Enviro Battery Kit for Apples, Tomatoes, and Lemons
Enviro Battery Kit for Apples, Tomatoes, and Lemons
The Enviro Battery Kit for Apples, Tomatoes, and Lemons is a specialized Internet of Things (IoT) component designed to monitor and optimize the growth of these specific fruits and vegetables. This kit combines advanced sensor technology with a compact, easy-to-use design to provide farmers, gardeners, and enthusiasts with real-time insights into their crops' environmental conditions.
The Enviro Battery Kit is a self-contained unit that tracks and measures various environmental parameters crucial for healthy fruit and vegetable growth. The kit consists of a compact battery-powered device equipped with multiple sensors, a microcontroller, and wireless communication capabilities.
| The kit's primary function is to monitor and report on the following parameters |
-20C to 40C
10mA (average), 50mA (peak)
Rechargeable Li-ion (3.7V, 1000mAh)
BLE (Bluetooth 5.0), Wi-Fi (2.4GHz)
| + Temperature | 0.5C |
| + Humidity | 5% |
| + Soil Moisture | 5% |
| + Light Intensity | 10% |
| + pH Levels | 0.1 pH units |
CE (Europe)
FCC (USA)
RoHS and WEEE compliant
By providing real-time environmental insights, the Enviro Battery Kit for Apples, Tomatoes, and Lemons empowers growers to make data-driven decisions, optimizing their crops' growth and yields while reducing waste and environmental impact.
Component Documentation: Enviro Battery Kit for Apples, Tomatoes, and LemonsOverviewThe Enviro Battery Kit for Apples, Tomatoes, and Lemons is a wireless battery-powered monitoring solution designed specifically for monitoring environmental conditions in orchards and greenhouses. This kit includes a battery-powered sensor node that can be attached to the stem of an apple, tomato, or lemon plant, and a gateway that connects to the internet via Wi-Fi or Ethernet. The kit measures temperature, humidity, and soil moisture, providing valuable insights for optimized crop growth and disease prevention.Technical SpecificationsSensor Node:
+ Dimensions: 2.5 cm x 2.5 cm x 5 cm
+ Weight: 20 grams
+ Power: Rechargeable lithium-ion battery (up to 2 years battery life)
+ Communication: LoRaWAN (868/915 MHz) or Bluetooth 5.0
+ Sensors:
- Temperature: -20C to 50C (0.5C accuracy)
- Humidity: 0-100% RH (3% accuracy)
- Soil Moisture: 0-100% (5% accuracy)
Gateway:
+ Dimensions: 10 cm x 10 cm x 5 cm
+ Weight: 100 grams
+ Power: Power adapter (5V, 1A) or PoE
+ Communication: Wi-Fi (2.4 GHz), Ethernet (RJ-45)
+ Connectivity: Up to 100 sensor nodesCode Examples### Example 1: LoRaWAN Connection and Data Upload using PythonThis example demonstrates how to connect the Enviro Battery Kit to a LoRaWAN network and upload data to a cloud-based IoT platform using Python.
```python
import os
import time
from lorawan import LoRaWAN
from enviro_battery_kit import EnviroBatteryKit# Initialize the Enviro Battery Kit
kit = EnviroBatteryKit()# Initialize the LoRaWAN connection
lora = LoRaWAN(
dev_eui='your_device_eui',
app_eui='your_app_eui',
app_key='your_app_key'
)# Connect to the LoRaWAN network
lora.connect()while True:
# Read sensor data
temp, hum, soil_moist = kit.read_sensors()# Create a data packet
packet = {'temperature': temp, 'humidity': hum, 'soil_moisture': soil_moist}# Send the data packet over LoRaWAN
lora.send(packet)# Wait for 10 minutes before sending the next packet
time.sleep(600)
```
### Example 2: Bluetooth 5.0 Connection and Real-time Data Streaming using C++This example demonstrates how to connect the Enviro Battery Kit to a mobile device via Bluetooth 5.0 and stream real-time environmental data using C++.
```cpp
#include <iostream>
#include <BluetoothHCI.h>
#include <EnviroBatteryKit.h>// Initialize the Enviro Battery Kit
EnviroBatteryKit kit;// Initialize the Bluetooth connection
BluetoothHCI bt;int main() {
// Connect to the Enviro Battery Kit via Bluetooth
bt.connect("EnviroBatteryKit-XXXX");while (true) {
// Read sensor data
float temp, hum, soil_moist;
kit.read_sensors(&temp, &hum, &soil_moist);// Print real-time data to the console
std::cout << "Temperature: " << temp << "C, Humidity: " << hum << "%, Soil Moisture: " << soil_moist << "%" << std::endl;// Wait for 1 second before reading the next set of data
std::this_thread::sleep_for(std::chrono::seconds(1));
}return 0;
}
```
### Example 3: MQTT-Based Data Publishing using Node.jsThis example demonstrates how to connect the Enviro Battery Kit to an MQTT broker and publish environmental data to a topic using Node.js.
```javascript
const mqtt = require('mqtt');
const EnviroBatteryKit = require('enviro-battery-kit');// Initialize the Enviro Battery Kit
const kit = new EnviroBatteryKit();// Initialize the MQTT client
const client = mqtt.connect('mqtt://your_mqtt_broker:1883');client.on('connect', () => {
console.log('Connected to the MQTT broker');// Publish data to the MQTT topic every 5 minutes
setInterval(() => {
const temp = kit.readTemperature();
const hum = kit.readHumidity();
const soilMoist = kit.readSoilMoisture();const payloads = [
{ topic: 'enviro/temp', payload: temp.toString() },
{ topic: 'enviro/hum', payload: hum.toString() },
{ topic: 'enviro/soil_moist', payload: soilMoist.toString() }
];client.publish(payloads);
}, 300000); // 5 minutes
});
```
These code examples demonstrate how to integrate the Enviro Battery Kit with various communication protocols and IoT platforms, enabling users to monitor and analyze environmental conditions in real-time.