t_Rendering — TFT.OpenGPU.Stack.Module


1. Rendering Intent#

The rendering layer defines the open rendering primitives that receive dimensional intent from the substrate and produce the visible scene.
It is the middle view of the module — the bridge between hidden substrate intent and visible execution work.

Its purpose is to:

  • map TFT dimensional primitives into GPU-renderable structures
  • provide an open, vendor-neutral rendering surface (Vulkan/WebGPU/custom)
  • support remote reconstruction via TFT primitive streams
  • maintain RTT coherence across substrate and execution layers
  • enable Cloud PC rendering fidelity independent of vendor lock-in

2. Rendering Principles#

2.1 Middle View (Inverted Star Alignment)#

The rendering layer is the inversion boundary:

  • Substrate (hidden view): dimensional intent
  • Rendering (middle view): scene/viewport abstraction
  • Execution (visible view): GPU work

Rendering is where dimensional primitives become:

  • surfaces
  • materials
  • transforms
  • viewports
  • scene graphs

2.2 Open Rendering Model#

The rendering layer is intentionally open:

  • Vulkan
  • WebGPU
  • custom lightweight rendering layer
  • UE-style scene graph (optional)
  • GPU-native reconstruction

This avoids proprietary rendering stacks and aligns with the module’s open substrate philosophy.

2.3 Bounded Drift#

Rendering reinterpretation of substrate primitives is allowed only within bounded drift:

  • reinterpretation must preserve dimensional intent
  • reinterpretation must remain structurally consistent
  • reinterpretation must not alter RTT coherence

3. Rendering Primitive Families#

3.1 Scene Primitives#

  • Render.Scene — scene container
  • Render.Node — scene node
  • Render.Mesh — mesh or surface representation
  • Render.Light — light primitive
  • Render.Camera — camera primitive

3.2 Material Primitives#

  • Render.Material — material wrapper
  • Render.ShaderGraph — shader graph intent
  • Render.Texture — texture binding
  • Render.Color — color primitive

3.3 Transform Primitives#

  • Render.Transform — transform operator
  • Render.Matrix — matrix representation
  • Render.Space — dimensional space mapping

3.4 Viewport Primitives#

  • Render.Viewport — viewport declaration
  • Render.Frame — frame substrate
  • Render.Pass — rendering pass

3.5 Reconstruction Primitives#

  • Render.Reconstruct.Surface — reconstruct surface intent
  • Render.Reconstruct.Material — reconstruct material intent
  • Render.Reconstruct.Transform — reconstruct transform intent
  • Render.Reconstruct.Viewport — reconstruct viewport substrate

4. Substrate → Rendering Mapping#

Rendering primitives map substrate primitives through declared coherence:

Substrate Primitive Rendering Primitive
Dim.Surface Render.Mesh / Render.Scene
Dim.Material Render.Material / Render.ShaderGraph
Dim.Transform Render.Transform / Render.Matrix
Dim.Viewport Render.Viewport / Render.Camera
Op.Cycle Render.Pass / Render.Frame
Stream.Primitive Render.Reconstruct.Surface / Material / Transform

This mapping is declared, not inferred.


5. Rendering and RDP Integration#

The rendering layer defines the reconstruction path for RDP:

  • substrate primitives → encoded as TFT primitive stream
  • stream transported via RDPEGFX or custom virtual channel
  • rendering layer reconstructs scene primitives
  • execution layer resolves GPU work
  • final view presented to user

Rendering provides:

  • scene graph reconstruction
  • material application
  • transform resolution
  • viewport mapping
  • frame substrate generation

RDP retains:

  • TLS
  • CredSSP
  • NLA
  • reliability
  • ordering
  • session setup

6. Rendering and Cloud PC Tiering#

Cloud PC tiers map directly to rendering fidelity:

  • Tier → reconstruction fidelity
  • Tier → material complexity
  • Tier → transform precision
  • Tier → viewport resolution
  • Tier → rendering pass count

Even minimal tiers achieve smooth rendering due to dimensional primitives.


7. Open Rendering Surface#

The rendering layer defines the open rendering surface:

  • Vulkan alignment
  • WebGPU compatibility
  • UE-style scene graph (optional)
  • GPU-native reconstruction
  • vendor-neutral rendering primitives
  • open shader graph semantics

This is the layer that ensures the stack remains open and AMD-friendly.


8. Canonical Rendering Summary#

The rendering layer of the TFT.OpenGPU.Stack.Module:

  • defines open rendering primitives
  • maps substrate intent into visible scene structures
  • reconstructs dimensional primitives for remote rendering
  • supports RDP integration
  • enables Cloud PC tiering
  • aligns with RTT (rtt=1, coherence declared, drift bounded, paradox structural)
  • establishes an open rendering surface independent of NVIDIA’s closed ecosystem

This document captures the rendering layer for canonical reference.

Updated