mhurhangee/ep-ind-claims huggingface dataset:
Fuel filter system with integrated pump, said system comprising: a head part adapted to cooperate with at least one filter module, said head part comprising a housing closed by a cover and receiving an electric fuel pump which is intended to deliver fuel from a tank to an engine, said housing comprising in its wall a fuel inlet orifice and a fuel outlet orifice spaced along a longitudinal axis of the housing; characterized in that said pump is arranged in a support piece fixed to the cover, said pump forming an independent module with a housing comprising an electric motor coupled to a pumping portion which is arranged in an internal fuel passage extending between an inlet orifice and an outlet orifice spaced along said axis; annular sealing means (64, 68) are provided at the interfaces between the pump and the support piece and between the support piece and the housing, and positioned axially so as to form in the housing a low-pressure chamber on the side of the inlet orifices (38, 52) of the pump and housing, and a high-pressure chamber on the side of the outlet orifices (40, 50) of the pump and housing. a head part adapted to cooperate with at least one filter module, said head part comprising a housing closed by a cover and receiving an electric fuel pump which is intended to deliver fuel from a tank to an engine, said housing comprising in its wall a fuel inlet orifice and a fuel outlet orifice spaced along a longitudinal axis of the housing; characterized in that said pump is arranged in a support piece fixed to the cover, said pump forming an independent module with a housing comprising an electric motor coupled to a pumping portion which is arranged in an internal fuel passage extending between an inlet orifice and an outlet orifice spaced along said axis; annular sealing means (64, 68) are provided at the interfaces between the pump and the support piece and between the support piece and the housing, and positioned axially so as to form in the housing a low-pressure chamber on the side of the inlet orifices (38, 52) of the pump and housing, and a high-pressure chamber on the side of the outlet orifices (40, 50) of the pump and housing.
A battery production system comprising: a tray comprising a battery; a plurality of collectors configured to perform wireless communication with the tray; and a server configured to track a position of the tray and whether an impact occurs in the tray based on information received from the plurality of collectors, wherein the tray comprises a measurement unit configured to sense an impact and a communication unit configured to perform wireless communication with the plurality of collectors, the measurement unit is configured to reduce a measurement interval at a designated first rate upon sensing the impact, and the communication unit is configured to reduce an interval of the wireless communication at a designated second rate upon sensing the impact. a tray comprising a battery; a plurality of collectors configured to perform wireless communication with the tray; and a server configured to track a position of the tray and whether an impact occurs in the tray based on information received from the plurality of collectors, wherein the tray comprises a measurement unit configured to sense an impact and a communication unit configured to perform wireless communication with the plurality of collectors, the measurement unit is configured to reduce a measurement interval at a designated first rate upon sensing the impact, and the communication unit is configured to reduce an interval of the wireless communication at a designated second rate upon sensing the impact.
A reflector clamping member for fixating an ultrasound reflector to a flow conduit insert of an ultrasonic flow meter, the reflector clamping member comprising a fixation portion for fixating the reflector clamping member to the flow conduit insert and a flexible portion for contacting the ultrasound reflector, wherein the flexible portion is adapted for supporting at least one side of the ultrasound reflector so as to clamp the ultrasound reflector between the flexible portion and the flow conduit insert when the reflector clamping member, the ultrasound reflector, and the flow conduit insert are assembled, wherein the flexible portion comprises an elastic portion, and wherein the reflector clamping member is adapted for, in assembled configuration, exerting a force on the ultrasound reflector, said force having a component in the direction of the flow conduit insert. the reflector clamping member comprising a fixation portion for fixating the reflector clamping member to the flow conduit insert and a flexible portion for contacting the ultrasound reflector, wherein the flexible portion is adapted for supporting at least one side of the ultrasound reflector so as to clamp the ultrasound reflector between the flexible portion and the flow conduit insert when the reflector clamping member, the ultrasound reflector, and the flow conduit insert are assembled, wherein the flexible portion comprises an elastic portion, and wherein the reflector clamping member is adapted for, in assembled configuration, exerting a force on the ultrasound reflector, said force having a component in the direction of the flow conduit insert.
Printing device for applying an ink to at least one print substrate, wherein the printing device comprises at least one printing module, wherein the printing module comprises at least one printing head, wherein the printing device further comprises at least one device for producing a flow of fluid, wherein a flow of fluid produced by means of the at least one device for producing a flow of fluid can be guided along at least one outer side of the printing module, wherein the printing module can be moved into at least one maintenance position, which is located next to a printing region, wherein the flow of fluid produced by means of the at least one device for producing a flow of fluid can then be guided along the at least one outer side of the printing module exclusively when the printing module is located in the at least one maintenance position, wherein the printing module can be moved during a printing procedure into at least one reversing position, wherein, in the reversing position, a reversing of a direction of movement of the printing module takes place, wherein a flow of fluid produced by means of the at least one device for producing a flow of fluid, or at least a flow of fluid produced by means of at least one further device for producing a flow of fluid, can be guided along the at least one outer side of the printing module when the printing module is located in the at least one reversing position, wherein the reversing position represents a further maintenance position located next to the printing region, wherein the printing module, during a first part procedure of the printing procedure, can be moved in a direction of movement from the at least one maintenance position into the at least one reversing position, wherein the printing module, during a further part procedure of the printing procedure can be moved against the direction of movement, from the at least one reversing position into the at least one maintenance position, and, further, wherein the outer side is an under side of the printing module, arranged at which is an outlet of the at least one printing head, and wherein the printing module can be moved only in or against a first direction, wherein the flow of fluid can be guided along the outer side of the printing module in a second direction, wherein the second direction is transverse to the first direction.
Device for receiving an elastically deformable guide wire, with a winding material receptacle, and with a housing part at least partially covering the winding material receptacle, which form a ring-shaped receptacle space for receiving the medical guide wire, wherein a winding material guidance is provided in the winding material receptacle, which arranges a plurality of windings of the guide wire next to each other when winding up the guide wire, wherein the winding material guidance is configured by a profiled surface in the receptacle space and the surface is made of a circumferential groove, which is separated by a bar arranged there-between, which bar continues helically, such that the windings of the guide wire are arranged next to each other in one plane in the receptacle space and are wound up separated from each other, characterized in that the winding material receptacle and the housing part are connected pivotably relative to each other around a common rotation axis, an insertion opening leading to the receptacle space is provided in the housing part, at least one gripping surface, in particular a gripping recess, is provided at the outside of the winding material receptacle and/or the outside of a base of the housing part.
A method of removal of mercury and other pollutant species from flue gas streams generated during the burning of fossil fuels, said method comprising: enhancing the effectiveness of an unused activated carbon sorbent by exposing the activated carbon sorbent to a solution that increases activated carbon sorbent effectiveness, the solution comprising a halide salt containing an associated cation, wherein the associated cation is selected from sodium, iron, aluminum, boron, zinc, manganese, magnesium and calcium; and exposing the enhanced sorbent to the flue gas stream generated during the burning of fossil fuels, wherein the flue gas stream comprises mercury. enhancing the effectiveness of an unused activated carbon sorbent by exposing the activated carbon sorbent to a solution that increases activated carbon sorbent effectiveness, the solution comprising a halide salt containing an associated cation, wherein the associated cation is selected from sodium, iron, aluminum, boron, zinc, manganese, magnesium and calcium; and exposing the enhanced sorbent to the flue gas stream generated during the burning of fossil fuels, wherein the flue gas stream comprises mercury.
A process for preparing an alkylene oxide comprising preparing an alkyl phenyl hydroperoxide and contacting the alkyl phenyl hydroperoxide with an alkene in an epoxidation reaction to obtain an alkylene oxide and an alkyl phenyl alcohol, wherein the alkyl phenyl hydroperoxide is prepared by a process comprising: (a) reacting an alkyl aryl compound and oxygen to produce a reaction mixture comprising alkyl phenyl hydroperoxide, alkyl aryl compound and oxygen; (b) separating at least a part of the reaction mixture into a product stream comprising alkyl phenyl hydroperoxide and a stream comprising alkyl aryl compound; (c) mixing at least a part of the separated alkyl aryl compound stream with a basic aqueous solution; (d) separating at least a part of the mixture of step (c) with the help of a coalescer to obtain a separated organic phase containing alkyl aryl compound, and a separated aqueous phase; and (e) recycling at least a part of the separated organic phase containing alkyl aryl compound to step (a). (a) reacting an alkyl aryl compound and oxygen to produce a reaction mixture comprising alkyl phenyl hydroperoxide, alkyl aryl compound and oxygen; (b) separating at least a part of the reaction mixture into a product stream comprising alkyl phenyl hydroperoxide and a stream comprising alkyl aryl compound; (c) mixing at least a part of the separated alkyl aryl compound stream with a basic aqueous solution; (d) separating at least a part of the mixture of step (c) with the help of a coalescer to obtain a separated organic phase containing alkyl aryl compound, and a separated aqueous phase; and (e) recycling at least a part of the separated organic phase containing alkyl aryl compound to step (a).
A process for manufacturing an article, comprising: applying a quantity of silicon sufficient to produce a coating on a carbon based felt; processing thermally a silicon coated carbon based felt at a temperature and for a period of time sufficient to form a ceramic based felt; and characterised by cooling said ceramic based felt under a controlled atmosphere; by said application step comprising depositing said quantity of said silicon at a temperature of 300°C to 1,200°C and a pressure of 66.66 Pa (0.5 torr) to 2666.45 Pa (20 torr) in the presence of a quantity of dichlorosilane that is being gradually flowed at a rate of 0.05 liters per minute to 2 liters per minute; and wherein processing thermally comprises heat treating said silicon coated carbon based felt up to a temperature of 1,250°C at a rate of 10°C per minute under an inert atmosphere prior to heating up to 1,350°C. applying a quantity of silicon sufficient to produce a coating on a carbon based felt; processing thermally a silicon coated carbon based felt at a temperature and for a period of time sufficient to form a ceramic based felt; and characterised by cooling said ceramic based felt under a controlled atmosphere; by said application step comprising depositing said quantity of said silicon at a temperature of 300°C to 1,200°C and a pressure of 66.66 Pa (0.5 torr) to 2666.45 Pa (20 torr) in the presence of a quantity of dichlorosilane that is being gradually flowed at a rate of 0.05 liters per minute to 2 liters per minute; and wherein processing thermally comprises heat treating said silicon coated carbon based felt up to a temperature of 1,250°C at a rate of 10°C per minute under an inert atmosphere prior to heating up to 1,350°C.
A CDK inhibitor or a pharmaceutically acceptable salt thereof for use in combination with radiation for the treatment of head and neck cancer, wherein the CDK inhibitor is represented by the following formula I: wherein Ar is phenyl, which is substituted by 1, 2, or 3 identical or different substituents selected from: halogen selected from chlorine, bromine, fluorine and iodine; C 1 -C 4 -alkyl and trifluoromethyl.
A conveyor apparatus for an assembly line comprising a number of assembly stations, wherein an assembly station is independently moveable when decoupled from the conveyor apparatus and comprises a frame support realised to bear a rotor of a wind turbine generator as the rotor is being assembled, which conveyor apparatus comprises - a guide realised to define a path of travel for an assembly station; - an engaging means for engaging an assembly station to a conveyer band arranged about the guide; and - a driving means (22, 23, 24) comprising the conveyer band, a number of hooks connected at intervals to the conveyor band, wherein each hook is realized to engage with an engaging means, and a motor realized to actuate the conveyor band to drive the engaging means along the guide rail such that the assembly station is moved through successive stages (1A,..., 1F) of the assembly line. - a guide realised to define a path of travel for an assembly station; - an engaging means for engaging an assembly station to a conveyer band arranged about the guide; and - a driving means (22, 23, 24) comprising the conveyer band, a number of hooks connected at intervals to the conveyor band, wherein each hook is realized to engage with an engaging means, and a motor realized to actuate the conveyor band to drive the engaging means along the guide rail such that the assembly station is moved through successive stages (1A,..., 1F) of the assembly line.
A method for laser cutting a workpiece, wherein a laser beam is guided over the workpiece in a cutting direction so that a cutting kerf is created, the kerf having two cutting flanks, characterized in that: material is melted on the workpiece on a cutting front that extends between the cutting flanks, wherein the cutting front adjoins at least one of the cutting flanks, preferably both of the cutting flanks, at an angle that is greater than zero, thereby forming an angled transition from the cutting front to the cutting flank, and in that: the laser beam has a non-circular cross section and a continuous cutting beam contour at the front that corresponds to the cutting front in the cutting direction. wherein a laser beam is guided over the workpiece in a cutting direction so that a cutting kerf is created, the kerf having two cutting flanks, characterized in that: material is melted on the workpiece on a cutting front that extends between the cutting flanks, wherein the cutting front adjoins at least one of the cutting flanks, preferably both of the cutting flanks, at an angle that is greater than zero, thereby forming an angled transition from the cutting front to the cutting flank, and in that: the laser beam has a non-circular cross section and a continuous cutting beam contour at the front that corresponds to the cutting front in the cutting direction. material is melted on the workpiece on a cutting front that extends between the cutting flanks, wherein the cutting front adjoins at least one of the cutting flanks, preferably both of the cutting flanks, at an angle that is greater than zero, thereby forming an angled transition from the cutting front to the cutting flank, and in that: the laser beam has a non-circular cross section and a continuous cutting beam contour at the front that corresponds to the cutting front in the cutting direction.
A method for detecting pipe entrenchment or upheaval of a flexible pipe and/or the presence of an external feature to the flexible pipe, the method comprising the steps of: helically winding a temperature sensing element around a layer of a flexible pipe; helically winding a heating element around a layer of a flexible pipe; heating the heating element to a pre-determined temperature; measuring the temperature at at least two locations along the flexible pipe; comparing the measured temperature response at the at least two locations; and making a determination, from the comparison of measured responses, regarding whether the flexible pipe has been entrenched, upheaved and/or an external feature is present at one of the at least two locations, characterised in that the method further comprises the step of switching off the heating element prior to measuring the temperature at the at least two locations along the temperature sensing element. helically winding a temperature sensing element around a layer of a flexible pipe; helically winding a heating element around a layer of a flexible pipe; heating the heating element to a pre-determined temperature; measuring the temperature at at least two locations along the flexible pipe; comparing the measured temperature response at the at least two locations; and making a determination, from the comparison of measured responses, regarding whether the flexible pipe has been entrenched, upheaved and/or an external feature is present at one of the at least two locations, characterised in that the method further comprises the step of switching off the heating element prior to measuring the temperature at the at least two locations along the temperature sensing element.
A high pressure fuel pump for LPG fuel comprising: a body formed at a lateral side thereof with an intake port and an exhaust port, and provided therein with a pressing device configured to press a portion of fuel, which is supplied through the intake port, at a high pressure; a spill valve coupled to one side of the body to control a supply flow rate and exhaust pressure of the fuel; and a cover coupled to an upper portion of the body and having a recovery port for recovering a portion of the fuel supplied into the body to a fuel tank, wherein the cover collects gaseous fuel vaporized by heat of an engine when the engine is turned off after driving, and has a dome shape which is convex upward, characterized in that an upper surface of the cover is configured as an inclined surface inclined downward in a direction opposite to the recovery port and the recovery port is formed at a lateral side of the cover, wherein the inclined surface is inclined downward in an outward direction from the recovery port wherein the gaseous fuel in an inner space of the cover is moved along the inclined surface, to recover the gaseous fuel to the fuel tank through the recovery port when the engine is restarted. a body formed at a lateral side thereof with an intake port and an exhaust port, and provided therein with a pressing device configured to press a portion of fuel, which is supplied through the intake port, at a high pressure; a spill valve coupled to one side of the body to control a supply flow rate and exhaust pressure of the fuel; and a cover coupled to an upper portion of the body and having a recovery port for recovering a portion of the fuel supplied into the body to a fuel tank, wherein the cover collects gaseous fuel vaporized by heat of an engine when the engine is turned off after driving, and has a dome shape which is convex upward, characterized in that an upper surface of the cover is configured as an inclined surface inclined downward in a direction opposite to the recovery port and the recovery port is formed at a lateral side of the cover, wherein the inclined surface is inclined downward in an outward direction from the recovery port wherein the gaseous fuel in an inner space of the cover is moved along the inclined surface, to recover the gaseous fuel to the fuel tank through the recovery port when the engine is restarted.