Achieving centimeter-level precision in wave and current field monitoring in the vast and complex marine environment has always been a goal pursued by the scientific and engineering communities. The Surface Drifting Buoy is a key tool for this goal. Based on high-precision inertial navigation technology and combined with multi-source sensor data fusion algorithms, it can capture key parameters such as wave height, current velocity, current direction, and displacement in real time while freely drifting on the sea surface, achieving high-precision, low-power dynamic ocean observation.
Our Surface Drifting Buoy employs a nine-axis MEMS inertial measurement unit (IMU) and wave dynamics algorithms, effectively eliminating accumulated errors generated during integration calculations. The system uses an STM32 microprocessor for high-speed data processing, enabling the buoy to operate stably even in harsh sea conditions, outputting accurate wave spectra, direction spectra, and energy distributions. Its measurement accuracy reaches less than ±3% for wave height and less than ±5° for wave direction, truly achieving the performance standards of "accurate drifting, stable measurement, and fast transmission."
In terms of energy systems, the Surface Drifting Buoy features an ultra-low power consumption design, equipped with a self-powered solar module and a high-efficiency energy storage system, enabling long-term independent operation at sea without frequent maintenance. Its structure utilizes high-polymer corrosion-resistant materials, exhibiting strong resistance to seawater, electrolytes, and UV aging, ensuring long-term reliable operation even in high-salinity and high-humidity environments.
Furthermore, the Surface Drifting Buoy supports multi-channel sensor integration, seamlessly interfacing with modules such as CTD sensors, ADCP current meters, and wave sensors to achieve multi-dimensional environmental monitoring. Through satellite communication and a 4G remote data transmission system, users can obtain observation results in real time and perform data visualization analysis and model prediction through a cloud platform, greatly improving the efficiency of scientific research, monitoring, and early warning.
Application Scenarios of the Surface Drifting Buoy
Marine Scientific Research and Monitoring: Used to study wave propagation, ocean current dynamics, and climate change.
Offshore Wind Farm Site Selection and Operation: Provides accurate wave and current velocity data to support wind power foundation design.
Port and waterway safety monitoring: Monitors real-time wave conditions and tidal current changes to ensure shipping safety.
Meteorological and disaster prevention and mitigation system: Works in conjunction with satellite observations to collect storm surge and tsunami warning data.
Military and scientific research missions: Used for hydrodynamic environmental assessment and real-time data collection in specific sea areas.