Large-scale HTS simulations with
Quanscient Allsolve

Accelerate your R&D with robust and comprehensive superconductor simulations.
allsolve_ui_superconductors-min

Quanscient Allsolve gives you

Accelerated runtime and accurate results

  • Run each simulation of a parametric sweep on its own hardware at the same time on our cloud to dramatically accelerate the runtime.

  • Benefit from the only robust commercial implementation of the H-phi formulation.

  • Solve nonlinear problems in transient or multiharmonic mode.

  • Match your experimental measurements better and reduce the number of unknowns significantly.

Flexible configurations

  • Easily and automatically set the net current with no additional degrees of freedom and no additional algebraic constraints providing a more stable simulation with faster and more accurate results.

  • No cooking recipes needed to handle insulators, thus allowing a more straightforward setup with fewer numerical parameters to tweak.

Robust simulations

  • Full device-level simulations in 3D down to the tiniest details.

  • Robust simulation of nonlinear ferromagnetic and superconducting materials.

Multiphysics approach

  • Easily coupled to thermal problems for quench simulations while taking mechanics into account.

Limitless automated processes

  • Automate your simulation with our powerful scripting interface.

  • Remove the simulation limitations that are imposed by a graphical interface and get exactly the results you want.

Full support every step of the way

  • You can get support directly from the experts on our team. We can provide training, workshops and can even implement simulation models for you.
  • On our documentation site, we offer a collection of tutorial videos and documentation updated weekly.

Case examples

Quanscient Allsolve has been successfully applied in real-world projects, helping engineers and researchers achieve results and overcome the limitations of traditional simulation software.

stellarator
Large-scale nuclear fusion stellarator simulation

In a collaborative project with Proxima Fusion and Atled Engineering, Quanscient Allsolve was used to simulate a full-scale stellarator, a complex magnetic confinement device for nuclear fusion research. 

The simulation involved over 300 million unknowns and required substantial computational resources. 

Allsolve's cloud-based parallelization and DDM enabled the team to complete the simulation in less than 9 minutes using 500 cores, something that would have been impossible with traditional on-premise solutions.

This example demonstrates Allsolve's capability to handle large-scale, computationally demanding simulations in a fraction of the time, accelerating research and development in the field of fusion energy.

Read the full paper →

3d hts coil
Non-insulated 3D HTS coil simulation

In our previous HTS webinar, we showed how Quanscient Allsolve can be used to simulate the magnetoquasistatic and thermal behavior of a non-insulated 3D HTS coil. 

The simulation showcased the software's intuitive GUI and its ability to handle complex geometries and multiphysics interactions, including current sources, circuit coupling, and heat transfer. 

Allsolve's automated features, such as automatic cuts for unconstrained coils, simplified the setup process and reduced the potential for errors. 

The ability to efficiently and accurately simulate such complex systems allows engineers to optimize coil designs and improve their performance and reliability.

Watch the full step-by-step demo video on YouTube →

superconductor
AC loss calculation in superconducting filaments

In this example, Quanscient Allsolve was used to run a simulation with five filaments embedded in a copper matrix using H-phi formulation.

With 1 399 033 degrees of freedom, the leading desktop multiphysics solver took 8 days to run it in a 96-core HPC.

Quanscient Allsolve solved it in just 1h 45 min using 640 cores. With just five cores, Quanscient Allsolve ran it in under 50 hours. 

The results demonstrated Allsolve's capability to accurately predict AC losses, which is essential for optimizing the design and performance of superconducting wires for various applications, including superconducting motors and transformers.

Read the full publication →

 

Nonlinear, transient simulation

Transport current: 0.8*Ic
Frequency: 50 Hz
n-value: 30
Degrees of freedom: 1 399 033

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What work looks like with Quanscient Allsolve

Below, you'll find videos demonstrating some of the key capabilities of Quanscient Allsolve in superconductor simulations all the while showcasing our easy-to-use GUI.

How to configure a superconductor AC loss simulation with ease

Setting up and running an AC loss simulation has never been so easy.

It has certainly never been so fast.

See above how a superconductor AC loss simulation can be configured and run with multiple cores in the cloud.

Watch full tutorial on YouTube 

How to run a 3D quench simulation of a superconducting YBCO tape

DoF: 1 000 000
Runtime: 50 minutes
Cores: 50

Furthermore, Quanscient Allsolve allows you to run multiple configurations simultaneously without adding any extra computational time with automated parallel parametric sweeps.

See how it’s in the video above.

Watch full tutorial on YouTube 

How to model quenching in a stack of superconducting tapes

We demonstrate how to simulate the quench of a stack of six superconducting tapes, taking into account all the layers.

From the results, you can visualize the current distribution over all tapes in the stack, resolved up to each individual material layer.

Again, everything in the cloud with unlimited flexibility and speedups like none other.

Watch full tutorial on YouTube 

Book an introductory call

In the 30-minute meeting, we'll:

Assess the compatibility of Quanscient Allsolve with your use case and existing workflows
Discuss pricing and evaluate the cost-effectiveness for your use case
Discover how Quanscient Allsolve could enhance your current simulation workflow and open up new possibilities

(Not ready for a call yet? Have us send you an email instead.)