Feature 13 Wind Cup Structure: The wind speed part adopts the traditional three wind cup structure, and the wind cup is made of imported ABS material, which has high strength and good startup. 2High Accuracy: Accurate signal processing unit can output all kinds of signals according to user's demand, with large range, good linearity, convenient observation, stable and reliable. 3Professional: Its internal use of accurate angle sensors, and the use of low inertia wind vane response to the wind direction, when the wind direction changes, the tail rotates the shaft rod to drive the sensor magnet, the angle sensor senses a change in the orientation of the magnetic poles, which produces a change in the output of electrical signals, good linearity, high accuracy, no dead angle, easy to observe, stable and reliable. 4Robust Construction: Designed to withstand harsh weather conditions and operate in temperatures ranging from 35 to 60. 5M power cord length, easy to use. 5Versatile Wiring Options: 4 installation methods, easy to install, easy to use. Compatible with different wiring methods to cater to diverse installation requirements.Item Type: Wind Sensor Weight: 1598g / 56.4oz Material: ABS, Galvanized, AluminumWidely Used in: Meteorology, Marine, Environment, Airport, Harbor, Laboratory, Industry, Agriculture and Transportation, etc.Signal Output: RS485Cable Length: Approx. 5M / 16.4ftMeasuring Range Wind Speed: 0-70m/s Power Supply: DC 9-30VOutput Signal Serial port: RS485 (default protocol)Accuracy: Wind speed: (0.3 + 0.03V) m / s (V represents the real-time wind speed value)Wind Direction: 3 DegreeResolution: Wind speed: 0.1m/s, Wind direction: 1 DegreeStart Up Wind Speed: 0.5m/sMaximum Power Consumption: 0.9WLoad Capacity:DC12V power supply, current type output impedance 350 DC24V power supply, current type output impedance 900 Voltage Type Output Impedance 1KWorking Environment:Temperature -35-60 Humidity 100% RH without condensationProtection Grade: IP64Cable Rating: Rated voltage 300V 80Calculation formulaWind Speed Pulse type:F=0.5 + 0.101xMWind speed and direction current type4-20mA: F=(I-4)/16xA+B0-20mA: F=I/20xA+BVoltage type for wind speed and direction0-2.5V: F=V/2.5xA+B0-5V: F=V/5xA+B1-5V: F=(V-1)/4xA+BF: Indicates the wind speed or direction sensor value, m/s or degree;M: Number of pulses in 1 second;I: Sensor output current value, mA;V: sensor output voltage value, V;A: Sensor range width (upper range limit minus lower limit);B: sensor range minimum (lower range limit);For example: wind speed sensor range of 0-70m/s, then: A = 70, B = 0Wind direction range of 0-359 degree, then A = 359, B = 0Wiring method1. If the sensor is equipped with our instrument, use the sensor cable to connect the sensor with the corresponding interface on the instrument directly.2. If the sensor is purchased separately, the wiring sequence is as follows:Red: Power PositiveBlack: A+Yellow: B-Green: Power negativeAbout the sensor communication protocol First, if you are using a single sensor connected to the computer to read data directly, it is recommended to use the company's private protocol, you can visualize the data in ASCII code (hex send, non hex receive);Second, if you are a multi sensor interconnection with PLC, configuration or programmable collector, it is recommended to use the standard RTU protocol, hex send and receive).Third, if there is no special requirement, the default device address in the sensor parameters is 1, baud rate = 9600, protocol RTU.Standard RTU communication protocol Serial port formatData bit 8 bits, stop bit 1 bit, parity bit None, default baud rate 9600bps, serial debugging software set to hex send and receive, two communication intervals of at least 500ms or more, CRC in the manual for the parity bit, 2 bytes. The device address is 1 by default.ASCII private communication protocol Serial port formatData bit 8 bits, stop bit 1 bit, parity bit None Baud rate 9600bps, at least 1000ms between communicationsCRC check procedure 1. Preset the 16 bit register as hexadecimal FFFF, call this register as CRC register;2. Isolate the first 8-bit data with the lower bit of the CRC register and put the result in the CRC register;3. check the lowest bit by shifting the contents of the register one bit to the right (towards the lower bit) and filling the highest bit with a 0;4. if the lowest bit is 0: repeat step 3 (shift again) if the lowest bit is 1: the CRC register is iso-orthogonal to the polynomial A001 (1010 0000 0000 0001);5. Repeat steps 3 and 4 until it is shifted right 8 times so that the entire 8-bit data is all processed;6. repeating steps 2 through 5 for the next 8-bit data;7. The last CRC register obtained is the CRC code (the CRC code obtained is low before high). .wang-edit-text{ font-family:'Arial' !important; } .wang-edit-text table {