一种可调节的向光性试验系统

By designing an adjustable phototropism experimental system, and using hydraulic adjustment rings and wave plates to simulate the dynamic light environment and water flow of seaweed, the complexity of seaweed phototropism experiments was solved, enabling more realistic physiological and behavioral research.

CN121264378BActive Publication Date: 2026-07-17SHENZHEN SUNNY XIAO TECH CO LTD

Patent Information

Authority / Receiving Office
CN · China
Patent Type
Patents(China)
Current Assignee / Owner
SHENZHEN SUNNY XIAO TECH CO LTD
Filing Date
2025-11-05
Publication Date
2026-07-17

AI Technical Summary

Technical Problem

Existing technologies struggle to simulate the physiological and behavioral responses of algae under dynamic light and water flow conditions, leading to increased complexity in algal phototropism experiments, especially under conditions of drastic changes in the light environment due to climate change.

Method used

An adjustable phototropism test system was designed, including an adjustable spectral light source, a hydraulic adjustment ring, and a wave plate. The angle of the light-blocking plate and the simulated water flow are adjusted by the hydraulic system to create stable areas with different light intensities and dynamic light environments, simulating the light attenuation and water flow characteristics of natural water bodies.

Benefits of technology

This study enabled the research on algal behavior under different light intensities and water flow conditions, improving the ecological relevance and data richness of the experiment, and enabling a more realistic simulation of the growth and distribution of algae in complex environments.

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Abstract

本发明公开了一种可调节的向光性试验系统,属于向光性测试技术领域,包括光学测试基座和用于测试海藻类植物的培养水舱,培养水舱上方设置有可调光谱光源,培养水舱顶端通过多个安装座固定有用于将培养水舱内水域进行分隔的内隔环、外隔环和边缘隔环。本发明通过隔光板和调偏组件的设置,可以利用液压系统精密调整隔光板的角度,可以在培养水舱内创造出三个具有稳定且不同光照强度的区域,模拟了自然水体中光照随深度衰减的现象,允许研究人员同时研究同一种海藻在不同光强下的行为,或者比较不同海藻对光强的偏好,同时通过反向偏转模式,模拟出水面的波光粼粼,便于研究海藻在动态光这种更真实和变化的光环境下的生理和行为反应。
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