Dimensional Programming IDE

Web-Based Development Environment

Live manifold paradigm experience with client-side storage

AI Directives

Pre-loaded AI directives for dimensional programming. These directives provide the governing rules and algebraic transformations that keep AI systems stable and deterministic.

Structured Prompt

The core directive structure: a clear prompt plus governing rules that define allowed transformations. This prevents drift, hallucination, and brittle failure modes.

directive: {
  prompt: "Clear task description",
  rules: [
    "No destructive updates",
    "Maintain identity",
    "Use manifold operations",
    "Validate outputs"
  ]
}

Algebraic Transformations

Allowed transformations using the manifold operation z derived from x and y. These transformations preserve the identity of the original content while allowing flexible extraction through modifier application.

transformations: {
  manifold: "derived z from x and y",
  identity: "x preserved in z",
  invertibility: "x = z / y",
  russian_doll: "z contains history"
}

Determination Graphs

DAG-based decision structures that independently route nodes through the manifold. Each node represents a computation that can be resolved through manifold operations.

determination_graph: {
  nodes: [
    { id: 1, operation: "manifold" },
    { id: 2, operation: "extract" },
    { id: 3, operation: "validate" }
  ],
  edges: [(1,2), (2,3)]
}

Truth Table Constraints

Hard constraints enforced through truth tables. These provide mathematical guarantees that certain conditions will always be satisfied, preventing LLMs from returning invalid outputs.

truth_table: {
  inputs: [A, B, C],
  outputs: [valid],
  constraints: [
    "A ∧ B → valid",
    "¬A ∧ ¬B → invalid"
  ]
}

Decision Trees

Tree-based decision structures that provide shortcuts through the manifold. Decision trees allow efficient routing by pruning unnecessary computation paths.

decision_tree: {
  root: condition_1,
  branches: {
    true: node_2,
    false: node_3
  },
  leaf: final_output
}

Logic Gates

Boolean logic operations that can be applied to manifold states. These provide the fundamental logical operations needed for complex decision-making.

logic_gates: {
  AND: (a, b) => a && b,
  OR: (a, b) => a || b,
  NOT: (a) => !a,
  XOR: (a, b) => a ^ b
}

Regex Pre-Filters

Regular expression filters applied before manifold operations. These provide pattern-based filtering to reduce the search space and improve efficiency.

regex_filters: [
  /^[a-zA-Z0-9]+$/,
  /\d{4}-\d{2}-\d{2}/,
  /^[a-z]+@[a-z]+\.[a-z]+$/
]

Complex-Valued Mode

Extended manifold operations using complex numbers. This mode allows representation of phase and magnitude, enabling more sophisticated transformations.

complex_mode: {
  z = (a + bi) * (c + di),
  magnitude: |z|,
  phase: arg(z),
  applications: ["phase_space", "quantum_ops"]
}

Schwarz Diamond Manifold

Minimal surface decision boundaries using the Schwarz Diamond TPMS. This provides optimal routing through cost-quality tradeoff space.

schwarz_diamond: {
  surface: "TPMS minimal",
  boundary: "cost_quality",
  optimization: "minimal_surface",
  porosity: 0.5
}

Code Editor

Write dimensional programming code in the editor below. All code is stored locally in your browser using localStorage - nothing is sent to any server. Your code stays on your computer.

0 characters 0 lines Not saved

Output

Lint & Validation

Validate your dimensional programming code against manifold principles. The linter checks for proper manifold operations, identity preservation, and directive compliance.

Examples

Load example dimensional programming code to see the paradigm in action.