The advancement of high technology in everyday life has led to a sharp increase in the number of devices with embedded remote control capabilities and built-in processors, turning everyday objects into smart gadgets. These interconnected smart objects often operate independently of human intervention. By 2008, the number of network-connected devices had surpassed the global population, cementing the trend into a stable phenomenon known as the Internet of Things (IoT). Let's lokk closer on IoT solution.
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The Internet of Things (IoT) is a system where everyday objects interact network-wise without human involvement. These objects exchange data, collect and transmit information, and autonomously perform specific tasks. IoT devices function independently, although humans can configure them or grant data access. IoT systems operate in real-time and typically consist of a network of smart devices connected to a cloud platform via WiFi, Bluetooth, or other communication technologies.
IoT at a glanceThe Internet of Things represents a network concept where data is transferred between devices. Within IoT, people can communicate with "things," and these "things" can communicate among themselves
IoT is one of the fastest-growing technological fields. With the introduction of artificial intelligence, IoT has reached a new level of development. According to Fortune Business Insights, the global IoT market was valued at $160 billion in 2018 and is expected to exceed $1.1 trillion by 2026. Even conservative estimates predict that the number of connected devices will reach approximately 24 billion over the next decade, with annual revenues approaching $1.5 trillion.
The IoT system emerged in response to user demand for smart gadgets, a logical step towards greater comfort and customer satisfaction. The ability to autonomously handle daily tasks has significantly improved many aspects of human life. A secondary goal of IoT systems is to create a smart and safe environment by incorporating automatic security settings into devices that enhance human comfort.
The term "Internet of Things" was first used in 1999 by Kevin Ashton, an entrepreneur and co-founder of Auto-ID Labs at MIT. Ashton was part of a team that developed a way to connect objects to the internet using RFID technology. RFID tags identify objects via radio signals and can carry specific information, later read by a device.
In 2012, significant advancements in sensors accelerated the market readiness of IoT, signifying that digital transformation was gaining momentum. Technological improvements led to the creation of MEMS—Micro-Electro-Mechanical Systems, which are miniature devices made using microfabrication techniques from both mechanical and electrical components. These advancements allowed sensors to shrink sufficiently to be integrated into items like clothing, enhancing IoT's functionality and ubiquity.
In the expansive network of IoT, virtually any physical object capable of connecting to the internet can be included. This range begins with small household items like smartwatches and key fobs and extends to large objects and comprehensive systems, such as smart homes.
Industrial and manufacturing items:
Notably, IoT also plays a significant role in industrial and production contexts:
Indeed, the Internet of Things holds a crucial position in the digital transformation processes within companies.

The operational principle of IoT can be summarized by the ABCDE framework:
While IoT systems bring significant business value, the smart objects they incorporate also become vulnerable to cybercrime. This vulnerability can lead to data breaches, including the leakage of confidential information. Despite the vast scope of the security challenges, there are now solutions that allow for more secure deployment of IoT systems. For example, to address the issue of outdated device software, there are effective strategies for automatic updates available. These solutions help ensure that devices within the IoT ecosystem are regularly updated and protected against the latest threats, thereby mitigating potential security risks.
SOTA (Software Over the Air) and FOTA (Firmware Over the Air) refer to technologies that enable the updating of software and firmware in connected devices via wireless communication. These technologies allow for the remote updating of device settings and software without the need for physical connections, greatly enhancing the convenience and efficiency of maintaining and improving device functionality across a range of IoT applications.
A notable example of an internet system hack is the Mirai botnet attack in 2016. This cyberattack turned a large number of internet-connected devices into a botnet, which was then used to conduct massive distributed denial-of-service (DDoS) attacks. Mirai primarily targeted consumer devices such as IP cameras and home routers that were protected by default or easily guessable passwords. Once infected, these devices were used to flood target websites with traffic, overwhelming them and causing significant disruptions. One of the most significant impacts of the Mirai botnet was the attack on Dyn, a major DNS provider, which resulted in widespread outages of major websites including Twitter, Netflix, Reddit, and CNN. This attack underscored the vulnerabilities associated with insecure IoT devices and highlighted the importance of securing devices by changing default passwords, regularly updating firmware, and monitoring network activity to detect anomalies. The Mirai botnet demonstrated how easily accessible devices could be weaponized to execute disruptive cyber attacks on a large scale.
The Internet of Things (IoT) significantly impacts various industries, including telecommunications and e-commerce. Here’s how IoT intertwines with these sectors:
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As we look toward 2024, the IoT solution market is poised to expand its influence significantly, driving digital transformation across industries with innovative solutions that streamline operations and enhance real-time analytics. The growing demand for tools that can evaluate the usability of IoT applications underscores the crucial role of analytics in maximizing the effectiveness of these deployments. IoT solutions help organizations unlock new business potentials and accelerate time to market, leveraging edge computing and cellular IoT to create seamless, smarter systems. The integration of IoT platforms and services ensures that industries can seamlessly adopt new technologies, thereby safeguarding operational efficiencies and automating processes to meet the rising cybersecurity challenges and improve overall safety and security. This evolving landscape indicates that the strategic deployment of IoT is not just enhancing organizational capabilities but is also essential in driving the new wave of technological and operational innovations.
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