全球 ORC 餘熱發電市場規模（按應用、產品、輸出功率、區域範圍和預測）

ORC餘熱發電市場規模及預測

ORC 餘熱發電市場規模在 2024 年價值 253.2 億美元，預計到 2031 年將達到 635.4 億美元，在 2024-2031 年預測期內的複合年成長率為 12.19%。

有機朗肯迴圈(ORC) 技術的運作方式與傳統蒸氣渦輪類似，但有一個重要區別：ORC 系統使用高分子量有機流體而不是水蒸氣。

這種調節可在封閉回路型動態循環中產生出色的電氣性能，使其特別適合分散式發電。 ORC 製程利用工業活動產生的排放來發電。

在ORC系統中，廢熱加熱有機流體，使其蒸發膨脹。蒸氣驅動渦輪機發電，既可在現場使用，也可併入電網。

該技術可轉換來自各種來源的電能和熱能，包括生質能、地熱和太陽能等可再生資源，以及來自傳統燃料、工業製程、焚化爐、引擎和燃氣渦輪機的廢熱。

與使用水產生蒸氣的傳統朗肯迴圈不同，ORC 系統使用高分子量有機流體，例如丁烷、戊烷、己烷和矽油。

這些流體的沸點低於水，這使得渦輪機的旋轉速度更慢，從而降低了壓力，並最大限度地減少了金屬部件和葉片的腐蝕。這種方法提高了系統的效率和使用壽命，同時有效地將廢熱轉化為有用的能量。

全球ORC廢棄物熱電聯產市場動態

影響全球 ORC 餘熱發電市場的關鍵市場動態包括：

關鍵市場促進因素

可再生能源需求不斷成長：作為可再生可再生技術，ORC系統能夠有效地將廢熱轉化為電能，幫助各行各業減少對石化燃料和傳統能源來源的依賴。這種轉變不僅有助於減少碳排放，更有利於促進環境的永續性。此外，ORC廢熱發電系統還能幫助各行各業降低能源成本、提高能源效率並提升整體盈利，帶來顯著的經濟效益。

減緩氣候變遷：應對氣候變遷和環境問題的迫切需求正推動各國採用更清潔、更環保的發電技術。隨著各國努力減少二氧化碳排放，對促進清潔能源生產的有機朗肯循環（ORC）系統的需求日益成長。 ORC系統能夠利用各種工業製程所產生的廢熱，符合全球永續性目標，進一步推動市場成長。

營運優勢：ORC 系統的營運優勢使其日益普及。 ORC 技術中使用的有機流體，例如丁烷、戊烷和己烷，沸點低於水。這項特性使其蒸氣更高，從而提高了循環效率。此外，ORC 系統在較低溫度下高效運行，延長了設備壽命並減少了維護需求。這些因素共同提高了 ORC 餘熱能系統的性能和可靠性，從而促進了其應用範圍的擴大和市場的擴張。

能源價格上漲：能源價格上漲使得廢熱回收和發電越來越有吸引力。隨著傳統能源來源成本的持續上漲，各行各業都在尋求替代解決方案來降低能源成本。 ORC系統將廢熱轉化為電能，是一種經濟有效的方法，可以減少對昂貴石化燃料的依賴，並降低整體能源成本。

能源效率要求：政府和產業對能源效率的要求日益嚴格，加速了ORC系統的普及。世界各地的法規結構越來越注重提高能源效率和減少環境影響。 ORC系統透過提供有效的廢熱回收和利用手段來滿足這些要求，有助於滿足能源效率法規和永續性目標。

ORC 系統效率提升：ORC 技術的進步正在推動市場成長。持續的研發投入正在不斷提升 ORC 系統的性能和效率。材料、流體動態和系統設計方面的創新使 ORC 系統更有效率、更經濟高效。這些改進提升了 ORC 系統的吸引力，擴大了其在各種工業流程中的應用，並進一步推動了其在全球市場的普及。

主要挑戰

資本密集：ORC 系統的主要挑戰之一是前期投資龐大。購買、安裝和維護 ORC 系統的高成本，對許多行業，尤其是中小型企業和資本資源有限的企業來說，可能是一個重大障礙。高昂的初始投資可能會嚇跑潛在的採用者，並限制其市場滲透。

投資回收期：ORC 系統的另一個顯著限制是其投資回收期相對較長。透過節能和效率提升收回初始投資所需的時間可能很長，這可能會阻礙一些潛在用戶採用該技術。對於考慮採用 ORC 系統的產業而言，較長的投資回收期可能是其決策的重要因素。

功率輸出有限：ORC 系統的功率輸出通常低於蒸氣渦輪或燃氣渦輪機等傳統發電方式。這種限制會限制其應用，尤其是在需要大量電力的大型工業環境中。 ORC 系統的電力消耗量能力相對較弱，因此可能無法滿足高耗電產業的​​能源需求。

小規模應用：ORC 系統通常適用於規模較小的應用或特定的利基市場。其效率和效益通常針對小型裝置進行最佳化，可能無法滿足大型營運的能源需求。這限制了其在大型工業中的應用，因為替代發電解決方案可能更適合這些工業。

熱源不穩定：ORC 系統的性能和效率高度依賴於可用廢熱的穩定性和溫度。可用熱源的波動會影響系統高效發電的能力。熱源不穩定或波動會導致效率低下，並降低總功率輸出。

熱源可靠性：ORC 系統中使用的熱源的可靠性對於維持穩定的發電至關重要。不可靠或不穩定的熱源會影響整個系統的性能和容量，導致發電中斷和運作效率降低。

主要趨勢

增強流體選擇：全球有機朗肯迴圈(ORC) 餘熱發電市場的關鍵趨勢之一是先進工質的開發。研究人員和工程師正致力於開發針對不同溫度範圍最佳化的新型有機工質，以提高系統效率。這些創新工質可以透過提高效率和擴展運行範圍來提升 ORC 系統性能，使其更適應各種工業應用和餘熱源。

改進的熱交換器：另一個關鍵趨勢是熱交換器技術的進步。目前正在開發改進的熱交換器設計，以提高傳熱速率和整體系統性能。這些創新旨在最大限度地提高熱回收過程的效率，並使ORC系統能夠更有效地捕捉和利用廢熱。更先進的熱交換器有助於提高發電效率，並有助於降低ORC系統的營業成本。

與可再生能源的融合：ORC系統與太陽能、風能和生質能等可再生能源的融合正日益受到關注。透過將ORC技術與可再生能源結合，各行各業可以創造利用多種能源來源的混合發電系統。這一趨勢不僅提高了發電的永續性，也提高了能源生產的整體效率和可靠性。混合系統能夠實現更穩定的能源供應，同時減少對石化燃料的依賴。

智慧ORC系統：數位技術的採用正在將ORC系統轉變為「智慧」解決方案。智慧ORC系統使用先進的感測器、物聯網設備和數據分析來即時監控系統效能。這種整合能夠實現主動最佳化營運、預測性維護和增強系統管理。透過利用數位技術，各行各業可以提高ORC系統的效率和可靠性，並最大限度地減少停機時間和維護成本。

數據主導決策：數據分析在ORC系統最佳化中發揮關鍵作用。數據驅動的決策工具能夠更好地分析系統效能，識別效率低下之處並發現成本節約機會。利用數據，各行各業可以做出明智的決策，從而提高ORC系統效率，改善營運策略，並最終實現更大的節能效果。

目錄

第1章 全球餘熱發電市場介紹

• 市場概況
• 調查範圍
• 先決條件

第2章執行摘要

第3章：已驗證的市場研究調查方法

• 資料探勘
• 驗證
• 第一手資料
• 資料來源列表

第4章 全球餘熱發電市場展望

• 概述
• 市場動態
  • 驅動程式
  • 阻礙因素
  • 機會
• 波特五力模型
• 價值鏈分析

第5章全球餘熱發電市場應用

• 概述
• 石油精煉
• 水泥工業
• 重金屬製造
• 工業
• 其他

第6章全球餘熱發電市場（按產品）

• 概述
• 蒸氣朗肯迴圈
• 有機朗肯迴圈
• 卡麗娜循環

第7章全球餘熱發電市場（按地區）

• 概述
• 北美洲
  • 美國
  • 加拿大
  • 墨西哥
• 歐洲
  • 德國
  • 英國
  • 法國
  • 其他歐洲國家
• 亞太地區
  • 中國
  • 日本
  • 印度
  • 其他亞太地區
• 世界其他地區
  • 拉丁美洲
  • 中東和非洲

第8章：全球餘熱發電市場競爭格局

• 概述
• 各公司市場排名
• 主要發展策略

第9章：公司簡介

• Turboden SpA
• Kaishan USA
• Siemens AG
• Boustead International Heaters
• TransPacific Energy Inc.
• General Electric
• Strebl Energy Pvt Ltd.
• Mitsubishi Hitachi Power Systems, Ltd.
• Climeon AB
• IHI Corporation

第10章 附錄

• 相關調查

ORC Waste Heat To Power Market Size And Forecast

ORC Waste Heat To Power Market size was valued at USD 25.32 Billion in 2024 and is projected to reach USD 63.54 Billion by 2031, growing at a CAGR of 12.19% during the forecast period 2024-2031.

The Organic Rankine Cycle (ORC) technology operates similarly to a traditional steam turbine but with a key distinction. Instead of water vapor, the ORC system employs a high-molecular-mass organic fluid.

This adjustment leads to superior electric performance within a closed-loop thermodynamic cycle, making it particularly well-suited for distributed generation. The ORC process harnesses waste heat from industrial operations to generate electricity.

In an ORC system, waste heat heats an organic fluid, causing it to vaporize and expand. This vapor then drives a turbine to produce electricity, which can be used on-site or fed into the grid.

The technology converts electric and thermal power from various sources, including renewable resources like biomass, geothermal energy, and solar power, as well as traditional fuels and waste heat from industrial processes, incinerators, engines, and gas turbines.

Unlike conventional Rankine cycles, which use water to generate steam, the ORC system uses organic fluids with higher molecular masses, such as butane, pentane, hexane, and silicon oil.

These fluids have lower boiling points than water, resulting in slower turbine rotation, reduced pressure, and minimized erosion of metal parts and blades. This approach enhances the system's efficiency and longevity while effectively converting waste heat into useful energy.

Global ORC Waste Heat to Power Market Dynamics

The key market dynamics that are shaping the global ORC waste heat to power market include:

Key Market Drivers

Increasing Demand for Renewable Energy: ORC systems, a renewable energy technology, efficiently convert waste heat into electricity, thus supporting industries in reducing their reliance on fossil fuels and conventional energy sources. This transition not only aids in lowering carbon emissions but also promotes environmental sustainability. Additionally, ORC waste heat to power systems offer substantial economic benefits by helping industries cut energy costs, enhance energy efficiency, and boost overall profitability.

Climate Change Mitigation: The rising urgency to address climate change and environmental issues propelling countries to adopt cleaner, green power generation technologies. As nations strive to minimize their carbon footprints, the demand for ORC systems, which facilitate cleaner energy production, is growing. The ability of ORC systems to harness waste heat from various industrial processes aligns well with global sustainability goals, further driving market growth.

Operational Benefits: The operational advantages of ORC systems contribute to their rising popularity. The organic fluids used in ORC technology, such as butane, pentane, and hexane, have lower boiling points compared to water. This characteristic results in higher vapor pressure and improved cycle efficiency. Additionally, ORC systems operate effectively at lower temperatures, which helps extend the equipment's lifespan and reduces maintenance needs. These factors collectively enhance the performance and reliability of ORC waste heat to power systems, supporting their increasing adoption and contributing to the market's expansion.

Rising Energy Prices: Rising energy prices are making waste heat recovery and power generation increasingly appealing. As the cost of traditional energy sources continues to climb, industries are seeking alternative solutions to mitigate their energy expenses. ORC systems, which convert waste heat into electricity, present a cost-effective way to reduce dependency on expensive fossil fuels and lower overall energy costs.

Energy Efficiency Mandates: The imposition of stricter energy efficiency mandates by governments and industries is accelerating the adoption of ORC systems. Regulatory frameworks worldwide are increasingly focused on improving energy efficiency and reducing environmental impacts. ORC systems align with these mandates by offering an effective means of capturing and utilizing waste heat, thus contributing to compliance with energy efficiency regulations and sustainability goals.

Improved ORC System Efficiency: Advancements in ORC technology are driving market growth. Ongoing research and development efforts are continuously enhancing the performance and efficiency of ORC systems. Innovations in materials, fluid dynamics, and system design are making ORC systems more efficient and cost-effective. These improvements boost the attractiveness of ORC systems and expand their applicability across various industrial processes, further propelling their adoption in the global market.

Key Challenges

Capital Intensive: One of the primary challenges for ORC systems is their significant upfront capital investment. The high costs associated with purchasing, installing, and maintaining ORC systems can be a major barrier for many industries, particularly smaller businesses or those with limited financial resources. The initial expenditure required can deter potential adopters and limit market penetration.

Payback Period: Another notable constraint is the relatively long payback period associated with ORC systems. The time required to recover the initial investment through energy savings and improved efficiency can be extended, which may dissuade some potential users from committing to the technology. The extended return on investment period can be a critical factor in decision-making for industries considering ORC systems.

Limited Power Output: ORC systems generally produce lower power output compared to traditional power generation methods, such as steam turbines or gas turbines. This limitation can restrict their applicability, particularly in large-scale industrial settings that require substantial amounts of electricity. The relatively modest power generation capacity of ORC systems may not meet the energy demands of high-power-consuming industries.

Smaller Scale Applications: ORC systems are often more suitable for smaller-scale applications or specific niche markets. Their efficiency and effectiveness are generally optimized for smaller installations, which may not align with the energy requirements of large-scale operations. This restricts their use in large industrial contexts, where alternative power generation solutions might be more appropriate.

Inconsistent Heat Sources: The performance and efficiency of ORC systems are highly dependent on the consistency and temperature of the waste heat available. Variations in heat source availability can affect the system's ability to generate power effectively. Inconsistent or fluctuating heat sources can lead to inefficiencies and reduced overall power output.

Heat Source Reliability: The reliability of the heat source used in ORC systems is critical to maintaining consistent power generation. Unreliable or unstable heat sources can impact the system's overall performance and capacity, potentially leading to disruptions in power production and reduced operational efficiency.

Key Trends

Enhanced Fluid Selection: One significant trend in the global organic rankine cycle (ORC) waste heat to power market is the development of advanced working fluids. Researchers and engineers are focusing on creating new organic fluids optimized for various temperature ranges to improve system efficiency. These innovative fluids can enhance the performance of ORC systems by increasing their efficiency and expanding their operational range, making them more adaptable to diverse industrial applications and waste heat sources.

Improved Heat Exchangers: Another key trend is the advancement in heat exchanger technology. Enhanced heat exchanger designs are being developed to improve heat transfer rates and overall system performance. These innovations aim to maximize the efficiency of heat recovery processes, ensuring that ORC systems can capture and utilize waste heat more effectively. Better heat exchangers contribute to more efficient power generation and can help reduce the operational costs of ORC systems.

Integration with Renewable Energy: The integration of ORC systems with renewable energy sources such as solar, wind, or biomass is gaining traction. By combining ORC technology with renewable energy, industries can create hybrid power generation systems that leverage multiple energy sources. This trend not only enhances the sustainability of power generation but also improves the overall efficiency and reliability of energy production. Hybrid systems can provide a more consistent and stable energy supply while reducing dependence on fossil fuels.

Smart ORC Systems: The adoption of digital technologies is transforming ORC systems into ""smart"" solutions. Smart ORC systems use advanced sensors, IoT devices, and data analytics to monitor system performance in real-time. This integration enables proactive optimization of operations, predictive maintenance, and enhanced system management. By leveraging digital technologies, industries can improve the efficiency and reliability of their ORC systems while minimizing downtime and maintenance costs.

Data-Driven Decision Making: Data analytics is playing a crucial role in optimizing ORC systems. The use of data-driven decision-making tools allows for better analysis of system performance, identification of inefficiencies, and opportunities for cost reduction. By leveraging data, industries can make informed decisions that enhance the efficiency of their ORC systems, improve operational strategies, and ultimately achieve greater energy savings.

Global Orc Waste Heat to Power Market Regional Analysis

Here is a more detailed regional analysis of the global ORC waste heat to power market:

Asia Pacific

The Asia-Pacific region is emerging as a dominant region in the global organic rankine cycle (ORC) waste heat to power market, driven by a confluence of factors that make it an attractive arena for ORC technology adoption.

Rapid industrialization across the region has significantly increased waste heat generation from diverse sectors such as manufacturing, power generation, and oil and gas.

ORC technology offers a compelling solution to harness this excess heat, converting it into valuable electricity and thus addressing the surge in energy demands while optimizing operational efficiency.

Energy security and cost reduction are paramount concerns for industries grappling with rising fuel costs and the need for sustainable energy solutions. ORC systems help mitigate these challenges by generating additional power from waste heat, which contributes to reducing overall energy consumption and operational expenses.

Moreover, the implementation of stringent environmental regulations by governments across the region reflects a broader commitment to combating air pollution and climate change. By utilizing waste heat, ORC technology plays a crucial role in minimizing greenhouse gas emissions and reducing reliance on fossil fuels.

Government support further accelerates the adoption of ORC technology in the region. Various countries are providing incentives and subsidies to promote renewable and clean energy solutions, enhancing the market's growth potential.

China, as the world's largest industrial hub, leads the Asia-Pacific ORC market, driven by its focus on clean energy initiatives and an abundant supply of waste heat sources.

In India, rapid industrial expansion and escalating energy demands are propelling ORC market growth, bolstered by government policies emphasizing renewable energy and energy efficiency.

Japan and South Korea, known for their advanced industrial sectors, are early adopters of ORC technology, focusing on improving the efficiency of existing power plants and reducing carbon emissions.

Meanwhile, Southeast Asian countries such as Thailand, Indonesia, and Malaysia are also increasingly interested in ORC technology due to their industrial growth and supportive government policies on renewable energy.

North America

North America is rapidly emerging as the fastest-growing global organic rankine cycle (ORC) waste heat to power market.

The region's historical commitment to stringent environmental regulations has played a pivotal role in encouraging industries to adopt cleaner technologies.

ORC systems are well-aligned with these regulations, as they contribute to significant reductions in greenhouse gas emissions by converting waste heat into usable electricity, thus supporting broader environmental goals.

In addition to regulatory pressures, there is a pronounced focus on energy efficiency across North American industries. Companies are increasingly seeking solutions to enhance energy efficiency and lower operational costs.

ORC technology addresses these needs effectively by recovering waste heat from various industrial processes and converting it into additional power. This not only improves energy utilization but also contributes to cost savings.

North America's advanced industrial base further drives the growth of the ORC market. The presence of a mature industrial sector, including critical industries such as oil and gas, chemicals, and power generation, creates a substantial pool of potential ORC applications.

The United States, as the dominant player in the North American ORC market, boasts a significant number of installations across diverse industries. The country's strong focus on clean energy and industrial efficiency is a major driver of market expansion.

The oil sands and geothermal energy in the United States contribute to the market growth. The country's cold climate also offers unique opportunities for ORC applications in district heating, further supporting market development.

Global ORC Waste Heat To Power Market: Segmentation Analysis

The ORC Waste Heat to Power Market is segmented based on Application, Product, Power Output, And Geography.

ORC Waste Heat to Power Market, By Application

Petroleum Refining

Cement Industry

Heavy Metal Production

Chemical Industry

Based on Application, the Global ORC Waste Heat to Power Market is bifurcated into Petroleum Refining, Cement Industry, Heavy Metal Production, and Chemical Industry. The Petroleum Refining segment shows significant growth in the global ORC waste heat to power market. Refineries have high waste heat potential and a high amount of heat is generated during the process such as distillation, cracking, and reforming. This excess heat presents a significant opportunity for optimization through organic rankine cycle (ORC) technology. The economic viability of ORC systems in refineries is particularly compelling given the high energy costs associated with refining operations. Additionally, the environmental benefits of ORC technology are considerable. By harnessing waste heat, refineries can significantly reduce their carbon footprint and better adhere to stringent environmental regulations, aligning their operations with economic and ecological goals.

ORC Waste Heat to Power Market, By Product

Steam Rankine Cycle

Organic Rankine Cycle

Kalina Cycle

Based on Product, the Global ORC Waste Heat To Power Market is bifurcated into the Steam Rankine Cycle, Organic Rankine Cycle, and Kalina Cycle. The organic rankine cycle segment shows significant growth in the global Orc waste heat to power market. Advancements in organic rankine cycle (ORC) technology, including improvements in working fluids and system designs, have broadened its application range and enhanced its efficiency. The growing availability of lower temperature waste heat sources has further favored the adoption of ORC systems. Supportive government policies and financial incentives for renewable energy and energy efficiency are fueling market growth. Additionally, rising energy costs have made the economic benefits of waste heat recovery increasingly evident, driving further interest and investment in ORC technology.

ORC Waste Heat to Power Market, By Power Output

<= 1 MWe

1 - 5 MWe

5 - 10 MWe

10 Mwe

Based on Power Output, the Global ORC Waste Heat To Power Market is bifurcated into <= 1 Mwe, 1-5 Mwe, 5-10 Mwe, 10 Mwe. <= 1 Mwe segment is dominating the global ORC waste heat to power market. The growing focus on energy efficiency in small-scale operations, combined with the rising adoption of renewable energy sources, is fueling market growth. ORC technology offers several advantages for these applications, including lower capital investment requirements, simpler installation processes, and greater flexibility. These benefits make ORC systems particularly appealing for small-scale operations seeking to enhance energy efficiency and integrate renewable energy solutions.

ORC Waste Heat to Power Market, By Geography

North America

Europe

Asia Pacific

Rest of the World

Based on Geography, the ORC Waste Heat to Power Market is classified into North America, Europe, Asia Pacific, and the Rest of the World. The Asia-Pacific region is emerging as a dominant region in the global organic rankine cycle (ORC) waste heat to power market due to a confluence of factors that make it an attractive arena for ORC technology adoption. Rapid industrialization across the region has significantly increased waste heat generation from diverse sectors such as manufacturing, power generation, and oil and gas. ORC technology offers a compelling solution to harness this excess heat, converting it into valuable electricity and thus addressing the surge in energy demands while optimizing operational efficiency. Energy security and cost reduction are paramount concerns for industries grappling with rising fuel costs and the need for sustainable energy solutions. ORC systems help mitigate these challenges by generating additional power from waste heat, which contributes to reducing overall energy consumption and operational expenses.

Key Players

• The "ORC Waste Heat to Power Market" study report will provide valuable insight with an emphasis on the global market including some of the major players such as Turboden S.p. A, Kaishan USA, Siemens AG, Boustead International Heaters, TransPacific Energy, Inc., General Electric, Strebl Energy Pvt Ltd Mitsubishi Hitachi Power Systems, Ltd. Climeon AB, and IHI Corporation.

Our market analysis also entails a section solely dedicated to such major players wherein our analysts provide an insight into the financial statements of all the major players, along with product benchmarking and SWOT analysis. The competitive landscape section also includes key development strategies, market share, and market ranking analysis of the above-mentioned players globally.

• Global ORC Waste Heat to Power Market Recent Developments
• In September 2022, Mitsubishi Heavy Industries created a binary power generation system using ORC technology. This technology recycles waste heat from sulfur-free fuel-burning engines and turns it into useful energy. The portfolio contains three variants with rated outputs ranging from 200 kW to 700 KW, which can power a variety of vessel types.
• In November 2021, Alfa Laval remotely developed and sold their ORC solutions as a whole suite of marine equipment. The company provides cutting-edge products for decontamination, purifying and recycling resources, and boosting the efficiency of existing assets.
• In September 2022, Mitsubishi Heavy Industries Marine Machinery & Equipment Co., Ltd. (MHI-MME) developed a cutting-edge binary power generation system using Organic Rankine Cycle technology (WHR-ORC system). The system is designed to recover waste heat from sulfur-free fuel-burning engines, which are becoming increasingly popular in the transition to a low-carbon and decarbonized society. The product comes in three variations with rated outputs ranging from 200kW to 700kW, making it suitable for various vessel types.
• In April 2022, Climeon AB introduced the Climeon HeatPower 300 Marine to the cruise industry at Seatrade Cruise Global in Miami. This is the company's latest heat power generation. The Climeon HeatPower 300 Marine is a waste heat recovery product designed to generate renewable energy Low-temperature waste heat is generated on board in marine conditions.
• In February 12, 2021, Siemens Energy announced a collaboration with TC Energy Corporation (a Canadian company) and inked a contract to launch an innovative waste heat-to-power pilot installation in Alberta. Siemens Energy's sophisticated heat recovery process will be at the heart of the facility. The patented technology, licensed under Echogen Intellectual Property, uses supercritical carbon dioxide (sCO2) as the working fluid. The system is based on an enhanced Rankine Cycle that generates power from waste heat.

TABLE OF CONTENTS

1 INTRODUCTION OF GLOBAL ORC WASTE HEAT TO POWER MARKET

• 1.1 Overview of the Market
• 1.2 Scope of Report
• 1.3 Assumptions

2 EXECUTIVE SUMMARY

3 RESEARCH METHODOLOGY OF VERIFIED MARKET RESEARCH

• 3.1 Data Mining
• 3.2 Validation
• 3.3 Primary Interviews
• 3.4 List of Data Sources

4 GLOBAL ORC WASTE HEAT TO POWER MARKET OUTLOOK

• 4.1 Overview
• 4.2 Market Dynamics
  • 4.2.1 Drivers
  • 4.2.2 Restraints
  • 4.2.3 Opportunities
• 4.3 Porters Five Force Model
• 4.4 Value Chain Analysis

5 GLOBAL ORC WASTE HEAT TO POWER MARKET, BY APPLICATION

• 5.1 Overview
• 5.2 Petroleum Refining
• 5.3 Cement Industry
• 5.4 Heavy Metal Production
• 5.5 Chemical Industry
• 5.6 Others

6 GLOBAL ORC WASTE HEAT TO POWER MARKET, BY PRODUCT

• 6.1 Overview
• 6.2 Steam Rankine Cycle
• 6.3 Organic Rankine Cycle
• 6.4 Kalina Cycle

7 GLOBAL ORC WASTE HEAT TO POWER MARKET, BY GEOGRAPHY

• 7.1 Overview
• 7.2 North America
  • 7.2.1 U.S.
  • 7.2.2 Canada
  • 7.2.3 Mexico
• 7.3 Europe
  • 7.3.1 Germany
  • 7.3.2 U.K.
  • 7.3.3 France
  • 7.3.4 Rest of Europe
• 7.4 Asia Pacific
  • 7.4.1 China
  • 7.4.2 Japan
  • 7.4.3 India
  • 7.4.4 Rest of Asia Pacific
• 7.5 Rest of the World
  • 7.5.1 Latin America
  • 7.5.2 Middle East and Africa

8 GLOBAL ORC WASTE HEAT TO POWER MARKET COMPETITIVE LANDSCAPE

• 8.1 Overview
• 8.2 Company Market Ranking
• 8.3 Key Development Strategies

9 COMPANY PROFILES

• 9.1 Turboden S.p.A.
  • 9.1.1 Overview
  • 9.1.2 Financial Performance
  • 9.1.3 Product Outlook
  • 9.1.4 Key Developments
• 9.2 Kaishan USA
  • 9.2.1 Overview
  • 9.2.2 Financial Performance
  • 9.2.3 Product Outlook
  • 9.2.4 Key Developments
• 9.3 Siemens AG
  • 9.3.1 Overview
  • 9.3.2 Financial Performance
  • 9.3.3 Product Outlook
  • 9.3.4 Key Developments
• 9.4 Boustead International Heaters
  • 9.4.1 Overview
  • 9.4.2 Financial Performance
  • 9.4.3 Product Outlook
  • 9.4.4 Key Developments
• 9.5 TransPacific Energy Inc.
  • 9.5.1 Overview
  • 9.5.2 Financial Performance
  • 9.5.3 Product Outlook
  • 9.5.4 Key Developments
• 9.6 General Electric
  • 9.6.1 Overview
  • 9.6.2 Financial Performance
  • 9.6.3 Product Outlook
  • 9.6.4 Key Developments
• 9.7 Strebl Energy Pvt Ltd.
  • 9.7.1 Overview
  • 9.7.2 Financial Performance
  • 9.7.3 Product Outlook
  • 9.7.4 Key Developments
• 9.8 Mitsubishi Hitachi Power Systems, Ltd.
  • 9.8.1 Overview
  • 9.8.2 Financial Performance
  • 9.8.3 Product Outlook
  • 9.8.4 Key Developments
• 9.9 Climeon AB
  • 9.9.1 Overview
  • 9.9.2 Financial Performance
  • 9.9.3 Product Outlook
  • 9.9.4 Key Developments
• 9.10 IHI Corporation
  • 9.10.1 Overview
  • 9.10.2 Financial Performance
  • 9.10.3 Product Outlook
  • 9.10.4 Key Developments

10 Appendix

• 10.1 Related Research