Strategic Missile Sector – Commercial satellite imagery has revealed a new full-scale target in China’s remote Taklamakan Desert: a detailed replica of a US Navy Arleigh Burke-class guided-missile destroyer, complete with a recognizable bridge, funnel, and main gun, sitting at the Ruoqiang test range in Xinjiang. First identified by Joseph Wu of the Taiwan Defense Studies Initiative, the structure reportedly began construction in October 2025, with later images showing missile-strike debris around it. It is the latest, and most detailed, in a series of mock US warships China has built in this desert over the past five years.
The instinct is to read this as a simple threat display — China practicing to sink American ships. That reading is not wrong, but it is incomplete, and the more interesting story is what a desert target can and cannot prove.
Why build the target at all — and why so detailed
An early-generation ship target was just a flat outline with corner reflectors, enough to mimic a radar cross-section for testing radar-guided missiles. This Burke replica is something else: a three-dimensional, structurally detailed model. The reason is that modern anti-ship missiles increasingly use imaging infrared seekers that identify a target by its shape, distinguishing a real warship from decoys. The more faithful the replica, the better engineers can test whether a seeker is fooled. The detail is not vanity; it is the test.
The choice of the Arleigh Burke is pointed. It is the workhorse of the US surface fleet — more than 70 in service, the standard escort for carrier groups and the ship most often sent through the Taiwan Strait. Japanese, South Korean, and other allied destroyers are Burke derivatives or close cousins. A target tuned to this hull signals a shift in emphasis: from the much-discussed problem of hitting carriers to the prerequisite problem of defeating the escorts that screen them. Before any missile reaches a carrier, it has to get through the air-defense bubble these destroyers create.
The detail that matters most: the target can move
The single most significant feature of this range, noted by analysts since 2021, is that some targets sit on a roughly 6-meter-wide rail system, allowing them to move — and reportedly to vary their speed — deliberately simulating a ship maneuvering at sea rather than a fixed slab in the sand. Earlier carrier targets used this rail system, and the Burke replica is assessed as likely compatible with it.
This is what separates the Chinese range from cruder efforts elsewhere. As far back as 2021, US analysts at AllSource Analysis assessed that the mock-ups — with multiple sensors placed on and around them and little sign of direct weapon-impact craters nearby — were probably built for seeking and target-acquisition testing, not just as things to blow up. The range is instrumented to study the hardest part of the engagement: getting a missile’s seeker to find and lock onto a moving ship.
So can China actually find a real carrier?
This is the question that matters most in assessing these weapons, and it is usually handled too simply. One popular claim is that a missile can never find a carrier racing across the open ocean; the opposite claim is that Chinese satellites see all and nothing can hide. Neither is accurate — the truth is layered.
Start with a fact many overlook: China’s ocean-surveillance capability is far better than “can’t find it.” This is not Chinese propaganda but the assessment of US think tanks and the US military itself. The Yaogan satellite constellation forms the backbone — some of its satellites fly in threes, geolocating ships by measuring the time difference of arrival of their radio emissions, purpose-built for ocean surveillance and anti-ship targeting. The Yaogan-41 satellite, placed in geostationary orbit in late 2023, was assessed by the Center for Strategic and International Studies (CSIS) as making it far harder for the US and its allies to hide anything larger than a car in the Indo-Pacific — that analysis was titled, plainly, “No Place to Hide.” Add the Gaofen-4 geostationary satellite, reportedly dedicated to tracking US carriers, the Hainan constellation covering the South China Sea, and a fleet of nominally civilian maritime-surveillance drones, and China has built a genuinely capable wide-area detection system. Indeed, China is believed to have located a US carrier in the South China Sea as far back as around 2016.
So the question is not whether China can detect a carrier, but whether, in wartime, the chain can stay closed. That is where the real difficulty lies, and it is the part Western analysts keep emphasizing:
First, detecting once and tracking continuously are different problems. Satellites have revisit gaps — one passes overhead, takes an image, then waits for the next orbit, during which a carrier at 30-plus knots may have turned. The kill chain needs near-real-time tracking from detection through launch to midcourse correction; any gap degrades accuracy, and errors compound over distance.
Second, a peacetime carrier and a wartime carrier are not the same target. The one located in 2016 was sailing normally, not actively hiding. In war, the US Navy uses emissions control to suppress the electronic signals that give a ship away, distributes its fleet to complicate targeting, reaches for anti-satellite and cyber tools to degrade the constellation, and brings EA-18G Growlers to jam. The whole chain has to keep running while the other side actively hides, jams, and deceives — and that is the part never demonstrated.
Tellingly, the PLA’s own theorists know the chain is fragile. China’s shift from talking about a “kill chain” to a “kill web” — a mesh with redundant paths so that destroying one node does not collapse the whole — is itself an admission that a linear chain breaks when interrupted.
The electromagnetic spectrum: a tug-of-war with no clear winner
Beyond detection and tracking lies the electromagnetic dimension, and the South China Sea is where it is contested. Here it is important to separate the verified from the embellished.
The verified part is on the record: the US think tank AMTI (Asia Maritime Transparency Initiative) reported that between 2023 and 2025 China quietly expanded electronic-warfare and surveillance facilities on its artificial island bases in the Spratlys — Fiery Cross, Mischief, and Subi reefs — with satellite imagery showing new antenna arrays and mobile EW vehicles. China has also disclosed a December 2023 encounter in which the Type 055 destroyer Nanchang reportedly kept its AI-enhanced radar working against jamming from a US EA-18G. China’s strength in the electromagnetic spectrum is real.
But electronic warfare is no magic shield, and the most telling evidence comes from China itself. The British think tank RUSI analyzed a publicly documented Chinese wargame in which the PLA successfully disabled the radar guidance and GPS navigation of an incoming US anti-ship missile — yet the missile’s imaging-infrared seeker still completed an accurate hit. In other words, China’s own simulation concedes that EW can suppress some guidance modes but not a seeker that identifies its target by shape. That is precisely why the desert target exists: because the infrared seeker is the link jamming struggles to blind, it is the one most worth refining against a faithful replica.
As for the widely circulated story of a “South China Sea electromagnetic battle” in which US forces lost all GPS and withdrew after 12 hours — a professional fact-checking organization investigated it and found it lacking in evidence, with the reported location physically inconsistent with the claimed wide-area blackout. The real picture of electromagnetic competition is not one side’s clean victory, but a continuous tug-of-war in which neither can claim to have overwhelmed the other.
What it adds up to
The Burke replica is a real signal and should be read as one: China is refining its anti-ship weapons against increasingly realistic, increasingly mobile targets, and broadening its focus from carriers to the destroyers that protect them. Behind it sits a genuinely capable wide-area detection system and a genuinely expanding electronic-warfare force — underestimating it would be unwise.
But the desert also marks the boundary of what can be proven on land. China can find a carrier, can fight in the spectrum, can polish terminal accuracy to a fine edge in the sand — all real. What remains genuinely unresolved is stitching all of it, under wartime pressure against a target that is actively hiding, jamming, and maneuvering, into a single chain that stays closed from start to finish. That step is one that China’s own wargames and its own “kill web” concept both implicitly concede is hard. The most accurate reading is neither the triumphant “carrier-killer” version nor the dismissive “can’t hit a thing” version, but the one that keeps the real capability and the real uncertainty in view at once.
Sources: Based on satellite imagery from Vantor (formerly Maxar) and reporting by Bloomberg and USNI News; assessments of China’s ocean-surveillance capability draw on the Center for Strategic and International Studies (CSIS) and other open sources; South China Sea EW facilities from AMTI; the Chinese wargame analysis from the Royal United Services Institute (RUSI); and a fact-check of the “electromagnetic battle” claim from a professional fact-checking organization. China’s Defense Ministry did not respond to media requests for comment. Missile and satellite specifications are open-source estimates.
