Advanced Anode Materials for High-capacity Lithium-ion Batteries—Silicon, Graphene, and Beyond: Performance, Value Chain Analysis, and Growth Opportunities, 2024–2030

The global shift to sustainability requires a strong focus on electrification and energy storage to decarbonize various sectors that rely on batteries for both mobility and stationary storage applications. These sectors include electric vehicles, water transportation, electric aviation, consumer electronics, power backup systems, and large-scale grid storage. The demand for higher performance from lithium-ion (Li-ion) batteries in these applications has become increasingly critical, particularly for mobility solutions. At the heart of a Li-ion battery lies the anode that dictates the amount of Li+ ions that a battery can store, thereby affecting the energy storage capacity of the battery. This study provides an in-depth examination of the latest advancements in anode materials for Li-ion batteries, paving the way for batteries with improved energy density, extended cycle life, and enhanced safety features.

This study includes:

•     A review of emerging anode materials for Li-ion batteries, including niobium oxides, lithium titanium oxide (LTO), lithium vanadium oxide (LVO), silicon anodes, transition metal compounds, and hybrid anodes
•     Technical analysis, company innovation landscape, and patent analysis of advanced anodes in Li-ion batteries
•     Comparative analysis of various advanced anode materials on parameters such as specific capacity, safety, and cycle life
•     A detailed growth opportunity analysis for advanced Li-ion battery anodes for forward-looking growth for stakeholders