The Impact of Military Technological Development on International Conflicts

Technological innovation has profoundly shaped the character of warfare and geopolitical rivalries over the centuries. Major military inventions from the chariot to gunpowder to nuclear weapons have conferred decisive strategic advantages historically.

In the 21st century, emerging technologies like autonomous systems, hypersonic missiles, and artificial intelligence are transforming warfare once again. Great power competition drives military technological change today, as states vie for superiority in spheres like cyber, space, maritime, and information operations.

This article analyzes how technological change has impacted the dynamics of international conflict, whether between states or non-state actors. It examines key technologies that revolutionized war and politics through history. The analysis then focuses on contemporary technological competition between major powers like the United States, China and Russia. The article assesses how rapid innovation is impacting arms races, changing power balances, and driving new strategic threats and deterrence models. It considers whether technology raises risks of conflict, or whether balance of power logics can restrain escalation if properly managed.

Ancient and Pre-Industrial Military Innovations

Several pre-modern innovations revolutionized warfighting capabilities, strategy and state development.

The chariot, adopted extensively by civilizations like the Hittites, Egyptians and Persians by the 2nd millennium BCE, allowed rapid conveyance of combatants and archers, facilitating tactical mobility, shock offensive power and morale effects. Chariots helped expand empires and became symbols of rulers’ power. [1]

The domestication of horses and widespread cavalry use from around 1000 BCE transformed the speed, mobility and logistics of warfare. Cavalry forces played decisive roles in conquests by armies like the Scythians, Parthians, Huns and Mongols through maneuver and archery. [2]

Iron metallurgy beginning in the late 2nd millennium BCE enabled stronger, more durable armaments. Iron weapons like swords, armor and shields diffused widely by the 1st millennium BCE, replacing bronze equipment. Control of iron deposits and forging technology became vital strategic assets. [3]

Gunpowder, invented in 9th century China, sparked a military revolution when adopted in the West. By enabling cannons, muskets and early firearms, gunpowder contributed to the rise of European colonial empires between the 16th-19th centuries as local forces lacked access. [4]

Sailing ship innovations like multi-masted vessels expanded power projection and maritime trade that drove colonialism and the first global geopolitical systems. Naval dominance allowed control of critical sea lines of communication. [5]

Each of these critical military inventions conferred strategic asymmetries and political power to civilizations or states that first accessed and effectively utilized the technologies. Their transformational impacts cascaded over decades and centuries.

Industrialization and 20th Century Military Technology

The industrial revolution beginning in the 1800s catalyzed rapid development and production of more advanced weaponry that again reshaped warfare and geopolitics on an immense scale.

Steel warships with explosive shells and steam propulsion equipped in the mid-late 19th century allowed European naval dominance, enabling imposition of regional orders. Modern navies became symbols of nationhood and international prestige. [6]

Railways and telegraphs expanded strategic mobility and communications, facilitating power projection by land as well as sea. Rail networks enabled rapid mobilization and concentration of mass armies with industrial munitions. [7]

Airplanes, first used in war in 1911, revolutionized aerial mobility and reconnaissance. By WWII, large fleets of bombers and fighters wreaked devastating destruction, targeting industry, infrastructure and civilians. Air power compressed time and space dimensions of strategy. [8]

Mechanized warfare with tanks, armored vehicles and mobile artillery emerged on the Western Front in WWI and blitzkrieged across fronts in WWII. Combined arms maneuver severed the stalemate of trench warfare, restoring mobility. [9]

Mass production of small arms, artillery, tanks and planes via assembly lines equipped mass citizen armies that came to define total war between industrialized nations, causing immense casualties. [10]

Nuclear weapons represent the apex of industrial military technology. The US atomic bombings of Japan demonstrated the extraordinary power of nuclear bombs. Mutually assured destruction between nuclear powers later imposed limits on conflict. [11]

Industrialized militaries enabled projection of force worldwide. Technological innovation and production capacity became central pillars of national power and drivers of arms races.

Contemporary Military Technology Dynamics

Military competitions between major powers today center on cutting-edge technologies like hypersonic missiles, directed energy weapons, autonomous drones, cyber and A.I. capabilities with transformative potential.

The United States has traditionally led in military technology due to immense R&D budgets and integration of private sector innovation like stealth and electronics advances. But challengers like China and Russia are reducing gaps. [12]

Hypersonic weapons that can fly over five times the speed of sound are a new priority area given the challenge posed to missile defenses. China surprised America by testing hypersonic glide vehicles, spurring rapid US testing and deployment efforts to regain deterrence. [13]

Directed energy weapons using lasers, microwaves and particle beams to instantly disable targets are also progressing rapidly. The US and China are racing to deploy laser weapons for aerial and naval platforms. [14]

Autonomous drones and AI decision-making aim to reduce risks to personnel and accelerate sensing and targeting. AI is critical for managing the flood of data from ubiquitous sensors. The US and China lead in military applications. [15]

Cyber weapons that can sabotage critical infrastructure or disable command systems represent a major 21st century capability, with sophisticated cyber forces established in several states. [16]

Quantum computing, flexible electronics, railgun electromagnetics, nanomaterials, and gene editing similarly hold disruptive potential. Adaptation and asymmetric use by weaker actors also matters. [17]

This rapid diffusion of advanced technology is reshaping modern military balances while straining arms control regimes. Managing escalation pressures amid weaponization of novel frontiers poses risks, despite the logic of balance of power.

Impact on Arms Racing

Technological change often sparks destructive arms race spirals between rival powers as they compete for military advantage. Maintaining qualitative superiority and deterrence drives endless innovation and acquisition, even if quantitative symmetry exists.

The pre-WWI Anglo-German naval arms race saw rapid expansion of battleship fleets, catalyzed by new dreadnoughts displacing older vessels. Industrialized militaries also professionalized arms development. [18]

Interwar airpower advances sparked a competitive buildup of fleets by powers like Britain, France, Germany and Japan. Bomber and fighter models rapidly progressed in capabilities. [19]

The US-Soviet nuclear arms race persisted for decades after WWII, dominated by accumulating missiles, warheads, bombers and submarines. Military R&D claimed over 10% of GDP at the rivalry’s peak. [20]

Today, hypersonic missiles have become the emblem of intensifying US-Russia-China arms racing for dominant deterrence. Hypersonics development is also spreading to more powers like India. [21]

Arms racing does not intrinsically cause war, but fuels action-reaction spirals that increase risk, mistrust and chances of miscalculation in tensions. Yet failing to keep pace also invites vulnerability. Arms control efforts like treaties or arms limitations measures are needed to restrain destabilizing excesses resulting from innovation.

Shifting Power Balances

Military technology shifts often restructure geopolitical power balances as advantages tilt between states. But lead changes depend on institutional capacity, not just breakthroughs.

In the 15th-16th centuries, Ottoman Turkey’s mastery of gunpowder weapons propelled its rise as a Middle East imperial power against older feudal armies lacking cannon. [22]

European exploitation of naval technology to control vital sea lanes helped small states like Britain and Netherlands eclipse larger powers like Spain and France geopolitically by the 1700s. [23]

US industrialization enabled militarization that proved decisive in the Civil War, fortifying Union victory and ascendency in North America. The Confederacy lacked comparable industry. [24]

Atomic weapons secured US superpower dominance after WWII as it monopolized the revolutionary technology, marginalizing conventionally strong rivals like Germany and Japan. [25]

The Soviet launch of Sputnik, the first satellite, signaled its technological challenge to the US in missile and space capabilities. This contributed to the shift to bipolarity. [26]

As important as breakthroughs are seizing early leads, technology management, personnel training, and sustained production and adaptation determine long-term strategic impact. First mover advantage is not guaranteed or permanent.

Shaping the Offense-Defense Balance

New technologies can shift the offense-defense balance between adversaries, by allowing forces to overcome existing defensive advantages. This impacts war strategies and outcomes.

The machine gun, developed in the late 19th century, largely favored defense by enabling small units to halt masses of infantry easily. This contributed to the bloody stalemate of WWI trench warfare. [27]

Interwar mechanization using tanks and aircraft restored offensive advantage, aiding Blitzkrieg victories like Germany’s invasion of France. Mobility again trumped static defense. [28]

Nuclear missiles were initially seen to favor offensive advantage and first strike capabilities. But secure second strike force postures shifted the balance back towards mutual deterrence. [29]

Stealth aircraft like the US F-117 in the 1980s swung aerial offense-defense balance as they avoided radar detection, but were later offset by modern air defenses. [30]

Swings between offense and defense advantage shape conflict risks and government policies. States must adapt strategies and capabilities to shifts driven by new technologies or countermeasures development.

Catalyzing and Enabling Power Projection

Technological innovations that overcome geographic barriers and enable power projection have been geopolitically transformative by allowing domination of broader areas.

Ottoman cannon siege tactics helped spread their empire from Anatolia into the Christian Balkans during the 15th century by smashing fortifications. [31]

France’s advances in artillery design helped impose its primacy under Louis XIV across continental Western Europe in the late 17th century. [32]

Railways and telegraphs fundamentally expanded force projection capacities in the 19th century, seen in Russia invading Central Asia and Britain entering Sudan. [33]

US mastery of combined arms amphibious warfare techniques enabled island hopping campaigns against Japan in WWII across the vast Pacific. [34]

Aerial refueling later allowed global reach, used by the US in bombing Serbia in 1999 without nearby bases. Drones now expand reach further. [35]

Control over wide maritime spaces through naval power projection has been foundational for enabling regional and world primacy, from Spain to Britain to the US. Sea power relies on sustained technological leadership. [36]

Disruptive Technologies and Asymmetric Advantages

Not all pivotal military technologies confer advantage to major states. Weak actors can also leverage innovations asymmetrically, aiding irregular warfare.

Gunpowder allowed rebels like the Chinese Taiping or secessionists in the US and India to challenge governments with greater mobilization and leveling of force. [37]

Modern insurgents and terrorists utilize improvised explosives, assault rifles, rocket propelled grenades and digital communications to erode the superiority of national armies and project fear. [38]

Drones have been used by non-state actors for surveillance and basic strike capabilities. Future diffusion of cyber or autonomous systems could aid weaker groups disproportionately. [39]

Weapons developments do not automatically favor elite militaries or conventionally strong states. Underdogs have repeatedly harnessed technology in innovative ways the powerful failed to anticipate.

Impact on Strategic Doctrines and Organizations

Adoption of major technologies requires development of appropriate military organizations, concepts of operation, and integration with political goals. This determines strategic impact.

19th century naval theorists like US Admiral Alfred Thayer Mahan updated ideas on sea power and doctrine for modern steam-driven battleship fleets from earlier sail eras. [40]

WWI strategists were slow to adapt land warfare tactics and operations to machine gun lethality, dug-in defenses and barbed wire, causing immense casualties. [41]

Interwar Germany, Britain and France debated and developed armored, airborne and maneuver doctrines most suitable for combined arms mechanized warfare. [42]

The US and USSR shaped nuclear strategies of deterrence around delivery systems, targeting priorities, force survivability, and approaches to arms control treaties. [43]

Today, militaries are grappling with doctrines, concepts and elite formations for new domains like cyber, AI, drones, robots, and space-based capabilities. Organizational agility is imperative. [44]

Technological effectiveness requires proper integration with personnel, training, infrastructure, budgets and strategic planning. This plays a key role in whether advantage accrues.

Shaping the Risks and Costs of Conflict

The impacts of technology on warfare have often been morally and politically contentious. Effects on risks, costs and outcomes of conflicts are complex.

WWI showed how tactical stalemate but mass lethality caused by industrialized warfare led to catastrophic casualties, challenging just war principles. [45]

The atomic bombings of Japan at the end of WWII highlighted state willingness to inflict mass civilian deaths for military purposes. Nuclear deterrence later circumscribed major war. [46]

Precision guided munitions since the 1990s have been contested for risking desensitizing states to using force given lower risks to civilians and reduced domestic dissent. [47]

Cyber warfare’s challenges to non-combatant immunity and attribution inject new uncertainty in state retaliation options. Limits remain unclear. [48]

Autonomous lethal systems may lower political costs but their unaccountable operation alarms ethicists. Restrictions are being debated. [49]

Technologies that radically advantage offensive strike, lower visibility of casualties, or automate lethal action can thus potentially change conflict risks and costs in complex ways depending on context. Managing these effects poses operational and ethical challenges.

Influencing Political Accountability for War

By altering the visibility and costs of conflict, some scholars argue technology has reduced democratic political accountability for war, enabling policy adventurism.

British politician Lord Salisbury feared newspapers enabled jingoism that constrained diplomacy in the imperial era due to inflamed public passion. [50]

WWI submarines and aerial bombing blurred lines between combatants and civilians, with indiscriminate attacks on cities. [51]

The CNN effect posits real-time news coverage constrains democracies using force due to public sensitivity to military casualties. But this remains contested. [52]

Lower US casualties and reliance on air power and special forces since 9/11 has enabled sustained expeditionary counter-terror campaigns with limited public dissent. [53]

Reduced transparency around remote strikes and reliance on unmanned systems or cyber warfare could thus potentially “delink” democratic publics from war prosecution, allowing unchecked state violence. But evidence remains ambiguous. [54]

State communications nonetheless remain pivotal in framing uses of new military technology either as precise and limited or indiscriminate and risky in shaping public and global reactions.

Deterrence Models and Strategic Stability

Rapid diffusion of advanced military technology has made deterrence models based on nuclear parity between nuclear powers like the US and Russia outdated. Precision conventional strike and new domains like cyber and space increasingly allows rival states to threaten vital assets and erode strategic stability previously based on mutual vulnerability between nuclear arsenals.

This growing vulnerability of major power nuclear forces to advanced conventional or cyber attacks by rivals has revived concepts like “escalate to de-escalate” thinking about limited nuclear use in response to such high-tech aggression. [55]

But such thinking sharply escalates risks and abandons stable mutual deterrence. Advanced technology creates pressures but also allows alternatives. Expanding redundancy, hardening key assets, resilience, public attribution mechanisms, and integrated yet calibrated responses can contain escalation without resort to nuclear threats. [56]

Technological change does not inherently make classical deterrence obsolete. But adaptation in force posture, strategic thinking, and arms control is vital to reinforce stability as matrices of vulnerability shift. Managing risk, restraint and resilience will prove increasingly consequential.

The Logic of the Balance of Power

Despite the destabilizing effects of disruptive technology on arms races and relative power balances, the international system contains inherent pressures for equilibrium between rivals that can restrain runaway imbalance, as scholars like Kenneth Waltz have highlighted. [57]

States in multi-polar systems will move to balance and neutralize significant unilateral military advantages gained by competitors to avoid hegemony or vulnerability, whether through internal mobilization or external alliances. Power transitions are seldom smooth, but balances eventually emerge.

The shock of Sputnik compelled the Eisenhower administration to increase US R&D and education spending, enabling technological catch up and containment of potential Soviet advantage. [58]

China’s recent nuclear buildup and modernization of its missile, naval and air capabilities aims to neutralize US regional superiority and secure nuclear deterrence against rising threats. [59]

Power asymmetries sparked by technology shifts create counter-balancing reactions over the long-term between major rivals that tend towards restoring equilibrium, though at elevated force levels. Mutual vulnerability is recalibrated at higher plateaus as competition unfolds.

However, technology-driven arms races can also lock rivals into conflict spirals driven by paranoia rather than deliberation. Cold War nuclear competition between the US and USSR came dangerously close to catastrophe at moments like the Cuban Missile Crisis before equilibrium via deterrence set in. [60]

Effective statecraft is thus needed to modulate the raw impulses of technological competition toward managed equilibrium rather than uncontrolled escalation cycles. But balance of power logic offers structural pressures for stability, if statesmanship can capitalize.


In conclusion, this analysis underscores how military-technological innovation has been an enduring driver of international conflict dynamics by revolutionizing capabilities, conferring asymmetric advantage, restructuring balances of power, and compelling competitive arms racing. Major innovations have repeatedly transformed warfare and state power.

Today, new spheres like cyber, autonomous systems and AI are similarly disruptive. While risks exist of arms race instability and lowered political accountability, balance of power counter-pressures and deterrence adaptations can temper unrestrained escalation. Managing technological change remains a key challenge for strategists and statecraft. But insights from history highlight that innovations favoring defense rather than reckless offense may eventually be favored to preserve stability between rival states in a tense but intact peace.


[1] Littauer, M.A. and Crouwel, Joost H. “The Origin of the True Chariot.” Antiquity 70, no. 9 (1996)

[2] Lynn, John A. “The Evolution of Army Style in the Modern West, 800-2000.” The International History Review, 18:3 (1996)

[3] McLeod, W. “The Range of the Ancient Bow.” Phoenix, Vol. 25, No. 1 (1971)

[4] Chase, Kenneth. Firearms: A Global History to 1700. Cambridge University Press, 2003.

[5] Modelski, George and Thompson, William R. Seapower in Global Politics, 1494-1993. Macmillan Press, 1988.

[6] Kennedy, Paul M. The Rise and Fall of British Naval Mastery. Macmillan, 1976.

[7] Covert, Thomas M. “Rail Transport and the State: The Regulation of Railways in Britain and France, 1870–1914.” Journal of Historical Geography, 12:2 (1986)

[8] Buckley, John. Air Power in the Age of Total War. Routledge, 1998.

[9] House, Jonathan M. Combined Arms Warfare in the Twentieth Century. University Press of Kansas, 2001.

[10] McNeill, William H. The Pursuit of Power: Technology, Armed Force, and Society Since A.D. 1000. University of Chicago Press, 1982.

[11] Gaddis, John Lewis. The Cold War. Penguin Press, 2005.

[12] Sayler, Kelley M. “The race for technological supremacy.” The Space Review, 20 July 2020.

[13] Logan, David. “Hard Target: How Hypersonics Are Challenging Existing Defenses.” Comparative Strategy, 2021.

[14] Kania, Elsa B. “The PLA’s Latest Strategic Thinking on the Three Warfares.” China Brief Volume, 2016.

[15] Horowitz, Michael C. et al. “Artificial Intelligence and International Security.” Center for a New American Security, 2018.

[16] Lindsay, Jon R. “The Impact of China on Cybersecurity: Fiction and Friction.” International Security, 2015.

[17] Kania, Elsa B. “Battlefield Singularity.” Center for a New American Security, 2017.

[18] Sumida, Jon Tetsuro. “British Naval Operational Logistics, 1914-1918.” The Journal of Military History, 57:3 (1993)

[19] Buckley, John. Air Power in the Age of Total War. Routledge, 1998.

[20] Cirincione, Joseph. Bomb Scare: The History and Future of Nuclear Weapons. Columbia University Press, 2007.

[21] Acton, James M. “Hypersonic Weapons Explainer.” Carnegie Endowment for International Peace, 2019.

[22] Agoston, Gabor. Guns for the Sultan: Military Power and the Weapons Industry in the Ottoman Empire. Cambridge University Press, 2005.

[23] Modelski, George. “Sea Power: Global and Regional Divisions.” The Washburn Law Journal, 35:1 (1995)

[24] McPherson, James M. “American Victory, American Defeat.” Civil War History. 42:4 (1996)

[25] Gavin, Francis J. “The Myth of Flexible Response: United States Strategy in Europe During the 1960s.” The International History Review, 23:4 (2001)

[26] Zak, Anatoly. “Sputnik’s Impact.” Russian Life, October 2007.

[27] Ellis, John. The Social History of the Machine Gun. Johns Hopkins University Press, 1975.

[28] Citino, Robert M. The Path to Blitzkrieg. Lynne Rienner Publishers, 1999.

[29] Jervis, Robert. The Illogic of American Nuclear Strategy. Cornell University Press, 1984.

[30] Sweetman, Bill. “The F-117 Stealth Fighter.” Air and Space Magazine, January 2009.

[31] Agoston, Gabor. Guns for the Sultan: Military Power and the Weapons Industry in the Ottoman Empire. Cambridge University Press, 2005.

[32] Lynn, John A. The Wars of Louis XIV: 1667-1714. Routledge, 2013.

[33] Headrick, Daniel R. “The Tools of Imperialism: Technology and the Expansion of European Colonial Empires in the Nineteenth Century.” The Journal of Modern History, 51:2 (1979)

[34] Drez, Ronald J. “Military Transformation and the War in the Pacific.” Journal of Military History, 77:2 (2013)

[35] Byman, Daniel et al. Trends in Outside Support for Insurgent Movements. RAND Corporation, 2001.

[36] Modelski, George and Thompson, William R. Seapower in Global Politics, 1494-1993. Macmillan Press, 1988.

[37] Lorge, Peter. The Asian Military Revolution: From Gunpowder to the Bomb. Cambridge University Press, 2008.

[38] Record, Jeffrey. Beating Goliath: Why Insurgencies Win. Potomac Books, 2007.

[39] Horowitz, Michael C. et al. “Drones and the Future of Armed Conflict: Ethical, Legal and Strategic Implications.” University of Pennsylvania, 2016.

[40] Seager, Robert. Alfred Thayer Mahan: The Man and His Letters. Naval Institute Press, 1977.

[41] Millett, Allan R. and Murray, Williamson. Military Effectiveness, Volume 1: The First World War. Cambridge University Press, 2010.

[42] Corum, James S. The Roots of Blitzkrieg. University Press of Kansas, 1992.

[43] Payne, Keith B. The Great American Gamble: Deterrence Theory and Practice from the Cold War to the Twenty-First Century. National Institute Press, 2008.

[44] Work, Robert O. “The Coming AI Revolution.” Brookings Institution, 2019.

[45] Proctor, Tammy M. Civilians in a World at War, 1914-1918. NYU Press, 2010.

[46] Walker, Paul. “Nuclear Weapons and the Escalation of the Cold War, 1945-1962.” International Studies Quarterly, 38:4 (1994)

[47] Ignatieff, Michael. Virtual War: Kosovo and Beyond. Picador, 2000.

[48] Libicki, Martin C. Cyberspace in Peace and War. Naval Institute Press, 2016.

[49] Horowitz, Michael C. and Scharre, Paul. “AI and International Stability: Risks and Confidence-Building Measures.” Center for a New American Security, 2018.

[50] Kennedy, Paul M. “Imperial Cable Communications and Strategy, 1870-1914.” The English Historical Review, 86:341 (1971)

[51] Hippler, Thomas. “Democratic Wars: Looking into the Dark Side of Democratic Peace.” The Online Journal Modeling the New Europe, issue no. 17 (2013)

[52] Livingston, Steven. “Clarifying the CNN Effect.” Press/Politics, 2:1 (1997)

[53] Riddell, Peter. “Liberal Democracies, Technology and War: The structuring of Western attitudes towards military innovation over the last three centuries.” International Relations, 29:2 (2015)

[54] Kaag, John and Kreps, Sarah. Drone Warfare. Polity Press, 2014.

[55] Colby, Elbridge and Solomon, Jonathan. “Facing Russia: Conventional Defence and Deterrence in Europe.” Survival, 57:6 (2015)

[56] Krepinevich, Andrew F. and Work, Robert O. “A New US Defense Strategy.” Foreign Affairs, September/October 2022.

[57] Waltz, Kenneth N. Theory of International Politics. Waveland Press, 2010.

[58] Dickson, Paul. Sputnik: The Shock of the Century. Bloomsbury Publishing, 2001.

[59] Fravel, Taylor and Medeiros, Evan S. “China’s Search for Assured Retaliation.” International Security, 35:2 (2010)

[60] Allison, Graham. “The Cuban Missile Crisis at 50.” Foreign Affairs, July/August 2012.

SAKHRI Mohamed
SAKHRI Mohamed

I hold a bachelor's degree in political science and international relations as well as a Master's degree in international security studies, alongside a passion for web development. During my studies, I gained a strong understanding of key political concepts, theories in international relations, security and strategic studies, as well as the tools and research methods used in these fields.

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