Circulating Fluidized Bed Combustor Gas Composition
This video is part of set of simulations for a novel, fluidised-bed-based plastic recycling system. In this simulation, particle flow through an L valve is studied.
This video is part of set of simulations for a novel, fluidised-bed-based plastic recycling system. In this simulation, particle flow through an L valve is studied.
This video, from the CFBC Application Model, shows the initial fluidization of particles in the riser as well as the distribution of coal particles in the system.
This video shows an animation of Ar bubbles rising up in an MMBCR.
Known Issues main page Barracuda Virtual Reactor 25.0.0 Issues affecting this version: KI-116: Particles may pass through baffles that are close to walls KI-129: Table Based Chemistry coefficient units are…
CPFD Software is pleased to announce the release of Barracuda Virtual Reactor® 25.0. This is a feature release with the addition of new wall impact models, improved project setup and…
This video is part of the Tecplot for Barracuda Training Videos collection. This training video shows how to calculate spatial average axial profiles from Tecplot for Barracuda using PyTecplot. It is necessary…
This video is part of the Tecplot for Barracuda Training Videos collection. This is an updated version of a previous support-site post titled: Tecplot for Barracuda – Using Isosurfaces to…
This application model uses Barracuda Virtual Reactor to simulate combustion inside the riser of a lab-scale CFB combustor. The simulation tracks fluid-particle interactions and chemical reactions between air and volatile species released from coal particles. This enables users to evaluate combustion performance, temperature profiles, and gas species distributions such as O₂, CO₂, NO, and SO₂ across the riser.
This application model uses Barracuda Virtual Reactor to simulate argon bubbles rising through molten iron in a laboratory-scale MMBCR. While chemical reactions are excluded in this study, the simulation captures detailed bubble behavior—tracking coalescence, breakup, and diameter evolution—as a foundation for modeling more complex reactive systems.
This application model uses Barracuda Virtual Reactor to simulate argon bubbles rising through molten iron in a laboratory-scale MMBCR. While chemical reactions are excluded in this study, the simulation captures detailed bubble behavior—tracking coalescence, breakup, and diameter evolution—as a foundation for modeling more complex reactive systems.