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1511777

全球海軍推進系統市場（2024-2034）

Global Naval Propulsion Market 2024-2034

出版日期: 2024年07月10日 | 出版商:

Aviation & Defense Market Reports (A&D) | 英文 150+ Pages | 商品交期: 3個工作天內

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簡介目錄圖表

到 2024 年，全球海軍推進設備市場預計將達到 254.2 億美元，在預測期內（2024-2034 年）複合年增長率 (CAGR) 為 1.99%，到 2034 年還將繼續增長。年底增長至309.7億美元。

全球海軍推進系統市場概況

海軍推進系統是船舶在世界海洋中航行、投送軍事力量、執行任務和確保海上安全的關鍵動力源。海軍推進技術的進步在塑造世界海軍艦隊的能力和作戰效能方面發揮了重要作用。從傳統的蒸汽機到先進的核反應器和環境可持續的選擇，海軍推進技術已經取得了長足的進步，可以滿足現代海軍作戰的需求。

科技對全球船舶推進市場的影響

蒸汽推進在海軍作戰中具有重要的歷史意義，為 19 世紀和 20 世紀初的早期船舶提供動力。蒸汽推進系統最初以煤炭為燃料，後來以石油為燃料，透過提供比帆船更遠的航程和更快的速度，大大提高了海軍的能力。燃氣渦輪機在 20 世紀中葉徹底改變了海軍推進系統，與蒸汽推進系統相比，它具有更好的功率重量比、更高的效率和更低的維護要求。廣泛採用的燃氣渦輪機使船舶速度更快、機動性更強，從而提高了其營運效率。

核推進是海軍技術的一項巨大進步，美國 1954 年鸚鵡螺號航空母艦的下水首次展示了核子推進技術。核動力船舶利用核反應堆，不需要頻繁加油，並且提供幾乎無限的航程和續航力。這項技術使潛艦和航空母艦能夠在全球範圍內作戰，成為海軍作戰中的強大資產。將電動馬達與柴油發電機或燃氣渦輪機整合在一起的電力推進系統在現代潛艇中越來越受歡迎。這種系統配置提供了更安靜的操作、改進的隱身性能和提高的操作效率，使潛艇能夠秘密地執行長期任務。

在環境永續目標和減少對化石燃料的依賴的推動下，混合燃料和替代燃料已成為海軍推進創新的重要領域。液化天然氣（LNG）和燃料電池等技術正在成為傳統燃料的可行替代品，旨在最大限度地減少碳排放和營運成本，同時確保海軍準備就緒。這些進步清楚地表明了科技如何繼續重新定義海軍艦艇在全球舞台上的運作、運作和投射力量的方式。從蒸汽推進的歷史意義到核電推進系統的變革能力，每項創新都為提高現代海上作戰的海軍能力、效率和永續性做出了貢獻。

全球海軍推進設備市場的主要驅動力

海軍推動市場的主要驅動因素：

有幾個因素正在推動先進海軍推進系統的開發和採用，並塑造世界各地現代海軍的能力和戰略目標。

海軍推進系統發展的核心是軍事能力的增強。這些系統對於增強關鍵軍事能力（例如速度、耐用性和作戰範圍）至關重要。現代海軍正在優先考慮推進技術，這些技術不僅可以提高船舶性能，還可以提高不同海洋環境中的反應能力和任務效率。

技術創新在海軍推進系統的進步中發揮著至關重要的作用。持續的研發旨在提高高效率、低排放和可靠性。材料科學、計算流體動力學和電力電子學方面的創新為推進技術的發展做出了重大貢獻，並確保海軍始終處於技術進步的前沿。

為了維持戰略優勢並保護海洋利益，戰略重要性要求海軍強國投資尖端推進系統。這些技術使海軍能夠投射全球力量、支持遠徵行動並參與人道任務，從而增強國家安全和國際影響力。

靈活性對於海軍作戰至關重要，需要具有多功能性、快速加速、機動性和安靜性的推進系統。這些特徵對於有效應對海上動態變化的威脅以及支援從戰鬥行動到維持和平和救災行動的廣泛任務至關重要。

環境因素越來越影響海軍推進系統的選擇。人們越來越意識到海上作業對環境的影響，迫使海軍採用更清潔、更永續的推進技術。監管要求和國際協議正在推動節能解決方案和替代燃料的整合，旨在減少碳排放並減少與海軍活動相關的海洋污染。

全球船舶推進系統市場的區域趨勢

受地緣政治動態、作戰需求和技術能力的影響，海軍推進技術和戰略在不同地區表現出巨大的多樣性。

北美在海軍推進創新方面處於領先地位，特別是在核動力航空母艦和核動力潛艦的開發方面。美國致力於推進核反應器技術以實現長期耐用性和運作能力。此外，燃氣渦輪系統優化和替代燃料研究是提高海軍效率和永續性的關鍵領域。歐洲正在優先考慮在其海軍艦隊中引入節能推進系統和混合動力電動技術。英國、法國和德國等國家正在努力減少排放並將再生能源整合到其船舶中。這項戰略方針旨在加強海上防禦能力，同時提高作戰永續性。

中國、印度和日本等亞太國家正在大力投資先進的海軍推進技術，以實現艦隊現代化並維護地區海上主導地位。核潛艇是重點關注的領域，此外還有燃氣渦輪機推進的研究和本土電力推進系統的開發。這些努力旨在加強海軍在廣大海域的力量投射能力。以色列、沙烏地阿拉伯和阿拉伯聯合大公國等中東國家正在優先考慮透過先進推進系統加強其海軍能力。目前正在投資使用高效能燃氣渦輪引擎對艦隊進行現代化改造，並探索潛艦核子推進的可行性。這些措施旨在加強海上安全並維持該地區強有力的防禦態勢。

世界其他地區包括拉丁美洲、非洲和大洋洲的新興海軍強國，每個地區都在追求自己的海軍推進方式。這些領域包括從使用柴電潛艦到採用混合動力推進系統，旨在增強海軍戰備、海上安全和災難應變能力。這些策略反映了平衡營運需求與經濟限制和技術進步的努力。

海軍推進系統主要項目

福陸公司 (Fluor Corporation) 宣佈，美國海軍部已延長與其全資子公司福陸船舶推進有限公司 (Fluor Marine Propulsion, LLC) 的合約。此次合約延期是海軍反應器計劃的一部分，該計劃由能源部國家核安全管理局和海軍部共同管理。它涉及紐約、賓夕法尼亞和愛達荷州多個海軍核子實驗室（NNL）的海軍核子推進工作。一年期選擇權價值11.6億美元，是一種成本加費用安排。

BWX Technologies 宣佈已獲得美國海軍核子推進計畫價值約 3 億美元的合約。這份生產海軍核反應器燃料的合約授予了核燃料服務公司，該公司是 BWXT 的子公司，總部位於田納西州歐文。根據協議條款，核燃料服務公司將專門為海軍核反應器計畫製造和提供燃料。 BWXT 的燃料和反應器對於為美國海軍各級潛艇提供動力至關重要，包括俄亥俄級、維吉尼亞級、海狼級和洛杉磯級，以及尼米茲級和福特級航空母艦。此外，BWXT 的燃料和反應器將為海軍未來的哥倫比亞級潛艇提供支援。燃料製造完成後，將運送到位於維吉尼亞州林奇堡附近的 BWXT 工廠，並最終安裝到 BWXT 製造的海軍反應器中。目前正在開發的潛水艇核反應器旨在在船舶的整個使用壽命內運行，而航空母艦反應器則設計為在船舶的使用壽命內補充一次燃料。

本報告分析了全球海軍推進設備市場，研究了整體市場規模的前景、依地區和國家劃分的詳細趨勢、關鍵技術概述和市場機會。

Naval propulsion systems are the critical power sources that enable ships to navigate through the world's oceans, projecting military power, conducting missions, and ensuring maritime security. The evolution of naval propulsion technology has been instrumental in shaping the capabilities and operational effectiveness of naval fleets globally. From traditional steam engines to advanced nuclear reactors and environmentally sustainable options, naval propulsion has undergone significant advancements to meet the demands of modern naval operations.

Technology Impact in Naval Propulsion Market:

The impact of technology on naval propulsion has fundamentally transformed the capabilities and operational dynamics of modern naval fleets. Several key technological advancements have played pivotal roles in this evolution:

Steam Propulsion has a historical significance in naval operations, powering early vessels during the 19th and early 20th centuries. Initially fueled by coal and later oil, steam propulsion systems provided extended range and higher speeds compared to sail-powered ships, thereby significantly enhancing naval capabilities. Gas Turbines revolutionized naval propulsion during the mid-20th century by offering superior power-to-weight ratios, enhanced efficiency, and reduced maintenance requirements over steam propulsion. Widely adopted, gas turbines enabled naval vessels to achieve faster speeds and greater maneuverability, thus enhancing their operational effectiveness.

Nuclear Propulsion represents a monumental advancement in naval technology, first demonstrated with the launch of the USS Nautilus by the United States in 1954. Nuclear-powered naval vessels utilize nuclear reactors to provide virtually unlimited operational range and endurance without the need for frequent refueling. This technology has empowered submarines and aircraft carriers to operate globally, serving as formidable assets in naval operations. Electric Propulsion Systems are increasingly prevalent in modern submarines, integrating diesel generators or gas turbines with electric motors. This system configuration offers quieter operation, improved stealth capabilities, and enhanced operational efficiency, enabling submarines to conduct extended-duration missions covertly.

Hybrid and Alternative Fuels have emerged as critical areas of innovation in naval propulsion, driven by environmental sustainability goals and reduced reliance on fossil fuels. Technologies such as liquefied natural gas (LNG) and fuel cells are being explored as viable alternatives to conventional fuels, aiming to minimize carbon emissions and operational costs while ensuring naval readiness. These advancements underscore how technology continues to redefine how naval vessels maneuver, operate, and project power on the global stage. From the historical significance of steam propulsion to the transformative capabilities of nuclear and electric propulsion systems, each innovation has contributed to enhancing naval capabilities, efficiency, and sustainability in modern maritime operations.

Key Drivers in Naval Propulsion Market:

Several factors converge to drive the development and adoption of advanced naval propulsion systems, shaping the capabilities and strategic objectives of modern navies worldwide.

Military Capability Enhancement lies at the core of naval propulsion system development. These systems are pivotal in enhancing key military capabilities such as speed, endurance, and operational range. Modern navies prioritize propulsion technologies that not only improve vessel performance but also enhance responsiveness and mission effectiveness across diverse maritime environments.

Technological Innovation plays a crucial role in advancing naval propulsion systems. Continuous research and development efforts aim to achieve higher efficiency, lower emissions, and increased reliability. Innovations in materials science, computational fluid dynamics, and power electronics contribute significantly to the evolution of propulsion technologies, ensuring navies stay at the forefront of technological advancements.

Strategic Imperatives drive naval powers to invest in cutting-edge propulsion systems to maintain strategic superiority and safeguard maritime interests. These technologies enable navies to project power globally, support expeditionary operations, and participate in humanitarian missions, thereby bolstering national security and international influence.

Operational Flexibility is critical for naval operations, demanding propulsion systems that offer versatility, rapid acceleration, maneuverability, and silent operation. These attributes are essential for responding effectively to dynamic and evolving threats at sea, supporting a wide range of mission profiles from combat operations to peacekeeping and disaster relief efforts.

Environmental Considerations are increasingly influencing naval propulsion system choices. With heightened awareness of the environmental impact of maritime operations, navies are compelled to adopt cleaner and more sustainable propulsion technologies. Regulatory requirements and international agreements drive the integration of energy-efficient solutions and alternative fuels, aiming to mitigate carbon footprints and reduce marine pollution associated with naval activities.

Regional Trends in Naval Propulsion Market:

Naval propulsion technologies and strategies exhibit significant diversity across regions, influenced by geopolitical dynamics, operational needs, and technological capabilities.

North America leads in naval propulsion innovation, particularly evident in its development of nuclear-powered aircraft carriers and submarines. The United States places emphasis on advancing nuclear reactor technology for extended endurance and operational capabilities. Additionally, optimization of gas turbine systems and research into alternative fuels are key areas of focus to enhance naval efficiency and sustainability. Europe prioritizes energy-efficient propulsion systems and hybrid electric technologies within its naval fleets. Nations such as the United Kingdom, France, and Germany are committed to reducing emissions and integrating renewable energy sources into their vessels. This strategic approach aims to enhance operational sustainability while bolstering maritime defense capabilities.

Asia-Pacific nations like China, India, and Japan are investing heavily in advanced naval propulsion technologies to modernize their fleets and assert regional maritime dominance. Nuclear-powered submarines represent a significant focus, alongside research into gas turbine propulsion and the development of indigenous electric propulsion systems. These efforts are geared towards strengthening naval power projection capabilities across vast oceanic territories. Middle Eastern countries including Israel, Saudi Arabia, and the United Arab Emirates prioritize enhancing naval capabilities through advanced propulsion systems. Investments are directed towards modernizing fleets with efficient gas turbine engines and exploring the feasibility of nuclear propulsion for submarines. These initiatives aim to bolster maritime security and maintain a robust defense posture in the region.

Rest of the World encompasses emerging naval powers in Latin America, Africa, and Oceania, each pursuing tailored approaches to naval propulsion. These regions range from utilizing diesel-electric submarines to adopting hybrid propulsion systems aimed at enhancing naval readiness, maritime security, and disaster response capabilities. Their strategies reflect efforts to balance operational needs with economic constraints and technological advancements.

Key Naval Propulsion Program:

Fluor Corporation has announced the extension of its contract with Fluor Marine Propulsion, LLC, a wholly-owned subsidiary, by the Department of the Navy . This contract extension is part of the Naval Reactors program, jointly managed by the Department of Energy's National Nuclear Security Administration and the Department of the Navy. It involves Naval Nuclear Propulsion work at several Navy Nuclear Laboratory (NNL) sites located in New York, Pennsylvania, and Idaho. The one-year option, valued at $1.16 billion, is structured as a cost-plus-fixed-fee arrangement.

BWX Technologies, Inc. has announced the award of a contract under the U.S. Naval Nuclear Propulsion Program valued at approximately $300 million. This contract is for the manufacturing of naval nuclear reactor fuel and has been awarded to BWXT's subsidiary, Nuclear Fuel Services, Inc., based in Erwin, Tennessee. Under the terms of the contract, Nuclear Fuel Services will produce and deliver fuel specifically for the Naval Reactors Program. BWXT's fuel and reactors are integral to powering various classes of U.S. Navy submarines including Ohio, Virginia, Seawolf, and Los Angeles classes, as well as the Nimitz and Ford class aircraft carriers. Additionally, BWXT's fuel and reactors will support the Navy's future Columbia-class submarines. Upon completion of fuel production, the fuel is transported to BWXT's facility near Lynchburg, Virginia, where it undergoes final installation into the naval reactors manufactured by BWXT. The reactors designed for submarines currently under development are intended to operate for the entire lifespan of the ship, while those for aircraft carriers are designed for a single refueling during the ship's service life.

Naval Propulsion Market Report Definition

Naval Propulsion Market Segmentation

By Region

By Platforms

By Type

Naval Propulsion Market Analysis for next 10 Years

The 10-year naval propulsion market analysis would give a detailed overview of naval propulsion market growth, changing dynamics, technology adoption overviews and the overall market attractiveness is covered in this chapter.

Market Technologies of Naval Propulsion Market

This segment covers the top 10 technologies that is expected to impact this market and the possible implications these technologies would have on the overall market.

Global Naval Propulsion Market Forecast

The 10-year Naval Propulsion Market forecast of this market is covered in detailed across the segments which are mentioned above.

Regional Naval Propulsion Market Trends & Forecast

The regional naval propulsion market trends, drivers, restraints and Challenges of this market, the Political, Economic, Social and Technology aspects are covered in this segment. The market forecast and scenario analysis across regions are also covered in detailed in this segment. The last part of the regional analysis includes profiling of the key companies, supplier landscape and company benchmarking. The current market size is estimated based on the normal scenario.

North America

Drivers, Restraints and Challenges

PEST

Market Forecast & Scenario Analysis

Key Companies

Supplier Tier Landscape

Company Benchmarking

Europe

Middle East

APAC

South America

Country Analysis of Naval Propulsion Market

This chapter deals with the key defense programs in this market, it also covers the latest news and patents which have been filed in this market. Country level 10 year market forecast and scenario analysis are also covered in this chapter.

Defense Programs

List of Tables

Table 1: 10 Year Market Outlook, 2024-2034

Table 2: Drivers, Impact Analysis, North America

Table 3: Restraints, Impact Analysis, North America

Table 4: Challenges, Impact Analysis, North America

Table 5: Drivers, Impact Analysis, Europe

Table 6: Restraints, Impact Analysis, Europe

Table 7: Challenges, Impact Analysis, Europe

Table 8: Drivers, Impact Analysis, Middle East

Table 9: Restraints, Impact Analysis, Middle East

Table 10: Challenges, Impact Analysis, Middle East

Table 11: Drivers, Impact Analysis, APAC

Table 12: Restraints, Impact Analysis, APAC

Table 13: Challenges, Impact Analysis, APAC

Table 14: Drivers, Impact Analysis, South America

Table 15: Restraints, Impact Analysis, South America

Table 16: Challenges, Impact Analysis, South America

Table 17: Scenario Analysis, Scenario 1, By Region, 2024-2034

Table 18: Scenario Analysis, Scenario 1, By Platform, 2024-2034

Table 19: Scenario Analysis, Scenario 1, By Type, 2024-2034

Table 20: Scenario Analysis, Scenario 2, By Region, 2024-2034

Table 21: Scenario Analysis, Scenario 2, By Platform, 2024-2034

Table 22: Scenario Analysis, Scenario 2, By Type, 2024-2034

List of Figures

Figure 1: Global Naval Propulsion Market Forecast, 2024-2034

Figure 2: Global Naval Propulsion Market Forecast, By Region, 2024-2034

Figure 3: Global Naval Propulsion Market Forecast, By Platform, 2024-2034

Figure 4: Global Naval Propulsion Market Forecast, By Type, 2024-2034

Figure 5: North America, Naval Propulsion Market, Market Forecast, 2024-2034

Figure 6: Europe, Naval Propulsion Market, Market Forecast, 2024-2034

Figure 7: Middle East, Naval Propulsion Market, Market Forecast, 2024-2034

Figure 8: APAC, Naval Propulsion Market, Market Forecast, 2024-2034

Figure 9: South America, Naval Propulsion Market, Market Forecast, 2024-2034

Figure 10: United States, Naval Propulsion Market, Technology Maturation, 2024-2034

Figure 11: United States, Naval Propulsion Market, Market Forecast, 2024-2034

Figure 12: Canada, Naval Propulsion Market, Technology Maturation, 2024-2034

Figure 13: Canada, Naval Propulsion Market, Market Forecast, 2024-2034

Figure 14: Italy, Naval Propulsion Market, Technology Maturation, 2024-2034

Figure 15: Italy, Naval Propulsion Market, Market Forecast, 2024-2034

Figure 16: France, Naval Propulsion Market, Technology Maturation, 2024-2034

Figure 17: France, Naval Propulsion Market, Market Forecast, 2024-2034

Figure 18: Germany, Naval Propulsion Market, Technology Maturation, 2024-2034

Figure 19: Germany, Naval Propulsion Market, Market Forecast, 2024-2034

Figure 20: Netherlands, Naval Propulsion Market, Technology Maturation, 2024-2034

Figure 21: Netherlands, Naval Propulsion Market, Market Forecast, 2024-2034

Figure 22: Belgium, Naval Propulsion Market, Technology Maturation, 2024-2034

Figure 23: Belgium, Naval Propulsion Market, Market Forecast, 2024-2034

Figure 24: Spain, Naval Propulsion Market, Technology Maturation, 2024-2034

Figure 25: Spain, Naval Propulsion Market, Market Forecast, 2024-2034

Figure 26: Sweden, Naval Propulsion Market, Technology Maturation, 2024-2034

Figure 27: Sweden, Naval Propulsion Market, Market Forecast, 2024-2034

Figure 28: Brazil, Naval Propulsion Market, Technology Maturation, 2024-2034

Figure 29: Brazil, Naval Propulsion Market, Market Forecast, 2024-2034

Figure 30: Australia, Naval Propulsion Market, Technology Maturation, 2024-2034

Figure 31: Australia, Naval Propulsion Market, Market Forecast, 2024-2034

Figure 32: India, Naval Propulsion Market, Technology Maturation, 2024-2034

Figure 33: India, Naval Propulsion Market, Market Forecast, 2024-2034

Figure 34: China, Naval Propulsion Market, Technology Maturation, 2024-2034

Figure 35: China, Naval Propulsion Market, Market Forecast, 2024-2034

Figure 36: Saudi Arabia, Naval Propulsion Market, Technology Maturation, 2024-2034

Figure 37: Saudi Arabia, Naval Propulsion Market, Market Forecast, 2024-2034

Figure 38: South Korea, Naval Propulsion Market, Technology Maturation, 2024-2034

Figure 39: South Korea, Naval Propulsion Market, Market Forecast, 2024-2034

Figure 40: Japan, Naval Propulsion Market, Technology Maturation, 2024-2034

Figure 41: Japan, Naval Propulsion Market, Market Forecast, 2024-2034

Figure 42: Malaysia, Naval Propulsion Market, Technology Maturation, 2024-2034

Figure 43: Malaysia, Naval Propulsion Market, Market Forecast, 2024-2034

Figure 44: Singapore, Naval Propulsion Market, Technology Maturation, 2024-2034

Figure 45: Singapore, Naval Propulsion Market, Market Forecast, 2024-2034

Figure 46: United Kingdom, Naval Propulsion Market, Technology Maturation, 2024-2034

Figure 47: United Kingdom, Naval Propulsion Market, Market Forecast, 2024-2034

Figure 48: Opportunity Analysis, Naval Propulsion Market, By Region (Cumulative Market), 2024-2034

Figure 49: Opportunity Analysis, Naval Propulsion Market, By Region (CAGR), 2024-2034

Figure 50: Opportunity Analysis, Naval Propulsion Market, By Platform (Cumulative Market), 2024-2034

Figure 51: Opportunity Analysis, Naval Propulsion Market, By Platform (CAGR), 2024-2034

Figure 52: Opportunity Analysis, Naval Propulsion Market, By Type (Cumulative Market), 2024-2034

Figure 53: Opportunity Analysis, Naval Propulsion Market, By Type (CAGR), 2024-2034

Figure 54: Scenario Analysis, Naval Propulsion Market, Cumulative Market, 2024-2034

Figure 55: Scenario Analysis, Naval Propulsion Market, Global Market, 2024-2034

Figure 56: Scenario 1, Naval Propulsion Market, Total Market, 2024-2034

Figure 57: Scenario 1, Naval Propulsion Market, By Region, 2024-2034

Figure 58: Scenario 1, Naval Propulsion Market, By Platform, 2024-2034

Figure 59: Scenario 1, Naval Propulsion Market, By Type, 2024-2034

Figure 60: Scenario 2, Naval Propulsion Market, Total Market, 2024-2034

Figure 61: Scenario 2, Naval Propulsion Market, By Region, 2024-2034

Figure 62: Scenario 2, Naval Propulsion Market, By Platform, 2024-2034

Figure 63: Scenario 2, Naval Propulsion Market, By Type, 2024-2034

Figure 64: Company Benchmark, Naval Propulsion Market, 2024-2034

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FAQ

全球海軍推進系統市場（2024-2034）

Global Naval Propulsion Market 2024-2034

全球海軍推進系統市場概況

科技對全球船舶推進市場的影響

全球海軍推進設備市場的主要驅動力

全球船舶推進系統市場的區域趨勢

海軍推進系統主要項目

目錄

海軍推進設備市場：報告定義

船舶推進系統市場區隔

船舶推進系統市場分析（未來10年）

船舶推進系統市場的市場技術

全球海軍推進系統市場預測

海軍推進設備市場：區域趨勢與預測

海軍推進設備市場：國家分析

海軍推進設備市場：市場機會矩陣

海軍推進設備市場：專家對研究的看法

結論

關於航空和國防市場報告