Rethinking Warfare in a Technological Era
Carl von Clausewitz described war as “the continuation of politics by other means.” In this perspective, weapons serve as extensions of national decision-making, utilized when diplomacy fails. With the rise of directed energy weapons and autonomous underwater networks, there’s a growing concern that these technologies might start dictating their own rules. It leads to a pivotal question: What sort of world can we envision, or even govern, alongside these advanced tools?
The challenge now involves managing aspects like latency, visibility, and energy at the fringes of our livable environment. This is a shift in political dynamics, centered on what we can perceive and the rapidity of destruction.
The protective perimeter is evolving into a software-driven detection and response system.
Directed energy weapons have garnered attention for their sleek, theatrical effectiveness in defense. One notable system, Iron Beam, boasts a 100kW laser integrated into a complex defense array. The benefits are intriguing—unlimited ammunition, minimal costs per interception, and less collateral damage. These systems are touted as a way to counterbalance the overwhelming numbers of inexpensive drones that could overwhelm costly missile defenses.
However, the technical realities paint a more nuanced picture. These laser systems remain tethered to Earth, relying on sequential processes for power, cooling, and software integration. Their efficiency is also hindered by weather conditions—rain, fog, and storms can significantly degrade their performance. Even when potential is validated, practical deployments are often limited by atmospheric conditions.
If the sky transforms into a light show, the oceans are evolving into a space for different types of visibility. Traditionally, the underwater domain has served as a final defense against expansive surveillance efforts. Its inaccessibility has made it challenging to monitor and control. The Cold War era relied heavily on this inherent obscurity.
Now, however, the oceans are being utilized strategically. From autonomous mini submarines to U.S. Navy drones like the “killer whale,” the goal is to create an easier-to-navigate underwater world. The vision includes a decentralized fleet, spreading resources so that losing one asset doesn’t spell disaster.
Still, the science of water remains challenging. While high-speed radio is commonplace on land, underwater communication remains stubbornly slow, transmitting only a scant few kilobits per second over distances. This communication barrier is ushering in a new focus on localized decision-making. Drones under ice, for instance, can’t rely on external commands; they must navigate based solely on what their sensors reveal.
Trustworthiness in this realm is essential. There’s no fail-safe for buoyancy when maneuvering under ice in frigid temperatures. A layer of ice eliminates any easy escape route.
The Arctic has historically been viewed as a space for collaboration and scientific exploration, devoid of military tensions. This paradigm is shifting, however; as sea ice diminishes, the Arctic is starting to emerge as a vital corridor for trade and surveillance.
Some predictions suggest that by 2050, the Arctic could see virtually no sea ice in September. The Department of Defense anticipates the possibility of ice-free summers as soon as 2030. This melting could unveil new fishing grounds and resource corridors, like the Bering Strait, ripe for military and commercial exploitation.
The geopolitical landscape is changing not only through dialogue but also through infrastructure developments. Finland and Sweden’s recent NATO membership has altered the dynamics in the northern alliance. The U.S. Air Force manages a comprehensive Northern warning system featuring 49 radars. Operating this network in harsh conditions poses considerable logistical challenges.
The value of real-time responsiveness is becoming strategic. Geostationary satellites are inadequate for operations at high latitudes, necessitating a shift to low-orbit satellite constellations for essential connectivity in contemporary command and control.
We’re witnessing a transformation in how we perceive borders. This is becoming an era defined by software-driven monitoring and response systems. Critical undersea passages, cables, and pipelines must be continuously observed—this is about safeguarding the essential infrastructure of our connected lives. The intersection of technology and military strategy cultivates a new kind of border politics, where pivotal areas lie hidden within the electromagnetic spectrum and sonar gaps.
In this environment, we are compelled to operate with incomplete information. Returning to Clausewitz’s notion of friction, today, we encounter issues like packet loss and navigation errors. We’re on the brink of a changing world, observing ice melt and sensors aglow, waiting for humanity’s pressing challenges to be addressed at unprecedented speeds.
