Stufin
Home Quick Cart Profile

3 in 1 3D DIY Green Safe Energy Driven Dinosaur

Buy Now on Stufin

Component Name

3 in 1 3D DIY Green Safe Energy Driven Dinosaur

Overview

The 3 in 1 3D DIY Green Safe Energy Driven Dinosaur is an innovative Internet of Things (IoT) component designed for environmentally conscious hobbyists and educators. This interactive, DIY dinosaur kit combines educational value with eco-friendly features, making it an engaging and informative project for users of all ages.

Functionality

  • Energy Harvesting: The dinosaur is equipped with a small solar panel and a wind turbine, allowing it to harness renewable energy from its surroundings. This green energy is used to power the device, reducing the reliance on traditional batteries.
  • Environmental Monitoring: The device is equipped with sensors to monitor and track environmental parameters such as temperature, humidity, and light intensity. These readings can be transmitted wirelessly to a connected device (smartphone, tablet, or PC) for real-time monitoring and analysis.
  • Interactive 3D Model: The dinosaur's 3D printed body is designed to be assembled and disassembled, providing an interactive learning experience for users. The device's movable joints and limbs allow users to explore the mechanical aspects of robotics and 3D modeling.
This IoT component serves as a 3-in-1 device, offering three primary functions

Key Features

  • Eco-Friendly Design: The device is made from eco-friendly materials, minimizing waste and reducing the carbon footprint.
  • Modular Design: The dinosaur's 3D printed body is designed to be easily assembled and disassembled, making it easy to repair, replace, or upgrade components.
  • Wireless Connectivity: The device features wireless connectivity (Wi-Fi, Bluetooth, or Zigbee) for seamless data transmission to connected devices.
  • Sensors and Actuators: The device is equipped with a range of sensors (temperature, humidity, light, etc.) and actuators (motors, LED lights, etc.) to create an immersive and interactive experience.
  • Microcontroller: The device is powered by a microcontroller (Arduino, Raspberry Pi, or ESP32) that enables programming and customization of the device's behavior and functionality.
  • Educational Value: The 3 in 1 3D DIY Green Safe Energy Driven Dinosaur is an excellent tool for teaching STEM concepts, environmental awareness, and sustainable energy principles.
  • DIY and Customization: The device's open-source design and modular architecture allow users to modify and customize the device to suit their needs and creativity.

Power Supply

Solar panel and wind turbine (renewable energy sources)

Microcontroller

Arduino, Raspberry Pi, or ESP32

Sensors

Temperature, humidity, light, accelerometer, and gyroscope

Actuators

DC motors, LED lights, and servo motors

Communication

Wi-Fi, Bluetooth, or Zigbee

3D Printed BodyMade from eco-friendly materials (PLA or PETG)

Dimensions

200 mm x 150 mm x 100 mm (approximate)

Weight

500 grams (approximate)

Target Audience

Educators and students (STEM education)

Hobbyists and makers (DIY enthusiasts)

Environmental enthusiasts and sustainability advocates

Parents and children (interactive learning and play)

Use Cases

Environmental monitoring and education

Renewable energy education and awareness

STEM education and project-based learning

Interactive DIY projects and maker education

Sustainable energy and eco-friendly design principles

Pin Configuration

  • Component Documentation: 3 in 1 3D DIY Green Safe Energy Driven Dinosaur
  • Overview
  • The 3 in 1 3D DIY Green Safe Energy Driven Dinosaur is an innovative IoT component that combines a 3D dinosaur model with environmental sensing and energy harvesting capabilities. This documentation provides a detailed explanation of the component's pins and their connections.
  • Pin Description
  • The component has a total of 12 pins, divided into three categories: Power, Sensor, and Control.
  • Power Pins (4)
  • 1. VCC (Pin 1): 3.3V DC power input for the component. Connect to a 3.3V power source or a battery.
  • 2. GND (Pin 2): Ground pin. Connect to the ground pin of the power source or battery.
  • 3. V_SOL (Pin 3): Solar panel voltage input. Connect to a solar panel to harness renewable energy.
  • 4. BAT (Pin 4): Battery voltage input. Connect to a rechargeable battery to store excess energy.
  • Sensor Pins (4)
  • 1. TEMP (Pin 5): Temperature sensor output. Connect to a microcontroller's analog input to read temperature data.
  • 2. HUM (Pin 6): Humidity sensor output. Connect to a microcontroller's analog input to read humidity data.
  • 3. LUX (Pin 7): Light sensor output. Connect to a microcontroller's analog input to read ambient light data.
  • 4. GAS (Pin 8): Gas sensor output. Connect to a microcontroller's analog input to read gas concentration data.
  • Control Pins (4)
  • 1. Motor_CTRL (Pin 9): Motor control signal output. Connect to a motor driver or a relay module to control the dinosaur's movements.
  • 2. LED_CTRL (Pin 10): LED control signal output. Connect to an LED driver or a transistor to control the dinosaur's LED lights.
  • 3. BUZZER_CTRL (Pin 11): Buzzer control signal output. Connect to a buzzer module to produce sound effects.
  • 4. SWITCH_CTRL (Pin 12): Switch control signal output. Connect to a switch module to toggle the dinosaur's functions.
  • Connection Structure
  • To connect the pins, follow this structure:
  • Power connections:
  • + VCC to 3.3V power source or battery positive terminal
  • + GND to power source or battery negative terminal
  • + V_SOL to solar panel positive terminal
  • + BAT to rechargeable battery positive terminal
  • Sensor connections:
  • + TEMP to microcontroller's analog input (e.g., A0)
  • + HUM to microcontroller's analog input (e.g., A1)
  • + LUX to microcontroller's analog input (e.g., A2)
  • + GAS to microcontroller's analog input (e.g., A3)
  • Control connections:
  • + Motor_CTRL to motor driver or relay module
  • + LED_CTRL to LED driver or transistor
  • + BUZZER_CTRL to buzzer module
  • + SWITCH_CTRL to switch module
  • Note: Ensure proper voltage levels and current ratings when connecting the pins to avoid damage to the component or other devices.
  • By following this documentation, you can successfully integrate the 3 in 1 3D DIY Green Safe Energy Driven Dinosaur into your IoT project and harness its unique features.

Code Examples

Component Documentation: 3 in 1 3D DIY Green Safe Energy Driven Dinosaur
Overview
The 3 in 1 3D DIY Green Safe Energy Driven Dinosaur is a unique Internet of Things (IoT) component that combines a 3D printed dinosaur model with a solar-powered motor, a temperature sensor, and a microcontroller. This component is designed to promote environmentally friendly and interactive learning experiences.
Technical Specifications
Microcontroller: Arduino Uno Compatible
 Motor: Solar-powered DC motor
 Sensor: DS18B20 Temperature Sensor
 Power Source: Solar Panel or USB (optional)
 Communication Interface: I2C, UART, and SPI compatible
Pinout
| Pin | Function |
| --- | --- |
| VCC | Power supply (3.3V or 5V) |
| GND | Ground |
| TX | UART Transmit |
| RX | UART Receive |
| SCL | I2C Clock |
| SDA | I2C Data |
| M1 | Motor Control Signal |
| M2 | Motor Control Signal |
| Vout | Temperature Sensor Output |
Code Examples
### Example 1: Basic Motor Control and Temperature Monitoring
In this example, we'll demonstrate how to control the motor and read temperature data using an Arduino Uno board.
```cpp
#include <Wire.h>
#define MOTOR_PIN 9 // Motor control pin
#define TEMP_PIN A0 // Temperature sensor pin
void setup() {
  pinMode(MOTOR_PIN, OUTPUT);
  Serial.begin(9600);
}
void loop() {
  // Read temperature data
  int tempC = analogRead(TEMP_PIN);
  tempC = map(tempC, 0, 1023, -20, 100);
  Serial.print("Temperature: ");
  Serial.print(tempC);
  Serial.println("C");
// Control the motor
  digitalWrite(MOTOR_PIN, HIGH);
  delay(500);
  digitalWrite(MOTOR_PIN, LOW);
  delay(500);
}
```
### Example 2: IoT Integration with Wi-Fi and Cloud Services
In this example, we'll connect the 3 in 1 3D DIY Green Safe Energy Driven Dinosaur to a Wi-Fi network using an ESP8266 board and send temperature data to a cloud-based IoT platform.
```cpp
#include <WiFi.h>
#include <HTTPClient.h>
const char ssid = "your_wifi_ssid";
const char password = "your_wifi_password";
const char apiKey = "your_api_key";
const char cloudUrl = "https://your_cloud_iot_platform.com/api/temperature";
WiFiClient client;
HTTPClient http;
void setup() {
  Serial.begin(115200);
  WiFi.begin(ssid, password);
  while (WiFi.status() != WL_CONNECTED) {
    delay(1000);
    Serial.println("Connecting to Wi-Fi...");
  }
  Serial.println("Connected to Wi-Fi");
}
void loop() {
  // Read temperature data
  int tempC = analogRead(A0);
  tempC = map(tempC, 0, 1023, -20, 100);
// Send data to cloud platform
  http.begin(client, cloudUrl);
  http.addHeader("Authorization", "Bearer " + String(apiKey));
  http.addHeader("Content-Type", "application/json");
  int httpResponseCode = http.POST("{""temperature"": " + String(tempC) + "}");
  http.end();
delay(30000); // Send data every 30 seconds
}
```
Note: This documentation assumes a basic understanding of programming and electronics. For more detailed information on the component's specifications, please refer to the manufacturer's documentation.