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Powering Asia Pacific’s data centre boom

Unlocking growth and accelerating decarbonisation together

The new Deloitte report Powering Asia Pacific’s data centre boom (hereafter, ‘the report’) identifies the region as on track to become the world’s next data centre hub. With around US$800 billion in investment expected by 2030, Asia Pacific could reach around 40% of global capacity. This demand is driven by rapid digitalisation beyond the current AI wave, including data localisation1 and data sovereignty2. However, access to secure, affordable electricity, while meeting climate goals, is now the primary bottleneck for the region’s opportunity.

The report highlights the opportunities for a clean energy3 led scale‑up, including deploying onsite renewables plus batteries, contracting additive supply via Power Purchase Agreements (PPAs), using utility green products where credible, clustering around clean power zones, and shifting workloads across time and place. By prioritising new, clean energy, data centres can mitigate price volatility, speed market entry, and support grid decarbonisation, transforming a challenge into a competitive edge.


How Aotearoa New Zealand can lead and benefit - practically and credibly

This article applies the report’s playbook to New Zealand to capture growth while protecting energy, climate and community outcomes.

Go “power first”

The report’s core message is that clean energy procurement is not a downstream task but central to delivery. To unlock the potential of the data centre boom, a “power first” approach is key. This means integrating secured, additional clean power and grid-supporting solutions into site selection, design and contracting.

New Zealand’s grid runs on about 85% renewable electricity, led by hydro and geothermal, followed by wind and solar, making it one of the world’s cleanest electricity systems4. With an ambitious 100% renewable energy target by 20305, its expanding renewable energy supply makes the country ideal for sustainable data centre development. The data centre boom is already catalysing renewables. Projections show data centre use rising from 0.6% to 1.8% of New Zealand’s total electricity supply by 20306. Data centres account for 64% of total load capacity7 in the pipeline8, reshaping grid planning and renewable roll‑out.

One way to enable – and even accelerate – this is through clean energy PPAs, typically 20 to 25 year contracts at an agreed price, which improve cost certainty and reduce exposure to volatile wholesale markets. By securing long-term offtake, these contracts make renewable projects more bankable so new clean electricity supply grows with demand. Investors can further shape the market by preferring power-first data centre projects, signalling to developers, energy providers and planners what constitutes future-proof, financeable infrastructure. New Zealand’s market transparency, with public, regularly updated generation and large-load datasets, such as Transpower’s transmission planning report, further enables buyers to assemble portfolio PPAs that manage risk.

From clean power to usable compute: why connectivity matters - a Chorus perspective

 

Data centres exist to store, process and manage vast amounts of data. They create value by enabling the massive volumes of data we rely on at work and in everyday life to move securely, quickly and reliably between users, systems and locations.

In short, data is the new fuel and organisations like Chorus are central to how that fuel moves.

Clean, reliable power is essential to enable data centres to function – but it is only part of the picture. Connectivity, or the ‘pipes that move the fuel,’ also plays a crucial role and must be planned from the outset.

In real terms, power and connectivity work together as enablers of data. Without strong connectivity, clean energy cannot be converted into usable compute. And when connectivity is treated as an afterthought, costs increase, resilience is impeded, and future growth is restricted as data usage scales.

To meet the demands of modern life and business, forward planning is critical. Internationally, while hyperscale data centres remain essential – particularly for AI training – a growing set of AI inference, analytics, and real time workloads benefit from being located closer to where data is created and used. Many modern workloads we take for granted are sensitive to delay and data location requirements, which is driving a shift away from single central hubs, towards more regionally distributed compute.

This shift favours multiple, well connected sites over a small number of large ones - leading to better business continuity during power grid constraints, as well as reduced exposure to single site failures. It also places far greater emphasis on fibre reach, capacity and route diversity - areas where Chorus’ nationwide, open‑access fibre network plays a foundational role.

Given New Zealand’s scale, geography, and fibre footprint, these global trends make distributed, well connected sites particularly relevant here. Fibre already extends to 87% of our population, reducing the trade off between energy rich locations and digitally connected ones. Crucially, Chorus’ distributed EdgeCentre locations within select exchanges support enterprise grade hosting closer to end users, making it easier to place compute where it delivers the most value. This turns clean power into reliable, low latency and sovereign compute across the country, which in turn, supports economic growth, innovation and confidence as data continues to shape physical reality.

Make flexibility part of the business model

The report urges operators to monetise flexibility through demand response to lower costs and strengthen the grid. Battery storage can smooth on-site demand, support resilience during peak demand hours and earn wholesale firming revenue9, diversifying revenue and reducing price exposure.

New Zealand’s grid is progressively enabling battery energy storage systems (BESS)10, to participate in ancillary services under updated 2025 regulations (the ‘Code’11). Developments such as Meridian’s Ruakākā Energy Park and Genesis’ Huntly BESS programme signal commercial readiness.

Flexible use can be optimised through differentiated service contracts. For example shifting delay-tolerant workloads to different times of the day, AI-driven controls, and networked interconnection to shift workloads within sovereignty and latency limits.

Load shifting must, however, respect data sovereignty. In Aotearoa New Zealand this includes Māori Data Sovereignty and jurisdictional expectations to keep, where appropriate, certain Māori data stored onshore and under tikanga-aligned controls. Recent examples, such as Te Tumu Paeroa’s anchoring tenancy agreement with Microsoft, demonstrate how this can be honoured.

Co‑locate, collaborate, co‑create

The report identifies an efficiency and resilience opportunity in clean energy data zones that co-locate data centres with new renewable generation. Collaboration and coordination between energy providers, grid operators and data centres reduce upfront costs and support delivery through shared-user infrastructure. New Zealand has suitable regions for distributed, smaller-scale sites, such as Manawatū12, alongside a growing pipeline of larger, potentially hyperscale, facilities.

Data centres need high-speed cables to move data from energy-rich locations to users, often cheaper than moving electricity. While New Zealand’s distance can add latency, for example 30-50 milliseconds to and from Sydney13, Southern Cross NEXT has doubled connectivity, and new subsea cable initiatives14, such as Tasman Express cable, are forthcoming.

The collaborative impact can be maximised through open-access, jointly governed assets and aligned interconnection timelines, rather than relying on ad hoc, one-off connections. This can be complemented by precinct-level governance that embeds iwi and community partnerships and environmental safeguards.

Governments can accelerate, signal, and co-invest

The report also identifies a role for governments in making “power first” the default, including through accelerated approvals for projects that strengthen, decarbonise and flex the grid. New Zealand’s permanent Fast-track Approvals Act15 provides a streamlined pathway for nationally significant projects, that evidence additive clean generation, integrated storage or firming, flexibility services and Treaty-consistent engagement.

In parallel, governments can create market incentives through clear policy signals, including durable carbon pricing, grid decarbonisation goals and minimum performance standards. The Government is taking steps on this front with the Offshore Renewable Energy Bill, with the first feasibility permits expected in 2026, to better match data centre demand with new clean energy supply16.

Lastly, governments can co-invest in the grid and other shared assets, such as high-voltage transmission, to maximise the efficiency of new electricity supply. In New Zealand, a key example is Transpower’s Net Zero Grid Pathways programme17, which is planning and delivering major grid upgrades to manage rising demand from economy‑wide decarbonisation. Overall, governments should actively review their market-shaping levers to identify gaps and strengthen local policies that enable sustainable data centre growth.

Unlock incentives

The New Zealand Investment Boost presents a powerful lever for project developers seeking to accelerate the deployment of clean energy infrastructure and advanced data centre projects. By providing an immediate tax deduction for 20% of asset costs (including buildings), this incentive can improve project viability and encourage the early adoption of innovative technologies, such as grid-scale battery storage or on-site renewables. Leveraging the rebate not only enhances return on investment but also aligns with the nation’s broader strategy to attract future-proof capital, catalyse local supply chains, and deliver scalable, climate-aligned growth. For developers, this mechanism helps transform ambitious plans into tangible assets, supporting New Zealand’s vision of sustainable, competitive data centre leadership in the Asia Pacific region.

Power‑and‑compute, one portfolio

As with any transition, the quickest wins come from reusing what exists. Repurposing high-capacity grid nodes, such as Huntly’s BESS (Genesis’ battery), could provide a brownfield template for phased repurposing, anchoring initial shared power and compute capacity and adding renewables in phases at the same node.

Investors can support this through integrated portfolios of generation, storage and compute capacity. This captures synergies, including shared siting decisions and aligned timelines, while deploying capital efficiently. APAC hyperscalers already pair compute with dedicated clean power to ease bottlenecks and lift utilisation. Given its limited capital base, this approach is also essential for New Zealand, with investors seeking multiple benefits and long-term outcomes.

What’s next?

New Zealand is well placed to ride the Asia Pacific data centre wave, provided it converts its renewable strengths into timely delivery. A power-first approach should translate demand into new, additive generation via long-term PPAs, rather than leaning on existing supply. Battery storage and demand response should be built into operations to keep the system resilient as load grows. Targeted co-investment in shared infrastructure and clean energy zones can lower entry costs and close connectivity gaps. With clear, durable policy signals and genuinely fast-tracked approvals for additive projects, today’s interest can turn into steel-in-the-ground investment. By embedding Māori data sovereignty from the outset, the sector can scale in a way that is both globally competitive and locally grounded.

  1. Ensuring sensitive data is securely stored and processed within national borders
  2. Aims to ensure data is fully controlled by a country’s own laws, and cannot be exploited by governments or companies in other jurisdictions
  3. Clean energy can be faster deployed than conventional energy sources, and is increasingly the lowest-cost source of new capacity across Asia Pacific
  4. EECA, MBIE
  5. MBIE
  6. NZTech
  7. Load capacity is the requested peak demand at the node (MW), rather than annual consumption (GWh)
  8. EA
  9. Definition: Wholesale electricity firming is the broader, strategic goal of ensuring a reliable power supply by covering the intermittent gaps of renewables
  10. Definition: large-scale, often containerized, energy storage units that store excess electricity—typically from renewables like wind and solar—and release it during high demand to stabilize the grid
  11. EA
  12. Manawatū
  13. For comparison the average for Auckland to Wellington is typically around 12-14ms
  14. For example, the 2,700km Te Waipounamu cable invested by Intelia New Zealand
    Comparable to the latest submarine cable in Japan, with a new optical fibre, that can now transmit long-distance data faster than 350k times than the average US broadband internet speed link
  15. MfE
  16. MfE
  17. Transpower

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