DARPA’s Strategic Technology Office recently revealed updates on its current research into how the U.S. military can use complexity as an asymmetric weapon against adversaries. STO’s Director Tom Burns and Deputy Director Dan Patt call the concept “mosaic warfare” and have proposed it as a replacement to the U.S.’s traditional “system of systems” approach.
Burns recently characterized mosaic warfare as “a technology-based vision that would enable highly complex, strategic moves by composing multiple contributing systems. The goal is to fight as a network to create a chain of effects – or, more accurately because these effects are not linear, ‘web effects’ – to deter and defeat adversaries across multiple scales of conflict intensity.”
Burns and Patt have cited numerous reasons for the updated approach. For one, the technological advantage the U.S. has maintained over adversaries in recent decades is slowly decreasing because high-tech systems and components, such as electronics, that once took significant investment and development cycles to acquire are now commercially available.
Given the shrinking technological advantage, the historically long timeline and high cost associated with developing new, large-scale, complex military capabilities, weapons systems and warfighting platforms are no longer adequate. Instead, Burns and Patt say, the U.S. should focus on developing smaller systems that can easily scale and quickly upgrade. By creating a mosaic of “dynamic, coordinated and highly autonomous composable systems,” the U.S. can impose massive complexity on adversaries, creating new types of strategic advantage via asymmetric means.
In an interview with Fifth Domain, Burns explained:
The mosaic concept fundamentally differs from the traditional “system of systems” model, which Burns and Patt see as flawed because it often inherently limits adaptability, scalability and interoperability. In the same interview with Fifth Domain, Patt explained:
Many of the technological capabilities required for mosaic warfare carry over from the traditional approach. For instance, Patt noted that resilient communications and command and control would continue to be a fundamental component in mosaic warfare. However, mosaic warfare will shift the engineering-design approach to new systems.
“Mosaic warfare envisions shifting value from the performance characteristics of individual platforms to the resilience of a heterogeneous warfighting collective (mosaic),” Patt explained. “This implies that the engineering burden moves from tight integration of a platform and key subsystems to the connectivity and command and control of a battle network.”
Patt added that new, enabling technologies for mosaic warfare should “support on-demand composition, integration and interoperability.”
A major premise of the mosaic concept is that it will enhance U.S. capabilities across all domains of warfare, including cyber. For example, Burns said, “In a Mosaic warfare scenario, existing cyber defensive measures might serve as an intelligence, surveillance and reconnaissance (ISR) function, detecting cyber aggression and flowing information into an airborne command station to support attribution and allowing U.S. forces to initiate a non-cyber response in an ongoing kinetic fight. Mosaic warfare allows for rapid coupling of disparate functions to support military decision making.”
The applications of mosaic warfare are broad, ranging from “conventional force-on-force battles to more nebulous ‘gray zone’ conflicts, which don’t reach the threshold of traditional military engagement,” Burns has said previously.
Gray zone applications are potentially as important as conventional ones, given the number of conflicts that have simmered just below the threshold of kinetic combat in recent years. Depending on the definition, the U.S. is arguably involved in consequential gray zone conflicts with Russia, China, Iran and North Korea.
Asked about applications, Burns said, “Mosaic warfare could enable rapid decision cycles in a gray zone conflict. Due to difficulties in sensing or affecting activities that don’t reach the threshold of traditional military engagement, we aren’t as capable in the gray zone as we would like to be. Mosaic warfare won’t obviate the need for developing new sensing or effects, but would permit them to quickly strung together in a militarily relevant context.”
Patt noted that the timeline to operationalize is short. “One of the advantages of the mosaic warfare concept is that it does not require all-new material to implement,” Patt said. “It begins by connecting our vast and capable inventory of subsystems or systems in novel ways to enable new capability. Operationalization could begin immediately by leveraging products of key maturing DARPA programs that focus on technological (non-policy) solutions to on-demand interoperability. At the same time, because mosaic warfare enables enduring, rapid, open-ended future adaptability, the notion of ‘full development’ is almost obviated.”
To advance mosaic warfare from concept to real-world applications, STO is currently requesting proposals for achieving “next-generation composable effects webs,” with specific interest in situation understanding, multi-domain maneuver, hybrid effects, maritime systems, system of system-enhanced small units (SESU) and foundational strategic technologies and systems. Proposal guidelines are available on the FedBizOpps website.