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AIKEMICS / Platform /Slurry & mixing
Manufacturing platform · Slurry & mixing

Rheology, dispersion and stability, calibrated on industrial data.

The slurry module covers coarse-grained molecular dynamics, DEM, CFD-DEM and machine-learning surrogates. It predicts viscosity evolution, particle distribution, binder stability and ink quality across formulations, mixing protocols and batch sizes.

Close-up of a polished stainless-steel industrial slurry mixing vessel
How we model the mixer

Particle-resolved physics, calibrated on your formulation.

The slurry step is primarily addressed through Coarse-Grained Molecular Dynamics (CGMD), run in LAMMPS, which resolves particle–particle and particle–solvent interactions via calibrated force fields. The output is a true 3D microstructure of the wet film and physically meaningful rheological curves, not regressions on viscosity data.

High-solid-content formulations and dry mixing processes call for the Discrete Element Method (DEM) instead. DEM captures frictional contacts and realistic particle geometries derived from nano-CT imaging. CFD-DEM coupling resolves the fluid phase explicitly for dispersion studies.

The method stack

One slurry, three levels of resolution.

01 / 03

CGMD in LAMMPS

Coarse-grained molecular dynamics with calibrated force fields. Predicts 3D microstructure organization and rheological behavior such as viscosity curves. The workhorse for industrial formulations.

02 / 03

DEM & CFD-DEM

Discrete Element Method for high-solid and dry mixing, with realistic particle shapes from nano-CT imaging. CFD-DEM coupling resolves the fluid phase explicitly for slurry flow and dispersion.

03 / 03

AI surrogates

Deep-learning autoencoders (VAE), Gaussian Naive Bayes classifiers for homogeneity, PCA/SVM pipelines for film quality, and functional data-driven frameworks that accelerate ongoing MD simulations by an order of magnitude.

Why the hybrid stack pays off
10×
MD acceleration with functional surrogates
3D
microstructure resolved particle-by-particle
4
physics methods on tap
nano-CT
particle geometries from real imaging
Closing the loop with optimization

From formulation space to electrode KPIs.

Bayesian optimization layered on top of regression models trained on physics-based synthetic data enables multi-objective optimization of ink composition against downstream electrode performance targets (viscosity, dispersion quality, eventual porosity and tortuosity after coating and calendering).

The result is a screening loop where formulation candidates get pre-filtered in silico before any mixer is started. Engineers see the trade-offs between rheology, stability and downstream electrochemistry on the same chart.

Common questions

What formulation teams ask.

No. The physics methods run in our backend. Your team interacts with formulation-level inputs (binder ratio, solid content, mixer parameters) and gets engineering-grade outputs (viscosity curves, homogeneity scores, predicted film quality). The CGMD, DEM and CFD-DEM machinery sits behind a Studio interface.
We ingest a small set of measured viscosity curves, particle-size distributions and homogeneity assessments from your line. Those calibrate the force fields and surrogate models against your specific chemistry and mixer geometry, so predictions reflect your reality, not generic literature values.
Yes. Once a chemistry family is calibrated, the AI surrogates and Bayesian optimization loop let you sweep formulation space (binder grade, solvent ratio, conductive additive content) and rank candidates by predicted rheology and downstream electrode performance before mixing the first batch.
Slurry module

Move formulation screening upstream of the mixer.

Share a target chemistry and a few calibration data points. We'll return a slurry simulation plan and a Bayesian optimization scope within a week.