|
Forecast
Period
|
2024-2028
|
|
Market
Size (2022)
|
USD
8.77 Billion
|
|
CAGR
(2023-2028)
|
5.46%
|
|
Fastest
Growing Segment
|
Amphibious
|
|
Largest
Market
|
North
America
|
Market Overview
Global Infantry Fighting Vehicle Market has valued
at USD 8.77 Billion in 2022 and is anticipated to project robust growth in the
forecast period with a CAGR of 5.46% through 2028. The Global Infantry Fighting
Vehicle (IFV) Market is an incredibly dynamic and highly competitive landscape,
with numerous players vying for dominance in this high-stakes industry. This
sector is renowned for its remarkable versatility, as IFVs serve as an integral
component of modern armored warfare. These advanced vehicles combine
cutting-edge technology, sophisticated defense strategies, and significant
geopolitical influence, shaping the future of military operations. They are
designed to provide enhanced mobility, firepower, and protection to infantry
forces, ensuring their effectiveness in a wide range of combat scenarios. As
nations continue to invest in the development and acquisition of advanced IFVs,
the market is expected to witness further growth and innovation, leading to new
capabilities and tactics that will define the evolution of modern warfare.
Infantry Fighting Vehicles (IFVs), which are widely
recognized for their exceptional mobility, firepower, and advanced protective
features, play a pivotal role in modern warfare scenarios. These heavily
armored vehicles are meticulously designed to provide superior combat
capabilities and ensure the safety of military personnel on the battlefield.
Equipped with cutting-edge technology and state-of-the-art weaponry, IFVs offer
an unparalleled combination of offensive and defensive capabilities, allowing them
to effectively engage enemy targets while providing cover and support to allied
forces. With their robust armor and tactical versatility, these formidable
machines serve as a crucial asset in military operations, adapting to various
terrains and combat situations with ease. From urban warfare to open fields,
IFVs excel in maneuverability, enabling rapid deployment and agile response in
dynamic battle environments. As military strategies continue to evolve, IFVs
remain at the forefront of modern warfare, delivering unparalleled combat
effectiveness and enhancing the capabilities of ground forces.
Looking ahead, the market for Infantry Fighting
Vehicles (IFVs) is projected to experience substantial growth in the coming
years. This growth can be attributed to escalating geopolitical tensions, which
have led to an increased focus on military modernization and defense
capabilities. With defense budgets worldwide showing a continuous increase,
governments are investing heavily in advanced combat systems, including IFVs,
to enhance their military capabilities.
Furthermore, the ever-growing demand for advanced
combat systems stems from the need to adapt to the evolving nature of warfare.
As conflicts become more complex and dynamic, there is a growing requirement
for IFVs that can operate effectively in various terrains and combat scenarios.
These vehicles are designed to provide enhanced protection, mobility, and
firepower to ground forces, thereby bolstering their operational effectiveness
on the battlefield.
In light of these developments, stakeholders in the
IFV market must have a comprehensive understanding of the market trends, key
players, and the various growth opportunities that lie ahead. This knowledge is
vital for making informed strategic decisions, such as investments in research
and development, partnerships, and market expansion. By staying abreast of the
latest developments and anticipating future trends, stakeholders can position
themselves to capitalize on the growing demand for IFVs and contribute to the
advancement of military capabilities worldwide.
By actively staying abreast of the latest
developments and emerging technologies in the Global Infantry Fighting Vehicle
Market, stakeholders can position themselves strategically and capitalize on
the growing demand for these advanced combat vehicles. This includes
continuously monitoring advancements in armor technology, weapon systems, and
mobility solutions. A deep understanding of the evolving needs of armed forces
and the changing dynamics of modern warfare is crucial. Additionally,
stakeholders should closely follow regulatory updates, geopolitical trends, and
market forecasts to make informed decisions. This comprehensive understanding
will enable them to navigate the complexities of this highly competitive
landscape and seize the numerous opportunities that arise in this ever-evolving
industry, ensuring long-term success and sustainable growth.
Key Market Drivers
Rising Demand for Commercial Aircraft
A prominent driver in the Global Aerostructures
Market is the increasing demand for commercial aircraft. The aerospace industry
has witnessed consistent growth in air travel, driven by factors such as
economic expansion, population growth, and the rise of the middle class in
emerging markets. As a result, airlines have been expanding their fleets and
placing substantial orders for new commercial aircraft.
This surge in demand directly impacts the need for
aerostructural components, which are essential for every aircraft.
Aerostructures encompass a wide range of components, including wings,
fuselages, empennages, landing gear, and nacelles. With airlines and aircraft
manufacturers striving to modernize and expand their fleets, the demand for
these components has surged.
Additionally, the aviation industry is
transitioning towards more fuel-efficient aircraft designs to meet
environmental regulations and reduce operating costs. Modern aircraft designs
rely on lightweight, high-strength aerostructures to improve fuel efficiency
and reduce emissions.
Leading aircraft manufacturers like Boeing and
Airbus are in fierce competition to develop the most advanced and
fuel-efficient commercial aircraft. This competition stimulates innovation and
investment in aerostructure technologies to support the next generation of
eco-friendly and cost-effective planes.
Technological Advancements in Aerostructures
Technological advancements in aerostructures are
another driving force in the Global Aerostructures Market. These innovations
encompass a spectrum of areas, from advanced materials and manufacturing
techniques to design methodologies and digital technologies.
Modern aircraft designs place a significant
emphasis on reducing weight to enhance fuel efficiency and overall performance.
As a result, advanced composite materials, such as carbon fiber-reinforced
composites and superalloys, have become essential in aerostructure design.
These materials offer high strength-to-weight ratios, making them ideal for
various components, including wings, fuselages, and landing gear.
Manufacturing processes have also evolved
significantly, with the advent of additive manufacturing and 3D printing. These
technologies enable complex and lightweight designs that were previously
difficult to achieve using traditional methods. Additive manufacturing also
allows for rapid prototyping and the creation of intricate structures,
enhancing the efficiency of aerostructure production.
Furthermore, digital technologies play a critical
role in aerostructure design and manufacturing. Computer-aided design (CAD) and
simulation tools enable engineers to optimize component shapes and structures
for maximum performance and minimal weight. Simulation and modeling also aid in
the development of aerostructures that meet stringent safety and quality
standards.
The integration of digital technologies, advanced
materials, and manufacturing techniques is expected to continue driving
innovation in aerostructures, allowing for lighter, more efficient, and
cost-effective designs.
Military Modernization and Expansion
The Global Aerostructures Market is significantly
driven by military modernization and expansion efforts worldwide. Governments
and defense organizations in various countries are increasing their investments
in new military aircraft development and production.
Military aircraft, which include fighter jets,
transport planes, reconnaissance aircraft, and helicopters, rely on advanced
aerostructures to meet the rigorous performance requirements of modern warfare.
These structures are vital for ensuring aircraft durability, agility, and
stealth capabilities.
The development of fifth-generation fighter
aircraft, such as the F-35 and the Chengdu J-20, has been a substantial driving
force in the military aviation sector. These advanced fighter jets require
cutting-edge aerostructures to support their advanced systems, including
stealth features, advanced avionics, and weapon systems.
In addition to fighter jets, countries are
investing in military transport aircraft for troop deployment, humanitarian
missions, and cargo transportation. These aircraft, such as the Airbus A400M
and the Boeing C-17 Globemaster III, rely on robust aerostructures to handle
heavy payloads and challenging missions.
The continued expansion of the military aircraft
sector, driven by geopolitical tensions and modernization needs, ensures a
steady demand for advanced aerostructures to support defense capabilities and
national security.
Environmental Regulations and Sustainability
Initiatives
The Global Aerostructures Market faces growing
pressures from environmental regulations and sustainability initiatives. The
aviation industry is under increasing scrutiny due to its environmental impact,
particularly in terms of greenhouse gas emissions and fuel consumption.
Aircraft manufacturers and airlines are actively
seeking ways to reduce the environmental footprint of air travel.
Aerostructures play a critical role in this effort, as they significantly
impact an aircraft's weight, aerodynamics, and fuel efficiency.
Lightweight aerostructures, which are central to
improving fuel efficiency, are becoming increasingly vital. Advanced materials,
such as carbon composites and lightweight alloys, are essential for reducing an
aircraft's weight without compromising structural integrity. This results in
lower fuel consumption, reduced emissions, and lower operating costs.
Moreover, the aerospace sector is exploring
sustainable and renewable materials for aerostructures, such as bio-based
composites and recyclable thermoplastics. These materials reduce the
environmental impact during production and disposal, aligning with global
efforts to make aviation more environmentally friendly.
The aerospace industry is also adopting sustainable
manufacturing processes, including the use of water-based adhesives and
coatings, to reduce hazardous chemical use in aerostructure production.
As governments worldwide implement stricter
emissions regulations and environmental standards, the emphasis on
sustainability in aerostructure design and manufacturing will remain a
significant driver for the aerospace industry.
Emerging Urban Air Mobility (UAM) and Electric
Aviation
The emergence of urban air mobility (UAM) and
electric aviation is an evolving trend in the Global Aerostructures Market. UAM
represents a transformative shift in aviation, with the potential to
revolutionize urban transportation and reduce traffic congestion. UAM vehicles,
including electric vertical takeoff and landing (eVTOL) aircraft, demand
innovative aerostructures designed for shorter, more frequent flights.
Electric aviation is another notable development.
Electric aircraft, including regional electric planes and urban air taxis, are
gaining attention for their potential to reduce carbon emissions and noise
pollution. These aircraft rely on aerostructures that accommodate electric
propulsion systems, battery integration, and lightweight designs.
The development of aerostructures for UAM and
electric aviation presents unique challenges, such as the need for quieter
designs, integration with urban infrastructure, and the optimization of
component materials and manufacturing processes to reduce weight and enhance
energy efficiency.
Aerostructure manufacturers are actively exploring
new designs and materials to meet these requirements. They are also
collaborating with vehicle manufacturers and aviation authorities to develop
aerostructures that align with the demands of UAM and electric aviation.
Download Free Sample Report
Key Market Challenges
Rapid Technological Evolution
One of the most prominent challenges facing the
Global Aerostructures Market is the rapid pace of technological evolution. The
aerospace industry is characterized by continuous advancements in materials,
manufacturing processes, and design methodologies. These innovations have a
cascading effect on aerostructures, demanding constant adaptation and
optimization.
New materials, such as advanced composites and
superalloys, offer higher strength-to-weight ratios and improved resistance to
extreme conditions. Aerostructures must incorporate these materials to enhance
aircraft performance and fuel efficiency.
Manufacturing processes have also evolved, with
additive manufacturing and 3D printing enabling complex and lightweight
designs. Aerostructure manufacturers must invest in state-of-the-art machinery
and processes to stay competitive and efficient.
Moreover, digital technologies, including augmented
reality, artificial intelligence, and automation, are becoming integral to
aerostructure design and production. The integration of these technologies
requires substantial investments and continuous training for the workforce.
The challenge lies in keeping pace with these rapid
technological changes. Manufacturers must allocate significant resources to
research and development, embrace new manufacturing techniques, and ensure that
their workforce possesses the necessary skills to implement these technologies
effectively.
Cost Pressures and Margin Squeeze
Cost pressures and margin squeeze are persistent
challenges for the Global Aerostructures Market. The aviation industry, driven
by competitive pricing and demand for fuel-efficient aircraft, is highly
cost-sensitive. Airlines and aircraft manufacturers expect cost-efficient
aerostructures without compromising quality, safety, or performance.
On the one hand, airlines demand lower operational
costs, prompting aircraft manufacturers to focus on lightweight aerostructures
that improve fuel efficiency. On the other hand, the manufacturing and assembly
of lightweight aerostructures can be costly, given the need for advanced
materials and complex production processes.
Additionally, the aerospace industry often operates
on tight profit margins, with significant upfront investments required for
research and development, tooling, and certification. Aerostructure
manufacturers must absorb these initial costs before realizing any returns on
investment.
To address these challenges, aerostructure
manufacturers must employ lean manufacturing practices, optimize supply chain
management, and seek cost-effective materials and processes. Collaboration with
suppliers and customers to streamline operations and control costs is essential
for long-term sustainability.
Stringent Regulatory Requirements
Stringent regulatory requirements are a fundamental
challenge in the Global Aerostructures Market. Aviation authorities, such as
the Federal Aviation Administration (FAA) in the United States and the European
Union Aviation Safety Agency (EASA) in Europe, impose strict safety, quality,
and certification standards on aerostructures.
These regulations cover various aspects, including
materials, manufacturing processes, design, and airworthiness. Aerostructure
manufacturers must adhere to these standards to ensure the safety of aircraft
and passengers.
Compliance with regulatory requirements can be
arduous, requiring extensive testing, documentation, and quality control
measures. Any deviation from these standards can result in costly delays,
redesigns, or even product recalls.
Moreover, the regulatory landscape is continuously
evolving, with new requirements emerging to address emerging challenges, such
as cybersecurity and environmental sustainability. Aerostructure manufacturers
must remain agile and adaptive to stay compliant with evolving regulations.
Navigating the complexities of regulatory
requirements is a perpetual challenge that demands rigorous attention to
detail, a commitment to safety, and substantial investments in compliance
procedures and documentation.
Global Supply Chain Disruptions
The Global Aerostructures Market is highly
susceptible to disruptions in the global supply chain, as evidenced by recent
events, including the COVID-19 pandemic and geopolitical tensions.
Aerostructure manufacturers depend on a vast and interconnected network of
suppliers, making them vulnerable to interruptions in the flow of materials and
components.
Supply chain disruptions can result from various
factors, including natural disasters, geopolitical conflicts, economic
instability, and, as experienced with the pandemic, public health crises. These
disruptions can lead to delays in production, increased costs, and difficulties
in maintaining consistent quality.
Additionally, changes in global trade policies,
export controls, and tariffs can disrupt supply chains and increase costs,
particularly for international aerostructure manufacturers.
To mitigate these challenges, aerostructure
manufacturers must diversify their supplier base, assess risks in the supply
chain, and establish contingency plans. Localizing production and fostering
regional supplier relationships can enhance supply chain resilience.
The challenge lies in balancing the benefits of a
global supply chain, such as cost efficiency and access to specialized
components, with the risks of potential disruptions and uncertainties.
Environmental Sustainability and Regulatory
Pressures
Environmental sustainability and regulatory
pressures pose a significant challenge to the Global Aerostructures Market. The
aviation industry faces increasing scrutiny due to its environmental impact,
particularly in terms of greenhouse gas emissions and fuel consumption.
Aircraft are under pressure to reduce emissions and
improve fuel efficiency. This directly affects aerostructures, as lightweight
components are central to achieving these goals. Reducing an aircraft's weight
is an effective way to enhance fuel efficiency, but it requires advanced
materials and design strategies.
Moreover, regulatory bodies are implementing
stricter emissions standards, including limits on noise pollution and emissions
in densely populated areas. These standards necessitate quieter and more
environmentally friendly aircraft, influencing the design of aerostructures,
such as landing gear, engine nacelles, and airframe components.
Aerostructure manufacturers must address these
challenges by investing in research and development to create sustainable and
environmentally friendly materials and components. This includes the
development of new composites, more efficient manufacturing processes, and a
focus on end-of-life recycling and disposal.
Balancing environmental sustainability with the
economic realities of the aerospace industry is a complex challenge.
Manufacturers must continuously innovate to meet sustainability goals while
ensuring that aircraft remain cost-effective and competitive.
Key Market Trends
Advanced Composite Materials and Lightweight
Structures
A prominent trend in the Global Aerostructures
Market is the growing adoption of advanced composite materials and lightweight
structures in aircraft design and manufacturing. Modern aerospace engineers are
increasingly turning to innovative materials to reduce aircraft weight and
improve fuel efficiency.
Advanced composite materials, such as carbon
fiber-reinforced composites and superalloys, offer a high strength-to-weight
ratio, making them ideal for aerostructure components. These materials are
commonly used in manufacturing wings, fuselages, empennages, and various other
parts. They contribute to weight reduction, leading to lower fuel consumption,
extended range, improved aerodynamics, and overall cost savings.
Furthermore, lightweight structures are integral to
the development of more fuel-efficient aircraft. By reducing the overall weight
of the aircraft, manufacturers can improve fuel efficiency and reduce
emissions, aligning with environmental regulations and the aviation industry's
sustainability goals.
The trend toward lightweight aerostructures is
expected to continue as the aerospace industry strives to enhance aircraft
performance and reduce operating costs. This trend necessitates ongoing
research into new materials and advanced manufacturing techniques to maintain a
competitive edge.
Integration of Digital Technologies
The integration of digital technologies is a
transformative trend in the Global Aerostructures Market. These technologies
are being leveraged across the entire spectrum of aerostructure design,
manufacturing, and maintenance to improve efficiency, precision, and
cost-effectiveness.
Computer-Aided Design (CAD): CAD software enables
engineers to create detailed 3D models of aerostructures, which facilitates
accurate design and virtual testing. It allows for the visualization of complex
structures and ensures that components fit together seamlessly, reducing errors
and improving design efficiency.
Simulation and Analysis: Simulation tools play a
crucial role in assessing the performance of aerostructures under various
conditions. Engineers can use these tools to identify potential issues,
optimize designs, and reduce the need for costly physical testing.
Augmented Reality (AR) and Virtual Reality (VR): AR
and VR technologies are being used to enhance the training and work of assembly
line workers. They provide interactive guidance, improving assembly accuracy
and reducing errors during the manufacturing process.
Artificial Intelligence (AI) and Machine Learning
(ML): AI and ML are being employed for predictive maintenance, fault detection,
and process optimization. These technologies can predict maintenance needs,
detect anomalies, and optimize manufacturing processes, contributing to cost
savings and improved safety.
Digital Twins: Digital twins, which are virtual
replicas of aircraft and aerostructures, are used for real-time monitoring and
maintenance. They provide insights into the condition of aircraft and
aerostructures, allowing for timely maintenance and reducing downtime.
The integration of these digital technologies is
expected to continue revolutionizing aerostructure design and manufacturing,
enhancing precision, reducing costs, and improving overall quality.
Global Collaboration and Supply Chain Optimization
Global collaboration and supply chain optimization
are critical trends in the Global Aerostructures Market. With the aerospace
industry operating on a global scale, aircraft and aerostructure manufacturers
are actively seeking partnerships and collaborations with suppliers from around
the world to ensure a reliable and efficient supply chain.
Aerostructure manufacturing often involves a
complex network of suppliers providing various components and subassemblies.
Collaboration with these suppliers is essential to ensure that parts are
delivered on time, adhere to quality standards, and meet cost expectations.
Efficient collaboration helps avoid production delays and cost overruns.
Additionally, the global nature of the aerospace
industry necessitates a well-optimized and interconnected supply chain.
International suppliers offer a wide range of components and materials, and
their inclusion in the supply chain provides benefits such as cost savings,
specialized expertise, and access to unique materials.
Aerospace manufacturers are increasingly leveraging
digital supply chain management tools to enhance visibility and traceability.
The use of the Internet of Things (IoT), blockchain technology, and data
analytics allows for real-time tracking of components, reducing the risk of
disruptions and ensuring quality control.
The trend of global collaboration and supply chain
optimization enables manufacturers to tap into a broader network of suppliers,
access cost-efficient components, and enhance the overall efficiency and
resilience of the aerostructures supply chain.
Renewable and Sustainable Materials
The adoption of renewable and sustainable materials
is a growing trend in the Global Aerostructures Market. As environmental
concerns and regulatory pressures continue to increase, the aerospace industry
is actively seeking materials and processes that reduce the environmental
footprint of aircraft and aerostructures.
Sustainable materials, such as bio-based
composites, natural fibers, and recyclable thermoplastics, are being explored
as alternatives to traditional materials. These materials offer reduced
environmental impact in terms of production, disposal, and recycling.
The concept of circular economy principles is
gaining momentum in the aerospace industry. This approach focuses on reducing
waste, reusing materials, and recycling components at the end of their
operational life. Sustainable aerostructures are designed with the intention of
recycling and repurposing as many components as possible.
The aerospace sector is also investigating green
manufacturing processes and reducing the use of hazardous chemicals in
aerostructure production. Sustainable practices, such as water-based adhesives
and coatings, contribute to a cleaner and more environmentally friendly
manufacturing process.
The trend of adopting renewable and sustainable
materials aligns with global efforts to reduce greenhouse gas emissions, limit
waste, and ensure the long-term sustainability of the aerospace industry. It
represents a commitment to environmental responsibility while maintaining
aircraft performance and safety.
Focus on Urban Air Mobility (UAM) and Electric
Aviation
The focus on urban air mobility (UAM) and electric
aviation is an emerging trend in the Global Aerostructures Market. UAM
represents a new paradigm in aviation, with the potential to transform urban
transportation and reduce traffic congestion. UAM vehicles, such as electric
vertical takeoff and landing (eVTOL) aircraft, demand innovative aerostructures
designed for shorter, more frequent flights.
Electric aviation is another significant
development. Electric aircraft, including regional electric planes and urban
air taxis, are gaining attention due to their potential for reduced carbon
emissions and noise pollution. These aircraft rely on aerostructures that
accommodate electric propulsion systems, battery integration, and lightweight
designs.
The development of aerostructures for UAM and
electric aviation poses unique challenges, including the need for quieter
designs, urban infrastructure integration, and the optimization of component
materials and manufacturing processes to reduce weight and enhance energy
efficiency.
Aerostructure manufacturers are actively exploring
new designs and materials to meet these requirements. They are also working
closely with vehicle manufacturers and aviation authorities to develop
aerostructures that align with the demands of UAM and electric aviation.
Segmental Insights
Type Analysis
The global Infantry Fighting Vehicle (IFV) market
is a burgeoning field driven by factors such as increased conflicts,
geopolitical tensions, and the ongoing modernization of military forces around
the world. The market encompasses a wide variety of products, from traditional
tracked vehicles to the latest wheeled designs, and includes major players from
both the defense industry and the technological sector. The growth of the IFV
market is expected to be robust in the coming years, with particular expansion
in regions undergoing significant military modernization or facing heightened
security threats.
Application Analysis
The global Infantry Fighting Vehicle Market is a
dynamic sphere that exhibits considerable growth potential. This market is
driven by numerous factors including technological advancements, increased
defence budgets of various nations, and escalating conflicts worldwide. The
demand for these vehicles is particularly strong in regions characterized by
geopolitical tension. However, the development and procurement of Infantry
Fighting Vehicles are also associated with significant costs, which may prove
to be a deterrent for certain economies. Future trends in this market are
likely to revolve around the integration of advanced systems for increased
operational effectiveness, enhanced safety measures, and efforts to reduce the
overall cost of these vehicles.
Download Free Sample Report
Regional Insights
The global Infantry Fighting Vehicle (IFV) market
exhibits regional disparities due to varying defense budgets, geopolitical
scenarios, and technical advancements. In North America, the market is driven
by substantial defense expenditure, with the United States leading in the
adoption of technologically sophisticated IFVs. Europe, particularly countries
like Germany and Russia, exhibits robust growth due to the ongoing
modernization of military equipment. The Asia-Pacific region, led by China and
India, is expected to observe significant growth due to escalating border
tensions and increasing defense budgets. Conversely, regions such as Latin
America and Africa, with relatively low defense spending, might witness slow
growth in the IFV market.
Recent Developments
- March 2023: Australian and German officials signed
an agreement to cooperate on the procurement of the new combat reconnaissance
vehicles, based on the Boxer family of armored fighting vehicles and equipped
with a 30-millimeter gun. The deliveries will start in 2025.
- December 2022: Japan selected Patria-built armored
modular vehicles (AMV) to replace the Type-96 8X8 wheeled armored personnel
carriers of the Japan Ground Self-Defense Force.
Key Market Players
- General Dynamics Corporation
- Rheinmetall AG
- BAE Systems plc
- Textron Inc.
- Elbit Systems Ltd.
- Oshkosh Corporation
- Nexter Group
- Denel SOC Ltd.
- FNSS Savunma Sistemleri A.Ş.
- BMC Otomotiv Sanayi ve Ticarest AS
By Type
|
By
Configuration
|
By
Application
|
By Region
|
|
|
|
- Combat
- Armored
Reconnaissance
- Others
|
- North
America
- Europe &
CIS
- Asia Pacific
- South
America
- Middle East
& Africa
|
Report Scope:
In this report, the Global Infantry Fighting
Vehicle Market has been segmented into the following categories, in addition to
the industry trends which have also been detailed below:
- Infantry Fighting Vehicle Market, By Type:
o Wheeled
o Tracked
- Infantry Fighting Vehicle Market, By Configuration:
o Amphibious
o Non-Amphibious
- Infantry Fighting Vehicle Market, By Application:
o Combat
o Armored Reconnaissance
o Others
- Infantry Fighting Vehicle Market, By Region:
o Asia-Pacific
§ China
§ India
§ Japan
§ Indonesia
§ Thailand
§ South Korea
§ Australia
o Europe & CIS
§ Germany
§ Spain
§ France
§ Russia
§ Italy
§ United Kingdom
§ Belgium
o North America
§ United States
§ Canada
§ Mexico
o South America
§ Brazil
§ Argentina
§ Colombia
o Middle East & Africa
§ South Africa
§ Turkey
§ Saudi Arabia
§ UAE
Competitive Landscape
Company Profiles: Detailed analysis of the major companies present in the Global Infantry
Fighting Vehicle Market.
Available Customizations:
Global Infantry Fighting Vehicle Market report
with the given market data, Tech Sci Research offers customizations according
to a company's specific needs. The following customization options are
available for the report:
Company Information
- Detailed analysis and profiling of additional
market players (up to five).
Global Infantry Fighting Vehicle Market is an
upcoming report to be released soon. If you wish an early delivery of this
report or want to confirm the date of release, please contact us at [email protected]