Electronic olfactory power tower fire monitoring method based on ai

By constructing a directional sealing incident inversion mechanism and a dual-cavity heteroadsorption pyrolysis memory model, combined with an improved LSTM-FCN model, the problem of inaccurate odor source determination in existing technologies is solved, and fire precursor identification with high accuracy and low false alarm rate is achieved in complex environments.

CN122392218APending Publication Date: 2026-07-14ZHONGQIN (XIAN) AVIATION TECHNOLOGY CO LTD

Patent Information

Authority / Receiving Office
CN · China
Patent Type
Applications(China)
Current Assignee / Owner
ZHONGQIN (XIAN) AVIATION TECHNOLOGY CO LTD
Filing Date
2026-04-19
Publication Date
2026-07-14

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Abstract

The application discloses an AI-based electronic olfaction power tower fire monitoring method, which comprises the following steps: arranging layered electronic olfaction nodes on a power tower, collecting odor data, and forming an odor time sequence; controlling the multi-directional air inlets of each node to be sealed and opened in a preset order, and constructing an irreplaceable incident chain; performing directional flow guiding according to the primary and secondary incident directions, and shunting the odor samples to a double-cavity structure to obtain a double-cavity directional response sequence; inputting the double-cavity directional response sequence into an improved LSTMFCN model to generate a pyrolysis memory debt chain; sealing the primary air inlets along the irreplaceable incident chain in sequence to construct a source-evidence locking spectrum and determine the propagation order; and outputting a fire risk result and a candidate fire area according to the incident direction, the incident chain debt chain and the locking spectrum. Through directional sealing incident inversion, double-cavity odor memory modeling and source-evidence locking verification, the application realizes accurate identification and source determination of early weak pyrolysis odor of a power tower fire.
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