easylearn.ing
Easy Learning with Arduino Power Consumption
IT & Software > Hardware
3 h
£24.99 £12.99
3.9 ★★★★★
6185 students

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Language: English

Mastering Arduino Low-Power Design: Techniques & Circuits

What you will learn:

  • Low-power Arduino libraries
  • Deep sleep mode
  • Clock speed optimization
  • Component selection for low power
  • Voltage supply optimization
  • Building a low-power Arduino board
  • External timer integration
  • Advanced power-saving techniques
  • Timer circuit for power reduction
  • Solar-powered battery charger design
  • Sensor-based power management

Description

Unlock the secrets to maximizing your Arduino's battery life! This comprehensive course delves into the intricacies of Arduino power management, equipping you with advanced techniques and practical circuits to drastically reduce energy consumption.

Learn to make informed decisions about powering your projects, selecting the right board, and optimizing your code using sleep modes and low-power libraries. Master hardware integration, including batteries, solar panels, capacitors, resistors, and voltage regulators, to create efficient, sustainable designs. Arduino's built-in power management features will be leveraged, and you won't need extra hardware or software for monitoring.

We'll explore Arduino's internal architecture, understanding how its various components (USB converters, regulators, etc.) impact power draw. The course then transitions to practical strategies for minimizing power consumption, including:

  • Hardware Optimization: Learn to select and utilize low-power components, replace energy-hungry elements, and modify circuitry for improved efficiency.
  • Software Optimization: Master advanced coding techniques such as deep sleep modes, clock speed adjustments, and the effective use of low-power libraries to dramatically cut down on energy usage.
  • External Circuit Design: Design and implement simple to advanced external circuits to precisely control power flow, maximizing battery life and system efficiency. These techniques are not limited to Arduino and can be applied to various microcontroller projects.
  • Real-World Applications: Construct a solar-powered battery charger and a sensor-based power management circuit to enhance the sustainability and responsiveness of your projects.

This course isn't just about theory; it's about hands-on learning. You'll build circuits, analyze data, and put your new knowledge to the test through practical exercises and a challenging final project. From beginner to advanced Arduino users, anyone eager to extend the run-time of their projects will greatly benefit from this detailed training.

By the end of this course, you'll be confident in designing, building, and deploying power-efficient Arduino projects!

Curriculum

Introduction

This introductory section begins with a course overview ('Introduction', 4:30) and an introduction to the Educational Engineering Team ('Who We Are?', 5:23).

Important Note: Review System

A brief overview of the course's review system ('Important Note: Review System', 0:46).

Hardware and Software Requirements

Here you will learn how to download and install the necessary software; Arduino IDE ('Download and Install Arduino IDE', 9:23) and Proteus Software ('Download and Install Proteus Software', 11:00).

Lower Voltage Supply

This section focuses on the impact of lower voltage supplies on power consumption ('Lower Voltage Supply', 1:57).

Power Consuming Components

This section describes how to identify and replace or remove power-consuming components in your Arduino ('Replace or Remove Power Consuming Components', 4:21).

Wake Up Modes

Learn about Arduino wake-up modes, covering interrupt ('Arduino Interrupt Wake Up Mode', 14:04) and timed wake-up modes ('Arduino Timed Wake Up Mode', 6:09).

External Timer

This section delves into using an external timer to reduce power consumption ('Reduce Power Consumption using External Timer', 17:22).

Deep Sleep

Learn to utilize deep sleep mode for significant power savings ('Deep Sleep Mode', 6:04).

Solar Powered Arduino

This section covers designing a solar-powered Arduino system ('Solar Powered Arduino', 5:35).

Sensor Based Board Control

Learn how to implement sensor-based control for power optimization ('Sensor Based Board Control', 8:07).

Lowering Arduino Clock Speed

This section explores how lowering the Arduino clock speed affects power consumption ('Lowering Arduino Clock Speed', 11:13).

Other Power Reduction Options

A summary of other power reduction techniques ('Other Power Reduction Options', 2:40).

Make Arduino Board at Home Step by Step Guide

A comprehensive guide on building your own Arduino board, covering all stages from introduction and parts selection to final assembly and bootloader installation. This detailed process includes lectures on basic parts requirements, wiring the power supply, understanding ATMEGA components, connections and programming the bootloader ('Introduction', 2:17; 'Basic Parts Requirements', 2:26; 'Parts needed to get the job done', 2:33; 'Wire up a power supply', 5:03; 'ATMEGA Introduction', 2:47; 'ATMEGA Connection', 7:09; 'Arduino Ready', 4:31; 'Boot loading your chips optional', 6:15; 'Finish up and burn the boot loader', 5:45; 'The End', 0:50).

Practice Test

A knowledge check to assess your understanding ('Mastering Arduino Power Optimization – Knowledge Check', 10 questions).

Course Project

A final project to solidify your skills ('Course Project', 3:18).

Bonus Lecture: Gifts, Coupons, and More.

Bonus content including additional resources ('Bonus Lecture', 30:29).