Who will lead the 6G era? Explore the strategies, investments and global forces shaping telecommunications through 2030. Full report.
JUNE 2026 | 4 mins read
In 2026, the global telecom sector is starting to change in ways that will shape competition for the next decade. While many companies are still struggling to fully profit from 5G, work on 6G has already begun and is influencing the future balance of power toward 2030. This raises strategic questions for both businesses and governments alike: how countries will compete in the 6G race, who will lead its development and what business models will unlock returns on 5G investments.
The findings are presented in a Point of View report prepared by business consultants and research analysts of Kyiv Consulting and Dr Mariia Skulysh, Director of the Educational and Scientific Institute of Telecommunication Systems at the Igor Sikorsky KPI.
In 2026, the telecom industry stands at a strategic transition point: 4G is in decline, 5G-Advanced is emerging as the primary innovation platform and 6G is being defined. In 2026, 5G-Advanced will expand commercially while 6G progresses towards standardisation. 3GPP develops detailed specifications for mobile networks that translate ITU frameworks into commercially deployable technologies. The World Radiocommunication Conference in 2027 will be a decisive milestone, as governments determine a globally harmonised spectrum for 6G. For operators, policymakers and investors, the practical implication is clear: future 6G services must be economically framed and tested today, well before the first commercial networks become available in the 2030s.
Leadership in 6G will not be determined solely by spectrum allocation or network rollout. Countries that combine research, standards participation, domestic vendor ecosystems, semiconductor capabilities and cloud software strength will capture the largest share of value. This explains why the 6G race is concentrated among Tier 1 actors: China, South Korea, the USA, the EU and Japan. These countries possess high-intensity R&D investment, global telecommunications vendors and the ability to influence 3GPP and ITU outcomes, giving them systemic leverage over architecture, standards and deployment models. A second group of Tier 2 contributors, including Singapore, Australia, the UAE, Saudi Arabia, Qatar, the UK and India, plays an enabling role by accelerating testbeds, spectrum studies and policy experiments, without yet controlling standards or system-level deployments. Their participation indicates that 6G will emerge as a multi-polar ecosystem, albeit one with uneven strategic dependencies.
Ukraine participates in the global value chain primarily as a talent and deployment base for leading infrastructure vendors. In the context of the war in Ukraine, the flexibility and availability of wireless communication systems have ensured the effective operation of many companies. High-quality 4G LTE Advanced services enable reliable video communication, simultaneous data transmission and voice calls.
As Dr Mariia Skulysh, Director of the Educational and Research Institute of Telecommunication Systems of the National Technical University of Ukraine ‘Igor Sikorsky Kyiv Polytechnic Institute’, notes:
“This has made it possible for the banking system and government digital services to continue operating efficiently. Millions of people have managed to keep their jobs thanks to high-quality connectivity in Ukraine and technological solutions that increased network resilience during wartime. One such solution is national roaming, which allows subscribers to switch between different operators’ networks and remain connected under any circumstances.
5G technologies and future generations of mobile communication will provide even more advanced services. These technologies will form the basis of Industry 4.0 solutions, including robotic production lines and real-time quality control, as well as massive connectivity of energy-efficient sensors (up to 1 million devices per square kilometre). They will also unlock new opportunities for remote medical procedures (telemedicine) and enable secure vehicle-to-vehicle and vehicle-to-infrastructure communication, contributing to safer and smarter transportation systems. Ultra-low latency and high data transmission speeds in next-generation networks will unlock new opportunities for the development of user-oriented digital services.”
Looking towards the 2030 horizon, competitiveness will depend on how effectively countries convert 5G-Advanced deployments into industrial platforms and how quickly they align R&D, spectrum and regulatory frameworks for 6G.
“The deployment of 5G and future-generation networks, along with the development of Software-Defined Networking (SDN), Network Functions Virtualisation (NFV), Multi-access Edge Computing (MEC) and service-oriented architectures, is driving a profound transformation of the employment structure in the telecommunications sector and related industries. The demand for narrowly specialised operational roles is declining, while the need for professionals capable of working at the intersection of telecommunications, software engineering, data analytics and artificial intelligence is steadily increasing. The labour market is increasingly oriented towards engineers with integrated skill sets, particularly in the areas of cloud and edge infrastructure design, network automation, cybersecurity, digital service lifecycle management and big data analytics. Growing importance is also placed on systems thinking, expertise in distributed computing, DevOps and NetDevOps practices and the ability to manage complex cyber-physical systems.
At the same time, employment models are evolving: the share of project-based, service-oriented and remote work is expanding, creating demand for specialists who can rapidly adapt to technological change and operate effectively within multidisciplinary teams. This shift requires the modernisation of educational programmes, focusing not only on individual technologies but also on the development of sustainable digital and engineering competencies aligned with the future labour market. High-technology telecommunications solutions are transforming telecom-related industries (transport, industry, healthcare, urban infrastructure, education and the agricultural sector) into digital ecosystems, where the key role is played not by individual technologies, but by integrated systems that combine connectivity, data and intelligent information processing,” as Dr Mariia Skulysh observes.
The next decade will not be defined by connectivity to 6G alone. It will be defined by how effectively regions and companies convert connectivity into economic value, industrial capability and strategic influence. Markets that treat networks as programmable infrastructure and align monetisation, innovation and policy are positioned to lead the transition from 5G to 6G.
Download the full report to explore what 5G-Advanced is and the evolution from 5G-Advanced to 6G within global and European contexts.
6G is described as the next-generation network ecosystem, designed to extend enhanced mobile broadband, ultra-reliable low-latency and massive machine-type communication services while enabling new immersive, AI-native and mission-critical environments. While 5G and 5G-Advanced enable early enterprise and digital services, 6G introduces guiding principles such as sustainability, ubiquitous intelligence, resilience and global inclusion, reflecting a structural evolution from broadband connectivity to programmable industrial platforms.
Leadership in the 6G race is concentrated among China, South Korea, the USA, the EU and Japan. A second group of contributors, including Singapore, Australia, the UAE, Saudi Arabia, Qatar, the UK and India, participates through policy, research and testbeds, indicating a multi-polar but uneven ecosystem.
6G remains in the research and studies phase. Formal technical standardisation is expected to advance after the World Radiocommunication Conference in 2027, where countries will determine a globally harmonised spectrum for 6G. Commercial maturity is expected in the early 2030s, after harmonised spectrum decisions and full 3GPP release cycles.
Operators will monetise 5G through enterprise services, such as private networks, network slicing, automation and cloud solutions. The highest returns come when infrastructure, adoption and innovation grow together. Kuwait shows how strong infrastructure can be turned into real usage and quality. China, South Korea and the UAE focused on fast network rollout, but monetisation is still catching up. The USA, Australia and Japan perform strongly thanks to advanced digital ecosystems and enterprise demand.
Spectrum policy will determine whether 6G ecosystems achieve interoperability and economies of scale. The World Radiocommunication Conference in 2027 is a decisive milestone because a globally harmonised spectrum is a prerequisite for standardisation, vendor alignment and commercial deployment. Countries that influence spectrum outcomes strengthen their strategic positioning.
6G will extend existing mobile broadband capabilities to support immersive, AI-native and mission-critical environments that require ultra-low latency, deterministic performance and advanced reliability. These conditions enable digital transformation in sectors where safety, precision and real-time coordination are mandatory.
The USA benefits from platform-driven influence through cloud, software, AI and virtualisation rather than purely through traditional RAN deployment. This provides a strategic advantage in cloud-native and Open RAN architectures that shape future system design.
Europe remains a core supplier of specialised network infrastructure technologies and plays a central role in early 6G system design and standardisation. European vendors lead in RAN and infrastructure deployment, providing strategic leverage even without vertically integrated device and chipset manufacturing.
China benefits from vertical integration across devices, infrastructure and chipsets, allowing large-scale deployment and commercialisation that feed into standards influence through deployment experience and domestic R&D.
Competitiveness will depend on how effectively countries convert 5G-Advanced deployments into industrial platforms and how quickly they align R&D, spectrum and regulatory frameworks for 6G. Alignment failures would concentrate early returns in a small group of technological nations, while success would broaden participation in the next-generation ecosystem.
Ukraine participates as a talent and deployment base for leading global vendors. Ericsson, Huawei and Nokia have invested in local R&D cooperation, university partnerships and testbeds, supporting digital capability development and contributing to the resilience of national critical infrastructure.
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