Abstract:
A mounting arrangement for a tractor front grille to a shroud includes a one-piece shroud having a radiator mounted thereto and a central opening to draw air through the radiator, and a tractor front grille slidably mounted to the shroud so that the grille can only move substantially vertically to access a battery behind the front grille. The battery may be positioned on a battery shelf that extends forwardly from and is integral with the shroud.
Abstract:
The present invention provides a generally rectangular metal screen covering to cover the radiator of a vehicle to protect the radiator from insects and other flying debris from clogging or otherwise damaging the vehicle's radiator. The screen covering is designed to be mounted in front of the radiator and behind the grill inside the body of the vehicle. The size of the covering can be any of a variety of sizes to accommodate a wide range of vehicles, from small automobiles to large SUVs and trucks. To facilitate a secure attachment to an automobile's radiator, the Bug Catcher is outfitted with a series of holes to accommodate attachment to mounting brackets on each side of the covering.
Abstract:
A front-end part of a motor vehicle has a front panel with air inlet openings in a central region and lateral regions. A central air-guiding element (14) is positioned behind a central air inlet opening in the front panel and a lateral air-guiding element (15) is positioned behind at least one lateral air inlet opening in the front panel. An air scoop (18) is arranged between the central air-guiding element (14) and at least one lateral air-guiding element (15). The air scoop (18) can be moved between a pre-installation position where the air scoop is spaced from the central air-guiding element and an installation position where the air scoop is placed against or connected to the central air-guiding element.
Abstract:
An airflow control device is mounted to the front end of an automotive vehicle and includes an upper air scoop section having a scoop channel disposed rearward of a bumper assembly and oriented to direct airflow entering a bumper intake opening toward an air-receiving powertrain component. A lower air dam section extends downwardly from the upper section to be positioned below a lower extent of the bumper assembly to deflect airflow away from an underside of the vehicle.
Abstract:
In combination with an engine compartment having an engine, a hood, and at least two front quarter panel side walls defining an interior engine compartment, an engine compartment cooling system, is provided which includes a clear hole in at least one of the side walls positioned between a passenger compartment and a forward portion of a fender wheel well. At least one axial fan assembly has a fan housing, a plurality of fan blades, a motor shaft, and a fan motor. The fan assembly is mounted in the clear hole. A fan motor control system is operatively connected to a first temperature sensor for sensing a temperature of the engine compartment, and sending a first signal data to a controller operable to optimize a fan speed of the fan assembly based on the temperature of the engine compartment. A heated air flow path originates from the engine compartment and is exhausted outwardly through the fan assembly into an ambient air flow for cooling of the engine compartment.
Abstract:
The invention relates to a device for guiding air from a vehicle front surface structure including heat exchangers (12) located in front of the engine, said device including two side diffusers (16, 18), to be disposed on either side of the heat exchangers, and a top diffuser (20), to be disposed on top of the heat exchangers, to guide the air entering through air inlets from the bumpers of the vehicle to the heat exchangers, and is characterized in that the side diffusers (16, 18) and the top diffuser (20) are provided with an attaching means capable of ensuring attachment of the top diffuser only on each of the side diffusers.
Abstract:
A sling leather seat, seven inches wide, and approximately 29-30 inches long, having first and second end pieces and a center segment upon which a turret gunner can be seated, has a first ring between the first end piece and the middle segment, and a second ring between the second end piece and the middle segment. A leather waist belt is connected to the sling seat by a pair of elongated tethers connected between the first and second rings and the waist belt, respectively, including chains, cables and/or straps as the tethers which are of a length to allow the gunner to stand up, off the sling seat, but which will prevent the gunner from being ejected from the gun turret in the event of a vehicle rollover. The first and second end pieces of the sling seat are connected to a pair of rings, respectively, on the interior of the gun turret. The body belt in the preferred embodiment is tethered to the sling seat. In an alternative embodiment, the body belt can be tethered to a third ring anchored at or near the gunner's feet inside the turret. Alternative embodiments use PALS webbing stitched to a seat cover for Humvee, truck or tank seats, or for Gunners' Turret Panels, used to accommodate MOLLE pouches of various utility.
Abstract:
This beam (4) is intended to be located between a shield skin (2) and a rear face (6) of a motor vehicle front assembly (1), said beam (4) being designed to deform by absorbing energy in the event of an impact with the shield skin (2), said beam (4) having an approximately planar front face (8). The beam (4) comprises a rear fairing element (10) having a concavity (16) facing the front of the vehicle so as to promote a laminar flow of air from the front face (8) of the beam (4) toward the rear face (6) of the front assembly (1) of the motor vehicle.
Abstract:
A cooling system (500) for an electric drive system includes a cooling duct (502) extending between a first component and a second component. A motor (336) driven fan (510) creates an airflow within the duct. A first temperature sensor measures a first temperature of the first component and a second temperature sensor measures a second temperature of the second component. An electronic controller (540) receives the first temperature and calculates a first temperature difference between the first temperature and the first temperature limit (802) to generate a first command (836) for the motor (336). A second temperature difference between the second temperature and the second temperature limit (802) generates a second command (836) for the motor (336). The controller (540) then selects the greater of the first command (836) and the second command (836) to yield the maximum command (836), and controls the motor (336) based on the maximum command (836).
Abstract:
An embodiment of a high-performance car having a car body; at least one member for cooling; at least one cooling duct extending between an inlet opening and an outlet opening, both formed through the car body, to conduct outside cooling air through the member for cooling; and at least one blow duct which terminates at a blow opening, formed through the car body, to direct an air jet which interacts with the airflow about the car body to alter the streamline configuration of the car; the blow duct originates at an initial portion of the cooling duct, upstream from the member for cooling, and has a deflecting device which can be activated to divert at least part of the air in the cooling duct to the blow duct.