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Architecture & policy

How physical infrastructure, software and national policy connect.

Thesis change

A national compute-coordination layer is becoming visible.

New standards evidence moves the thesis beyond provider-level control planes toward monitoring, scheduling, billing/trading and compute–electricity coordination across the national compute network.

Control plane ↑Compute × energy ↑National architecture ↑GDS edge added

Still unproven: nationally fungible compute, routine cross-region workload optimisation and commercial returns.

03 • THE SYSTEM WE ARE TESTING

Physical capacity below. A control plane above. Useful AI output at the end.

The audit of Q1–Q9 changes the centre of gravity. China does not need every accelerator to become interchangeable or every region to behave like one giant computer. A more plausible architecture is heterogeneous resource islands connected by software, networking and increasingly intelligent workload placement.

CONTROL PLANE

Hide enough complexity to place the workload well.

Compiler • runtime • cloud • MaaS • scheduler • resource identifiers • marketplace • workload placement

PHYSICAL PLANE

Provide the scarce capacity the control plane can actually use.

Compute • memory • storage • interconnect • AIDC • geography • electricity

HETEROGENEOUS ISLANDS + ORCHESTRATIONA national compute fabric does not require one mixed-vendor supercomputer. It can connect internally optimised pools — Ascend, other domestic accelerators, CPU/specialised compute — and make them increasingly discoverable, schedulable and marketable through a common control layer.

National compute coordination is becoming an explicit architecture layer New · 21 Sep

21 September 2026 update. Newly registered National Integrated Computing Power Network standards materially strengthen the control-plane thesis. The programme now spans compute-grid connection, monitoring interfaces, resource identification, scheduling, multidimensional billing, operations/matching transactions, compute–electricity coordination and assessment of data-centre adjustable-load potential. These are draft/registered technical projects rather than proof that one national scheduler already controls workloads, but they move the thesis from broad policy language toward defined interfaces and operating rules.

Updated abstraction: enterprise/cloud control planes sit below an emerging national coordination layer that can make heterogeneous compute resources increasingly identifiable, monitorable, schedulable, billable and tradable across regions and operators. The physical AIDC and energy layers therefore connect upward to software orchestration and sideways to the power system.

Primary evidence: National standards register — adjustable data-centre load potential · National standards register — related integrated-compute-network projects

01
COMPUTEAccelerators • CPU/NPU • SuperPod
Huawei · Cambricon · MetaX · Moore Threads · Biren · Enflame
02
MEMORY / DATAHBM • DDR • KV/context • SSD
CXMT · YMTC · Huawei
03
INTERCONNECTUnifiedBus • Ethernet • NPO/CPO • WAN
Huawei · China Mobile · VNET · optics ecosystem
04
SOFTWARECompiler • runtime • scheduler • portability
Huawei · ByteDance/Volcano Engine · Alibaba · KC · telecoms · accelerator vendors
05
AIDCPower • cooling • rack • building
VNET · GDS · Huawei · Alibaba Cloud
06
GEOGRAPHYCampus • region • national compute network
Telecoms · VNET · GDS · national hubs
07
ENERGYGrid • BESS • HVDC • renewables
CATL · Huawei Digital Power · VNET · grid actors

Architecture is the object; companies are evidence.

Select any layer to see the current interpretation. The economic endpoint is not installed FLOPS or MW in isolation, but useful AI output relative to capital, power and operating complexity.

PACKAGE / BOARDEverything wants to get closer: memory and high-bandwidth electrical/optical paths.
RACK / SUPERPODTight coupling: very low latency, high bandwidth, shared-address abstractions.
CLUSTER / CAMPUSOptical scale-out, fault domains, power and cooling become inseparable.
DATA CENTRE / CITYLossless fabrics and workload placement matter more than shared-memory metaphors.
REGION / NATIONResource discovery, scheduling and data/workload movement reconcile geographic dispersion.
03 • CHINA POLICY HUB

Policy is the directional glue — execution and outcomes decide whether it matters.

The Policy Hub now separates four questions: what Beijing intends, the mechanisms chosen to pursue it, what has actually been implemented, and whether measurable outcomes follow. This lets policy strengthen or weaken an architectural hypothesis without ever becoming a shortcut from policy to stock.

AI+ / National AIDemand + chips + software + ultra-large clusters + data/compute/electricity/network coordination
Compute InterconnectionCross-owner • cross-architecture • cross-region resource pooling and scheduling
1+M+N NodesImplementation layer: identifiers, resource aggregation, selection, scheduling and monitoring
AI + ICTCPO • optical chips • SuperPod interconnect • lossless WAN • distributed inference
AI + EnergyHeterogeneous compute + electricity + communications + green-power coordination

AI+ sets the umbrella direction.

The State Council's 2025 AI+ opinion links domestic AI-chip innovation and software ecosystems with ultra-large intelligent-compute clusters, the integrated national compute network, East Data–West Computing and greater coordination of data, compute, electricity and networks. This is strategic direction rather than evidence that every layer is already operational.

StatusFormal national policy
Architecture impactCompute • software • geography • energy
Research implicationRaises prior probability that cross-layer convergence is deliberate policy direction.
INTENTAI+ • national compute network • East Data–West Computing • compute-energy coordination
MECHANISMStandards • 1+M+N • identifiers • optical networks • heterogeneous scheduling • green power/BESS
EXECUTIONRegional nodes • SuperPods • commercial AI clouds • western workloads • compute-energy pilots
OUTCOMEUtilisation • cost • latency • reliability • deployment speed • useful AI output

Policy convergence matrix

ProgrammeChipsSoftwareMemoryNetworkComputeAIDCGeographyEnergy
AI+
Compute Interconnection
1+M+N nodes
AI + ICT 2026–28
AI + Energy

Dots show material policy intersection, not funding, company selection or proof of deployment.

Implementation ladder

1 STRATEGY Direction

What central policy says China wants to achieve.

2 FORMAL POLICY Requirements

Specific ministries convert direction into programmes and targets.

3 STANDARDS Technical coordination

Interoperability, SuperPods, heterogeneous compute and networking become defined categories.

4 IMPLEMENTATION Nodes & pilots

1+M+N regional/industry nodes and other programmes move into build-out.

5 OUTCOME Measure it

Utilisation, scheduling, cost, energy and useful output determine whether policy actually worked.

Policy → architecture → company, not policy → stock. A policy can increase the viability of an architecture layer without directing value to any particular listed company. Company relevance is mapped separately through assets, products, contracts, standards participation and demonstrated deployment.