mhurhangee/ep-ind-claims huggingface dataset:
Feeding arrangement for the introduction of recirculated exhaust gas into the fresh-air duct of an internal combustion engine, having a fresh-air duct and an exhaust-gas recirculation arrangement with an outlet opening, characterized in that, in the fresh-air duct, for the purpose of interrupting the supply of fresh air, a quick-closing valve is arranged upstream of a cylinder head of the internal combustion engine, and the outlet opening of the exhaust-gas recirculation arrangement is arranged centrally in the fresh-air duct and, with minimum gap formation, upstream of the quick-closing valve in the flow direction of the fresh air.
Method for controlling a first node comprised in a mesh network of multiple nodes, the method comprising steps of: Gathering by the first node information on nodes (110, 115, 120, 125) that can be communicated with directly; - establishing by the first node, a set of proximate nodes (110, 115, 125.2) in the mesh network based on the gathered information; - wherein between the first node and a proximate node (110, 115, 125.2) direct communication is possible; - collecting, by the first node, movement information concerning a movement of one of the proximate nodes (110, 115, 125.2), - determining by the first node a moving status of the first node; - determining by the first node if any of the nodes (105, 110, 115, 125.2) is moving; - setting (325, 330) by the first node a time delay based on the determination of the movement of one of the nodes (105, 110, 115, 125.2); - waiting, by the first node, the time delay that was set, branching back to the step of gathering and again executing all the previous method steps (305, 310, 315, 320, 325, 330) by the first node. - establishing by the first node, a set of proximate nodes (110, 115, 125.2) in the mesh network based on the gathered information; - wherein between the first node and a proximate node (110, 115, 125.2) direct communication is possible; - collecting, by the first node, movement information concerning a movement of one of the proximate nodes (110, 115, 125.2), - determining by the first node a moving status of the first node; - determining by the first node if any of the nodes (105, 110, 115, 125.2) is moving; - setting (325, 330) by the first node a time delay based on the determination of the movement of one of the nodes (105, 110, 115, 125.2); - waiting, by the first node, the time delay that was set, branching back to the step of gathering and again executing all the previous method steps (305, 310, 315, 320, 325, 330) by the first node.
A foundry mold including at least: a first molding cavity extending, along a horizontal axis, from a first end to a second end, a first pair of feeder arms comprising: a first feeder arm, oriented in a substantially vertical direction and connected to the first end of the first molding cavity, and a second feeder arm, substantially parallel to the first feeder arm and connected to the second end of the first molding cavity, the foundry mold being characterized in that any transverse section (Sb) of the first and second feeder arms (3,4) of the first pair of feeder arms, perpendicular to a vertical axis, has a greater area than any transverse section (Sc) of the first molding cavity perpendicular to the horizontal axis. a first molding cavity extending, along a horizontal axis, from a first end to a second end, a first pair of feeder arms comprising: a first feeder arm, oriented in a substantially vertical direction and connected to the first end of the first molding cavity, and a second feeder arm, substantially parallel to the first feeder arm and connected to the second end of the first molding cavity, the foundry mold being characterized in that any transverse section (Sb) of the first and second feeder arms (3,4) of the first pair of feeder arms, perpendicular to a vertical axis, has a greater area than any transverse section (Sc) of the first molding cavity perpendicular to the horizontal axis. a first feeder arm, oriented in a substantially vertical direction and connected to the first end of the first molding cavity, and a second feeder arm, substantially parallel to the first feeder arm and connected to the second end of the first molding cavity, the foundry mold being characterized in that any transverse section (Sb) of the first and second feeder arms (3,4) of the first pair of feeder arms, perpendicular to a vertical axis, has a greater area than any transverse section (Sc) of the first molding cavity perpendicular to the horizontal axis.
A method performed by a first software defined wide area network, SD-WAN, edge router communicably coupled to a public network, the method comprising: receiving a transport location, TLOC,-extension configuration for a known interface of the first edge router; detecting a second edge router attempting to connect to the known interface of the first edge router; and transmitting, to the second edge router, configuration information for the second edge router, wherein the configuration information comprises TLOC-extension information for establishing a TLOC-extension between the first edge router and the second edge router, so that the second edge router is able to communicate with the public network through the TLOC-extension with the first edge router to access device configuration information from the public network through the TLOC-extension for onboarding the second edge router. receiving a transport location, TLOC,-extension configuration for a known interface of the first edge router; detecting a second edge router attempting to connect to the known interface of the first edge router; and transmitting, to the second edge router, configuration information for the second edge router, wherein the configuration information comprises TLOC-extension information for establishing a TLOC-extension between the first edge router and the second edge router, so that the second edge router is able to communicate with the public network through the TLOC-extension with the first edge router to access device configuration information from the public network through the TLOC-extension for onboarding the second edge router.
A method for cell selection and reselection for a camping cell, comprising: measuring, by an idle terminal equipment, licensed frequency bands and unlicensed frequency bands according to configuration information, the configuration information comprising signal quality measurement configuration and interference level measurement configuration, wherein the signal quality measurement configuration comprises at least one of Reference Signal Receiving Power, RSRP, measurement configuration or a Reference Signal Receiving Quality, RSRQ, measurement configuration, and the interference level measurement configuration comprises a Received Signal Strength Indicator, RSSI, measurement configuration; characterized in that: determining, by the terminal equipment, the camping cell according to a result of measurement over the licensed frequency bands and the unlicensed frequency bands, comprising: when it is determined that the RSRP values and/or RSRQ values of the licensed frequency band cells corresponding to the licensed frequency bands are lower than a ninth configured threshold value, an RSSI value of a fourth unlicensed frequency band of the unlicensed frequency bands is lower than a tenth configured threshold value and an RSRP value and/or RSRQ value of at least one unlicensed frequency band cell of unlicensed frequency band cells corresponding to the fourth unlicensed frequency band are/is higher than an eleventh configured threshold value, determining an unlicensed frequency band cell with highest quality of the at least one unlicensed frequency band cell as the camping cell. measuring, by an idle terminal equipment, licensed frequency bands and unlicensed frequency bands according to configuration information, the configuration information comprising signal quality measurement configuration and interference level measurement configuration, wherein the signal quality measurement configuration comprises at least one of Reference Signal Receiving Power, RSRP, measurement configuration or a Reference Signal Receiving Quality, RSRQ, measurement configuration, and the interference level measurement configuration comprises a Received Signal Strength Indicator, RSSI, measurement configuration; characterized in that: determining, by the terminal equipment, the camping cell according to a result of measurement over the licensed frequency bands and the unlicensed frequency bands, comprising: when it is determined that the RSRP values and/or RSRQ values of the licensed frequency band cells corresponding to the licensed frequency bands are lower than a ninth configured threshold value, an RSSI value of a fourth unlicensed frequency band of the unlicensed frequency bands is lower than a tenth configured threshold value and an RSRP value and/or RSRQ value of at least one unlicensed frequency band cell of unlicensed frequency band cells corresponding to the fourth unlicensed frequency band are/is higher than an eleventh configured threshold value, determining an unlicensed frequency band cell with highest quality of the at least one unlicensed frequency band cell as the camping cell.
A flow cytometer system with an optical system comprising a flow channel with an interrogation zone; an illumination source that impinges the flow channel in the interrogation zone from a particular direction; and an optical system including a lens system with multiple lens surfaces arranged around the interrogation zone along a plane perpendicular to the flow channel, and each lens surface is arranged to collect and collimate light from the interrogation zone; and a detection system with multiple detectors adapted to detect light from the lens system, wherein each detector includes a corresponding local filter; characterized in that: the lens system includes at least five lens surfaces arranged around the interrogation zone including a forward scatter lens surface, two side scatter lens surfaces, and at least two fluorescence lens surfaces, wherein the lens system includes a unitary piece with multiple facets defining the lens surfaces; and in that each local filter independently filters for specific wavelengths, such that light filtered by a local filter for a first detector does not affect light detected by a second detector. a lens system with multiple lens surfaces arranged around the interrogation zone along a plane perpendicular to the flow channel, and each lens surface is arranged to collect and collimate light from the interrogation zone; and a detection system with multiple detectors adapted to detect light from the lens system, wherein each detector includes a corresponding local filter;
A method of controllably heating a pre-form to a die introduction temperature; the pre-form having a neck portion extending from a body portion; said pre-form further having an integrally injection-moulded handle portion extending radially; said method comprising · controllably transferring an integral handle PET pre-form onto a continuously moving conveyor while maintaining a known orientation of the handle portion; · securing the preform by its neck portion to the conveyor whereby the preform is transported by the conveyor continuous from a pre-form entry location to a pre-form exit location; · at least portions of the pre-form controllably heated to the die introduction temperature by the time it reaches the pre-form exit location; · a controllable heater array distributed along the conveyor arranged to direct heat to selected portions of the pre-form; · the pre-form controllably transferred from the preform exit location into a die for stretch blow moulding of the pre-form thereby to form a blown container, wherein the preform comprises an open neck portion and a hollow body extending from the neck portion; at least a portion of the walls of the hollow body varying in thickness, characterized in that cross sections of at least a portion of inner surface of the hollow body are ovoid in section. · controllably transferring an integral handle PET pre-form onto a continuously moving conveyor while maintaining a known orientation of the handle portion; · securing the preform by its neck portion to the conveyor whereby the preform is transported by the conveyor continuous from a pre-form entry location to a pre-form exit location; · at least portions of the pre-form controllably heated to the die introduction temperature by the time it reaches the pre-form exit location; · a controllable heater array distributed along the conveyor arranged to direct heat to selected portions of the pre-form; · the pre-form controllably transferred from the preform exit location into a die for stretch blow moulding of the pre-form thereby to form a blown container,
Device comprising at least one motorized conveyor (10, 13, 14) for conveying a flow of harvested crop between an upstream (10a, 13a, 14a) and a downstream (10b, 13b, 14b) ends of said conveyor along a longitudinal direction (D10, D13, D14); at least a sensor for monitoring a longitudinal inclination of the device relative to a nominal orientation of said device; characterised in that said device further comprising:- means for computing a conveyor speed based on said monitored longitudinal inclination, said conveyor speed being adapted to maintain the conveying kinematics of the harvested crop independent from said inclination; - means for operating the motorized conveyor (10, 13, 14) at said computed conveyor speed. - means for operating the motorized conveyor (10, 13, 14) at said computed conveyor speed.
An oil filling nozzle with vapor recovery function comprising; a discharge pipe mounted to a tip of a nozzle; a vapor control valve arranged in a middle of a pipe, which connects a vapor collector (19, 52) mounted so as to cover a circumference of the discharge pipe and a vapor passage, said vapor control valve being opened and closed by liquid pressure in a main body of the nozzle; and a means for adjusting vapor recovery rate by adjusting opening degree of the vapor control valve characterized in that the means for adjusting the vapor recovery rate automatically adjusts the opening degree of the vapor control valve in proportion to the flow rate of fuel in oil filling services and to set maximum recovery rate of the vapor control valve, wherein the means for adjusting the vapor recovery rate comprise a valve element which is configured as a conical body that enables coming in contact with and separating from a valve seat of the vapor control valve, wherein the valve element is provided with a lower taper portion and an upper taper portion in multistage, which can maintain changing ratio of an amount of recovered vapor.
An injection molding apparatus comprising an injection molding machine, a heated manifold that receives injection fluid from the injection molding machine and distributes the injection fluid through a fluid distribution channel, a mold having a cavity and one or more valves having a valve pin that controls injection of the injection fluid into the mold cavity, the one or more valves being comprised of: an electrically driven actuator having a drive shaft or rotor that is rotatably driven around an output rotation axis (12a, R3a), a rotational speed reducing mechanism interconnected to the drive shaft or rotor of the actuator, a cam member or surface that is eccentrically disposed or mounted off center a selected distance from the output rotation axis (12a, R3a) in an arrangement such that when the drive shaft or rotor or rotation device (16, 430, 500) is rotatably driven, the cam member or surface is eccentrically rotatably driven around the output rotation axis (12a, R3a), the valve pin being interconnected to or interengaged with the driven cam member or surface in an arrangement such that the valve pin is driven reciprocally along a linear path of travel as the cam member or surface is eccentrically rotatably driven, characterised by the rotational speed reducing mechanism being comprised of a rotatably driven generally elliptical or other non circular shaped device (430, 472) interconnected to the drive shaft or rotor in an arrangement such that rotation of the drive shaft or rotor is transmitted to an output rotation device (16, 430, 500) to cause the output rotation device (16, 430, 500) to be rotatably driven around the output rotation axis (12a, R3a) at a selected lower rotational speed relative to a rotational speed of the drive shaft or rotor. an electrically driven actuator having a drive shaft or rotor that is rotatably driven around an output rotation axis (12a, R3a), a rotational speed reducing mechanism interconnected to the drive shaft or rotor of the actuator, a cam member or surface that is eccentrically disposed or mounted off center a selected distance from the output rotation axis (12a, R3a) in an arrangement such that when the drive shaft or rotor or rotation device (16, 430, 500) is rotatably driven, the cam member or surface is eccentrically rotatably driven around the output rotation axis (12a, R3a), the valve pin being interconnected to or interengaged with the driven cam member or surface in an arrangement such that the valve pin is driven reciprocally along a linear path of travel as the cam member or surface is eccentrically rotatably driven,
A method of collecting a tail section of a long product, comprising the steps of: unwinding a lead wire from a tail spool; feeding the lead wire through a flange (42, 44) of a main spool, the tail spool and the main spool having at least substantially aligned rotation axes; attaching the lead wire to the long product; rotating the tail spool while holding the main spool substantially stationary so as to wind the lead wire and the tail section of the long product onto the tail spool; stopping or reducing rotation of the tail spool; and rotating the main spool and the tail spool together so as to wind the long product onto the main spool. unwinding a lead wire from a tail spool; feeding the lead wire through a flange (42, 44) of a main spool, the tail spool and the main spool having at least substantially aligned rotation axes; attaching the lead wire to the long product; rotating the tail spool while holding the main spool substantially stationary so as to wind the lead wire and the tail section of the long product onto the tail spool; stopping or reducing rotation of the tail spool; and rotating the main spool and the tail spool together so as to wind the long product onto the main spool.
A method of determining the time of arrival of an incoming Binary Offset Carrier, BOC, satellite signal at a receiver, the BOC signal comprising a Binary Phase Shift Keying, BPSK, signal multiplied by a sub-carrier signal, wherein the method comprises the steps of: receiving (4, 5, 6) an incoming signal, multiplying the incoming signal by a first real-valued periodic modifying signal to produce a first modified output, correlating the first modified output to obtain a first correlation output, multiplying the incoming signal by a second real-valued periodic modifying signal to produce a second modified output, correlating the second modified output to produce a second correlation output and comparing the first correlation output with the second correlation output, wherein the correlation of the first and second modified outputs is done with a correlation reference signal that has the same form as the BPSK signal that is contained within the BOC signal; and wherein the first and second real-valued periodic modifying signals are sine and cosine-phased respectively, are binary or ternary valued, and have the same or similar frequency to the BOC sub-carrier signal, and are similar in form to each other and further wherein a time delay of the incoming signal relative to the real-valued periodic modifying signals is calculated using a ratio of magnitudes of the first and second correlation outputs.
A method for transmitting an abnormal power down report by a Machine to Machine, M2M, device in a wireless communication system, the method comprising: transmitting the abnormal power down report to a base station, wherein the abnormal power down report includes offset information for an identifier of the M2M device that transmits the abnormal power down report, and wherein when the identifier is shared with a plurality of M2M devices, the identifier of the M2M device is valid within a time interval indicated by the offset information and the offset information is unique for the plurality of M2M devices. transmitting the abnormal power down report to a base station, wherein the abnormal power down report includes offset information for an identifier of the M2M device that transmits the abnormal power down report, and wherein when the identifier is shared with a plurality of M2M devices, the identifier of the M2M device is valid within a time interval indicated by the offset information and the offset information is unique for the plurality of M2M devices.
A bracket packaging cartridge, comprising: a cartridge body, an inner support and a cover body, wherein a placement cavity is arranged on the cartridge body, the inner support is arranged in the placement cavity, the inner support is provided with a plurality of bracket placement grooves, each bracket placement groove is adapted to place a bracket; and the bracket placement groove includes a placement opening portion, placement side portions and a placement bottom portion, the placement side portions of the bracket placement groove include a respective top edge and a respective bottom edge, wherein the top edge is connected to the placement opening portion of the bracket placement groove, and the bottom edge is connected to the placement bottom portion of the bracket placement groove, characterized in that the placement side portions of the bracket placement groove include a first placement side portion and a second placement side portion, wherein the first placement side portion is opposite to the second placement side portion; the first placement side portion is provided with a first retaining protrusion at the bottom edge of the first placement side portion, the first retaining protrusion protrudes from the first placement side portion towards the second placement side portion, and a retaining space is provided between the first retaining protrusion and the placement bottom portion of the bracket placement groove; and the second placement side portion is provided with a second retaining protrusion at the bottom edge of the second placement side portion, the second retaining protrusion protrudes from the second placement side portion towards the first placement side portion, and another retaining space is provided between the second retaining protrusion and the placement bottom portion of the bracket placement groove, and the second retaining protrusion is opposite to the first retaining protrusion; the placement side portions of the bracket placement groove further include a third placement side portion and a fourth placement side portion opposite to the third placement side portion; and each of the third placement side portion and the fourth placement side portion includes a bottom edge, and a top edge gradually inclined in a direction towards the bottom edge, angles formed respectively by the placement bottom portion of the bracket placement groove with the third placement side portion and the fourth placement side portion are between 120° and 150° so as to enable a clamping tool to enter the bracket placement groove smoothly.