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到 2030 年电动车通讯控制器市场预测:按系统、车辆类型、电流类型、充电类型、用途和地区进行全球分析Electric Vehicle Communication Controller Market Forecasts to 2030 - Global Analysis By System (EV Communication Controller and Supply Equipment Communication Controller ), Vehicle Type, Current Type, Charging Type, Application and By Geography |
根据Stratistics MRC统计,2023年全球电动车通讯控制器市场规模为1.8783亿美元,预计到2030年将达到15.9982亿美元,预测期内年复合成长率为35.8%,预计将会成长。
电动车通讯控制器 (EVCC) 是电动车(EV) 充电基础设施的关键组件。 EVCC充当电动车和充电设备之间的通讯介面。 EVCC 追踪充电过程中消耗的能量。 EVCC 具有内建安全功能,可确保充电过程安全。 EVCC 可以记录充电会话资料,例如开始和停止时间、消费量和充电参数。
据美国运输部称,整个走廊将每隔 50 英里安装一个充电站。该计画由两党基础设施法案资助,该法案从联邦政府获得了 75 亿美元的贷款,用于建造由 50 万个公共电动汽车充电器组成的全国网路。
随着电动车的日益普及,对可靠、高效的充电基础设施的需求不断增长,以支持不断增长的电动车和卡车数量。各国政府、组织和个人越来越重视减少碳排放和应对气候变迁。高效的充电系统有助于摆脱导致空气污染和温室气体排放的化石燃料。它还有助于改善间歇性能源发电的管理并减少对可再生能源的依赖。此外,快速充电网路、成本降低、技术进步和电网弹性增强正在推动市场成长。
电动车通讯控制器 (EVCC) 须遵守各种严格的法规和标准,以确保电动车充电基础设施内的安全性、互通性和功能。随着 EVCC 中数位技术整合的增加,网路安全标准的重要性也随之增加。 EVCC 必须遵守当地、区域和国家有关电动车充电基础设施的法规。 EVCC製造商和开发商必须经过严格的测试和认证流程,这阻碍了市场需求。
世界各国政府正在实施政策和激励措施来鼓励电动车的普及。这些配合措施通常包括为电动车充电基础设施提供资金、税收优惠、回扣和排放目标。需要强大的充电基础设施来支援不断增加的电动车数量。推广电动车基础设施将刺激充电技术、电网管理和能源储存等领域的创新,推动技术进步,这也将使其他领域受益。因此,电动车基础设施的技术创新和发展正在推动市场成长。
拥有电动车的初期成本高于传统汽车。高昂的初期成本使许多潜在买家无法负担,从而限制了对电动车的需求。造成这种价差的主要原因是电动车采用的昂贵的电池技术。电动车充电站的安装需要特殊的技术安全。电动车符合严格的安全标准,必须经过广泛的测试,以确保它们与传统汽车一样安全。这会产生额外的工程和测试成本。所有这些成本使得车辆变得昂贵并抑制因素了市场成长。
COVID-19 大流行对电动车(EV) 产业产生了直接和间接的影响,包括电动车通讯控制器 (EVCC) 等零件。疫情扰乱了全球供应链,影响了电子零件的生产和供应。製造设施面临关闭、产能减少、生产优先顺序的转变,以及封锁、社会疏离措施和劳动力中断等问题。这场大流行凸显了对弹性和适应性技术的需求。这可能会刺激 EVCC 的创新和发展,从而使充电基础设施更加强大且能够抵御干扰。
由于促进因素电动车和共享电动车的普及,无线充电领域预计将出现良好的成长。在中国和美国等国家,主要使用无线充电技术的促进因素电动车的需求不断增长。此外,各种汽车和OEM都致力于研发活动,开发用于无线充电解决方案的 EVCC。此外,减少物理磨损、方便易用、自动化充电过程以及降低充电基础设施成本等要素正在推动这一领域的需求。
由于电子商务、物流、公共交通等对卡车、货车和公共汽车等商用电动车的需求不断增长,预计商用车领域在预测期内将出现最快的年复合成长率。各国政府正致力于以电动公车取代燃油公车队。此外,西门子、ABB、Schneider Electric公司正在重点开发开发商用车倒受电弓,进一步拉动市场需求。
由于电动车充电站领域的重大战略倡议和资金筹措数量不断增加,预计北美将在预测期内占据最大的市场份额。此外,政府(尤其是美国和加拿大)针对电动车充电基础设施的倡议不断增多,正在推动电动车的快速普及。北美是许多知名OEM的区域基地,以提供高品质、高性能汽车而闻名。特斯拉和通用汽车等北美原始OEM专注于开发更快、更清洁和更高性能的电动车。电动车基础设施供应商提供的各种服务正在提高电动车在美国的普及。
预计欧洲在预测期内的年复合成长率最高。该领域受到严格的政府法规的约束。该地区新兴经济体政府已认识到电动车市场的成长潜力,因此采取了各种措施吸引主要OEM在其国内市场生产电动车。此外,开发无线电动车充电解决方案的大型新兴企业的出现、这些公司之间的重大策略联盟以及研发(R&D)活动的活性化也增加了该地区的市场收入。
According to Stratistics MRC, the Global Electric Vehicle Communication Controller Market is accounted for $187.83 million in 2023 and is expected to reach $1599.82 million by 2030 growing at a CAGR of 35.8% during the forecast period. An Electric Vehicle Communication Controller (EVCC) is a crucial component in electric vehicle (EV) charging infrastructure. It serves as a communication interface between the electric vehicle and the charging equipment. The EVCC keeps track of the energy consumed during the charging process. It incorporates safety features to ensure that the charging process is carried out securely. The EVCC can log charging session data, including start and stop times, energy consumption, and charging parameters.
According to the U.S. Department of Transportation, charging stations will be located every 50 miles throughout the corridor. The project is funded by the Bipartisan Infrastructure Act, which has given USD 7.5 billion in federal financing for a nationwide network of 500,000 public EV chargers.
As the popularity of EVs continues to grow, there is a greater need for reliable and efficient charging infrastructure to support the expanding fleet of electric cars and trucks. Governments, organizations, and individuals are increasingly focused on reducing carbon emissions and combating climate change. Efficient charging systems help transition away from fossil fuels, which contribute to air pollution and greenhouse gas emissions. They allow for better management of intermittent energy generation and help reduce the reliance on non-renewable energy sources. Further, fast charging networks, cost savings, technological advancements and enhancing grid resilience factors are propelling the market growth.
Electric Vehicle Communication Controllers (EVCCs) are subject to various stringent regulations and standards to ensure their safety, interoperability, and functionality within electric vehicle charging infrastructure. With the increasing integration of digital technology in EVCCs, cybersecurity standards are becoming increasingly important. EVCCs must comply with local, regional, and national regulations governing electric vehicle charging infrastructure. Manufacturers and developers of EVCCs must undergo rigorous testing and certification processes mandatorily which hinders the market demand.
Governments around the world are implementing policies and incentives to promote EV adoption. These initiatives often include funding for EV charging infrastructure development, tax incentives, rebates, and emissions reduction targets. A robust charging infrastructure is necessary to support the growing number of EVs on the road. The push for EV infrastructure drives innovation in areas such as charging technology, grid management, and energy storage, spurring technological advancements that can benefit other sectors as well. Thus, the growing innovations and developments of EV infrastructure is fuelling the market growth.
The initial cost of owning an electric vehicle is higher than that of a conventional vehicle. The high initial cost makes it unaffordable for many prospective purchasers, limiting EV demand. This price disparity is mostly due to the costly battery technology utilized by EVs. The installation of EV charging stations necessitates particular technological safety. Electric vehicles must meet rigorous safety standards and undergo extensive testing to ensure they are as safe as traditional vehicles. This involves additional engineering and testing costs. All these costs together make the vehicle expensive and restraints the market growth.
The COVID-19 pandemic has had both direct and indirect impacts on the electric vehicle (EV) industry, including components like Electric Vehicle Communication Controllers (EVCCs). The pandemic disrupted global supply chains, affecting the production and availability of electronic components. Manufacturing facilities faced closures, reduced capacity, or shifts in production priorities due to lockdowns, social distancing measures, and workforce disruptions. The pandemic underscored the need for resilient and adaptable technologies. This could drive innovation and development in EVCCs to make charging infrastructure more robust and capable of withstanding disruptions.
The wireless charging segment is estimated to have a lucrative growth, due to rise in the adoption of driverless and ridesharing EVs. In countries such as China and the U.S., there has been a rising demand for driverless EVs that mostly use wireless charging technology. Furthermore, various automotive manufacturers and OEMs are engaging in R&D activities to develop EVCC for wireless charging solutions. Additionally, its reduced physical wear and tear, convenience and ease of use, automated charging process and reduction in charging infrastructure costs factors are fuelling the segment demand.
The commercial vehicle segment is anticipated to witness the fastest CAGR growth during the forecast period, due to rising demand for commercial EVs such as trucks, vans, and buses from e-commerce, logistics, and public transport agencies. Governments of various countries are focusing on the replacement of fuel-based bus fleets with electric buses. Furthermore, companies such as Siemens AG; ABB, Ltd.; and Schneider Electric are focusing on the development of inverted pantographs for commercial vehicles, which is further propelling market demand.
North America is projected to hold the largest market share during the forecast period owing to growing number of key strategic initiatives and funding in the field of electric vehicle charging stations. As well as there are growing government initiatives for EV charging infrastructure and rapid adoption of electric vehicles, especially in the US and Canada. North America is a regional hub for many renowned OEMs known for delivering quality and high-performance vehicles. OEMs in North America such as Tesla and GM focus on the development of faster, cleaner, and high-performance electric vehicles. Various services offered by electric vehicle infrastructure providers have increased the adoption rate of electric vehicles in the US.
Europe is projected to have the highest CAGR over the forecast period. This region has strict government regulations. The governments of developing economies in this region have recognized the growth potential of the electric vehicle market and, hence, have taken different initiatives to attract major OEMs to manufacture electric vehicles in domestic markets. Also, there is emergence of major startup companies developing wireless electric vehicle charging solutions, and major key strategic partnerships between them as well as rising Research and Development (R&D) activities which are driving revenue growth of the market in this region.
Some of the key players profiled in the Electric Vehicle Communication Controller Market include: Mitsubishi Electric, LG Innotek, Siemens, BYD Auto, Schneider Electric, ABB Limited, Ficosa, Robert Bosch, Vector, Tesla, Efacec, Engie, Hyundai, Vertexcom and Versinetic Limited.
In April 2023, Schneider Electric, a global leader in the digital transformation of energy management and automation, has announced the launch of the EVlink Home charger. The charger incorporates new features aimed at making at-home charging easier to install and more cost-effective to use.
In April 2023, Mitsubishi Electric Corporation has developed a technology to detect serious physical conditions experienced by people driving automobiles, such as loss of consciousness, by estimating pulse rate, changes in blood pressure and other biometric data collected with a contactless Driver Monitoring System (DMS) camera, which the company has already launched to detect driver distractions and drowsiness.