Advanced Thermodynamic Applied to Business Needs
Thermodynamique dédiée au besoin des entreprises
|
ExpertiseBenefits for your organization
Th2b inc. offers packaged simulators as well as customized modeling software.
Energy consumption may be optimized through systemic modelling integrating thermodynamic laws, top notch correlations, conjugated process modelling (conduction, convection, condensation, evaporation, sublimation, radiation, etc.). Simulation software has to be proven and tested with data coming from the field. They should be consistent with conservation laws. Energy balance should conducted to verify the consitency. Th2b inc. is validating all simulation software with real life data to ensure reliable decision making.
Modelling results must be interpreted in the context of the business needs. Theoretical results have to be converted to applied information. Whenever something happens energy is converted from one form to an other, i.e. an energy conversion. Everything that can be described as a change in time involves an energy conversion, from a supernova explosion to a thought of mind. The amount of energy being converted may be large or small, but without exception energy is converted in everything that happens. We have now concluded that it is a fundamental law of nature that energy neither can be created nor destroyed (the First Law of Thermodynamics). Energy is available in many different forms and may be converted between these forms. However, a strict limitation is always active. Different energies has different qualities, indicating to what extent they are theoretically convertible to mechanical work. This limitation, a Law of Nature, implies that the total energy quality always decreases in each conversion (the Second Law of Thermodynamics). The quality of energy is described by the concept of entropy. High entropy is equal to low quality of energy. The Second Law states that conversions are possible only if the total entropy increases. Th2b inc. is dedicated to the optimization of energy use through thermodynamic analysis of processes and systems. |





