Automatic drying system of underwater robot

Abstract

The invention relates to an automatic drying system of an underwater robot. The automatic drying system comprises a heating layer, an alternating current layer, a drying layer, partition plates and waterproof screws; the alternating current layer, the heating layer and the drying layer are sequentially connected in a sealed mode and internally communicated to form a long-barrel-shaped sealing cover plate on one side of the sealed cabin of the underwater robot; the drying layer, the heating layer and the alternating current layer are sequentially arranged from the outside of the cabin to the inside of the cabin; a propeller and a direct current motor are installed in the alternating current layer; the propeller is connected with the direct current motor; the direct current motor is connected to an upper computer, and the upper computer controls the propeller to rotate forwards and backwards to suck in or discharge air; an electric heater is installed in the heating layer and used for heating air passing through the heating layer; a drying agent is arranged in the drying layer; the end, away from the heating layer, of the drying layer is connected with a partition plate; a waterproofsealing ring is arranged around the partition plate; a screw hole is formed in the center of the partition plate; and a waterproof screw is installed in the screw hole. According to the invention, the effects of keeping dryness, seepage prevention and demisting in the electronic cabin and the battery cabin of the underwater robot can be achieved.

Description

technical field [0001] The invention relates to an automatic drying system for underwater robots, in particular to an automatic drying system for underwater robots. Background technique [0002] With the acceleration of human exploration of the ocean, various underwater robots are widely used in the exploration of marine resources, ecology, and environment, which provides great convenience for human scientific exploration. However, due to the particularity of the underwater environment and electronic components, the environment in the sealed cabin of the underwater robot must be kept dry, otherwise it will affect the performance of the underwater robot and even cause serious accidents. At present, as the working depth of underwater robots continues to deepen, water seepage often occurs, and water mist caused by temperature differences between inside and outside also often appears. The general anti-seepage and anti-fog measures are to add desiccant. [0003] As shown in the ...

AI Technical Summary

Problems solved by technology

However, adding this desiccant directly inside the electronic cabin of the underwater robot can ensure a dry environment in the cabin, but its absorption capacity is limited, and the electronic cabin of the underwater robot needs to be opened every time it is replaced, which is inconvenient to operate

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