0% faster
than alternatives
Generation that used to take hours, in seconds.
Solo Lattices Company Ltd.
Lattice software for additive manufacturing
We design the lattices industry 3D-prints.
Our apps live inside Synera. From CAD to fabricable geometry — locally, in seconds.
Featured in
Solving geometric complexity with advanced lattice generation.
Why Solo Lattices
Engineered for what others can't.
Four reasons our pipeline ships parts other tools can't even simulate.
0% material
savings
Validated in production — INSOLO programme with Oechsler.
Local-first.
No cloud round-trips. Your IP never leaves your machine.
0 apps
live in Synera
Mocha · Mocha Mesh · Dendrise. Drop into any low-code workflow.
Built into Synera
Three modular apps. One marketplace.
Mocha, Mocha Mesh and Dendrise live inside the Synera development platform — ready to drop into any low-code engineering workflow.
Lattice generation
Mocha
Fully conformal lattices for any closed volume. Generative tuning of mechanical properties. Up to 24,000% faster than alternatives.
- Conformal lattices
- Mechanical tuning
- CAD-aware
Advanced mesh processing
Mocha Mesh
Robust mesh operations on top of Mocha — booleans, smoothing, repair — for the toughest topologies in additive manufacturing.
- Boolean operations
- Repair & cleanup
- Production-grade
Voxel engine
Dendrise
High-speed voxel core for robust geometry operations. Local-first, GPU-accelerated, no cloud round-trips. The engine that powers Mocha.
- GPU voxel core
- Local-first
- Engine layer
Available now in the Synera marketplace.
Inside the engine
Dendrise: voxels where mesh and BREP fail.
Lattices break traditional kernels. Our voxel core handles booleans, generates beam and TPMS structures, and runs collision checks at speeds the rest of the industry can't match.
Robust booleansBooleans that don't fail.
Mesh and BREP booleans collapse on lattice geometries. Dendrise adds a voxel layer that handles union, subtract and intersect on anything — making the operation safe enough to automate.
Use case
Adhesion on Carbon CLIP printers
Reliably flatten the lower surface of latticed parts — the only way to print them on a CLIP machine without losing adhesion.
Beam & TPMSLattices a finite element solver respects.
Fatten beam networks with field-driven thickness. Fill any closed volume with gyroids and other TPMS for lightweighting, heat dissipation and material characterisation.
Use case
Adaptive thin-surface ribbing
Ribbed a 3D-printed tibial prosthetic socket — material savings and a cleaner manufacturing process.
Collision checksCollision detection, at any resolution.
Lightning-fast, memory-efficient checks between voxelised parts — both 2D and 3D, with verifiable minimum distances.
Use case
Platform nesting for AM
Pack more parts into the build chamber without unintended fusion — verify clearances before the slicer even sees the file.
Volume Union
Offset Volume
Create TPMS
Detect Collisions
Demos & tutorials
See lattices come to life.
Step-by-step walkthroughs from our team. Three episodes from the Lattice Structures series — more on the way.
01 · Lattice Structures · Introduction
What lattices are and why they matter for additive manufacturing.
02 · Box Grid Lattices
Generating uniform box-grid lattices and tuning their density.
03 · Conformal Lattices
Conforming lattices to any closed CAD volume — the Mocha way.
By the numbers
Validated in production. Built on a growing market.
Real parts, real results — and a software category about to triple in size.
0% Material reduction
Aerospace suspension bracket
0% Material savings
Orthotic ankle brace
0 min End-to-end generation
100% automated workflow
$0.0B AM software market by 2026
$1.3B in 2020 → $4.5B in 2026
Sources: Solo Lattices · SmarTech / Statista
Case study
From CAD to foot.
How Mocha generates fully fabricable variable-density lattices — validated on a clinically demanding application: custom orthotic insoles for podiatry.
Toes · soft
Forefoot · high density
Arch · low density
Heel · high density
- biocompatible material
- 0glues or adhesives
- ∞density variations
- 100%machine washable
01
The brief
Custom orthotics need to balance support, cushioning and breathability — across different zones of the foot. Traditional EVA-based insoles ship as a stack of glued layers, are hard to clean, and can't adapt mechanically to a localised clinical diagnosis.
02
The Mocha way
We use Mocha to generate a single-volume lattice whose cell density varies along the footbed. Heel and forefoot get higher density for support; the arch gets lower density for compliance. One material, one print, infinite tunings — and the same software pipeline scales to aerospace brackets and medical implants.
Specs that ship
- Biocompatible TPU monomaterial
- Open lattice — fully breathable
- Tested chemical resistance (sweat, soap)
- Machine washable, water resistant
- Designed by podiatrists
- Locally fabricated, no shipping latency
Solving a similar problem?
Tell us about your part. We'll show you what Mocha can do with it.
Case study · Aerospace
One bracket. Three apps. One Synera workflow.
A control-arm-style suspension bracket re-engineered with a conformal lattice — Mocha, Dendrise and Mocha Mesh chained together in a single Synera pipeline.
Generated with our Synera integration
The pipeline
- 01
Mocha
Conformal lattice
Generates a single-volume lattice that flows along the principal stress paths — up to 70% less material while preserving stiffness.
- 02
Dendrise
Robust booleans
Unions, subtracts and intersects between the lattice and CAD body — fast and flawless on geometries that break traditional kernels.
- 03
Mocha Mesh
Production-ready mesh
Cleans, repairs and prepares the final mesh for the slicer — no manual rework before hitting the build plate.
Outcomes
- Up to 70% less material — without losing stiffness.
- Lower mass → reduced fuel consumption and emissions.
- Open lattice dissipates heat build-up under load.
- Higher strength-to-weight ratio than the cast original.
Have a part begging for a lattice?
Send us your CAD — we'll run it through the same pipeline.
Part
Suspension bracket
−70%
Case study
A custom-fit inlay, not a stock prosthesis.
A digital workflow for breast-care providers — from patient scan to a fully personalised, traceable 3D-printed inlay. One configurator, one print, infinite anatomies.
From the CAD bench
Raw engineering views — Voronoi lattice on a patient-matched dome.
01
The brief
Post-mastectomy patients deserve more than off-the-shelf foam. The inner surface must match the patient's anatomy after surgery; the outer surface must replicate the contralateral breast — light, breathable, washable, and indistinguishable under clothing. Stock prostheses can't do that.
02
The workflow
We turn the breast-care provider's intake into a fully digital pipeline. Two surfaces are generated per patient — an inner dome matching the scan, and an outer dome to the desired shape — joined by a Voronoi lattice tuned for weight, breathability and elasticity.
- 01Patient scan — captured in-clinic with a handheld 3D scanner.
- 02Web app configurator — clinician dials in volume, projection and softness.
- 03Mocha + Dendrise generate inner & outer domes and the latticed body.
- 04STL export with a unique device identifier baked into the part.
Built-in traceability
Each part carries a unique identifier embedded into its geometry — a printed-in QR pattern that links back to patient, prescription and batch. Mass customisation, GDPR-compliant.
Specs that ship
- Voronoi lattice — open, breathable
- Density tuned to target weight
- Inner surface 1:1 with patient scan
- Outer surface to clinician spec
- Unique device ID printed in
- Single-piece print, no assembly
Working on a custom-fit medical device?
We've built this workflow before. Let's talk about yours.
Industries
Where lattices ship.
The same software pipeline serves three regulated, demanding sectors. Different parts, same need: complex geometry that prints right.
Lightweighting & tooling
Automotive
- Rapid prototypes and conformal cooling tooling
- Lightweight brackets without strength loss
- Custom interior padding with tunable comfort
Fuel & thermal management
Aerospace
- Mass reduction in flight-critical structures
- Thermal exchangers with TPMS lattices
- Self-supported geometries for SLM/EBM
Implants, orthotics, prosthetics
Healthcare
- Porous implants with osseointegration in mind
- Patient-specific orthotics with variable stiffness
- Single-material, sterilizable medical devices
Team
Engineers, scientists, clinicians.
A small founding team with deep expertise across mechanical engineering, computational geometry and clinical biomechanics.
Contact
Tell us about your part.
We reply within one working day. If you'd rather talk live, book a 30-minute demo.
Partners
Working with the platforms and makers who set the bar.
From the low-code engineering platform our apps live in, to the manufacturers shipping parts in the wild.
Stay in the loop
Follow our journey on LinkedIn.
Weekly posts on lattices, additive manufacturing, and the engineering behind Mocha, Mocha Mesh and Dendrise.