"Simulation time from 3 weeks to 8 hours, with accuracy refined from 10% to 3% of experimental data."
Iana Volvach, PhD
Electromagnetic FEA Engineer, skyTran
"With Quanscient Allsolve, I am able to run complex simulations in under a day which would otherwise take a week to finish."
Nicolo Riva, PhD
PostDoc MIT at PSFC
"With Quanscient Allsolve, we found the working design in the first iteration, saving three months in product development time."
Antony Hartley
CAE Consultant, Pixieray
With Quanscient Allsolve's parallel computing capabilities you can do something no other simulation software provides: run hundreds of MEMS simulations at the same time with no added computational time.
With Quanscient Allsolve, you get to spend more time analyzing results and making data-driven decisions, rather than waiting for simulations to complete.
Book a demo, and let's find out if you can speed up your workflow with Quanscient Allsolve.
Run hundreds of simulations in parallel with unprecedented scale and complexity, for example in these use cases.
A piezoelectric PZT layer grown on a monocrystalline silicon wafer is sandwiched between two electrically actuated electrodes, creating a harmonic deflection of the bilayer. The crystal orientation of both the PZT and the silicon can be changed to any direction.
The acoustic pressure radiated by 225 PMUTs resonating at 1 MHz is simulated. A thin piezoelectric layer (PZT crystal) is electrically actuated and vibrates a thin silicon membrane that acts as an ultrasound transducers.
A pair of micropillars placed in a microchannel bend due to a forced inlet water velocity. Geometric nonlinearity is taken into account in the mechanical model. A Laplace formulation is used to smooth the deformed fluid mesh.
The mechanical deflection of an electrostatically actuated comb drive is simulated. The nonlinear electrostatic force created by an electric potential difference is at the origin of the mechanical displacement.
The coupling (eigen)modes between two photonic SiN waveguides in a SiO2 cladding are calculated. The waveguide is designed for optical frequencies.
The electric actuation of a piezoelectric IDT emits GHz-range elastic waves. The piezo-elastic physics are strongly coupled and the PZT and silicon wafer anisotropic behavior is taken into account.
Nonlinear frequency analysis (harmonic-balance) for general MEMS devices without limit on the Q-factor. No transient simulation required.
See the related publication.
A 5 MHz wave travels through two materials respectively modeled as viscoelastic (generalized Maxwell model using 18 series of spring-dashpot branches) and elastic. PMLs surround the geometry to let the waves leave without artificial reflections.
The first six mode shapes of the moving parts of the MEMS capacitive accelerometer are obtained. The four corners of the serpentine springs are anchored for the eigen mode analysis.
Use your existing GDS2 files or draw your MEMS in the widely-used Klayout software then export as GDS2. Drag and drop the file into Quanscient Allsolve to automatically show in 3D your MEMS geometry.
A PMUT array simulation consisting of a 15x15 array with 32 million unknowns. This simulation was completed in just 4 minutes, highlighting Quanscient Allsolve's exceptional capabilities in large-scale MEMS simulations, providing you with accurate results in a fraction of the time.
See how you can simulate an MMHS: everything from geometry creation and material assignment to visualization and post-processing allowing for analysis and validation of the model.
Just like this, Quanscient Allsolve enables efficient heat sink design optimization and improved thermal performance.
Get a glimpse of running PMUT simulations in Quanscient Allsolve with this quick demonstration video.
From initial geometry creation to final result visualization, PMUT modeling has never been easier. Couple this with Quanscient Allsolve's speed and scalability, and you've got yourself a winning solution for all your PMUT simulation needs.
Learn how to simulate the bending of a sandwich beam with Quanscient Allsolve. In this tutorial, you'll see how to handle parametric sweeps and be able to perform full 3D modeling for thin beams.
Quanscient Allsolve simplifies the study of voltage-induced displacement in piezoelectric materials, facilitating the execution of advanced piezoelectric modeling tasks.
See how you can simulate an MMHS: everything from geometry creation and material assignment to visualization and post-processing allowing for analysis and validation of the model.
Just like this, Quanscient Allsolve enables efficient heat sink design optimization and improved thermal performance.
Get a glimpse of running PMUT simulations in Quanscient Allsolve with this quick demonstration video.
From initial geometry creation to final result visualization, PMUT modeling has never been easier. Couple this with Quanscient Allsolve's speed and scalability, and you've got yourself a winning solution for all your PMUT simulation needs.
Learn how to simulate the bending of a sandwich beam with Quanscient Allsolve. In this tutorial, you'll see how to handle parametric sweeps and be able to perform full 3D modeling for thin beams.
Quanscient Allsolve simplifies the study of voltage-induced displacement in piezoelectric materials, facilitating the execution of advanced piezoelectric modeling tasks.
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"Simulation time from 3 weeks to 8 hours, with accuracy refined from 10% to 3% of experimental data."
Iana Volvach, PhD
Electromagnetic FEA Engineer, skyTran
"Quanscient Allsolve is a groundbreaking tool for advanced 3D superconductor simulations."
Antti Stenvall, PhD
Adjunct professor, Tampere University
"With Quanscient Allsolve, I am able to run complex simulations in under a day which would otherwise take a week to finish."
Nicolo Riva, PhD
PostDoc MIT at PSFC
"With Quanscient Allsolve, we found the working design in the first iteration, saving three months in product development time."
Antony Hartley
CAE Consultant, Pixieray