The present invention relates to a moulding compound which contains at least 50 wt. % of a semicrystalline poly amide component and the moulding compound contains a filler which imparts conductivity to the moulding compound, wherein the moulding compound does not have a crystallite melting point (Tm) below 50° C. and the polyamide component contains components A and B, A) PA homopolymer of the type PA X.Y or PAZ, where X is a diamine radical (DA), Y is a dicarboxyl radical (DC), and Z is an alpha-omega amino acid radical; B) PA copolymer of the type PA X′.Y′, where X is a diamine radical (DA′) and Y′ is a dicarboxyl radical (DC′); wherein a portion of the diamine radical (DA′) is replaced by a polyether having at least two amino termini or at least two hydroxy termini; wherein the proportion of polyether in the sum of components A and Bis between 0.5 and 15 wt. % and wherein the proportion of filler is 2.5 to 6 wt. % based on the total mass of the poly amide component and the filler. The invention also relates to a method for producing same and using same, and to hollow profiles comprising same.

A device for injecting water into a combustion chamber or into an intake tract of an internal combustion engine includes a rail and at least one injection valve connected to the rail. The connection is produced by means of a rail cup, which surrounds the injection valve at the rail-side end of the injection valve. The injection valve has a feed channel open toward the rail, in which feed channel at least some portions of an insert are received in order to reduce the feed cross-section.

Systems and methods for supplying primary fuel and secondary fuel to an internal combustion engine may include supplying a first amount of the primary fuel and a second amount of the secondary fuel to the internal combustion engine. The system may include a first manifold to provide primary fuel to the internal combustion engine, and a primary valve associated with the first manifold to provide fluid flow between a primary fuel source and the internal combustion engine. A second manifold may provide secondary fuel to the internal combustion engine, and a fuel pump and/or a secondary valve may provide fluid flow between a secondary fuel source and the internal combustion engine. A controller may determine a total power load, the first amount of primary fuel, and the second amount of secondary fuel to supply to the internal combustion engine to meet the total power load.

The fuel economizer is series-connected between a fuel tank and a fuel vaporization device of an internal combustion engine, and includes a first piping element and an oil cup. A first end of the first piping element is connected to the fuel vaporization device, and a second end of the first piping element is connected to the fuel tank through the oil cup for filtering the fuel tank's fuel. A spirally threaded shaft is tightly housed inside the first piping element and the spirally threaded shaft's outer circumference is configured with spiral threads to speed, rotate, and disturb the fuel as the fuel flows through to disrupt the surface tension and density of the fuel.

A combined quick connector structure for fuel feed and return system may include a cover assembly; a lever mechanism along the inside walls of the fuel feed and fuel return openings of the cover assembly; a pawl and ratchet mechanism on either side of the cover assembly; a rib on either side of a connector assembly; the connector assembly with retainer elements for engine feed and engine return lines and fuel feed and return lines; actuator pads provided on the external and internal circumference of the openings of connector assembly; a locking mechanism on the inside circumference of the retainer elements for the fuel feed line and fuel return line; and a lever mechanism configured for hinging the cover assembly together with the connector assembly.

Systems and methods for supplying primary fuel and secondary fuel to an internal combustion engine may include supplying a first amount of the primary fuel and a second amount of the secondary fuel to the internal combustion engine. The system may include a first manifold to provide primary fuel to the internal combustion engine, and a primary valve associated with the first manifold to provide fluid flow between a primary fuel source and the internal combustion engine. A second manifold may provide secondary fuel to the internal combustion engine, and a fuel pump and/or a secondary valve may provide fluid flow between a secondary fuel source and the internal combustion engine. A controller may determine a total power load, the first amount of primary fuel, and the second amount of secondary fuel to supply to the internal combustion engine to meet the total power load.

A fuel supply apparatus to be mounted in a vehicle includes an injector, a rear delivery pipe and a front delivery pipe connected to the injector, and a fixed flange that is provided in the rear delivery pipe to fix the rear delivery pipe to a PCU. The fixed flange includes a cutout.

Systems, methods, and a kit of two diverter blocks are provided for diverting a fluid from a fluid line and directing the fluid through a sensor. Fluid flows into a first a first diverter block and into a sensor before flowing out of the sensor and into a second diverter block, then into a downstream fluid line.

A fuel connector of a fuel system is adapted to flow fuel, and includes male and female components. The male component includes a plurality of barbs each projecting radially outward, spaced axially from one-another and being circumferentially continuous. The female component includes a plurality of reinforcement rings being in a predefined axial relationship to the respective plurality of barbs when connected.

Fuel protection apparatus and related systems for use with vehicles are disclosed. A disclosed vehicle includes a fuel component in an engine compartment of the vehicle. The vehicle also includes a spacer coupled to a cam carrier and positioned proximate to the fuel component. The vehicle also includes a protector coupled to a cylinder head and spaced from the spacer and the cam carrier. The protector is configured to receive a load from a cowl brace or firewall of the vehicle during a vehicle impact event in which an engine assembly of the vehicle moves relative to the cowl brace or firewall. The protector is configured to transfer the load to the cylinder head, the cam carrier, and the spacer to protect the fuel component.