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Battery, Battery Materials

<2025> Next-Generation Lithium Metal Battery Technology Development Status and Market Outlook

 

 

 

Report Introduction

 

The current electric vehicle (EV) market is facing growth limitations. Globally, EV sales are increasing more slowly than expected, mainly due to the lack of sufficient charging infrastructure and the limitations of battery technology. In this situation, innovative battery technologies are urgently needed to address concerns about EV driving range and charging time. In particular, improving the energy density and efficiency of batteries—which significantly affect the driving range and performance of EVs—is crucial. 

 

 In this context, lithium metal batteries are gaining attention. Compared to conventional lithium-ion batteries, lithium metal batteries have higher energy density and the potential to provide longer driving ranges. This technology is being recognized as a promising solution that can alleviate range anxiety and offer better performance, thereby accelerating the growth of the electric vehicle market.

 

Lithium metal, in theory, has an extremely high specific capacity (~3860 mAh/g), the lowest electrochemical potential (-3.04 V vs. the standard hydrogen electrode), and the lowest density (0.53 g/cm³). Due to these characteristics, the lithium metal anode is considered one of the most promising materials for delivering high capacity and output per unit weight and volume.

 

 

 

In addition, anode-less (or anode-free) technologies—which use substrates without lithium or apply only a minimal amount of lithium to the anode—are also being actively researched. Since there is no excess lithium within the cell, anode-less technology offers the advantages of further increasing energy density and reducing manufacturing costs.

 

  

 

However, these technologies still face several limitations. In the case of lithium metal anodes, dendrite growth and low Coulombic efficiency are considered major challenges. Dendrite growth shortens the battery lifespan and, in severe cases, can lead to safety hazards. Anode-less technology also needs to overcome issues related to dendrite formation and low Coulombic efficiency. In particular, if lithium metal is not uniformly deposited during the initial charge, battery stability can be significantly compromised. Therefore, to commercialize these technologies, methods to suppress dendrite growth and improve Coulombic efficiency must be developed. To this end, various studies are underway, including improvements in electrolyte design, the application of protective surface coatings, and the development of 3D structural designs.

 

 

 

This report focuses on lithium metal anode and anode-less technologies, which are considered promising next-generation anode materials, along with the challenges these technologies face and the latest R&D trends aimed at overcoming them. It also examines the technological and developmental status of more than 50 companies and research institutions related to lithium metal across South Korea, China, Japan, North America, and Europe. Lastly, in the market analysis section, the report forecasts the demand and market size of lithium metal anodes and lithium metal batteries through 2035 under both optimistic and conservative scenarios, taking into account their potential application in electric vehicles and other areas within the context of the emerging next-generation battery market.

 

 


 

 

Table of Contents (total 310 pages)

 

 

 

1. Introduction

 

    1.1 LIB Requirements

 

    1.2 LIB Development Status 

 

 

2. Anode Technology and Development Status

 

    2.1 LIB Anode Overview 

 

    2.2 LIB Anode Development Status

 

    2.3 Next-Gen Anode Development Direction(Li-metal anode, Anode-less)

 

 

3. Lithium Metal Production Technology and Supply Status

 

    3.1 Lithium Production and Supply Status

 

        3.1.1 Global Lithium Potential Reserve

 

        3.1.2 Global Lithium Production

 

        3.1.3 Lithium Sources: Mineral, Ores, Brines

 

        3.1.4 Lithium Demand Outlook

 

 3.2 Lithium Metal Manufacturing Technology  

 

        3.2.1 Lithium Material Technology  

 

        3.2.2 Lithium Metal Anode Manufacturing Technology

 

  3.3 Issues with Lithium Metal Manufacturing Technology

 

        3.3.1 Limitations in Lithium Metal Anode Manufacturing Technology

 

        3.3.2 High-cost Structure  

 

 

4. Lithium Metal Battery R&D Status 

 

    4.1 Lithium Metal Battery Research History 

 

        4.1.1 Overview

 

        4.1.2 Lithium Metal Battery History and Emergence of Importance

 

    4.2 Lithium Metal Battery Major Issues

 

         4.2.1 Li Dendritic Growth

 

         4.2.2 SEI Layer Issue

 

  4.3 Lithium Metal Battery R&D Status

 

      4.3.1 Artificial SEI

 

      4.3.2 New Structure Deign

 

      4.3.3 Electrolyte Modification

 

      4.3.4 Anodeless Design

 

 

5. Lithium Metal-Related Companies

 

5.1 Overview

 

5.2 Asian Companies

 

         5.2.1 Samsung SDI

 

         5.2.2 LG Energy Solution

 

         5.2.3 SK On

 

         5.2.4 UBATT

 

         5.2.5 CATL 

 

         5.2.6 EVE

 

         5.2.7 Prologium

 

         5.2.8 Qingtao Energy

 

         5.2.9 Welion

 

         5.2.10 Montavista

 

         5.2.11 Shenzen Inx Technology

 

         5.2.12 Hyundai Motor Group

 

         5.2.13 POSCO

 

         5.2.14 EcoPro Innovation

 

         5.2.15 NEBA Corporation

 

         5.2.16 Solum

 

         5.2.17 Ulvac Inc.

 

         5.2.18 Honjo Metal

 

         5.2.19 Santoku

 

         5.2.20 Ganfeng Lithium

 

         5.2.21 Tianqi Lithium

 

         5.2.22 China Energy Lithium (CEL)

 

         5.2.23 Wuxi Sunenergy Lithium

 

         5.2.24 BTR

 

         5.2.25 SoftBank

 

         5.2.26 AIST

 

         5.2.25 NIMS

 

5.3 European Companies

 

         5.3.1 Blue Solutions

 

         5.3.2 LionVolt

 

         5.3.3 Volkswagen

 

         5.3.4 Mercedes-Benz

 

         5.3.5 SIDRABE

 

         5.3.6 IMEC

 

 5.4 North American Companies

 

         5.4.1 SES AI

 

         5.4.2 QuantumScape

 

         5.4.3 Solid Power

 

         5.4.4 Factorial Energy

 

         5.4.5 SOELECT

 

         5.4.6 TeraWatt Technology

 

         5.4.7 Hydro Quebec

 

         5.4.8 Sion Power

 

         5.4.9 Lyten Energy

 

         5.4.10 Enpower Greentech

       5.4.11 PolyPlus

       5.4.12 Sepion Technologies 

       5.4.13 Ion Storage Systems

 

         5.4.14 Sakuu

 

         5.4.15 Pure Lithium Corp.

 

         5.4.16 GM

 

         5.4.17 Ford

 

         5.4.18 Li-Metal Corp.

 

         5.4.19 Albemarle

 

         5.4.20 Rio Tinto Lithium

5.5 Summary of Major Companies

 

 

6. Market Outlook

 

     6.1 Overview

 

         6.1.1 Lithium Metal Battery Types and Cost Structure  

 

         6.1.2 Lithium Metal Battery Roadmap

 

         6.1.3 Lithium Metal Battery Commercialization Scenario

 

     6.2 Li Metal Anode Market Outlook

 

         6.2.1 Lithium Metal Anode Demand Outlook

 

         6.2.2 Lithium Metal Anode Price Outlook

 

         6.2.3 Lithium Material Price Outlook

 

         6.2.4 Extrusion-Rolling Process Lithium Foil Manufacturing Cost

 

         6.2.5 Lithium Metal Battery Demand and Penetration Outlook

 

         6.2.6 Lithium Metal Battery Cost and Market Size Outlook

 

         6.2.6 Lithium Metal Battery Cost and Market Size Outlook

 

         6.2.7 Lithium Metal Battery Demand Outlook by Application