
Polymers for the EV Infrastructure Sector, Global, 2024–2031
Description
This study provides a comprehensive assessment of the global market for polymers used in EV charging infrastructure, with forecasts extending to 2031. Using 2024 as the base year, the research examines the evolving demand for polymers driven by the rapid growth of EV infrastructure, focusing on chargers with power capacities ranging from 1.6 kW to 47+ kW. It highlights the material requirements and market dynamics that shape the adoption of polymers in diverse charging categories, including residential, commercial, and ultra-fast public charging systems.
The study analyzes the market across 3 key segmentation categories: charger types, polymer types, and regions. Charger types are divided into 3 capacity ranges—1.6 kW–22 kW for residential and light commercial applications, 23 kW–46 kW for commercial and semi-fast chargers, and 47 kW and above for ultra-fast public charging hubs. Polymers included in the analysis span a wide range, including TPU, TPE-S, TPO(V), XLPE, ABS, PC+ blends, PP, PA, PBT, POM, HPP, EPDM, and silicone. Geographically, the market is segmented into the Americas, Europe, Asia-Pacific (APAC), and the Middle East, South Asia, and Africa (MEASA).
The Americas, led by the United States, is a significant market for polymers in EV infrastructure, driven by federal incentives for EV adoption and the deployment of high-power charging networks. Europe remains a mature market while APAC dominates the global market for EV charging infrastructure, with China, Japan, and South Korea leading in EV charger installations.
The study's methodology encompasses an in-depth analysis of both technical and operational requirements for polymers used in various EV charger categories, as well as broader market dynamics influenced by regulatory frameworks, technological advancements, and regional factors. It identifies key demand drivers, such as increasing EV adoption rates, and assesses the impact of regional policies and environmental considerations. Technical evaluations focus on polymer performance under high-voltage conditions and environmental stress, offering insights into material selection and innovation. By analyzing historical trends from 2021 to 2023 and projecting future growth through 2031, the study provides a strategic view of the global market's evolution. It highlights opportunities for stakeholders across the polymer and EV charging infrastructure sectors, delivering a detailed understanding of the market's growth potential, challenges, and transformative impact on the EV ecosystem.
The study analyzes the market across 3 key segmentation categories: charger types, polymer types, and regions. Charger types are divided into 3 capacity ranges—1.6 kW–22 kW for residential and light commercial applications, 23 kW–46 kW for commercial and semi-fast chargers, and 47 kW and above for ultra-fast public charging hubs. Polymers included in the analysis span a wide range, including TPU, TPE-S, TPO(V), XLPE, ABS, PC+ blends, PP, PA, PBT, POM, HPP, EPDM, and silicone. Geographically, the market is segmented into the Americas, Europe, Asia-Pacific (APAC), and the Middle East, South Asia, and Africa (MEASA).
The Americas, led by the United States, is a significant market for polymers in EV infrastructure, driven by federal incentives for EV adoption and the deployment of high-power charging networks. Europe remains a mature market while APAC dominates the global market for EV charging infrastructure, with China, Japan, and South Korea leading in EV charger installations.
The study's methodology encompasses an in-depth analysis of both technical and operational requirements for polymers used in various EV charger categories, as well as broader market dynamics influenced by regulatory frameworks, technological advancements, and regional factors. It identifies key demand drivers, such as increasing EV adoption rates, and assesses the impact of regional policies and environmental considerations. Technical evaluations focus on polymer performance under high-voltage conditions and environmental stress, offering insights into material selection and innovation. By analyzing historical trends from 2021 to 2023 and projecting future growth through 2031, the study provides a strategic view of the global market's evolution. It highlights opportunities for stakeholders across the polymer and EV charging infrastructure sectors, delivering a detailed understanding of the market's growth potential, challenges, and transformative impact on the EV ecosystem.
Table of Contents
- Scope of Analysis
- Segmentation
- Geographic Scope
- Why Is It Increasingly Difficult to Grow?
- The Strategic Imperative 8TM
- The Impact of the Top 3 Strategic Imperatives on Polymers for EV Infrastructure
- Key Competitors
- Value Chain, Polymers for the EV Infrastructure Market
- BValue Chain Analysis
- Growth Metrics
- Forecast Considerations
- Forecast Assumptions
- Revenue and Volume Forecast
- Revenue and Volume Forecast Analysis
- Average Price Forecast
- Price Forecast Analysis
- Volume Forecast by Polymer Type
- Revenue Forecast by Polymer Type
- Forecast Analysis by Polymer Type
- Volume Forecast by Region
- Revenue Forecast by Region
- Volume Forecast by Polymer Type in Europe
- Volume Forecast by Polymer Type in Americas
- Volume Forecast by Polymer Type in APAC
- Volume Forecast by Polymer Type in MEASA
- Volume and Revenue Forecast Analysis by Region
- Growth Metrics
- Growth Drivers
- Growth Driver Analysis
- Growth Restraints
- Growth Restraint Analysis
- Revenue and Volume Forecast
- Revenue and Volume Forecast Analysis
- Average Price Forecast
- Price Forecast Analysis
- Volume Forecast by Polymer Type
- Revenue Forecast by Polymer Type
- Forecast Analysis by Polymer Type
- Volume Forecast by Region
- Revenue Forecast by Region
- Volume Forecast by Polymer Type in Europe
- Volume Forecast by Polymer Type in Americas
- Volume and Revenue Forecast Analysis, Americas
- Volume Forecast by Polymer Type in APAC
- Volume and Revenue Forecast Analysis, APAC
- Volume Forecast by Polymer Type in MEASA
- Growth Metrics
- Growth Drivers
- Growth Driver Analysis
- Growth Restraints
- Growth Restraint Analysis
- Revenue and Volume Forecast
- Revenue and Volume Forecast Analysis
- Average Price Forecast
- Price Forecast Analysis
- Volume Forecast by Polymer Type
- Revenue Forecast by Polymer Type
- Forecast Analysis by Polymer Type
- Volume Forecast by Region
- Revenue Forecast by Region
- Volume Forecast by Polymer Type in Europe
- Volume Forecast by Polymer Type in Americas
- Volume Forecast by Polymer Type in APAC
- Volume Forecast by Polymer Type in MEASA
- Volume and Revenue Forecast Analysis by Region
- Growth Metrics
- Growth Drivers
- Growth Driver Analysis
- Growth Restraints
- Growth Restraint Analysis
- Revenue and Volume Forecast
- Revenue and Volume Forecast Analysis
- Average Price Forecast
- Price Forecast Analysis
- Volume Forecast by Polymer Type
- Revenue Forecast by Polymer Type
- Forecast Analysis by Polymer Type
- Volume Forecast by Region
- Revenue Forecast by Region
- Volume Forecast by Polymer Type in Europe
- Volume Forecast by Polymer Type in Americas
- Volume Forecast by Polymer Type in APAC
- Volume Forecast by Polymer Type in MEASA
- Volume and Revenue Forecast Analysis by Region
- Growth Opportunity 1: Recyclable and Sustainable Materials
- Growth Opportunity 2: Expansion in MEASA
- Growth Opportunity 3: Customization for High-power Charging Systems
- Acronyms
- Benefits and Impacts of Growth Opportunities
- Next Steps
Pricing
Currency Rates
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