In the current military scenario, the United States has to provide ground forces with essential supplies like food, fuel, ammunition, and weapons. In the potential conflict with China over Taiwan, these supplies would primarily be sourced from the Philippines and Japan.
This reliance means that mainly unarmed commercial vessels, like those operated by Military Sealift Command, are under threat. These ships are notably visible and defenseless against potential attacks. They could easily be outnumbered by a more aggressive Chinese fishing fleet.
An alternative approach would involve using small, autonomous surface containers that are quick and inexpensive to manufacture. Each of these could transport one or two standard shipping containers, and they could operate in groups, making them harder targets. Even if a number of them were attacked, it’s unlikely that an entire logistics network would be disrupted.
This shift represents a significant change from the traditional logistics methods that depend on large cargo ships. By distributing cargo across many smaller vessels, the risk of complete supply loss due to an attack is greatly minimized. Moreover, the Waterline Hug ship has a smaller profile, making it harder to detect.
Utilizing unmanned vessels would also lower the chance of human casualties and could potentially address issues like labor shortages within the military sealift command. These technology-driven ships can be updated rapidly to adapt to evolving threats, including evading enemies and navigating bad weather.
A small vessel of this type wouldn’t even need to dock at a port; it could reach nearly any location and deliver supplies closer to areas of conflict. They could serve as offshore supply points, offering just-in-time deliveries.
Notably, a fleet of these small ships could be quickly produced in the United States. With advancements in adaptive manufacturing technologies like 3D printing, production could ramp up during a conflict, and the vessels could be repaired or replaced afterward.
Although this autonomous container concept offers advanced logistics that could be hard for adversaries to counter, it does come with its own set of challenges and limitations.
Operating across open waters, communication disruptions, or cyberattacks could hinder each vessel’s mission. Autonomous operations may allow for some coordination, but they certainly present technical obstacles in terms of development and testing.
Additionally, off-loading cargo without a crew or port adds complexity. However, if the Pentagon commits to Distributed Logistics Distribution, it might lead to technological advancements that could tackle this tricky last-mile issue.
Military strategists must also take into account maritime laws and regulations relevant to U.S. allies, including rights and environmental considerations in territorial waters. This could necessitate timely diplomatic efforts, especially in a conflict situation, but may be eased if the nation’s security is threatened.
In international waters, jurisdiction mainly falls under the International Maritime Organization, which oversees maritime transport regulations. These rules might need to be adjusted for the operation of autonomous containers in open water.
These are certainly not minor concerns. Nevertheless, similar challenges have been successfully navigated in recent years, such as deploying complex software in systems like the U.S. Navy’s Aegis command/control system and for F-35 fighter jets.
Ultimately, maintaining military operations across the islands of the Indo-Pacific against formidable foes will leave little room for traditional strategies. The situation calls for innovative thinking around supply delivery methods that are effective, adaptable, and resilient.
