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By Capacity;
1-2 MW, 2-5 MW, 5-7.5 MW, 7.5-10 MW, 10-15 MW, 15-20 MW, 20-30 MW, 30-40 MW, 40-100 MW, 100-150 MW, 150-300 MW and 300+ MWBy Technology;
Heavy Duty, Light Industrial and AeroderivativeBy Cycle;
Simple Cycle and Combined CycleBy Sector;
Power Utilities, Oil & Gas, Manufacturing, Aviation and OthersBy Geography;
North America, Europe, Asia Pacific, Middle East & Africa and Latin America - Report Timeline (2021 - 2031)Aviation Gas Turbines Market Overview
Aviation Gas Turbines Market (USD Million)
Aviation Gas Turbines Market was valued at USD 14,007.40 million in the year 2024. The size of this market is expected to increase to USD 19,709.82 million by the year 2031, while growing at a Compounded Annual Growth Rate (CAGR) of 5.0%.
Aviation Gas Turbines Market
*Market size in USD million
CAGR 5.0 %
| Study Period | 2025 - 2031 |
|---|---|
| Base Year | 2024 |
| CAGR (%) | 5.0 % |
| Market Size (2024) | USD 14,007.40 Million |
| Market Size (2031) | USD 19,709.82 Million |
| Market Concentration | Medium |
| Report Pages | 383 |
Major Players
- CFM International
- Pratt & Whitney Division
- Rolls-Royce
- Engine Alliance
- Avio Aero
- International Aero Engines
- MTU Aero Engines
- NPO Saturn
- General Electric Aviation
- Power Jet
Market Concentration
Consolidated - Market dominated by 1 - 5 major players
Aviation Gas Turbines Market
Fragmented - Highly competitive market without dominant players
The Aviation gas Turbines Market is expanding rapidly as airlines and defense sectors prioritize high-performance and fuel-efficient engines. Currently, over 65% of global aircraft depend on gas turbines, reflecting their dominance in modern aviation. These engines deliver superior thrust and reliability, making them indispensable for both passenger mobility and cargo transportation.
Advancements in Turbine Engineering
Ongoing developments in turbine engineering are driving improvements in efficiency and service life. Enhanced aerodynamics, advanced cooling systems, and the use of lightweight composite materials have contributed to nearly 25% higher fuel efficiency. Such advancements not only optimize performance but also reduce lifecycle costs, making turbines more sustainable and profitable for operators.
Sustainability-Oriented Innovations
Sustainability has become a key driver, with over 40% of modern turbine models incorporating low-emission technologies. Gas turbines are increasingly designed to support alternative fuels like biofuels and synthetic options, aligning with global environmental objectives. This transition highlights their pivotal role in reducing aviation’s carbon footprint while ensuring operational effectiveness.
Growing Emphasis on Maintenance and Reliability
With the global fleet expanding, the demand for engine maintenance and monitoring is intensifying. Nearly 55% of operational expenditures in airlines are linked to turbine efficiency and upkeep. The adoption of predictive maintenance and digital monitoring systems ensures higher safety standards, longer engine life, and reduced downtime, which strengthens turbine reliability.
Future Outlook for Market Expansion
Looking ahead, the aviation gas turbine sector is set for consistent growth, powered by innovation and rising adoption of smart technologies. Almost 50% of upcoming propulsion programs are expected to emphasize improved turbine efficiency. This strong focus on next-generation solutions positions the market for sustained expansion and long-term relevance in global aviation.
Aviation Gas Turbines Market Key Takeaways
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The rising global demand for air travel and cargo aviation is driving growth in commercial aviation turbofan engines and associated gas-turbine platforms.
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Intensified focus on aircraft efficiency and sustainability is accelerating development of fuel-efficient engines, lightweight composite materials and compatibility with sustainable aviation fuels (SAF).
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The Asia-Pacific region is emerging as the fastest-growing market due to rapid fleet expansion and rising passenger traffic, while North America maintains leadership in technology and scale.
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Demand is strong across both commercial and defence sectors, with military turbo-jets and turbofans also contributing to replacements and upgrades of aging fleets.
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Challenges include long development cycles, high certification and manufacturing cost, and increasing pressure from emissions-regulation bodies driving engine manufacturers to innovate rapidly.
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Technology differentiation—such as advanced cooling techniques, high bypass-ratio turbofans and modular engine architectures—is becoming a key competitive lever.
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Suppliers that prioritise OEM collaboration, global maintenance networks and scalable engine platforms that support service-and-repair offerings are best positioned to capture long-term value.
Aviation Gas Turbines Market Recent Development
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In June 2019, Rolls-Royce, a company known for producing turbines for various applications including aircraft, maritime vessels, and industrial purposes, revealed its acquisition of Siemens AG's eAircraft Business. This acquisition signifies Rolls-Royce's firm commitment to advancing environmentally friendly propulsion systems, particularly in the realm of electric and hybrid-electric aerospace technology.
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In May 2023, GE Aviation expanded its product portfolio with a new range of gas turbines for business jets, offering improved performance and reduced maintenance costs.
Aviation Gas Turbines Market Segment Analysis
In this report, the Aviation Gas Turbines Market has been segmented by Capacity, Technology, Cycle, Sector and Geography.
Aviation Gas Turbines Market, Segmentation by Capacity
The market is stratified by Capacity to reflect distinct duty cycles, fuel strategies, and total cost of ownership across project sizes. Lower ratings target distributed generation and mobile or remote roles, while mid-range classes balance efficiency and flexibility for industrial loads. At the high end, larger frames enable grid-scale output, peaking support, and combined-cycle readiness, guiding OEM roadmaps and aftermarket opportunities.
1-2 MW
Favored for distributed power, auxiliary and backup roles where rapid start and compact footprints are essential. Buyers emphasize fuel flexibility and simplified maintenance to minimize downtime. Growth is supported by remote infrastructure, microgrids, and fast deployment needs in defense and aviation ground operations.
2-5 MW
This band serves small industrial and campus utilities seeking higher efficiency than very small sets while retaining quick ramp capability. Vendors differentiate with extended service intervals and digital monitoring. It bridges portable solutions and firmly sited generation for continuous or peaking duty.
5-7.5 MW
Common in cogeneration and light manufacturing, balancing specific fuel consumption with manageable footprints. Demand benefits from heat recovery opportunities and reliability mandates in processing plants. Fleet standardization and parts commonality are key buyer criteria.
7.5-10 MW
Adopted for medium industrial loads and grid support where dispatchability matters. OEMs stress hot-section durability, reduced NOx, and modular packages. This tier often anchors scalable expansions, allowing operators to add blocks as demand grows.
10-15 MW
Well-suited to captive power in energy-intensive facilities and airports requiring resilient supply. Projects weigh LCOE against availability and long-term service agreements. Integration with HRSG for process steam or future combined-cycle upgrades is a frequent design path.
15-20 MW
Targets higher baseload with robust fuel efficiency and lower emissions profiles. Buyers compare aeroderivative options for fast starts versus light industrial frames for lifecycle economics. Reliability in harsh environments and spare-parts logistics influence selection.
20-30 MW
A mainstream class for process industries and utility peakers, offering compelling heat rates and fast cycling. Solutions emphasize digital twins, predictive maintenance, and hydrogen-ready combustors to future-proof assets. EPC experience and grid-code compliance are decisive.
30-40 MW
Deployed where sustained output and combined-heat-and-power are strategic. Operators value availability guarantees and mature aftermarket ecosystems. Packages often align with airport and large terminal energy needs, supporting resilience and cost control.
40-100 MW
Spans heavy industrial hubs and regional peaking, with strong readiness for combined cycle. Procurement emphasizes emissions compliance, fuel flexibility (including blends), and grid stability services. Lifecycle partnerships and upgrade paths drive long-term ROI.
100-150 MW
Chosen for medium utility plants and integrated CHP schemes where heat rate and availability dominate. OEMs compete on advanced materials, cooling, and low-NOx combustion. Projects factor in capacity markets and ancillary revenue streams.
150-300 MW
Designed for large grid assets requiring high efficiency, ramp rates, and cycling resilience alongside renewables. Owners stress long-term service agreements, digital performance centers, and fuel transition optionality. Suits airports’ regional grids and energy parks.
300+ MW
Represents the largest utility-scale installations prioritizing best-in-class efficiency and emissions performance. Deployed in major combined-cycle complexes, often anchoring capacity adequacy in high-demand corridors. Vendor selection hinges on proven fleets and bankable EPC delivery.
Aviation Gas Turbines Market, Segmentation by Technology
Technology segmentation distinguishes turbine architectures and design philosophies that affect efficiency, start-stop profiles, maintenance, and fuel flexibility. Choices align to operating regimes—from quick-start peakers to continuous industrial duty—and influence capex/opex, decarbonization readiness, and aftermarket strategies.
Heavy Duty
Engineered for sustained baseload with robust hot-section life and strong heat rates. Favored in large plants and regions prioritizing system reliability. Buyers value proven fleets, standardized parts, and comprehensive LTSA frameworks that stabilize lifecycle costs.
Light Industrial
Balances durability with improved flexibility for mid-scale loads, offering competitive maintenance intervals and compact footprints. Ideal for captive power and CHP where operational profiles vary. Emphasis falls on digital diagnostics and modular packaging to speed deployment.
Aeroderivative
Adapted from aviation cores for rapid start, high power density, and superior ramp rates. Preferred for peaking, grid balancing, and mission-critical sites such as airports. Their fuel flexibility and mobile configurations support resilience and future fuel blends.
Aviation Gas Turbines Market, Segmentation by Cycle
The Cycle dimension separates plants optimized for fast response from those designed for maximum thermal efficiency. Selection reflects local fuel costs, grid requirements, and the value of waste-heat utilization, shaping both immediate dispatch economics and long-term decarbonization pathways.
Simple Cycle
Prioritizes speed to power, lower capex, and minimal balance-of-plant—ideal for peaking, backup, and remote operations. Operators highlight quick start-stop capability and straightforward maintenance regimes. Often serves as a stepping stone to later HRSG additions.
Combined Cycle
Integrates HRSG and steam bottoming to deliver significantly higher thermal efficiency and reduced emissions intensity. Best suited to medium-to-high capacity sites and sustained duty. Project finance benefits from improved LCOE and diversified revenue through heat or process integration.
Aviation Gas Turbines Market, Segmentation by Sector
End-use Sector segmentation clarifies who buys, how assets operate, and what KPIs drive decisions. Utilities emphasize grid services and stringent emissions limits; hydrocarbons focus on uptime and fuel utilization; industry targets process continuity; aviation sites require resilience and safety-critical operations; and diversified “Others” address niche but growing applications.
Power Utilities
Utilities deploy turbines for peaking, reserve margin, and renewables integration. Procurement favors proven fleets, fast-ramping capability, and compliance with grid codes. Long-term service and upgradeability underpin lifecycle performance.
Oil & Gas
Critical for compression, power at upstream sites, and LNG operations where reliability and fuel efficiency are paramount. Buyers seek rugged designs tolerant of variable fuels and environments. Strong aftermarket and remote diagnostics reduce unplanned outages.
Manufacturing
Industrial plants adopt turbines for cogeneration, process steam, and demand stabilization. Decision factors include heat recovery potential, emissions permitting, and predictable maintenance windows. Digital performance management is increasingly standard.
Aviation
Airports and MRO ecosystems require resilient power for terminals, fueling, and ground operations. Projects emphasize redundancy, black-start capability, and strict reliability metrics. Integration with microgrids and future sustainable fuels is a rising priority.
Others
Encompasses defense, remote infrastructure, and specialized energy parks where mobility and rapid deployment are valued. Buyers prioritize logistics simplicity, flexible siting, and modularity. Growth aligns with resilience programs and distributed energy trends.
Aviation Gas Turbines Market, Segmentation by Geography
In this report, the Aviation Gas Turbines Market has been segmented by Geography into five regions: North America, Europe, Asia Pacific, Middle East and Africa and Latin America.
Regions and Countries Analyzed in this Report
North America
Demand reflects airport resilience programs, renewables balancing, and modernization of legacy peakers. Operators prioritize low-NOx combustion, hydrogen-ready options, and strong aftermarket coverage. Investment cases highlight grid services and capacity mechanisms that reward fast-start assets.
Europe
Procurement is shaped by emissions policy, high gas efficiency standards, and flexible generation for renewable integration. Combined-cycle upgrades and CHP remain attractive in industrial clusters. Buyers emphasize lifecycle LCOE and compliance with evolving environmental frameworks.
Asia Pacific
Growth is underpinned by expanding aviation infrastructure, industrialization, and grid reliability needs. Projects range from distributed simple-cycle sets to large CCGT complexes. Fuel supply optionality and rapid deployment are favored to meet dynamic demand in emerging hubs.
Middle East & Africa
Investments support oil & gas facilities, utility peaking, and diversification initiatives. Harsh-environment operation and high-availability guarantees are crucial. Developers look for fuel flexibility, robust filtration/cooling packages, and scalable service models.
Latin America
Markets balance hydropower variability with fast-ramping turbines and selective CHP in industry. Procurement focuses on bankable EPC delivery, grid code compliance, and resilient operations. Opportunities arise from modernization and distributed energy in remote regions.
Market Trends
This report provides an in depth analysis of various factors that impact the dynamics of Global Aviation Gas Turbines Market. These factors include; Market Drivers, Restraints and Opportunities Analysis.
Drivers, Restraints and Opportunity Analysis
Drivers:
- Increasing Air Travel Demand
- Fuel Efficiency Requirements
- Technological Advancements
- Expansion of Low-Cost Carriers
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Military Modernization Programs- The global aviation gas turbines market is significantly influenced by military modernization programs undertaken by various countries worldwide. These programs aim to enhance the capabilities, performance, and technological sophistication of military aircraft, thereby driving the demand for advanced gas turbine engines tailored to meet the rigorous requirements of modern warfare. Military modernization initiatives encompass a broad spectrum of activities, including the procurement of new aircraft, upgrades of existing platforms, and investments in cutting-edge technologies. Gas turbine engines play a pivotal role in powering a diverse array of military aircraft, including fighter jets, transport aircraft, helicopters, and unmanned aerial vehicles (UAVs).
As such, advancements in gas turbine technology are crucial for achieving the desired performance, endurance, and reliability necessary to fulfill diverse mission objectives. One prominent aspect of military modernization programs is the focus on enhancing aircraft performance and operational capabilities. This includes the development of next-generation fighter jets equipped with advanced avionics, stealth features, and high-performance gas turbine engines capable of delivering exceptional speed, maneuverability, and combat effectiveness. Additionally, upgrades to existing aircraft platforms involve retrofitting with more fuel-efficient engines, enhanced sensors, and improved communication systems to ensure readiness and relevance in modern conflicts.
Moreover, military modernization efforts prioritize the adoption of innovative propulsion technologies aimed at enhancing operational efficiency and reducing environmental impact. This includes the exploration of alternative fuels, hybrid-electric propulsion systems, and advanced engine designs optimized for greater fuel efficiency and reduced emissions. Such initiatives align with broader sustainability goals and regulatory mandates aimed at mitigating the environmental footprint of military operations. Furthermore, military modernization programs often involve international collaborations, joint development projects, and technology transfer agreements aimed at leveraging collective expertise and resources to achieve common objectives. This collaborative approach fosters partnerships between governments, defense contractors, and aerospace manufacturers, driving innovation and facilitating the exchange of best practices in gas turbine engine development and production.
Restraints:
- High Initial Investment
- Rapid Technological Obsolescence
- Regulatory Compliance
- Slow Certification Processes
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Dependency on Aerospace OEMs- The global aviation gas turbines market is intricately linked to aerospace Original Equipment Manufacturers (OEMs), forming a symbiotic relationship that shapes the dynamics of the industry. Aerospace OEMs, including major companies such as Boeing, Airbus, Lockheed Martin, and Northrop Grumman, are the primary customers and partners for gas turbine manufacturers. These OEMs design, manufacture, and assemble a wide range of aircraft, from commercial airliners to military fighter jets, all of which rely on gas turbine engines for propulsion. One key aspect of the dependency on aerospace OEMs is the close collaboration between gas turbine manufacturers and aircraft manufacturers throughout the design, development, and production phases. Gas turbine engines are often custom-designed and tailored to meet the specific requirements of each aircraft platform, taking into account factors such as size, weight, performance, and mission profile.
This close collaboration ensures that gas turbine engines seamlessly integrate with the aircraft's airframe, systems, and avionics, delivering optimal performance and reliability. Moreover, gas turbine manufacturers heavily rely on aerospace OEMs for aircraft orders and engine installations. The success of gas turbine manufacturers is closely tied to the production rates, order backlogs, and strategic decisions of aerospace OEMs. Changes in OEM production schedules, aircraft procurement strategies, or market demand can have significant implications for gas turbine suppliers, affecting their revenue streams, production planning, and overall business performance. Additionally, gas turbine manufacturers often invest substantial resources in research and development to align with the technology roadmaps and product requirements of aerospace OEMs.
This includes developing innovative engine designs, incorporating advanced materials and manufacturing processes, and meeting stringent performance and environmental standards set by OEMs and regulatory authorities. Gas turbine manufacturers strive to anticipate the future needs of aerospace OEMs and proactively innovate to maintain a competitive edge in the market. Furthermore, the dependency on aerospace OEMs extends beyond commercial aircraft to military platforms. Gas turbine manufacturers collaborate closely with defense contractors and military OEMs to supply engines for military aircraft, helicopters, and unmanned aerial vehicles (UAVs). Military modernization programs, defense procurement cycles, and geopolitical factors influence the demand for gas turbine engines in the military aviation sector, further underscoring the interdependence between gas turbine manufacturers and aerospace OEMs.
Opportunities:
- Rising Air Passenger Traffic
- Modernization of Existing Fleets
- Development of Next-Generation Engines
- Increasing Demand for Military Aircraft
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Growing Demand for Business Aviation- The global aviation gas turbines market is witnessing a significant uptick in demand attributed to the growing segment of business aviation. Business aviation encompasses a diverse range of aircraft primarily used for executive travel, corporate shuttle services, and private transportation. This sector caters to the mobility needs of business executives, high-net-worth individuals, government officials, and other affluent clientele seeking personalized and efficient air travel solutions. One of the key drivers of the growing demand for business aviation is the increasing globalization of business activities and the need for rapid and flexible travel options. Business executives often require expedited travel arrangements to meet tight schedules, attend meetings, visit clients, and explore new opportunities across different geographic regions.
Business aircraft equipped with gas turbine engines offer unparalleled speed, range, and convenience, enabling executives to travel directly to their destinations without the constraints of commercial airline schedules and airport congestion. Moreover, the rise of emerging markets and the expansion of multinational corporations have fueled the demand for business aviation, particularly in regions where commercial air travel infrastructure may be limited or inaccessible. Business aircraft powered by gas turbine engines provide access to remote locations, underserved markets, and business hubs, facilitating efficient business operations and market expansion strategies.
The growing emphasis on safety, security, and privacy in the wake of global events and security concerns has bolstered the appeal of business aviation as a preferred mode of travel for corporate executives and high-profile individuals. Business aircraft offer enhanced security measures, personalized services, and confidentiality, ensuring a discreet and comfortable travel experience for passengers. Furthermore, advancements in gas turbine engine technology have led to the development of business jets with improved performance, fuel efficiency, and range capabilities. Modern business aircraft feature state-of-the-art avionics, luxurious interiors, and advanced amenities, rivaling the comfort and convenience of private yachts and luxury automobiles. Gas turbine engines play a crucial role in powering these high-performance aircraft, offering reliability, power, and efficiency required for long-range travel and executive transportation needs.
Aviation Gas Turbines Market Competitive Landscape Analysis
Aviation Gas Turbines Market has emerged as a competitive space characterized by strong alliances, product differentiation, and consistent technological focus. Market leaders control over 55% of the share, reflecting high consolidation. Companies are adopting diverse strategies involving collaboration, merger, and partnerships to ensure steady growth and maintain an edge in high-demand aerospace sectors.
Market Structure and Concentration
The industry remains moderately concentrated, with top-tier manufacturers collectively holding more than 60% of the market. Mid-sized firms focus on niche applications, while large enterprises emphasize technological advancements. This structure creates balanced competition where dominant players drive standards, and smaller companies leverage innovation to achieve incremental expansion and improve efficiency benchmarks across aerospace operations.
Brand and Channel Strategies
Aviation gas turbine manufacturers emphasize branding linked to safety, efficiency, and long-term durability, which accounts for nearly 45% influence on purchase decisions. Distribution relies heavily on aerospace contracts, supported by maintenance partnerships. Companies use strong strategies with channel collaboration to build trust, reinforce growth potential, and ensure continuous aftermarket support through integrated partnerships.
Innovation Drivers and Technological Advancements
More than 50% of industry investments target advanced combustion efficiency, sustainable fuels, and lightweight alloys. Manufacturers focus on innovation to improve thrust-to-weight ratios and reduce emissions. Rapid technological advancements position companies for long-term growth, as sustainability and operational efficiency remain top priorities driving aerospace expansion across civil and defense segments.
Regional Momentum and Expansion
North America and Europe together contribute over 65% of market presence, driven by fleet modernization and defense funding. Asia-Pacific shows accelerated growth at above 20%, fueled by rising aircraft deliveries. Regional expansion strategies focus on joint ventures and partnerships, while established firms emphasize collaboration to meet localized demand and strengthen aerospace supply chains.
Future Outlook
The next decade is projected to witness more than 70% of manufacturers prioritizing sustainable aviation fuel integration and digital optimization. Market strategies will pivot toward eco-friendly innovation, deeper partnerships, and strategic expansion into emerging economies. This direction reinforces a strong future outlook as gas turbine manufacturers align investments with long-term aerospace sustainability and efficiency benchmarks.
Key players in Aviation Gas Turbines Market include:
- CFM International
- Pratt & Whitney Division
- Rolls-Royce
- Engine Alliance
- Avio Aero
- International Aero Engines
- MTU Aero Engines
- NPO Saturn
- General Electric Aviation
- Power Jet
In this report, the profile of each market player provides following information:
- Company Overview and Product Portfolio
- Key Developments
- Financial Overview
- Strategies
- Introduction
- Research Objectives and Assumptions
- Research Methodology
- Abbreviations
- Market Definition & Study Scope
- Executive Summary
- Market Snapshot, By Capacity
- Market Snapshot, By Technology
- Market Snapshot, By Cycle
- Market Snapshot, By Sector
- Market Snapshot, By Region
- Aviation Gas Turbines Market Dynamics
- Drivers, Restraints and Opportunities
- Drivers
- Increasing Air Travel Demand
- Fuel Efficiency Requirements
- Technological Advancements
- Expansion of Low-Cost Carriers
- Military Modernization Programs
- Restraints
- High Initial Investment
- Rapid Technological Obsolescence
- Regu latory Compliance
- Slow Certification Processes
- Dependency on Aerospace OEMs
- Opportunities
- Rising Air Passenger Traffic
- Modernization of Existing Fleets
- Development of Next-Generation Engines
- Increasing Demand for Military Aircraft
- Growing Demand for Business Aviation
- Drivers
- PEST Analysis
- Political Analysis
- Economic Analysis
- Social Analysis
- Technological Analysis
- Porter's Analysis
- Bargaining Power of Suppliers
- Bargaining Power of Buyers
- Threat of Substitutes
- Threat of New Entrants
- Competitive Rivalry
- Drivers, Restraints and Opportunities
- Market Segmentation
- Aviation Gas Turbines Market, By Capacity, 2021 - 2031 (USD Million)
- 1-2 MW
- 2-5 MW
- 5-7.5 MW
- 7.5-10 MW
- 10-15 MW
- 15-20 MW
- 20-30 MW
- 30-40 MW
- 40-100 MW
- 100-150 MW
- 150-300 MW
- 300+ MW
- Aviation Gas Turbines Market, By Technology, 2021 - 2031 (USD Million)
- Heavy Duty
- Light Industrial
- Aeroderivative
- Aviation Gas Turbines Market, By Cycle, 2021 - 2031 (USD Million)
- Simple Cycle
- Combined Cycle
- Aviation Gas Turbines Market, By Sector, 2021 - 2031 (USD Million)
- Power Utilities
- Oil & Gas
- Manufacturing
- Aviation
- Others
- Aviation Gas Turbines Market, By Geography, 2021 - 2031 (USD Million)
- North America
- United States
- Canada
- Europe
- Germany
- United Kingdom
- France
- Italy
- Spain
- Nordic
- Benelux
- Rest of Europe
- Asia Pacific
- Japan
- China
- India
- Australia & New Zealand
- South Korea
- ASEAN (Association of South East Asian Countries)
- Rest of Asia Pacific
- Middle East & Africa
- GCC
- Israel
- South Africa
- Rest of Middle East & Africa
- Latin America
- Brazil
- Mexico
- Argentina
- Rest of Latin America
- North America
- Aviation Gas Turbines Market, By Capacity, 2021 - 2031 (USD Million)
- Competitive Landscape
- Company Profiles
- CFM International
- Pratt & Whitney Division
- Rolls-Royce
- Engine Alliance
- Avio Aero
- International Aero Engines
- MTU Aero Engines
- NPO Saturn
- General Electric Aviation
- Power Jet
- Company Profiles
- Analyst Views
- Future Outlook of the Market