Ability to convert models to FDS5 FDS4.Cluster simulation in a computer network context.SmokeView support to view the output smoke, temperature, acceleration and other parameters FDS at any point of analysis.There is a design tool to create models quickly for you.Ability to edit interactive objects in the model.Has a library of various specifications to speed up production and reduce error modeling.With the excellent use of obstruction transparency and.

Possibility to import existing models, FDS PyroSim model at the top and two Smokeview renders of the Fire Dynamics Simulator (FDS) simulation.

The user interface has been translated into several different languages.

Parallel processing to improve FDS execution.

Ability to import CAD models, including DXF and DWG.

The results of these simulations are used to ensure the safety of buildings before construction, evaluate the safety options of existing buildings, reproduce fires for post-accident investigations, and provide support. FDS models can predict smoke, temperature, carbon monoxide and other substances during a fire.

PyroSim is a graphical user interface for the fire simulator (FDS). Gypsum to calcium sulfide conversion of 83.5 and 83.8% was obtained at the optimum temperature range of 1100–1200☌ and gypsum to calcium sulfide conversion of 85.4% was obtained at the optimum coal to gypsum mole ratio of 2.1:1, (iii) excess coal gave a lower conversion, and (iv) the predicted data using Mintek Pyrosim were found to be similar to the experimental data.Download PyroSim 2021 - Fire Dynamics Simulator (FDS) can predict smoke, temperature, carbon monoxide and other substances during a fire PyroSim: The following findings were made: (i) reduction of waste gypsum is an endothermic reaction since, Δ H values were greater than 0 (Δ H > 0) when the reduction temperature was increased from 25 to 1200☌, (ii) energy requirement is dependent on temperature and gypsum to coal ratio. Gypsum was homogeneously mixed with coal and the reduction experiments conducted. The paper presents results on thermal studies of waste gypsum in a tube furnace and its validation using the Mintek Pyrosim model. The purpose of the study was to establish optimum operating conditions for the recovery of valuable products, e.g., sulfur and precipitated calcium carbonate, from waste gypsum, hence, offer an attractive solution to the gypsum waste problem. Waste gypsum is produced as a by-product from the fertilizer, mining industries, and acid mine water neutralization using calcium carbonate and/or lime and desalination processes using reverse osmosis and ion-exchange processes, resulting in environmental and storage problems.