Model materials with physics-informed neural networks.
PINNs for Battery & Material Science teaches a hybrid modelling approach for materials. You learn how physics-informed neural networks embed governing physical equations — diffusion, reaction, electrochemistry — into machine learning, and why that produces reliable models of battery and materials behaviour where data alone falls short. The course connects PINNs to real materials-modelling problems. You finish able to reason about applying physics-informed neural networks to a materials or battery problem. A verified e-Certificate of competency and e-Marksheet from the Deep Science & Technology Consortium.
This course applies physics-informed neural networks (PINNs) to battery and materials science — embedding physical laws into ML to model materials behaviour reliably.
1. Explain physics-informed neural networks.
2. Embed governing equations into models.
3. Model diffusion and electrochemical behaviour.
4. Apply PINNs to battery and materials problems.
5. Combine physics with sparse data.
• Materials and battery researchers
• Scientific-ML practitioners
• Computational-materials scientists
• Students of scientific computing
• An understanding of PINNs for materials.
• A physics-plus-ML perspective.
• A materials-modelling project.
• A verified e-Certificate of competency and e-Marksheet from the Deep Science & Technology Consortium.
Implement Battery with Material for practical ai fundamentals, mathematics, and pinns for battery & material science foundations applications and outcomes. • Design PINNs with sustainability for practical ai fundamentals, mathematics, and pinns for battery & material science foundations applications and outcomes. • Analyze Battery with Material for practical ai fundamentals, mathematics, and pinns for battery & material science foundations applications and outcomes.
Implement Battery with Material for practical data engineering, preprocessing, and feature pipelines applications and outcomes. • Design PINNs with sustainability for practical data engineering, preprocessing, and feature pipelines applications and outcomes. • Analyze Battery with Material for practical data engineering, preprocessing, and feature pipelines applications and outcomes.
Implement Battery with Material for practical model architecture, algorithm design, and pinns for battery & material science methods applications and outcomes. • Design PINNs with sustainability for practical model architecture, algorithm design, and pinns for battery & material science methods applications and outcomes. • Analyze Battery with Material for practical model architecture, algorithm design, and pinns for battery & material science methods applications and outcomes.
Implement Battery with Material for practical training, hyperparameter optimization, and evaluation applications and outcomes. Gain hands-on experience and produce real-world projects. • Design PINNs with sustainability for practical training, hyperparameter optimization, and evaluation applications and outcomes. Gain hands-on experience and produce real-world projects. • Analyze Battery with Material for practical training, hyperparameter optimization, and evaluation applications and outcomes. Gain hands-on experience and produce real-world projects.
Implement Battery with Material for practical deployment, mlops, and production workflows applications and outcomes. Gain hands-on experience and produce real-world projects. • Design PINNs with sustainability for practical deployment, mlops, and production workflows applications and outcomes. Gain hands-on experience and produce real-world projects. • Analyze Battery with Material for practical deployment, mlops, and production workflows applications and outcomes. Gain hands-on experience and produce real-world projects.
Implement Battery with Material for practical ethics, bias mitigation, and responsible ai practices applications and outcomes. • Design PINNs with sustainability for practical ethics, bias mitigation, and responsible ai practices applications and outcomes. • Analyze Battery with Material for practical ethics, bias mitigation, and responsible ai practices applications and outcomes.
Implement Battery with Material for practical industry integration, business applications, and case studies applications and outcomes. • Design PINNs with sustainability for practical industry integration, business applications, and case studies applications and outcomes. • Analyze Battery with Material for practical industry integration, business applications, and case studies applications and outcomes.
Implement Battery with Material for practical advanced research, emerging trends, and pinns for battery & material science innovations applications and outcomes. • Design PINNs with sustainability for practical advanced research, emerging trends, and pinns for battery & material science innovations applications and outcomes. • Analyze Battery with Material for practical advanced research, emerging trends, and pinns for battery & material science innovations applications and outcomes.
Implement Battery with Material for practical capstone: end-to-end pinns for battery & material science ai solution applications and outcomes. • Design PINNs with sustainability for practical capstone: end-to-end pinns for battery & material science ai solution applications and outcomes. • Analyze Battery with Material for practical capstone: end-to-end pinns for battery & material science ai solution applications and outcomes.
| Parameter | Requirement |
|---|---|
| Covered Tool / Platform | Battery |
| Covered Tool / Platform | Material |
Based on 0 scholar submissions
No verified reviews published yet. Be the first to share your academic experience.
Your rating will help prospective scholars. Ratings below 3 stars are routed privately to the faculty mentor for immediate response.