Master the Development of High-Performance, Safe, and Sustainable Electric Vehicle Batteries

The mass adoption of electric vehicles is contingent on overcoming critical battery performance challenges. Consumers demand ultra-fast charging, automakers require long range and low total cost of ownership, and regulators insist on uncompromising safety and sustainability. This training provides the comprehensive technical roadmap to achieve these goals.

Training Overview

This intensive training addresses the multi-disciplinary challenge of building next-generation EV batteries. Participants will learn to engineer cells and packs that achieve extreme fast charging (XFC), high energy density, and proven safety through advancements in chemistry, systems engineering, and risk management.

The training covers:

• Chemistry Innovations: Leveraging NMC, LFP, and LMFP cathodes, silicon-dominant anodes, and advanced electrolytes like Localized High Concentration Electrolytes (LHCE) for stable SEI/CEI formation.
• Systems Integration: Designing modern Battery Management Systems (BMS) with adaptive charging, preheat strategies, and interoperability with public charging infrastructure (ISO 15118-20).
• Non-Negotiable Safety: Implementing robust mitigation strategies—including ceramic separators, propagation barriers, and directed venting—to prevent thermal runaway at cell, module, and pack levels.
• Compliance & Sustainability: Navigating lower carbon footprint requirements, recyclability, and complex regulatory landscapes including IEC, UL, GB, AIS, and UN 38.3 transport rules.

Key Learning Objectives & Outcomes

Upon completion, you will be equipped to:

1. Build a Deployable XFC Playbook: Implement practical formation recipes, LHCE stacks, and adaptive-taper charging profiles for production.
2. Eliminate Lithium Plating: Utilize dQ/dV analysis, EIS, and pressure/acoustic monitoring to set effective BMS charge limits and prevent failure.
3. Design for inherent Safety: Integrate propagation-resistant architectures with ceramic separators, intumescent barriers, and directed venting, backed by clear thermal runaway pass/fail criteria.
4. Streamline Certification and Logistics: Apply essential sign-off strategies and prepared dossier templates for global standards to avoid project delays and detentions.
5. Justify Decisions with Data: Utilize yield ladders, warranty exposure models, and telemetry feedback loops to make defensible decisions balancing performance, safety, and cost.

Who Should Attend

This training is designed for professionals and organizations actively involved in the advanced battery ecosystem.

• Chemical Industry: R&D Chemists, Formulators, Process Engineers, QA/QC Specialists
• Original Equipment Manufacturers (OEMs): Engineering teams from Electric Vehicle, Electronics, and Aerospace sectors
• Energy Providers: Engineers and strategists from Energy Storage & Grid Solutions firms
• Technology Sector: Engineering and operations professionals from AI & Data Center companies
• Innovators: Technical founders and engineers from Startups & New Entrants
• Policy & Regulation: Professionals from Policy Making and Regulatory bodies
• Research & Education: Academics and researchers from Universities and Research Institutions

Training Outline

• Systems Thinking for XFC, Energy, and Safety
• Defining the Performance KPI Envelope and Trade-offs
• Mapping Plating, Heat, and Propagation Risks
• Understanding Cell, Pack, Charger, and BMS Coupling
• Mastering the Materials Rulebook
• Engineering Silicon-Rich Anodes (≥20% Si)
• Optimizing Single-Crystal NMC and LMFP Cathodes
• Formulating Dual-Salt LHCE Electrolytes
• Designing Propagation-Resilient Safety
• Selecting and Specifying Ceramic Separators, Intumescents, and PCMs
• Implementing Effective Directed Venting and Cell Spacing
• Establishing Rigorous Thermal Runaway Propagation (TRP) Test Criteria
• Real-World XFC Engineering
• Advanced Formation Cycling: Multi-Step and Pressure-Assisted
• Implementing ISO 15118-20 with Adaptive Taper and Model Predictive Control (MPC)
• Process Control: Dry-Room Humidity, Calender SPC, and Inline EIS
• Advanced Strategies and Risk Management
• Navigating the Validation Ladder: IEC, UL, GB, and AIS Standards
• Ensuring UN 38.3 Shipping Readiness
• Making Critical Design Decisions: Cell-to-Pack (CTP) Architecture, Busbars, and Gas Routing

Key Takeaways

Participants will leave with a practical toolkit of strategies, checklists, and templates directly applicable to current and future projects, enabling immediate implementation of best practices.

Expert FAQs

Common questions regarding technology selection, implementation hurdles, and regulatory compliance will be addressed in a dedicated session with our industry expert instructors.