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電気絶縁体の2030年までの市場予測: タイプ別、材料タイプ別、電圧別、設置別、用途別、エンドユーザー別、地域別の世界分析Electric Insulators Market Forecasts to 2030 - Global Analysis By Type, Material Type, Voltage, Installation, Application, End User and By Geography |
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電気絶縁体の2030年までの市場予測: タイプ別、材料タイプ別、電圧別、設置別、用途別、エンドユーザー別、地域別の世界分析 |
出版日: 2025年02月02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、電気絶縁体の世界市場は2024年に145億8,000万米ドルを占め、予測期間中にCAGR 7.6%で成長し、2030年には226億3,000万米ドルに達する見込みです。
電気絶縁体は、電気システムにおいて重要な部品であり、地面や周囲の材料への不要な電流の流れを防ぎながら、導体を支持し絶縁するように設計されています。通常、ガラス、磁器、複合ポリマーなどの非導電性材料で構成されるこれらの絶縁体は、送配電網の安全かつ効果的な機能を保証します。碍子には様々な形態があり、それぞれラインポスト碍子、サスペンション碍子、ピン碍子など、特定の用途向けに設計されています。
中国国家エネルギー局(NEA)によると、同国は2024~2027年にかけて、グリーン開発とエネルギー安全保障を支える新しい電力システムを構築する計画を発表し、9つの主要セグメントを網羅しました。
電力需要の増加
世界のエネルギー消費量の増加に伴い、特に発展途上国では、信頼性が高く効果的な送電網の必要性が高まっています。電気碍子は、電力需要の増加と長距離送電の必要性から、電気エネルギーの安全で信頼できる伝送を確保するために必要とされています。さらに、碍子は送配電網の完全性を保ち、エネルギー損失を削減し、短絡や停電の可能性を低減するためにも不可欠です。
高額な初期投資
高品質の電気絶縁体は、特にセラミックや複合ポリマーのような最先端材料で構成されている場合、製造コストが非常に高くなります。この最初の設備投資は、特に電力会社や予算が厳しい地域にとっては難しい可能性があります。特に財政的制約が大きな問題となっている新興国市場では、こうした絶縁体のコストが高いために、新しい電力インフラの設置が遅れる可能性があります。さらに、老朽化したインフラの交換を検討している電力会社にとって、こうした碍子の購入と設置の価格が予算を圧迫する可能性もあります。
電化とスマートグリッドの成長
先進的電気絶縁体へのニーズは、電力系統のリアルタイムモニタリング・管理を可能にするスマートグリッドの成長によって高まっています。配電システムの持続可能性、信頼性、効率を高める先進技術に依存するスマートグリッドには、現代の電気負荷と環境ストレスに耐える高品質の絶縁体が必要です。さらに、政府や電力会社が交通の電化を含む電気インフラの近代化に向けて投資を行う中、電気絶縁体はインフラの維持に不可欠なものとなります。スマートグリッドソリューションに対する需要の高まりにより、技術革新と市場拡大の機会は多いです。
地中送電
従来の架空送電線に代わるものとして、通常、従来の電気絶縁体を使用する必要のない地中送電システムが一部地域で普及しつつあります。地下送電線には特殊な絶縁ソリューションが必要ですが、架空システム全体では従来の絶縁体の必要性は少ないかもしれません。さらに、特に都市化され人口が密集している地域では、架空送電用碍子市場が地下送電技術の採用によって直接脅かされており、一部の地域では市場が縮小する可能性があります。
電気碍子市場は、サプライチェーンと製造プロセスを混乱させたCOVID-19パンデミックによって大きな影響を受けた。渡航制限、社会的隔離措置、施錠により、多くの工場が閉鎖または操業能力の低下を余儀なくされ、絶縁体の生産と流通に遅れが生じました。さらに、特に経済危機の影響を最も受けた地域では、パンデミックによる経済減速のため、インフラプロジェクトが延期され、新しい送電網の設置や改良への投資が減少しました。しかし、政府や電力会社がインフラの近代化と復旧を優先するようになり、特に電力インフラ開拓が最優先課題となっている新興国市場では、電気絶縁体の需要は徐々に増加しました。
予測期間中、シャックル絶縁体セグメントが最大になる見込み
シャックル絶縁体セグメントは、導体の重量による機械的ストレスに耐える能力があるため、予測期間中に最大の市場シェアを占めると予想されます。配電網は、この碍子の長期的な信頼性と有効性の恩恵を受けることを目的としています。磁器製、ガラス製、複合材製の懸垂碍子は、安定した電気の流れを維持し、悪天候や送電線の緊張による停電の可能性を低くするために不可欠です。さらに、特に長距離の高圧送電システムでは、機械的ストレスや環境条件に強いため、現代の電気インフラの重要な一部となっています。
複合材セグメントは予測期間中最も高いCAGRが見込まれる
予測期間中、複合材セグメントが最も高い成長率を示すと予測されます。複合碍子は、高強度、軽量、紫外線、湿気、汚染などの環境要素への耐性など、卓越した性能を備えているため、人気が高まっています。さらに、ガラス繊維やエポキシ樹脂などの材料で作られた複合碍子は、従来のセラミックやガラス製の碍子よりも耐久性が高く、耐用年数も長いです。劣悪な環境条件に強く、メンテナンスの必要性が低いため、沿岸地域、高湿度地域、悪天候の地域といった厳しい地形での使用に最適です。
予測期間中、アジア太平洋が最大の市場シェアを占めると予想されます。その主要原因は、中国、インド、日本などの国々でインフラ、都市化、産業が急速に開発されていることです。同地域の電気絶縁体の採用は、電力需要の増加や送配電インフラへの大規模投資によって推進されてきました。さらに、太陽光発電や風力発電のような再生可能エネルギー源をサポートする信頼性の高い絶縁体システムの必要性は、これらのエネルギー源を重視する傾向が強まったため高まっています。アジア太平洋は、人口が多く、エネルギー需要が高まっているため、市場シェアと成長率の両面で、今後数年間は世界市場のリーダーとしての地位を維持すると予想されます。
予測期間中、中東・アフリカが最も高いCAGRを示すと予測されます。都市化、工業化、都市部と農村部の両方における信頼できる電力需要の高まりが、同地域の発電、送電、配電インフラへの投資の増加に寄与しています。また、中東では、風力や太陽光などの再生可能エネルギーへの取り組みなど、エネルギー源の多様化が重視されているため、先進的な碍子ソリューションの需要も高いです。さらに、同地域では、特に南アフリカ、アラブ首長国連邦、サウジアラビアなどの国々で送電網が拡大し、エネルギーインフラが近代化されるため、電気絶縁体の市場は急成長が見込まれています。
Note: Tables for North America, Europe, APAC, South America, and Middle East & Africa Regions are also represented in the same manner as above.
According to Stratistics MRC, the Global Electric Insulators Market is accounted for $14.58 billion in 2024 and is expected to reach $22.63 billion by 2030 growing at a CAGR of 7.6% during the forecast period. Electric insulators are vital components in electrical systems, designed to support and insulate electrical conductors while preventing unwanted flow of current to the ground or surrounding materials. These insulators, which are usually composed of non-conductive materials like glass, porcelain, or composite polymers, guarantee the secure and effective functioning of power distribution and transmission networks. They are available in a variety of forms, each designed for a particular use, such as line post insulators, suspension insulators, and pin insulators.
According to the National Energy Administration (NEA) of China, the country announced a plan to create a new electricity system supporting green development and energy security, covering nine key areas from 2024 to 2027.
Rising demand for electricity
The need for reliable and effective power transmission networks grows as the world's energy consumption rises, especially in developing nations. Electric insulators are required to ensure the safe and dependable transfer of electrical energy due to the rise in demand for electricity and the requirement for long-distance power transmission. Additionally, insulators are essential for preserving the integrity of the distribution and transmission networks, cutting down on energy loss, and lowering the possibility of short circuits or power outages.
High initial outlay of funds
High-quality electric insulators can be very expensive to manufacture, especially if they are composed of cutting-edge materials like ceramics or composite polymers. This first capital investment may be difficult, especially for utility companies or areas with tight budgets. The installation of new power infrastructure may be delayed due to the high cost of these insulators, particularly in developing markets where financial constraints are a major issue. Furthermore, the price of buying and installing these insulators could put a strain on utilities' budgets as they look to replace aging infrastructure.
Growth of electrification and smart grids
The need for sophisticated electric insulators is fueled by the growth of smart grids, which allow for real-time power system monitoring and management. High-quality insulators that can tolerate contemporary electrical loads and environmental stresses are necessary for smart grids, which rely on advanced technology to increase the sustainability, dependability, and efficiency of power distribution systems. Moreover, electric insulators will be essential to the upkeep of electrical infrastructure as governments and utilities make investments in its modernization, including the electrification of transportation. There are many chances for innovation and market expansion due to the rising demand for smart grid solutions.
Transition to subterranean power transmission
Subterranean power transmission systems, which usually do not require the use of conventional electric insulators, are becoming more and more popular in some areas as an alternative to traditional overhead power lines. Although specialized insulation solutions are necessary for underground transmission lines, there may be less of a need for conventional insulators in overhead systems overall. Additionally, in urbanized and densely populated areas in particular, the market for overhead electric insulators is directly threatened by the adoption of underground transmission technologies, which could shrink the market in some areas.
The market for electric insulators was significantly impacted by the COVID-19 pandemic, which caused supply chains and manufacturing processes to be disrupted. Due to travel restrictions, social distancing measures, and lockdowns, many factories were forced to close or operate at reduced capacity, which caused delays in the production and distribution of insulators. Furthermore, especially in the areas most impacted by the crisis, the economic slowdown brought on by the pandemic led to postponed infrastructure projects and lower investments in new power grid installations and upgrades. The demand for electric insulators did, however, gradually increase as governments and utilities began to prioritize infrastructure modernization and recovery, particularly in emerging markets where power infrastructure development remained a top priority.
The Shackle Insulator segment is expected to be the largest during the forecast period
The Shackle Insulator segment is expected to account for the largest market share during the forecast period because of their capacity to withstand the mechanical stress imposed by the weight of the conductor, suspension insulators are frequently utilized in high-voltage transmission lines. Power distribution networks are intended to benefit from these insulators' long-term dependability and effectiveness. Suspension insulators, which are made of porcelain, glass, or composite, are essential for maintaining steady electrical flow and lowering the possibility of power outages brought on by bad weather or line tensions. Moreover, they are a crucial part of contemporary electrical infrastructure because of their resilience to mechanical stress and environmental conditions, especially in long-distance high-voltage transmission systems.
The Composite segment is expected to have the highest CAGR during the forecast period
Over the forecast period, the Composite segment is predicted to witness the highest growth rate. Composite insulators are becoming increasingly popular because of their exceptional performance qualities, which include high strength, low weight, and resistance to environmental elements like UV rays, moisture, and pollution. Additionally, composite insulators, which are made of materials like fiberglass and epoxy resin, are more durable and have a longer service life than conventional ceramic or glass insulators. Because of their resilience to adverse environmental conditions and low maintenance requirements, they are perfect for use in difficult terrains like coastal regions, high humidity areas, and areas with severe weather.
During the forecast period, the Asia Pacific region is expected to hold the largest market share. The main cause of this is the quick development of infrastructure, urbanization, and industry in nations like China, India, and Japan. The region's adoption of electric insulators has been driven by the rising demand for electricity as well as large investments in power transmission and distribution infrastructure. Furthermore, the need for dependable insulator systems to support renewable energy sources like solar and wind power has increased due to the increased emphasis on these sources of energy. The APAC region is anticipated to maintain its position as the global market leader in terms of both market share and growth in the upcoming years due to its sizable population and rising energy needs.
Over the forecast period, the Middle East and Africa region is anticipated to exhibit the highest CAGR. Urbanization, industrialization, and the growing demand for dependable electricity in both urban and rural areas have all contributed to the region's increased investments in power generation, transmission, and distribution infrastructure. Advanced insulator solutions are also in high demand as a result of the Middle East's emphasis on diversifying its energy sources, which includes renewable energy initiatives like wind and solar. Moreover, the market for electric insulators is expected to grow quickly as the region expands power grids and modernizes its energy infrastructure, especially in nations like South Africa, the United Arab Emirates, and Saudi Arabia.
Key players in the market
Some of the key players in Electric Insulators market include ABB Ltd, GE Grid Solutions, Hubbell Power Systems, Bharat Heavy Electricals Limited, Krempel GMBH, MacLean-Fogg Company, Siemens AG, Aditya Birla Nuvo Ltd, Hitachi Energy, TE Connectivity, NGK Insulators, Ltd, Lapp Insulators GmbH, Toshiba Corporation, Seves Group and Olectra Greentech.
In August 2024, Bharat Heavy Electricals Ltd (BHEL) announced that it has secured a contract with Adani Power Ltd and its subsidiary Mahan Energen Ltd to develop three Supercritical Thermal Power projects valued at more than ₹11,000 crore, according to the company's Bombay Stock Exchange (BSE) filing.
In July 2024, GE Renewable Energy's Grid Solutions business and Hitachi ABB Power Grids Ltd. announced a non-exclusive, cross-licensing agreement related to the use of an alternative gas to sulfur hexafluoride (SF6) used in high voltage equipment. This fluoronitrile-based gas mixture has a significantly reduced impact on the environment compared to SF6.
In May 2024, Hitachi Energy and Aibel have signed separate framework agreements with German renewable energy company, RWE, for multiple high-voltage direct current (HVDC) systems to accelerate the integration of offshore wind power into the grid. The agreement follows the signing of a Capacity Reservation Agreement (CRA) last November that reserves the engineering and production capacity to develop three major HVDC projects.