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The Triple Power Chain of Agentic Transition

Gas Turbines, Optical Networking, and How Efficiency Amplifies Absolute Demand

HHaelangdal·Founder AnalystApril 23, 202628 min readThematic Deep Dive
Bottom Line

The Agentic AI transition is a triple power-demand cycle where gas turbines, optical networking, and the efficiency paradox operate simultaneously — more compute efficiency actually amplifies absolute power demand.

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Reader's Brief — 30-second TL;DR

Advanced
Why Now

Sub-agent parallelism is exploding token and memory I/O 10-100x, copper interconnect physics are forcing an optical transition, and Jevons Paradox is converting efficiency gains into higher total power consumption.

Winners ?? Losers

Beneficiaries — GE Vernova (80GW gas turbine backlog), Coherent (CPO commercial year one), Fabrinet and Tower Semi (optical component manufacturing), NVIDIA and Neocloud. Pressure — legacy grid infrastructure, copper-based interconnect suppliers.

Watch For

Quarterly GE Vernova gas turbine backlog and Coherent CPO revenue share — both rising simultaneously confirms the triple-chain thesis remains intact.

Reading depth
  1. 011. Transmission Mechanism — Why Agentic Is DifferentAI compute efficiency gains raise rather than lower total power consumption, the classic Jevons Paradox.Jump to section
  2. 022. Axis ① — On-site Gas Generation and Bring Your Own PowerOver the next three to five years gas turbines are irreplaceable dispatchable capacity, which sustains the backlog's pricing power.Jump to section
  3. 033. Axis ② — Optical Networking Transition (CPO / LPO)As CPO volume ramps in earnest, the scarcity of silicon photonics foundries gets re-rated.Jump to section
  4. 044. Axis ③ — Absolute Power Demand Uplift and Anthropic IPO ScenarioAbsolute power demand uplift is an assumption layer to weight by trigger fulfillment rather than a settled investment basis.Jump to section
  5. 055. Investment Implications — Scenario-by-Scenario Beneficiary MatrixPower and optical networking are not separate themes but one frame sharing the same root cause of exploding agentic workloads.Jump to section
  6. 067. Appendix — Monitoring DashboardThe Bull/Base/Bear shift is judged by trigger frequency. Track GEV backlog, BYOP gas deals, CPO shipments, and Anthropic's IPO progress on a quarterly basis.Jump to section

1. Transmission Mechanism — Why Agentic Is Different

This section is the logical foundation of the report. It decomposes in four stages why agentic workloads are not simply a 'compute demand × N' model but rather reshape power, networking, and infrastructure simultaneously.

1.1 Unit Economics Shift in Token Consumption

Chat-era workloads were relatively sparse inference patterns of hundreds to thousands of tokens per user session. In the agentic environment, a single user runs dozens to hundreds of sub-agents in parallel, each independently performing tool calls, context processing, reflection, and replanning. Per-user token consumption is estimated at 10–100× chat levels, which non-linearly increases cluster-level compute, memory, and network loads.

IEA quantifies this: accelerated server power grows at 30% annually in the Base Case, while conventional servers grow 9%. -specific compute expands more than 2× faster than data center averages, and this gap is the substance of the investable 'AI infrastructure premium.'

1.2 Memory Bandwidth Bottleneck — Forcing GPU Scale-up

The core constraint of parallel sub-agent operation is not FLOPs but memory I/O. Each agent holds an independent KV cache and context state, and synchronization, retrieval, and cross-reference between them depend directly on inter-GPU bandwidth. Swapping between traditional storage tiers (HDD/eSSD) and memory severely degrades inference latency, driving HBM capacity and bandwidth spec upgrades and scale-up domain expansion.

PRIMER·Memory architecture difference: single-user vs parallel sub-agents

For single-user chat, caching context on HDD/eSSD and loading into memory on demand is sufficient. But when hundreds of sub-agents concurrently reference and update in parallel, storage-tier bottlenecks limit effective cluster throughput. As a result, (i) HBM capacity expansion, (ii) scale-up domain expansion, and (iii) inter-GPU interconnect bandwidth upgrades are demanded simultaneously.

1.3 Physical Limits of Scale-up — From Copper to Optical

NVIDIA's Rubin-generation NVLink extends to 14.4 Tbps per GPU, but copper-based scale-up is limited to 2 meters, confining the scale-up domain to 1–2 racks. Agentic clusters require low-latency coherent domains of thousands to tens of thousands of GPUs — physically unreachable via copper.

NVIDIA responds with Quantum-X InfiniBand in 2026 H1 and Spectrum-X Ethernet CPO in 2026 H2 commercial launches. CPO-based systems reduce per-port power to ~9 W and cut electrical loss to ~4 dB. Dell'Oro forecasts 2026 as the initial volume-ramp year for CPO across both InfiniBand and Ethernet switches.

1.4 — Efficiency Amplifies Demand

CPO improves per-port power by 3.5× but simultaneously expands the total port count and scale-up domain per cluster. As the unit economics of agentic workloads improve, more organizations are incentivized to run more agents, amplifying rather than dampening demand. Absolute data center power demand re-rates upward along with the efficiency curve.

This is the classic Jevons Paradox observed repeatedly in economic history. Just as 19th-century steam-engine efficiency improvements increased rather than decreased coal consumption, AI compute efficiency gains produce net increases — not decreases — in total power consumption. IEA reflects this in its projection: 415 TWh (2024) → 945 TWh (2030), with the US and China accounting for ~80% of the global increase.

Takeaway

AI compute efficiency gains raise rather than lower total power consumption, the classic Jevons Paradox.

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This report is provided for informational purposes only and does not constitute a recommendation to buy or sell any financial instrument. Investment decisions should be made based on your own judgment and responsibility. The analysis and opinions contained herein are based on information available at the time of writing and are subject to change.

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