輪胎摩耗法規的影響(~2034年)
市場調查報告書
商品編碼
1512806

輪胎摩耗法規的影響(~2034年)

The Impact of Tire Wear Regulations to 2034

出版日期: | 出版商: Smithers | 英文 91 Pages | 商品交期: 最快1-2個工作天內

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簡介目錄

重要的事實

  • 速度每降低 10 公里/小時,輪胎磨損粉​​塵 (TRWP) 就會減少 13-30%。
  • 全球排放了 590 萬噸輪胎磨損粉​​塵。

輪胎製造商面臨的最大挑戰之一是輪胎磨損粉​​塵 (TRWP)(一種微塑膠)的永續性問題。目前還沒有關於 TRWP 的規定,但 Euro 7 將有一個新的標準,根據每公里 1 噸負載產生的重量來規範 TRWP。

本報告審查和分析了輪胎磨損法規,研究了輪胎製造商面臨的技術和法規挑戰以及他們正在採取的 TRWP 措施。特別是,我們正在調查 Euro7 標準和限制 6PPD 的美國立法中包含的新輪胎磨損測試義務的長期影響。

目錄

摘要整理

  • 問題的嚴重性
  • TRWP 監管的主要推動因素
  • 數據差距
  • 需要解決的主要問題和挑戰
  • 關於如何解決問題的建議 - 從預防到緩解

簡介與調查手法

輪胎摩耗粉塵和法規形勢的簡介

  • 問題的嚴重性
  • TRWP 作為微塑料
  • 輪胎磨損機制及對TRWP的影響
  • TRWP 尺寸分佈
  • 輪胎以外的變數對 TRWP 生成的影響
  • 鋪路
  • 駕駛行為
  • 車速
  • 車輛裝載能力
  • 環境溫度和濕度
  • 流量模式
  • 6PPD 與 TRWP 之間的關係
  • TRWP 對健康的影響
  • 植物/動物
  • 人類

Euro 7和美國法規下的輪胎摩耗粉塵的減輕相關技術課題

  • 擬議的 TRWP 法規
  • 擬議的 6PPD 法規
  • 數據差距
  • TRWP 測驗題
  • TRWP 與其他材料的差異
  • TRWP 標記
  • 測試協議
  • 環保替代品
  • 不友善的材料

對輪胎摩耗粉塵的材料的影響

  • 填充物
  • 彈性體
  • 抗氧化劑和抗臭氧劑
  • 硬化劑
  • 塑化劑(樹脂和加工油)
  • 取代更環保的材料以降低 TRWP 的毒性

輪胎摩耗粉塵的降低的輪胎設計和車輛類型的影響

  • 無釘防滑輪胎的效果
  • 胎面花紋對磨損的影響
  • TPMS 和自動充氣輪胎
  • 新一代寬基輪胎
  • 電動車對輪胎磨損的影響
  • 自動駕駛汽車對輪胎磨損的影響
  • 模擬輪胎磨損

更永續的運輸的機會

  • 生命週期分析對於永續發展議題的重要性
  • 管理/緩解 TRWP 的技術
  • 輪胎產業、政府和學術界參與永續交通的重要性
  • 持續監管範例 - 6PPD 和 TRWP 之間的關係
  • 關於輪胎產業、政府和學術界如何更有效率合作的建議
  • 未來可能的法規
  • 輪胎產業在永續交通方面的持續努力
簡介目錄

Key facts:

  • There is a 13-30% reduction in tire roadwear particles (TRWP) for every 10 km/hr speed reduction
  • 5.9 million tonnes of tire roadwear particle emissions are generated globally

One of the biggest challenges facing tire manufacturers is the sustainability issue of tire roadwear particles (TRWP), a subset of microplastics. There are currently no regulations regarding TRWP, but Euro 7 will have new standards that will regulate TRWP based on the weight generated per kilometre per ton of load. This report examines the relationship between the size of the TRWP, the particle size distribution and tire materials, tire construction, road conditions, road type and other considerations.

With rising pressure to minimise tire particulate emissions, this expert study examines the technical and regulatory challenges facing tire makers and the steps they are taking to combat TRWP. In particular, it explores the long-term impacts of new tire wear testing obligations contained in the Euro 7 standard, and US legislation restricting 6PPD. Smithers analysis explores the tire material sets and construction innovations that can be used to improve tread durability, while maintaining performance and managing the transition to more sustainable transportation.

Key questions:

  • What steps are tire manufacturers taking to improve wear and reduce the environmental burden of TRWP?
  • What role do automakers and government play in developing an overall solution?
  • What are the technical challenges of mitigating tire wear particles under proposed regulations?
  • What are the key opportunities in sustainable transportation?

This report benefits:

  • Tire makers and producers of tire materials
  • Equipment suppliers to the tire industry
  • Participants in the tire markets value chain

Table of Contents

Executive Summary

  • Size of the problem
  • Key drivers for regulating TRWP
  • Data gaps
  • Key issues and challenges to address
  • Suggestions on approaching the problem - Prevention to mitigation

Introduction and methodology

  • Report scope
  • Report objective
  • Methodology
  • List of definitions
  • Abbreviations and glossary of terms

Introduction to tire wear particles and the regulatory landscape

  • Size of the problem
  • TRWP as a microplastic
  • Mechanisms of tire wear and effect on TRWP
  • Size distribution of TRWP
  • Effect of non-tire variables on the generation of TRWP
  • Pavement
  • Driver behavior
  • Vehicle speed
  • Vehicle load
  • Ambient temperature and humidity
  • Traffic patterns
  • Relationship between 6PPD and TRWP
  • Health effects of TRWP
  • Plant/animal
  • Human

Technical challenges of mitigating tire wear particles under Euro 7 and US regulations

  • Proposed regulations TRWP
  • Proposed regulations 6PPD
  • Data gaps
  • Testing issues for TRWP
  • Distinguishing TRWP from other materials
  • Markers for TRWP
  • Testing protocols
  • Substituting for environmentally
  • Unfriendly materials

Impact of materials on tire wear particles

  • Fillers
  • Elastomers
  • Antioxidants and antiozonants
  • Curatives
  • Plasticizers (both resins and process oils)
  • Substitution of more environmentally friendly materials to reduce toxicity of TRWP

The influence of tire design and vehicle type of reducing tire wear particles

  • Effect of studded tires
  • Effect of tread pattern on wear
  • TPMS and self-inflating tires
  • New generation wide based tires
  • Effect of EVs on tire wear
  • Effect of self-driving vehicles on tire wear
  • Modelling of tire wear

Opportunities for more sustainable transportation

  • Importance of Life Cyle Analysis to the question of sustainability
  • Techniques for the management/mitigation of TRWP
  • Importance of the involvement of the tire industry, government and academia to sustainable transportation
  • Example of a regulatory action in progress - 6PPD and its relationship to TRWP
  • Suggestions on how the tire industry, government and academia can work together more productively
  • Potential for future regulations
  • Ongoing work by the tire industry in sustainable transportation

Tables

  • Classes of chemicals found in TRWP or TRWP leachate
  • TRWP contributions to microplastics by country
  • Reported LC50 of 6PPDQ to various salmonoid species
  • Relationship between vehicle speed and generation of TRWP
  • Comparison of Tire-Roadwear Particles, Tire Wear Particles, and Road Particles
  • Contribution of TRWP to microplastics by country
  • TRWP emission factors for different experimental conditions
  • Markers for TRWP
  • Chemicals found in TRWP or TRWP leachate
  • Potential substitutes for environmentally unfriendly materials
  • Comparison of truck tire wear - Silpara SMC vs conventional truck tread
  • Effect of silica level on TRWP generation
  • Effect of silica level on TRWP size
  • Use of hydrocarbon resins to improve wear - Formula
  • Use of hydrocarbon resins to improve wear - Results
  • Glass transition temperatures of process oils
  • Use of E2C to improve wear
  • Effect of tire type on TRWP
  • Impact categories for LCAs
  • Overall conclusions from tire LCA to 2021

Figures

  • 6PPD and 6PPDQ in the environment
  • Formation of 6PPDQ from 6PPD
  • Major transformation products from 6PPD
  • Non-exhaust emissions of PM2.5 and PM10 for EU28 countries
  • Publication of articles on TRWP since 2002
  • Management options for TRWP
  • Structure of Silpara SMC
  • Formation of aniline from DPG
  • Growth in the EV market
  • Steps in a LCA analysis
  • Life cycle of a tire
  • Management options for TRWP