Topaas // Topology-as-a-Service · est. MMXXVI

The Codebase Intelligence Layer between your company and AI.

Laplace ENGINE

Give your large legacy codebase an AI-native soul.

AI coding agents are fast on small tasks. They break on large, legacy systems. Laplace turns large, complex, legacy codebases into agent-ready system intelligence — so AI agents can reason over them with full context.

{ codebase } Lv = λv spec(L)

Domain
Spectral graph theory · Riemannian topology · LLM systems
Substrate
Legacy codebases · 10⁶+ LOC
State
Stealth · onboarding partners

01 The Shape of Code

Coding agents see tokens.
Engineers see files.
A codebase is a manifold.

Functions, modules, and data flows form a high-dimensional simplicial complex with measurable topology — homology, fundamental group, spectrum. Most of what makes legacy systems hard is invariant under refactoring. We compute the invariants.

01

Ingest

Raw code · symbols · runtime traces · commit history

C = ⋃i fi

02

Lift to a graph

Build the dependency complex G = (V, E) and weight edges by behavioural coupling.

G ↪ K(C)

03

Compute the Laplacian

Diagonalise L = D − A. The spectrum encodes clusters, bottlenecks, and the true seams of the system.

L vk = λk vk

04

Hand to the agent

The spectrum becomes the spec — components, intent, behavioural commitments, risk surfaces: the build order an agent can execute, at a scale no context window holds.

spec(L) ≡ the spec

spec(L) reads two ways — the spectrum of the Laplacian, and the specification your agent builds from. That's the whole idea.

02 Field Operators

Three invariants we hold quietly, for now.

M
manifold Scale

Built for codebases that exceed any single context window by orders of magnitude. Where agents go blind, the engine sees a smooth manifold.

dim(C) ≫ ctx(𝒜)
Σ
spectrum Structure

We extract the spectrum of the Laplacian — clusters, connectivity, bottlenecks, components. The unit of work becomes the eigenmode, not the line.

spec(L) = {λ0,…,λn}
H
homotopy Continuity

Software deforms over time. We track the system up to homotopy — keeping the topology coherent as code, intent, and behaviour drift.

Ct ≃ Ct+δ

The same operator — Laplace's — runs through signal processing, graph theory, Riemannian geometry, and quantum mechanics. We brought it to legacy software.

03 Field Readings

We don't assert the spectrum.
We measure it.

Early readings from the engine, run against open substrates at production scale — codebases an order of magnitude beyond any context window. Numbers are outcomes only: answer quality held at parity, the implementation held quiet.

01 token cost
52× peak 117×

Fewer tokens, same answer.

≈ 590K ⟶ 11K tokens / query

02 localization
93.75% +5.8 pts vs. baseline

Find the right file, top-5.

issue ⟶ the right file · file Acc@5

03 rebuild
93% vs. 36% single-shot

Correctness on a full rebuild.

apache/hadoop · full reconstruction

04 scale
3M LOC resolved

Lines lifted into one graph.

~117K nodes · ~419K edges

Measured on open-source substrates at production scale; the full rebuild ran on Apache Hadoop. Baselines are full-context and single-shot agents; answer quality is held at parity by an independent judge. Other substrate identities and our production pipeline stay folded while we're in stealth.

04 Provenance

A small group, quietly assembled.

Researchers and engineers who have built large-scale ML, data, and distributed systems at the kind of places where scale is the default. Names stay folded while we're in stealth — open a transmission and we'll introduce ourselves.

Prior roles at
  • AWS AI
  • Meta
  • Microsoft
  • Wharton Research Data Services

Past employers of individual team members. For identification only — no affiliation, sponsorship, or endorsement is implied.

05 Transmit

Quiet, not closed.

Investors, prospective design partners, engineers who think about software as a topological object — write to us.

04 Manifold