Product Description:
The Molas B300 functions based on the Doppler frequency shift principle, utilizing DBS-scanning vector synthesis technology. This allows it to accurately measure both wind speed and wind direction at various altitudes, specifically between 30 meters and 350 meters above the lidar device.
The Molas B300 series is composed of four main components: a fiber laser lidar transmitter, a laser transceiver system, a high-speed data acquisition unit, and sophisticated data processing software. Each of these modules is carefully designed and optimized to work together seamlessly, providing excellent coordination across the entire system.
In addition to seamless integration, the Molas B300 series ensures strong data security throughout its operation. Its overall performance meets or exceeds international advanced standards, making it a reliable solution for wind measurement applications.
Features:
Non-Contact Measurement
This technology offers a convenient and rapid measurement process, setting a new standard in the industry.
High Accuracy
It delivers precise measurements with an accuracy of up to 0.1 meters per second and an angular accuracy of 1°.
Easy Maintenance
Maintenance is straightforward and quick, eliminating any risks related to safety during production.
Data Security
Ensures protection against economic and policy risks such as data leakage, maintaining secure information handling.
Large Range
Supports measurement ranges from 20 to 350 meters, with 12 or 24 customizable levels to meet diverse needs.
No Infrastructure Construction
Requires no land acquisition or infrastructure setup, significantly reducing effort and associated concerns.
Flexible Deployment
Its compact and lightweight design allows easy adaptation to various terrain environments.
All-Weather Capability
Designed to operate reliably even in harsh outdoor conditions without performance degradation.
Time-Saving and Efficient
Easy to operate and quickly deployable, helping save valuable time and reduce costs.
Flexible Configuration
Utilizes wireless connections that enable flexible configuration, seamless delivery, and efficient data transmission.
Technical Parameters:
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Power
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≤60W
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Weight
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≤50kg
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Temperature Range
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-40℃ ~ +60℃
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Wind Speed Accuracy
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0.1m/s
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Size
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554*430*581mm³ (with Handle)
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Humidity Range
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0% To 100%
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Distance
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Ordinary Type 30~350m
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Wind Direction Accuracy
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1°
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Powered By
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24V±5%DC, 100~230V AC
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Measurement Layer
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12 Or 24
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Applications:
Wind Resource Assessment
Evaluating the availability and consistency of wind in a given area is crucial for successful wind energy projects. Wind resource assessment involves measuring wind speed, direction, and patterns over time to determine the potential energy output.
Wind Power Prediction System
Advanced systems are used to forecast wind power generation accurately. These prediction tools utilize meteorological data and machine learning algorithms to estimate the amount of electricity that wind farms can produce in the short and long term.
Weather Detection
Monitoring weather conditions plays an important role in optimizing wind energy operations. Weather detection involves gathering real-time information about atmospheric parameters such as temperature, humidity, and air pressure to support decision-making.
Micro Site Selection and Review
Selecting the exact location for wind turbines at the micro level ensures maximum efficiency. The process includes analyzing terrain, local wind characteristics, and environmental impact assessments to choose the optimal sites within a broader project area.
Wind Farm Performance Assessment
After installation, ongoing evaluation of wind farm operations is necessary to measure efficiency and identify areas for improvement. Performance assessments consider power output, turbine health, and environmental factors to enhance overall productivity.
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