Digital material parameters affect all stages of simulation.
- Simulation based on pattern and textile-physical parameters, not color or texture
- "Sketch" to discuss style and color
- Complete digital prototype, including color, texture and accessories
Is there an industry standard for material digitization?
No, and this creates several challenges.
- Each 3D program requires its own parameters and sample sizes, uses different names and units and recommends different testing kits and devices
- Testing is time consuming and results are linked to a single software system
- Without adjustment for the software's algorithm, materials look and behave differently in each program, even if all data is entered correctly
- Manual testing without professional equipment leads to inconsistent visualization
Hohenstein has created a universal approach and is leading standardization efforts.
Create faster with a material data library.
Default libraries are limited in scope and tied to one system. Purchased digital libraries can be inconsistent and unreliable. Neither match the fabrics being used.
Hohenstein works with brands, manfuacturers and mills to digitize fabric collections based on tested data.
Designers access digitized materials that correlate exactly to the fabrics they have chosen. Suppliers reach digital designers while ensuring their fabric is represented accurately, no matter what platform the customer is using.
- Correlate libraries to collections
- Secure reproducible results between software systems and seasons
- Get physical products that match digital designs
- Trust data, even for complex fabrics
Add digital data to physical swatch books.
Combine the haptic experience with digital material parameters.
Including digital material parameters in swatch books is becoming as important as composition and weight.
Our swatch book data includes the inputs for specific platforms, allowing designers to see and feel the fabric samples they are using, then accurately design in 3D.
We can either create the data for your own swatch books or produce the books for you.
Hohenstein Universal Translator Approach
Goal: standardize material digitization for consistent results across platforms
Hohenstein Research
We analyzed the different requirements, data formats, units and results of the various 3D systems. After narrowing the test parameters to five essential textile-physical tests, we formulated a conversion that ensures consistent visualization and behavior across the different systems.
Top 5 Digital Fabric Parameters
- Weight
- Thickness
- Bending
- Elongation
- Fold volume & shape
1. Textile-physical Testing
- Weight (DIN EN 12172)
- Thickness (DIN EN ISO 5084)
- Bending (Cantilever Method - DIN 53362: 2003-10)
- Elongation/Stretch in warp, weft and bias directions (DIN EN ISO 13934-1 or DIN 53835 T14)
- Drapabaility - Fold volume & shape (DIN EN ISO 9073-9:2008)
- Optional: texture scanning (Common fabric texture software sytems include Substance Designer, Substance Alchemist, X-Tex, etc.)
2. Test result processing
- Convert the units
- Create individual file formats
- Generate draping images
3. Data export for various digital platforms
Example formats:
- Vidya – .vdy
- Clo3D – .zfab
- Browzwear – .u3m
Form and Function vs Optics
- Textile-physical parameters define the draping and influence the fit of a garment
- Texture defines the optics and are required for photorealistic simulation
Texture Maps
Physics-Based Rendering (PBR)
Most important properties for texture simulation:
- Color map of surface
- Normal map of relief, dents and bumps of the surface
- Roughness map of how strongly the surface reflects light
- Height map of the digital mesh
- Opacity map of transparency
Digital Fabric Physics
Hohenstein Academy Webcast
More from the Hohenstein Academy:
- Virtual fitting vs. in-person fitting
- Virtual designing and fitting
- 3D simulation of fit
- Using 3D scanning
- On-demand workshops and customized webinars
Academy registration and most content is free.
