What Does Internet of Things Mean? What Are Some Examples of Its Applications in Life?
Knowledge

What Does Internet of Things Mean? What Are Some Examples of Its Applications in Life?

Industry 4.0 has become an increasingly important topic of concern. Within Industry 4.0, the Internet of Things (IoT) plays an important core role in connecting the entire system, and has developed a wide range of applications. Many people may think that the IoT is far away and does not concern them, but in fact, there are many applications of the IoT in use in everyday life which most people may not realize. This article will share what the IoT is and its application in life.
Published: Apr 28, 2022
What Does Internet of Things Mean? What Are Some Examples of Its Applications in Life?

What is the Internet of Things, IoT?

The Internet of things (IoT) is an interconnected system of computing devices, equipment, and digital machines that digitize the real world. Simply put, it uses digital data to connect items through the Internet, so information can be transmitted and shared. The IoT has actually existed for a long time, with the first application originating in the 1980s. A Coke vending machine was connected to the Internet so that the number of Coke drinks remaining in the vending machine could be checked. With the evolution of technology, smaller, stronger processors have been developed for use in transportation logistics, industrial manufacturing, health care, personal or social fields, etc.

In its broadest sense, the IoT includes any “object” or "thing" that can be connected to the Internet. This may include anything from factory equipment and cars to mobile devices and smart watches. Today’s IoT however, has grown to include interconnected devices that combine sensors, software, and other technologies to transmit and receive data between the devices. Connectivity has traditionally been by Wi-Fi, but now 5G and other types of networking platforms have gradually provided the speed and reliability to handle larger data sets. Of course, the point of collecting data is not just to have it, but to use it. While IoT devices collect and transmit data, the ultimate goal is to analyze the data and develop an informed strategy for action. AI technology excels at enhancing IoT networks through advanced analytics and machine learning.

How the IoT Works

A complete IoT system combines three elements: sensors, the Internet, and data processing. Data is collected through sensors and connected to the network via Wi-Fi, Bluetooth, or ethernet. The data is then transmitted to the cloud, where it is processed by software, and finally transmitted to the user. Combined with artificial intelligence (AI) or machine learning, the collected data can be deeply analyzed during the process. There are also many devices today that can coordinate data, and determine better actions to take based on the mutual benefits of the data collected.

Pros and Cons of IoT

Regardless of the technology being used, there will always be advantages and disadvantages. What matters is how the technology can be best used for the greatest benefit. The IoT can automate work, improve work efficiency, reduce equipment and setup costs, and assist in collecting data to save time and money. One challenge for IoT devices is that they are not always easy to manage, and devices from different manufacturers may not be able to communicate with each other. As more and more data is collected, consideration for information security will become more important.

IoT Applications

The IoT has allowed for remote monitoring of cars, homes and health systems. Many home appliances can be controlled through mobile phones. Applications can allow users to improve their quality of life, and enable the elderly and disabled to live more convenient lives.

Smart Manufacturing, Industry 4.0: The IoT used in industry is called the Industrial Internet of Things (IIoT). It connects sensors, meters, equipment and computers through the internet and collects data and analyzes it. This increases productivity and efficiency through a high degree of automation.

Smart City: The IoT can use technology and data to solve problems in cities, thereby improving the quality of life. In Taichung for example, the city has set up 500 "air monitors" in air pollution hotspots. These monitors collect data that locate pollution sources so the management of air pollution can be improved. There are also parking apps that help the public quickly find parking spaces.

Retail: The retail industry is an industry that requires extensive interaction with consumers. Customized marketing, stocking of shelves, checkout, and other retail operations use sensors and data sharing devices that optimize customer experience and improve in-store operations. The Internet of Things can improve the efficiency of supply chain operations and provide a higher value service experience.

Smart Home: A smart home uses the internet to integrate building systems, equipment, and appliances to improve life quality, reduce living costs, provide home care, enhance entertainment and ensure home safety. It can adapt to different lifestyles, such as for the elderly or children, to create a safe, comfortable and environmentally friendly living environment.

Smart Transportation: Technologies such as sensing and processing of traffic information, and electronics control and management can be used to assist vehicles and transportation systems. Safety and efficiency of transportation services can be improved to respond to real time situations.

The rapid development of IoT Technology has the potential to impact many industries. Through the use of unmanned vehicles and computers, improved logistics can save human resources and make many labor-intensive operations more efficient. Companies that grasp the importance of this trend can take advantage of new opportunities to grow and dominate the market.

How Will IoT Technology Evolve?

In 2019, IoT devices generated about 18 ZB of data, and by 2025, International Data Corporation expects that number to more than triple to 73 ZB, or 73 billion terabytes. Although we can't measure digital data in physical units, to give an illustration, if all this data were converted to 1990s disks and laid side by side, they could go back and forth from the earth to the moon more than 5,000 times. Developing the IoT will require combining technologies to condense the storage of these large amounts of data.

Connectivity: This surge in IoT data volume requires strong network connectivity to transmit and receive data. Although many IoT devices rely on local Wi-Fi networks to transmit complex and large amounts of data, the cloud and 5G cellular networks are continually evolving to better transmit the ever growing volume of data. Mobile networks will continue to develop as more and more IoT devices disconnect from Wi-Fi networks.

Sensing Technology: As the demand for IoT sensor innovation steadily grows, the market is shifting from a few high-priced niche suppliers to a highly globalized and price-competitive sensor manufacturing industry. The average price of IoT sensors has dropped by more than 70% since 2004, and as demand has skyrocketed, so has the functionality and variety of these products.

Computing Power: The amount of data created in the next three years will exceed the amount created in the past 30 years. To harness this data, modern businesses require ever-increasing amounts of memory and processing power, and the fast-paced and competitive race to achieve this has driven the growth of IoT's usefulness and applicability.

Artificial Intelligence and Machine Learning: These technologies not only allow businesses to manage and process vast amounts of IoT data, but also analyze and learn from it. Big data is the best nutrient for AI and machine learning. The larger and more diverse the data set, the more reliable insights and information can be provided by advanced AI-based analytics. The rise of IoT devices has given a huge boost to the development of artificial intelligence and the amount of data used and provided.

Cloud Computing: Just as connectivity is an integral part of IoT development, the rise of cloud computing is also closely related to this trend. With on-demand processing power and massive storage space, IoT devices are also beginning to adopt cloud IoT services to collect and transmit increasingly large and complex data sets. With private cloud solutions, enterprises can manage larger volumes and types IoT data, while maintaining the security of closed systems.

Edge Computing: Devices within an IoT network are typically distributed in various geographic locations, but all transmit data to a single central system. With the growing volume of IoT data, IoT is starting to drain companies' bandwidth and cloud capacity. In addition, significant time is required to capture, transmit, process and receive data at its final destination, and this delay can further reduce efficiency, especially for businesses that are highly time-sensitive to data processing. Edge computing solutions share the processing pressure of the system by being close to the source of the data by integrating localized computing systems and enabling IoT devices to have the processing power themselves. Data processed by the device is immediately acted upon on-site and periodically transmitted to a central system in a more structured and organized format for advanced analysis and processing.

Published by Apr 28, 2022 Source :Machsync, Source :SAP

Further reading

You might also be interested in ...

Headline
Knowledge
Choosing the Right Spray Gun: The Key to Moving from "Usable" to "Exceptional"
From the early cast-iron spray guns to modern carbide and ceramic materials, the durability of spray guns has made a monumental leap. These historical examples show that upgrading materials can increase durability by dozens of times. Modern material technology further highlights this trend: under the same working conditions, reports indicate that the lifespan of a steel spray gun is far shorter than that of a tungsten carbide gun, which in turn is not as durable as a ceramic spray gun. This makes the choice of material for this critical industrial component a determining factor in production efficiency and cost control.
Headline
Knowledge
Silicon Wafer Cutting Machines: The Core Engine of Solar Panel Manufacturing
In the solar panel manufacturing industry, the silicon wafer cutting machine (Wire Saw) forms the foundation of the entire production process and stands as the key equipment determining both product yield and cost. From slicing monocrystalline or polycrystalline silicon ingots to shaping the wafers used in photovoltaic modules, the quality of each wafer directly impacts the efficiency and durability of solar panels.
Headline
Knowledge
Driving the Future of Manufacturing with High-Performance Materials: Advanced Composites and Aluminum Alloys
In modern manufacturing, materials science has become a critical factor in industrial competitiveness. The widespread adoption of advanced composites and aluminum alloys has not only transformed the design of high-performance sport engines but also propelled technological advancements in the automotive, aerospace, and high-performance industrial equipment sectors. These two material categories, due to their unique properties, demonstrate significant trends and value across diverse manufacturing applications.
Headline
Knowledge
How to Choose a CNC Machine Tool: A Practical Guide on Workpiece Size, Axis Configuration, and Precision
Choosing the right CNC machine tool is essential for efficient and precise manufacturing. Instead of focusing on price or brand alone, consider your machining needs, including workpiece size, complexity, material, and automation requirements. This guide helps you select the ideal CNC machine for your production goals.
Headline
Knowledge
The Hidden Power Behind Stable Robot Operation: Structural Components
Imagine walking into your kitchen in the morning and seeing the robotic arm of an automatic coffee machine steadily grasping your cup, or observing a robot arm in a warehouse rapidly and precisely moving boxes. Behind these smooth movements, it is not just motors or programming at work; structural components quietly provide critical support. Frames, brackets, and housings do more than maintain the skeleton—they carry high-precision gears and bearings, distribute motion loads, protect internal systems, and ultimately allow the robot to move as naturally and steadily as a human hand.
Headline
Knowledge
The Hidden Secret Behind a Robot’s Smooth Rotation: The Precision Craft of Gears and Bearings
In industrial automation and smart manufacturing, the ability of robotic arms to rotate as fluidly as a human wrist is not the result of a single component, but rather the synergy of two critical “invisible parts”: gears and bearings. Together, they form the core of robotic joints, ensuring every motion is both precise and smooth. These components, however, are not simply shaped from raw steel; they are the outcome of multiple sophisticated processes—CNC machining, heat treatment, and precision grinding—to meet the highest standards of accuracy and durability.
Headline
Knowledge
The Secret Behind Fuel Efficiency: How CNC Machines Maximize Every Drop of Fuel
When we lightly press the accelerator and enjoy a smooth drive, there’s an invisible hero quietly at work behind the scenes: the CNC machine crafting every precise engine component. For consumers, fuel-efficient cars are often the top choice. For manufacturers, fuel efficiency is a critical factor that defines product competitiveness. Yet few realize that the journey toward efficiency doesn’t start at the gas pump—it begins with the machines that shape every micron of the engine. CNC machines are the unsung heroes making it all possible.
Headline
Knowledge
Redefining Makeup Removal: Evolving from Traditional Nonwovens to Medical-Grade Standards
As skincare routines become increasingly refined, makeup removal products are no longer secondary tools used solely for eliminating cosmetics. Instead, they have become the first line of defense for skin health, anti-irritation performance, and the sensory experience of daily rituals. The material composition and structural engineering of removal substrates—such as cotton pads, cleansing cloths, and wipes—are undergoing continuous optimization. The industry is shifting from simple absorbent functions toward advanced development that combines low friction, minimal residue, enhanced skin compatibility, and environmental sustainability.
Headline
Knowledge
The Superpower of PCBs: Unveiling the Magic of Heat Dissipation
Every PCB is like a bustling miniature city: the electric current flows like nonstop traffic, and the electronic components are the lively citizens. When “traffic jams” occur, heat builds up quickly. Without proper thermal design, LEDs, CPUs, and power transistors can “overheat” and fail. A PCB isn’t just a circuit-connecting board—it also acts as the city’s “air-conditioning engineer.” Copper traces serve as high-speed distribution lanes, thermal vias function like air ducts, and the board material and metal backing work as invisible heat-dispelling magic. Combined with airflow management inside the enclosure, the PCB efficiently channels heat away, ensuring components perform reliably and quietly safeguarding the entire electronic system.
Headline
Knowledge
From Marine Polysaccharides to Pet Wellness: A New Milestone in Fucoidan Applications
In recent years, companion animals have come to occupy an increasingly significant role in human life—not merely as pets, but as integral members of the family. As pet owners place growing emphasis on animal health and longevity, the demand for functional health ingredients has surged. Among these, fucoidan, a marine-derived polysaccharide extracted from brown seaweed, has emerged as a key player in the field of pet nutritional science. Recognized for its immunomodulatory, antioxidant, and cellular repair properties, fucoidan is redefining the standards for preventive care and holistic wellness in companion animals.
Headline
Knowledge
Eco-Friendly Tableware and Food Safety: A Choice for Both the Environment and Health
With a global increase in plastic reduction and environmental awareness, a growing number of businesses and consumers are opting for eco-friendly tableware made from natural or biodegradable materials to replace traditional plastic items. Eco-friendly tableware—such as that made from bamboo fiber, sugarcane bagasse, leaf fiber, or PLA—typically does not contain harmful substances like plasticizers or BPA, thus reducing potential health risks. According to the European Union's Food Contact Materials Regulation (EC No. 1935/2004), "food contact articles shall not transfer their constituents to food in quantities that could endanger human health." However, when production processes or manufacturing technologies are inadequate, eco-friendly tableware can still pose food safety risks.
Headline
Knowledge
Food Cleanliness and Its Impact on the Human Body: A Farm-to-Table Guarantee
The cleanliness of food, defined as the hygienic state of food surfaces and production environments, is crucial for consumer health. The World Health Organization (WHO) reports that globally, approximately 600 million people fall ill each year from consuming contaminated food, leading to about 420,000 deaths.
Agree