Zeros Fracture · Zeros MPM — fracture simulation and multi-physics for physics AI
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crack tip · damage zone

Two solvers, one goal — designs you can trust.

We build simulation for two different kinds of problem. Zeros Fracture uses the phase-field method to predict how, where and when parts crack and delaminate. Zeros MPM is a general-purpose material point method solver for multi-physics, built for physics AI: it generates the high-fidelity simulation data that neural surrogates and physics foundation models learn from.

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15+ Years of FEM experience
5 Simulation projects delivered
2 Peer-reviewed publications
Our products

Two products, two kinds of problem

Phase-field · FEM

Zeros Fracture

Phase-field fracture simulation with FEM: where cracks start, how they grow, and which interfaces let go first.

  • Material fracture & crack propagation
  • Interfacial delamination
  • Fatigue & thermal cycling
  • Calibration & validation
Explore Zeros Fracture
Physics AI · MPM

Zeros MPM

Multi-physics simulation for physics AI. A general-purpose material point method solver that produces the large, consistent simulation datasets AI models need — and the ground truth to check them against.

  • Training datasets for neural surrogates
  • Ground truth for validating physics AI
  • Coupled thermal, fluid & solid physics
  • Large deformation & contact without remeshing
Explore Zeros MPM
Simulation services

Explore what we simulate

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What you receive
Industries

Where simulation pays off

Semiconductor & electronics packaging Die cracking, die-attach and mold-compound delamination, solder fatigue. Automotive & e-mobility Power modules, bonded joints and lightweight structures under vibration and heat. Aerospace & composites Ply delamination, adhesive joints and damage tolerance assessments. Energy & batteries Electrode and coating cracking, ceramic components, thermal shock. Medical devices Implants, coatings and bonded assemblies where failure is not an option. Advanced materials Sintered, porous and functionally graded materials, modelled at the microstructure.
How we work

From engineering question to design answer

  1. 1

    Scope

    We review geometry, materials, loads and the physics involved, and agree on the questions the model must answer.

  2. 2

    Calibrate

    Phase-field parameters — toughness, strength, interface properties — are identified from your test data or literature, with stated assumptions.

  3. 3

    Simulate & validate

    Mesh-converged FE analyses, checked against experiments wherever they exist.

  4. 4

    Recommend

    A clear report with design changes ranked by impact — plus the models, if you want them.

Simulation in action

Case studies

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[Client name] · Electronics

Die-attach delamination under thermal cycling

[One-sentence result, e.g. which design change delayed delamination onset and by how much.]

Read the case study →
[Client name] · Ceramics

Crack path prediction in a brittle substrate

[One-sentence result, e.g. predicted vs. measured critical load.]

Read the case study →
[Client name] · Zeros MPM

Simulation dataset for a neural surrogate of [process]

[One-sentence result, e.g. dataset size and surrogate accuracy vs. full simulation.]

Read the case study →
[Customer testimonial — a short quote from a real client about the result.]
[Name], [Title], [Company]

The latest from Zeros

Technical blog Why phase-field: cracks without a predefined path Read → Webinar [Upcoming webinar title and date] Register → Publications Our peer-reviewed work on fracture and multi-physics simulation Browse → Careers Join a team of simulation engineers Open roles →

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