AiSulivo
AiSulivo
Menu
AiSulivo
AiSulivo

Godela

Godela trains physics-constrained models on system data to explore scenarios and optimize engineering configurations.

Pricing
Pilot-led commercial arrangement; public prices not specified
Free plan
No permanent free plan publicly verified
Platforms
Web

Tool Information

Godela
Godela
Updated: September 2026
Tool type: Physics AI Modeling
Pricing: Pilot-led commercial arrangement; public prices not specified
Free plan: No permanent free plan publicly verified
Platforms: Web
Login required: Yes
API: No public developer API verified
Browser extension: No official browser extension verified
Mobile app: No dedicated native mobile app verified
AI models: Physics-constrained models trained for the customer's system
Developer: Godela

About Godela

Learn the behavior of a physical system

Godela develops AI models for engineering exploration using data from physical systems and simulations. The official workflow starts with existing simulation data and trains a physics-constrained model around the system's behavior. Engineers can then ask what happens when parameters change, rather than running a conventional solver from the beginning for every exploratory question. The website illustrates this with data-center cooling, but its numerical example is a demonstration and should not be interpreted as a result achieved for an arbitrary facility.

Explore trade-offs and candidate configurations

The product describes a sequence of training, what-if exploration and optimization. Inputs may concern geometry, airflow, materials or other parameters relevant to the selected system. Listed application areas include electronics cooling, aerodynamics, electromagnetics and structural behavior as well as data-center thermals. A model can help compare candidate configurations and focus attention on promising regions of the design space. These advertised applications do not establish that a single ready-made model supports every engineering problem without preparation or customer-specific work.

Use a pilot to establish the valid domain

Access is offered through a pilot request, with no public universal pricing or complete integration specification. A prospective team should define the engineering question, available datasets and acceptable error before evaluating the service. Keep a separate validation set and compare predictions against trusted simulations or measurements, including conditions near the limits of the training data. Confirm units, boundary conditions and physical constraints explicitly. For safety-critical designs, model output must remain part of a professional validation process rather than replacing it. The useful outcome of a pilot is evidence that the model is reliable for a clearly defined system and operating range, not simply that an interactive demonstration responds quickly.

Key features
  • Physics-constrained model training
  • Simulation-data input
  • What-if exploration
  • Parameter comparisons
  • Configuration optimization
  • Thermal application workflows
  • Multiple physical-domain applications
Use cases
Engineering Exploration,Thermal Analysis,Design Optimization
How to use
  1. Request a pilot.
  2. Define a specific engineering objective.
  3. Identify authorized simulation datasets.
  4. Agree units and boundary conditions.
  5. Train within the proposed scope.
  6. Compare predictions with held-out evidence.
  7. Explore candidate configurations.
  8. Validate shortlisted designs with established methods.
Best for
Engineering Exploration, Thermal Analysis, Design Optimization
Integrations
Customer-specific engineering data workflows
Commercial use
Professional use subject to official service terms

Related Tags