Advanced numerical simulations
supporting product design.
As AIC we knowthat a credible numerical analysisis a crucial part of the design process of the advanced apliances, as it delivers accurate solutions in terms of efficiency, performance and reliability of a product. What is more, it allows to safe resources and drastrictly reducetime-to-market time.
We are proficient in a variety of commercial solvers, which we combine with the flexibility of proprietary in-house software tailored to meet specific project requirements. With two independent high-performance computing servers, we can efficiently process large-scale models and complex simulations internally, ensuring data confidentiality and full intellectual property protection.
The CFD division specializes in analyzing fluid flow and heat transfer phenomena. Through advanced numerical simulations, our engineers can accurately predict fluid behavior across a wide range of processes and operating conditions. CFD analysis plays a critical role in product optimization by identifying and resolving issues related to thermal performance, fluid distribution, phase transitions, combustion processes, and other flow-dependent phenomena that are crucial to product performance and life-cycle durability.
The FEA division applies the Finite Element Method (FEM), a numerical technique used to evaluate and predict the behavior of structures and mechanical systems under various operating conditions. This approach enables precise assessment of stress, strain, and displacement resulting from factors such as pressure, temperature, and external loads. FEA supports product optimization by identifying and addressing structural weaknesses that could lead to failures, including cracking, deformation, and other forms of mechanical degradation.
Applied to advanced heat transfer and fluid mechanics processes. Problems range from 2D steady, laminar, inviscid flows in single-domain models to 3D turbulent, compressible flows with heat transfer across multiple domains.
Applied to single- and multi-species substances.
Used for advanced flow and heat transfer problems, including multiphase mixing. These simulations enable accurate modeling of transient states in fluid and thermal systems.
Including premixed and non-premixed combustion.
Enables the identification of regions susceptible to nuclate boiling.
Enables the identification of areas prone to scale formation and evaluation of the accumulation rate.
Enables multiobjective optimization.
Applied to model and analyze the structural behavior of the system under loading that does not change over time (stationary loading).
Applied to model and analyze the structural behavior of a system under loading that changes over time (non-stationary loading) due to time-varying internal or external factors.
Applied to predict the allowable number of cycles for given operating conditions by modeling the structural behavior of objects during cyclic operation. These simulations may also include the modeling of defects in a structure, known as fracture mechanics simulations, to determine inspection intervals and critical defect sizes for safe operation.
Applied to model the behavior of objects under conditions involving heat exchange and phase transitions, including isothermal or temperature difference conditions.
Applied to model the behavior of objects during highly nonlinear and high-speed events, such as impacts, explosions, and material failure.
Applied to model the behavior of objects, such as their wear-out in contact situations.
Applied to model multiple physical phenomena within a single simulation.
We consistently ensure that our design methods are both credible and robust. That’s why we place particular emphasis on the verification and validation process. Leveraging the capabilities of our thermal laboratory, we conduct empirical validation of product performance through a wide range of comprehensive tests. By comparing test results with numerical simulations, we identify the limitations of CFD and FEM analyses and continuously refine our numerical models. Credible models enable us to accelerate the design process and reduce time-to-market.
Contact Us
If you're looking to accelerate your design process or reduce the number of physical product tests, numerical analysis can help!
Get in touch with us — we’ll be happy to assess whether CFD/FEM simulations are suitable for your case, to what extent they can support your development, and whether we can carry them out for you.
AIC S.A.
ul. Rdestowa 41
81-577 Gdynia, Poland
+48 58 785 61 61
info@myaic.com