Winson Optics

Winson Optics

Numerical Control Processing & Forming

ISO 9001:2015 certified precision manufacturing. We specialize in complex optical geometries, inner cut-outs, and freeform 3D surfaces.

The Capability Matrix

Three Core Forming Processes

Engineers rely on tolerance specs, not marketing adjectives. Each process card below includes verified Technical Limits from our production data.

Inner cut-outs and micro-drilling process

Inner Cut-outs & Drilling

Specialized in micro-holes and complex internal cut-outs for sensors, cameras, and embedded hardware components.

Technical Limits

  • Min. Hole Diameter< 0.8 mm
  • Positional Tolerance±0.05 mm
  • Min. Wall Thickness0.4 mm
  • Edge Chipping (Max)≤ 0.03 mm

Step Glass Processing

Multi-level CNC steps designed for IP68-rated seamless bonding with magnesium or plastic frames in ruggedized environments.

Technical Limits

  • Min. Step Width0.5 mm
  • Step Height Tolerance±0.02 mm
  • Flatness (Step Face)≤ 0.01 mm
  • Max. Step Levels3 Levels
5-axis 3D contouring for automotive and wearable glass

Irregular 3D Contouring

5-axis synchronous grinding for automotive displays and ergonomic wearable glass with compound curvature profiles.

Technical Limits

  • Surface Roughness (Ra)< 0.2 μm
  • Profile Tolerance±0.03 mm
  • Min. Contour RadiusR 0.3 mm
  • Axis Synchronization5-Axis CNC
Iris's Engineering Audit Notes

We Solve Design Conflicts Before Mass Production.

"A perfect CAD drawing doesn't always yield a perfect product. We bridge the gap between aesthetics and manufacturability."

!

Common Yield Killer: Stress Concentration

Sharp internal corners create micro-crack initiation points during thermal cycling, leading to catastrophic yield loss in high-volume production.

✕ Bad Design

Sharp Corner (0° radius)

Stress concentration at corner

✓ Winson Optimized
R

R-Angle ≥ 0.2 mm

Stress distributed evenly

Scrap Rate Impact ↓ 15% Reduction
Before
22%
After
7%

* Based on high-alumina glass inner cut-out production batch, n=5,000 pcs.

Winson Optimization: Tool-Path Refinement

By adjusting the feed rate at the exit point, we eliminate the 'chipping' issue common in high-alumina substrates -- verified via 50× micro-scan post-process.

CNC precision forming process at Winson facility

"Iris's team reduced our prototype scrap rate from 22% to 3% through one simple edge modification."

-- Medical Device OEM, Germany
Material Selection Guide

Material-Specific Parameter Libraries

Machining difficulty directly correlates with tooling cost and lead time. Use this guide to align material selection with your project budget and schedule.

💎

High-Alumina

Panda / Gorilla / Dragontrail

Difficulty

3 / 5

High hardness requires diamond tooling; edge chipping risk requires controlled feed rates.

🔱

Sapphire

Ultrasonic CNC Grinding

Difficulty

5 / 5

Mohs 9 hardness -- the hardest material we machine. Requires specialized diamond wheels.

🧬

Optical Plastics

PMMA / PC / Composite

Difficulty

2 / 5

Lower hardness enables faster cycle times; PC requires CNC routing to prevent yellowing.

⚙️

Custom Substrates

Borosilicate / Quartz

Difficulty

4 / 5

Brittle fracture risk requires slow feed rates and frequent coolant flushing; quartz demands specialized tooling.

1 = Standard
5 = Expert-only
Quality Control Protocol

Verification Lab: Every Micron Counts

01

Dimensional Audit

Automated VMS measurement for 100% inspection of critical step dimensions and hole centers. This ensures absolute precision before your components reach the assembly line.

Measurement uncertainty: ±0.01 mm.

VMS Measurement
Micro-scan
02

Edge Quality Scan

We perform a 50× micro-scan to ensure zero microscopic chipping. This critical step guarantees long-term structural reliability under thermal stress.

Pass criterion: ≤ 0.03 mm edge breakout.

03

Surface Tension Test

Post-CNC dyne testing ensures substrate surface energy is perfectly optimized for subsequent coating stacks, preventing peeling or delamination.

Target: ≥ 42 mN/m for AR/AF adhesion.

Surface Test

Ready to optimize your design?

Our engineering team assesses feasibility and responds within 24 hours.