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Tensor

tensor@1 defines the dense numerical execution semantics of the Forge Pool execution platform.

Tensor workloads operate over structured numerical data including matrices, tensors, vectors, and dense computational representations.

The Tensor family extends the Forge Pool execution model toward numerical computing and AI-oriented workloads while preserving the same canonical execution contract, deterministic execution doctrine, replay model, and verification framework shared by all primitive families.


Status

tensor@1 is an emerging primitive family.

The execution semantics and family model are defined.

Public capability availability may expand through future platform releases.

The family is documented to establish the execution model and future extension path without changing the canonical execution contract.


Purpose

Tensor execution is designed for dense numerical workloads where computation operates over structured numeric representations.

Representative domains include:

  • matrix operations
  • tensor transformations
  • vector computation
  • embedding pipelines
  • numerical preprocessing
  • AI inference preparation
  • AI inference post-processing
  • distributed numeric reduction

The primitive family defines numerical execution semantics.

Execution profiles define domain-specific tensor operations.


Operation Identity

Tensor workloads are selected through the canonical execution contract.

json
{
  "op": {
    "name": "tensor",
    "version": 1,
    "profile": "matmul.v1"
  }
}

Tensor execution uses the same public execution endpoint:

http
POST /api/v0/ops/execute

No tensor-specific API surface is introduced.


Execution Characteristics

Tensor execution is characterized by:

  • dense numerical computation
  • structured data transformation
  • deterministic numerical operations
  • distributed execution-unit processing
  • deterministic reduction
  • replay-compatible execution evidence

The execution runtime may evolve independently from tensor semantics.


Representative Profiles

Representative Tensor profiles include:

  • matmul.v1

Future profiles may extend the Tensor family toward additional numerical and AI-oriented workloads while preserving the same execution contract.


Execution Parameters

Tensor profiles may define parameters such as:

  • tensor dimensions
  • numerical representation
  • operation configuration
  • precision settings
  • transformation parameters
  • reduction strategy
  • artifact preferences

Each profile defines its own schema while inheriting the shared tensor@1 execution semantics.


Deterministic Execution

Tensor execution follows the same deterministic execution guarantees as every Forge Pool primitive family.

Equivalent execution contracts must preserve equivalent:

  • numerical operations
  • precision behavior
  • reduction semantics
  • replay metadata
  • execution evidence

Infrastructure placement, runtime topology, and execution routing must not change computational meaning.


Reduction Semantics

Distributed tensor execution may produce intermediate numerical results.

Reduction combines those results into canonical outputs.

Reduction may produce:

  • result tensors
  • matrices
  • numerical summaries
  • precision metadata
  • verification summaries
  • workload-specific outputs

Reduction remains deterministic, versioned, and replay-compatible.


Execution Evidence

Tensor execution may produce:

  • numerical metadata
  • shape information
  • precision information
  • execution metrics
  • artifact references
  • replay metadata
  • verification outcomes

Execution evidence allows numerical workloads to remain inspectable and reproducible.


Verification

Tensor verification confirms that numerical execution followed the declared execution contract.

Verification may inspect:

  • operation identity
  • numerical configuration
  • precision metadata
  • artifact integrity
  • reduction behavior
  • replay metadata

Verification validates execution semantics rather than hardware-specific implementation details.


Replay

Replay preserves the computational meaning of tensor execution.

Replay depends upon:

  • operation identity
  • tensor profile
  • canonical parameters
  • numerical semantics
  • reduction behavior
  • execution evidence

Equivalent tensor execution contracts must preserve equivalent numerical meaning.

See:


Relationship to Other Primitive Families

Tensor extends the Forge Pool execution taxonomy with dense numerical computation.

Unlike:

  • mc@1, which specializes in probabilistic simulation
  • search@1, which specializes in retrieval and ranking
  • graph@1, which specializes in relationship computation
  • ensemble@1, which specializes in deterministic composition
  • media@1, which specializes in transformation workflows

tensor@1 specializes in structured numerical execution.

All primitive families share the same execution doctrine.


Relationship to AI Workloads

Tensor provides computational building blocks that can support AI-oriented workflows.

However, Tensor is not limited to AI.

The primitive family represents a broader numerical execution category that can support future workloads requiring dense computation.


Relationship to Examples

As public Tensor capabilities become available, representative workloads will be documented through the Examples section.

Examples will demonstrate capability behavior.

This document defines primitive-family execution semantics.


Related Documentation

Continue with:


Continue in Forge Studio

To explore Tensor capabilities as they become available:

  • Browse available capabilities in Capability Explorer
  • Inspect execution blocks in Block Registry
  • Execute supported numerical workloads
  • Review execution evidence and replay metadata
  • Validate deterministic execution behavior

Trust should be established through independent verification rather than documentation alone.


Final Note

Tensor is not a separate execution system.

It is an extension of the Forge Pool primitive family model.

By introducing dense numerical execution through the same canonical execution contract, Forge Pool preserves one unified execution doctrine across simulation, retrieval, graph computation, media transformation, ensemble composition, and future numerical workloads.

Deterministic execution infrastructure for distributed compute.