The low-altitude economy is transitioning from pilot demonstrations to full-scale operations. Recent data shows that in the first half of this year, the number of registered drones in China surpassed 4.788 million, with cumulative flight hours reaching 26.414 million, an increase of 8% year-on-year.

With the growing number of drones, the question of whether they can fly is no longer the sole focus. The new challenge for scaled operations is figuring out how to make these drones fly more efficiently. An increase in aircraft numbers doesn't automatically translate to higher efficiency. Previously, with smaller-scale applications, the industry largely concentrated on individual aircraft performance metrics like range, payload, and endurance. However, as flight activities become more frequent, the same airspace must now accommodate various operators, different aircraft models, and diverse mission requirements. While individual performance remains crucial, the coordination of tasks and operations now plays a direct role in determining overall efficiency as drone fleets expand.

The number of devices determines supply capacity, but asset utilization dictates operational efficiency. Each additional drone necessitates more personnel for dispatching, route coordination, and anomaly handling. This means the revenue generated by new equipment could be offset by continuously rising operational costs. Inefficient task scheduling also leads to redundant flights, prolonged airspace waiting times, and equipment idling. For high-frequency operations like logistics and inspection, these inefficiencies inevitably inflate the cost per unit of task. This is the critical "coordination account" that must be settled for scale operations to be successful.

The goal of optimizing this coordination is to flexibly manage existing equipment to complete more effective tasks. For instance, if one drone is grounded due to a fault, can other assets step in promptly? How can waiting times be minimized when multiple aircraft pass through limited routes? While manual coordination can solve issues for small numbers of aircraft, relying on more personnel for scheduling becomes increasingly inefficient as numbers grow. This necessitates enhancing the collaborative capability of the entire fleet. For businesses, individual performance affects the working capacity of a single device, but coordination ability determines the output efficiency of the entire fleet. Purchased equipment represents assets and capacity, but it only translates into revenue when it consistently completes effective tasks. If a larger fleet size comes with proportionally higher waiting times, idle time, and labor input, the company gains more devices but not higher efficiency. Upgrading scheduling methods, operational organization, and service capabilities simultaneously allows the same equipment and personnel to cover more tasks.

Equipment sales are measured by the number of aircraft delivered, while operational services are judged by how many tasks a fleet completes daily, the manpower required, and the cost per mission. As continuous business operations like logistics delivery, inspection services, and emergency support expand, competitive advantage will depend not only on single-machine specs but also on the ability to convert equipment into a stable supply of services. While low-altitude projects can often validate their "flyability" through short-term tests, scale operations require proof of sustainable performance, cost reduction, and rapid recovery from anomalies. Scenarios with relatively stable demand and high task frequency, such as logistics, inspection, and emergency response, are better suited as testing grounds for this operational capability. The yardstick for evaluating low-altitude technology must also evolve. Beyond speed, range, and payload, it needs to measure the number of effective tasks completed per unit of time, improvements in asset utilization, and decreases in the unit cost per mission.

The low-altitude economy is moving from "building the aircraft" to "using them effectively". While the number of aircraft produced indicates the industry's supply capacity, the ability to organize these aircraft at a lower cost and higher efficiency will determine how far the industry can go. By turning coordination capabilities into higher equipment utilization, lower unit task costs, and more stable service supply, the scale of the low-altitude economy can be genuinely transformed into profitability.