A cloud-native platform that runs solid mechanics, thermal, fracture and additive-manufacturing simulation directly from CAD — unifying FEA, PINNs and Peridynamics with a full LPBF process-to-qualification pipeline. No installs, no meshing bottlenecks, no workstation.
SolidNetics replaces a desktop of disconnected solvers with a single browser tab. Import a CAD model, assign boundary conditions visually, and run on scalable cloud infrastructure — from a quick stress check to a full additive build qualification.
No installation, no licence servers, no hardware. CPUs and GPUs scale on demand, and every update ships automatically.
Mesh-based and mesh-free solvers live in one environment — switch physics without switching tools or re-exporting geometry.
Import STL, STEP, IGES or OBJ. Surface-based boundary conditions with automatic normal detection. Visualise results online.
The Core module solves classical solid-mechanics and thermal physics. The Additive Manufacturing module adds a full LPBF process chain — scan path, melt-pool, microstructure, residual stress and certification — built on the same cloud engine.
Accurate structural, fracture, impact and thermal analysis powered by finite elements, physics-informed neural networks and peridynamics.
A connected Laser Powder Bed Fusion pipeline that takes a part from scan-path generation all the way to a certification-ready quality report.
Classical and AI-driven solvers for solid mechanics and thermal physics — four in production today, with four more in testing or active development.
High-accuracy linear-elastic structural analysis under mechanical loads, delivering full stress and displacement fields from classical finite elements.
Mesh-free stress and displacement prediction using physics-informed neural networks — no meshing overhead, robust on complex and evolving geometry.
Peridynamics-based simulation of crack initiation, growth and branching with robust discontinuity handling — no re-meshing or crack-tracking algorithms.
High-velocity impact between rigid bodies and deformable solids — modelling damage evolution and fragmentation under large deformation.
Compute effective material properties from periodic microstructures using homogenization theory and periodic boundary conditions.
Steady-state and transient heat conduction in complex geometries, solved with physics-informed neural networks.
Shape and material-distribution optimization driven by mechanical performance criteria, integrated with PINN-based solvers.
Elastic-plastic, hyperelastic and rate-dependent material models, plus heterogeneous anisotropic composites accounting for microstructure.
Five sequential solvers carry a part from geometry to a certification verdict, fed by an internal high-throughput data engine. Each stage consumes the previous stage's contract — no manual handoff.
// geometry · process strategy → trajectory → melt-pool → microstructure → residual stress → qualification
Turns a part and a process strategy into a time-stamped laser trajectory — the single contract every downstream AM solver reads.
High-fidelity meso-scale thermal simulation of LPBF — resolving melt-pool geometry, solidification gradients and phase evolution.
High-throughput simulation engine that trains the surrogate models powering StressForge and GrainPath. Not exposed as a standalone tool.
Predicts solidification microstructure, grain morphology and columnar-to-equiaxed transitions from thermal-gradient and solidification-velocity fields.
Part-scale residual stress, warping and distortion in LPBF builds, using physics-informed surrogates trained on high-fidelity thermal data.
Consolidates thermal, microstructure and mechanical predictions into defect-probability maps, property estimates and certification-ready quality reports.
Three steps, entirely in the browser — for both Core physics and AM builds.
Import a CAD model and assign boundary conditions or a process strategy through surface-based selection.
Mesh, grid or point cloud is built on scalable cloud infrastructure — no local hardware required.
Solve across CPUs and GPUs and explore stress, thermal, fracture or qualification results online.
Built to remove the friction between an idea and a validated, build-ready part.
PINNs, FEA and Peridynamics in a single environment — stress, thermal, fracture and impact without switching tools.
Mesh-free PINNs minimise meshing overhead and handle complex geometry, moving boundaries and evolving domains.
The only path from LPBF scan path through melt-pool, microstructure and residual stress to certification — fully connected.
STL, STEP, IGES and OBJ in; visual boundary conditions; everything runs in the cloud with no installation.
Scalable CPU and GPU infrastructure delivers fast turnaround for research, product design and industrial workloads.
New solvers, machine profiles and validation checks roll out automatically — you always run the latest version.
From structural design and fracture research to production-grade metal additive manufacturing and part qualification.
Don't let meshing and pre-processing slow you down. Switch to a smarter, cloud-based platform — powered by AI and built for modern engineering and additive manufacturing.