Why must detection and countermeasure systems undergo networked collaborative upgrades after the low-altitude flight service platform speeds up

After the low-altitude economy enters the networked operation stage, what the market most easily overestimates is the parameters of a single device, while what it most easily underestimates is whether the entire low-altitude safety chain can work in coordination. The article "Promoting the Healthy and Orderly Development of the Low-Altitude Economy" publicly published by the Civil Aviation Administration of China on May 27 has already made this issue very clear: as of the end of March 2026, more than 3.8 million drones had been registered under real names nationwide, with more than 430,000 operators; in 2025, drones flew a cumulative 45.3 million hours, a year-on-year increase of nearly 70%; 47 flight service stations had been built nationwide, of which 38 passed compliance inspections; and the drone operation platform had already achieved data exchange, sharing and access interconnection with relevant management units. At the same time, the Civil Aviation Administration clearly proposed to give play to the role of the unmanned aircraft joint defense and joint control mechanism at key airports nationwide, enhance airports' air surveillance capabilities, strictly implement standards such as real-name registration activation, operation identification and unique product identification codes, and advance the joint review system for low-altitude flights and dynamic monitoring of general aviation flights. Putting this information together, one judgment is already very clear: after the rapid rise in operation scale, detection radars, radio frequency identification, electro-optical tracking and countermeasure handling systems can no longer continue to be built with the mindset of isolated devices.

On June 12, the (enlarged) meeting of the Safety Committee of the Civil Aviation Administration further strengthened this judgment. The meeting required continuous advancement of the special rectification of general aviation safety, severe crackdowns on illegal operations and illegal flights, strengthened qualification review and risk control for emergency rescue, special flights and off-site operations, and strengthened grid-based management of general aviation aircraft, promoting "industry + local" supervision to form greater synergy. The core logic revealed here is very direct: if low-altitude safety still remains in the rough stage of "whoever is on duty watches the screen, and whoever sees it handles it," then when facing high-frequency, multi-entity, cross-regional flight activities, the system will definitely have blind spots. For detection and countermeasures to be truly effective, they must be upgraded together with flight service platforms, surveillance networks, approval rules, local coordination and evidence trails.

The value of a single sensor is declining, while the threshold for multi-sensor fusion is rising

In the past few years, the most common construction path for low-altitude safety projects was to first deploy a set of detection equipment, and then decide whether to add countermeasure capabilities based on budget and risk preference. But in today's operating environment, the limitations of this path are becoming increasingly obvious. Radio frequency identification is good at discovering remote control links and some signal characteristics, but it is easily affected by device shutdown identification, complex electromagnetic environments and new types of links; radar is good at supplementing the detection of non-cooperative targets, but may be disturbed by clutter, ground objects and meteorological conditions in low, slow and small scenarios; electro-optical tracking helps with target confirmation and evidence preservation, but depends on front-end discovery and stable guidance. Any single sensor taken alone is very important, but none is sufficient to support high-density, normalized low-altitude governance.

This is also why "multi-sensor fusion" in 2026 is no longer just a technological upgrade slogan, but a governance baseline. A truly useful system is not simply piling several devices together, but enabling radar, radio frequency, electro-optics, as well as identity data, airspace rules and flight plans to mutually verify each other within the same logic. Only in this way can airport surroundings, key urban areas, outer rings of large events and high-frequency general aviation operation areas turn "detecting a target" into a complete action chain of "determining who the target is, whether it is compliant, who should handle it, and whether linkage is needed." For customers, future procurement will no longer look only at single detection range, but will increasingly focus on false alarm rate, fusion capability, interface openness and evidence chain completeness.

Platform acceleration means detection and countermeasures must enter the same operating network

In the article publicly published by the Civil Aviation Administration on May 27, there is also a signal that is often overlooked but extremely critical: the low-altitude flight service dispatch platform, integrated communication, navigation, surveillance and meteorological support capabilities, the low-altitude surveillance network and the flight service station system are being advanced simultaneously. Many people understand the flight service platform as the "dispatch software" of service operating companies, and understand detection and countermeasures as the "security equipment" of safety departments. This is actually old division-of-labor thinking. As long as low-altitude activities enter the scale stage, these two systems cannot remain separated for long. The platform side holds flight plans, mission status, authorization information and operational situation, while the perception side holds aerial targets, risk anomalies and handling trigger conditions. If the two are not connected, the most dangerous misalignment will occur when linkage is truly needed: seeing a target but not knowing whether it is compliant; knowing there is a mission but not seeing the aerial situation; deciding on handling but lacking trails and traceability.

Therefore, the real requirement that platform acceleration places on the detection and countermeasure industry is not as simple as "connecting the data," but platformizing the entire safety chain. Whether detection can automatically compare with flight plans after discovery, whether radio frequency identification results can be associated with real-name registration, unique product identification codes and operation identification status, whether electro-optical feedback can form auditable evidence, and whether handling actions can trigger synchronous responses from local public security, emergency response and airport duty positions - these are the capabilities that next-stage project acceptance is more likely to focus on. Whoever can only provide front-end equipment will more easily be marginalized in the next round of projects; whoever can turn perception, identification, linkage and recording into operational capabilities will see their value rise.

Recent global collaborative signals show that air safety is also converging toward network thinking

EUROCoWhen nTROL released the new #thinkNetwork 2026 guide on June 4, it for the first time included meteorological service providers in a collaborative framework for operating entities, emphasizing that dispatch, crews, control, airports and more supporting parties must all consider the impact of their own decisions on the entire network. On May 29, the joint statement by "Europe for Aviation" also proposed building a more modern and more efficient ATM system through digitalization, interoperability and a higher level of civil-military coordination. What Europe is discussing is air traffic management on a larger scale, but its underlying methodology also applies to low-altitude detection and countermeasures: the more targets, the more entities and the more complex the scenarios, the less possible it is for single-point systems to each go their own way.

The inspiration for China's low-altitude safety market is very direct. A truly mature countermeasure system in the future will not revolve only around a certain equipment vendor's proprietary protocol, but must be able to connect to flight service platforms, urban low-altitude regulatory platforms, airport joint defense and joint control mechanisms, and more local collaborative interfaces. In other words, recent official global information on modern ATM and network collaboration has already made the direction clear. The next round of competition in air safety is not about whose single piece of hardware is the most "fierce," but about who can weave different positions, different sensors, different systems and different handling entities into a truly operational network.

Impact analysis: the market focus will shift from single-set equipment procurement to platformized capability delivery

This round of change will directly rewrite the value ranking of the low-altitude safety industry chain. In past project bidding, customers tended to make decisions around "whether it can detect, whether it can suppress, how large the coverage radius is, and how long deployment takes"; in the future, more and more projects will change the question to "whether it can be integrated into existing platforms, whether it can be associated with identity rules, whether it can support multi-unit duty, and whether it can form compliance trails." This means that radio frequency identification, radar and electro-optical vendors are still important, but the bargaining power of single-item products will be redistributed by platform integration, data governance and linkage orchestration capabilities.

For users, the budget logic will also change accordingly. Airports, venues, parks and local governments will not pay just for a one-time demonstration effect, but will care more about the system's long-term maintainability, cross-department collaboration efficiency and rule adaptation capability. For integrators, the real opportunity is not to assemble devices into a "wall of functions", but to turn air situation, task approval, risk classification, evidence chain and emergency mechanisms into a continuously operating service. For device manufacturers, if they still remain in the single-unit sales mindset, lacking interfaces, lacking platform capabilities and lacking multi-sensor fusion algorithms, their role in future projects is very likely to be compressed into an upstream component supplier.

Risk and boundaries: what is most feared is not the absence of equipment, but unclear disposal authority and responsibility chain

When discussing networked upgrades, we must also see a problem that is often overlooked by the market, namely the disposal boundary. Detection can be relatively front-loaded, but disposal naturally involves higher-level authority, responsibility and external risk. If the system can only discover targets but has no clear escalation path and division of authority, the stronger the front-end perception capability, the greater the pressure on back-end decision-making. For airport surroundings, large events and key urban areas, the truly robust path is usually not "take the strongest action immediately upon detection", but first complete identification and verification, then trigger tiered linkage according to preset rules, and finally have the entity with the corresponding responsibility decide whether to take further disposal. Without this awareness of boundaries, networking may degenerate into "a large accumulation of alarms plus manual exhaustion in responding".

Another risk is mistakenly understanding "platformization" as adding a few more large screens. The essence of platformization is not visualization, but consistency in rule execution. If the detection side, approval side, operations side and local collaboration side use different standards, different numbering and different responsibility chains, even if they are all connected to the platform, the system may still fail at critical moments. Therefore, after the low-altitude flight service platform speeds up, what the market really needs to supplement is not a dazzling interface, but the ability to unify target identification, unify event levels, unify linkage triggers and unify evidence retention.

Trend judgment: in the second half of 2026, networked collaboration will become a foundational item for detection and countermeasure projects

Based on the Civil Aviation Administration of China's May 27 deployment regarding low-altitude surveillance networks, flight service platforms and airport joint defense and joint control, the June 12 requirements regarding special rectification of navigation safety and grid-based management, as well as EUROConTROL's networked collaboration signals released on June 4 and May 29, a relatively clear judgment can be made: in the second half of 2026, networked collaboration will change from a "bonus item" to a foundational item for detection and countermeasure projects. In the future, more competitive solutions will not split detection, identification, tracking and disposal into several isolated capabilities, but will make them into a continuous process together with flight service platforms, regulatory platforms, airport duty systems and local response mechanisms.

For the low-altitude safety sector that SkyFamily continues to follow, this means the criteria for judging the value of projects must also be upgraded. Rather than only looking at equipment parameters, what is more worth examining is whether the system supports multi-sensor fusion, whether it has identity verification and rule matching capabilities, whether it can interconnect with airport surrounding joint defense and joint control and local platforms, and whether it forms a closed loop from discovery to disposal and then to review. The more low-altitude flights there are, the less sufficient single-point equipment becomes; only by incorporating detection and countermeasures into the same operating network can low-altitude safety governance have the opportunity to truly move from "seeing risks" to "controlling risks".