War Goes Into Orbit: The US and Russia Prepare for Space Confrontation

The military revolution is not limited to drones, artificial intelligence, and long-range missiles. The next theater of warfare is taking shape at altitudes ranging from several hundred to tens of thousands of kilometers above Earth.

The United States has officially acknowledged for the first time that it has deployed orbital weapons. Russia, according to the US Space Command, is moving from testing co-orbital anti-satellite systems (ASAT) to operational deployment.

This race remains largely invisible to the public, but space itself could become the first battlefield in a conflict between superpowers.

US: Weapons Are Already in Orbit

On September 14, US Secretary of the Air Force Troy Meink stated that the Space Force possesses “on-orbit space control weapons.” The names, types of effects, numbers, orbital parameters, and deployment locations of these systems remain classified. Meink specifically emphasized that the wording was deliberate.

According to the Space Force doctrine (SDP 3-0 Operational Spacepower), space control encompasses offensive and defensive operations designed to limit, blind, degrade, or completely destroy an adversary’s space capabilities.

The basic toolkit for such missions is already being developed and tested in orbit:

Mission Delta 9. A unit responsible for developing combat-ready orbital warfare forces. While the 75th ISR Squadron is responsible for threat analysis and target identification, the mission of the 3rd Space Operations Squadron is stated explicitly: “close with and defeat enemy forces in space.”

VICTUS HAZE (2026). A Tactical Responsive Space (TacRS) mission. The Jackal spacecraft (True Anomaly) and Puma spacecraft (Rocket Lab) are testing Rendezvous and Proximity Operations (RPO) algorithms, including rapid approach, pursuit, and complex maneuvering near target spacecraft. This provides a technological foundation potentially suitable for co-orbital interception.

GSSAP constellation (GEO). Operating in geostationary orbit, approximately 35,800 km above Earth. These satellites have significant fuel reserves for longitudinal repositioning and detailed inspection of objects. In February 2026, the constellation was reinforced with GSSAP-7 and GSSAP-8.

X-37B spaceplane. A reusable unmanned vehicle capable of prolonged maneuvering, changing orbital inclination, and carrying experimental equipment. During the OTV-7/USSF-52 mission, for example, it demonstrated maneuvers using aerobraking. The eighth mission (OTV-8/USSF-36) was launched in August 2025. There is no direct evidence that it is part of the weapons referred to by Meink, but it is a versatile test platform.

Apollo Maneuvers 2026. US Space Command exercises involving coordinated live-fly maneuvering of formations simultaneously across low Earth orbit (LEO), medium Earth orbit (MEO), and geostationary orbit (GEO).

Golden Dome project. Development of an orbital layer of Space-Based Interceptors (SBI) designed to intercept ballistic and hypersonic missiles during the boost phase. Initial test capabilities are expected by 2028.

The American operational chain can be summarized as follows: detection through the Space Surveillance Network (SSN) → orbital reconnaissance (GSSAP/RPO) → approach maneuver → physical engagement, the principle of which remains classified. In theory, the final effect could be either kinetic or non-kinetic.

Washington has not disclosed the actual engagement mechanism of the final stage, but it has officially confirmed that the capability is already deployed in orbit.

Russia: Matryoshka Satellites and the Nuclear Factor

Moscow is developing a multilayered anti-satellite architecture with a pronounced asymmetric focus.

The key element of the co-orbital layer is the Nivelir program, involving Kosmos-series satellites. Some spacecraft in the series have demonstrated separation tactics, releasing a small subsatellite or object, in some cases assessed by the US side as a projectile, at high relative velocity.

Kosmos-2558 and Kosmos-2576. These are illustrative examples of synchronized deployment. In 2024, Kosmos-2576 was placed in the same orbital plane as the US spacecraft USA-314, which independent analysts identify as a KH-11-class optical reconnaissance satellite.

Operational deployment (April 2026). US Space Command commander General Stephen Whiting stated that Russia was moving from isolated tests toward the deployment of co-orbital ASAT assets near critical US infrastructure.

Maneuvers against civilian systems (May 2026). The Kosmos-2610 to Kosmos-2613 group carried out a series of synchronized maneuvers to approach a Western SAR reconnaissance satellite whose data is used by the Ukrainian Defense Forces.

Russia’s ground-based and asymmetric layers include:

Direct-Ascent ASAT (DA-ASAT). The Nudol missile. Tests in November 2021 destroyed the Kosmos-1408 satellite, creating a cloud of more than 1,500 trackable pieces of debris.

Directed energy and electronic warfare. The Peresvet mobile laser systems are designed to blind the optics of reconnaissance satellites in LEO, while powerful ground-based jammers such as Tirada-2S are designed to suppress SATCOM communications and GPS/GNSS signals.

Nuclear anti-satellite system, according to US intelligence assessments. A project involving the development of a space-based system equipped with a nuclear warhead. Unlike precisely targeted weapons, a nuclear explosion in space would generate a powerful electromagnetic pulse (EMP) and radiation belt capable of indiscriminately disabling the electronics of a significant number of satellites in low Earth orbit.

The Silent War Above Earth

Modern military logistics, precision-weapons targeting, missile-launch detection (SBIRS/HBM systems), and secure command and control depend heavily on space-based infrastructure.

In a global conflict between superpowers, space could become one of the first theaters of warfare, with reconnaissance, communications, navigation, and early-warning satellites among the first targets.

Creating clouds of debris is not necessarily required, as this would risk triggering the Kessler syndrome and permanently compromising access to space for everyone. A spacecraft can be blinded by a laser pulse, its astrogation sensors can be disrupted, its software can potentially be compromised through a cyberattack, or it can be disabled by a co-orbital jamming system that has remained dormant for months at a distance of only a few hundred meters.

The US and Russia have already moved beyond theory and laboratory experiments. A combat infrastructure is taking shape in orbit, capable of supporting orbital warfare: target detection, tracking, maneuvering, approach, and potential engagement.

The first strike in this war could happen silently. But its consequences would be felt on Earth, from the loss of navigation and communications to disruption of intelligence, early-warning systems, and precision weapons.

War Goes Into Orbit: The US and Russia Prepare for Space Confrontation
Scroll to top