Technical Parameters
|
Technical parameter |
Parameter value |
|
Brand |
XUNCHIP |
|
Moisture measuring range |
0~100% |
|
Moisture measuring accuracy |
±3% @25℃ |
|
Moisture Temperature range |
-30℃~80℃ |
|
Moisture Temperature accuracy |
±0.5℃ @25℃ |
|
Interface |
RS485/4-20mA/DC0-5V/DC0-10V |
|
Power |
DC12~24V 1A |
|
Running temperature |
-30~85℃ |
|
Working humidity |
5%RH~90%RH |
Product Selection
Product DesignRS485,4-20mA,DC0-5V,DC0-10VMultiple output methods, the products are divided into the following models depending on the output method.
|
Product model |
output method |
|
XM3005B |
RS485总线 |
|
XM3005M |
4-20mA |
|
XM3005V5 |
DC0-5V |
|
XM3005V10 |
DC0-10V |
Product Size
software to test
How to use software?
Why choose this product?
How to use?
Application solution
Product List
Communication Protocol
The product uses RS485 MODBUS-RTU standard protocol format, all operation or reply commands are hexadecimal data. The default device address is 1 when the device leaves the factory, and the module or NON-Recorder default baud rate is 9600,8,n,1 ,but data recorder default baud rate is 115200 .
1. Read data (function code 0x03)
Inquiry frame (hexadecimal), sending example: query 1 data of 1# device, the upper computer sends the command: 01 03 00 00 00 02 C4 0B .
|
Address |
Function Code |
Start Address |
Data Length |
Check Code |
|
01 |
03 |
00 00 |
00 02 |
C4 0B |
For the correct query frame, the device will respond with data: 01 03 04 00 7A 00 00 DB EA , response format:
|
Address |
Function Code |
Length |
Data 1 |
Data 2 |
Check Code |
|
01 |
03 |
04 |
00 79 |
00 7A |
DB EA |
Data description: The data in the command is hexadecimal, take data 1 as an example, 00 79 is converted to decimal value as 121, assuming the data magnification is 100, then the real value is 121/100=1.21, Others and so on.
2. Common data address table
|
Configuration Address |
Register Address |
Register Description |
Data Type |
Value Range |
|
40001 |
00 00 |
soil Moisture |
Read Only |
0~65535 |
|
40002 |
00 01 |
soil temperature |
Read Only |
0~65535 |
|
40101 |
00 64 |
Model Code |
Read/Write |
0~65535 |
|
40102 |
00 65 |
total number of measuring points |
read/write |
1~20 |
|
40103 |
00 66 |
device address |
read/write |
1~249 |
|
40104 |
00 67 |
baud rate |
read/write |
0~6 |
|
40105 |
00 68 |
communication mode |
read/write |
1~4 |
|
40106 |
00 69 |
protocol type |
read/write |
1~10 |
1. soil Moisture and current computing relationship
For example, the range is 0~100%, the analog output is 4~20mA current signal, soil Moisture and current The calculation relationship is as shown in the formula: C = (A2-A1) * (X-B1) / (B2-B1) + A1, where A2 is soil Moisture range upper limit, A1 is the lower limit of the range, B2 is current output range upper limit, B1 is the lower limit, X is the currently read soil Moisture value, and C is the calculated current value. The list of commonly used values is as follows:
|
current(mA) |
soil MoistureValue (%) |
Calculation Process |
|
4 |
0.0 |
(100-0)*(4-4)÷(20-4)+0 |
|
5 |
6.3 |
(100-0)*(5-4)÷(20-4)+0 |
|
6 |
12.5 |
(100-0)*(6-4)÷(20-4)+0 |
|
7 |
18.8 |
(100-0)*(7-4)÷(20-4)+0 |
|
8 |
25.0 |
(100-0)*(8-4)÷(20-4)+0 |
|
9 |
31.3 |
(100-0)*(9-4)÷(20-4)+0 |
|
10 |
37.5 |
(100-0)*(10-4)÷(20-4)+0 |
|
11 |
43.8 |
(100-0)*(11-4)÷(20-4)+0 |
|
12 |
50.0 |
(100-0)*(12-4)÷(20-4)+0 |
|
13 |
56.3 |
(100-0)*(13-4)÷(20-4)+0 |
|
14 |
62.5 |
(100-0)*(14-4)÷(20-4)+0 |
|
15 |
68.8 |
(100-0)*(15-4)÷(20-4)+0 |
|
16 |
75.0 |
(100-0)*(16-4)÷(20-4)+0 |
|
17 |
81.3 |
(100-0)*(17-4)÷(20-4)+0 |
|
18 |
87.5 |
(100-0)*(18-4)÷(20-4)+0 |
|
19 |
93.8 |
(100-0)*(19-4)÷(20-4)+0 |
|
20 |
100.0 |
(100-0)*(20-4)÷(20-4)+0 |
As shown in the above formula, when measuring 8mA, current current is 29%。
2. temperature and current computing relationship
For example, the range is -30~80℃, the analog output is 4~20mA current signal, temperature and current The calculation relationship is as shown in the formula: C = (A2-A1) * (X-B1) / (B2-B1) + A1, where A2 is temperature range upper limit, A1 is the lower limit of the range, B2 is current output range upper limit, B1 is the lower limit, X is the currently read temperature value, and C is the calculated current value. The list of commonly used values is as follows:
|
current(mA) |
temperatureValue (℃) |
Calculation Process |
|
4 |
-30 |
(80-(-30))*(4-4)÷(20-4)+-30 |
|
5 |
-23.125 |
(80-(-30))*(5-4)÷(20-4)+-30 |
|
6 |
-16.25 |
(80-(-30))*(6-4)÷(20-4)+-30 |
|
7 |
-9.375 |
(80-(-30))*(7-4)÷(20-4)+-30 |
|
8 |
-2.5 |
(80-(-30))*(8-4)÷(20-4)+-30 |
|
9 |
4.375 |
(80-(-30))*(9-4)÷(20-4)+-30 |
|
10 |
11.25 |
(80-(-30))*(10-4)÷(20-4)+-30 |
|
11 |
18.125 |
(80-(-30))*(11-4)÷(20-4)+-30 |
|
12 |
25 |
(80-(-30))*(12-4)÷(20-4)+-30 |
|
13 |
31.875 |
(80-(-30))*(13-4)÷(20-4)+-30 |
|
14 |
38.75 |
(80-(-30))*(14-4)÷(20-4)+-30 |
|
15 |
45.625 |
(80-(-30))*(15-4)÷(20-4)+-30 |
|
16 |
52.5 |
(80-(-30))*(16-4)÷(20-4)+-30 |
|
17 |
59.375 |
(80-(-30))*(17-4)÷(20-4)+-30 |
|
18 |
66.25 |
(80-(-30))*(18-4)÷(20-4)+-30 |
|
19 |
73.125 |
(80-(-30))*(19-4)÷(20-4)+-30 |
|
20 |
80 |
(80-(-30))*(20-4)÷(20-4)+-30 |
As shown in the above formula, when measuring 8mA, current current is 31.5℃。
1. soil Moisture and DC0-5Vvoltage computing relationship
For example, the range is 0~100%, the analog output is 0~5V DC0-5Vvoltage signal, soil Moisture and DC0-5Vvoltage The calculation relationship is as shown in the formula: C = (A2-A1) * (X-B1) / (B2-B1) + A1, where A2 is soil Moisture range upper limit, A1 is the lower limit of the range, B2 is DC0-5Vvoltage output range upper limit, B1 is the lower limit, X is the currently read soil Moisture value, and C is the calculated DC0-5Vvoltage value. The list of commonly used values is as follows:
|
DC0-5Vvoltage(V) |
soil MoistureValue (%) |
Calculation Process |
|
0 |
0.0 |
(100-0)*(0-0)÷(5-0)+0 |
|
1 |
20.0 |
(100-0)*(1-0)÷(5-0)+0 |
|
2 |
40.0 |
(100-0)*(2-0)÷(5-0)+0 |
|
3 |
60.0 |
(100-0)*(3-0)÷(5-0)+0 |
|
4 |
80.0 |
(100-0)*(4-0)÷(5-0)+0 |
|
5 |
100.0 |
(100-0)*(5-0)÷(5-0)+0 |
As shown in the above formula, when measuring 2.5V, current DC0-5Vvoltage is 50%。
2. temperature and DC0-5Vvoltage computing relationship
For example, the range is -30~80℃, the analog output is 0~5V DC0-5Vvoltage signal, temperature and DC0-5Vvoltage The calculation relationship is as shown in the formula: C = (A2-A1) * (X-B1) / (B2-B1) + A1, where A2 is temperature range upper limit, A1 is the lower limit of the range, B2 is DC0-5Vvoltage output range upper limit, B1 is the lower limit, X is the currently read temperature value, and C is the calculated DC0-5Vvoltage value. The list of commonly used values is as follows:
|
DC0-5Vvoltage(V) |
temperatureValue (℃) |
Calculation Process |
|
0 |
-30 |
(80-(-30))*(0-0)÷(5-0)+-30 |
|
1 |
-8 |
(80-(-30))*(1-0)÷(5-0)+-30 |
|
2 |
14 |
(80-(-30))*(2-0)÷(5-0)+-30 |
|
3 |
36 |
(80-(-30))*(3-0)÷(5-0)+-30 |
|
4 |
58 |
(80-(-30))*(4-0)÷(5-0)+-30 |
|
5 |
80 |
(80-(-30))*(5-0)÷(5-0)+-30 |
As shown in the above formula, when measuring 2.5V, current DC0-5Vvoltage is 55℃。
1. soil Moisture and DC0-10Vvoltage computing relationship
For example, the range is 0~100%, the analog output is 0~10V DC0-10Vvoltage signal, soil Moisture and DC0-10Vvoltage The calculation relationship is as shown in the formula: C = (A2-A1) * (X-B1) / (B2-B1) + A1, where A2 is soil Moisture range upper limit, A1 is the lower limit of the range, B2 is DC0-10Vvoltage output range upper limit, B1 is the lower limit, X is the currently read soil Moisture value, and C is the calculated DC0-10Vvoltage value. The list of commonly used values is as follows:
|
DC0-10Vvoltage(V) |
soil MoistureValue (%) |
Calculation Process |
|
0 |
0.0 |
(100-0)*(0-0)÷(10-0)+0 |
|
1 |
10.0 |
(100-0)*(1-0)÷(10-0)+0 |
|
2 |
20.0 |
(100-0)*(2-0)÷(10-0)+0 |
|
3 |
30.0 |
(100-0)*(3-0)÷(10-0)+0 |
|
4 |
40.0 |
(100-0)*(4-0)÷(10-0)+0 |
|
5 |
50.0 |
(100-0)*(5-0)÷(10-0)+0 |
|
6 |
60.0 |
(100-0)*(6-0)÷(10-0)+0 |
|
7 |
70.0 |
(100-0)*(7-0)÷(10-0)+0 |
|
8 |
80.0 |
(100-0)*(8-0)÷(10-0)+0 |
|
9 |
90.0 |
(100-0)*(9-0)÷(10-0)+0 |
|
10 |
100.0 |
(100-0)*(10-0)÷(10-0)+0 |
As shown in the above formula, when measuring 5V, current DC0-10Vvoltage is 50%。
2. temperature and DC0-10Vvoltage computing relationship
For example, the range is -30~80℃, the analog output is 0~10V DC0-10Vvoltage signal, temperature and DC0-10Vvoltage The calculation relationship is as shown in the formula: C = (A2-A1) * (X-B1) / (B2-B1) + A1, where A2 is temperature range upper limit, A1 is the lower limit of the range, B2 is DC0-10Vvoltage output range upper limit, B1 is the lower limit, X is the currently read temperature value, and C is the calculated DC0-10Vvoltage value. The list of commonly used values is as follows:
|
DC0-10Vvoltage(V) |
temperatureValue (℃) |
Calculation Process |
|
0 |
-30 |
(80-(-30))*(0-0)÷(10-0)+-30 |
|
1 |
-19 |
(80-(-30))*(1-0)÷(10-0)+-30 |
|
2 |
-8 |
(80-(-30))*(2-0)÷(10-0)+-30 |
|
3 |
3 |
(80-(-30))*(3-0)÷(10-0)+-30 |
|
4 |
14 |
(80-(-30))*(4-0)÷(10-0)+-30 |
|
5 |
25 |
(80-(-30))*(5-0)÷(10-0)+-30 |
|
6 |
36 |
(80-(-30))*(6-0)÷(10-0)+-30 |
|
7 |
47 |
(80-(-30))*(7-0)÷(10-0)+-30 |
|
8 |
58 |
(80-(-30))*(8-0)÷(10-0)+-30 |
|
9 |
69 |
(80-(-30))*(9-0)÷(10-0)+-30 |
|
10 |
80 |
(80-(-30))*(10-0)÷(10-0)+-30 |
As shown in the above formula, when measuring 5V, current DC0-10Vvoltage is 55℃。