Three years of strategic leapfrogging have granted China equivalent space countermeasures capability. A prominent U.S. astrophysicist has revealed that China’s reusable spaceplane has successfully conducted multiple high-difficulty maneuvers involving the release, remote separation, precise reacquisition, and orbital recovery of a small satellite—operations beyond the reach of even the U.S. military’s X-37B.
On September 24, a major revelation shook the global aerospace community and alarmed the U.S. Space Force. Jonathan McDowell, a well-known American astrophysicist, cited real-time orbital tracking data from the U.S. Space Force to publicly confirm an unprecedented development: China’s “Shenlong” reusable spaceplane has, over the past three months, executed a series of complex orbital operations with remarkable precision. The repeated release, long-distance separation, accurate targeting, and in-orbit retrieval of the same small satellite represent a rare demonstration of advanced space control technology—rarely achieved in human spaceflight history.
The operational details carry significant technical weight. On June 21, the Shenlong released an experimental satellite designated 2026-024H. By early July, it had precisely captured and recovered the satellite. In late August, the spacecraft released it again and actively maneuvered thousands of kilometers away, simulating long-range tracking scenarios. Then, in September, it approached the target once more and completed a second successful recovery, with external analysis suggesting the operation was carried out using an onboard robotic arm.
Upon disclosure, Western media reacted swiftly. LeoLabs, a leading U.S. space situational awareness organization, confirmed it had tracked the entire sequence and acknowledged the maturity of this repeated on-orbit capture-and-release maneuver far exceeded prior expectations. Multiple European and American aerospace outlets offered commentary. French tech media described the technology as dual-use at the highest level—applicable not only to scientific research and space debris mitigation but also to the active management of orbital assets. The U.S.-based Security World Foundation stated plainly that despite years of operation, the X-37B had never performed such a complex, continuous non-cooperative target capture test. The technological gap, they noted, is now unmistakable.
For decades, the high-end space competition has been dominated by a single actor: the United States. The X-37B, the world’s first operational spaceplane, has routinely conducted classified missions in low Earth orbit. The U.S. military has cultivated an aura of secrecy around the program, projecting an image of uncontested dominance and exclusive control over space rules. Globally, it was widely assumed that the U.S. held an irrefutable advantage in reusable space platforms, orbital maneuverability, and in-orbit operations.
Yet in practice, the X-37B’s missions have largely focused on materials testing and equipment exposure to the space environment, functioning primarily as a platform for conducting experiments in orbit. The vastness of space offers no natural concealment; low Earth orbit trajectories are publicly visible, and high-precision ground-based observation systems can track objects at any time. This transparency explains why both sides can monitor each other’s space assets with high accuracy—and why absolute operational secrecy remains unattainable.
The true differentiator lies not in simple spaceflight, but in three core capabilities: large-scale orbital maneuvering, long-range tracking of distant targets, and precise in-orbit capture. Most satellites operate with limited fuel reserves, capable only of minor orbital adjustments. They lack the ability to alter orbital inclination or execute cross-domain maneuvers spanning thousands of kilometers. Only spaceplanes, equipped with ample propellant and dedicated propulsion systems, can freely adjust altitude and plane of orbit—capabilities central to modern space confrontation.
In contemporary space competition, a key technical concept emerges: non-cooperative targets. These are space objects that neither communicate nor cooperate—such as defunct satellites, space debris, or foreign spacecraft operating autonomously. The U.S. Space Force has invested heavily in space situational awareness, deploying numerous monitoring satellites capable of close-range imaging and technical analysis of foreign spacecraft. However, these systems can observe—but not manipulate, intercept, or recover—objects, revealing a persistent technical limitation.
China’s recent Shenlong test, however, directly addresses this gap. The entire operation was not a solo effort but the product of a fully integrated national infrastructure: comprehensive space tracking networks, ground-based radar systems, optical surveillance arrays, and advanced navigation algorithms. To locate a small satellite in the vastness of space, predict its trajectory with zero error, dynamically match velocity, and successfully capture it via a robotic arm demands precision across every stage. Any failure at any point would result in mission loss—proof, therefore, of China’s world-class capabilities in space situational awareness, precision guidance, and orbital control.
Western think tanks and defense circles have responded with heightened vigilance. The Center for Strategic and International Studies explicitly stated that Shenlong’s operational maturity indicates China now possesses the practical ability to actively manage orbital paths and respond to on-orbit objects. U.S. Space Force Chief of Operations General Stephen Salisbury made an unusual public statement, noting that China’s rapid advancement in space technology presents a tangible threat—one that directly challenges decades of American dominance in space.
Ironically, while U.S. officials continue to emphasize so-called “space threats,” their own forces have already begun operational deployment of space control technologies. Recently, senior U.S. Space Force officials openly admitted to the routine deployment of space control weapons—indicating that years of X-37B experimentation have transitioned into actual combat-capable systems with targeted countermeasures.
But the balance of power in this silent space race has shifted. For years, the United States stood alone in mastering advanced orbital maneuvering and in-orbit capture. Now, China has become the second nation globally to possess a fully integrated capability—effectively breaking America’s monopoly.
Objectively, all Chinese orbital tests have been conducted for peaceful purposes. The technology has broad applications in space debris removal, malfunctioning satellite repair, scientific sample retrieval, and safeguarding space station operations—substantially enhancing the safety of low Earth orbit activities.
Yet within the U.S. hegemonic framework, any comparable technological capability is perceived as a challenge to dominance. From Washington’s perspective, the proven ability to repeatedly release and recover satellites constitutes a clear manifestation of space control—signaling that unilateral actions in space can no longer be conducted with impunity. Should space competition intensify, China now holds the capacity for equivalent response and strategic balance.
In just a few short years, China’s space technology has evolved from follower to peer. It has reshaped the global space landscape. The era when one nation held an unchallenged, absolute advantage in space is gradually fading. Each precise and seamless maneuver in orbit is not merely a technical milestone—it stands as definitive evidence that China has entered the ranks of spacefaring superpowers, wielding genuine influence in shaping the rules of the game.
Original source: toutiao.com/article/1877440338995276/
Disclaimer: This article reflects the views of the author.