Backed by top-tier supercomputing and an all-postgraduate team, KEYAN calculation offers customized Finite Element Analysis (FEA). We precisely simulate multi-physics coupling and structural mechanical responses, helping you produce top-journal-quality data.
Focus on the structural integrity and durability of complex engineering components under extreme conditions. We perform precise stress-strain distribution, fracture mechanics, and lifecycle fatigue analysis. Our experts help you optimize geometric designs to enhance material reliability and prevent catastrophic mechanical failures in demanding industrial applications.
Accurately simulate the complex interplay between thermal, mechanical, and electromagnetic fields. We analyze heat dissipation in high-power electronic packaging and thermal stress in advanced materials under extreme temperature gradients. Our robust coupling strategies reveal critical multiphysics interactions, guiding the optimal design of next-generation high-performance devices.
Investigate the dynamic coupling between fluid flows and deformable structures. We provide deep insights into aerodynamic drag, vortex-induced vibrations, and pressure-driven structural deformations. Our precise FSI simulations are essential for optimizing the performance and stability of wind turbine blades, aerospace components, and microfluidic biomedical devices.
Simulate low- and high-frequency electromagnetic fields for advanced electronics and power systems. We precisely evaluate magnetic flux density, eddy current losses, and electromagnetic interference (EMI). Our detailed FEA insights assist in the optimization of electric motors, transformers, and antennas, accelerating the development of highly efficient electromagnetic devices.
You typically need to provide the 3D CAD models (e.g., STEP, IGES formats), precise material properties, boundary conditions, and specific mechanical or thermal loading scenarios. If your geometric model is incomplete, our expert team can assist with professional 3D modeling and parameter definition.
Our PhD-led team ensures precision through rigorous mesh convergence studies, careful selection of element types, and thorough solver configurations. We strictly reject "black-box" approaches, cross-validating our simulation results with theoretical mechanics and your experimental data to guarantee scientific rigor.
Yes, multi-physics coupling is one of our core strengths. We routinely execute complex simulations such as Thermal-Mechanical stress analysis, Fluid-Structure Interaction (FSI), and Electromagnetic-Thermal coupling to accurately replicate real-world operating environments.
Absolutely. High-quality meshing is the foundation of reliable FEA. We perform meticulous mesh generation, applying localized refinements (mesh densification) around areas of high stress concentration, intricate geometries, and critical interfaces to capture accurate localized behaviors.
For standard materials, we consult extensive engineering databases. For novel or unsynthesized materials, we can leverage our First-Principles (DFT) and Molecular Dynamics (MD) computational services to calculate the unknown mechanical or thermal properties at the microscopic scale, achieving true multi-scale simulation.
The timeline depends on the geometric complexity, mesh density, and non-linearity of the physics involved. However, backed by Keyan Calculation's top-tier supercomputing infrastructure, we easily overcome severe computational bottlenecks, typically delivering highly complex results in days rather than weeks.
We utilize a suite of industry-standard, high-end software including ANSYS, COMSOL Multiphysics, and Abaqus. Our experts choose the most suitable solver engine based on the specific physical fields and non-linear characteristics of your research topic.
You will receive a comprehensive package tailored for top-tier journal publication. This includes a detailed methodology report, raw data files, high-resolution contour plots (stress, strain, temperature gradients), dynamic deformation animations, and expert interpretation of the mechanical responses.
Tell us what you're working on—our PhD-level team will respond quickly with a tailored solution and quotation (DFT/MD/FEM/CFD, 200+ PFlops compute resources, or end-to-end manuscript support).
