Datacenter Reports — Tensor Registry
tensor_export.schema.json— Agentic module schema role assignments
RTT‑Inside • Operator‑First • Drift‑Bounded
The Datacenter Reports module exposes a set of structural, dimensional, and compute‑layer tensors used across RTT evaluators, dashboards, and cross‑module analysis. This document explains each tensor in plain language, including:
- what the tensor represents
- how it is shaped
- how it is used
- which RTT layers it participates in
- how it propagates across modules
- how to read it as a student or operator
All tensors listed here are defined in tensor_registry.py and validated
against tensor_export.schema.json.
📦 What is a Tensor in RTT?#
A tensor is a structured, multi‑dimensional field representing a stable, operator‑meaningful slice of the world. In Datacenter Reports, tensors encode:
- structural fields (facilities, governance, cultural substrate, standards, human envelope)
- dimensional fields (planetary, cultural, governance, economic, compute, infrastructure)
- compute‑layer fields (qCompute density, thermal envelope, energy envelope)
Each tensor is:
- versioned
- drift‑bounded
- coherence‑scored
- regime‑classified
- AI‑parsable
- cross‑module compatible
📚 Tensor Index#
Below are the canonical tensors exposed by this module.
1. structural_field_tensor#
Type: 2D tensor
Role: Structural field map
Shape: [n_layers, n_fields]
Analyzer Layer: triadic_stack
Dimensional Fields: compute, infrastructure, governance
Regime: stable
Coherence: ~0.92
Drift: ~0.03
What it represents#
A normalized structural snapshot of the datacenter across the five RTT structural fields:
- Facilities
- Governance
- Cultural Substrate
- Standards
- Human Envelope
Each row corresponds to a datacenter layer; each column corresponds to a structural field.
How to read it#
- High values → strong structural alignment
- Low values → weak or missing structural support
- Row patterns → layer‑level strengths/weaknesses
- Column patterns → field‑level strengths/weaknesses
Cross‑module propagation#
- Governance Substrate
- NoS
- Integrations
2. dimensional_field_tensor#
Type: 2D tensor
Role: Dimensional field map
Shape: [n_dimensions, n_sites]
Analyzer Layer: planetary_layer
Dimensional Fields: planetary, cultural, economic
Regime: emergent
Coherence: ~0.88
Drift: ~0.05
What it represents#
A multi‑site comparison of dimensional fields across datacenter regions.
How to read it#
- Rows = dimensions
- Columns = sites
- Values = normalized dimensional intensity
Cross‑module propagation#
- Framework Field Theory
- Low Dimensional Structures
3. qcompute_tensor#
Type: 2D tensor
Role: Compute capacity map
Shape: [n_sites, n_metrics]
Analyzer Layer: compute_infrastructure
Dimensional Fields: compute, infrastructure, planetary
Regime: transitional
Coherence: ~0.81
Drift: ~0.07
What it represents#
A normalized map of qCompute‑related metrics:
- compute density
- energy envelope
- thermal regime
How to read it#
- High values → strong compute capacity
- Low values → constrained or thermally limited regions
Cross‑module propagation#
- Inverted Economics
- Resilience Checker
🧠 How Tensors Are Validated#
All tensors must conform to:
tensor_export.schema.jsonvalidate_module_tensors.py- RTT drift + coherence rules
- semantic versioning (
vX.Y.Z) - lineage tracking
Validation ensures:
- shape correctness
- dtype correctness
- provenance completeness
- RTT metadata completeness
- cross‑module safety
🔗 How Tensors Are Used in Plots#
The following plots consume these tensors:
heatmap_structural_fields→ usesstructural_field_tensorinteractive_dimensional_map→ usesdimensional_field_tensorqcompute_capacity_map→ usesqcompute_tensor
See:
docs/datacenter_reports/plots/plot_registry.py
🧩 Cross‑Module Integration#
These tensors propagate into:
- Governance Substrate
- NoS
- Integrations
- Framework Field Theory
- Low Dimensional Structures
- Inverted Economics
- Resilience Checker
This enables cross‑domain RTT analysis without drift.
🏁 Summary#
This registry defines the canonical tensor interface for the Datacenter Reports module. It is:
- operator‑first
- student‑ready
- AI‑parsable
- drift‑bounded
- cross‑module compatible
Every tensor in this module is a stable, versioned, structural artifact of the RTT stack.