An electric vehicle with reduced resistance and extended range
A technology for electric vehicles and resistance reduction, applied in the direction of body, power unit, vehicle components, etc., can solve the problems of small improvement of airflow conditions in the wake area of shape resistance, defects in the cooling method of battery packs, and reduction of windward area resistance, etc. The effect of promotion and implementation, increasing pressure and reducing air resistance
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Embodiment 1
[0036] see figure 1 , in the figure (the direction of the arrow in the figure indicates the flow direction of the gas), the electric vehicle with reduced resistance and increased range of the present invention includes an aerodynamic structure with reduced resistance and increased range. Cabin air flow path section, rear air flow path section.
[0037] The air intake section of the front box of the electric vehicle includes the air intake box 1. The air intake box 1 is an air intake structure improved by the front cabin or the front trunk of the electric vehicle, and is mainly used to enter the gas, including the panels of the front cabin or the front trunk. Each panel and firewall of the air intake box, and air intake holes are opened on the front bumper panel and the front beam to facilitate the air to enter and reduce the windward area. There is a sealing partition 2 inside the box 1, and the sealing partition 2 divides the air intake box 1 into upper and lower boxes, and ...
Embodiment 2
[0048] Present embodiment figure is not drawn. This embodiment is similar in structure to Embodiment 1, and the same structure will not be repeated here. The difference is that the cockpit air flow passage section of this embodiment includes left and right front pillars, left and right upper side beams, left and right rear pillars, and left and right rear wings. The left and right flow passages set inside the plate replace the left and right air ducts I8 along the left and right front pillars, left and right upper beams, left and right rear pillars and left and right air ducts in Embodiment 1; It communicates with the rear pillar 7, the rear pillar 7 and the flow channel in the rear fender, and the flow channel in the rear fender 7 communicates with the flow channel in the bumper.
[0049] The aerodynamic route of the whole car is as follows:
[0050] Air → Radiator → Firewall of the lower box → Left and right front pillars with internal flow channels → Left and right upper s...
Embodiment 3
[0053] Present embodiment figure is not drawn. This embodiment is similar in structure to Embodiment 1, and the same parts of the structure will not be repeated here. The difference is that no sealing partition is provided in the air intake box of this embodiment, and the air intake box 1 is not divided into upper and lower two boxes. The air inner air passage section is two left and right air ducts I8 laid along the left and right front pillars, left and right upper side beams, left and right rear pillars and left and right rear fenders. The mixed hot and cold air in the air intake box 1 is guided from the upper body together. flow.
[0054] The aerodynamic route of the whole car is as follows:
[0055] Air→radiator→firewall of the air intake section→two air ducts Ⅰ8 (laid along the left and right front pillars, left and right upper side beams, left and right rear pillars, and left and right rear fenders respectively)→the internal flow channel of the rear bumper, facing the ...
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