IoT-enabled energy meters track the car's energy usage, allowing users to optimize their driving habits and reduce energy waste.
IoT-enabled energy meters track the car's energy usage, allowing users to optimize their driving habits and reduce energy waste.
Sensors monitor the car's speed, acceleration, and braking performance, providing valuable insights for maintenance and optimization.
IoT-enabled climate control systems ensure a comfortable driving experience, adjusting temperature and air quality in real-time.
Advanced safety features, such as obstacle detection and collision avoidance systems, are integrated into the car's IoT framework.
Key Features
Technical Specifications
20 kW, 3-phase AC induction motor
30 kWh, lithium-ion battery pack
Up to 100 miles (160 km) on a single charge
60 mph (97 km/h)
12 ft (3.65 m) length, 5 ft (1.52 m) width, 4 ft (1.22 m) height
1,500 lbs (680 kg)
Safety Features
Dual front airbags, side airbags, and curtain airbags
| Anti-lock Braking System (ABS) | Advanced ABS system for improved stopping power |
| Electronic Stability Control (ESC) | ESC system for enhanced vehicle stability |
Warranty and Support
| The DIY Technology Powered Electric Car comes with a 1-year limited warranty on all components and a comprehensive support package, including |
Access to a dedicated online community, tutorials, and documentation
Phone and email support from experienced engineers and technicians
Regular software updates to ensure the car's IoT components remain up-to-date and secure
DIY Technology Powered Electric Car Component DocumentationOverviewThe DIY Technology Powered Electric Car component is a modular, open-source electric vehicle platform designed for enthusiasts and developers. It allows users to build and customize their own electric cars using various sensors, microcontrollers, and actuators. This component is ideal for prototyping, proof-of-concept development, and educational projects.Hardware ComponentsElectric motor
Battery management system (BMS)
Motor controller
Power distribution board (PDB)
Sensors (temperature, voltage, current)
Microcontrollers (e.g., Arduino, Raspberry Pi)Software ComponentsCustomizable firmware for motor control and sensor integration
APIs for remote monitoring and control
Mobile app for vehicle tracking and diagnosticsCode Examples### Example 1: Basic Motor Control using ArduinoThis example demonstrates how to control the electric motor using an Arduino microcontroller.Arduino Code:
```c++
#include <MotorController.h>// Define motor pins
const int motorIn1 = 2;
const int motorIn2 = 3;
const int motorEn = 9;// Create a MotorController object
MotorController motor(motorIn1, motorIn2, motorEn);void setup() {
// Initialize motor pins as outputs
pinMode(motorIn1, OUTPUT);
pinMode(motorIn2, OUTPUT);
pinMode(motorEn, OUTPUT);
}void loop() {
// Set motor speed to 50%
motor.setSpeed(50);
delay(1000);
// Change motor direction
motor.setDirection(MOTOR_DIRECTION_REVERSE);
delay(1000);
// Stop the motor
motor.stop();
delay(1000);
}
```
### Example 2: Remote Monitoring using Raspberry Pi and PythonThis example demonstrates how to use a Raspberry Pi to monitor the vehicle's state (e.g., battery level, temperature, and motor speed) remotely using Python and the component's API.Python Code:
```python
import requests
import json# Set API endpoint and authentication credentials
api_endpoint = "http://localhost:8080/api"
username = "admin"
password = "password"# Authenticate and get token
response = requests.post(api_endpoint + "/login", auth=(username, password))
token = json.loads(response.content)['token']# Get vehicle status
headers = {"Authorization": "Bearer " + token}
response = requests.get(api_endpoint + "/vehicle/status", headers=headers)
vehicle_status = json.loads(response.content)# Print vehicle status
print("Battery Level:", vehicle_status['battery_level'])
print("Temperature:", vehicle_status['temperature'])
print("Motor Speed:", vehicle_status['motor_speed'])
```
### Example 3: Mobile App Integration using React NativeThis example demonstrates how to integrate the DIY Technology Powered Electric Car component with a React Native mobile app to track the vehicle's location and receive notifications.React Native Code:
```javascript
import React, { useState, useEffect } from 'react';
import { View, Text, StyleSheet } from 'react-native';
import {MapView} from 'react-native-maps';// Import API client
import ApiClient from './ApiClient';const App = () => {
const [vehicleLocation, setVehicleLocation] = useState(null);useEffect(() => {
// Initialize API client
const apiClient = new ApiClient('https://api.example.com');// Get vehicle location
apiClient.getVehicleLocation().then((location) => {
setVehicleLocation(location);
});// Set up push notifications
apiClient.subscribeToNotifications().then((subscription) => {
console.log('Subscribed to notifications:', subscription);
});
}, []);return (
<View style={styles.container}>
{vehicleLocation ? (
<MapView
style={styles.map}
region={{
latitude: vehicleLocation.latitude,
longitude: vehicleLocation.longitude,
latitudeDelta: 0.01,
longitudeDelta: 0.01,
}}
>
<MapView.Marker
coordinate={vehicleLocation}
title="Vehicle Location"
/>
</MapView>
) : (
<Text>Loading...</Text>
)}
</View>
);
};const styles = StyleSheet.create({
container: {
flex: 1,
justifyContent: 'center',
alignItems: 'center',
backgroundColor: '#F5FCFF',
},
map: {
flex: 1,
},
});
```
These examples demonstrate the versatility of the DIY Technology Powered Electric Car component and its potential applications in various contexts.