Contact UsAnsys Lumerical MQW
Analyze complex band structure, gain, and spontaneous emission across multi-quantum well architectures.
Multi Quantum Well
Simulating Quantum Mechanical Activity
Ansys Lumerical MQW (Multi-Quantum Well), quantitatively characterizes band structure, gain, and spontaneous emission across multi-quantum well architectures.
To enable the construction of lasers, SOAs, electro-absorption modulators, and other gain-driven active devices, MQW couples to Lumerical CHARGE, MODE, and INTERCONNECT.
Engineering Solutions
MQW Gain
Engineers can effectively measure band structure, gain, and spontaneous emission in multi-quantum well devices thanks to Ansys Lumerical MQW, which simulates quantum mechanical activity in atomically thin semiconductor layers.
Additionally, MQW offers a fully-coupled k.p approach calculation of the quantum mechanical band structure.
Dynamic Laser Simulation & Modeling
Produce dynamic laser models that incorporate tuning and outside feedback effects into account, simulate and extract important TWLM (Travelling Wave Laser Model) parameters, and analyze steady-state and transient laser performance.
The design and manufacture of MQW lasers are typically complex and expensive; hence, simulations can speed up development and provide information on design factors.
Additionally, when the parameters are changed, measured curves and simulated power curves can be contrasted.
It is possible to closely analyze issues like nonradiative recombination and self-heating that affect how well the simulated laser works.
Mesoscopic Superconductivity
Engineers utilizing MQW can use the time-dependent Ginzburg-Landau equations to numerically solve the mesoscopic superconducting ring constructions (through finite-element analysis).
Mimic the dynamic behavior of complex magnetic vortices in the semiconductor for a given applied magnetic field.
Users can also look into the many vortex configurations, pinpoint the best vortex states using the two stable vortex shells in the mesoscopic superconducting ring.
And finally, assess the improved photonic surface superconductivity.
Ansys Lumerical MQW (Multi-Quantum Well) In-Action
Functionality and practical photonic application
Ansys Lumerical PIC Simulation
Eigenmode Expansion & Propagation
Electronics-Photonics Design Automation (EPDA)
Core Capabilities
- Wavefunction Calculation
- Band Diagram Calculation
- Physics-Based Photonics Solver
- Quantum Mechanical Analysis
- Conduction Electron Scattering
- Gain and Spontaneous Emission
- Comprehensive Material Models
- Characterization of Band Structures
- Temperature, Field and Strain Effects
- Multi-Quantum Well Stacks Simulator
- Establish Controllable Quantum States
- Mesoscopic Superconductivity Analysis
Ansys Lumerical Products
Designers can model interacting optical, electrical, and thermal effects thanks to tools that seamlessly integrate device and system level functionality. A variety of processes that combine device multiphysics and photonic circuit simulation with external design automation and productivity tools are made possible by flexible interoperability between products.
