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Interactive React/TypeScript platform delivering data-driven visualizations and analytics of next-generation battery technologies—from Li-ion variants (NMC, LFP, high-nickel, silicon-anode) and sodium-ion to solid-state, redox-flow & zinc-air chemistries, plus AI-driven BMS, fast-charging, second-life reuse and grid-scale ESS. Try interactive demo!

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MICHAEL-L0RENZ/Battery-Technology

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Battery-Technology

Next-gen energy-storage insights: Interactive React/TS visualizations comparing Li-ion, Na-ion, solid-state & beyond.
Scroll down for detailed charts & use cases →


Table of Contents

  1. Overview
  2. Advanced Chemistries
  3. Performance & Reliability
  4. Economic & Environmental Impact
  5. System-Level Integration
  6. Interactive Visualizations
  7. Getting Started
  8. Contributing
  9. License

Overview

Battery-Technology is an interactive React + TypeScript platform delivering data-driven insights into:

  • Lithium-Ion evolution (NMC, LFP, high-nickel, silicon-anode)
  • Emerging alternatives (sodium-ion, solid-state, redox-flow, zinc-air)
  • System-level applications (EV charging, grid-scale ESS, green-hydrogen integration)
  • Lifecycle strategies (AI-driven BMS, fast-charge protocols, second-life reuse, circular-economy)

This repository equips engineers, researchers, policy-makers, and investors with visual analytics, key metrics, and extensible chart modules to stay ahead in the evolving energy-storage landscape.


Advanced Chemistries

  • Lithium-Ion Evolution
    • NMC/622/811, LFP, silicon-oxide & silicon-graphite anodes, high-voltage cathodes
  • Emerging Alternatives
    • Sodium-ion (CATL mass production 2025), ceramic separators, solid-state electrolytes
  • Flow & Metal-Air
    • Vanadium redox-flow, zinc-air, iron–chromium for modular, long-duration storage

Performance & Reliability

  • Energy Density & Power
    • Comparative benchmarks (e.g., 175 Wh/kg Na-ion vs. 200 Wh/kg Li-ion)
  • Thermal & Safety Profiles
    • Operational envelopes: –40 °C to +80 °C, dendrite suppression, non-flammable electrolytes
  • Lifecycle & Durability
    • 5 000 cycles, calendar-life modeling, second-life repurposing frameworks


Economic & Environmental Impact

  • Cost Drivers
    • Resource abundance: 20 ppm Lithium vs. 23 000 ppm Sodium
    • Raw-material scarcity metrics & supply-chain security
  • Sustainability Metrics
    • Water-use analysis, CO₂ footprint per kWh, closed-loop recycling potential
  • Regulatory & ESG Trends
    • EU Battery Regulation, US IRA incentives, circular-economy pathways

System-Level Integration

  • Grid-Scale ESS
    • Modular rack designs, BESS orchestration, ancillary-service revenue models
  • EV & Mobility
    • Pack-level thermal management, >350 kW fast-charge calibration, V2G demos
  • Green-Hydrogen Coupling
    • Power-to-gas storage loops, hybrid renewables + electrolyser systems

Interactive Visualizations

sodium-lithium-comparison.tsx

A React & TypeScript component using Recharts and Tailwind CSS to compare sodium-ion vs. lithium-ion cells on:

  • Cost efficiency
  • Energy density
  • Resource abundance
  • Temperature tolerance
  • Safety
  • Environmental impact

Extensible: Add new chemistries or performance metrics by plugging into chart modules.


Getting Started

  1. Clone the repo
    git clone https://github.com/MICHAEL-LORENZ/Battery-Technology.git
    cd Battery-Technology

About

Interactive React/TypeScript platform delivering data-driven visualizations and analytics of next-generation battery technologies—from Li-ion variants (NMC, LFP, high-nickel, silicon-anode) and sodium-ion to solid-state, redox-flow & zinc-air chemistries, plus AI-driven BMS, fast-charging, second-life reuse and grid-scale ESS. Try interactive demo!

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