Start from the engineering problem
Define what must be predicted, compared or understood before choosing solver settings. The simulation should be designed around the decision it needs to support.
ABOUT ABECATOR CFD
Engineering CFD support built around the decision behind the simulation.
Abecator is an engineering CFD consultancy that helps teams, startups and researchers build, review and troubleshoot simulation workflows. Technical knowledge, engineering tools and training support that work by making the underlying modelling choices easier to understand and apply.
ENGINEERING FIRST
CFD is useful only when the model can support a technical decision.
Abecator focuses on the parts of CFD that most strongly control credibility: assumptions, physics, mesh, numerics, verification and interpretation.
Choose models for the dominant phenomena
Boundary conditions, turbulence, heat transfer, rotating flow, multiphase behaviour and material assumptions are treated as engineering choices—not software defaults.
Control mesh and solver risk
Near-wall treatment, prism layers, local refinement, timestep, discretization, convergence and conservation checks are used to separate numerical symptoms from physical behaviour.
Verify before interpreting
A useful CFD result needs sensitivity checks, physical plausibility and a clear explanation of what the model supports, what remains uncertain and what should be checked next.
CONSULTING CAPABILITIES
Support across thermal-fluid, rotating, internal and multiphase CFD.
Projects can begin as a focused technical review or develop into hands-on simulation and methodology support when the problem requires it.
Heat transfer, cooling and thermal management
Conjugate heat transfer, cooling passages, wall heat flux, thermal boundary conditions and temperature-driven engineering decisions.
Gas turbines and rotating machinery
Rotating domains, blade-passage workflows, cooling and secondary flows, interfaces, near-wall treatment and thermal-fluid analysis.
Thermal management and HVAC CFD
Cabin airflow, climate distribution, transient thermal behaviour and engineering interpretation for thermal-management applications.
Pressure loss and flow distribution
Ducts, manifolds, recirculation, local losses, flow splits, pressure-drop prediction and internal-flow troubleshooting.
VOF, free surface and transient interfaces
Moving interfaces, waves, sloshing, timestep control, interface resolution and transient multiphase methodology.
Troubleshooting and independent CFD review
Convergence, mesh quality, y+, conservation, outlet sensitivity, pressure/temperature plausibility and result-focused verification.
HOW SUPPORT WORKS
Focused enough for a single problem. Structured enough for a repeatable workflow.
The scope should match the engineering risk. A difficult simulation does not automatically require a large project.
01
Define the question
Clarify the required result, available inputs, constraints and what decision the CFD must support.
02
Review the model
Assess geometry, mesh, boundaries, physics, numerics, monitors and existing evidence.
03
Target the dominant risk
Repair or develop the part of the methodology most likely to control accuracy, stability or usefulness.
04
Verify and communicate
Check the result, document limitations and turn the CFD evidence into a clear engineering conclusion or next action.
TECHNICAL ECOSYSTEM
Consulting is supported by reusable CFD knowledge—not separated from it.
Abecator develops practical technical resources around recurring CFD decisions so useful engineering knowledge can be reused across projects, learning and troubleshooting.
Problem-focused CFD knowledge
Searchable explanations organized around setup decisions, failure modes, diagnosis and corrective actions.
Transparent calculation support
Free calculators and decision-support tools for common pre-processing, wall-treatment and numerical tasks.
Professional learning from practical workflows
Structured training turns recurring engineering methodology into step-by-step simulation workflows.
Direct answers to practical CFD questions
Concise technical answers provide a starting point before a problem needs deeper investigation or consulting support.
START WITHOUT SHARING CONFIDENTIAL DATA
Describe the CFD problem first. Share detailed project data only when the scope requires it.
The project-inquiry workflow is designed to begin with a non-confidential technical brief: application, objective, software, current problem, available model status and the kind of support needed.
PROJECT INQUIRY
Bring a model, a difficult result or simply an engineering question.
Start with enough information to understand the problem and determine the most useful level of CFD support.