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全球并联电抗器市场 – 2024 年至 2029 年预测Global Shunt Reactor Market - Forecasts from 2024 to 2029 |
预计并联电抗器市场在预测期内将以 4.37% 的复合年增长率成长,从 2022 年的 5,921,250,000 美元达到 2029 年的 7,990,742,000 美元。
有几个关键因素正在推动并联电抗器市场的成长和扩张。随着世界人口的成长和经济的发展,对电力的需求不断增加。
因此,需要扩大和加强电网,以有效地远距传输电力。并联电抗器在维持这些电网的电压稳定性和电能品质方面发挥重要作用,对其的需求正在增加。
许多国家,尤其是新兴经济体,都在与基础设施陈旧的老化电网作斗争。这些电网效率低并且容易出现功率损耗。因此,利用并联电抗器等现代化设备对电网进行升级改造,以确保可靠、高效的电力传输变得至关重要。
此外,全球范围内正在加速向太阳能和风能等再生能源来源的转变。然而,这些再生能源来源本质上是可变的,导致产量波动。在再生能源来源网过程中,并联电抗器对于管理这些波动和维持电网稳定性至关重要。
此外,负载的突然变化或电网内的故障可能会导致电压尖峰,从而对敏感的电气设备造成危险。并联电抗器在缓解此类电压尖峰方面发挥至关重要的作用,从而保护此类设备免受潜在损坏。
总而言之,不断增长的电力需求、持续的电网现代化建设、再生能源来源的加速整合以及提高电网效率和可靠性的需求共同推动并联电抗器市场的成长。我支持你。
该市场将受到都市化的加速和电力消耗的增加的推动。电力是经济的基本支柱,工业和家庭高度依赖电力的持续供应。数位化和电气化的兴起进一步强调了对高效能电力传输的需求。
随着进入以高铁/地铁系统、智慧城市、高速网路存取普及和电动车普及为特征的时代,对并联电抗器的需求从未如此重要。
例如,印度的城市人口目前为35%,预计到2047年将增加到53%,另外4亿人将迁入都市区。同样,中国近年来经历了显着的都市化,根据国家统计局的数据,2022年都市化将达到64.72%。 2022年终,中国城镇人口将达9.14亿人,比前一年增加1,205万人。
随着电力需求的增加,许多国家意识到投资电网升级和现代化是国家成长的强大支柱。美国、英国和德国等已开发国家的电力和公共产业部门依赖过时的技术,不足以满足工业领域当前的电力需求。
国际能源总署 (IEA) 宣布,为了在 2050 年实现净零排放,能源领域的基础设施和技术年度投资需要从目前的 1 兆美元以上增加到 2030 年的 4 兆美元。我们估计需要增加到美元。
据普林斯顿大学称,到 2030 年,美国电网需要翻倍。数位化的进步和不断增长的电力需求正在为基础设施带来巨大的变化,预计未来对并联电抗器的需求将会增加。
由于采购和安装的初始成本较高,并联电抗器,尤其是大容量电抗器,可能会成为重大的财务挑战。对于发展中地区预算有限的公用事业公司来说,这种障碍尤其严重。
将并联电抗器纳入当今的电网需要仔细的规划和专业的工程技能。反应炉位置或尺寸不当可能会导致意想不到的后果,例如过度补偿和设备故障。
确保并联电抗器的正确安装、操作和维护需要具有电力系统工程专业知识的熟练劳动力。
并联电抗器市场按类型细分:油浸式和干式
并联电抗器市场依类型分为油浸式和干式。油浸式并联电抗器具有效率高、散热有效、设计紧凑等特性。而干式并联电抗器具有防火、环保、低维护需求、适合室内外安装等特性。
预计亚太地区将占据并联电抗器市场的主要份额。
预计亚太地区将占据并联电抗器市场的主要份额。中国和印度等国家的经济发展和快速都市化正在推动电力消耗的大幅增加。因此,迫切需要投资电网的扩建和加固,而并联电抗器在促进高效能电力传输和电压调节方面发挥着至关重要的作用。
许多亚太国家需要对其老化的电网进行现代化改造。将并联电抗器整合到这些电网中对于提高效率、最大限度地减少功率损耗并确保可靠的电力传输至关重要。
工业成长是亚太地区电力需求的重要催化剂。鑑于工业高度依赖稳定有效的电力供应,并联电抗器已成为维持工业运作的重要组成部分。
The Shunt Reactor Market is estimated to grow at a CAGR of 4.37% during the forecast period to reach US$7,990.742 million by 2029, from US$5,921.250 million in 2022.
Several key factors are driving the growth and expansion of the global shunt reactor market. With the world's population on the rise and economies evolving, the electricity demand is steadily increasing.
This necessitates the expansion and enhancement of power grids to facilitate the efficient transmission of electricity across long distances. Shunt reactors play a crucial role in this process by ensuring voltage stability and maintaining power quality within these grids, making them increasingly indispensable.
Many countries, particularly those in developing economies, grapple with aging power grids equipped with outdated infrastructure. These grids are prone to inefficiencies and power losses. Consequently, upgrading them with modern equipment, including shunt reactors, becomes imperative to ensure reliable and efficient power transmission.
Moreover, there is a global shift towards renewable energy sources such as solar and wind power, gaining significant momentum. However, these renewable sources are inherently variable, leading to fluctuations in power output. Shunt reactors prove invaluable in managing these fluctuations and upholding grid stability during the integration of renewable energy sources.
Additionally, sudden changes in load or faults within the power grid can trigger voltage spikes, posing risks to sensitive electrical equipment. Shunt reactors play a pivotal role in mitigating these voltage spikes, thereby safeguarding such equipment from potential damage.
In summary, the increasing demand for electricity, ongoing grid modernization initiatives, the accelerating integration of renewable energy sources, and the imperative for enhanced grid efficiency and reliability collectively drive the growth of the global shunt reactor market.
The market is set to be propelled by increasing urbanization and rising power consumption. Electricity stands as a fundamental pillar of the economy, with industries and households heavily reliant on a continuous power supply. The emergence of digitization and electrification further emphasizes the critical need for efficient electricity transmission.
As transition into an era characterized by high-speed trains/metro systems, smart cities, widespread high-speed internet access, and the proliferation of electric vehicles, the demand for shunt reactors becomes more crucial than ever before.
For instance, India currently has an urban population of 35%, projected to rise to 53% by 2047, with an additional 400 million people expected to move into urban areas. Similarly, China has witnessed significant urbanization in recent years, with the urbanization rate reaching 64.72% in 2022, according to the National Bureau of Statistics. By the end of 2022, the urban population in China had grown to 914 million, marking an increase of 12.05 million from the previous year.
Many nations understand with the increasing need for electricity, investing in the upgradation and modernization of the power grid will serve strong pillar in the growth of the nations. The power and utility sector in developed nations like the United States, the United Kingdom, and Germany, have been relying on outmoded technologies which are insufficient for the current needs of power in the industrial districts.
The International Energy Agency estimates that to reach net-zero emissions by 2050, yearly investments in energy sector infrastructure and technology will need to rise from the current level of more than $1 trillion to $4 trillion by 2030.
According to Princeton University, the US electrical transmission network would need to double in size by 2030. Increasing digitization and rising needs for electricity pose a drastic change in the infrastructure, with this, the demand for the Shunt reactors is anticipated to increase in the coming year.
Shunt reactors, especially those with high capacity, can pose a considerable financial challenge due to their substantial upfront costs for procurement and installation. This obstacle is particularly pronounced for utilities in developing regions with constrained budgets.
The integration of shunt reactors into current power grids demands meticulous planning and specialized engineering proficiency. Inadequate positioning or sizing of reactors may result in unintended outcomes, such as overcompensation or malfunctioning equipment.
Ensuring the proper installation, operation, and maintenance of shunt reactors requires a proficient workforce equipped with expertise in power systems engineering.
Shunt reactor market segmentation by type into oil-immersed and dry type-
The shunt reactor market is categorized by type into oil-immersed and dry type. Oil-immersed shunt reactors are characterized by high efficiency and effective heat dissipation, coupled with a compact design. On the other hand, dry-type shunt reactors are distinguished by being fire-resistant and environmentally friendly, exhibiting lower maintenance requirements, and being suitable for both indoor and outdoor installations.
APAC is anticipated to hold a significant share of the global shunt reactor market-
APAC is poised to command a significant portion of the global shunt reactor market. Economic advancement and the rapid urbanization observed in countries like China and India have spurred a notable increase in electricity consumption. Consequently, there is a pressing need for investments in the expansion and enhancement of power grids, where shunt reactors play a pivotal role in facilitating efficient transmission and voltage regulation.
Across many APAC nations, aging power grids necessitate modernization efforts. The integration of shunt reactors into these grids is paramount to enhancing efficiency, minimizing power losses, and ensuring the dependable transmission of electricity.
Industrial growth stands out as a prominent catalyst for electricity demand in APAC. Given the heavy reliance of industries on a steady and effective power supply, shunt reactors emerge as indispensable components vital for sustaining their operations.