Knitopia is the design-to-machine platform for knitted textiles. Scan any fabric, design in 3D space, simulate at the stitch level, and compile to any knitting machine on earth.
Point your camera at any knitted textile. Knitopia identifies the stitch pattern and generates the complete pattern in every format: visual stitch chart, written instructions, machine knitting grid, and knitout code.
Photograph any knitted fabric. Computer vision identifies stitch patterns, gauge, and structure.
Describe your vision in plain language or modify existing patterns with the full design platform.
Convert between hand knitting, machine knitting, and knitout. Every format, one click.
Export machine-ready code for Shima Seiki, Stoll, or Brother machines via AYAB.
From a single photograph or description, Knitopia generates four synchronized pattern formats. Each format is internally consistent and ready to use.
Visual grid with standard knitting symbols. Zoomable, color-customizable, exportable.
Row 1 (RS): *K2, P2* repeat
Row 2 (WS): *K2, P2* repeat
Row 3: K2, P2, C4F, P2, K2
Row 4: Repeat Row 2
Human-readable row-by-row instructions with abbreviation glossary.
Punch card grid for domestic machines. Brother, Silver Reed, and electronic patterns.
;!knitout-2
inhook 5
knit + f1 5
xfer f3 b3
Machine-readable knitout. The open standard created at CMU for computational knitting.
Knitopia is not just a pattern scanner. It is a design-to-fabrication platform that connects every step from creative intent to physical textile.
Scan any knitted textile with your phone. Computer vision identifies stitch structure, gauge, and pattern repeats at the loop level.
Create and modify patterns on the web platform. Browse a modular pattern library. Combine stitch modules. Describe new designs in plain language.
Enter the spatial interface on Meta Quest 3. Shape knitwear with your hands in 3D. Place anchor points on a virtual body. See stitch-level physics in real time.
Stitch-level physics based on Discrete Elastic Rods theory. See how the fabric drapes, stretches, and behaves before touching a machine.
One-click export to knitout, .pat (Shima Seiki), .k (Stoll), or AYAB (Brother). The same design runs on a $200 home machine or a $500K industrial system.
Hit go. The knitting machine builds your textile. From concept to physical object through a single platform.
Not a wrapper. A full-stack system spanning computer vision, stitch-level physics, spatial computing, and multi-target compilation.
Vision models trained to identify stitch patterns, gauge, yarn weight, and construction technique from a single photograph.
Custom simulation based on Discrete Elastic Rods theory. Every loop modeled as a physical entity with tension, friction, and drape.
Meta Quest 3 hand-tracking interface. Sculpt knitwear in 3D space. Real-time procedural mesh generation with loop-accurate detail.
Compiles to knitout with translation layers to .pat, .k, and AYAB. One design, any machine on earth.
Knitted pressure sensors, thermal wearables with PID control, and robotic sensing sleeves. Fabrics that compute.
A growing library of composable stitch modules. Mix, modify, and share. Network effects make the platform more valuable with every user.
From independent designers to fashion houses. Replace $10K+ software with a $99/month platform that does more. Design, simulate, and fabricate complete garments.
Knitted sensors, thermal regulation, pressure monitoring. Functional medical textiles designed and validated in simulation before fabrication.
Knitted wearable controllers and haptic garments. Soft interfaces that replace rigid headsets and controllers with textiles you barely notice wearing.
Fashion schools and makerspaces. Teach computational textile design with the same tool professionals use. From RISD to MIT Media Lab.
Custom machine profiles for industrial knitting floors. Replace manual programming with compiled output from the design platform.
The textile industry runs on $10K+ proprietary software locked to specific machines. Designers work in 2D grids. There is no unified design-to-fabrication pipeline.
Build the platform that connects every step. From scanning a fabric to designing in 3D space to compiling machine-ready code for any knitting machine on earth.
Stitch-level physics simulation, spatial computing interfaces, and a multi-target compiler. Built on the open knitout standard created at Carnegie Mellon.
A world where anyone can design, simulate, and fabricate knitted textiles. From fashion to medical wearables to soft robotics. One platform, infinite materials.
Join the waitlist for the full Knitopia platform. Pattern creation, machine-code export, and the spatial design interface.