The 14 Technology Trends Shaping 2026: What They Mean for the Global South

Subheadline: A 2026 outlook on 14 technology trends points to a landscape shaped by artificial intelligence, computing, engineering and energy. For emerging economies, the decisive question is not which technologies emerge, but which can be absorbed, financed and governed.

Executive Summary

McKinsey's technology trends outlook for 2026 sets out 14 technology trends expected to influence business objectives, capital allocation and ways of working over the year ahead. The trends cluster around artificial intelligence, computing and connectivity, frontier engineering and bioscience, and energy and sustainability — a combination that is unusually dependent on physical infrastructure, specialised skills and regulatory institutions.

For the Global South, this composition matters more than any individual technology. Two implications stand out. First, AI and data-intensive computing place new demands on electricity grids, data infrastructure and human capital at a time when many emerging economies are still expanding basic connectivity and generation capacity. Second, the same trends create room in global supply chains, agricultural productivity, health systems, financial inclusion and climate adaptation, where developing economies have both pressing needs and expanding capabilities.

The analysis below suggests that the differentiator over the coming decade will be absorption capacity — the ability of firms, universities and public institutions to convert available technology into productivity, exports and public services — rather than access to technology as such.

Introduction

Technology outlooks attempt to separate durable shifts from short-lived enthusiasm. For developing economies, their value lies less in the ranking of technologies than in what the ranking reveals about the requirements for participating in them. McKinsey's 2026 outlook, which identifies 14 trends shaping the year, describes a landscape in which artificial intelligence, computing and connectivity, engineering and bioscience, and energy and sustainability are increasingly intertwined.

That intertwining is the analytical starting point here. When innovation is concentrated in software and capital-light services, late adopters can sometimes catch up quickly. When innovation depends on electricity, semiconductors, data centres, specialised skills and regulatory oversight, the pace of adoption becomes a function of industrial and public policy, not simply of access to products.

Background & Context

Three decades of technology diffusion across the Global South were shaped mainly by two forces: falling costs of connectivity and the spread of mobile services. Mobile payments, digital public infrastructure, electronic government platforms and e-commerce grew on that base, and several emerging economies became exporters of digital services rather than only importers of technology.

The current cycle differs in composition. The trends identified for 2026 span generative and agentic artificial intelligence, cloud and edge computing, advanced connectivity, digital trust and security, quantum technologies, immersive reality, robotics and autonomous systems, space technologies, bioengineering, electrification and renewables, sustainable consumption and advanced materials, among others.

Three features distinguish this set:

1. General-purpose character. AI is being applied across agriculture, health, education, manufacturing, logistics and public administration, which means its economic effects depend on sector-level adoption rather than on a single industry.
2. Physical dependence. Data centres, grids, chips, sensors, satellites and industrial equipment tie digital progress to investment in tangible infrastructure.
3. Governance intensity. Data protection, competition policy, cybersecurity, safety standards and public procurement rules now shape how quickly technologies can be deployed at scale.

Main Analysis

From technology access to absorption capacity

Software subscriptions and cloud services are widely available. What is scarce is the organisational capability to redesign workflows, retrain staff, restructure data governance and measure results. Economies that treat technology procurement as the endpoint tend to accumulate pilots; those that treat it as the beginning of institutional change tend to accumulate productivity.

Compute, energy and the emerging infrastructure constraint

AI and large-scale data processing concentrate demand on reliable, affordable electricity, cooling capacity and fibre connectivity. In several emerging markets, grid reliability, generation shortfalls and transmission bottlenecks are already binding constraints on industrial activity. This creates a policy tension: the same decade in which many countries intend to expand electrification and renewable generation is the decade in which digital infrastructure will compete for that power. Regional power pooling, transmission investment, storage and transparent tariff design become technology-policy questions, not only energy-policy questions.

Skills, language and local relevance

Most widely used models are trained predominantly on high-resource languages and on data generated in advanced economies. For agriculture extension services, clinical decision support, public administration and small-business finance, relevance depends on local datasets, domain adaptation and evaluation capacity. That work requires universities, technical training institutes and research funding — the least capital-intensive and most frequently neglected part of the technology agenda.

Supply chains and industrial opportunity

The outlook's emphasis on robotics, electrification, advanced materials and computing hardware intersects with ongoing diversification of global supply chains. Assembly and testing of electronics, processing of critical minerals, battery components, electric mobility and specialised manufacturing are realistic entry points for economies with industrial parks, reliable logistics and predictable trade rules. The risk is familiar: supplying raw materials to supply chains that capture value elsewhere.

Governance, standards and institutional capacity

Rules now travel with technology. Data protection regimes, AI safety expectations, cybersecurity requirements and procurement standards influence whether local firms can serve regulated markets and whether citizens trust new services. Fragmented national rules raise compliance costs for small firms; regional frameworks and mutual recognition can lower them. Participation in international standard-setting, currently thin across much of the Global South, is a practical commercial interest rather than a diplomatic formality.

Development Impact

Economic development and productivity. Technology adoption that is paired with managerial and skills investment tends to raise productivity in services, logistics and manufacturing. Without that pairing, the effect is often limited to individual firms rather than sectors.

Industrialisation. Robotics, automation and electrification change the calculus of light manufacturing. Lower labour costs remain relevant, but reliability of power, quality of logistics and speed of customs clearance increasingly determine where production locates.

Employment. Routine digital tasks face displacement pressure, while demand grows for technicians, data stewards, cybersecurity staff, maintenance engineers and trainers. Reskilling systems — vocational institutes, employer partnerships, portable certification — become core economic infrastructure.

Infrastructure and connectivity. Data centres, submarine and terrestrial cables, edge facilities and smart-city systems require coordinated planning across energy, telecommunications and urban regulators.

Regional trade and integration. Digital trade rules, cross-border payment interoperability and mutual recognition of professional credentials can expand services trade within regions, particularly where regional agreements already exist.

Foreign direct investment. Investment in data centres, electronics assembly, mineral processing and renewable generation is growing, but it is sensitive to grid stability, currency risk and regulatory predictability.

Innovation ecosystems. Deep-technology capability depends on patient research funding, university-industry links and access to early-stage capital. Where these are weak, talent emigrates and adoption remains import-dependent.

Food security and climate resilience. Bioengineering, precision agriculture, satellite-based crop monitoring, early-warning systems and index-based insurance offer measurable adaptation gains, particularly for smallholder systems exposed to climate variability.

Energy transition and financial inclusion. Renewable generation, storage and distributed energy intersect with digital payments and mobile finance, which have already demonstrated the capacity to extend services to populations outside formal banking.

Institutional capacity and competitiveness. Public institutions that can evaluate technology, run competitive procurement and enforce standards will shape long-term competitiveness more than any single private investment.

Global South Perspective

Africa. The continent has demonstrated that digital financial services can scale quickly and profitably, and continental integration frameworks aim to widen markets. The binding constraints are electricity access and reliability, technical skills and the cost of capital for infrastructure.

Latin America. Agricultural technology, financial technology and near-shoring of manufacturing and services are expanding, supported by a comparatively deep base of engineering talent in several countries. Macroeconomic volatility and uneven infrastructure remain limiting factors.

South Asia. A large software services sector and extensive digital public infrastructure provide a foundation for AI-enabled services and government delivery, though hardware, energy and research funding gaps persist.

Southeast Asia. Manufacturing depth, active trade agreements and data-centre investment position the region to capture parts of electronics and digital infrastructure supply chains, provided skills and power supply keep pace.

Middle East. Sovereign capital and national technology strategies are financing compute capacity, research institutions and industrial diversification, with potential spillovers through investment and regional partnerships.

Pacific developing economies. Small markets depend on submarine cable connectivity, climate adaptation technology and regional cooperation to justify infrastructure investment and shared services.

South-South cooperation and BRICS. Joint research programmes, technology transfer arrangements, pooled procurement of digital infrastructure, shared data-centre capacity and skills exchanges are plausible vehicles for reducing adoption costs. Regional development banks can support this through guarantees, blended finance and technical assistance rather than only sovereign lending.

Future Outlook

Over the next five to ten years, several trajectories appear likely.

Artificial intelligence. Capability will continue to improve, but the distribution of gains will depend on data, energy and organisational readiness. Economies that build evaluation, procurement and public-sector delivery capacity early are likely to convert AI into measurable service improvements.

Digital economy. Digital public infrastructure, interoperable payment systems and cross-border data frameworks will shape how quickly small firms can participate in regional and global markets.

Industrial transformation. Electronics assembly, mineral processing, battery and electric-mobility components, and specialised manufacturing are the most probable points of entry, alongside services exports.

Infrastructure. Power generation, transmission, fibre networks, data centres and cable routes will function as a single investment agenda, requiring coordination between energy, telecommunications and planning ministries.

Climate adaptation and energy transition. Falling costs of renewables and storage, combined with adaptation technologies, will shape resilience planning — though financing gaps for adaptation are unlikely to close without reform of development finance.

International trade. Regional agreements and services trade will grow in importance relative to a stalled multilateral agenda, with digital provisions increasingly central to negotiations.

Development finance. Multilateral reform, guarantees and blended structures will determine whether infrastructure investment reaches smaller and lower-income markets.

Innovation ecosystems and global governance. Research funding, patenting activity and participation in technical standards bodies will be markers of emerging economies moving from adoption to contribution.

The Global South's role. Continued demographic weight and economic growth imply greater influence over technology governance, trade rules and development finance. Whether that influence is exercised through coordinated regional positions or through fragmented bilateral deals will be a defining variable of the next decade.

Conclusion

The 14 technology trends identified for 2026 describe a landscape in which digital, industrial and energy questions converge. For the Global South, the practical agenda is unglamorous but consequential: reliable power, functioning logistics, capable universities, transparent procurement, enforceable data rules, patient capital and regional cooperation. These are the conditions under which technology trends become development outcomes rather than headlines. The economies that build them will not simply adopt the next wave of innovation; they will help determine its direction.

Key Takeaways

• The 2026 technology outlook clusters 14 trends around artificial intelligence, computing and connectivity, frontier engineering and bioscience, and energy and sustainability.
• Adoption depends increasingly on electricity, data infrastructure, skills and regulation, not only on access to software.
• Absorption capacity — organisational, institutional and human — is the main differentiator among emerging economies.
• Manufacturing and supply-chain diversification offer realistic entry points, provided power, logistics and trade rules are dependable.
• Regional cooperation, development finance reform and participation in technical standards are strategic, not peripheral, priorities.
• Bioengineering, remote sensing and precision agriculture carry direct implications for food security and climate adaptation.
• Talent retention and research funding will shape whether emerging economies remain adopters or become contributors.

SEO Keywords

Global South, Emerging Markets, South-South Cooperation, Economic Development, Sustainable Development, Artificial Intelligence, Digital Economy, Industrialization, Infrastructure, Foreign Direct Investment, Climate Adaptation, Energy Transition, Global Trade, Development Finance, Innovation, Regional Integration, Global Governance, Economic Transformation, Inclusive Growth, International Cooperation

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Sources

• McKinsey & Company, The top trends in tech: https://www.mckinsey.com/capabilities/tech-and-ai/our-insights/the-top-trends-in-tech

Additional context is drawn from broadly available development literature on infrastructure, energy access and technology adoption; no proprietary or unpublished data are cited, and no quantitative projections from the reference material are reproduced.