RESEARCH • ORAIN LABS

Building the Foundations of Geometric Intelligence

At Orain Labs, research is not separate from the product — it is the foundation of the product. We are researching how machines can understand engineering intent, reason about engineering constraints, represent geometry, construct precise CAD models, and interact with complex engineering systems.

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CORE PREMISE

"Our research spans multiple layers of the ORAIN technology stack, each addressing a fundamental challenge in building an intelligent engineering system."

THE CONTINUOUS RESEARCH PIPELINE

How the Research Connects

These research areas are deeply connected. Engineering reasoning determines what should be built. The Geometric Engine determines how that intent should be represented geometrically. ORAIN Forge determines how that geometric plan becomes precise geometry. VSE determines how the resulting geometry and design state are represented to the engineer.

01 Intent
→
02 ERE (Reasoning)
→
03 Geometric Engine (Planning)
→
04 ORAIN Forge (Construction)
→
05 VSE (Visualization)

Through PAXX 1.0, these research capabilities can ultimately be exposed to external applications and engineering systems.

SPECIALIZED INTELLIGENCE LAYERS

Specialized Technology Research

Deep research into the specialized layers that power the ORAIN Geometric Intelligence architecture.

01 // REASONING LAYER

Engineering Reasoning Engine

A component may have thousands of geometric configurations, but only some satisfy intended engineering requirements. ERE is our research into teaching machines to reason about engineering intent and design decisions.

  • Engineering intent interpretation
  • Constraint reasoning & dimensional relationships
  • Feature dependencies & design feasibility
  • Geometric and engineering consistency
  • Design validation & decision-making
RESEARCH FOCUS: ENGINEERING INTELLIGENCE
02 // PLANNING LAYER

Geometric Engine

Engineering geometry is a structured system of features, dimensions, constraints, relationships, and dependencies. The Geometric Engine represents and plans this structure computationally.

  • Feature-based geometric representations
  • Parametric design structures & feature graphs
  • Design relationships & geometry planning
  • Geometry-to-structure understanding
  • Bridge between reasoning and deterministic construction
RESEARCH FOCUS: COMPUTATIONAL GEOMETRY
03 // CONSTRUCTION LAYER

ORAIN Forge

Reasoning about a design is only useful if it can become precise geometry. Forge explores how structured plans translate into robust CAD geometry using computational geometry and CAD-kernel technology.

  • Boundary Representation (B-Rep) geometry
  • Solid and surface modeling operations
  • Topological consistency & Boolean operations
  • Geometry validation & feature execution
  • CAD interoperability & engineering-grade generation
RESEARCH FOCUS: CAD SYSTEMS & KERNEL GEOMETRY
04 // VISUALIZATION LAYER

Visualization Sub-Engine

Engineering intelligence must ultimately be communicated back to the engineer. VSE provides inspection of generated geometry and design states without burdening reasoning or construction kernels with rendering.

  • High-performance geometry visualization
  • Interactive 3D representation & inspection
  • Design-state & engineering data visualization
  • Decoupled rendering pipelines
  • Model exploration and state inspection
RESEARCH FOCUS: ENGINEERING VISUALIZATION
EXPANDING THE FRONTIER

Broader Research Domains

Our work extends beyond individual components into the fundamental disciplines required for Geometric Intelligence.

AI & Engineering Reasoning

Developing systems capable of understanding engineering requirements, constraints, and physical intent.

Computational Geometry

Developing representations and algorithms that allow machines to reason about engineering geometry.

CAD Intelligence

Exploring how artificial intelligence can interact with feature-based and parametric CAD environments.

Geometry Generation

Researching methods for generating precise geometry from structured parameters and natural-language specs.

Geometry Understanding

Exploring how existing CAD models can be interpreted, structured, and transformed into machine representations.

Validation & Verification

Developing mathematical methods for verifying whether generated geometry is valid and physically consistent.

Engineering Visualization

Building high-performance visual pipelines for representing complex engineering geometry and design states.

AI–CAD Systems

Designing architectures to bridge intelligent reasoning systems with deterministic engineering CAD engines.

RESEARCH PHILOSOPHY

The System Beneath the Interface

We believe the hardest problems in engineering AI cannot be solved by simply placing a language model on top of existing CAD software. Engineering requires a unified combination of Reasoning, Geometry, Constraints, Computation, Validation, and Visualization.

OUR SCIENTIFIC PROGRESSION
01 Hypothesis
→
02 Architecture
→
03 Experiment
→
04 Validation
→
05 System

We build, test, measure, and iterate. Some experiments become production technologies, some reveal limitations, and some lead to entirely new approaches.

TRANSPARENCY & COMMUNITY

Building in Public

We share selected parts of our research journey with the engineering and technology community:

Architecture decisions
Technical experiments
Research findings
Engineering challenges
System benchmarks
Prototype demonstrations
Lessons from failures
Development milestones
THE LONG-TERM QUESTION

"Can machines move from understanding what an engineer says to understanding what an engineer means?"

Answering that question requires more than a better language model. It requires systems that can reason about engineering intent, geometry, constraints, topology, and physical design relationships. That is the problem we are working to solve.