The Internet of things (IoT) refers to the inter-networking of several physical gadgets, smart devices, vehicles and buildings, as well as, other devices that are embedded with sensors, actuators, software, electronics, and network connectivity that enable the connected devices to gather and exchange data.
The IoT lets the devices to be controlled and sensed remotely across the prevailing infrastructural network. Through this approach, the internet of things creates opportunities for more direct physical world integration into computer-based systems, further leading to improved service delivery, efficiency, accuracy, as well as, economic benefit in addition to reduction of human intervention.
By 2016 the internet of things vision had advanced as a result of a convergence of several innovations such as instantaneous analytics, global wireless communication, machine learning, embedded systems and commodity sensors. The conventional fields of wireless sensor, embedded systems, automation, control systems and several other technologies led to advancing the Internet of Things.
Table of Contents
1. Introduction to the Internet of Things
1.1 Definition and Physical Integration
1.2 Technological Convergence and Drivers
1.3 Practical Applications and Use Cases
1.4 Cyber-Physical Systems and Ecosystems
1.5 Components and Future Prospects
Objectives and Core Topics
The primary objective of this text is to define the Internet of Things (IoT) and explain its transformative role in integrating physical devices into digital systems to enhance service delivery, efficiency, and automation across various industries.
- Fundamental definition and scope of the Internet of Things
- The role of sensors, actuators, and network connectivity
- Technological drivers: machine learning, cloud computing, and communication protocols
- Real-world examples of smart home and industrial automation
- Strategic implications for executives regarding data analysis and infrastructure
Excerpt from the Book
The Internet of things (IoT) refers to the inter-networking of several physical gadgets, smart devices, vehicles and buildings, as well as, other devices that are embedded with sensors, actuators, software, electronics, and network connectivity that enable the connected devices to gather and exchange data (Meola, 2016). The IoT lets the devices to be controlled and sensed remotely across the prevailing infrastructural network. Through this approach, the internet of things creates opportunities for more direct physical world integration into computer-based systems, further leading to improved service delivery, efficiency, accuracy, as well as, economic benefit in addition to reduction of human intervention (Burrus, 2016).
By 2016 the internet of things vision had advanced as a result of a convergence of several innovations such as instantaneous analytics, global wireless communication, machine learning, embedded systems and commodity sensors (Meola, 2016). The conventional fields of wireless sensor, embedded systems, automation, control systems and several other technologies led to advancing the internet of Things (Burrus, 2016).
Broadband Internet has emerged as a more broadly available approach with reduced cost of connection, coupled with more gadgets being used with Wi-Fi capabilities and built-in sensors (Meola, 2016). Costs of technology have gone down while penetration and use of smartphones has increased significantly. These factors have created a perfect platform for the growth of the internet of things (Burrus, 2016).
Summary of Chapters
1. Introduction to the Internet of Things: This chapter introduces the basic concept of IoT as a network of connected physical devices and explores the technological advancements that facilitate its growth.
1.1 Definition and Physical Integration: Defines IoT as an ecosystem of embedded hardware and software that allows for remote control and data exchange.
1.2 Technological Convergence and Drivers: Highlights how innovations in machine learning and wireless communication contribute to the evolution of the IoT landscape.
1.3 Practical Applications and Use Cases: Illustrates how connected devices improve daily convenience and industrial efficiency through automated decision-making.
1.4 Cyber-Physical Systems and Ecosystems: Explains how the integration of sensors and actuators leads to the development of smart cities and intelligent transportation networks.
1.5 Components and Future Prospects: Discusses the necessity for industries to adapt their networking expertise to handle the influx of data and leverage future opportunities.
Keywords
Internet of Things, IoT, Sensors, Actuators, Machine Learning, Automation, Smart Home, Connectivity, Cyber-Physical Systems, Data Analysis, Cloud Computing, Wireless Communication, Innovation, Infrastructure, Digital Integration
Frequently Asked Questions
What is the Internet of Things (IoT) fundamentally?
The IoT refers to a network of physical objects—such as devices, vehicles, and buildings—equipped with sensors, software, and connectivity that allow them to collect and exchange data.
What are the core pillars driving IoT growth?
The growth of IoT is driven by the convergence of several technologies, including global wireless communication, machine learning, cloud computing, and the decreasing cost of high-performance sensors and silicon chips.
What is the primary objective of implementing IoT systems?
The primary goal is to achieve seamless integration between the physical world and computer-based systems to increase service efficiency, improve accuracy, and reduce the need for manual human intervention.
Which scientific domains support the IoT infrastructure?
The framework is built upon traditional fields like automation, control systems, embedded systems, and wireless sensor networking.
What does the main body of the text focus on?
The text focuses on the functional definition of IoT, its practical applications in consumer and industrial sectors, and the strategic necessity for organizations to modernize their data management and networking infrastructure.
Which keywords define this document?
Key terms include IoT, automation, connectivity, sensors, machine learning, cyber-physical systems, and data-driven infrastructure.
How does IoT contribute to smart city development?
By integrating actuators and sensors into urban infrastructure, IoT enables advanced applications like smart grids and intelligent transportation, making city operations more autonomous and efficient.
What is the role of cloud computing in the IoT ecosystem?
Cloud computing provides the massive storage capacity and processing power required to analyze the large volumes of data generated by billions of connected devices at a lower cost.
Why must industrial executives change their approach to networking?
Executives must shift their perspective to support free data flow between computers, sensors, and actuators, ensuring that software can analyze these inputs to guide automated systems effectively.
What do 'Things' encompass in an IoT perspective?
In the context of IoT, 'Things' represent a broad range of assets, including medical implants, biochips on livestock, environmental monitoring tools, and smart appliances, consisting of an inextricable blend of software, hardware, and services.
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- Harry Mwololo (Autor:in), 2017, "The Internet of Things". How to improve service delivery, efficiency, accuracy and economic benefit, München, GRIN Verlag, https://www.grin.com/document/384392
