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1398857

下一代电池材料技术的成长机会

Next-Generation Battery Material Technology Growth Opportunities

出版日期: 2023年11月29日 | 出版商:

Frost & Sullivan | 英文 158 Pages | 商品交期: 最快1-2个工作天内

价格

简介目录

透过提高下一代电池的能量/功率密度、循环寿命和安全性来满足客户在各种应用中的需求

随着电动车（EV）和可再生能源储存系统的需求不断增长，对高性能电池的需求也在增加。向具有更高能量密度、更长寿命和更高安全性的改进电池技术的转变正在推动下一代电池材料技术的技术进步。锂离子（Li-ion）电池广泛用于电动车、行动装置和能源储存系统。然而，该技术在能量容量、充电时间、过热和热失控方面存在局限性，可能导致火灾或爆炸。新材料的进步可以克服传统电池材料的挑战，例如劣化和热失控的风险。

钴、镍和锂等材料在提取和加工时会对环境产生负面影响。永续性和环境影响正在成为电池材料开发中更重要的考虑因素。人们越来越重视开发较少依赖稀有或有毒元素的材料。

Frost & Sullivan 的下一代电池材料技术成长机会研究确定并分析了新电池技术所用材料的技术进步。这些技术进步集中在固态电池、金属空气电池、锂硫电池和钠离子电池的下一代电池材料。这项研究深入了解了该技术的关键重点领域、挑战以及提高实用性的采用策略。它还涵盖了下一代电池材料技术进步的商业性前景。

Frost & Sullivan确定了下一代电池材料技术发展的主要领域，包括正极、负极、电解液、隔膜等组件；固态电池、金属空气电池、锂硫电池等电池技术电池、钠离子电池；我们将产品分为不同领域，包括电动车、家电、航太、国防、医疗设备、电网储能等应用市场。世界各地的政府和电池开发商正在认识到这些先进电池材料技术在可再生能源整合、电动车和电网规模能源储存方面的重要性和颠覆性潜力。各国政府正在向研究机构和材料开发公司发起资助计画和津贴，以鼓励下一代电池材料的研究和开发。

主要问题

下一代电池材料有哪些新技术？
改良电池材料的新材料创新研发配合措施有哪些？
下一代电池材料及其应用的新趋势和商业化阶段是什么？
下一代电池材料技术对技术开发商来说有哪些成长机会？

过去五年下一代电池研发显着成长
传统电池材料的问题
单边带技术的展望
金属气电池技术展望
锂硫电池技术前景
钠离子电池（NIB）技术展望
开发下一代电池材料，提高整个能源储存系统的经济效益
下一代电池材料的关键差异化因素
开发新的下一代电池材料技术，克服抑制因素并解决未满足的需求
推动下一代电池材料技术发展的因素
成长抑制因素

技术分析：负极材料

负极材料技术展望
负极材料技术细分
金属/类金属负极材料技术展望
新一代电池负极材料：金属/类金属
非金属负极材料技术展望
新一代电池负极材料：非金属
聚合物基负极材料的技术前景
新一代电池负极材料：聚合物
复合负极材料的技术前景
新一代电池负极材料：复合材料
奈米材料负极材料技术展望
新一代电池负极材料：奈米材料
三大最有前景的负极材料技术：分析师见解
开发下一代电池负极材料技术的主要相关人员

技术分析：正极材料

正极材料技术展望
正极材料技术细分
硫基正极材料技术展望
下一代电池正极材料：硫
过渡金属基正极材料技术前景
下一代电池正极材料：过渡金属
金属氧化物正极材料技术展望
新一代电池正极材料：金属氧化物
聚合物基正极材料技术前景
下一代电池正极材料：聚合物
陶瓷正极材料技术展望
新一代电池正极材质：陶瓷
奈米材料基正极材料的技术前景
新一代电池正极材料：奈米材料
三大最有前景的正极材料技术：分析师见解
开发下一代电池正极材料技术的主要相关人员

创新：电解质

电解质材料技术展望
电解质材料技术细分
无机固体电解质技术展望
下一代电解质材料：无机固体电解质
聚合物电解质技术展望
下一代电解质材料：聚合物基
丁腈电解液技术展望
下一代电解质材料：腈基
锂盐电解液技术前景
下一代电解质材料：锂盐
其他电解质技术的前景
下一代电解质材料及其他
三大最有前景的电解质材料技术：分析师见解
开发下一代电池电解质材料技术的主要相关人员

创新：分离器

隔板材料技术展望
隔板材料技术细分
聚合物分离器技术展望
下一代隔膜材料：聚合物
复合隔板技术的前景
下一代隔膜材料：复合材料
NASICON 分离器技术展望
下一代隔膜材料：NASICON
过渡金属分离器技术展望
下一代隔膜材料：过渡金属
氮化物隔膜技术的前景
下一代隔膜材料：氮化物
奈米材料分离器技术展望
下一代隔膜材料：奈米材料
三大最有前景的正极材料技术：分析师见解
开发下一代电池隔膜材料技术的主要相关人员

资金筹措及投资场景

下一代电池材料资金筹措与投资展望（2019-2023）
下一代电池材料的主要资金筹措活动

智慧财产权分析

全球新一代电池材料IP分析（2019-2023）
全球新一代负极电池材料IP分析（2019-2023）
全球新一代正极电池材料智慧财产权分析（2019-2023）
全球新一代电解质电池材料IP分析（2019-2023）
全球下一代隔膜电池材料IP分析（2019-2023）

成长机会分析

成长机会一：先进聚合物电解质和新加工方法
成长机会2：奈米阳极和阴极的开发和商业化
成长机会3：材料厚度、成分和型态精度更高

附录

下一步

简介目录

Product Code: DA97

Advances in Energy and Power Density, Cycle Life, and Safety of Next-gen Batteries to Address Customer Needs across Diverse Applications

With the growing demand for electric vehicles (EVs) and renewable energy storage systems, the need for high-performance batteries is increasing. The shift toward improved battery technologies with higher energy density, longer lifespan, and increased safety is pushing technical advancements in next-generation (next-gen) battery material technologies. Lithium-ion (Li-ion) batteries are extensively used in EVs, mobile gadgets, and energy storage systems. However, this technology has limitations in terms of energy capacity, recharging time, overheating, and thermal runaway, which can cause fires or explosions. Emerging materials include advancements that can overcome the challenges of conventional battery material degradation and the risk of thermal runaway.

Materials such as cobalt, nickel, and lithium can have a negative impact on the environment during extraction and processing. Sustainability and environmental impact are becoming more critical considerations in battery material development. Emphasis on developing materials that are less dependent on scarce or toxic elements is increasing.

Frost & Sullivan's "Next-Generation Battery Material Technology Growth Opportunities" research identifies and analyzes technology advancements in materials used in emerging battery technologies. These technological advancements are dedicated to next-gen battery materials for solid-state, metal-air, lithium-sulfur, and sodium-ion batteries. The study provides insights on key focus areas of the technology, their challenges, and adoption strategies for better utility. The commercial landscape of technological advancements in next-gen battery materials is also covered.

Frost & Sullivan has identified key areas of technology development for next-gen battery materials, categorized into different domains, such as 1) components including cathode, anode, electrolytes and separators; 2) battery technologies including solid-state, metal-air, lithium-sulfur, and sodium-ion batteries; 3) application markets including electric vehicles, consumer electronics, aerospace, defense, medical devices, and grid storage. Governments and battery developers worldwide have recognized the significance of these advanced battery materials technologies and their disruption potential in renewable energy integration, electric vehicles, and grid-scale storage. Governments have initiated funding programs and grants for research institutes and material developers to promote research and the development of next-gen battery materials.

Key Questions Addressed:

What are the emerging technologies for next-gen battery materials?

What are the R&D efforts in new material innovation for improved battery materials?

What are the new trends in next-gen battery materials and application along with their commercialization stage?

What are the growth opportunities for technology developers in the next-gen battery materials technologies?

Strategic Imperatives

Why Is It Increasingly Difficult to Grow?The Strategic Imperative 8™: Factors Creating Pressure on Growth
The Strategic Imperative 8™
Impact of the Top 3 Strategic Imperatives on the Next-generation (Next-gen) Battery Materials Industry
Growth Opportunities Fuel the Growth Pipeline Engine™
Research Methodology
Scope of Analysis
Segmentation

Growth Opportunity Analysis

Significant Growth of Next-gen Battery R&D in the Last 5 Years
The Challenges of Conventional Battery Materials
SSB Technology Outlook
Metal-air Battery Technology Outlook
Li-S Battery Technology Outlook
Na-ion Battery (NIB) Technology Outlook
Next-gen Battery Material Development Enhancing the Overall Economic Viability of Energy Storage Systems
Key Differentiating Factors of Next-gen Battery Materials
Emerging Next-gen Battery Material Technological Development to Overcome Restraints and Address Unmet Needs
Next-gen Battery Material Technology Growth Drivers
Next-gen Battery Material Technology Growth Restraints

Technology Analysis: Anode Materials

Anode Material Technology Outlook
Anode Material Technology Segmentation
Metal/Metalloid-based Anode Material Technology Outlook
Next-gen Battery Anode Materials: Metal/Metalloids
Non-metal-based Anode Material Technology Outlook
Next-gen Battery Anode Materials: Non-metals
Polymer-based Anode Material Technology Outlook
Next-gen Battery Anode Materials: Polymers
Composite-based Anode Material Technology Outlook
Next-gen Battery Anode Materials: Composites
Nanomaterial-based Anode Material Technology Outlook
Next-gen Battery Anode Materials: Nanomaterials
The Top 3 Promising Anode Material Technologies-Analyst Insights
Key Stakeholders Developing Anode Material Technology for Next-gen Batteries

Technology Analysis: Cathode Materials

Cathode Material Technology Outlook
Cathode Material Technology Segmentation
Sulfur-based Cathode Material Technology Outlook
Next-gen Battery Cathode Materials: Sulfur
Transition Metal-based Cathode Material Technology Outlook
Next-gen Battery Cathode Materials: Transition Metals
Metal Oxide-based Cathode Material Technology Outlook
Next-gen Battery Cathode Materials: Metal Oxides
Polymer-based Cathode Material Technology Outlook
Next-gen Battery Cathode Materials: Polymers
Ceramic-based Cathode Material Technology Outlook
Next-gen Battery Cathode Materials: Ceramics
Nanomaterial-based Cathode Material Technology Outlook
Next-gen Battery Cathode Materials: Nanomaterials
The Top 3 Promising Cathode Material Technologies-Analyst Insights
Key Stakeholders Developing Cathode Materials Technology for Next-gen Batteries

Technology Innovation: Electrolytes

Electrolyte Material Technology Outlook
Electrolytes Materials Technology Segmentation
Inorganic Solid Electrolyte Technology Outlook
Next-gen Electrolyte Materials: Inorganic Solid Electrolytes
Polymer Electrolyte Technology Outlook
Next-gen Electrolyte Materials: Polymer-based
Nitrile-based Electrolyte Technology Outlook
Next-gen Electrolyte Materials: Nitrile-based
Li Salt Electrolyte Technology Outlook
Next-gen Electrolyte Materials: Li Salts
Other Electrolytes Technology Outlook
Next-gen Electrolyte Materials: Others
The Top 3 Promising Electrolyte Material Technologies-Analyst Insights
Key Stakeholders Developing Electrolyte Material Technology for Next-gen Batteries

Technology Innovation: Separators

Separator Material Technology Outlook
Separator Material Technology Segmentation
Polymer Separator Technology Outlook
Next-gen Separator Materials: Polymers
Composite Separator Technology Outlook
Next-gen Separator Materials: Composites
NASICON Separator Technology Outlook
Next-gen Separator Materials: NASICON
Transition Metal Separator Technology Outlook
Next-gen Separator Materials: Transition Metals
Nitride Separator Technology Outlook
Next-gen Separator Materials: Nitrides
Nanomaterial-based Separator Technology Outlook
Next-gen Separator Materials: Nanomaterials
The Top 3 Promising Cathode Material Technologies-Analyst Insights
Key Stakeholders Developing Separator Material Technology for Next-gen Batteries

Funding and Investment Scenario

Next-gen Battery Material Funding and Investment Outlook, 2019-2023
Key Funding Activities for Next-gen Battery Materials

IP Analysis

Global Next-gen Battery Materials IP Analysis from 2019 to 2023
Global Next-gen Anode Battery Materials IP Analysis from 2019 to 2023
Global Next-gen Cathode Battery Materials IP Analysis from 2019 to 2023
Global Next-gen Electrolyte Battery Materials IP Analysis from 2019 to 2023
Global Next-gen Separator Battery Materials IP Analysis from 2019 to 2023

Growth Opportunity Analysis

Growth Opportunity 1: Advanced Polymer Electrolytes and New Processing Methods
Growth Opportunity 2: Nano-based Anodes and Cathodes Development and Commercialization
Growth Opportunity 3: Highly Precise Material Thickness, Composition, and Morphology