Future Footprints: Anticipating Market Evolution

As we step into the latter half of this decade, a complex tapestry of innovation, policy, and sustainability is redefining the global market landscape. From the soaring demand of AI-driven compute to the rapid scaling of renewables, every sector is in motion.

AI-Driven Energy Demand

The rise of artificial intelligence is not just a software revolution—it is a catalyst reshaping energy consumption on an unprecedented scale. Global data center power demand is set to grow 14% annually through 2030, potentially consuming more electricity than entire nations today.

Goldman Sachs projects a 165% surge in data center power use between 2023 and 2030. In the United States alone, data centers could draw up to 12% of the nation’s electricity by 2028. Hyperscale facilities controlled by major tech firms already occupy 70% of U.S. capacity, pushing grids to their limits and accelerating investment in infrastructure.

By 2030, AI workloads will account for 50% of all compute tasks, with inference operations representing 75% of AI compute demand. This shift demands strategic on-site power adoption, with 38% of facilities generating energy on premises and nearly 27% fully self-sufficient.

Energy Transition and Cleantech Trends

Parallel to AI’s surge, the energy transition is gathering momentum. Solar photovoltaic capacity is on track to double within five years, while battery energy storage additions in 2026 alone are expected to exceed 28 GW across the US, Germany, Australia, and the UK.

Amid price volatility and zero-pricing events, developers are pairing solar and storage in hybrid power purchase agreements that ensure both reliability and revenue stability. On the policy front, the United States is adopting an interventionist stance—implementing mineral price floors, taking equity stakes in domestic projects, and boosting nuclear and geothermal support.

• Solar PV doubling capacity by 2030
• Battery storage growth exceeding 30% over five years
• Wind power integration in hybrid models
• Geothermal and advanced nuclear support

Geopolitics and Supply Chain Dynamics

China’s dominance spans solar manufacturing, green hydrogen, battery production, and electric vehicles, fostering widespread deployment but also intensifying the US–China AI and cleantech rivalry. European carbon border adjustments and debates at COP30 underscore the friction around export rebates and trade incentives.

Policy volatility in major regions demands resilience. Companies must build geological and contractual flexibility to navigate shifting tariffs, carbon taxes, and strategic alliances. In this flux, geopolitical shifts in supply chains become both a risk and an opportunity for market entrants worldwide.

Sector-Specific Forecasts

Within this broader context, individual sectors are charting distinct paths:

• Sustainable Aviation Fuel (SAF): Capacity rose by 33% to 8 MMt in 2026, yet remains below 0.5% of jet fuel demand. Assuming project execution, global capacity could reach 42 MMt by 2030.
• Electric Vehicles (EVs): Global sales are ascending, led by China, as EU CO2 regulations for 2030 and 2035 spur battery-electric competition.
• Semiconductors and Quantum: Revenue in the semiconductor market is projected to surpass $1 trillion by 2030, with quantum computing expanding at roughly 35% annually.

Risks and Opportunities

While the narrative is one of expansion, it is underpinned by significant risks. Grid constraints, policy reversals, climate-induced disasters, and fragmented carbon regulations can undermine progress. Delays in FID for key projects—particularly SAF and green hydrogen—threaten timelines.

Yet, embedded within these challenges are clear pathways to growth:

• Hybrid procurement models that blend renewables with storage
• Decentralized and on-site energy generation
• Eastward shift of cleantech capital and manufacturing
• Monetization of AI inference as a revenue source

Charting a Resilient Path Forward

To thrive in this evolving environment, stakeholders—governments, investors, corporations, and communities—must adopt integrated strategies. Energy and digital infrastructure must be planned in tandem, ensuring that data hubs, renewable farms, and storage assets work in seamless coordination to meet surges in demand.

Policymakers can foster stability through long-term frameworks: carbon price clarity, supply chain diversification incentives, and robust disaster-resilience standards. Industry must prioritize agility, forging public-private partnerships to de-risk investments and deploy capital ahead of the curve.

The story unfolding between 2026 and 2030 is one of intertwined trajectories—where AI’s voracious appetite for power meets the imperative for a net zero future. By aligning ambition with action, we can shape sustainable imperatives and market evolution into a virtuous cycle of innovation, resilience, and prosperity.

As footprints are laid for decades to come, the choices made today will echo across industries, geographies, and generations. This is our opportunity to co-create a future where technological prowess and environmental stewardship walk hand in hand.