node B, eNB, through high-layer signalling or Physical Downlink Control Channel, PDCCH, signalling; characterized in that, the method further comprises: receiving aperiodic SRS activation signaling sent by the eNB after the eNB sends the time-domain configuration parameters; directly sending, in accordance with the time-domain configuration parameters of the aperiodic SRS, the aperiodic SRS in all configuration subframes within one time-domain resource configuration periodicity after a number of subframes subsequent to receiving aperiodic SRS activation signaling, wherein the all configuration subframes within one time-domain resource configuration periodicity are determined according to the time-domain configuration parameters. receiving aperiodic SRS activation signaling sent by the eNB after the eNB sends the time-domain configuration parameters; directly sending, in accordance with the time-domain configuration parameters of the aperiodic SRS, the aperiodic SRS in all configuration subframes within one time-domain resource configuration periodicity after a number of subframes subsequent to receiving aperiodic SRS activation signaling, wherein the all configuration subframes within one time-domain resource configuration periodicity are determined according to the time-domain configuration parameters.
A method in a base station of a communication system comprising one or more user equipment, the method comprising the steps of: - detecting that no control transmission or data transmission is being prepared for the one or more user equipment, and - transmitting a downlink inactivity indicator to the one or more user equipment, the downlink inactivity indicator indicating transmission opportunities with no activity, and characterized in that the communication system conforms to LTE standard, and the downlink inactivity indicator comprises Physical Control Format Indicator Channel set to zero in subframes having no control data or user data. - detecting that no control transmission or data transmission is being prepared for the one or more user equipment, and - transmitting a downlink inactivity indicator to the one or more user equipment, the downlink inactivity indicator indicating transmission opportunities with no activity, and
A method, comprising: transmitting a REGISTRATION REQUEST message by a User Equipment, in the following also referred to as UE, (101, 201, 301) to a second network over a second access type, wherein the UE is not registered to a first network via a first access type, and wherein one of the first access type and the second access type is 3GPP access type, and the other one of the first access type and the second access type is non-3GPP access type; receiving a REGISTRATION ACCEPT message over the second access type from the second network, wherein the message carries a 5GS registration result information element; and deriving a 5GS registration result value that is set to the first access type and the second access type indicating that the UE (101, 201, 301) is registered to both the first network and the second network; characterized by considering the UE (101, 201, 301) is registered to the second network over the second access type and considering the UE (101, 201, 301) is not registered to the first network over the first access type. transmitting a REGISTRATION REQUEST message by a User Equipment, in the following also referred to as UE, (101, 201, 301) to a second network over a second access type, wherein the UE is not registered to a first network via a first access type, and wherein one of the first access type and the second access type is 3GPP access type, and the other one of the first access type and the second access type is non-3GPP access type; receiving a REGISTRATION ACCEPT message over the second access type from the second network, wherein the message carries a 5GS registration result information element; and deriving a 5GS registration result value that is set to the first access type and the second access type indicating that the UE (101, 201, 301) is registered to both the first network and the second network; characterized by considering the UE (101, 201, 301) is registered to the second network over the second access type and considering the UE (101, 201, 301) is not registered to the first network over the first access type.