The low-altitude economy is transitioning from pilot demonstrations to large-scale operations. Data shows 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, an 8% increase year-on-year. As the number of drones grows, the question of whether they can take flight is no longer the only challenge. How to enable more drones to fly with greater efficiency has become the new test facing scaled operations.

A larger fleet does not automatically mean higher efficiency. In the past, low-altitude applications were relatively small in scale, and the industry focused primarily on single-aircraft performance metrics such as range, payload, and endurance. As flight activities increase, the same airspace may simultaneously accommodate different operating entities, various aircraft models, and diverse mission requirements. While individual aircraft performance remains important, as drone numbers grow, task scheduling and operational coordination begin to directly impact overall efficiency.

Equipment quantity determines supply scale, while equipment utilization rates influence operational efficiency. Every additional drone requires corresponding personnel for dispatching, route coordination, and anomaly handling, which means the revenue generated by new equipment can be offset by rising operational costs. Unreasonable task allocation can also lead to redundant flights, airborne waiting, and equipment idleness. For high-frequency operations such as logistics and inspection, these inefficiencies ultimately feed into the unit cost per task. This is precisely the 鈥渃oordination calculation鈥?that scaled operations must get right.

Getting this calculation right aims to flexibly allocate existing equipment to accomplish more effective tasks. For instance, if one drone is withdrawn due to a malfunction, can other equipment step in promptly? When multiple aircraft pass through limited routes simultaneously, how can waiting time be minimized? At small operational scales, some issues can still be resolved through manual coordination, but as numbers continue to grow, relying primarily on additional personnel for dispatching will make efficiency improvements increasingly difficult, demanding continuous enhancement of fleet coordination capabilities.

For enterprises, single-aircraft performance determines the operational capacity of one device, while coordination capability determines the output efficiency of the entire fleet. When equipment is purchased, it forms assets and transport capacity, but only sustained completion of effective tasks converts these into revenue. If the fleet expands while waiting time, idle time, and labor input increase in tandem, the enterprise gains only a growth in equipment numbers, not efficiency. When dispatching methods, operational organization, and service capabilities are upgraded simultaneously, the same equipment and personnel can cover more tasks.

Equipment sales focus more on how many aircraft are delivered, whereas operational services focus on how many tasks a fleet can complete daily, how much personnel it requires, and how much each mission costs. As sustained operations such as logistics delivery, inspection services, and emergency support continue to grow, the competition among enterprises extends beyond single-aircraft performance to include the ability to convert equipment into stable service supply. Whether a low-altitude project can 鈥渇ly鈥?can often be verified through short-term trials, but scaled operations require sustained performance, cost reduction, and rapid recovery after anomalies.

Scenarios with relatively stable demand and high task frequency, such as logistics, inspection, and emergency response, are better suited as testing grounds for scaled operational capabilities. The yardstick for evaluating low-altitude technology must also evolve. Beyond speed, range, and payload, we need to examine how many effective tasks are completed per unit of time, whether equipment utilization rates have improved, and whether unit task costs have declined. The low-altitude economy is moving from 鈥渂uilding aircraft鈥?to 鈥渂ringing aircraft into use.鈥?The number of aircraft produced reflects industrial supply capability, but how efficiently and at what cost these aircraft can be continuously organized determines how far the industry can go. Transforming coordination capability into higher equipment utilization, lower unit task costs, and more stable service supply is how the scale of the low-altitude economy can truly translate into benefits.