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市場調査レポート
商品コード
1358995
トラクションコントロールシステム市場の2030年までの予測:タイプ別、コンポーネント別、車種別、流通チャネル別、地域別の世界分析Traction Control System Market Forecasts to 2030 - Global Analysis By Type (Electrical Linkage, Mechanical Linkage and Other Types), Component, Vehicle Type, Distribution Channel and By Geography |
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トラクションコントロールシステム市場の2030年までの予測:タイプ別、コンポーネント別、車種別、流通チャネル別、地域別の世界分析 |
出版日: 2023年10月01日
発行: Stratistics Market Research Consulting
ページ情報: 英文 200+ Pages
納期: 2~3営業日
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Stratistics MRCによると、世界のトラクションコントロールシステム市場は2023年に117億米ドルを占め、予測期間中のCAGRは8.3%で成長し、2030年には205億米ドルに達すると予測されています。
トラクションコントロールは、自動車の電子安定制御(ESC)の下位機能であり、路面の車輪がグリップを失うのを防ぐように設計されています。エンジンの力と制御入力が路面の状況に適合しない場合、トラクションコントロールが作動します。 促進要因が車をコントロールし続けるのを助けるため、自動車には強化されたアクティブ・ブレーキ・システムであるトラクションコントロールが使用されています。これは、 促進要因のブレーキ入力に反比例して、車両の車輪が路面との動的接触を維持できるようにするものです。
世界保健機関(WHO)と世界銀行の委託でハーバード公衆衛生大学院が発行した『The Global Burden of Disease』によると、交通事故は2020年までに死因の第3位になると推定されています。
ADAS(先進運転支援システム)には、アンチロック・ブレーキ・システム(ABS)、車線維持支援、衝突回避システムなどの安全機能が含まれ、トラクションコントロールにおいて重要な役割を果たしています。加速・減速時の自動車の安定性と制御性の向上に関しては、トラクションコントロールシステムが特に重要です。トラクションコントロールシステムのニーズは、これらの技術が広く知られ、使用されるようになるにつれて高まっています。消費者は、この技術がもたらす利便性と安全性の利点をより認識するようになっています。その結果、この要素が市場の拡大に拍車をかけています。
トラクションコントロールシステムをエンジン、ブレーキ、スタビリティ・コントロールといった他の車両システムと統合する際、メーカーは大きな問題に直面します。統合を成功させ、シームレスな相互運用性を実現するには、多くの技術的課題があります。これらのシステムのアルゴリズムは、車輪の速度差、車速、ステアリング入力、路面状況など、多くの変数を考慮します。その結果、最適な性能を提供し、誤報を減らすトラクションコントロールシステムを構築するのは難しい手順となります。したがって、予測期間を通じて、これらの要因が市場の成長を抑制すると予想されます。
自律走行車は、カメラ、レーダー、LIDAR、GPSなどの幅広いセンサーを使用して周囲の状況を検知し、賢明な運転判断を下します。自律走行車の需要が高まるにつれ、信頼性と安全性の必要性が高まる。トラクションコントロールシステムによって自律走行車がさまざまな路面状況に安全に対応できるようになれば、その重要性はさらに高まる。市場の拡大を後押しする主な要因のひとつは、 促進要因レス車両におけるトラクションコントロールシステムに対する需要の高まりです。
自動車のトラクションコントロールシステムは、実に有望な安全機能のように思えます。現在、市場拡大の妨げとなっているのは、メンテナンス・コストの高さです。トラクションコントロールシステムは、制御モジュールやセンサーなど、寿命が非常に短く、定期的なメンテナンスが必要な数多くの電子部品で構成されています。これらの部品は非常に高価で、修理には多額の費用がかかります。加えて、これらの部品の代替品がないことが市場の足かせとなっています。
COVID-19の大流行により、自動車部門は販売台数、生産台数ともに大幅に減少しています。サプライチェーンの問題が生産活動を鈍化させた結果、自動車の発売台数は減少しています。その結果、不安定な労働市場と景気後退の結果としての消費者需要の低下と相まって、すべての市場セクターで自動車販売が減少しています。そのため、好ましくない影響が市場に悪影響を及ぼすと予測されます。
電気自動車やハイブリッド車の台頭により、予測期間中は電気リンケージ分野が最大になると予想されます。これは、トラクションを最大化し、車両全体の性能を高めるために、電力配分を正確に調整することを可能にします。また、電動パワートレイン・コンポーネントとトラクションコントロールシステム間の完璧な通信と調整を可能にします。これらは、車両の多数の部品とトラクションコントロール・モジュール間の信号およびコマンド伝達プロセスにおいて不可欠です。
乗用車部門は、世界の乗用車需要の高まりと、自動車部門における厳しい安全規則の実施により、予測期間中に最も高いCAGRを示すと予想されます。また、自動車の安全性に対する消費者の意識が高まるにつれて、OEMは乗用車に高度なトラクションコントロールシステムを搭載するようになっています。この要素はさらに、予測期間内の市場拡大をサポートすると予測されます。
北米は、研究支援と車両安全機能の開発への投資が増加していることから、予測期間中最大の市場シェアを占めると予測されます。トラクションコントロールシステムの使用は、経済状況の改善と自律走行車や電気自動車の需要の高まりによってもさらに促進され、予測期間中の地域市場の拡大を後押しします。
予測期間中、アジア太平洋地域が最も高いCAGRを維持すると予測されます。センサーネットワーク、人工知能、機械学習などの自律走行技術の成長と発展により、自動運転車の実現可能性と将来性が高まり、牽引制御システムの需要が増加しています。国産自動車に最先端の安全技術や運転支援技術が広く採用されていることも、トラクションコントロールシステム市場を牽引する主な要因となっています。
List of Figures
Figure 1 Traction Control System - Market Segmentation
Figure 2 Research Methodology
Figure 3 Data Mining
Figure 4 Data Analysis
Figure 5 Data Validation
Figure 6 Research Pipeline
Figure 7 Research Approach
Figure 8 Research Sources
Figure 9 Traction Control System Market Scenario, Emerging Markets (2023) (% Market Share)
Figure 10 Porter's Five Forces Analysis - Traction Control System
Figure 11 Global Traction Control System Market Analysis & Projection, By Type (2023 VS 2030) (US$MN)
Figure 12 Global Traction Control System Market Analysis & Projection, By Electrical Linkage (2023 VS 2030) (US$MN)
Figure 13 Global Traction Control System Market Analysis & Projection, By Mechanical Linkage (2023 VS 2030) (US$MN)
Figure 14 Global Traction Control System Market Analysis & Projection, By Other Types (2023 VS 2030) (US$MN)
Figure 15 Global Traction Control System Market Analysis & Projection, By Component (2023 VS 2030) (US$MN)
Figure 16 Global Traction Control System Market Analysis & Projection, By Hydraulic Modulators (2023 VS 2030) (US$MN)
Figure 17 Global Traction Control System Market Analysis & Projection, By Sensors (2023 VS 2030) (US$MN)
Figure 19 Global Traction Control System Market Analysis & Projection, By Electronic Control Unit (2023 VS 2030) (US$MN)
Figure 20 Global Traction Control System Market Analysis & Projection, By Other Components (2023 VS 2030) (US$MN)
Figure 21 Global Traction Control System Market Analysis & Projection, By Vehicle Type (2023 VS 2030) (US$MN)
Figure 22 Global Traction Control System Market Analysis & Projection, By Passenger Car (2023 VS 2030) (US$MN)
Figure 23 Global Traction Control System Market Analysis & Projection, By Electric Vehicles (2023 VS 2030) (US$MN)
Figure 24 Global Traction Control System Market Analysis & Projection, By Light Commercial Vehicle (2023 VS 2030) (US$MN)
Figure 25 Global Traction Control System Market Analysis & Projection, By Heavy Commercial Vehicle (2023 VS 2030) (US$MN)
Figure 26 Global Traction Control System Market Analysis & Projection, By Internal Combustion Engine (ICE) (2023 VS 2030) (US$MN)
Figure 27 Global Traction Control System Market Analysis & Projection, By Other Vehicle Types (2023 VS 2030) (US$MN)
Figure 28 Global Traction Control System Market Analysis & Projection, By Distribution Channel (2023 VS 2030) (US$MN)
Figure 29 Global Traction Control System Market Analysis & Projection, By Original Equipment Manufacturer (OEM) (2023 VS 2030) (US$MN)
Figure 30 Global Traction Control System Market Analysis & Projection, By Aftermarket (2023 VS 2030) (US$MN)
Figure 31 Global Traction Control System Market Analysis & Projection, By Geography (2023 VS 2030) (US$MN)
Figure 32 Global Traction Control System Market Analysis & Projection, By Country (2023 VS 2030) (US$MN)
Figure 33 Global Traction Control System Market Analysis & Projection, By North America (2023 VS 2030) (US$MN)
Figure 34 Global Traction Control System Market Analysis & Projection, By Europe (2023 VS 2030) (US$MN)
Figure 35 Global Traction Control System Market Analysis & Projection, By Asia Pacific (2023 VS 2030) (US$MN)
Figure 36 Global Traction Control System Market Analysis & Projection, By South America (2023 VS 2030) (US$MN)
Figure 37 Global Traction Control System Market Analysis & Projection, By Middle East & Africa (2023 VS 2030) (US$MN)
Figure 38 ZF TRW - Swot Analysis
Figure 39 WABCO - Swot Analysis
Figure 40 Hyundai Mobis CO., LTD - Swot Analysis
Figure 41 Hitachi Ltd - Swot Analysis
Figure 42 Denso Corporation - Swot Analysis
Figure 43 Nissin Kogyo Co. - Swot Analysis
Figure 44 Robert Bosch GmbH - Swot Analysis
Figure 45 AUTOLIV INC - Swot Analysis
Figure 46 Continental AG - Swot Analysis
Figure 47 ADVICS CO., LTD - Swot Analysis
Figure 48 MAHLE GmbH - Swot Analysis
Figure 49 Delphi Automotive LLP - Swot Analysis
According to Stratistics MRC, the Global Traction Control System Market is accounted for $11.7 billion in 2023 and is expected to reach $20.5 billion by 2030 growing at a CAGR of 8.3% during the forecast period. Traction control is a subordinate function of electronic stability control (ESC) on motor vehicles that is designed to prevent road wheels from losing grip. When engine force and control input are incompatible with the road's circumstances, it is stimulated. To help drivers keep control of their vehicles, traction control, an enhanced active braking system, is used in automobiles. It enables a vehicle's wheels to maintain dynamic contact with the road, which is inversely proportional to the driver's inputs for braking.
According to The Global Burden of Disease, published by The Harvard School of Public Health on behalf of the World Health Organization and the World Bank, road accidents are estimated to become the third leading cause of death by 2020.
Advanced Driver Assistance Systems (ADAS), which include safety features like anti-lock braking systems (ABS), lane-keeping assistance, and collision avoidance systems, play a crucial role in traction control. With regard to improving the stability and control of cars during acceleration and deceleration, traction control systems are particularly important. The need for traction control systems is growing as these technologies become more widely known and used. Consumers are becoming more aware of the convenience and safety advantages this technology offers. As a result, this element is fueling market expansion.
Manufacturers face a significant problem when integrating traction control systems with other vehicle systems like the engine, brakes, and stability control. Successful integration and seamless interoperability include a number of technical challenges. These systems' algorithms take into account a number of variables, including wheel speed differentials, vehicle speed, steering input, and road conditions. As a result, creating traction control systems that provide optimal performance and reduce false alarms is a difficult procedure. Therefore, it is anticipated that these factors will restrain market growth throughout the forecast period.
Autonomous vehicles use a wide range of sensors, including cameras, radar, LIDAR, and GPS, to detect their surroundings and make wise driving judgments. The need of reliability and safety will grow as demand for autonomous vehicles rises. As traction control systems let autonomous vehicles safely handle a variety of road conditions, they become even more crucial. One of the main factors propelling the market's expansion is the increasing demand for traction control systems in driverless vehicles.
The traction control system for cars seems like a really promising safety feature. Currently, the market's expansion is being hampered by the high cost of maintenance. The traction control system is made up of a number of electronic parts that have a very short lifespan and require routine maintenance, such as control modules and sensors. These components are highly expensive, and fixing them will cost a lot of money. Additionally, the market is hampered by a lack of alternatives for these components.
Due to the COVID-19 pandemic, the car sector has seen a significant decline in both sales and production. As a result of supply chain issues that slowed down production activities, fewer automobiles have been launched. As a result, there has been a reduction in car sales across all market sectors, combined with a decline in consumer demand as a result of the unstable labor market and the recession. Unfavourable effects are therefore projected to have a adverse effect on the market.
The electric linkage segment is expected to be the largest during the forecast period due to the rise of electric and hybrid vehicles. This enables precise regulation of power distribution to maximize traction and boost overall vehicle performance. It also enables flawless communication and coordination between the electric powertrain components and the traction control system. They are essential in the signal and command transmission process between the vehicle's numerous parts and the traction control module.
The passenger car segment is expected to have the highest CAGR during the forecast period due to the rising demand for passenger cars globally as well as the implementation of severe safety rules in the automotive sector. In addition, as consumer awareness of vehicle safety has grown, OEMs are increasingly including sophisticated traction control systems in passenger cars. This element is additionally projected to support market expansion within the projected time frame.
North America is projected to hold the largest market share during the forecast period owing to increasing investment in research support and development of vehicle safety features. The use of traction control systems will also be further boosted by the improvement in economic conditions and the rising demand for autonomous and electric vehicles, which will fuel the expansion of the regional market during the projection period.
Asia Pacific is projected to hold the highest CAGR over the forecast period. The growth and development of autonomous driving technologies, such as sensor networks, artificial intelligence, and machine learning, have enhanced the viability and promise of self-driving cars, which has increased the demand for traction control systems. The widespread adoption of cutting-edge safety and driver-assistance technologies in automobiles made locally is a key factor driving the traction control system market.
Some of the key players in Traction Control System market include: ZF TRW, WABCO, Hyundai Mobis CO., LTD, Hitachi Ltd, Denso Corporation, Nissin Kogyo Co., Robert Bosch GmbH, AUTOLIV INC, Continental AG, ADVICS CO., LTD, MAHLE GmbH and Delphi Automotive LLP.
In August 2023, Hyundai Mobis , a leading global automotive supplier and Autotalks, a world leader in V2X (Vehicle-to-Everything) communication solutions are set to unveil their latest joint effort: Hyundai Mobis' MTCU (Multi-functional Telematics Control Unit) connectivity modules.
In May 2023, Bosch and Plus are collaborating to make software-defined commercial trucks a reality. Through a new technology agreement, Plus is offering its PlusDrive solution with the integrated steering system from Bosch featuring hardware and software to deliver driver assistance and partially automated features to commercial vehicles.
In December 2022, Hyundai Mobis, the global automotive supplier, and Ottopia, the global leader in teleoperation software, announced a partnership to develop an end-to-end remote mobility assistance solution that enables the commercialization of autonomous mobility.