![]() |
市場調查報告書
商品編碼
2096962
車行通訊市場-2026-2032年全球市場預測Vehicle-To-Pedestrian Communication Market - Global Forecast 2026-2032 |
||||||
※ 本網頁內容可能與最新版本有所差異。詳細情況請與我們聯繫。
預計到 2032 年,車對行人通訊市場將成長至 27.8 億美元,複合年成長率為 14.78%。
| 主要市場統計數據 | |
|---|---|
| 基準年 2025 | 10.5億美元 |
| 預計年份:2026年 | 12億美元 |
| 預測年份 2032 | 27.8億美元 |
| 複合年成長率 (%) | 14.78% |
車行通訊正逐漸成為智慧交通系統 (ITS) 的關鍵安全層,透過連接車輛、弱勢道路使用者、路側基礎設施和移動設備,降低日益複雜的城市環境中的碰撞風險。該領域涵蓋直接短程通訊、蜂窩車聯網 (V2X)、基於感測器的外部警報、智慧型手機驅動的行人警告、協調交通號誌以及幫助行人理解車輛意圖的人機介面 (HMI) 設計。持續的交通安全疑慮、快速的都市化進程、微出行方式的普及以及向高級駕駛輔助系統 (ADAS) 和自動駕駛功能的轉變,共同推動了這一領域的發展。全球基於實證的交通安全數據一致表明,行人、騎乘者、電動滑板車使用者、老年人、兒童和身心障礙者是特別脆弱的道路使用者,因此車行通訊對於「零願景」戰略、智慧城市出行計畫和聯網汽車安全架構至關重要。產業發展勢頭最強勁的領域是監管安全優先事項、5G 部署、數位地圖、邊緣運算和車輛電氣化融合的領域,這些領域旨在支援即時態勢感知、低延遲警報和可互通的行動生態系統。
車行通訊正從孤立的警告概念轉向整合式多模態安全生態系統。傳統方法著重於車載感測器和聲光等外部警告,而新型系統則擴大將車載感知、智慧型手機連接、路側設備、雲端平台和行動電話網路結合。隨著城市部署互聯基礎設施、汽車製造商改進高級駕駛輔助系統 (ADAS) 以及政策制定者優先考慮保護弱勢道路使用者,這種轉變正在加速。另一個顯著的變化是從以車輛為中心的安全措施轉向協作感知,在這種感知模式下,行人、車輛、騎乘者、公共交通和交叉路口可以交換情境感知訊號。低延遲連接、標準化的 V2X通訊、高清地圖和邊緣分析技術使得在人行橫道、學校區域、公共交通站點、停車場和能見度差的交叉路口能夠更準確地檢測風險。同時,消費者信任、資料隱私、網路安全、設備相容性和可存取性正成為部署過程中至關重要的因素。因此,競爭格局不僅取決於覆蓋範圍和延遲,還取決於互通性、人為因素、包容性設計,以及在密集的都市區峽谷環境、複雜的交通狀況、不斷變化的天氣狀況和多樣化的行人行為中可靠運作的能力。
人工智慧透過提升感知、預測、個人化和回應速度,增強了車行通訊的價值。人工智慧系統融合了來自攝影機、雷達、LiDAR、超音波感測器、智慧型手機、穿戴式裝置、交通號誌和路側基礎設施的輸入,能夠比單一感測器方法更準確地偵測行人存在並推斷其移動意圖。機器學習模型支援軌跡預測,幫助車輛和基礎設施識別行人是否可能進入車道、在人行道處猶豫不決,或因分心、身體不適、交通堵塞或視線受阻而做出不可預測的移動。人工智慧還能根據速度、距離、視線、訊號相位、天氣和道路形狀調整警告,從而減少誤報並提高警告優先順序。在互聯走廊和智慧交叉路口,邊緣人工智慧在數據來源附近處理數據,降低延遲並節省頻寬,同時實現即時碰撞風險評估。這些協同效應正將安全措施從被動式警告轉變為可預測的、情境化的安全措施。然而,負責任的部署需要檢驗的訓練資料、可解釋的決策邏輯、網路安全措施、保護隱私的資料處理以及涵蓋人口、地理和環境多樣性的效能測試。
亞太地區擁有人口稠密的特大城市、龐大的行人群體、快速部署的5G網路以及對智慧運輸走廊的大力公共投資,是車行通訊的重要試驗場。日本、韓國、中國、印度和澳洲正透過智慧型運輸系統(ITS)、自動駕駛測試和城市舉措推動互聯出行,而東南亞城市則在摩托車和微型交通工具日益普及的背景下,優先考慮行人保護。北美地區正積極進行聯網汽車試驗,討論自動駕駛政策,部署高級駕駛輔助系統(ADAS),並制定以弱勢道路使用者為重點的道路安全計畫。美國和加拿大強調互通性、網路安全和交通基礎設施現代化,而墨西哥則透過整合汽車製造業和升級城市交通系統,不斷提升自身的重要性。在拉丁美洲,嚴重的都市區擁塞、交通安全挑戰、公共交通系統的擴張以及數位化出行平台的引入,推動了車行通訊的需求,其中巴西和墨西哥正成為互聯交通現代化的關鍵樞紐。歐洲是監管最主導的地區之一,車輛安全法規、都市區低排放氣體區、以行人優先的城市規劃以及智慧智慧型運輸系統(ITS)等因素,推動了德國、法國、義大利、西班牙和英國等國的車行通訊技術應用。在中東,大規模的基礎設施建設項目、高度互聯的城市區域以及技術驅動的道路安全舉措,正在推動智慧城市和自動駕駛的實現,尤其是在海灣國家。在非洲,快速的都市化、對交通安全的高度重視、不斷擴展的行動連線,以及對能夠在基礎設施品質差異顯著的混合交通環境中運行的經濟高效的行人警報系統的需求,正在創造長期的發展機會。
在東協,由於都市區密度上升、摩托車使用量增加、公共交通擴張以及智慧城市計畫的推進,車行通訊的重要性日益凸顯,這催生了對適用於混合交通環境的高擴充性行人安全技術的需求。在海灣合作理事會(GCC)國家,透過對智慧城市、互聯道路基礎設施、5G部署以及優先引入智慧交通和自動駕駛汽車的國家交通戰略的投資,車行通訊的部署潛力正在不斷擴大。歐盟透過統一的車輛安全法規、協調的智慧型運輸系統(ITS)、資料管治框架以及以主導道路使用者為中心的城市交通戰略,為車行通訊打造了領先的政策環境。金磚國家整體呈現出不同的部署情況,其中中國、印度和巴西因其規模、城市複雜性和迫切的道路安全需求而脫穎而出,而俄羅斯和南非則因其大規模的交通網路和現代化需求而日益重要。七國集團(G7)擁有成熟的創新基礎,匯集了來自北美、歐洲和日本的先進汽車工程、通訊基礎設施、安全法規和研發能力。北約成員國透過網路安全、彈性通訊、兩用感測器技術和安全基礎設施標準等方式間接做出貢獻,隨著互聯移動系統成為關鍵交通網路的一部分,這些方面的重要性日益凸顯。互通性是這些組織的共同優先事項。為了實現一致的安全結果,車行通訊必須跨越國界、汽車平臺、行動作業系統、基礎設施供應商、頻率環境和管理體制。
美國正透過聯網汽車研究、道路安全計畫、5G賦能的出行試驗以及對保護都市區和郊區弱勢道路使用者的高度重視,推進車行通訊技術的發展。加拿大強調智慧城市的部署、冬季安全檢驗、包容性出行以及交通基礎設施的現代化,而墨西哥則專注於汽車產能、都市區擁塞管理以及與北美汽車技術供應鏈的整合。巴西的重要性與其主要都會大都會圈的交通密度、對行人安全的重視以及數位化出行的普及密切相關。英國致力於互聯和自動駕駛出行試驗、以行人為中心的城市政策以及高級駕駛輔助系統(ADAS)的安全檢驗。德國將其在汽車工程方面的優勢與智慧交通合作舉措和嚴格的安全標準相結合,而法國則致力於推動智慧運輸、城市交通管理以及與歐洲安全目標保持一致的監管。俄羅斯龐大的交通網路和嚴苛的運作環境對可靠的通訊和感測器性能提出了獨特的要求。義大利和西班牙正朝著歐洲城市交通優先事項的方向努力,包括建造步行區、智慧交叉路口和整合多模態。中國憑藉其快速部署的5G網路、智慧城市基礎設施、聯網汽車試點區域以及都市區交通的高需求,在車行通訊領域發揮核心作用。印度由於行人密集、交通混合、智慧型手機普及率高以及對智慧交通投資不斷增加,對車行通訊的需求也十分顯著。日本的特點是擁有先進的汽車技術、老化社會帶來的出行需求以及強大的安全文化。韓國則受惠於高度互聯互通、智慧基礎設施和聯網汽車創新。澳洲透過交通安全研究、聯網出行試點計畫以及在人口稠密的都市區和環境複雜的鄉村道路環境中對行人保護的重視,為車行通訊的發展做出了貢獻。
產業領導者應優先考慮可互通的車行通訊架構,該架構應整合蜂窩V2X、短程通訊、車載感知、路側基礎設施和行動裝置警報。產品策略應基於實際安全應用場景,例如行人穿越道防撞、盲點偵測、學校區域預警、公車站安全防護、停車場態勢感知、施工現場警報以及緊急車輛互動。各組織應投資於人工智慧驅動的感測器融合和邊緣分析技術,並建立穩健的檢驗協議,以檢驗其在各種條件下的性能,包括天氣、光照、能見度障礙、道路地形、行人年齡層、行動障礙和設備可用性。網路安全和隱私保護必須從設計到部署全程融入其中,包括安全訊息認證、最小化資料收集、匿名化以及抵禦身分冒用和拒絕服務 (DoS) 攻擊的能力。領導者還應參與標準制定和公共部門試點項目,以確保跨平台相容性和合規性。人為因素必須始終是核心考量。警報系統必須直覺易用、不干擾駕駛,並且能夠適應不同文化背景。與運輸業者、通訊業者、地圖供應商、基礎設施規劃機構、標準化組織和無障礙組織夥伴關係,可以加速系統部署,同時建立公眾信任並帶來可衡量的安全成效。
分析車行通訊的調查方法應結合一手資料和二手資料、技術評估、監管考慮以及基於證據的檢驗。一手資料的輸入應包括對交通管理部門、汽車安全專家、通訊專家、城市規劃人員、標準化相關人員、基礎設施營運商和人因研究人員的訪談。二手資料的研究應利用檢驗的公共資訊來源,例如道路安全機構、運輸部、標準化機構、同行評審的研究、智慧城市計畫文件、監管出版刊物和互聯出行試點報告。分析應評估通訊技術、部署環境、安全應用、互通性要求、網路安全考量、無障礙需求和部署障礙,而不應依賴推測性的規模估計或預測。檢驗應包括交叉引用多個可靠資訊來源的說法、評估區域政策差異以及檢驗來自試點計畫、現場試驗、模擬研究和學術研究的性能數據。穩健的調查方法還必須考慮公平性和可及性,確保研究結論能夠恰當地反映出沒有智慧型手機的行人、兒童、老年人、視覺障礙者、行動不便的用戶以及通訊基礎設施不足的環境中的用戶的情況。
車行通訊正成為互聯出行、智慧型運輸系統(ITS) 以及保障弱勢道路使用者安全的關鍵要素。其價值在於突破人類視覺和車載感測器的局限,擴展感知範圍,使車輛、行人和基礎設施能夠及時交換情境安全資訊。人工智慧、5G、互聯基礎設施、進階駕駛輔助系統以及監管安全優先事項相契合的領域,正取得最顯著的進展。區域和國家層面的部署因基礎設施成熟度、行動通訊環境、交通安全需求、城市密度和政策方向而異,但戰略方向始終如一:所有道路使用者之間可互通且可靠的通訊對於建立更安全、更協作的道路至關重要。對於產業相關人員,成功的關鍵在於:經實踐驗證的效能、以隱私為先的設計、網路安全韌性、全面的使用者體驗,以及汽車、通訊、基礎設施、標準化和公共部門生態系統之間的協作。隨著城市向更智慧、更自動化的交通方式轉型,車行通訊將在降低事故風險和增強人們對下一代交通途徑的信心方面發揮至關重要的作用。
The Vehicle-To-Pedestrian Communication Market is projected to grow by USD 2.78 billion at a CAGR of 14.78% by 2032.
| KEY MARKET STATISTICS | |
|---|---|
| Base Year [2025] | USD 1.05 billion |
| Estimated Year [2026] | USD 1.20 billion |
| Forecast Year [2032] | USD 2.78 billion |
| CAGR (%) | 14.78% |
Vehicle-to-pedestrian communication is emerging as a critical safety layer within intelligent transportation systems, connecting vehicles, vulnerable road users, roadside infrastructure, and mobile devices to reduce collision risk in increasingly complex urban environments. The field spans direct short-range communication, cellular vehicle-to-everything, sensor-based external alerts, smartphone-enabled pedestrian warnings, connected traffic signals, and human-machine interface designs that help pedestrians understand vehicle intent. Demand is being shaped by persistent road-safety concerns, rapid urbanization, growth in micromobility, and the transition toward advanced driver assistance and automated driving functions. Global road-safety evidence consistently identifies pedestrians, cyclists, scooter riders, older adults, children, and persons with disabilities as highly exposed road users, making vehicle-to-pedestrian communication central to Vision Zero strategies, smart city mobility programs, and connected vehicle safety architectures. The strongest industry momentum is occurring where regulatory safety priorities, 5G deployment, digital mapping, edge computing, and vehicle electrification converge to support real-time awareness, low-latency alerts, and interoperable mobility ecosystems.
The vehicle-to-pedestrian communication landscape is shifting from isolated warning concepts toward integrated, multimodal safety ecosystems. Earlier approaches focused on in-vehicle sensing and audible or visual external warnings, while newer systems increasingly combine onboard perception, smartphone connectivity, roadside units, cloud platforms, and cellular networks. This transition is accelerating as cities adopt connected infrastructure, automakers advance driver-assistance capabilities, and policymakers emphasize protection for vulnerable road users. Another major shift is the movement from vehicle-centric safety to cooperative awareness, where pedestrians, vehicles, bicycles, public transit, and intersections exchange context-aware signals. Low-latency connectivity, standardized V2X messaging, high-definition mapping, and edge analytics are enabling more precise risk detection at crosswalks, school zones, transit stops, parking areas, and low-visibility intersections. At the same time, consumer trust, data privacy, cybersecurity, device compatibility, and accessibility are becoming decisive factors in deployment. The competitive landscape is therefore being defined not only by communication range and latency, but also by interoperability, human factors, inclusive design, and the ability to function reliably across dense urban canyons, mixed traffic conditions, variable weather, and diverse pedestrian behaviors.
Artificial intelligence is amplifying the value of vehicle-to-pedestrian communication by improving perception, prediction, personalization, and response timing. AI-enabled systems can fuse inputs from cameras, radar, lidar, ultrasonic sensors, smartphones, wearables, traffic signals, and roadside infrastructure to detect pedestrian presence and infer movement intent more accurately than single-sensor approaches. Machine learning models support trajectory prediction, helping vehicles and infrastructure identify whether a pedestrian is likely to enter a roadway, hesitate at a crossing, or move unpredictably due to distraction, impairment, crowding, or occlusion. AI is also improving alert prioritization by reducing false positives and calibrating warnings according to speed, distance, line of sight, traffic signal phase, weather, and road geometry. In connected corridors and smart intersections, edge AI can process data close to the source, lowering latency and preserving bandwidth while enabling real-time collision risk assessment. The cumulative impact is a shift from reactive alerts to predictive, context-aware safety orchestration. However, responsible adoption requires validated training data, explainable decision logic, cybersecurity safeguards, privacy-preserving data handling, and performance testing across demographic, geographic, and environmental diversity.
Asia-Pacific is a major proving ground for vehicle-to-pedestrian communication because of dense megacities, high pedestrian volumes, rapid 5G deployment, and strong public investment in smart mobility corridors. Japan, South Korea, China, India, and Australia are advancing connected mobility through intelligent transport systems, automated driving trials, and urban safety initiatives, while Southeast Asian cities are prioritizing pedestrian protection amid rising two-wheeler and micromobility use. North America is characterized by strong activity in connected vehicle pilots, automated driving policy discussions, advanced driver assistance adoption, and roadway safety programs that focus on vulnerable road users. The United States and Canada are emphasizing interoperability, cybersecurity, and transportation infrastructure modernization, while Mexico is increasingly relevant through automotive manufacturing integration and urban mobility upgrades. Latin America shows growing need for vehicle-to-pedestrian communication due to high urban congestion, road-safety challenges, expanding public transit systems, and adoption of digital mobility platforms, with Brazil and Mexico serving as key anchors for connected transport modernization. Europe is among the most regulation-driven regions, with vehicle safety rules, urban low-emission zones, pedestrian-priority planning, and cooperative intelligent transport systems encouraging adoption across Germany, France, Italy, Spain, and the United Kingdom. The Middle East is advancing smart city and autonomous mobility ambitions through large-scale infrastructure programs, high-connectivity urban districts, and technology-enabled road safety initiatives, particularly across Gulf economies. Africa presents a long-term opportunity shaped by rapid urbanization, road-safety priorities, mobile connectivity growth, and the need for cost-effective pedestrian-warning systems that can operate in mixed traffic environments where infrastructure quality varies widely.
ASEAN is increasingly important for vehicle-to-pedestrian communication as urban density, motorcycle use, public transit expansion, and smart city programs create demand for scalable pedestrian safety technologies across mixed traffic environments. The GCC is advancing deployment potential through smart city investments, connected road infrastructure, 5G coverage, and national mobility strategies that prioritize intelligent transport and autonomous vehicle readiness. The European Union is a leading policy environment for vehicle-to-pedestrian communication due to harmonized vehicle safety regulations, cooperative intelligent transport systems, data governance frameworks, and urban mobility strategies focused on vulnerable road users. BRICS countries collectively represent diverse adoption conditions, with China, India, and Brazil highlighting scale, urban complexity, and road-safety urgency, while Russia and South Africa add relevance through large transport networks and modernization needs. The G7 provides a mature innovation base, combining advanced automotive engineering, telecom infrastructure, safety regulation, and research capacity across North America, Europe, and Japan. NATO member countries contribute indirectly through cybersecurity, resilient communications, dual-use sensor technologies, and secure infrastructure standards that are increasingly relevant as connected mobility systems become part of critical transportation networks. Across these groups, the common priority is interoperability: vehicle-to-pedestrian communication must work across borders, vehicle platforms, mobile operating systems, infrastructure vendors, spectrum environments, and regulatory regimes to deliver consistent safety outcomes.
The United States is advancing vehicle-to-pedestrian communication through connected vehicle research, roadway safety programs, 5G-enabled mobility pilots, and strong interest in protecting vulnerable road users in urban and suburban settings. Canada emphasizes smart city deployments, winter-weather safety validation, inclusive mobility, and transport infrastructure modernization, while Mexico is positioned around automotive production capacity, urban congestion management, and integration with North American vehicle technology supply chains. Brazil's relevance is tied to major metropolitan traffic density, pedestrian safety priorities, and digital mobility adoption. The United Kingdom is focusing on connected and automated mobility trials, pedestrian-centric urban policy, and safety validation for advanced driver assistance systems. Germany combines automotive engineering strength, cooperative intelligent transport initiatives, and rigorous safety standards, while France is advancing smart mobility, urban traffic management, and regulatory alignment with European safety goals. Russia's large transport network and harsh operating environments create distinct requirements for reliable communication and sensor performance. Italy and Spain are aligned with European urban mobility priorities, including pedestrian zones, intelligent intersections, and multimodal transport integration. China is a central force in vehicle-to-pedestrian communication due to rapid 5G rollout, smart city infrastructure, connected vehicle testing zones, and dense urban mobility demand. India presents significant need due to high pedestrian exposure, mixed traffic, smartphone penetration, and growing intelligent transport investments. Japan is shaped by advanced automotive technology, aging-population mobility needs, and strong safety culture, while South Korea benefits from high connectivity, smart infrastructure, and connected vehicle innovation. Australia contributes through road-safety research, connected mobility trials, and a focus on pedestrian protection in both dense urban areas and challenging regional road environments.
Industry leaders should prioritize interoperable vehicle-to-pedestrian communication architectures that integrate cellular V2X, short-range connectivity, onboard perception, roadside infrastructure, and mobile-device alerts. Product strategies should be grounded in real-world safety use cases such as crosswalk conflict prevention, blind-corner detection, school-zone warnings, transit-stop protection, parking-lot awareness, work-zone alerts, and emergency vehicle interactions. Organizations should invest in AI-enabled sensor fusion and edge analytics while establishing strong validation protocols to test performance across weather conditions, lighting, occlusion, road geometry, pedestrian age groups, mobility impairments, and device availability. Cybersecurity and privacy must be embedded from design through deployment, including secure message authentication, minimal data collection, anonymization, and resilience against spoofing or denial-of-service risks. Leaders should also participate in standards development and public-sector pilots to ensure cross-platform compatibility and regulatory readiness. Human factors should remain central: alerts must be intuitive, accessible, non-distracting, and culturally adaptable. Partnerships with transportation agencies, telecom operators, mapping providers, infrastructure planners, standards organizations, and accessibility advocates can accelerate deployment while improving public trust and measurable safety outcomes.
The research methodology for analyzing vehicle-to-pedestrian communication should combine primary and secondary research, technical assessment, regulatory review, and evidence-based triangulation. Primary inputs may include interviews with transportation authorities, automotive safety specialists, telecom experts, urban planners, standards participants, infrastructure operators, and human-factors researchers. Secondary research should draw from verified public sources such as road-safety agencies, transportation ministries, standards bodies, peer-reviewed studies, smart city program documentation, regulatory publications, and connected mobility trial reports. The analysis should evaluate communication technologies, deployment environments, safety applications, interoperability requirements, cybersecurity considerations, accessibility needs, and adoption barriers without relying on speculative sizing or forecasts. Validation should include cross-checking claims across multiple credible sources, assessing regional policy differences, and reviewing performance evidence from pilots, field operational tests, simulation studies, and academic research. A robust methodology also considers equity and accessibility, ensuring that conclusions account for pedestrians without smartphones, children, older adults, visually impaired users, mobility-impaired users, and users in low-connectivity environments.
Vehicle-to-pedestrian communication is becoming an essential component of connected mobility, intelligent transportation systems, and vulnerable road user safety. Its value lies in extending awareness beyond the limits of human visibility and onboard vehicle sensing, enabling vehicles, pedestrians, and infrastructure to exchange timely, context-aware safety information. The strongest progress is occurring where AI, 5G, connected infrastructure, advanced driver assistance, and regulatory safety priorities align. Regional and country-level adoption will differ according to infrastructure maturity, mobile connectivity, road-safety needs, urban density, and policy direction, but the strategic direction is consistent: safer, more cooperative streets require interoperable and trusted communication between all road users. For industry participants, success will depend on validated performance, privacy-first design, cybersecurity resilience, inclusive user experience, and collaboration across automotive, telecom, infrastructure, standards, and public-sector ecosystems. As cities move toward smarter and more automated mobility, vehicle-to-pedestrian communication will play a defining role in reducing crash risk and improving confidence in next-generation transportation.