Book Image

Artificial Intelligence for IoT Cookbook

By : Michael Roshak
Book Image

Artificial Intelligence for IoT Cookbook

By: Michael Roshak

Overview of this book

Artificial intelligence (AI) is rapidly finding practical applications across a wide variety of industry verticals, and the Internet of Things (IoT) is one of them. Developers are looking for ways to make IoT devices smarter and to make users’ lives easier. With this AI cookbook, you’ll be able to implement smart analytics using IoT data to gain insights, predict outcomes, and make informed decisions, along with covering advanced AI techniques that facilitate analytics and learning in various IoT applications. Using a recipe-based approach, the book will take you through essential processes such as data collection, data analysis, modeling, statistics and monitoring, and deployment. You’ll use real-life datasets from smart homes, industrial IoT, and smart devices to train and evaluate simple to complex models and make predictions using trained models. Later chapters will take you through the key challenges faced while implementing machine learning, deep learning, and other AI techniques, such as natural language processing (NLP), computer vision, and embedded machine learning for building smart IoT systems. In addition to this, you’ll learn how to deploy models and improve their performance with ease. By the end of this book, you’ll be able to package and deploy end-to-end AI apps and apply best practice solutions to common IoT problems.
Table of Contents (11 chapters)

How it works...

This algorithm is checking whether the last record is more than 4 standard deviations (σ) from the preceding 1,000 values.  should have an anomaly 1 in every 15,787 readings or once every 4 hours. If we were to change that to 4.5 it would be once every 40 hours.

We import scipy for our Z-score evaluation and numpy for data manipulation. We then add the script to the Raspberry Pi startup so that the script will start automatically whenever there is a power reset. The machine needs to wait for peripherals, such as the Sense HAT initialization. The 60-second delay allows the OS to be aware of the Sense HAT before trying to initialize it. Then we initialize our variables. These variables are the device name, the IP address of the Kafka server, and the Sense HAT. Then we enable the Sense HAT's internal measuring units (IMUs). We disable the compass and enable the gyroscope and accelerometer. Finally, we create two arrays to put the data...