From Metaverse to Blockchain: The Convergence and Market Restructuring of Next-Generation Technology Ecosystems by 2026
A New Paradigm of Next-Generation Technology Convergence
In 2026, the technology industry stands at a turning point where advancements go beyond individual technologies, with the metaverse, blockchain, Internet of Things (IoT), and extended reality (XR) converging into an integrated ecosystem. According to market research firm Gartner, the size of this converging technology market has reached $2.3 trillion in 2026, with an average annual growth rate of 32%. Notably, unlike in the past where individual technologies developed independently, they now form a complex ecosystem that is interconnected and interdependent.

At the heart of this change is the rapid improvement in computing power and the advancement of network infrastructure. California-based NVIDIA’s H200 GPU series, announced in Q4 2025, offers 4.5 times improved AI processing performance compared to the previous generation, providing a foundation for real-time metaverse rendering and blockchain computation. Simultaneously, the next-generation HBM4 memory jointly developed by South Korea’s Samsung Electronics and SK Hynix achieves 2.4 times faster data processing speeds, significantly alleviating bottlenecks in complex technology environments.
The evolution of metaverse platforms is also noteworthy. California’s Meta announced in January 2026 that its Horizon Worlds platform surpassed 800 million monthly active users, a 340% increase from the previous year. More intriguingly, 73% of transactions within this platform are processed using blockchain-based digital assets, indicating that the practical convergence of metaverse and blockchain technologies has already become commonplace at the user level.
Meanwhile, Microsoft holds a unique position in the enterprise metaverse solutions market through its Azure cloud platform. As of the end of 2025, 68% of Fortune 500 companies have established virtual collaboration environments using Microsoft’s Mesh platform, reporting an average 43% improvement in remote work efficiency. Particularly in manufacturing and construction, digital twin technology that reflects IoT sensor data in real-time into the metaverse environment is rapidly spreading.
The Practicalization of Blockchain and Decentralized Web
By 2026, blockchain technology has completed its transition from speculative assets to practical infrastructure. With the maturation of the Web3 ecosystem, governance models based on decentralized autonomous organizations (DAOs) are being practically applied across various industries. According to the latest report from blockchain analytics firm Chainalysis, the global blockchain-based transaction volume averages $124 billion daily in 2026, with 78% of these transactions linked to the real economy.
One of the most notable areas is supply chain management. Since 2025, Walmart has transitioned 94% of its global supply chain to blockchain-based systems, reducing response times to food safety incidents from 7 days to 2.2 seconds. In South Korea, Shinsegae Group has established a traceability system for all product lines, from agricultural products to fashion items, using its proprietary blockchain platform ‘SSG Chain’, resulting in a 67% improvement in customer satisfaction compared to the previous year.
The decentralized finance (DeFi) market has also moved beyond its speculative nature to establish itself as a practical financial service. Swiss-based decentralized exchange Uniswap records a daily trading volume of $38 billion, reaching a level competitive with traditional stock exchanges. More importantly, these platforms are expanding beyond simple cryptocurrency trading to provide liquidity services through the tokenization of real assets such as real estate, artworks, and intellectual property.
The NFT (Non-Fungible Token) market has also found new growth momentum after overcoming the downturn of 2024. However, this time, utility NFTs with practical applications are leading the market, rather than simple digital art. For example, Starbucks’ ‘Odyssey’ program has innovatively improved customer loyalty through an NFT-based membership system, with participating customers increasing their average purchase frequency by 2.8 times. South Korea’s NAVER has also established an NFT ecosystem leveraging its webtoon IP, generating an additional annual revenue of 120 billion won.
In the field of central bank digital currencies (CBDCs), China’s digital yuan is leading the way. As of January 2026, digital yuan transactions in China have surpassed 7 trillion yuan (approximately $1 trillion) monthly, accounting for 23% of total retail payments. The Bank of Korea is also expanding its pilot test of the digital won from the second half of 2025, with 150,000 citizens currently participating, aiming for a full launch by the end of 2026.
Innovation in IoT and Edge Computing
As of 2026, IoT technology has evolved beyond simple connectivity to intelligent autonomous systems. According to Cisco’s latest report, the number of IoT devices worldwide has surpassed 75 billion, generating 2.5 zettabytes of data daily. Notably, these devices are connected in real-time through 5G and 6G networks, making the true meaning of ‘smart cities’ and ‘Industry 4.0’ a reality.
In the smart city sector, Singapore is showcasing the most advanced example. By 2025, the Singapore government has completed the installation of 12 million IoT sensors throughout the city, reducing traffic congestion by 37% and improving energy efficiency by 28%. In South Korea, the ‘Smart City Busan’ project led by Busan City is gaining attention. This project, jointly participated by LG Electronics and Samsung SDS, integrates AI-based traffic management, smart grids, and environmental monitoring systems, achieving an 84% citizen satisfaction rate.
The use of IoT in manufacturing is even more innovative. Germany’s Siemens announced that its digital factory solutions have improved customer companies’ productivity by an average of 45%. This system automatically performs predictive maintenance, quality control, and energy optimization by analyzing data collected from IoT sensors installed on all equipment in the production line. South Korea’s Hyundai Heavy Industries also introduced an IoT-based smart factory system across its shipyards, reducing shipbuilding time by 20%.
The advancement of edge computing technology is also accelerating the growth of the IoT ecosystem. Unlike the traditional cloud-centric processing method, edge computing performs real-time processing near the data generation point, significantly reducing latency. Amazon’s AWS Wavelength service, combined with 5G networks, has achieved ultra-low latency processing of less than 1 millisecond, creating innovative changes in fields where real-time response is crucial, such as autonomous vehicles, industrial robots, and medical equipment.
The application of IoT technology is rapidly expanding in the agricultural sector as well. The IoT-based greenhouse management system developed by Dutch smart farm company Priva monitors soil moisture, temperature, and nutrient concentration in real-time, increasing crop yields by 60% compared to previous levels. In South Korea, the ‘Smart Farm Innovation Valley’ project led by Gyeongsangbuk-do combines IoT sensors and AI to drive innovation in agricultural productivity. Participating farms have achieved an average 30% reduction in production costs while increasing yields by 40%.
The use of IoT in the healthcare sector is also noteworthy. Remote monitoring systems using wearable devices and medical IoT sensors have rapidly expanded since the COVID-19 pandemic, becoming the standard for chronic disease management as of 2026. Apple’s HealthKit platform monitors the health data of 180 million users worldwide in real-time, improving early detection rates of heart disease and diabetes by 73% and 81%, respectively.
As of 2026, the convergence of next-generation technologies is no longer a story of the future but a reality. Individual technologies such as the metaverse, blockchain, and IoT are forming an integrated ecosystem, creating new business models and social innovations. Notably, this technological convergence is fundamentally changing human lifestyles and economic structures beyond mere technological advancement. As this ecosystem continues to develop more intricately and intelligently, it is expected to open up new possibilities that we have yet to imagine.
However, new challenges are also emerging alongside this technological convergence. Issues such as privacy protection, cybersecurity, and the digital divide are becoming more complex with technological advancement, requiring urgent social and policy responses. Ultimately, for these next-generation technologies to bring true benefits to humanity, ethical and social considerations must develop in balance with technological advancement.