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Edge Computing: The Key to Amplifying IoT Infrastructure and Empowering Military Missions


In today’s interconnected world, the Internet of Things (IoT) has become an integral part of our daily lives, transforming industries and revolutionizing how we interact with technology. As the number of connected devices continues to grow, so does the need for efficient and powerful infrastructure to support their operations. This is where edge computing emerges as a game-changer, offering a decentralized computing paradigm that brings computation and data storage closer to the source. In this article, we explore how edge computing is the key to amplifying IoT infrastructure and empowering military missions.


Understanding requirements of Cloud and Edge Computing

Humanity is now generating more data than it can handle; more sensors, smartphones, and devices of all types are coming online every day and contributing to the ever-growing global dataset. The current estimate for the amount of data generated in one year is around 40 zettabytes (or about 2.5 billion times more data than is contained in the library of Congress).


Additionally, the increased use of edge devices—from the Internet of Things (IoT) devices, such as smart cameras, mobile point-of-sale kiosks, medical sensors, and industrial PCs to gateways and computing infrastructure will require real-time smart data processing in addition to capable connectivity and communication. This is driving exponential growth in the amount of data generated and collected.


Over the past decades, cloud computing has been greatly developed and applied owing to its high cost-efficiency and flexibility achieved through consolidation, in which computing, storage, and network management functions work in a centralized manner.  The increase of IoT devices at the edge of the network is producing a massive amount of data to be computed at data centers, pushing network bandwidth requirements to the limit. Despite the improvements of network technology, data centers cannot guarantee acceptable transfer rates and response times, which could be a critical requirement for many applications.  Mobile devices connected to distant centralized cloud servers try to obtain sophisticated applications, which impose additional load on both Radio Access Networks (RANs) and backhaul networks and result in high latency.


It’s estimated that by 2025, 75 percent of data will be created outside of central data centers, where most processing takes place today. Taking this a step further, approximately 90 percent of all data collected by enterprises today will never be used. Edge computing provides a path to reap the benefits of data collected from devices through high-performance processing, low-latency connectivity, and secure platforms.


The emerging IoT introduces new challenges, such as stringent latency, capacity constraints, resource-constrained devices, uninterrupted services with intermittent connectivity, and enhanced security, which cannot be adequately addressed by the centralized cloud computing architecture.


Next-generation networks will require the support of interactive AI-powered services and some services like autonomous vehicles are sensitive to response latency, which needs to interact intelligently with their environments in real-time. A promising solution is known as “edge computing” is emerging that refers to the storage, processing, and analysis of data nearer to the edge of a user’s network, wherein the data is generated to enable rapid, near real-time analysis and response. Edge computing technology moves the computation away from centralized data centers by exploiting smart objects, mobile phones, or network gateways to perform tasks and provide services on behalf of the cloud.

For in-depth understanding on Cloud &Edge technology and applications please visit:    Cloud & Edge Computing: Maximizing the Benefits of Both Worlds

Although the computing capabilities of wearable watches, smartphones, and other IoT devices have been significantly improved, they are still constrained by fundamental challenges, such as memory size, battery life, and heat dissipation.  Mobile devices need to extend battery lifetime by offloading energy-consuming computation of applications to the edge of networks. Edge application services reduce the volumes of data that must be moved, the consequent traffic, and the distance that data must travel. That provides lower latency and reduces transmission costs.


Edge computing is a networking solution that reduces the number of processes running on the cloud and moves them to local devices, such as the user’s computer, an IoT device, or an edge server. It minimizes the amount of long-distance communication between the client and the server, which decreases latency and improves process efficiency. Consequently, several organizations are adopting edge computing as it lowers bandwidth use, associated costs, and server resources


Such a capability would allow us to analyze this information effectively and, in turn, discover solutions to some of our most pressing problems, from traffic congestion to the spread of disease to clean energy alternatives. This offers superior control and management of the data, while cutting down on operational costs.


Securing sensitive data, such as private medical records, at the edge and transmitting less data across the internet could help increase security by reducing the risk of interception. In addition, some governments or customers may require that data remain in the jurisdiction where it was created. In healthcare, for example, there may even be local or regional requirements to limit the storage or transmission of personal data.


Lack of persistent internet connectivity can impede cloud computing, but a variety of network connectivity options make edge-to-cloud computing feasible. For example, 5G provides a high-bandwidth, low-latency connection for rapid data transfer and service delivery from the edge. The amount of data that networks can transmit at one time is limited. For locations with subpar internet connectivity, being able to store and process data at the edge improves reliability when the cloud connection is disrupted.


Edge computing is more suitable to be integrated with IoT to provide efficient and secure services for a large number of end-users, and edge computing-based architecture can be considered for the future IoT infrastructure.  IoT and edge computing devices collect data and manage it in one of two main ways. Intelligent edge computing devices with built-in processors may offer advanced capabilities like analytics or AI onboard, while devices without processors send the data they generate to a server deployed at the on-premises edge for storage and analysis.


An on-premises edge server can then process data from the edge computing devices and return critical information needed for near real-time applications or send only the relevant portions of the data to the cloud. Data from numerous edge computing devices can be consolidated in the cloud for more extensive processing and analysis.

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Enhancing IoT Infrastructure with Edge Computing

Traditional cloud computing models may struggle to handle the massive amounts of data generated by IoT devices. Edge computing offers a solution by moving data processing and storage closer to the edge of the network, reducing latency and enabling real-time insights. With edge computing, IoT devices can perform local data processing, making near-instantaneous decisions and reducing reliance on centralized cloud infrastructure. This not only enhances the efficiency of IoT operations but also improves reliability, as local processing can continue even in the event of network disruptions.


Enabling Mission-Critical Military Operations

In military operations, where split-second decisions can make all the difference, edge computing plays a crucial role in empowering the armed forces. By deploying edge computing infrastructure at the tactical edge, military missions can benefit from low-latency data processing, real-time analytics, and localized decision-making. Edge computing allows military personnel to leverage the power of IoT devices, such as drones, sensors, and surveillance systems, to collect and analyze data in real-time, providing invaluable situational awareness on the battlefield. This empowers military units to make informed decisions swiftly, improving response times and overall mission effectiveness.

Acute needs of edge devices are readily identified within the customs and border protection (CBP), where agents controlling illicit drugs and contraband can immediately make decisions instead of communicating with other data centers. With the opioid crisis, the number of sensors will inevitably increase, and EC devices with sufficient computing power and rapid communication rate can provide critical decision-making.


For chemical and biological sensors, real-time data acquisition, rapid processing, and computing are necessary. If the sensor output can be processed locally, instead of being sent to a different location, better mitigation and remediation can be achieved. A closely related EC-use case is the need for intelligent surveillance cameras. With the tremendous need for chem-bio standoff detection, the ability to collect molecular spectral data in addition to visual information would revolutionize surveillance technologies. Aided with AI, EC surveillance cameras will be capable of processing the local streaming and only communicate specific detection results rather than continuous submission of the data. Upon reception, the cloud could then send the EC device new instructions, including programming to different functionalities.


Edge computing advances life-saving possibilities for war­fighters and the defense community. From warfighters to first responders and border patrol troops—edge solutions improve performance and minimize risk to those who are putting themselves on the line. Individuals and teams can now make safe, smart decisions without having to wait for information from the central command.


In fact, edge technology has already been used in the Air Force’s F-35, Army’s Digital Soldier, and other budding naval applications. For some time, the concepts underlying edge computing have been powering the most advanced combat aircraft ever created: the F-35. By way of sensors on each platform, F-35 systems assess the environment, fuse data with other F-35 aircraft, and then distribute a single picture of data across the planes. This all happens automatically, while planes fly in formation, by using a multifunction advanced data link (MADL). Here’s how the platform works: When flying in a squadron of four or eight jets, MADL uses high bandwidth to connect and share environmental data between each participating F-35s. It automatically links their systems and their shared sensor data to create a uniform analysis of any threats, targets, or unforeseen change to the airspace—more complete than any one aircraft could gather on its own.


Chris Bogdan, a leader in Booz Allen’s aerospace business, retired U.S. Air Force Lieutenant General, and the former Program Executive Officer for the F-35 Lightning II Joint Program Office, shared a powerful example. He witnessed how a Naval ship shot down an incoming missile using information from a linked F-35 flying beyond the ship’s tracking system range. According to Chris, the use of MADL between the F-35 and the ship allowed the aircraft to pass missile tracking data in real-time enabling the ship to deploy countermeasure to eliminate the threat before it came within range of the ship. Prior to the existence of the MADL technology this type of coordination would occur by relaying approximation from the aircraft pilot, through a command center, and then onto the ship cutting into the time to respond.


While edge computing can and should be used on mechanical platforms like the F-35, Army tanks, or unmanned drones, it’s also being used on these millions of boots on the ground. Since we know ultimately, the edge of the combat area is this “human” platform. Thanks to edge computing, troops have access to insights in remote locations with little connectivity. Weather conditions, machine performance data, and other sensitive information can now be turned into actionable decision-making. As possibilities at the edge advance, these applications continue to expand.


Advances in edge computing are now leading to what the Army calls “Digital Soldier.” Digital Soldier is all about using small, connected sensors that travel with soldiers to enable local data sharing and processing across network participants—and to provide individuals and squadrons with rapid information to ensure overmatch and safety. “When we think about Digital Soldier, the effect of networking is the n-squared—and this effect continues to increase as the number of network participants go up,” shared Greg Wenzel, leader of Booz Allen’s Army business and former service member in the National Guard. “At the end of the day, this ability to compute and process at the point of data capture, without needing to send raw data back for analysis, can save time—a lifesaving prospect for soldiers in the heat of mission operations. As we watch the Army develop these capabilities, we can see the immediate benefits of edge computing on creating more informed and faster squads in the field.”


In that way, Digital Soldier is trying to make Ironman without the suit: omniscient, highly digitized, more secure. When connected with nearby soldiers with sensors and other mechanical platforms, Digital Soldier will ultimately save lives and make missions significantly more effective. It will empower and inform. It will create a fuller picture without waiting for outdated information from a distant central command.


As the Defense Department explores new applications, data protection needs to advance along with the possibilities. Considering cyber basics, a smart backup strategy, connectivity and unique requirements for the technology’s footprint at the edge can ensure sensitive data information is reliable and secure. To ensure security at the edge, strong governance programs are key — beginning with an understanding of what data is being generated as well as how it is processed and transferred. All edge devices must be properly secured despite their less-central location and data should be encrypted at rest and in flight.


The department also needs to continue to evolve effective data backup and management strategy. The “3-2-1-1-0” rule suggests three copies of all data sets and information are kept on at least two different media. In addition, the locations should be distributed, with one copy stored offsite in case an entire region or facility is impacted. At least one copy of the data must be immutable, which is essential given the undetected, lingering threats that can be hidden on agency networks and the growth in ransomware.



Advantages of Edge Computing in Military Context

For the Defense Department, the definition of “edge” may vary from forward operating bases, through operating in theater, to naval vessels and beyond. In these remote locations, connectivity can become a major barrier.

  1. Reduced Latency: Edge computing minimizes the time it takes to transmit data to the cloud, enabling real-time decision-making and quicker response to critical events.
  2. Enhanced Security: With sensitive data processed and stored locally, edge computing reduces the risk of data breaches and unauthorized access, ensuring the confidentiality and integrity of military operations.
  3. Bandwidth Optimization: By processing data at the edge, only pertinent information is transmitted to the central cloud, optimizing bandwidth usage and reducing network congestion.
  4. Resilience in Challenging Environments: Edge computing ensures continuous operations even in disconnected or limited connectivity scenarios, making it ideal for military missions in remote or hostile environments.
  5. Scalability and Flexibility: Edge computing infrastructure can be rapidly deployed and scaled to support dynamic military operations, adapting to changing requirements on the fly.


If a warfighter becomes disconnected from crucial information, there could be a lag in decision-making or lack of vital information while government workers try to reconnect. Every moment disconnected is critical. This is another place where backup comes in. If the necessary information is available reliably and separately from the network at the edge, defense forces won’t need to depend on connectivity to be productive and complete missions. When warfighters become disconnected, they can operate offline and batch changes at the edge, then connect back to the network when possible. Depending on the need, edge-based deployment can asynchronously or sporadically back up at the edge. This flexibility cuts down disconnect times and increases agility in situations where network connectivity isn’t reliable.


Edge Computing Market

The global edge computing market size was valued at USD 11.24 billion in 2022 and is expected to expand at a compound annual growth rate (CAGR) of 37.9% from 2023 to 2030.


The edge computing market is growing rapidly, driven by the increasing demand for low-latency, real-time data processing and the growing number of connected devices and sensors in the Internet of Things (IoT) ecosystem. Edge computing refers to the processing and storage of data at the edge of the network, closer to the source of data generation, rather than in a centralized data center or cloud.


Given the benefits of edge computing, all the tech giants including Microsoft MSFT, Intel INTC, and Amazon AMZN are working on advancing edge computing technology, thereby intensifying the competition.


Edge computing demand is expected to rise in the post-COVID-19 pandemic over the next couple of years due to the continued emphasis on developing communications infrastructure. Working from home is quickly becoming the new normal.


Work from home becoming the new normal and the healthcare system reaching critical mass with online consultation is expected to give rise to such network infrastructure that requires low-latency connectivity and high security.


Healthcare and telecom sectors are seeing increased investments in edge and IoT. In addition, as the healthcare system gains traction through online consultations, a network design requiring high security and low-latency connectivity is expected to develop.


The telecom sector is witnessing high growth in video conferencing software such as Zoom and Microsoft Teams and is rolling out new products to cope with the ever-increasing demand. Telecom firms are expected to take advantage of the opportunity since the cost of adding extra switching capabilities or establishing full-sized data centers will outweigh the cost of edge facilities per unit. This cost advantage will aid telecom businesses in migrating to large-scale data center installations in the coming years.


The growth of the market is driven by several factors, including the increasing use of artificial intelligence (AI) and machine learning, the growing demand for real-time data processing, and the need for improved network efficiency and reduced latency.


In addition to the growth drivers mentioned above, the adoption of 5G technology is also expected to contribute to the growth of the edge computing market. 5G networks will enable organizations to process and analyze large amounts of data in real-time, further increasing the demand for edge computing solutions. Notably, rapid deployment of 5G, migration of workloads to cloud by enterprises and increased proliferation of IoT & AI is facilitating data processing at the edge.


Another factor driving the growth of the edge computing market is the increasing demand for data privacy and security. Edge computing solutions can help organizations keep sensitive data within their own networks, reducing the risk of data breaches and improving data privacy.


However, there are also some challenges that need to be addressed in order to fully realize the potential of edge computing. These include the lack of standardization and interoperability across different edge computing solutions, as well as the difficulty of managing and maintaining edge computing infrastructure.


Edge computing has become a solution-specific technology with exotic architectures and equipment that are built for particular use cases. 5G and network function virtualization, streaming games, and next-generation CDNs and cloud are some of the use cases where the edge is expected to capture a significant share over the forecast period. This is the first phase in a journey towards a future where the edge becomes readily available and a viable part of the internet with user-friendly interfaces for developers to exploit.


Edge computing adds a layer of complexity to organizations by enabling a diverse set of stakeholders to maintain IT infrastructures, networking, software development, traffic distribution, and service management. Edge also brings together hardware and software solutions and networking architecture that address the vast number of use cases pursued across several industry verticals. As the technology is still in the early stages of development and its implementation and operational models are yet to mature, an edge is likely to create vast growth opportunities for new entrants in the near future.


Despite these challenges, the edge computing market is expected to continue its growth in the coming years, as more organizations look to take advantage of the benefits of edge computing for their digital transformation initiatives. To stay competitive, companies will need to invest in new edge computing solutions and develop the skills and expertise necessary to take full advantage of this growing market.


Component Insights

In terms of components, the hardware segment seized a revenue share of more than 44% in 2022. The demand for hardware is gaining steam in the managed services industry and is predicted to account for the most significant market share over the forecast timeline.

As the number of IoT and IIoT devices grows quickly, the volume of data created by these devices is also increasing. Therefore, to deal with the volume of data created, enterprises are adopting edge computing gear to lessen the load on the cloud and data centers.

Presently, servers that support edge applications are often owned by enterprises, connected to devices over a private network, and deployed on-premises. Servers are increasingly being deployed at many remote and edge locations, thereby helping reduce the latency between producers and consumers of data. Furthermore, with the telco edge evolving, the telcos are working on Multi-access Edge Computing (MEC) server platform for the data processing capabilities.


The hardware segment is further bifurcated into Edge Nodes/Gateways (Servers), Sensors/Routers, and others, wherein the Edge Nodes/Gateways (Servers) segment accounted for a significant market share in 2022.


Moreover, the increasing number of data centers across various industries boosts the demand for edge routers, linking local and wide-area networks (WAN). The routers act as a gateway connecting the local network to external WAN. All the data packets approach the network to transmit through the edge router. Moreover, the edge router is eventually responsible for the security of the network, thereby screening out unauthorized access requests. The edge data centers must be well equipped with versatile and powerful edge routers that can handle a large capacity of incoming traffic with minimal latency.


Edge data centers must be well-equipped with flexible and powerful edge routers capable of handling a large volume of incoming traffic while maintaining low latency. The demand for secure and efficient data processing at the edge of the network is likely to boost the growth of the hardware segment during the forecast period.


Application Insights

The Industrial Internet of Things (IIoT) segment dominated the edge computing industry in terms of application. The segment captured a revenue share of over 29% in 2022. Edge computing has played an important role in allowing manufacturers to reach the goal of digitization of their facilities. A significant stake in edge computing is installed in the form of device edge in the manufacturing segment. The demand for edge infrastructure is projected to increase as service intricacy rises and edge infrastructure becomes more accessible.


Moreover, the Industry 4.0 initiative creates a framework for modernizing manufacturing concerning industry disruptions, preparing the path for edge deployment. Industry 4.0 encourages operational agility by using technologies that bring uniformity to the cyber and physical systems.


Smart factories can use edge platforms to transmit only processed data to their cloud servers. The edge works as a path by analyzing data locally and sending summarized data to the cloud. The edge acts as a gateway by analyzing data locally and sending summarized data to the cloud. For instance, in a smart factory, the edge systems can spontaneously reform certain problems proactively and then alert the plant operators to the issues on the factory floor.


The healthcare segment captured a significant revenue share in 2020. The healthcare industry has characteristically been conservative when it comes to the adoption of digital technologies. The industry is closely regulated, where innovation tends to be driven by consent rather than outright disruption. However, owing to the growing digitization across the healthcare sector, hospitals and clinics are increasingly adopting digital health strategies with varying degrees of maturity and success. To support these strategies, clinics and hospitals are implementing edge computing solutions across key use cases, including remote patient care, patient record management, and intervention and continuous patient monitoring.


The energy and utilities segment captured a revenue share of over 17% in 2020. In the energy and utilities segment, the implementation of smart grids is expected to contribute to revenue growth as they rely on device edge infrastructure. Environmental sustainability initiatives are driving efforts to improve the efficiencies of electrical utility services globally along with the adoption of alternative renewable power sources, such as wind and solar. Smart grids are being implemented globally to improve operational efficiencies and enable capabilities such as integration with smart appliances, real-time consumption management, and micro-grids to support generation from distributed renewable sources.


Regional Insights

North America captured the largest revenue share of more than 40% in 2022. The convergence of IIoT with edge computing is forming favorable conditions for manufacturers in the U.S. to move toward connected factories. Several startups have also evolved to deliver platforms for developing edge-enabled solutions that are anticipated to boost the regional market’s growth.


Asia Pacific captured a significant revenue share in 2020, attributed to the growing emphasis on improving networking technology in the region due to COVID-19. The notable expansion of the connected device ecosystem in the region is resulting in the generation of a large amount of data, thereby creating the need for a powerful computational environment. Moreover, the increased focus of leading service providers such as Microsoft Corporation, which recently announced Azure Edge Zones, and Google Inc., which unveiled its Global Mobile Edge Cloud (GMEC) strategy that was primarily targeted at the U.S. market, is expected to provide impetus to regional growth over the next few years.


Key Companies & Market Share Insights

Edge start-ups are engaged in developing micro-edge data centers, which are small-scale modular data centers that include all the storage, computing, networking, power, and cooling facilities. For instance, in 2020, EdgeMicro launched five new micro-edge data centers across the U.S. The company developed a containerized data center design that can hold up to six racks, each designed to support 8 kW of power.


Another key development in the edge computing space is the hyperscalers, who already have a strong presence in the cloud market. These hyperscalers are transitioning towards the edge by bringing new solutions such as AWS Outposts, Azure Stack, and other IoT offerings. Both telcos and hyperscalers are some of the top contenders to lead the market for edge computing. However, the lack of cloud platforms for telcos and the presence of physical location for hyperscalers are few limitations faced by them. To overcome these limitations, the industry is expected to witness partnerships between operators and hyperscalers, which may impact the short-term and long-term strategies of the market players over the next few years.


Some of the prominent players operating in the global edge computing market are:  ABB Ltd., Amazon Web Services (AWS), Inc., Cisco Systems Inc., Digi International Inc., General Electric Company, Hewlett Packard Enterprise Development LP, Huawei Technologies Co. Ltd., IBM Corporation, Intel Corporation, Microsoft Corporation, SAP SE and Siemens AG.


Industry News

For instance, in December 2020, SK Telecom collaborated with Amazon Web Services to launch edge cloud services based on 5G MEC. Companies are grasping the opportunities to tackle the current situation by delivering new services.

For instance, telecom companies in Canada, such as Telus Communications, are working with MobiledgeX, Inc. to develop the MobiledgeX Early Access Programme, which would allow developers to build, experiment, and gauge the effectiveness of edge-enabled applications in a low latency atmosphere.



Edge computing has emerged as a crucial enabler for amplifying IoT infrastructure and empowering military missions. By bringing data processing and storage closer to the edge of the network, edge computing reduces latency, enhances security, optimizes bandwidth, and enables real-time decision-making. In military operations, edge computing provides the tactical edge with the ability to collect, process, and analyze data in real-time, improving situational awareness and decision-making capabilities. As technology continues to advance, edge computing will play an increasingly vital role in enhancing IoT infrastructure and driving mission success in military operations.


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