SuperInstance Embedder
SuperInstance Embedder generates 32-dimensional embeddings from crate metadata, encoding each project's position in a 32-domain knowledge space. These "crate DNA" vectors seed Cloudflare Vectorize for semantic search across the SuperInstance ecosystem, enabling queries like "find crates related to ternary GPU computation."
Why It Matters
With 100+ crates in the SuperInstance ecosystem, discovering relevant code requires more than keyword search — it requires semantic understanding. The embedder encodes each crate's identity across 32 orthogonal dimensions (ternary-math, agent-coordination, GPU compilation, crypto, distributed-systems, etc.), producing a compact fingerprint that captures cross-domain relationships. A crate at the intersection of "ternary-ml" and "agent-music" is semantically near both, even if its name contains neither word. These embeddings power the crate search engine, dependency recommendations, and fleet synergy detection — automatically identifying which crates could collaborate.
How It Works
Domain Space
The 32 dimensions represent orthogonal knowledge domains:
[ternary-math, ternary-ml, ternary-gpu, ternary-compression,
agent-coordination, agent-music, agent-cognition, agent-timing,
oxide-stack, cuda-compiler, character-building, education,
compression, signal-processing, crypto, distributed,
testing, formal-verification, creative-writing, physics,
ecology, game-theory, scheduling, data-structure,
compiler, runtime, iot, web,
experimental, meta-cognition, scaling, synergy]
Encoding Rules
The embedding is generated from crate metadata (name, description, domain tag, test count, LOC) using heuristic pattern-matching:
- Domain one-hot: The declared domain sets that dimension to 1.0
- Cross-domain signals: Name patterns trigger related dimensions:
"ternary" + "kernel"→ ternary-math (0.7) + ternary-gpu (0.8)"agent" + "music"→ agent-music (0.8) + agent-cognition (0.5)"schedule" + "sync"→ agent-timing (0.8) + scheduling (0.5)
- Quality signal: Test density maps to the testing dimension:
testing_score = min(1.0, test_count / 30.0) - LOC signal: Code volume modulates the relevant domain dimensions
All values are clamped to [0, 1], producing a sparse vector with most dimensions at 0.
Similarity Metric
Cosine similarity between crate embeddings identifies related projects:
similarity(A, B) = (A · B) / (||A|| · ||B||)
Complexity: O(d) = O(32) per comparison. For 1000 crates, brute-force search is O(1000 × 32) = 32K multiply-adds — sub-millisecond on any modern CPU. Cloudflare Vectorize accelerates this with ANN (Approximate Nearest Neighbor) indexing.
Embedding Example
pub struct Embedding {
pub name: String,
pub vector: [f64; 32],
pub metadata: CrateInfo,
}
// ternary-viterbi would produce:
// vector = [0.7, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0,
// 0, 0.5, 0, 0, 0.3, 0, 0, 0,
// 0, 0.6, 0, 0, 0, 0, 0, 0,
// 0, 0.8, 0, 0]
// (ternary-math: 0.7, signal-processing: 0.5, testing: 0.3, game-theory: 0.6, meta-cognition: 0.8)
Quick Start
use superinstance_embedder::{CrateInfo, Embedding};
fn main() {
let info = CrateInfo {
name: "ternary-viterbi".into(),
tests: 12,
loc: 350,
domain: "ternary-math".into(),
wave: 3,
model: "glm".into(),
description: "Viterbi decoder for ternary state sequences".into(),
};
let embedding = Embedding::from_crate(info);
println!("Vector: {:?}", &embedding.vector[..8]);
println!("Non-zero dimensions: {}",
embedding.vector.iter().filter(|&&v| v > 0.0).count());
}
cargo build
cargo test
API
| Type | Method | Description |
|---|---|---|
CrateInfo |
— | Input metadata (name, tests, LOC, domain, wave) |
Embedding |
from_crate(info) |
Generate 32-dim vector from metadata |
Embedding |
vector: [f64; 32] |
The embedding itself |
DOMAINS |
const [&str; 32] |
Domain labels |
Architecture Notes
SuperInstance Embedder is the semantic indexing layer — it maps the fleet's output into a searchable knowledge space. Each crate's embedding captures its γ (constructive purpose: what it builds) and its cross-domain connections (synergy potential). The 32-dimensional space is coarse by design — it captures relationships, not fine-grained code semantics. Vectorize provides the ANN search that makes this practical at scale. In the γ + η = C framework, the embedder measures the diversity dimension of C: how broadly the fleet's competence spans. See ARCHITECTURE.md.
References
- Mikolov, T., et al. (2013). "Distributed Representations of Words and Phrases and their Compositionality." NeurIPS. — Word2vec: the inspiration for semantic embeddings.
- Johnson, J., Douze, M., & Jégou, H. (2019). "Billion-scale similarity search with GPUs." IEEE Big Data. — FAISS and ANN indexing.
- Pennington, J., Socher, R., & Manning, C. D. (2014). "GloVe: Global Vectors for Word Representation." EMNLP.
License
MIT
Metadata
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