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191. Competition in 2035: Anticipating Chinese Exploitation of Operational Environments

[Editor’s Note:  In today’s post, Mad Scientist Laboratory explores China’s whole-of-nation approach to exploiting operational environments, synchronizing government, military, and industry activities to change geostrategic power paradigms via competition in 2035. Excerpted from products previously developed and published by the TRADOC G-2’s Operational Environment and Threat Analysis Directorate (see links below), this post describes China’s approach to exploitation and identifies the implications for the U.S. Army — Enjoy!]

The Operational Environment is envisioned as a continuum, divided into two eras: the Era of Accelerated Human Progress (now through 2035) and the Era of Contested Equality (2035 through 2050). This latter era is marked by significant breakthroughs in technology and convergences in terms of capabilities, which lead to significant changes in the character of warfare. During this period, traditional aspects of warfare undergo dramatic, almost revolutionary changes which at the end of this timeframe may even challenge the very nature of warfare itself. In this era, no one actor is likely to have any long-term strategic or technological advantage, with aggregate power between the U.S. and its strategic competitors being equivalent, but not necessarily symmetric. Prevailing in this period will depend on an ability to synchronize multi-domain capabilities against an artificial intelligence-enhanced adversary with an overarching capability to visualize and understand the battlespace at even greater ranges and velocities. Equally important will be controlling information and the narrative surrounding the conflict. Adversaries will adopt sophisticated information operations and narrative strategies to change the context of the conflict and thus defeat U.S. political will.

The future strategic environment will be characterized by a persistent state of competition where global competitors seek to exploit the conditions of operational environments to gain advantage. Adversaries understand that the application of any or all elements of national power in competition just below the threshold of armed conflict is an effective strategy against the U.S.

Chinese DF-17 carrying the DF-ZF Hypersonic Glide Vehicle / Source: Bill Bostock, Business Insider Australia, via Wikimedia Commons

China is rapidly modernizing its armed forces and developing new approaches to warfare. Beijing has invested significant resources into research and development of a wide array of advanced technologies. Coupled with its time-honored practice of reverse engineering technologies or systems it purchases or acquires through espionage, this effort likely will allow China to surpass Russia as our most capable threat sometime around 2030.

China’s Approach to Exploitation

China’s whole-of-nation approach, which involves synchronization of actions across government, military, and industry, will facilitate exploitation of operational environments and enable it to gain global influence through economic exploitation.

China will leverage the international system to advance its own interests while attempting to constrain others, including the U.S.

Preferred Conditions and Methods

The following conditions and methods are conducive to exploitation by China, enabling them to shape the strategic environment in 2035:

    • Infrastructure Capacity Challenges:  China targets undeveloped and fragile environments where their capital investments, technology, and human capital can produce financial gains and generate political influence.
    • Interconnected Economies:  China looks for partners and opportunities to become a significant stakeholder in a wide variety of economies in order to capitalize on its investments as well as generate political influence.
    • Specialized Economies:  China looks for opportunities to partner with specialized markets and leverage their vulnerabilities for gain.
    • Technology Access Gaps:  China targets areas where their capital investments in technology provide partners with key resources and competitive advantages by filling technology gaps.

Implications for the U.S. Army:

    • The Chinese People’s Liberation Army (PLA) deployed armored medical vehicles and personnel to Germany for the Combined Aid 2019 Joint Exercise with the Bundeswehr this past summer.

      Traditional Army threat paradigms may not be sufficient for competition.

    • The Army could be drawn into unanticipated escalation as a result of China’s activities during the competition phase.
    • Army military partnerships will likely be undermined by China in 2035.
    • Army operations and engagements will be increasingly impacted by the pervasiveness of Chinese goods, technology, infrastructure, and systems.

If you enjoyed this post, please see the original paper and associated infographic of the same title, both by the TRADOC G-2’s Operational Environment and Threat Analysis Directorate and hosted on their All Partners Access Network (APAN) site…

… and read the following MadSci Laboratory blog posts:

A view of the Future: 2035-2050

China’s Drive for Innovation Dominance and Quantum Surprise on the Battlefield?, by Elsa Kania

A Closer Look at China’s Strategies for Innovation: Questioning True Intent, by Cindy Hurst

Critical Projection: Insights from China’s Science Fiction, by Lt Col Dave Calder

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188. “Tenth Man” — Challenging our Assumptions about the Future Force

[Editor’s Note:  Mad Scientist Laboratory is pleased to publish our latest “Tenth Man” post. This Devil’s Advocate or contrarian approach serves as a form of alternative analysis and is a check against group think and mirror imaging. We offer it as a platform for the contrarians in our network to share their alternative perspectives and analyses regarding the Operational Environment (OE). Today’s post examines a foundational assumption about the Future Force by challenging it, reviewing the associated implications, and identifying potential signals and/or indicators of change. Read on!]

Assumption: The United States will maintain sufficient Defense spending as a percentage of its GDP to modernize the Multi-Domain Operations (MDO) force. [Related MDO Baseline Assumption – “b. The Army will adjust to fiscal constraints and have resources sufficient to preserve the balance of readiness, force structure, and modernization necessary to meet the demands of the national defense strategy in the mid-to far-term (2020-2040),” TRADOC Pam 525-3-1, The U.S. Army in Multi-Domain Operations 2028, p. A-1.]

Source: U.S. Census Bureau

Over the past decades, the defense budget has varied but remained sufficient to accomplish the missions of the U.S. military. However, a graying population with fewer workers and longer life spans will put new demands on the non-discretionary and discretionary federal budget. These stressors on the federal budget may indicate that the U.S. is following the same path as Europe and Japan. By 2038, it is projected that 21% of Americans will be 65 years old or older.1 Budget demand tied to an aging population will threaten planned DoD funding levels.

In the near-term (2019-2023), total costs in 2019 dollars are projected to remain the same. In recent years, the DoD underestimated the costs of acquiring weapons systems and maintaining compensation levels. By taking these factors into account, a 3% increase from the FY 2019 DoD budget is needed in this timeframe. Similarly, the Congressional Budget Office (CBO) estimates that costs will steadily climb after 2023. Their base budget in 2033 is projected to be approximately $735 billion — that is an 11% increase over ten years. This is due to rising compensation rates, growing costs of operations and maintenance, and the purchasing of new weapons systems.2 These budgetary pressures are connected to several stated and hidden assumptions:

    • An all-volunteer force will remain viable [Related MDO Baseline Assumption – “a. The U.S. Army will remain a professional, all volunteer force, relying on all components of the Army to meet future commitments.”],
    • Materiel solutions’ associated technologies will have matured to the requisite Technology Readiness Levels (TRLs), and
    • The U.S. will have the industrial ability to reconstitute the MDO force following “America’s First Battle.”

Implications: If these assumptions prove false, the manned and equipped force of the future will look significantly different than the envisioned MDO force. A smaller DoD budget could mean a small fielded Army with equipping decisions for less exquisite weapons systems. A smaller active force might also drive changes to Multi-Domain Operations and how the Army describes the way it will fight in the future.

Signpost / Indicators of Change:

    • 2008-type “Great Recession”
    • Return of budget control and sequestration
    • Increased domestic funding for:
      • Universal Healthcare
      • Universal College
      • Social Security Fix
    • Change in International Monetary Environment (higher interest rates for borrowing)

If you enjoyed this alternative view on force modernization, please also see the following posts:

  • Disclaimer: The views expressed in this blog post do not reflect those of the Department of Defense, Department of the Army, Army Futures Command (AFC), or Training and Doctrine Command (TRADOC).

1 “The long-term impact of aging on the federal budget,” by Louise Sheiner, Brookings, 11 January 2018 https://www.brookings.edu/research/the-long-term-impact-of-aging-on-the-federal-budget/

2 “Long-Term Implications of the 2019 Future Years Defense Program,” Congressional Budget Office, 13 February 2019. https://www.cbo.gov/publication/54948

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184. Blurring Lines Between Competition and Conflict

[Editor’s Note: The United States Army faces multiple, complex challenges in tomorrow’s Operational Environment (OE), confronting strategic competitors in an increasingly contested space across every domain (land, air, maritime, space, and cyberspace). The Mad Scientist Initiative, the U.S. Army Training and Doctrine Command (TRADOC) G-2 Futures, and Army Futures Command (AFC) Future Operational Environment Cell have collaborated with representatives from industry, academia, and the Intelligence Community to explore the blurring lines between competition and conflict, and the character of great power warfare in the future. Today’s post captures our key findings regarding the OE and what will be required to successfully compete, fight, and win in it — Enjoy!].

Alternative Views of Warfare: The U.S. Army’s view of the possible return to Large Scale Combat Operations (LSCO) and capital systems warfare might not be the future of warfare. Near-peer competitors will seek to achieve national objectives through competition short of conflict, and regional competitors and non-state actors will effectively compete and fight with smaller, cheaper, and greater numbers of systems against our smaller number of exquisite systems. However, preparation for LSCO and great state warfare may actually contribute to its prevention.

Competition and Conflict are Blurring: The dichotomy of war and peace is no longer a useful construct for thinking about national security or the development of land force capabilities. There are no longer defined transitions from peace to war and competition to conflict. This state of simultaneous competition and conflict is continuous and dynamic, but not necessarily cyclical. Potential adversaries will seek to achieve their national interest short of conflict and will use a range of actions from cyber to kinetic against unmanned systems walking up to the line of a short or protracted armed conflict. Authoritarian regimes are able to more easily ensure unity of effort and whole-of-government over Western democracies and work to exploit fractures and gaps in decision-making, governance, and policy.

The globalization of the world – in communications, commerce, and belligerence (short of war) – as well as the fragmentation of societies and splintering of identities has created new factions and “tribes,” and opened the aperture on who has offensive capabilities that were previously limited to state actors. Additionally, the concept of competition itself has broadened as social media, digital finance, smart technology, and online essential services add to a growing target area.

Adversaries seek to shape public opinion and influence decisions through targeted information operations campaigns, often relying on weaponized social media. Competitors invest heavily in research and development in burgeoning technology fields – Artificial Intelligence (Al), quantum sciences, and biotech – and engage in technology theft to weaken U.S. technological superiority. Cyber attacks and probing are used to undermine confidence in financial institutions and critical government and public functions – Supervisory Control and Data Acquisition (SCADA), voting, banking, and governance. Competition and conflict are occurring in all instruments of power throughout the entirety of the Diplomatic, Information, Military and Economic (DIME) model.

Cyber actions raise the question of what is the threshold to be considered an act of war. If an adversary launches a cyber ­attack against a critical financial institution and an economic crisis results – is it an act of war? There is a similar concern regarding unmanned assets. While the kinetic destruction of an unmanned system may cost millions, no lives are lost. How much damage without human loss of life is acceptable?

Nuclear Deterrence limits Great Power Warfare: Multi-Domain Operations (MDO) is predicated on a return to Great Power warfare. However, nuclear deterrence could make that eventuality less likely. The U.S. may be competing more often below the threshold of conventional war and the decisive battles of the 20th Century (e.g., Midway and Operation Overlord). The two most threatening adversaries – Russia and China – have substantial nuclear arsenals, as does the United States, which will continue to make Great Power conventional warfare a high risk / high cost endeavor. The availability of non-nuclear capabilities that can deliver regional and global effects is a new attribute of the OE. This further complicates the deterrence value of militaries and the escalation theory behind flexible deterrent options. The inherent implications of cyber effects in the real world – especially in economies, government functions, and essential services – further exacerbates the blurring between competition and conflict.

Hemispheric Competition and Conflict: Over the last twenty years, Russia and China have been viewed as regional competitors in Eurasia or South-East Asia. These competitors will seek to undermine and fracture traditional Western institutions, democracies, and alliances. Both are transitioning to a hemispheric threat with a primary focus on challenging the U.S. Army all the way from its home station installations (i.e., the Strategic Support Area) to the Close Area fight. We can expect cyber attacks against critical infrastructure, the use of advanced information warfare such as deep fakes targeting units and families, and the possibility of small scale kinetic attacks during what were once uncontested administrative actions of deployment. There is no institutional memory for this threat and adding time and required speed for deployment is not enough to exercise MDO.

Disposable versus Exquisite: Current thinking espouses technologically advanced and expensive weapons platforms over disposable ones, which brings with it an aversion to employ these exquisite platforms in contested domains and an inability to rapidly reconstitute them once they are committed and subsequently attrited. In LSCO with a near-peer competitor, the ability to reconstitute will be imperative. The Army (and larger DoD) may need to shift away from large and expensive systems to cheap, scalable, and potentially even disposable unmanned systems (UxS). Additionally, the increases in miniaturized computing power in cheaper systems, coupled with advances in machine learning could lead to massed precision rather than sacrificing precision for mass and vice versa.

This challenge is exacerbated by the ability for this new form of mass to quickly aggregate/disaggregate, adapt, self­-organize, self-heal, and reconstitute, making it largely unpredictable and dynamic. Adopting these capabilities could provide the U.S. Army and allied forces with an opportunity to use mass precision to disrupt enemy Observe, Orient, Decide, and Act (OODA) loops, confuse kill chains/webs, overwhelm limited adversary formations, and exploit vulnerabilities in extended logistics tails and advanced but immature communication networks.

Human-Starts-the-Loop: There have been numerous discussions and debate over whether armed forces will continue to have a “man-in-the-loop” regarding Lethal Autonomous Weapons Systems (LAWS). Lethal autonomy in future warfare may instead be “human-starts-the-loop,” meaning that humans will be involved in the development of weapons/targeting systems – establishing rules and scripts – and will initiate the process, but will then allow the system to operate autonomously. It has been stated that it would be ethically disingenuous to remain constrained by “human-on-the-loop” or “human-in-the-­loop” constructs when our adversaries are unlikely to similarly restrict their own autonomous warfighting capabilities. Further, the employment of this approach could impact the Army’s MDO strategy. The effects of “human-starts-the-loop” on the kill chain – shortening, flattening, or otherwise dispersing – would necessitate changes in force structuring that could maximize resource allocation in personnel, platforms, and materiel. This scenario presents the Army with an opportunity to execute MDO successfully with increased cost savings, by: 1) Conducting independent maneuver – more agile and streamlined units moving rapidly; 2) Employing cross-domain fires – efficiency and speed in targeting and execution; 3) Maximizing human potential – putting capable Warfighters in optimal positions; and 4) Fielding in echelons above brigade – flattening command structures and increasing efficiency.

Emulation and the Accumulation of Advantages: China and Russia are emulating many U.S. Department of Defense modernization and training initiatives. China now has Combat Training Centers. Russia has programs that mirror the Army’s Cross Functional Team initiatives and the Artificial Intelligence (AI) Task Force. China and Russia are undergoing their own versions of force modernization to better professionalize the ranks and improve operational reach. Within these different technical spaces, both China and Russia are accumulating advantages that they envision will blunt traditional U.S. combat advantages and the tenets described in MDO. However, both nations remain vulnerable and dependent on U.S. innovations in microelectronics, as well as the challenges of incorporating these technologies into their own doctrine, training, and cultures.

If you enjoyed this post, please also see:

Jomini’s Revenge: Mass Strikes Back! by Zachery Tyson Brown.

Our “Tenth Man” – Challenging our Assumptions about the Operational Environment and Warfare posts, where Part 1 discusses whether the future fight will necessarily even involve LSCO and Part 2 addresses the implications of a changed or changing nature of war.

The Death of Authenticity:  New Era Information Warfare.

 

 

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183. Ethics, Morals, and Legal Implications

[Editor’s Note: The U.S. Army Futures Command (AFC) and Training and Doctrine Command (TRADOC) co-sponsored the Mad Scientist Disruption and the Operational Environment Conference with the Cockrell School of Engineering at The University of Texas at Austin on 24-25 April 2019 in Austin, Texas. Today’s post is excerpted from this conference’s Final Report and addresses how the speed of technological innovation and convergence continues to outpace human governance. The U.S. Army must not only consider how best to employ these advances in modernizing the force, but also the concomitant ethical, moral, and legal implications their use may present in the Operational Environment (see links to the newly published TRADOC Pamphlet 525-92, The Operational Environment and the Changing Character of Warfare, and the complete Mad Scientist Disruption and the Operational Environment Conference Final Report at the bottom of this post).]

Technological advancement and subsequent employment often outpaces moral, ethical, and legal standards. Governmental and regulatory bodies are then caught between technological progress and the evolution of social thinking. The Disruption and the Operational Environment Conference uncovered and explored several tension points that the Army may be challenged by in the future.

Space

Cubesats in LEO / Source: NASA

Space is one of the least explored domains in which the Army will operate; as such, we may encounter a host of associated ethical and legal dilemmas. In the course of warfare, if the Army or an adversary intentionally or inadvertently destroys commercial communications infrastructure – GPS satellites – the ramifications to the economy, transportation, and emergency services would be dire and deadly. The Army will be challenged to consider how and where National Defense measures in space affect non-combatants and American civilians on the ground.

Per proclaimed Mad Scientists Dr. Moriba Jah and Dr. Diane Howard, there are ~500,000 objects orbiting the Earth posing potential hazards to our space-based services. We are currently able to only track less than one percent of them — those that are the size of a smart phone / softball or larger. / Source: NASA Orbital Debris Office

International governing bodies may have to consider what responsibility space-faring entities – countries, universities, private companies – will have for mitigating orbital congestion caused by excessive launching and the aggressive exploitation of space. If the Army is judicious with its own footprint in space, it could reduce the risk of accidental collisions and unnecessary clutter and congestion. It is extremely expensive to clean up space debris and deconflicting active operations is essential. With each entity acting in their own self-interest, with limited binding law or governance and no enforcement, overuse of space could lead to a “tragedy of the commons” effect.1  The Army has the opportunity to more closely align itself with international partners to develop guidelines and protocols for space operations to avoid potential conflicts and to influence and shape future policy. Without this early intervention, the Army may face ethical and moral challenges in the future regarding its addition of orbital objects to an already dangerously cluttered Low Earth Orbit. What will the Army be responsible for in democratized space? Will there be a moral or ethical limit on space launches?

Autonomy in Robotics

AFC’s Future Force Modernization Enterprise of Cross-Functional Teams, Acquisition Programs of Record, and Research and Development centers executed a radio rodeo with Industry throughout June 2019 to inform the Army of the network requirements needed to enable autonomous vehicle support in contested, multi-domain environments. / Source: Army.mil

Robotics have been pervasive and normalized in military operations in the post-9/11 Operational Environment. However, the burgeoning field of autonomy in robotics with the potential to supplant humans in time-critical decision-making will bring about significant ethical, moral, and legal challenges that the Army, and larger DoD are currently facing. This issue will be exacerbated in the Operational Environment by an increased utilization and reliance on autonomy.

The increasing prevalence of autonomy will raise a number of important questions. At what point is it more ethical to allow a machine to make a decision that may save lives of either combatants or civilians? Where does fault, responsibility, or attribution lie when an autonomous system takes lives? Will defensive autonomous operations – air defense systems, active protection systems – be more ethically acceptable than offensive – airstrikes, fire missions – autonomy? Can Artificial Intelligence/Machine Learning (AI/ML) make decisions in line with Army core values?

Deepfakes and AI-Generated Identities, Personas, and Content

Source: U.S. Air Force

A new era of Information Operations (IO) is emerging due to disruptive technologies such as deepfakes – videos that are constructed to make a person appear to say or do something that they never said or did – and AI Generative Adversarial Networks (GANs) that produce fully original faces, bodies, personas, and robust identities.2  Deepfakes and GANs are alarming to national security experts as they could trigger accidental escalation, undermine trust in authorities, and cause unforeseen havoc. This is amplified by content such as news, sports, and creative writing similarly being generated by AI/ML applications.

This new era of IO has many ethical and moral implications for the Army. In the past, the Army has utilized industrial and early information age IO tools such as leaflets, open-air messaging, and cyber influence mechanisms to shape perceptions around the world. Today and moving forward in the Operational Environment, advances in technology create ethical questions such as: is it ethical or legal to use cyber or digital manipulations against populations of both U.S. allies and strategic competitors? Under what title or authority does the use of deepfakes and AI-generated images fall? How will the Army need to supplement existing policy to include technologies that didn’t exist when it was written?

AI in Formations

With the introduction of decision-making AI, the Army will be faced with questions about trust, man-machine relationships, and transparency. Does AI in cyber require the same moral benchmark as lethal decision-making? Does transparency equal ethical AI? What allowance for error in AI is acceptable compared to humans? Where does the Army allow AI to make decisions – only in non-combat or non-lethal situations?

Commanders, stakeholders, and decision-makers will need to gain a level of comfort and trust with AI entities exemplifying a true man-machine relationship. The full integration of AI into training and combat exercises provides an opportunity to build trust early in the process before decision-making becomes critical and life-threatening. AI often includes unintentional or implicit bias in its programming. Is bias-free AI possible? How can bias be checked within the programming? How can bias be managed once it is discovered and how much will be allowed? Finally, does the bias-checking software contain bias? Bias can also be used in a positive way. Through ML – using data from previous exercises, missions, doctrine, and the law of war – the Army could inculcate core values, ethos, and historically successful decision-making into AI.

If existential threats to the United States increase, so does pressure to use artificial and autonomous systems to gain or maintain overmatch and domain superiority. As the Army explores shifting additional authority to AI and autonomous systems, how will it address the second and third order ethical and legal ramifications? How does the Army rectify its traditional values and ethical norms with disruptive technology that rapidly evolves?

If you enjoyed this post, please see:

    • “Second/Third Order, and Evil Effects” – The Dark Side of Technology (Parts I & II) by Dr. Nick Marsella.
    • “Ethics and the Future of War panel, facilitated by LTG Dubik (USA-Ret.) at the Mad Scientist Visualizing Multi Domain Battle 2030-2050 Conference, facilitated at Georgetown University, on 25-26 July 2017.

Just Published! TRADOC Pamphlet 525-92, The Operational Environment and the Changing Character of Warfare, 7 October 2019, describes the conditions Army forces will face and establishes two distinct timeframes characterizing near-term advantages adversaries may have, as well as breakthroughs in technology and convergences in capabilities in the far term that will change the character of warfare. This pamphlet describes both timeframes in detail, accounting for all aspects across the Diplomatic, Information, Military, and Economic (DIME) spheres to allow Army forces to train to an accurate and realistic Operational Environment.

1 Munoz-Patchen, Chelsea, “Regulating the Space Commons: Treating Space Debris as Abandoned Property in Violation of the Outer Space Treaty,” Chicago Journal of International Law, Vol. 19, No. 1, Art. 7, 1 Aug. 2018. https://chicagounbound.uchicago.edu/cgi/viewcontent.cgi?article=1741&context=cjil

2 Robitzski, Dan, “Amazing AI Generates Entire Bodies of People Who Don’t Exist,” Futurism.com, 30 Apr. 2019. https://futurism.com/ai-generates-entire-bodies-people-dont-exist

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182. “Tenth Man” – Challenging our Assumptions about the Operational Environment and Warfare (Part 2)

[Editor’s Note: Mad Scientist Laboratory is pleased to publish our latest “Tenth Man” post. This Devil’s Advocate or contrarian approach serves as a form of alternative analysis and is a check against group think and mirror imaging. The Mad Scientist Laboratory offers it as a platform for the contrarians in our network to share their alternative perspectives and analyses regarding the Operational Environment (OE). We continue our series of “Tenth Man” posts examining the foundational assumptions of The Operational Environment and the Changing Character of Future Warfare, challenging them, reviewing the associated implications, and identifying potential signals and/or indicators of change. Enjoy!]

Assumption:  The character of warfare will change but the nature of war will remain human-centric.

The character of warfare will change in the future OE as it inexorably has since the advent of flint hand axes; iron blades; stirrups; longbows; gunpowder; breech loading, rifled, and automatic guns; mechanized armor; precision-guided munitions; and the Internet of Things. Speed, automation, extended ranges, broad and narrow weapons effects, and increasingly integrated multi-domain conduct, in addition to the complexity of the terrain and social structures in which it occurs, will make mid Twenty-first Century warfare both familiar and utterly alien.

The nature of warfare, however, is assumed to remain human-centric in the future. While humans will increasingly be removed from processes, cycles, and perhaps even decision-making, nearly all content regarding the future OE assumes that humans will remain central to the rationale for war and its most essential elements of execution. The nature of war has remained relatively constant from Thucydides through Clausewitz, and forward to the present. War is still waged because of fear, honor, and interest, and remains an expression of politics by other means. While machines are becoming ever more prevalent across the battlefield – C5ISR, maneuver, and logistics – we cling to the belief that parties will still go to war over human interests; that war will be decided, executed, and controlled by humans.

Implications:  If these assumptions prove false, then the Army’s fundamental understanding of war in the future may be inherently flawed, calling into question established strategies, force structuring, and decision-making models. A changed or changing nature of war brings about a number of implications:

– Humans may not be aware of the outset of war. As algorithmic warfare evolves, might wars be fought unintentionally, with humans not recognizing what has occurred until effects are felt?

– Wars may be fought due to AI-calculated opportunities or threats – economic, political, or even ideological – that are largely imperceptible to human judgement. Imagine that a machine recognizes a strategic opportunity or impetus to engage a nation-state actor that is conventionally (read that humanly) viewed as weak or in a presumed disadvantaged state. The machine launches offensive operations to achieve a favorable outcome or objective that it deemed too advantageous to pass up.

  • – Infliction of human loss, suffering, and disruption to induce coercion and influence may not be conducive to victory. Victory may be simply a calculated or algorithmic outcome that causes an adversary’s machine to decide their own victory is unattainable.

– The actor (nation-state or otherwise) with the most robust kairosthenic power and/or most talented humans may not achieve victory. Even powers enjoying the greatest materiel advantages could see this once reliable measure of dominion mitigated. Winning may be achieved by the actor with the best algorithms or machines.

  • These implications in turn raise several questions for the Army:

– How much and how should the Army recruit and cultivate human talent if war is no longer human-centric?

– How should forces be structured – what is the “right” mix of humans to machines if war is no longer human-centric?

– Will current ethical considerations in kinetic operations be weighed more or less heavily if humans are further removed from the equation? And what even constitutes kinetic operations in such a future?

– Should the U.S. military divest from platforms and materiel solutions (hardware) and re-focus on becoming algorithmically and digitally-centric (software)?

 

– What is the role for the armed forces in such a world? Will competition and armed conflict increasingly fall within the sphere of cyber forces in the Departments of the Treasury, State, and other non-DoD organizations?

– Will warfare become the default condition if fewer humans get hurt?

– Could an adversary (human or machine) trick us (or our machines) to miscalculate our response?

Signposts / Indicators of Change:

– Proliferation of AI use in the OE, with increasingly less human involvement in autonomous or semi-autonomous systems’ critical functions and decision-making; the development of human-out-of-the-loop systems

– Technology advances to the point of near or actual machine sentience, with commensurate machine speed accelerating the potential for escalated competition and armed conflict beyond transparency and human comprehension.

– Nation-state governments approve the use of lethal autonomy, and this capability is democratized to non-state actors.

– Cyber operations have the same political and economic effects as traditional kinetic warfare, reducing or eliminating the need for physical combat.

– Smaller, less-capable states or actors begin achieving surprising or unexpected victories in warfare.

– Kinetic war becomes less lethal as robots replace human tasks.

– Other departments or agencies stand up quasi-military capabilities, have more active military-liaison organizations, or begin actively engaging in competition and conflict.

If you enjoyed this post, please see:

    • “Second/Third Order, and Evil Effects” – The Dark Side of Technology (Parts I & II) by Dr. Nick Marsella.

… as well as our previous “Tenth Man” blog posts:

Disclaimer: The views expressed in this blog post do not necessarily reflect those of the Department of Defense, Department of the Army, Army Futures Command (AFC), or Training and Doctrine Command (TRADOC).

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179. A New Age of Terror: New Mass Casualty Terrorism Threats

[Editor’s Note:  Mad Scientist Laboratory is pleased to publish today’s post by returning guest blogger Zachary Kallenborn, continuing his New Age of Terror series.  The democratization of unmanned air, ground, sea, and subsea systems and the proliferation of cyber-physical systems (e.g., automated plants) provide lesser states, non-state actors, and super-empowered individuals with new capabilities to conduct long-range precision fires and generate global non-kinetic effects resulting in mass casualty events. The potential weaponization of these otherwise benign capabilities pose new vulnerabilities to those who fail to remain vigilant and imagine the unthinkable — beware!]

A loud buzz pierced the quiet night air. A group of drones descended on a chemical plant near New York City. The drones disperse throughout the installation in search of storage tanks. A few minutes later, the buzz of the drone propellers was drowned out by loud explosions. A surge of fire leapt to the sky. A plume of gas followed, floating towards the nearby city. The gas killed thousands and thousands more were hospitalized with severe injuries.

The rapid proliferation of unmanned systems and cyber-physical systems offer terrorists new, easier means of carrying out mass casualty attacks. Drones allow terrorists to reduce their operational risk and acquire relatively low cost platforms. Cyber attacks require few resources and could cause significant harm, though a lack of expertise limits terrorist ability to inflict harm. Terrorists may prefer these methods to difficult-to-acquire and risky chemical, biological, radiological, and nuclear (CBRN) weapons.

Drones

Drones offer terrorists low cost methods of delivering harm with lower risk to attacker lives. Drone attacks can be launched from afar, in a hidden position, close to an escape route. Simple unmanned systems can be acquired easily: Amazon.com offers seemingly hundreds of drones for as low as $25. Of course, low cost drones also mean lower payloads that limit the harm caused, often significantly. Improvements to drone autonomy will allow terrorists to deploy more drones at once, including in true drone swarms.1 Terrorists can mount drone attacks across air, land, and sea.

Aerial drones allow attackers to evade ground-based defenses and could be highly effective in striking airports, chemical facilities, and other critical infrastructure. Houthi rebels in Yemen have repeatedly launched drone strikes on Saudi oil pipelines and refineries.2  Recent drone attacks eliminated half of Saudi oil production capacity.3  Attacks on chemical facilities are likely to be particularly effective. A chemical release would not require large amounts of explosives and could cause massive harm, as in the Bhopal gas accident that killed thousands. Current Department of Homeland Security Chemical Facility Anti-Terrorism Standards do not require any meaningful defenses against aerial attack.4  Alternatively, even small drones can cause major damage to airplane wings or engines, potentially risking bringing a plane down.5  In December 2018, that risk alone was enough to ground hundreds of flights at Gatwick airport south of London when drones were spotted close to the runway.

Self-driving cars also provide a means of mass casualty attack. Waymo, Uber, and several other companies seek to launch a self-driving taxi service, open to the public. Terrorists could request multiple taxis, load them with explosives or remotely operated weapons, and send them out to multiple targets. Alternatively, terrorists could launch multi-stage attacks on the same target: a first strike causes first responders to mass and subsequent attacks hit the responders. In fact, ISIS has reportedly considered this option.6

For a few hundred dollars, anyone can rent a semi-autonomous surface vessel that can carry up to 35lbs.7  No license or registration is necessary.8  Although a surface attack limits terrorists to maritime targets, potential still exists for significant harm. Terrorists can strike popular tourist sites like the Statue of Liberty or San Francisco’s Fisherman’s Wharf. U.S. military vessels are ideal targets too, such as the USS Cole bombing in October 2000.9  But drones are not the only new method of attack.

Cyber-physical systems

Like drones, cyber attacks are low cost and reduce operational risks. Cyber attacks can be launched from secure locations, even on the other side of the world. Terrorists also gain high levels of autonomy that will inhibit law enforcement responses.10  Although cyberterrorism requires significant technical know-how, terrorists require few resources other than a computer to carry out an attack.

Cyber attacks could target chemical facilities, airplanes, and other critical infrastructure targets. In 2000, Vitek Boden infiltrated computers controlling the sewage system of Maroochy Shire, Australia, and released hundreds of thousands of gallons of raw sewage into the surrounding area.11  Boden could have caused even more harm if he wished.12  Although Boden’s attack primarily harmed the environment, other attacks could threaten human life. Cyber attacks could disable safety systems at chemical facilities, risking an accidental toxic gas release or explosions. A cyber assault on a Saudi petrochemical facility in August 2017 reportedly had that exact goal.13

However, cyber expertise and specific target knowledge is likely to be a significant inhibitor. Although attacks on critical infrastructure may require specialist knowledge of the control system and administrative operations, protective measures are not always implemented, leaving targets vulnerable.14  Boden was successful in large part because he worked closely with the sewage system’s control systems. Although terrorists have defaced websites and conducted denial of service attacks, known terrorist organizations do not currently possess the capabilities to mount a major destructive cyber attack.15  The availability of the necessary human capital is a strong factor in whether terrorists pursue cyber attacks.16  Nonetheless, the risk is likely to grow as terrorists develop greater cyber capabilities, increased connectivity creates new opportunities for attack, and the black market for cybercrime tools grows.17

The Future Operational Environment

Hot-zone team members from Hawaii’s Chemical, Biological, Radiological, Nuclear, and High-Yield Explosive, Enhanced-Response-Force-Package Team (CERFP) process simulated casualties through a decontamination zone during an exercise this spring. /  Source: U.S. Air National Guard photo by Senior Airman John Linzmeier

If terrorists have new avenues of mass casualty attack, U.S. forces must devote more resources to force protection and emergency response. U.S. forces may be called upon to aid local, state, and federal emergency responders in the event of a mass casualty attack. Likewise, U.S. troops may face risks themselves: cyber and drone attacks could certainly target U.S. military installations. Even attacks that do not kill can cause significant harm: disrupting airport operations as in the 2018 Gatwick drone incident may delay troop resupply, troop deployment, or close air support to Soldiers in the field. The U.S. military and the broader national security community must rethink its approach to mass casualty terrorism to respond to these threats. Terrorist groups have typically required CBRN weapons to cause mass harm. But if you can kill thousands in a drone attack, why bother with risky, difficult-to-acquire CBRN weapons?

For more information on this threat trend, see Non-State Actors and Their Uses of Emerging Technology, presented by Dr. Gary Ackerman, National Consortium for the Study of Terrorism and Responses to Terrorism, University of Maryland, at the Mad Scientist Robotics, Artificial Intelligence & Autonomy Conference at the Georgia Tech Research Institute, Atlanta, Georgia, 7-8 March 2017…

… as well as the following related Mad Scientist Laboratory posts:

– Zachary Kallenborn‘s previous post, A New Age of Terror: The Future of CBRN Terrorism.

– Marie Murphy‘s post, Trouble in Paradise: The Technological Upheaval of Modern Political and Economic Systems

– The Democratization of Dual Use Technology

– Autonomy Threat Trends

– The Future of the Cyber Domain

– Emergent Threat Posed by Super-Empowered Individuals…

… and crank up Love and Terror by The Cinematics!

Zachary Kallenborn is a freelance researcher and analyst, specializing in Chemical, Biological, Radiological, and Nuclear (CBRN) weapons, CBRN terrorism, drone swarms, and emerging technologies writ large. His research has appeared in the Nonproliferation Review, Studies in Conflict and Terrorism, Defense One, the Modern War Institute at West Point, and other outlets. His most recent study, Swarming Destruction: Drone Swarms and CBRN Weapons, examines the threats and opportunities of drone swarms for the full scope of CBRN weapons.

Disclaimer: The views expressed in this blog post do not necessarily reflect those of the Department of Defense, Department of the Army, Army Futures Command (AFC), or Training and Doctrine Command (TRADOC).

1 Amy Hocraffer and Chang S. Nam, “A Meta-analysis of Human–System Interfaces in Unmanned Aerial Vehicle (UAV) Swarm Management,” Applied Ergonomics, Vol. 58 (2017), pp. 66–80, http://www.researchgate.net/profile/Chang_Nam5/publication/303782432_A_meta-analysis_of_human-system_interfaces_in_unmanned_aerial_vehicle_UAV_swarm_management/links/5767f71f08ae1658e2f8b435.pdf

2 Natasha Turak, “Oil Prices Jump as Saudi Energy Minister Reports Drone ‘Terrorism’ Against Pipeline Infrastructure,” CNBC, May 14, 2019, https://www.cnbc.com/2019/05/14/oil-jumps-as-saudi-energy-minister-reports-drone-terrorism-against-pipeline.html

3 John Defterios and Victoria Cavaliere, “Coordinated Strikes Knock Out Half of Saudi Oil Capacity, More Than 5 Million Barrels a Day,” CNN, September 15, 2019, https://www.cnn.com/2019/09/14/business/saudi-oil-output-impacted-drone-attack/index.html

4 Department of Homeland Security, “Risk-Based Performance Standards Guidance: Chemical Facility Anti-Terrorism Standards,” May 2009, 15, 85.

5 Peter Dockrill, “Here’s What it Looks Like When a Drone Smashes into a Plane Wing at 238 MPH,” ScienceAlert, October 22, 2018, https://www.sciencealert.com/this-is-what-it-looks-like-drone-smashes-into-plane-s-wing-238-mph-mid-air-collision-aircraft-impact

6 Lia Eustachewich, “Terrorist Wannabes Plotted Self-Driving Car Bomb Attack: Authorities,” New York Post, September 4, 2018, https://nypost.com/2018/09/04/terrorist-wannabes-plotted-self-driving-car-bomb-attack-authorities/

7 AllTerra, “AllTerra Rental Rates,” May 3, 2019, https://allterracentral.com/pub/media/wysiwyg/AllTerra_Rental_Rates-5.3.19.pdf

8 Phone conversation with USV retailer.

9 CNN Library, “USS Cole Bombing Fast Facts,” CNN, March 27, 2019, https://www.cnn.com/2013/09/18/world/meast/uss-cole-bombing-fast-facts/index.html

10 Steve S. Sin, Laura A. Blackerby, Elvis Asiamah, and Rhyner Washburn, “Determining Extremist Organisations’ Likelihood of Conducting Cyber Attacks,” 2016 8th International Conference on Cyber Conflict, May 31 to June 3, 2016, http://ieeexplore.ieee.org/xpl/articleDetails.jsp?reload=true&arnumber=7529428&tag=1

11 Marshall Abrams and Joe Weiss, “Malicious Control System Cyber Security Attack Case Study – Maroochy Water Services, Australia,” MITRE, July 23, 2008, https://www.mitre.org/sites/default/files/pdf/08_1145.pdf

12 Nabil Sayfayn and Stuart Madnick, “Cybersafety Analysis of the Maroochy Shire Sewage Spill (Preliminary Draft),” Cybersecurity Interdisciplinary Systems Laboratory, May 2017, http://web.mit.edu/smadnick/www/wp/2017-09.pdf

13 Nicole Perlroth and Clifford Krauss, “A Cyberattack in Saudi Arabia had a Deadly Goal. Experts Fear Another Try,” New York Times, March 15, 2018, https://www.nytimes.com/2018/03/15/technology/saudi-arabia-hacks-cyberattacks.html

14 Noguchi Mutsuo and Ueda Hirofumi, “An Analysis of the Actual Status of Recent Cyberattacks on Critical Infrastructure,” NEC Technical Journal, Vol. 12, No. 2, January 2018, https://www.nec.com/en/global/techrep/journal/g17/n02/pdf/170204.pdf

15 Tamara Evan, Eireann Leverett, Simon Ruffle, Andrew Coburn, James Bourdeau, Rohan Gunaratna, and Daniel Ralph, “Cyber Terrorism: Assessment of the Threat to Insurance,” Cambridge Centre for Risk Studies – Cyber Terrorism Insurance Futures 2017, November 2017, https://www.jbs.cam.ac.uk/fileadmin/user_upload/research/centres/risk/downloads/pool-re-cyber-terrorism.pdf

16 Steve S. Sin, et al, “Determining Extremist Organisations’ Likelihood of Conducting Cyber Attacks.”

17 Lillian Ablon, Martin C. Libicki, and Andrea A. Golay, “Markets for Cybercrime Tools and Stolen Data: Hacker’s Bazaar,” RAND, 2014, https://www.rand.org/content/dam/rand/pubs/research_reports/RR600/RR610/RAND_RR610.pdf

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178. Space: Challenges and Opportunities

[Editor’s Note:  The U.S. Army Futures Command (AFC) and Training and Doctrine Command (TRADOC) co-sponsored the Mad Scientist Disruption and the Operational Environment Conference with the Cockrell School of Engineering at The University of Texas at Austin on 24-25 April 2019 in Austin, Texas. Today’s post is excerpted from this conference’s Final Report (see link at the end of this post), addressing how the Space Domain is becoming increasingly crowded, given that the community of spacefaring entities now comprises more than 90 nations, as well as companies such as Amazon, Google, and Alibaba.  This is particularly significant to the Army as it increasingly relies on space-based assets to support long-range precision fires and mission command.  Read on to learn how this space boom will create operational challenges for the Army, while simultaneously yield advances in autonomy that will ultimately benefit military applications in the other operational domains. (Note: Some of the embedded links in this post are best accessed using non-DoD networks.)]

“Everybody wants to launch satellites”

Space has the potential to become the most strategically important domain in the Operational Environment. Today’s maneuver Brigade Combat Team (BCT) has over 2,500 pieces of equipment dependent on space-based assets for Positioning, Navigation, and Timing (PNT).1 This number is only going to increase as emerging technology on Earth demands increased bandwidth, new orbital infrastructure, niche satellite capabilities, and advanced robotics.

Image made from models used to track debris in Low Earth Orbit / Source: NASA Earth Observatory; Wikimedia Commons

Low Earth Orbit is cluttered with hundreds of thousands of objects, such as satellites, debris, and other refuse that can pose a hazard to space operations, and only one percent of these objects are tracked.2  This complexity is further exacerbated by the fact that there are no universally recognized “space traffic rules” and no standard operating procedures. Additionally, there is a space “gold rush” with companies and countries racing to launch assets into orbit at a blistering pace. The FCC has granted over 7,500 satellite licenses for SpaceX alone over the next five years, and the U.S. has the potential to double the number of tracked space objects in that same timeframe.3 This has the potential to cause episodes of Kessler syndrome – where cascading damage produced by collisions increases debris by orders of magnitude.4  This excess debris could also be used as cover by an adversary for a hostile act, thereby making attribution difficult.

There are efforts, such as University of Texas-Austin’s tool ASTRIAGraph, to mitigate this problem through crowdsourcing the location of orbital objects. A key benefit of these tools is their ability to analyze all sources of information simultaneously so as to get the maximum mutual information on desired space domain awareness criteria and enable going from data to discovery.5   One added benefit is that the system layers the analysis of other organizations and governments to reveal gaps, inconsistencies, and data overlaps. This information is of vital importance to avoid collisions, to determine what is debris and what is active, and to properly plan flight paths. For the military, a collision with a mission-critical asset could disable warfighter capabilities, cause unintentional escalation, or result in loss of life.

As astronauts return to Earth via the Orion spacecraft, autonomous caretaking systems will maintain Gateway. / Source: NASA

Autonomy will be critical for future space activities because physical human presence in space will be limited. Autonomous robots with human-like mechanical skills performing maintenance and hardware survivability tasks will be vital. For example, NASA’s Gateway program relies upon fully autonomous systems to function as it’s devoid of humans for 11 months out of the year.

An autonomous caretaking capability will facilitate spacecraft maintenance when Gateway is unmanned / Source: NASA; Dr. Julia Badger

Fixing mechanical and hardware problems on the space station requires a dexterous robot on board that takes direction from a self-diagnosing program, thus creating a self-healing system of systems.6 The military can leverage this technology already developed for austere environments to perform tasks requiring fine motor skills in environments that are inhospitable or too dangerous for human life. Similar dual-use autonomous capabilities employed by our near-peer competitors could also serve as a threat capability against U.S. space assets.  As the military continues to expand its mission sets in space, and its assets become more complex systems of systems, it will increasingly rely on autonomous or semi-autonomous robots for maintenance, debris collection, and defense.

The Space Domain is vital to Land Domain operations.  Our adversaries are well aware of this dependence and intend to disrupt and degrade these capabilities.  NASA is at the forefront of long range operations with robotic systems responsible for self-healing, collection of information, and communications.  What lessons are being learned and applied by the Army from NASA’s experience with autonomous operations in Space?

If you enjoyed this post, please also see:

– The entire Mad Scientist Disruption and the Operational Environment Conference Final Report, dated 25 July 2019.

– Dr. Moriba K. Jah and Dr. Diane Howard‘s presentation from the aforementioned conference on Space Traffic Management and Situational Awareness

– Dr. Julia Badger‘s presentation from the same conference on Robotics in Space.

– Dr. Jah‘s Modern War Institute podcast on What Does the Future Hold for the US Military in Space? hosted by our colleagues at Modern War Institute.

– The following Mad Scientist Laboratory blog posts on space:

1 Houck, Caroline, “The Army’s Space Force Has Doubled in Six Years, and Demand Is Still Going Up,” DefenseOne, 23 Aug. 2017. https://www.defenseone.com/technology/2017/08/armys-space-force-has-doubled-six-years-and-demand-still-going/140467/

2 Jah, Moriba, Mad Scientist Conference: Disruption and the Future Operational Environment, University of Texas at Austin, 25 April 2019.

3 Seemangal, Robin, “Watch SpaceX Launch the First of its Global Internet Satellites,” Wired, 18 Feb. 2018. https://www.wired.com/story/watch-spacex-launch-the-first-of-its-global-internet-satellites/

4 “Micrometeoriods and Orbital Debris (MMOD),” NASA, 14 June 2016. https://www.nasa.gov/centers/wstf/site_tour/remote_hypervelocity_test_laboratory/micrometeoroid_and_orbital_debris.html

5 https://sites.utexas.edu/moriba/astriagraph/

6 Badger, Julia, Mad Scientist Conference: Disruption and the Future Operational Environment, University of Texas at Austin, 25 April 2019.

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175. “I Know the Sound it Makes When It Lies” AI-Powered Tech to Improve Engagement in the Human Domain

[Editor’s Note:  Mad Scientist Laboratory is pleased to publish today’s post by guest bloggers LTC Arnel P. David, LTC (Ret) Patrick James Christian, PhD, and Dr. Aleksandra Nesic, who use storytelling to illustrate how the convergence of Artificial Intelligence (AI), cloud computing, big data, augmented and enhanced reality, and deception detection algorithms could complement decision-making in future specialized engagements.  Enjoy this first in a series of three posts exploring how game changing tech will enhance operations in the Human Domain!]

RAF A400 Atlas / Source:  Flickr, UK MoD, by Andrew Linnett

It is 2028. Lt Col Archie Burton steps off the British A400-M Atlas plane onto the hard pan desert runway of Banku Airfield, Nigeria. This is his third visit to Nigeria, but this time he is the commander of the Engagement Operations Group – Bravo (EOG-B). This group of bespoke, specialized capabilities is the British Army’s agile and highly-trained force for specialized engagement. It operates amongst the people and builds indigenous mass with host nation security forces. Members of this outfit operate in civilian clothes and speak multiple languages with academic degrees ranging from anthropology to computational science.

Source:  Flickr, Com Salud

Archie donned his Viz glasses on the drive to a meeting with local leadership of the town of Banku. Speaking to his AI assistant, “Jarvis,” Archie cycles through past engagement data to prep for the meeting and learn the latest about the local town and its leaders. Jarvis is connected to a cloud-computing environment, referred to as “HDM” for “Human Doman Matrix,” where scientifically collected and curated population data is stored, maintained, and integrated with a host of applications to support operations in the human domain in both training and deployed settings.

Several private organizations that utilize integrated interdisciplinary social science have helped NATO, the U.K. MoD, and the U.S. DoD develop CGI-enabled virtual reality experiences to accelerate learning for operators who work in challenging conflict settings laden with complex psycho-social and emotional dynamics that drive the behaviour and interactions of the populations on the ground. Together with NGOs and civil society groups, they collected ethnographic data and combined it with phenomenological qualitative inquiry using psychology and sociology to curate anthropological stories that reflect specific cultural audiences.

EOG-Bravo’s mission letter from Field Army Headquarters states that they must leverage the extensive and complex human network dynamic to aid in the recovery of 11 females kidnapped by the Islamic Revolutionary Brotherhood (IRB) terrorist group. Two of the females are British citizens, who were supporting a humanitarian mission with the ‘Save the Kids’ NGO prior to being abducted.

At the meeting in Banku, the mayor, police chief, and representative from Save the Kids were present. Archie was welcomed by handshakes and hugs by the police chief who was a former student at Sandhurst and knows Archie from past deployments. The discussion leaped immediately into the kidnapping situation.

“The girls were last seen transiting a jungle area North of Oyero. Our organization is in contact by email with one of the IRB facilitators. He is asking for £2 million and we are ready to make that payment,” said Simon Moore of Save the Kids.

Archie’s Viz glasses scanned the facial expressions of those present and Jarvis cautioned him regarding the behaviour of the police chief whose micro facial expressions and eyes revealed a biological response of excitement at the mention of the £2M.

Archie asks “Chief Adesola, what do you think? Should we facilitate payment?”

“Hmmm, I’m not sure. We don’t know what the IRB will do. We should definitely consider it though,” said Police Chief Adesola.

The Viz glasses continued to feed the facial expressions into HDM, where the recurrent AI neural network recognition algorithm, HOMINID-AI, detected a lie. The AI system and human analysts at the Land Information Manoeuvre Centre (LIMOC) back in the U.K. estimate with a high-level of confidence that Chief Adesola was lying.

At the LIMOC, a 24-hour operation under 77th Brigade, Sgt Richards, determines that the Police Chief is worthy of surveillance by EOG-Alpha, Archie’s sister battlegroup. EOG-Alpha informs local teams in Lagos to deploy unmanned ground sensors and collection assets to monitor the police chief.

Small teams of 3-4 soldiers depart from Lagos in the middle of the night to link up with host nation counterparts. Together, the team of operators and Nigerian national-level security forces deploy sensors to monitor the police chief’s movements and conversations around his office and home.

The next morning, Chief Adesola is picked up by a sensor meeting with an unknown associate. The sensor scanned this associate and the LIMOC processed an immediate hit — he was a leader of the IRB; number three in their chain of command. EOG-A’s operational element is alerted and ordered to work with local security forces to detain this terrorist leader.  Intelligence collected from him and the Chief will hopefully lead them to the missing females…

If you enjoyed this post, stay tuned for Part 2 on the Human Domain Matrix, Part 3 on Emotional Warfare in Yemen, and check out the following links to other works by today’s blog post authors:

– Operationalizing the Science of the Human Domain by Aleks Nesic and Arnel P. David

– A Psycho-Emotional Human Security Analytical Framework by Patrick J. Christian, Aleksandra Nesic, David Sniffen, Tasneem Aljehani, Khaled Al Sumairi, Narayan B. Khadka, Basimah Hallawy, and Binamin Konlan

– Military Strategy in the 21st Century:  People, Connectivity, and Competition by Charles T. Cleveland, Benjamin Jensen, Susan Bryant, and Arnel P. David

… and see the following MadSci Lab blog posts on how AI can augment our Leaders’ decision-making on the battlefield:

– Takeaways Learned about the Future of the AI Battlefield

– The Guy Behind the Guy: AI as the Indispensable Marshal, by Mr. Brady Moore and Mr. Chris Sauceda

LTC Arnel P. David is an Army Strategist serving in the United Kingdom as the U.S. Special Assistant for the Chief of the General Staff. He recently completed an Artificial Intelligence Program from the Saïd Business School at the University of Oxford.

LTC (Ret) Patrick James Christian, PhD is co-founder of Valka-Mir and a Psychoanalytical Anthropologist focused on the psychopathology of violent ethnic and cultural conflict. He a retired Special Forces officer serving as a social scientist for the Psychological Operations Task Forces in the Arabian Peninsula and Afghanistan, where he constructs psychological profiles of designated target audiences.

Aleksandra Nesic, PhD is co-founder of Valka-Mir and Visiting Faculty for the Countering Violent Extremism and Countering Terrorism Fellowship Program at the Joint Special Operations University (JSOU), USSOCOM. She is also Visiting Faculty, U.S. Army JFK Special Warfare Center and School, and a Co-Founder and Senior Researcher of Complex Communal Conflicts at Valka-Mir Human Security, LLC.

Acknowledgements:  Special Thanks to the British Army Future Force Development Team for their help in creating the British characters depicted in this first story.

Disclaimer:  The views expressed in this blog post do not necessarily reflect those of the Department of Defense, Department of the Army, Army Futures Command (AFC), or Training and Doctrine Command (TRADOC).

 

 

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174. A New Age of Terror: The Future of CBRN Terrorism

[Editor’s Note:  Mad Scientist Laboratory is pleased to publish today’s post by guest blogger Zachary Kallenborn.  In the first of a series of posts, Mr. Kallenborn addresses how the convergence of emerging technologies is eroding barriers to terrorist organizations acquiring the requisite equipment, materiel, and expertise to develop and deliver chemical, biological, radiological, and nuclear (CBRN) agents in an attack.  Learn about the challenges that (thankfully) remain and the ramifications for the operational environment.  (Note:  Some of the embedded links in this post are best accessed using non-DoD networks.)]

Unidentified drones spotted over the Thayer Monument at West Point.

On the evening of July 15, 2034, 264 West Point cadets reported to the hospital with a severe, but unknown illness. West Point Military Police (MP) investigated the incident and discovered video footage of two men launching several autonomous drones from a pickup truck near the base, then driving off. A suspicious fire the same night at a local apartment complex revealed remnants of 3D printers and synthetic biology kits. The investigation remains ongoing…

 

Such a scenario is fantasy, but increasingly plausible.

Various emerging technologies reduce the barriers to chemical, biological, radiological, and nuclear (CBRN) terrorism — bioterrorism in particular. The convergence of these technologies used may allow terrorists to acquire CBRN weapons with minimal identifiable signatures. Although these technologies exist today, their sophistication, availability, and terrorist interest in their use is likely to grow over the coming decades. For example, the first powered model airplane was flown in 1937; however, terrorists did not attempt to use drones until 1994.1  Thankfully, major challenges will still inhibit truly catastrophic CBRN terror.

Acquisition

Kasumigaseki Station, one of the many stations affected during the Tokyo subway sarin attack by Aum Shinrikyo / Source:  Wikimedia Commons

CBRN weapon acquisition is a difficult task for terrorist organizations. Terrorists must acquire significant specialized equipment, materiel, expertise, and the organizational capabilities to support the acquisition of such weapons and a physical location to assemble them. Even supposed successes like Aum Shinrikyo’s attack on the Tokyo subway were not nearly as impactful as they could have been. Aum’s biological weapons program was also a notable failure. In one instance, a member of the cult fell into a vat of clostridium botulinum (the bacteria that produces the botulinum toxin) and emerged unharmed.2  As a result, only 1-2% of terrorist organizations pursue or use CBRN weapons.3  But these barriers are eroding.

3D printing may ease the acquisition of some equipment and materiel. 3D printers can be used to create equipment components at reduced cost and have been used to create bioreactors, microscopes, and others key elements.4  Bioprinters can also create tissue samples to test weapons agents.5  The digital build-files for 3D printed items can also be sent and received online, perhaps from black market sellers or individuals sympathetic to the terrorist’s ideology.6

Synthetic biology offers improved access to biological weapons agents, especially to otherwise highly controlled agents. Synthetic biology can be used to create new or modify existing organisms.7 According to the World Health Organization, synthetic biology techniques could plausibly allow recreation of the variola virus (smallpox).8  That is especially significant because the virus only exists in two highly secure laboratories.9

Delivery

Delivery of a CBRN agent can also be a challenge. CBRN agents useful for mass casualty attacks rely on the air to carry the agent to an adversary (nuclear weapons are an obvious exception, but the likelihood of a terrorist organization acquiring a nuclear weapon is extremely low). Poor wind conditions, physical barriers, rain, and other environmental conditions can inhibit delivery. Biological weapons also require spray systems that can create droplets of an appropriate size, so that the agent is light enough to float in the air, but heavy enough to enter the lungs (approximately 1-10 microns).

Drones also make CBRN agent delivery easier. Drones offer terrorists access to the air. Terrorists can use them to fly over physical barriers, such as fencing or walls to carry out an attack. Drones also give terrorists more control over where they launch an attack: they can choose a well-defended position or one proximate to an escape route. Although small drone payload sizes limit the amount of agent that can be delivered, terrorists can acquire multiple drones.

Advances in drone autonomy allow terrorists to control more drones at once.10  Autonomy also allows terrorists to launch more complex attacks, perhaps directing autonomous drones to multiple targets or follow a path through multiple, well-populated areas. Greater autonomy also reduces the risks to the terrorists, because they can flee more readily from the area.

3D printing can also help with CBRN agent delivery. Spray-tanks and nozzles subject to export controls can be 3D printed.11  3D printers can also be used to make drones.12  3D printers also provide customizability to adapt these systems for CBRN agent delivery.

Remaining Challenges

CBRN weapons acquisition also requires significant technical expertise. Terrorist organizations must correctly perform complex scientific procedures, know which procedures to use, know which equipment and materials are needed, and operate the equipment. They must do all of that without harming themselves or others (harming innocents may not seem like a concern for an organization intent on mass harm; however, it would risk exposure of the larger plot.) Much of this knowledge is tacit, meaning that it is based on experience and cannot be easily transferred to other individuals.

Emerging technologies do not drastically reduce this barrier, though experts disagree. For example, genome-synthesis requires significant tacit knowledge that terrorists cannot easily acquire without relevant experience.13  Likewise, 3D printers are unlikely to spit out a completely assembled piece of equipment. Rather, 3D printers may provide parts that need to be assembled into a final result. However, some experts argue that as technologies become more ubiquitous, they will be commercialized and made easier to use.14  While this technology is likely to become more accessible, physical limitations will place an upper bound on how accessible it can become.

The Future Operational Environment

If CBRN terrorism is becoming easier, U.S. forces can be expected to be at greater risk of CBRN attack and face more frequent attacks. An attack with infectious biological weapons from afar would not likely be discovered until well after the attack took place. Although still quite unlikely, a major biological attack could cause massive harm. Timed correctly, a CBRN terror attack could delay deployment of troops to a combat zone, inhibit launch of close-air support assets, or harm morale by delaying delivery of delicious pizza MREs.15  Off the battlefield, troops may have less access to protective gear and be at greater risk of harm. Even a poorly made agent can harm military operations: quarantines must still be established and operations limited until the risk is neutralized or at least determined to be non-harmful.

However, counter-intuitively, terrorist demand for CBRN weapons may actually decrease, because emerging technologies also offer easier pathways to mass casualties. These risks will be explored in the next article in this series.

If you enjoyed this post, please read:

– The Democratization of Dual Use Technology

– Dead Deer, and Mad Cows, and Humans (?) … Oh My! by proclaimed Mad Scientists LtCol Jennifer Snow and Dr. James Giordano, and returning guest blogger Joseph DeFranco

– Mad Scientist Bio Convergence and Soldier 2050 Conference blog post and Final Report

– Emergent Threat Posed by Super-Empowered Individuals

Zachary Kallenborn is a freelance researcher and analyst, specializing in Chemical, Biological, Radiological, and Nuclear (CBRN) weapons, CBRN terrorism, drone swarms, and emerging technologies writ large. His research has appeared in the Nonproliferation Review, Studies in Conflict and Terrorism, Defense One, the Modern War Institute at West Point, and other outlets. His most recent study, Swarming Destruction: Drone Swarms and CBRN Weapons, examines the threats and opportunities of drone swarms for the full scope of CBRN weapons.

Disclaimer:  The views expressed in this blog post do not necessarily reflect those of the Department of Defense, Department of the Army, Army Futures Command (AFC), or Training and Doctrine Command (TRADOC).

1 Walter A. Good, “The AMA History Project Presents Autobiography of Dr. Walter (Walt) A. Good,” Academy of Model Aeronautics, August 2009, https://www.modelaircraft.org/sites/default/files/files/GoodDrWalterAWalt.pdf; Robert J. Bunker, “Terrorist and Insurgent Unmanned Aerial Vehicles: Use, Potentials, and Military Implications,” United States Army War College Press, August 2015.

2 Richard Danzig et al., Aum Shinrikyo: Insights Into How Terrorists Develop Biological and Chemical Weapons, 2nd ed. (December 2012), https://s3.amazonaws.com/files.cnas.org/documents/CNAS_AumShinrikyo_SecondEdition_English.pdf (accessed 6 June 2017).

3 Gary Ackerman, Jonathan Wilkenfeld, R. Karl Rethemeyer, and Victor Asal, “Terrorist Groups and Weapons of Mass Destruction,” National Consortium for the Study of Terrorism and Responses to Terrorism, (START), https://www.start.umd.edu/research-projects/terrorist-groups-and-weapons-mass-destruction

4 Clare Scott, “Experiment Tests the Suitability of 3D Printing Materials for Creating Lab Equipment,” 3DPrint.com, August 3, 2018, https://3dprint.com/221403/3d-printing-materials-lab/

5 Kolja Brockmann, “Advances in 3D Printing Technology: Increasing Biological Weapons Proliferation Risks?” Stockholm International Peace Research Institute (SIPRI), July 29, 2019, https://www.sipri.org/commentary/blog/2019/advances-3d-printing-technology-increasing-biological-weapon-proliferation-risks

Franklin Houser, “3D Printed Drone Parts – All You Need to Know in 2019,” All3DP, February 12, 2019, https://all3dp.com/3d-print-drone-parts/

6 Natasha Bajema, “3D Printing: Enabler of Mass Destruction,” Medium, October 20, 2018, https://medium.com/@natashabajema/3d-printing-enabler-of-mass-destruction-74d2a684a13

7 Committee on Strategies for Identifying and Addressing Potential Biodefense Vulnerabilities Posed by Synthetic Biology, “Biodefense in the Age of Synthetic Biology,” (Washington DC: The National Academies Press, 2018), 9.

8 “The Independent Advisory Group on Public Health Implications of Synthetic Biology Technology Related to Smallpox,” World Health Organization, June 29-30, 2015, available at https://www.who.int/csr/resources/publications/smallpox/synthetic-biology-technology-smallpox/en/

9 Smallpox,” National Institutes of Allergy and Infectious Diseases, available at www.niaid.nih.gov/diseases-conditions/smallpox

10 Amy Hocraffer and Chang S. Nam, “A Meta-analysis of Human–System Interfaces in Unmanned Aerial Vehicle (UAV) Swarm Management,” Applied Ergonomics, Vol. 58 (2017), pp. 66–80, http://www.researchgate.net/profile/Chang_Nam5/publication/303782432_A_meta-analysis_of_human-system_interfaces_in_unmanned_aerial_vehicle_UAV_swarm_management/links/5767f71f08ae1658e2f8b435.pdf

11 Kolja Brockmann, “Advances in 3D Printing Technology: Increasing Biological Weapons Proliferation Risks?” Stockholm International Peace Research Institute (SIPRI), July 29, 2019, https://www.sipri.org/commentary/blog/2019/advances-3d-printing-technology-increasing-biological-weapon-proliferation-risks

12 Franklin Houser, “3D Printed Drone Parts – All You Need to Know in 2019,” All3DP, February 12, 2019, https://all3dp.com/3d-print-drone-parts/

13 Kathleen M. Vogel, “Framing Biosecurity: An Alternative to the Biotech Revolution Model?,” Science and Public Policy, Vol. 35 No. 1, 2008.

14 Jonathan B. Tucker, “Could Terrorists Exploit Synthetic Biology?” The New Atlantis, Spring 2011, https://www.thenewatlantis.com/publications/could-terrorists-exploit-synthetic-biology#_ftn8

15 Steve1989MREInfo, “2018 MRE Pepperoni Pizza MRE Review Meal Ready to Eat Ration Taste Testing,” YouTube, July 28, 2018, https://www.youtube.com/watch?v=u_sY-nJ179U

Posted on

127. “Maddest” Guest Blogger!

[Editor’s Note: Since its inception in November 2017, the Mad Scientist Laboratory has enabled us to expand our reach and engage global innovators from across industry, academia, and the Government regarding emergent disruptive technologies and their individual and convergent impacts on the future of warfare. For perspective, our blog has accrued 106K views by over 57K visitors from around the world!

Our Mad Scientist Community of Action continues to grow — in no small part due to the many guest bloggers who have shared their provocative, insightful, and occasionally disturbing visions of the future. To date, 53% of the blog posts published have been submitted by guest bloggers! We challenge you all to contribute your ideas about warfare and the Future Operational Environment!

In particular, we would like to recognize proclaimed Mad Scientist Dr. Alexander Kott by re-posting our review of his paper, Ground Warfare in 2050: How It Might Look, original published by the US Army Research Laboratory in August 2018.  This paper provides a technological forecast of autonomous intelligent agents and robots and their potential for employment on future battlefields in the year 2050.

Our review of Dr. Kott’s paper generated a record number of visits and views during the past six month period. Consequently, we hereby declare Dr. Kott to be the Mad Scientist Laboratory’s “Maddest” Guest Blogger! for the first and second quarters of FY19. In recognition of this achievement, Dr. Kott will receive much coveted Mad Scientist swag!

Enjoy today’s post as we revisit Dr. Kott’s conclusions with links to our previously published posts supporting his findings.]

Ground Warfare in 2050:  How It Might Look

In his paper, Dr. Kott addresses two major trends (currently under way) that will continue to affect combat operations for the foreseeable future. They are:

• The employment of small aerial drones for Intelligence, Surveillance, and Reconnaissance (ISR) will continue, making concealment difficult and eliminating distance from opposing forces as a means of counter-detection. This will require the development and use of decoy capabilities (also intelligent robotic devices). This counter-reconnaissance fight will feature prominently on future battlefields between autonomous sensors and countermeasures – “a robot-on-robot affair.”

See our related discussions regarding Concealment in the Fundamental Questions Affecting Army Modernization post and Finders vs Hiders in our Timeless Competitions post.

• The continued proliferation of intelligent munitions, operating at greater distances, collaborating in teams to seek out and destroy designated targets, and able to defeat armored and other hardened targets, as well as defiladed and entrenched targets.

See our descriptions of the future recon / strike complex in our Advanced Engagement Battlespace and the “Hyperactive Battlefield” post, and Robotics and Swarms / Semi Autonomous capabilities in our Potential Game Changers post.

These two trends will, in turn, drive the following forecasted developments:

• Increasing reliance on unmanned systems, “with humans becoming a minority within the overall force, being further dispersed across the battlefield.”

See Mr. Jeff Becker’s post on The Multi-Domain “Dragoon” Squad: A Hyper-enabled Combat System, and Mr. Mike Matson’s Demons in the Tall Grass, both of which envision future tactical units employing greater numbers of autonomous combat systems; as well as Mr. Sam Bendett’s post on Russian Ground Battlefield Robots: A Candid Evaluation and Ways Forward, addressing the contemporary hurdles that one of our strategic competitors must address in operationalizing Unmanned Ground Vehicles.

• Intelligent munitions will be neutralized “primarily by missiles and only secondarily by armor and entrenchments. Specialized autonomous protection vehicles will be required that will use their extensive load of antimissiles to defeat the incoming intelligent munitions.”

See our discussion of what warfare at machine-speed looks like in our Advanced Engagement Battlespace and the “Hyperactive Battlefield”.

Source: Fausto De Martini / Kill Command

• Forces will exploit “very complex terrain, such as dense forest and urban environments” for cover and concealment, requiring the development of highly mobile “ground robots with legs and limbs,” able to negotiate this congested landscape.

 

See our Megacities: Future Challenges and Responses and Integrated Sensors: The Critical Element in Future Complex Environment Warfare posts that address future complex operational environments.

Source: www.defenceimages.mod.uk

• The proliferation of autonomous combat systems on the battlefield will generate an additional required capability — “a significant number of specialized robotic vehicles that will serve as mobile power generation plants and charging stations.”

See our discussion of future Power capabilities on our Potential Game Changers handout.

• “To gain protection from intelligent munitions, extended subterranean tunnels and facilities will become important. This in turn will necessitate the tunnel-digging robotic machines, suitably equipped for battlefield mobility.”

See our discussion of Multi-Domain Swarming in our Black Swans and Pink Flamingos post.

• All of these autonomous, yet simultaneously integrated and networked battlefield systems will be vulnerable to Cyber-Electromagnetic Activities (CEMA). Consequently, the battle within the Cyber domain will “be fought largely by various autonomous cyber agents that will attack, defend, and manage the overall network of exceptional complexity and dynamics.”

See MAJ Chris Telley’s post addressing Artificial Intelligence (AI) as an Information Operations tool in his Influence at Machine Speed: The Coming of AI-Powered Propaganda.

• The “high volume and velocity of information produced and demanded by the robot-intensive force” will require an increasingly autonomous Command and Control (C2) system, with humans increasingly being on, rather than in, the loop.

See Mr. Ian Sullivan’s discussion of AI vs. AI and how the decisive edge accrues to the combatant with more autonomous decision-action concurrency in his Lessons Learned in Assessing the Operational Environment post.

If you enjoyed reading this post, please watch Dr. Alexander Kott’s presentation, “The Network is the Robot,” from the Mad Scientist Robotics, Artificial Intelligence, and Autonomy: Visioning Multi-Domain Warfare in 2030-2050 Conference, co-sponsored by the Georgia Tech Research Institute (GTRI), in Atlanta, Georgia, 7-8 March 2017.

… and crank up Mr. Roboto by Styx!

Dr. Alexander Kott serves as the ARL’s Chief Scientist. In this role he provides leadership in development of ARL technical strategy, maintaining technical quality of ARL research, and representing ARL to external technical community. He published over 80 technical papers and served as the initiator, co-author and primary editor of over ten books, including most recently Cyber Defense and Situational Awareness (2015) and Cyber Security of SCADA and other Industrial Control Systems (2016), and the forthcoming Cyber Resilience of Systems and Networks (2019).