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March 18, 2021 | International, Naval

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  • Moving further into the information age with Joint All-Domain Command and Control

    July 10, 2020 | International, C4ISR

    Moving further into the information age with Joint All-Domain Command and Control

    Lt. Gen. David Deptula (ret.) The United States' comparative military advantage has eroded significantly as the technologies that helped sustain its primacy since the Cold War have proliferated to great power and regional competitors such as China, Russia, North Korea, and Iran. They have evolved their capabilities and operational approaches to negate and otherwise avoid traditional American warfighting strengths. The United States is highly unlikely to regain its competitive advantage through like-for-like replacements of its legacy platforms with incremental improvements while remaining beholden to industrial age notions of warfare focused on individual weapon systems focused on inflicting attrition. Instead, future success demands that the U.S. military embrace a new approach. Advancements in computing and information technology hold the potential to radically transform how military forces attain desired effects, where success depends foremost on the speed and integration of information. By harnessing information technologies to promote the rapid and seamless exchange of information across platforms, domains, services, and even coalition partners, commanders can make faster decisions and better integrate actions across domains. In such a manner, we can enable friendly forces to operate inside the adversary's decision-making cycle and impose multiple, simultaneous dilemmas that collectively confound and paralyze an adversary's ability to respond. To put it simply — it comes down to understanding the battlespace to know when and where to position forces to maximize their effectiveness, while minimizing vulnerabilities. Realizing this future vision of combat, however, faces challenges given legacy command and control (C2) systems and processes currently in use that were not designed for the speed and complexity that information age all-domain operations demand. Overcoming these constraints will require not just material changes involving technology, but also a shift in how the role of networks and information systems are perceived relative to weapons and platforms. Recognizing this, military leaders are pursuing joint all-domain command and control (JADC2) as the guiding construct to address these challenges. Undeniably an ambitious undertaking, the success of JADC2 will ultimately depend upon having a champion at the top of the Department of Defense that will guide the modernization of related policy, acquisition, and concepts of operations toward a common goal that all relevant stakeholders can understand and accept as the desired way forward. Progress to date Although U.S. forces can presently conduct multi-domain operations, current practices are far from what will be required when facing advanced adversaries. Each service branch and coalition partner organize, train, and equip their own forces, which joint force commanders then stitch together in a federated “joint and combined” employment construct. This ensures that military personnel and their communications and weapon systems can work together in a synchronized fashion. In other words, the services tend to develop their capabilities in a stand-alone manner focused around their primary operating domain without an overarching construct to ensure joint or allied partner interoperability. This often leads to strategies focused on deconfliction versus collaborative partnership or the interdependence required to achieve force multiplying effects with available resources. As a result, the employment of these capabilities is at best additive, rather than complementary where each one enhances the effectiveness of the whole, while compensating for the vulnerabilities of other assets, optimizing the force's overall capacity for dynamic exploitation of opportunities. The good news is the services agree that data is the principal currency of future warfare and that leveraging data through a network that connects forces across both domains and services to seamlessly collect, process, and share data will provide an asymmetric advantage in future conflicts. The bad news is that the services are pursuing a number of individual, stove-piped efforts aligned with their own distinct requirements. The development of concepts such as Multi-Domain Operations, Multi-Domain Command and Control, Distributed Maritime Operations, and Expeditionary Advanced Base Operations, as well as their associated capabilities such as the Cooperative Engagement Capability and the Integrated Air and Missile Defense Battle Command System, have been sporadic and uncoordinated, consisting of dozens of programs being developed independently and lacking a coherent vision to align mission requirements and reconcile gaps or redundancies. To better streamline and synchronize these efforts under the JADC2 banner, the joint staff and the Office of the Secretary of Defense created a joint cross-functional team including representatives from the offices of the DOD Chief Information Officer, the Under Secretary of Defense for Research & Engineering, and the Under Secretary of Defense for Acquisition & Sustainment. This body is charged with bringing the services together to develop the JADC2 construct by identifying gaps and requirements, enhancing experimentation collaboration, and recommending resource allocation for both materiel and non-materiel C2 capability improvements, while also being mindful of the distinct capabilities inherent in each service and government security organization. At the same time, the Secretary of Defense has tasked the joint staff to deliver a warfighting concept that outlines how the U.S. military plans to fight in the future — a much needed update to existing joint concepts that are becoming increasingly outdated. By describing the capabilities and attributes necessary to fight effectively in the future operating environment—including for JADC2 — this concept will inform the requirements that are produced by the joint requirements oversight council and pushed out to the services. This top-down guidance is critical to help inform bottom-up technological development and experimentation. Although each of the services has been active developing related technologies, the Air Force has taken the rare step of volunteering to lead JADC2′s development as a joint function. Currently, these efforts center on the Advanced Battle Management System — essentially a “combat cloud” to connect any sensor with any shooter across all domains—that the Air Force is using as its technical engine for enabling JADC2. To help field new capabilities as fast as possible and cultivate broader buy-in, the Air Force is partnering with the other services to conduct small-scale field demonstrations scheduled for every four months. The first experiment was completed in December 2019, which connected Air Force aircraft, Space Force sensors, Navy surface vessels and aircraft, Army air defense and fire units, and a Special Operations Team with incompatible data and communications systems to defeat a simulated cruise missile. These efforts are intended to develop both the architecture and the technologies required to implement JADC2. As currently envisioned, ABMS includes six key “product categories” and 28 specific “product lines” the Air Force intends to develop over time. Underpinning all these efforts is digital engineering, open architecture, and data standards that allow all the disparate elements to ‘snap' together. Obstacles remain Despite encouraging progress and widespread agreement of the necessity for JADC2 across the services and other relevant defense agencies in the DOD, significant obstacles remain before its full potential can be realized. Foremost among these challenges, current organizational structures and service cultures do not align well with JADC2′s emphasis on employing assets in service- and domain-agnostic ways that entail dynamically connecting sensors and shooters across domains and enabling multiple, rapid shifts in supporting/supported relationships. Specifically, JADC2 raises difficult questions regarding who has decision authority and risk acceptance. Although joint force commanders exercise operational control over joint forces and are tasked to maintain conditions for joint force success, the subordinate command structure tends to exacerbate military service and domain stovepipes that are resistant to ceding control over their assets. Similar frictions are likely to extend beyond a single combatant command, particularly in terms of integrating space and cyberspace capabilities, which have their own functional combatant commands. Of course, this assumes U.S. forces eventually reach a level of integration that makes resolving such relevant operational authorities necessary. The current service-based model for systems development and acquisition is not optimal for achieving the level of interdependency that JADC2 envisions. Given the complexity and number of programs likely to be affected by ABMS, the Air Force created the position of chief architect to ensure it acquires the right mix of capabilities in a coherent manner. However, the authority of that position does not extend to the other services, which are likely to focus on their own specific operating requirements as they fund and develop their components of JADC2′s technical architecture. Furthermore, ABMS technical demonstrations focused on connectivity have thus far outpaced development of the operational concepts it is intended to support. Consequently, JADC2 risks over-emphasizing communications and ubiquitous connectivity at the expense of effective battle management. This could have several deleterious implications for future operations. First, it could exacerbate the tendency of senior commanders to centralize control, usurping tactical level decisions. Second, the desire to push as much information as possible forward to the tactical edge could overwhelm warfighters, resulting in operational paralysis or chaos. Third, it could result in unrealistic communications demands, particularly in a conflict with China or Russia or their proxies where the United States' exploitation of the electromagnetic spectrum will be fiercely contested. Lastly, given the enormous financial investment JADC2 entails, maintaining stable funding will present a continual challenge due to both the likely downward pressure on the defense budget resulting from the COVID-19 epidemic and because it is challenging to cultivate a constituency on Capitol Hill for ethereal “connections” and “data” compared to more tangible platforms, some of which the Air Force defunded in its latest budget proposal in part to fund further development of ABMS. Furthermore, JADC2 is likely to face ongoing scrutiny because the nature of the program does not lend itself to traditional methods of evaluation, as evidenced by the Government Accountability Office's recent report that was highly critical of ABMS. The path forward Navigating these challenges requires the highest level of direction from the Office of the Secretary of Defense, and centralized, OSD-level management along the lines of the recently formed joint cross-functional team to champion overall JADC2 development. Using a DOTMILPF-P (doctrine, organization, training, materiel, interoperability, logistics, personnel, facilities, & policy) approach, the primary goal of this group should be to define a “template” to guide modernization policy, acquisition, and concepts of operation. The United States requires the distinct capabilities inherent in its separate military services and other defense agencies. However, they must be bound by a common vision for employing joint and combined forces, as well as an overarching strategy to realize the JADC2 concept. The United States cannot risk boutique solutions that do not integrate in a seamless, mutually reinforcing fashion. To achieve this, the OSD-level group must pursue four critical lines of effort: 1) establish standards and continuity so individual programs integrate within the greater JADC2 enterprise and secure desired outcomes in a timely fashion; 2) support effective programs and help them to maintain momentum and protection from competing bureaucratic interests; 3) engage across the military services and DOD agencies to respond to combatant command warfighting requirements, while also holding participating entities accountable; and 4) ensure industry is fully integrated into appropriate JADC2 development. If properly executed, JADC2 promises to provide commanders with “decision advantage” by allowing them to gather, process, exploit, and share information at the speed and scale required to defeat potential adversaries. At the same time, allowing joint and combined forces to distribute access to relevant information more widely, JADC2 must also enable new, more flexible command and control techniques that empower subordinate elements to effectively act when they become isolated. The ability to leverage capabilities across a network through the seamless and ubiquitous sharing of information could also ease requirements for systems that are currently expected to operate independently. The complexity inherent to this approach of overloading requirements on a given program drives lengthy development cycles, time and cost overruns, and delays in capability. Instead, by leveraging numerous redundant function options through a combat cloud, individual systems could focus on narrower requirements where their capability can be maximized while also minimizing cost and technical risk. Change will not come easy, particularly given how successful the United States has been using the traditional combined arms approach. However, such complacency could be disastrous, given that critical information technology advances are often measured in days, potentially enabling competitors with less dominant industrial combat means to leapfrog past legacy military concepts by investing in newer information technologies and capabilities. The United States' efforts to harness information are not being pursued in a vacuum—America's adversaries are pursuing similar concepts. JADC2 may be ambitious, but it is also imperative to gain a competitive advantage to deter and, if necessary, defeat those potential adversaries. https://www.c4isrnet.com/opinion/2020/07/09/moving-further-into-the-information-age-with-joint-all-domain-command-and-control/

  • SOCOM seeking technologies for war in a post-cyberpunk era

    August 28, 2018 | International, C4ISR

    SOCOM seeking technologies for war in a post-cyberpunk era

    By: Kelsey Atherton The great trick of computers is that they enable people to be more than human. In a new request for information, the United States Special Operations Command is looking for a range of computer and computer-enabled technologies, all designed to make Special Operators function in some way more than human. These technologies range from sensors to nano-drones to biomedical performance enhancements. Taken together, the list of desired capabilities is a preview of what may be possible in the near-future to shape the intimate fights on the edges of wars. Miniature robot scouts, hyper-aware data collection and monitoring riding along low-bandwidth nodes, tailorable hyperspectral imaging sensors, biometric tracking resistance, and go-pills without adverse effects are all on asking, and that's just a handful of the dozens of capabilities sought. The full request for information is available online. To parse through it, here are some of the standout categories. Robots, blood-transporting robots How many pounds of blood is a reasonable amount of blood for a robot to carry? Ten pounds, answers the SOCOM request. Specifically, SOCOM is looking for an unmanned aerial blood delivery system that can do vertical takeoff and landing (VTOL), or at least operate without a runway. The 10 pound requirement is a minimum, and roughly approximate to the amount of blood in a person weighing 150 pounds. In order for the blood to be useful, it has to be kept between 35-46 degrees Fahrenheit, ideally through passive means, all the way from loading through transit, delivery, and unloading. That unloading should “minimize shock to the payload for any proposed delivery concept,” because again, this is about making a robot that can deliver blood in a useful and life-saving state. Blood transport drones already exist, and have safely demonstrated blood transport in small amounts and over modest distances. SOCOM wants a blood drone that can transport its cargo over 100 miles and back, while staying in contact and control of human operators. That's an ambitious ask, and it's one of just five named categories of drone technology sought by SOCOM. Another is a platform-agnostic desire for an expeditionary ISR platform, which can operate as individuals, in pairs, or in meshed swarms. These drones will have modular payloads, carry at least two sensors, and require minimum logistics support. One asked-for way to sustain these drones is by “alternative power through environment,” like directly sipping power from power lines or incorporating a way to charge off renewable energy. The other three categories of drone are ambitious, though in more familiar terms. There's a listing for a Nano VTOL drone, with a takeoff weight of 2.6 ounces that can fly autonomously inside and avoid collisions, with a human monitoring but not directly piloting the drone. Ten times the size is the Micro VTOL drone, at about 1.6 pounds, capability of all-weather an autonomous flight, and able to operate both without GPS and in caves. The biggest non-blood-carrying drone SOCOM is looking for is a hand-launched or fixed-wing VTOL vehicle that can be recovered without special equipment, will weigh no more than 7.8 pounds, and can fly for at least 90 minutes at sea level. These drones are familiar machines, mostly, even if some of the payloads are a little unusual. Sensors in a robot are common enough. SOCOM is also looking for a way to increase the sensors carried and used by a person on foot. Hyper-sensors Collecting information is nothing without processing it into a useful form, and this SOCOM RFI seeks information on both. While the specific means are not detailed, there's a desire for “edge computing” to “derive useful information at the point of collection through sensor fusion and forwards processing without reliance on high bandwidth, long haul communications.” That likely means computers and AI already in the field and embedded in equipment carried by the special operations forces. Making that information intelligible is one task a Heads Up Display (HUD), but SOCOM is also open to audio cues and haptic feedback, among other means, for relaying processed information in a useful and immediate form. Collecting that information will be a new suite of Intelligence, Surveillance, and Reconnaissance (ISR) sensors, designed with the limitations and hard conditions of present and future special operations missions in mind. That means working without “owning the air domain,” a break from decades of assumptions for conventional and counter-insurgent warfare, but a break that acknowledges the likely presence of cheap drones on all sides of future battles. These sensors will include visual spectrum, infrared, hyper-spectral imaging, LIDAR, electronic warfare, can operate autonomously and be mounted on drones or scattered on the ground to work and transmit data remotely. For good measure, SOCOM is also asking for technologies that would allow drones to work as something like a universal translator even in denied connectivity environments. With linguistic expertise, regional dialects, demographic information and cultural sensitivities programmed in, the drones will do the fraught social massaging around war. If there is anything that will convince a local population about the right intentions of the people presently fighting nearby, it's a robot that's hip to the local slang. More than human All this collecting and transmitting information is likely to produce a host of signals, so SOCOM is also looking for technologies that “help avoid physical detection by acoustic, thermal, radar, visual, optical, electromagnetic, virtual, and near infrared means.” Finding a way to remain discreet in an information rich environment is a challenge for everyone in society today, one tacitly acknowledged by an ask for a technology to “help manage digital presence within the realm of social media.” (Step 1 for that is probably not using a jogging app with geolocation turned on.) Biometric technologies (think: facial recognition, etc) are often seen as a tool of the powerful, wielded by governments against vulnerable populations. While they certainly can be that, they can also pose a challenge to individuals in the employ of one military trying to evade the sensors used by another. To that end, SOCOM is looking for technologies that provide resistance to biometric tracking. (While it's not specified, Juggalo-style face paint might work for this exact purpose). Finally, once a special operator has evaded detection, used the sensors on hand, and has an adequate amount of robot-delivered blood to keep going, there is an interest in human performance and biomedical enhancements. These include drugs and biologics that can enhance cognitive performance, increase “peak performance sustainability, including increased endurance, strength, energy, agility, and enhanced senses” and a whole other wish list of capabilities that officers from time immemorial have demanded of the people under their command. Most promising, perhaps, is the ask for “medical sensors and devices that provide vital sign awareness and send alerts,” and “austere trauma treatment,” both of which don't require transformative properties in the people using them. Science fan-fiction It's too early to say how many of the asks in this RFI are realistic, though some are already delivered technologies and others certainly seem near-future plausible. More importantly, the request as a gestalt whole suggests a desire for people that are more than human, and capable of performing everything asked of them in remote battlefields, far from home. As the United States approaches its 17th continuous year of war abroad, asking that science deliver what science fiction promised feels at least as plausible as imagining a future where deployments abroad are scaled back. https://www.c4isrnet.com/unmanned/2018/08/28/socom-seeking-technologies-for-war-in-a-post-cyberpunk-era

  • Initial construction to begin in June on new Canadian warships

    April 30, 2024 | International, Naval

    Initial construction to begin in June on new Canadian warships

    The work is proceeding even though the Canadian government has yet to sign the actual construction contract to start building the 15 warships.

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