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Impact of Future Technologies on the Global Defense Market, 2019–2029

Impact of Future Technologies on the Global Defense Market, 2019–2029

A Number of Intertwined Technological Areas are Advancing in Synergy, Creating a Level of Mutual Dependency that will Transform the Future Battlespace

RELEASE DATE
28-Jun-2019
REGION
Global
Deliverable Type
Market Research
Research Code: ME71-01-00-00-00
SKU: AE01354-GL-MR_23315
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AE01354-GL-MR_23315

Impact of Future Technologies on the Global Defense Market, 2019–2029
Published on: 28-Jun-2019 | SKU: AE01354-GL-MR_23315

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Description

This is an age of rapid technological change, with new lines of thought driving novel innovations and business models. As a result, limitations are beginning to emerge in the technological capabilities of the current military to counter new threats. The emergence of new technologies has exposed military forces to new vulnerabilities, which requires new strategies to deal with a level of threat that has become more lethal, diverse, hybrid, and versatile. The defense industry is in the early stages of transition. Previously, research in the sector was driven by military investment and its benefits were conferred first to the military space before others. However, research is now being driven by civilian investment, resulting in a paradigm shift. This is having an effect on how technologies are being developed, with dual-use technologies becoming more prevalent on the battlefield, where new combinations of existing technologies are being combined in novel ways to achieve the desired capabilities.

Development of new technologies in the defense market by civilian companies has been able to outpace the traditional incumbents in the defense market due to a number of factors. Traditionally, development of technologies in the defense market was characterized by long development cycles, where there was a need for reliable, robust, and complex systems with dependence on public funding. On the contrary, modern commercial companies are characterized by faster innovation loops and increasing private investment. They focus on rapid prototyping and testing with short lead times to production. This philosophy of modern commercial companies drives rapid innovation and development.

Future technological advancements will be increasingly interlinked, wherein the advancements in one technology spur the development on adjacent and complementary technologies. Anticipating the future of the armed forces requires the tracking of all these interlinked technologies, as a breakthrough in any technology can have a positive or negative impact on a related technology. As commercially developed technologies are not dependent on defense funding, they usually cross over into different sectors. These companies may not even be aware of the implications that their technology would have on the defense sector; hence, it is not the technology that determines technological superiority on the battlefield, but rather the doctrine that deploys these technologies that exploits them to their maximum potential.

As a consequence, potential future technologies need to be assessed early in a new product development and production cycle to maximize the impact and minimize the risk. This means current technological trends and developments need to be constantly monitored and evaluated, with a broad-enough focus to venture beyond immediate defense research and cross over into civilian research with dual-use potential. Convergence of multi-disciplinary technologies, such as information technologies, robotics, artificial intelligence, nanotechnology, and meta-materials, will have a wide variety of civilian and military applications.

Infographic
Table of Contents

Key Findings

Key Findings (continued)

CEO’s Perspective

Questions that the Study Should Answer

Technology Groups

Key Technologies

Key Technologies (continued)

Key Technologies (continued)

Key Technologies (continued)

Research Countries

Energy Generation—Small Modular Reactors (SMR)

Energy Generation—Small Modular Reactors (SMR) (continued)

Energy Generation—Small Modular Reactors (SMR) (continued)

Energy Generation—Transparent Photovoltaic Glass

Energy Generation—Transparent Photovoltaic Glass (continued)

Energy Generation—Transparent Photovoltaic Glass (continued)

Energy Storage

Energy Storage (continued)

Energy Storage (continued)

Propulsion—Electric and Pulse Detonation Engine (PDE)

Propulsion—Electric and Pulse Detonation Engine (PDE) (continued)

Propulsion—Electric and Pulse Detonation Engine (PDE) (continued)

Propulsion—Hypersonic Propulsion

Propulsion—Hypersonic Propulsion (continued)

Propulsion—Hypersonic Propulsion (continued)

Directed Energy Weapon (DEW)

Directed Energy Weapon (DEW) (continued)

Directed Energy Weapon (DEW) (continued)

Communication—Millimeter-wave Communications (5G)

Communication—Millimeter-wave Communications (5G) (continued)

Communication—Millimeter-wave Communications (5G) (continued)

Communication—MANET Mesh Network

Communication—MANET Mesh Network (continued)

Communication—MANET Mesh Network (continued)

Communication—SATCOM on the Move (SOTM)

Communication—SATCOM on the Move (SOTM) (continued)

Communication—SATCOM on the Move (SOTM) (continued)

Communication—Free Space Optics (FSO)

Communication—Free Space Optics (FSO) (continued)

Communication—Free Space Optics (FSO) (continued)

Computation—Cloud Computing

Computation—Cloud Computing (continued)

Computation—Cloud Computing (continued)

Computation—Quantum Computing

Computation—Quantum Computing (continued)

Computation—Quantum Computing (continued)

Artificial Intelligence—Big Data Analytics

Artificial Intelligence—Big Data Analytics (continued)

Artificial Intelligence—Big Data Analytics (continued)

Artificial Intelligence—Artificial Neural Network (ANN)

Artificial Intelligence—Artificial Neural Network (ANN) (continued)

Artificial Intelligence—Artificial Neural Network (ANN) (continued)

Artificial Intelligence—Manned Unmanned Teaming (MUM-T)

Artificial Intelligence—Manned Unmanned Teaming (MUM-T) (continued)

Artificial Intelligence—Manned Unmanned Teaming (MUM-T) (continued)

Artificial Intelligence—Swarm Robotics

Artificial Intelligence—Swarm Robotics (continued)

Artificial Intelligence—Swarm Robotics (continued)

Human Machine Interfaces and Neuroscience—Mixed Reality

Human Machine Interfaces and Neuroscience—Mixed Reality (continued)

Human Machine Interfaces and Neuroscience—Mixed Reality (continued)

Human Machine Interfaces and Neuroscience—Exoskeletons

Human Machine Interfaces and Neuroscience—Exoskeletons (continued)

Human Machine Interfaces and Neuroscience—Exoskeletons (continued)

Human Machine Interfaces and Neuroscience—Neuroelectronics

Human Machine Interfaces and Neuroscience—Neuroelectronics (continued)

Human Machine Interfaces and Neuroscience—Neuroelectronics (continued)

Blockchain in Cybersecurity

Blockchain in Cybersecurity (continued)

Blockchain in Cybersecurity (continued)

Metamaterials

Metamaterials (continued)

Metamaterials (continued)

Nanomaterials and Smart Materials

Nanomaterials and Smart Materials (continued)

Nanomaterials and Smart Materials (continued)

Additive Manufacturing (3D Printing)

Additive Manufacturing (3D Printing) (continued)

Additive Manufacturing (3D Printing) (continued)

Sensors—Gallium Nitride (GaN)

Sensors—Gallium Nitride (GaN) (continued)

Sensors—Gallium Nitride (GaN) (continued)

Sensors—Photonics

Sensors—Photonics (continued)

Sensors—Photonics (continued)

Sensors—Micro-electromechanical Systems (MEMS)

Sensors—Micro-electromechanical Systems (MEMS) (continued)

Sensors—Micro-electromechanical Systems (MEMS) (continued)

Bionic Implants

Bionic Implants (continued)

Bionic Implants (continued)

Synthetic Biology

Synthetic Biology (continued)

Synthetic Biology (continued)

Growth Opportunity 1—Energy storage

Growth Opportunity 2—Hypersonic Propulsion

Growth Opportunity 3—Millimeter-wave Communications (5G)

Growth Opportunity 4—Metamaterials

Strategic Imperative for Success and Growth

Conclusion

Legal Disclaimer

Additional Sources

Additional Sources (continued)

Additional Sources (continued)

Additional Sources (continued)

Additional Sources (continued)

Additional Sources (continued)

Additional Sources (continued)

Additional Sources (continued)

Additional Sources (continued)

The Frost & Sullivan Story

Value Proposition—Future of Your Company & Career

Global Perspective

Industry Convergence

360º Research Perspective

Implementation Excellence

Our Blue Ocean Strategy

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This is an age of rapid technological change, with new lines of thought driving novel innovations and business models. As a result, limitations are beginning to emerge in the technological capabilities of the current military to counter new threats. The emergence of new technologies has exposed military forces to new vulnerabilities, which requires new strategies to deal with a level of threat that has become more lethal, diverse, hybrid, and versatile. The defense industry is in the early stages of transition. Previously, research in the sector was driven by military investment and its benefits were conferred first to the military space before others. However, research is now being driven by civilian investment, resulting in a paradigm shift. This is having an effect on how technologies are being developed, with dual-use technologies becoming more prevalent on the battlefield, where new combinations of existing technologies are being combined in novel ways to achieve the desired capabilities. Development of new technologies in the defense market by civilian companies has been able to outpace the traditional incumbents in the defense market due to a number of factors. Traditionally, development of technologies in the defense market was characterized by long development cycles, where there was a need for reliable, robust, and complex systems with dependence on public funding. On the contrary, modern commercial companies are characterized by faster innovation loops and increasing private investment. They focus on rapid prototyping and testing with short lead times to production. This philosophy of modern commercial companies drives rapid innovation and development. Future technological advancements will be increasingly interlinked, wherein the advancements in one technology spur the development on adjacent and complementary technologies. Anticipating the future of the armed forces requires the tracking of all these interlinked technologies, as a breakthrough in any technology can have a positive or negative impact on a related technology. As commercially developed technologies are not dependent on defense funding, they usually cross over into different sectors. These companies may not even be aware of the implications that their technology would have on the defense sector; hence, it is not the technology that determines technological superiority on the battlefield, but rather the doctrine that deploys these technologies that exploits them to their maximum potential. As a consequence, potential future technologies need to be assessed early in a new product development and production cycle to maximize the impact and minimize the risk. This means current technological trends and developments need to be constantly monitored and evaluated, with a broad-enough focus to venture beyond immediate defense research and cross over into civilian research with dual-use potential. Convergence of multi-disciplinary technologies, such as information technologies, robotics, artificial intelligence, nanotechnology, and meta-materials, will have a wide variety of civilian and military applications.
More Information
Deliverable Type Market Research
No Index No
Podcast No
Author Ryan Pinto
Industries Aerospace, Defence and Security
WIP Number ME71-01-00-00-00
Is Prebook No
GPS Codes 9000-A1