
AI & LCA for Critical Minerals Recovery from E- Waste (Colab-First Edition)
Revolutionizing E-Waste: Leveraging AI and LCA for Sustainable Critical Mineral Recovery
Skills you will gain:
About Program:
This workshop focuses on using AI and Life Cycle Assessment (LCA) to enhance the sustainable recovery of critical minerals from e-waste. Participants will learn how AI optimizes recovery processes and how LCA evaluates environmental impacts, aiming to improve e-waste management and support a circular economy.
Aim: The aim of this workshop is to explore the integration of AI and LCA to optimize critical mineral recovery from e-waste, focusing on enhancing efficiency, sustainability, and environmental impact reduction throughout the recovery process.
Program Objectives:
- To equip participants with the knowledge and tools to integrate AI and Life Cycle Assessment (LCA) for sustainable critical mineral recovery from e-waste.
- To develop practical skills in using machine learning for predicting mineral recovery potential and integrating it with environmental impact analysis.
- To provide hands-on experience in creating AI-driven dashboards and optimizing e-waste recovery processes through real-time data visualization.
- To introduce participants to logistics and techno-economic analysis for efficient e-waste management and recovery plant optimization.
What you will learn?
📅 Day 1 – Urban Mining Foundations & Simplified LCA
- Introduction to Urban Mining and Critical Minerals (Au, Ag, Pd, Cu, Co, Li, Ni, REEs)
- Life Cycle Thinking for E-Waste Streams
- Simplified LCA Methodology (no paid databases)
- Emission factor modeling and BoM-to-inventory estimation
- Hands-On Labs (Colab): Load BoM data, estimate critical metal content, run simplified LCA via CSV factors
- Export device-wise KPI reports (metal mass, energy use, GHG emissions)
- Tools: Pandas, NumPy, CSV templates
📅 Day 2 – Machine Learning for Mineral Recovery Prediction
- Feature engineering from e-waste device attributes
- Label estimation (e.g., Au mg/device)
- Regression & classification models for recovery potential
- Hands-On Labs (Colab): Train ML model for gold recovery, classify high-gold devices
- Save model artifacts (joblib) and generate model cards
- Tools: Scikit-learn, Joblib, Matplotlib
📅 Day 3 – Integrating AI & LCA in a Dashboard
- Linking ML recovery predictions with environmental impact
- Visualizing trade-offs between GHG emissions and revenue
- Creating user-friendly dashboards for decision-making
- Hands-On Labs (Colab): Build Gradio-based dashboard with live predictions of recovery, revenue, and GHG impact
- Customize sliders for electricity, transport, and reagent impact
- Tools: Gradio, Plotly, Scikit-learn
📅 Day 4 – Logistics, Techno-Economic Analysis & Pilot Packaging
- E-Waste collection optimization (Vehicle Routing Problem)
- Line balancing and throughput modeling for recovery plants
- Techno-Economic Analysis (TEA) of recovery processes
- Packaging industrial pilot solutions
- Hands-On Labs (Colab): Solve routing problem with OR-Tools, model throughput, estimate recovery revenue & costs
- Export all files into a Pilot Pack (ZIP)
- Tools: OR-Tools, Folium, PuLP, Plotly, Pandas
Mentor Profile
Fee Plan
Get an e-Certificate of Participation!

Intended For :
- Students, PhD Scholars, Academicians, and Industry Professionals in the fields of environmental science, engineering, or e-waste management.
- Participants with a basic understanding of Life Cycle Assessment (LCA), Machine Learning (ML), and data analysis techniques are preferred.
- Familiarity with Python programming and data manipulation tools (e.g., Pandas, NumPy) is recommended but not mandatory.
- Anyone interested in sustainable mining practices, e-waste management, and critical mineral recovery is encouraged to attend.
Career Supporting Skills
Program Outcomes
- Device-wise metal content + impact tables (Day 1)
- Trained ML models + model card (Day 2)
- Streamlit or Gradio dashboard (Day 3)
- VRP route maps, TEA snapshot, Pilot Pack ZIP (Day 4)
