Adani’s $100bn investment in renewable energy and TfL’s EV charging expansion

Adani commits $100 billion to renewable AI infrastructure in India

The Adani Group announced plans on 17 February 2026 to invest $100 billion in AI data centers powered entirely by renewable energy. This marks one of the largest integrated energy and computing commitments globally. The company expects the investment to trigger a further $150 billion in related spending, creating a $250 billion AI ecosystem by 2035.

Chairman Gautam Adani said nations that combine energy capacity with computing power would shape the next phase of technological growth. The announcement positions India as a potential sovereign hub for artificial intelligence development.

Meanwhile, Transport for London extended its partnership with TotalEnergies to install up to 43 new rapid electric vehicle chargers across the capital. The 20-year contract costs TfL nothing upfront. It forms part of London’s target to deploy 3,500 public chargers by 2030.

Both developments illustrate how governments and private investors are directing capital toward infrastructure that reduces carbon emissions while supporting emerging technologies. However, delivery depends on grid capacity, supply chain resilience, and consistent policy support.

How Adani plans to scale renewable data centers to 5 GW

Adani will expand AdaniConnex’s data center capacity from 2 GW currently to 5 GW by 2035. The facilities will integrate renewable generation, transmission networks, liquid cooling systems, and battery storage. This vertical model aims to supply hyperscale, AI-ready computing without reliance on fossil fuels.

The company already operates over 10 GW of renewable capacity at its Khavda solar and wind project in Gujarat. Adani Green Energy has committed a separate $55 billion to expand renewables further, including large-scale battery energy storage systems. Consequently, the group can match data center energy demand with clean power generation.

New campuses are planned for Visakhapatnam, Noida, Hyderabad, and Pune. Google is partnering on the Visakhapatnam site, while Microsoft collaborates on facilities in Hyderabad and Pune. Adani is also establishing AI talent programs with Indian universities to develop skills for large language models and machine learning applications.

Data sovereignty is a key priority. The infrastructure will provide dedicated capacity for Indian large language models, reducing dependence on foreign cloud providers. This approach could lower costs for domestic AI development while keeping sensitive data within national borders.

Energy-intensive AI training requires stable, low-cost power. By controlling the entire energy supply chain, Adani aims to offer competitive pricing for hyperscale customers. Moreover, the integrated model addresses grid stability concerns that typically arise when data centers draw intermittent renewable power.

The project timeline targets full rollout during the 2030s. Early phases will focus on completing the Gujarat renewable base and connecting transmission lines to data center sites. Global technology firms are invited to collaborate, leveraging India’s renewable energy advantage for compute-intensive workloads.

TotalEnergies adds 43 rapid EV chargers across London boroughs

Transport for London awarded TotalEnergies a contract to install up to 43 rapid and ultra-rapid chargers at 100 kW and 200 kW capacity. These units enable electric vehicles to recharge in approximately 30 minutes. The deal extends an existing partnership that previously delivered 40 chargers through operator Zest.

Installation will focus on high streets and key routes used by taxis and freight vehicles. South London boroughs including Bromley, Lewisham, and Sutton receive priority. David Rowe, TfL’s Director of Investment Planning, explained that unlocking TfL land helps London become greener for everyone.

Nicolas Garnier from TotalEnergies confirmed the company is pleased to extend its partnership with TfL. The aim is to support expansion of a reliable, accessible, and high-quality charging network across the capital.

London currently has over 27,980 public chargers, including 1,550 rapid and ultra-rapid units. Projections indicate the city needs between 43,000 and 51,000 public chargers by 2030 to meet demand. TfL’s target of 3,500 chargers by that date represents a significant contribution toward this requirement.

The 20-year contract costs TfL nothing upfront. TotalEnergies funds installation and maintenance in exchange for revenue from charging fees. This public-private model allows TfL to accelerate deployment without upfront capital expenditure. Additional sites will be tendered soon as TfL continues to unlock land across its estate.

Places for London, TfL’s property company, also signed a separate deal with Fastned for 25 ultra-rapid charging hubs by 2030. The first hub opened at Hatton Cross station. These partnerships demonstrate how transport authorities are using their land assets to encourage private investment in charging infrastructure.

Commercial pressures driving electric vehicle infrastructure demand

London’s Congestion Charge rules changed on 2 January 2026. Electric vehicles now pay £13.50 to enter the zone, a 25% discount from the standard £18 fee. Further reductions are planned after 2030. This policy shift increases pressure on fleet operators to electrify while ensuring adequate charging availability.

Taxi and freight operators face particularly tight margins. Rapid charging reduces vehicle downtime compared to slower alternatives. For example, a taxi waiting three hours at a 7 kW charger loses significant earning time. A 30-minute stop at a 100 kW unit minimizes revenue loss.

Air quality regulations also influence investment decisions. London’s Ultra Low Emission Zone covers all boroughs. Older diesel vans and trucks incur daily charges that quickly erode profitability. Consequently, many businesses are switching to electric alternatives, raising demand for reliable public charging.

Public sector suppliers increasingly face sustainability requirements in tender processes. Procurement Policy Note 06/21 mandates carbon reduction plans for contracts above £5 million. Demonstrating a transition to electric fleets strengthens bids, particularly when charging infrastructure evidence supports delivery commitments. Firms seeking public contracts may find carbon reporting support helps them meet these tender criteria effectively.

Range anxiety remains a barrier for many drivers. Strategic placement of rapid chargers on major routes addresses this concern. South London’s coverage gaps have deterred electric vehicle adoption in areas with fewer off-street parking options. Targeted installation in Bromley, Lewisham, and Sutton improves confidence for residents without home charging.

The UK government aims to ban new petrol and diesel vehicle sales by 2030. However, delays to this deadline have been announced and discussed. Regardless, fleet replacement cycles mean businesses must plan transitions now. Those operating vehicles purchased in 2024 or 2025 will likely need electric replacements before decade’s end.

Charging infrastructure availability directly affects resale values for electric vehicles. A robust public network supports second-hand markets, making electric vehicles more affordable for smaller businesses. This creates a feedback loop where infrastructure investment stimulates vehicle uptake, which justifies further network expansion.

What UK businesses should understand about these announcements

• Adani Group is investing $100 billion in AI data centers powered entirely by renewable energy, with full deployment planned by 2035 across sites in Visakhapatnam, Noida, Hyderabad, and Pune.
• The integrated model combines 5 GW of data center capacity with renewable generation, battery storage, transmission networks, and liquid cooling, aiming to offer stable power for energy-intensive AI workloads.
• Transport for London secured a 20-year contract with TotalEnergies for up to 43 rapid EV chargers at zero upfront cost, contributing toward the city’s target of 3,500 public chargers by 2030.
• London currently has over 27,980 public chargers but needs between 43,000 and 51,000 by 2030 to meet projected electric vehicle demand, particularly for taxis and freight vehicles.
• Congestion Charge changes from 2 January 2026 now include a £13.50 fee for electric vehicles entering central London, with further reductions planned after 2030.
• Public sector suppliers face increasing sustainability requirements in tenders, with Procurement Policy Note 06/21 mandating carbon reduction plans for contracts over £5 million.
• Rapid charging at 100 kW to 200 kW enables approximately 30-minute recharges, reducing downtime for commercial fleets compared to slower alternatives.

Carbon reporting and fleet electrification for tender compliance

These infrastructure developments reflect broader market shifts affecting UK businesses. Companies supplying public sector organizations must now demonstrate credible pathways to net zero. Furthermore, private sector buyers increasingly request sustainability evidence from suppliers.

Fleet electrification forms a visible component of carbon reduction plans. Businesses can quantify emissions savings from switching diesel vans to electric alternatives. This data strengthens tender responses and client reporting. Nevertheless, credible plans require evidence of charging infrastructure access, particularly for companies without depot facilities.

Scope 3 emissions reporting includes business travel and logistics. Electric vehicle adoption reduces these reported emissions, improving overall carbon profiles. However, companies must account for the electricity source. Chargers powered by renewable energy contracts offer stronger environmental credentials than those drawing from grid-average power.

Training helps teams understand reporting requirements and infrastructure planning. The SBS Academy provides courses on carbon measurement, Scope 3 emissions, and sustainable procurement. Knowledge of these topics enables better decision-making when evaluating fleet transition timelines.

Supply chain emissions often exceed direct operational emissions for many businesses. Logistics partners’ electrification strategies therefore matter. Companies can include emissions intensity requirements in haulage contracts, encouraging partners to adopt electric vehicles. This approach aligns commercial relationships with net zero targets.

Infrastructure availability remains uneven across regions. Businesses operating in areas with sparse charging networks face higher transition risks. Site assessments should consider depot charging installation costs versus reliance on public networks. Local authority planning policies affect installation timelines for workplace chargers.

Government grants support depot charging infrastructure, but eligibility criteria change regularly. The Office for Zero Emission Vehicles publishes updated guidance on available schemes. Early planning allows businesses to align capital expenditure with grant availability.

Energy intensity of AI infrastructure and renewable integration

Adani’s investment highlights growing energy demand from artificial intelligence workloads. Training large language models consumes significant electricity. Traditional data centers often rely on fossil fuel-powered grids, creating substantial carbon footprints. The integrated renewable model attempts to decouple AI development from emissions growth.

Battery energy storage systems address intermittency from solar and wind generation. Data centers require constant power supply with minimal interruption tolerance. Large-scale batteries smooth renewable output, storing excess generation during peak production periods. This stored energy then powers computing during low renewable generation windows.

Liquid cooling systems improve energy efficiency compared to traditional air cooling. High-density AI servers generate intense heat. Liquid cooling removes heat more effectively, reducing overall energy consumption per compute unit. This efficiency gain lowers both operating costs and renewable capacity requirements.

Data sovereignty concerns drive interest in domestic AI infrastructure. Organizations handling sensitive data prefer servers located within national borders. India’s growing AI sector creates demand for local capacity. Adani’s model offers an alternative to relying on international cloud providers for training large language models.

Vertical integration provides cost advantages in energy-intensive industries. By controlling generation, transmission, and data center operations, Adani can optimize the entire system. This contrasts with data centers purchasing power from separate utilities, where coordination challenges increase costs and reduce flexibility.

Global technology firms evaluate multiple locations for data center investment. Stable renewable energy supply at competitive prices influences these decisions. India’s expanding solar and wind capacity, combined with lower land and construction costs, creates attractive conditions. Partnerships with Google and Microsoft validate the commercial viability of Adani’s approach.

Policy context for electric vehicle charging expansion

London’s charging network expansion occurs alongside evolving policy frameworks. The UK government previously announced plans to ban new petrol and diesel vehicle sales by 2030, though this deadline has faced delays and revisions. Local authorities meanwhile implement their own measures to encourage electric vehicle adoption.

The Ultra Low Emission Zone covers all London boroughs, charging non-compliant vehicles daily fees. This policy creates immediate financial incentives for businesses to electrify fleets. Combined with Congestion Charge adjustments, the regulatory environment increasingly favors electric vehicles despite new fees applied to them.

Planning policy affects charging infrastructure deployment speed. Local authorities streamline approvals for charging points in some areas while imposing stricter requirements elsewhere. Inconsistent approaches across boroughs complicate network planning. TfL’s land unlocking strategy bypasses some planning hurdles by using transport authority sites.

Grid capacity constraints limit rapid charger installation in certain locations. Distribution network operators must approve connections and may require grid reinforcement. These upgrades add cost and delay. Areas with spare grid capacity attract faster deployment, potentially widening geographic disparities in charging availability.

Public-private partnership models distribute financial risk between government and commercial operators. TfL’s zero-cost contracts shift installation and maintenance expenses to charging companies. Revenue from usage fees compensates these investments. This model requires sufficient demand projections to justify commercial participation.

Standardization benefits users and operators. The UK primarily uses CCS charging connectors for rapid charging. Consistent standards across networks allow any compatible vehicle to use any charger. This interoperability proves essential for long-distance travel and reduces range anxiety.

The UK Electric Vehicle Infrastructure Strategy sets national targets for charging coverage. Local delivery depends on coordination between government departments, transport authorities, and private companies. Monitoring progress against these targets helps identify gaps requiring intervention.

Links to authoritative sources and further reading

The Department for Energy Security and Net Zero publishes policy updates on renewable energy investment and net zero strategy. Their guidance covers grid planning, renewable generation targets, and carbon reporting requirements affecting UK businesses.

Transport for London provides detailed information on electric vehicle charging expansion plans through their official EV charging pages. This resource includes maps of existing chargers, installation timelines, and partnership announcements.

Information about Procurement Policy Note 006 and carbon reduction plan requirements appears on the UK government procurement pages. This guidance explains how sustainability criteria apply to public sector tenders and what evidence suppliers must provide.

Businesses seeking support with carbon reporting, fleet transition planning, or sustainable procurement may find compliance services helpful for navigating these requirements while managing costs and operational risks.