vibeflow-nektar

Automate Nektar++ CFD workflows from caseDict inputs to FieldConvert post-processing.

12|1|Updated May 19, 2026
One-click install
npx skills add https://github.com/sunrise-hjx/vibeFlow-skills --skill vibeflow-nektar
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: vibeflow-nektar
Source: https://github.com/sunrise-hjx/vibeFlow-skills/tree/main/vibeflow-nektar
Command: npx skills add https://github.com/sunrise-hjx/vibeFlow-skills --skill vibeflow-nektar

SYSTEM DOCUMENTATION & REQUIREMENTS

💡 This Skill includes references (resource) components.

What problem does it solve?

This skill enables end-to-end preparation, execution, and post-processing of Nektar++ high-order simulations within VibeCAE, turning 0-caseDict/caseDict inputs into diagnosable solver runs and FieldConvert-based results.

Core Features & Use Cases

  • Generate and validate Nektar++ session.xml and mesh.xml from 0-caseDict/caseDict, including NekMesh workflows.
  • Support both usage and development modes, with templates for high-order meshes, boundary conditions, and post-processing pipelines.
  • Suitable for incompressible or compressible flows, vortex dynamics, stability analyses, and high-order PDE studies; integrates with FieldConvert and D-post.

Quick Start

Map 0-caseDict/caseDict inputs into a Nektar++ session and NekMesh/FieldConvert workflow to generate runnable, diagnosable high-order CFD cases.

Frequently Asked Questions about vibeflow-nektar

High-intent search queries and answers about installing and using this skill.

FAQPage Schema
How do I automate high-order CFD workflows with Nektar++ using caseDict inputs?

High-order CFD simulation with Nektar++ supports incompressible and compressible flows, vortex dynamics, stability analysis, and advanced high-order PDE studies by automating session configuration, NekMesh generation, and FieldConvert post-processing within VibeCAE.

How do I generate and validate Nektar++ session.xml and mesh.xml files?

Nektar++ high-order mesh workflows use NekMesh for mesh generation and validation, FieldConvert for post-processing pipelines, and D-post for diagnostics, all driven by caseDict inputs to ensure reproducible outputs with logs.

Can I run both incompressible and compressible flow simulations using Nektar++ in VibeCAE?

Nektar++ in VibeCAE handles incompressible flows, compressible flows, vortex dynamics, and stability analyses by converting caseDict inputs into validated session.xml configurations with FieldConvert-based post-processing results.

What is the best way to set up NekMesh and FieldConvert post-processing pipelines for high-order CFD?

Nektar++ workflows in VibeCAE use caseDict inputs to automate NekMesh mesh generation and FieldConvert post-processing pipelines, producing validated session.xml files, boundary mappings, and diagnosable logs for high-order CFD cases.

Does Nektar++ high-order CFD workflow support stability analysis and vortex dynamics simulations?

High-order CFD workflows with Nektar++ in VibeCAE support stability analysis and vortex dynamics by automating session.xml configuration, NekMesh mesh workflows, and FieldConvert post-processing for reproducible diagnosable outputs.

Why do I need caseDict inputs for running Nektar++ high-order simulations?

CaseDict inputs drive the automation of Nektar++ high-order CFD workflows by mapping directly into validated session configurations, NekMesh workflows, and FieldConvert post-processing pipelines, ensuring reproducible outputs and logs within VibeCAE.