Reflection: What Asia-Pacific’s AI Climate Experiments Reveal About the Next Five Years?

When an AI system for climate action succeeds, the deciding factor is often not the algorithm itself. Across Asia-Pacific, many of the technologies for reducing emissions and strengthening climate resilience are already technically viable. What the region’s recent case studies suggest is that long-term success may depend less on computational sophistication than on whether an institution remains accountable for the data, infrastructure and operational resources that support the system.

Same Technology, Different Trajectories

A 2025 Climate Technology Centre and Network (CTCN) and National Institute of Green Technology (NIGT) brief documenting AI-climate projects across Asia-Pacific points toward this pattern, even though it does not frame the cases in these terms. Seoul’s Transport Operation and Information Service (TOPIS) evolved from traffic optimisation into the broader TOPIS 3.0 platform, integrating mobility, disaster response and public safety. Singapore’s Public Utilities Board (PUB) similarly embedded AI into its Smart Water Technology programme through extensive sensing and monitoring infrastructure. Both illustrate how AI can become part of an established operational system rather than remain a standalone application.

The other cases highlight different governance challenges. India’s Tata Power EZ Home demonstrates how AI can improve energy management at the household level, but broader system-wide benefits would depend on integration with utility infrastructure and regulatory frameworks beyond consumer devices. Meanwhile, the Solomon Islands’ AI-based Mangrove Adaptive Mapping Platform (AMAP) shows that resource-constrained countries can successfully deploy AI through international technical assistance. However, the report provides little discussion of how such systems will be maintained or institutionally supported once project-based assistance concludes. Taken together, these cases cannot establish institutional accountability as the sole determinant of successful AI deployment. They do, however, consistently point to governance, long-term operational responsibility and institutional capacity as factors that are often overlooked when evaluating AI for climate action.

The Missing Question

The report correctly identifies digitalisation, innovation systems and regional cooperation as priorities for accelerating climate technologies. Yet it says comparatively little about who remains responsible for maintaining AI systems after deployment. For engineers, this raises practical questions that extend beyond model performance: Who owns the data infrastructure? Who funds software maintenance and hardware replacement? Which organisation remains accountable for system performance five years after implementation? These considerations often determine whether an AI solution becomes permanent public infrastructure or remains a successful demonstration project.

Beyond the Pilot

For engineers and policymakers evaluating future AI investments, selecting the right algorithm may be only part of the decision. Equally important is whether the responsible institution has the mandate, technical capability, and sustained funding to operate the supporting infrastructure throughout the system’s lifecycle.

The technologies highlighted in the CTCN report demonstrate that AI already offers practical tools for climate action. Their longer-term impact, however, may depend less on developing new pilots than on building institutions capable of sustaining the systems that already exist.

Read more about it

CTCN and NIGT, Integrating AI into Climate Action: Enhancing Climate Technology Capacity in Asia-Pacific Countries, UN Climate Technology Centre & Network, Copenhagen, Denmark, 2025. [Online]. Available: https://www.ctc-n.org/resources/integrating-ai-climate-action-enhancing-climate-technology-capacity-asia-pacific

By Mr. Adam Muzaffar Abd Razak