Abstract:
The present invention relates to a liquid reservoir (10) for a vehicle that is subjected in service to inclinations in at least two different directions (D1, D2, D3, D4), the reservoir (10) comprising a float well (20) which delimits a bowl (22) containing a float that is able to move depending on the level of liquid in the reservoir (10). The reservoir (10) is characterized in that the float well (20) comprises at least two retention means (41, 42, 43, 44) positioned successively along a flow path (21 ) of the liquid as far as the bowl (22), from the outside toward the inside of the float well (20), each retention means (41, 42, 43, 44) keeping liquid in the float well (20) if the reservoir (10) is inclined in a set of directions specific to this retention means (41, 42, 43, 44). The invention also relates to a motor vehicle system comprising such a liquid reservoir (10) and means for binary detection of the level of liquid in the reservoir (10).
Abstract:
Multi-compartment liquid reservoir (10), for a motor vehicle, including a first fluid compartment (14) equipped with a fluid inlet (18) and with a fluid outlet (22), and a second fluid compartment (16) equipped with a fluid inlet (20) and with a fluid outlet (24), the reservoir including a liquid-filling neck (12) and the compartments in fluid communication via at least one passage (30) allowing one of the compartments to be filled via the other of the compartments, the reservoir further including at least one shut-off system (44), able to move between a first position of opening of the at least one passage and a position of closure of the at least one passage, characterized in that the shut-off system is configured to adopt the first position by default and in the free state, and to be urged into the second position when the reservoir is in operation namely when a fluid is circulating in at least one of the compartments from its inlet as far as its outlet or when an operating temperature of the fluid is reached.
Abstract:
The present invention relates to a device (10) for filling a liquid circuit (2) for a motor vehicle, the device (10) being suitable for receiving a filling tool (20) and comprising: an inlet opening (38); a pipe (40) that extends in the liquid circuit (2) downstream from the inlet opening (38) and which includes a wall (42) having a first inner diameter (D40); and a guide member (50) that is positioned in the pipe (40) and includes a cylindrical wall (56) delimiting a channel (60) for receiving the filling tool (20) along a cylindrical sealing section (62), said channel (60) having a second inner diameter (D60) smaller than the first inner diameter (D40) of the pipe (40). The filling device (10) is characterized in that the channel (60) extends as far as a downstream orifice (58) formed in the guide member (50) and positioned at a maximum fill level desired in the liquid circuit (2), the guide member (50) forming a means of extending the filling tool (20) so as to adjust the final level of liquid (L) in the liquid circuit (2) to the maximum fill level by being flush with the downstream orifice (58) in the pipe (40). The invention also relates to a filling assembly (5), a liquid tank (3), a motor vehicle and an implementing method.
Abstract:
According to the inventive venting tank (1) for a cooling system of a motor vehicle, the venting tank (1) comprises a main wall (3), which defines an inner venting volume (V) of the venting tank, the main wall comprising a bottom (5) and a cover (7) opposite one another, intake means (45, 47, 49, 51, 53) for a heat transfer fluid to be vented within the interior venting volume, and discharge means (55, 57) for discharging the vented heat transfer fluid outside the inner venting volume. This venting tank (1) further comprises a heat transfer fluid duct (19), which crosses through the cover (7) and the bottom (5) and comprises an inner segment (29) extending within the inner venting volume (V) from the cover (7) to the bottom (5) and whereof an inner volume (V29) is separated from the inner venting volume.
Abstract:
The invention relates to the use of a crosslinked polymer for the preparation, from at least two elements, of an assembly forming a container for a motor vehicle, in particular for forming a degassing tank or an expansion vessel. The invention also provides a process for preparing an assembly forming a container for a motor vehicle from a crosslinked polymer, and also this assembly.
Abstract:
A coupling member for coupling components within a coolant circuit is disclosed. The coupling member comprises a conduit having a first end configured to couple to a first component and a second end configured to couple to a second component, wherein in use a coolant fluid passes from the first component to the second component through the conduit. The coupling member further includes a sensor integral with the conduit and positioned between the first and second ends of the conduit, the sensor being configured to detect the presence of gas or air within the conduit.
Abstract:
A non-return valve (50) includes a fixed casing (52) with an internal duct extending between a fluid inlet (54) and a fluid outlet (56) and a member (58) that is mobile between a first position of blocking of the duct and a second position of opening of the duct, the mobile member being configured to be displaced from the first position to the second position when a fluid flow rate above a predetermined threshold enters into the duct via the inlet, and to be displaced from the second position to the first position when the flow rate is below the threshold, where the valve further includes means (80) for immobilizing the member in the second position.
Abstract:
The invention relates to a cooling circuit valve, suitable for being positioned on a degassing tank intended to receive a refrigerant, in particular a coolant for a heat engine, said valve comprising at least one first refrigerant supply duct (201), a second air intake duct inside the valve, a third refrigerant and/or air exhaust duct, in particular an exhaust for coolant or a gas formed by vaporization of that coolant, and a connecting volume (V20) that is in communication with an inner volume of the degassing tank when the valve is positioned on the degassing tank. The valve comprises a regulator (100) which, under the effect of the pressure in the connecting volume (V20), selectively opens a passage of an incoming refrigerant stream going from the first duct (201) toward the connecting volume (V20).
Abstract:
A venting tank (1) for a cooling system of a motor vehicle includes a main wall (3), which defines an inner venting volume (V) of the venting tank, the main wall including a bottom (5) and a cover (7) opposite one another, an intake (45, 47, 49, 51, 53) for a heat transfer fluid to be vented within the interior venting volume, and a discharge (55, 57) for discharging the vented heat transfer fluid outside the inner venting volume. This venting tank (1) further includes a heat transfer fluid duct (19), which crosses through the cover (7) and the bottom (5) and includes an inner segment (29) extending within the inner venting volume (V) from the cover (7) to the bottom (5) and whereof an inner volume (V29) is separated from the inner venting volume.
Abstract:
A degassing tank for a cooling system of an automotive vehicle is disclosed. The degassing tank comprises a main wall defining an interior volume, the interior volume being partitioned into an inner degassing volume and an inner by-pass volume; at least two inlet ducts, passing through the main wall, for introducing heat transfer fluid into the inner by-pass volume; a degassing volume intake fluidly coupling the inner by-pass volume and the inner degassing volume for introducing heat transfer fluid to be degassed into the inner degassing volume from the inner by-pass volume; and at least two outlet ducts, for discharging heat transfer fluid from the degassing tank. The inner degassing volume is fluidly coupled to each of the at least two outlet ducts via a degassing volume discharge, and wherein the inner by-pass volume is fluidly coupled to each of the at least two outlet ducts via a by-pass volume discharge.