Project detail

Implicitus

Designing geometry with signed distance fields first, treating shape as computation rather than static mesh artifact.

Systems design

Overview

Implicitus explores a distance-field-first geometry stack to prioritize mathematical clarity, structural integrity, and composability from first principles.

The Problem

Traditional mesh workflows often optimize for surface representation before structural reasoning. As complexity grows, those meshes become brittle, harder to modify parametrically, and more prone to geometric inconsistencies.

Core Hypothesis

Defining geometry as a signed distance function instead of a fixed surface allows robust boolean operations, smoother transitions, procedural variation, and stronger guarantees around continuity and integrity.

Constraints

  • SDF-first architecture over mesh-first compromises.
  • Mathematical integrity over convenience shortcuts.
  • Real-time evaluation and performance limits.
  • Clear separation between product goals and test constraints.

Approach

The system emphasizes composable signed distance functions, clean parameterization, and transparent transformation logic. Validation focuses on preserving field behavior and correctness, not forcing mesh-like assumptions after the fact.

What Makes It Interesting

Modeling becomes a systems problem: balancing expressiveness, performance, and correctness in one continuous representation.

Broader Question

What becomes possible when geometry is defined implicitly and manipulated as a continuous field, rather than approximated as discrete surfaces?