Integrated observation vehicle of walking observation
A car-based, wind-measuring radar technology, applied in the field of comprehensive observation vehicles, can solve problems such as the impact of service life, high temperature, and the performance stability of internal observation devices, and achieve the effect of maintaining stability and accelerating loss
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Embodiment 1
[0021] Such as figure 1 As shown, a comprehensive observation vehicle for walking observation includes a vehicle body, a generator compartment 9 located at the rear of the vehicle, and an observation compartment 8 located at the front of the vehicle are arranged in the vehicle body, and a generator is arranged in the generator compartment 9 to generate electricity. A wind-measuring radar is installed on the top of the machine, and a dust-proof and rain-proof cover is installed on the top of the wind-measuring radar. The first display, the second display, and the airgel lidar are installed in the observation cabin 8, and the light output corresponding to the wind-measuring radar is set on the top of the car body. A three-dimensional rotatable scanning device is installed at the through hole, and the three-dimensional rotatable scanning device is connected to the aerosol laser radar. A partition is arranged between the generator compartment 9 and the observation compartment 8. T...
Embodiment 2
[0023] Such as figure 1 As shown, similar to Embodiment 1, the tail side wall of the generator compartment 9 is provided as an interlayer, and the tail side wall includes the first layer 1 and the second layer 3 arranged therein, between the first layer 1 and the second layer 3 It has a mezzanine space, and a plurality of first cavities 2 arranged at intervals are arranged in the mezzanine space. The first cavities 2 are trumpet-shaped openings facing the warehouse body, and the second layer 3 is a multi-layer trumpet-shaped cavity structure. One layer 1 is provided with a plurality of honeycomb holes 4, the honeycomb holes 4 open towards the direction of the warehouse body and the diameter gradually increases towards the direction of the warehouse body, the fan 13 facing the side wall is suspended under the top, the tail side wall and Fan 13 is opposite. The present invention accelerates the flow of the airflow by arranging the fan 13, and accelerates the dissipation of heat...
Embodiment 3
[0025] Similar to Embodiment 2, the difference is that the inner wall of the first cavity 2 is a geometric surface formed by connecting polygons.
[0026] Each horn-shaped inner wall of the second cavity is a geometric surface formed by connecting polygons.
[0027] A second interlayer is arranged in the base 5, and a plurality of springs are arranged in parallel at intervals in the second interlayer.
[0028] The heat insulation layer 7 includes a base layer arranged near the observation chamber 8, a heat reflection layer arranged near the heat dissipation chamber 6, and a hollow ceramic microsphere heat insulation layer 7 between the base layer and the heat reflection layer.
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