mass-energy-balance

Material and energy balances for chemical and petroleum engineering systems are calculated by applying stoichiometry, steady-state or transient mass conservation, and heat of reaction data to quantify flow rates and heat duties.

Multi-component flash calculations for vapor-liquid equilibrium are performed by feeding component compositions and flow rates into a VLE solver to determine phase splits and equilibrium compositions for separator design.

Combustion calculations determine theoretical air requirements and flue gas composition by applying reaction stoichiometry to the fuel mixture to quantify the exact oxygen and product gas volumes.

Heat duty for a separator treating produced oil and water is calculated by performing an energy balance that accounts for sensible and latent heat changes based on specific fluid properties and flow rates.

Transient balances with recycle streams are handled by solving time-dependent mass conservation equations alongside steady-state material balances to track accumulation and component flow rates.

Thermodynamic data tables are required to calculate heat of reaction, as accurate reactive energy balances depend on referencing standard enthalpy values for the specific chemical components involved.