Zylvex Technologies Flagship

ZylForge. The AI-First Unified Engineering Workspace

ZylForge is an AI-powered engineering and manufacturing platform that unifies the product development lifecycle. It integrates parametric 3D CAD modelling, physics-based FEA simulation, automated technical drawing generation, and manufacturing preparation into a single, AI-co-piloted desktop workspace.

Status: Pre-Alpha v0.1.0 · Target GA Q4 2027
The Challenge

Fragmented workflows lead to errors

The journey from concept to manufactured product is highly fragmented. Engineers design in CAD, export files to separate simulation software, manually draft blueprints, and hand off files to CAM specialists. This disconnected toolchain leads to lost geometry context, high export overhead, undetected manufacturing errors, and massive manual documentation delays.

The Solution

Unified B-rep & Mesh Operations

ZylForge unifies the pipeline. By combining design, simulation, drawing generation, and manufacturing prep in one environment with an active AI Engineering Assistant, users iterate rapidly, receive instant manufacturability feedback, and automatically compile technical specifications.

AI-Native Co-Pilot

Embedded on-canvas assistant directly reading parametric constraints and material stresses.

Unified Design to Manufacturing

Seamless bridge from CAD geometry to manufacturing preparation instructions.

Real-Time Simulation Guardrails

FEA static stress and thermal analysis running in the background as you sketch.

Engineering Philosophy

AI that understands constraints because it understands the physical world.

ZylForge is built on the philosophy that a CAD model is not successful just because it looks correct on screen. It must survive contact with physical reality.

01
LAW 01

Geometry Must Be Manufacturable

A digital model must satisfy tooling access, material limits, tolerance requirements, manufacturing processes, and cost constraints before it is considered valid.

02
LAW 02

Every Design Has Constraints

Human engineers design within boundaries. ZylForge formalizes this. You define the material, load, safety factor, and manufacturing method; the AI operates strictly within those physical boundaries.

03
LAW 03

Physics Before Aesthetics

Form follows structural integrity. ZylForge's solvers prioritize stress distribution, thermal mass, and fluid dynamics over visual topology.

04
LAW 04

Data is the True Blueprint

Drawings are just projections. The true source of truth is a multi-dimensional database containing B-rep geometry linked to material properties and manufacturing instructions.

05
LAW 05

Continuous Validation

FEA is not a final step; it is a continuous loop. Every geometric modification instantly triggers a constraint re-evaluation to prevent downstream failures.

Formalizing Constraints
Input: "Lightweight drone bracket"
Material: Aluminium 7075
Load: 500N
SafetyFactor: 2.5
MfgMethod: CNC Milling
Tolerance: ±0.05mm
MaxWeight: 200g
The Core Workflow

The Engineering Intent Model

ZylForge does not just draw lines. It captures the fundamental physical intent of your design and translates it through a strict constraint hierarchy into a valid, manufacturable output.

Human Requirement

"I need a rocket engine mount."

Engineering Intent Model

LoadsMaterialsGeometryEnvironmentSafety FactorsManufacturing Method

Constraint Engine

Evaluates topology against constraints.

Validated Design

FEA verification passes.

Manufacturing Output

STEP + Toolpath generation.

Physical Object

Milled 7075 Aluminium Part.

The Engine

CAD Abstraction Layer

The ICADBackend interface decouples platform logic from any specific CAD kernel — enabling both production CadQuery and lightweight test backends to coexist.

ZylForge UIDesign Studio · Validation · Docs · Mfg PrepAI Engine LayerOn-Device ONNX · Cloud Cognitive · GNN ConstraintsICADBackendCAD Abstraction InterfaceCadQuery BackendProduction B-rep kernelDummy BackendTest / CI isolationManufacturing Package GeneratorG-code · Slicing · Inspection Plans

Hover a component to see details.

Examples Centre

Real Engineering Workflows

Don't just read features. See how ZylForge transforms high-level mission requirements into validated, manufacturable hardware.

Aerospace Bracket

Optimized for weight-to-strength ratio under high vibrational loads.

Input
Mission requirement: Support 50kg payload under 5G acceleration.
Process
CAD GenerationTopology OptimizationFEA Validation
Output
Manufacturable STEP component with -40% mass.

CNC Component

Automated toolpath generation for a 5-axis milled part.

Input
Raw DXF design outline.
Process
Feature RecognitionToolpath GenerationCollision Simulation
Output
Verified G-code ready for Haas UMC-500.

Rocket Component

Connected to Eagle Rock. Structural validation for extreme thermal and vibrational conditions.

Input
Eagle Rock propulsion requirement.
Process
Parametric ModelingThermal FEADynamic Modal Analysis
Output
Certified flight hardware specifications.
Von Mises Yield: 340 MPa
Simulation

Validation & FEA

Stop exporting to external simulation suites. ZylForge embeds a high-performance Finite Element Analysis engine directly into the core geometry loop.

Static Stress Analysis

Linear static structural analysis computed on the native B-rep. See exactly where your design will yield before you prototype.

Thermal Simulation

Steady-state and transient thermal heat transfer modeling mapped directly over complex geometries.

Modal Analysis

Natural frequency and vibration mode analysis to prevent resonance failures in dynamic environments.

Production

Manufacturing Preparation

A geometry model is useless if it can't be built. ZylForge instantly prepares your validated parts for the shop floor.

CNC Toolpath Generation

Generate 2.5 to 3-axis milling toolpaths with integrated post-processor support for common controllers (Haas, Fanuc, Siemens).

Additive Manufacturing

Built-in slicing and support generation for FDM and SLA 3D printing. No more exporting STLs to third-party slicers.

Automated Blueprints

One-click generation of ISO/ANSI-compliant 2D technical drawings, complete with auto-dimensioning and BOM tables.

G01 X320 Y80 F1200Adaptive Clearing
ZylForge Scaling & Team Architecture

1,000-Module Engine & 50-Agent AI Team

ZylForge expands beyond single-part CAD into a 1,000-module industrial engineering system driven by 50 specialized AI agents across 10 engineering departments.

Architecture Scaling

20 Industrial Module Categories (1,000 Total Modules)

ISO & ASME Compliant
45 Modules

Aerospace & Propulsion

Turbopumps, nozzles, regenerative cooling channels, and heat shields.

38 Modules

Robotics & Actuation

Harmonic drives, planetary gearboxes, joint actuators, and linkages.

52 Modules

Structural & Civil

Trusses, space frames, moment connections, and gusset plates.

40 Modules

Fluid & Thermal

Heat exchangers, manifold blocks, pumps, and CFD boundaries.

35 Modules

5-Axis CNC & Tooling

Trochoidal milling, fixture plates, toolholder collision clearance.

30 Modules

Energy & Solar

Battery packs, MPPT mounts, solar trackers, and EMP containment.

Multidisciplinary AI Engineering Organization

50 AI Agents Across 10 Departments

Simulating top-tier aerospace & technology engineering divisions (Apple, Google, NASA, Microsoft level) to automatically verify CAD geometry, FEA stress bounds, and G-Code.

Dept 01: Core Geometry Kernel6 AI Agents

B-Rep NURBS & Fillet Specialists

Dept 02: FEA & Physics Solvers6 AI Agents

Tet10 Mesh & von Mises Stress

Dept 03: 5-Axis CAM & G-Code5 AI Agents

Trochoidal Milling & Toolpath QC

Dept 04: Aerospace & Propulsion5 AI Agents

Combustion & Aerothermal Analysis

Dept 05: Electronics & IoT5 AI Agents

PCB & Sensor Telemetry Compilers

Dept 06: Quality & Metrology5 AI Agents

ASME Y14.5 GD&T & CMM Probing

PRD-001 Portfolio

20 Fabrication Workshop Physical Products

Explore 20 physical products engineered in ZylForge — complete with Bill of Materials, ASME Y14.5 drafting sheets, FEA safety factor reports, and certified 5-axis CNC toolpaths.

Collaborative Intelligence

Engineering Command Center

Not a generic chat window. Collaborate directly with an AI system that actively reasons through constraints, searches internal knowledge graphs, and links to your PLM data.

Engineer Conversation

What is the difference between ZylForge and traditional CAD software?

Ask a question...
Reasoning Trace
Intent detected:
Platform comparison query
Engineering Context
Act IV: Knowledge

Engineering Knowledge Base

ZylForge isn't a black box. Our documentation covers everything from the B-rep abstraction layer to building your own constraint engines.

Act V: Trust

Frequently Asked Questions

In traditional CAD, the human controls every geometric operation manually. In ZylForge, the human defines the Engineering Intent (materials, loads, constraints), and the AI manages the topological complexity to guarantee a physically valid, manufacturable result.