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Opera Simulation Software

In continuous development since 1984, Opera is the key toolset of choice in industrial and scientific applications throughout the world. Opera provides accurate numerical solutions to real-world problems in the following areas:

dielectric
Electrostatics
The Opera Static Electrostatics module computes magnetostatic and electrostatic fields or DC current flow in two or three dimensions. It can be used in x-ray devices, power systems, power transmission systems, scientific apparatus and electrode systems.
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H-Frame Dipole
Magnetostatics
The Opera Magnetostatics module computes magnetostatic and electrostatic fields or DC current flow in three dimensions. Among others, the module is useful for MRI systems, corrosion protection and fusion magnets.
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transformer_supports banner
Dynamic Electromagnetics
The Dynamic Electromagnetic Module (Dynamic Module) calculates time varying electromagnetic fields and eddy current flow in EM devices and systems, and computes time varying fields and eddy currents in three dimensions.
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coupled cavity
High Frequency Electromagnetics
Opera-3d offers a high-frequency analysis module, which solves the full wave equation including displacement currents for devices comparable in size to the wavelength at its operating frequency.
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Multispecies tracking in combined fields
Charged Particles
The Charged Particle Module calculates the interaction of charged particles in electrostatic and magnetostatic fields. It includes the effects of space-charge, self-magnetic fields and relativistic motion.
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Multiphysics Simulation in Opera
Thermal Analysis
Thermal Analysis can calculate temperature, heat-flux, and thermal-gradient fields, especially useful for transducers, induction heating, and the cool down of superconducting magnets.
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SRM Stator In fundamental oscillating mode
Stress Analysis
The Opera Stress module can solve static stresses in 2 or 3 dimensions. Results include deformations, strains and stresses, and applications include electromagnetic brakes, actuators, transformers and shields.
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Opera’s wide range of supporting capabilities to deliver accurate models include: moving parts, transient fields, non-linear materials, hysteretic magnet materials, lossy dielectrics, external circuits and system engineering. Take a look below at some specialist options for examining specific conditions in detail,and device optimization with Opera:

Quench in a LTS magnet with an HTS insert
Superconducting Quench
Opera analyses the quenching of superconducting magnets by computing the temperature rise of a magnet during a quench, including the transition to being resistive as the quench propagates.
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multi magnet coater
Sputtering
Opera combines accurate finite element analysis with detailed models for plasma, sputtering, and film deposition to provide the first practical tools for magnetron design and optimization.
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optimizer
Optimizer
The Opera Optimizer enables quick and easy investigations of possible design spaces for multiphysics problems and can solve single and multi-objective optimization problems.
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Read the full Opera brochure
To find out more about Opera’s range of applications and functionality, please download our brochure
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