The low-altitude economy is transitioning from pilot applications to large-scale operations. Data indicates that in the first half of this year, the total number of registered drones in China surpassed 4.788 million, with cumulative flight hours reaching 26.414 million, a year-on-year increase of 8%. With more drones than ever, the capacity to get them airborne is no longer the only challenge; how to enable existing drones to operate with greater efficiency has emerged as a fresh test for scaled operations.

An increase in the number of aircraft does not automatically equate to higher efficiency. Previously, when low-altitude applications were smaller in scale, the industry concentrated mainly on the performance of single aircraft, such as range, payload, and endurance. As flight activity intensifies, the same airspace may now have to accommodate various operating entities, different aircraft models, and diverse mission requirements simultaneously. While the performance of individual aircraft remains vital, task scheduling and operational coordination are beginning to have a direct impact on overall efficiency as the drone population grows.

Equipment volume defines supply scale, whereas equipment utilization determines operational efficiency. Every additional drone requires more personnel for dispatch, route coordination, and handling anomalies, potentially offsetting the revenue generated by new equipment with climbing operational costs. Poor task allocation can also result in redundant flights, airborne waiting, and idle equipment. For high-frequency sectors such as logistics and inspection, these inefficiencies eventually show up in the cost per unit of task, which is precisely the "equation of collaboration" that large-scale operators must solve.

Solving the "equation of collaboration" aims to flexibly adjust existing equipment to accomplish more effective missions. For instance, if one drone drops out due to malfunction, can other equipment take over promptly? When multiple aircraft pass through a restricted route, how can waiting time be minimized? With a small number of aircraft, some issues can still be handled through manual coordination; but as numbers continue to grow, relying mainly on adding more personnel for scheduling will make efficiency improvements progressively harder, necessitating constant enhancements in fleet coordination capability.

For companies, the performance of a single aircraft affects its individual operational capacity, while coordination ability influences the output efficiency of the entire fleet. Purchased equipment constitutes assets and capacity, which can only be converted into revenue by continuously completing effective tasks. If the fleet size expands but waiting time, idle time, and labor input rise in tandem, companies achieve only quantitative growth in equipment, not efficiency gains. Upgrading dispatch methods, organizational operations, and service capabilities simultaneously can enable the same equipment and staff to cover a greater number of tasks. Equipment sales are more about how many aircraft are delivered, while operational services focus on how many tasks a fleet can complete each day, how many people are needed, and the cost per mission.

As continuous operational businesses like logistics delivery, inspection services, and emergency support expand, competition among enterprises is no longer just about single-aircraft performance but also about the ability to transform equipment into a stable supply of services. The question of whether a low-altitude project "can fly" is often verifiable through short-term trials, but scaled operations depend on whether it can run continuously, drive down costs, and recover rapidly after anomalies. Scenarios with relatively stable demand and high mission frequency, such as logistics, inspection, and emergency response, are better suited as proving grounds for operational capacity at scale. The yardstick for evaluating low-altitude technology must evolve accordingly—beyond speed, range, and payload, the metrics should also include how many effective tasks are completed per unit of time, whether equipment utilization has improved, and whether unit task costs have declined.

The low-altitude economy is shifting from "manufacturing aircraft" to "putting aircraft to use". The number of aircraft that can be built reflects an industry's supply capability, while the ability to continuously organize these aircraft at lower costs and higher efficiency determines how far the industry can go. By turning coordination capability into higher equipment utilization, lower unit task costs, and more consistent service supply, the scale of the low-altitude economy can truly be converted into tangible benefits.