Recent developments in China’s unmanned aerial vehicle (UAV) technology highlight significant strides in military aviation, particularly in manned-unmanned teaming (MUM-T). A widely circulated video, initially shared on Weibo and later on X, showcases a tailless Chinese drone with a diamond-shaped delta wing configuration flying in formation with a propeller-driven transport aircraft, identified as either a Y-8 or Y-9.

It looks like this one. Hard to tell it has one or two engines. pic.twitter.com/EAcuVRmzWb

— Fay (@FaySue6) July 20, 2025

This footage, reported by the South China Morning Post, offers insight into China’s ongoing efforts to integrate advanced UAVs with manned aircraft, a critical component of modern aerial warfare strategies. The following sections analyze these developments, incorporating critical observations and aligning terminology with contemporary aerospace and defense literature.

Manned-unmanned teaming: A strategic priority

China’s military modernization emphasizes MUM-T, where UAVs operate in close coordination with manned aircraft to enhance operational flexibility and combat effectiveness. The video evidence suggests that the Chinese People’s Liberation Army (PLA) is advancing its capabilities in this domain.

The tailless UAV, estimated at approximately 15 meters in length, exceeds the typical size of “loyal wingman” drones, which range from 9 to 12 meters, as noted in aerospace studies (Wikipedia: Loyal Wingman).

This larger size may indicate enhanced payload capacity or extended range, positioning the UAV for roles beyond traditional reconnaissance, such as electronic warfare or strike missions.

Critical observation: The emphasis on MUM-T reflects a global trend in military aviation, where autonomous systems augment human pilots by performing high-risk tasks. China’s investment in larger UAVs suggests an intent to develop multi-role platforms, potentially challenging Western counterparts like the U.S. Air Force’s Collaborative Combat Aircraft program.

Technical characteristics of the tailless UAV

The UAV’s delta wing configuration, observed in the video, aligns with stealth-oriented designs, reducing radar cross-section and enhancing survivability in contested environments. Its formation flight with a Y-8 or Y-9 transport aircraft indicates compatibility with slower-speed platforms, ideal for surveillance and command-and-control roles.

Experts suggest that the Y-8/Y-9’s spacious cabin accommodates advanced communication systems necessary for remote UAV control, as well as surveillance equipment to monitor the drone’s performance during testing (South China Morning Post).

Professional insight: The choice of a propeller-driven aircraft as a testbed reflects a pragmatic approach, leveraging existing platforms to validate UAV control systems. However, the reliance on slower aircraft may limit testing scenarios for high-speed combat environments, potentially necessitating future integration with faster jets like the J-20.

Role of artificial intelligence in UAV development

China’s advancements in autonomous flight are driven by significant progress in artificial intelligence (AI) and machine learning (ML). These technologies enable UAVs to perform complex tasks, such as real-time decision-making and adaptive formation flying, critical for MUM-T operations.

The PLA Daily, in a June 2025 article, underscored the strategic importance of “mass drone deployments,” describing them as potentially “decisive” in future conflicts. This aligns with global research highlighting AI’s role in enhancing UAV autonomy (Wikipedia: Unmanned Aerial Vehicle).

Critical observation: While AI-driven autonomy offers tactical advantages, it introduces challenges in system reliability and ethical considerations, particularly in contested environments where electronic interference could disrupt AI algorithms.

China’s focus on mass deployments suggests a strategy of overwhelming adversaries through numerical superiority, but this approach requires robust cybersecurity to prevent vulnerabilities.

Integration with existing platforms

The video also highlights China’s exploration of air-launched UAVs, with the H-6 missile carrier previously showcased by China Central Television in 2022 as a launch platform for tactical drones. This concept enhances operational reach, allowing UAVs to be deployed from airborne platforms in contested regions.

The integration of UAVs with both propeller-driven and jet-powered aircraft demonstrates China’s multi-faceted approach to unmanned systems development.

Professional insight: The use of the H-6 as a drone carrier indicates a strategic intent to project power beyond traditional airbases, a capability that could be critical in scenarios like a South China Sea conflict. However, the H-6’s age and limited stealth capabilities may constrain its effectiveness against advanced air defenses, suggesting a need for next-generation launch platforms.

Strategic implications and future outlook

China’s development of advanced UAVs, including the stealthy GJ-11 and other lower-tier unmanned systems, positions it as a leader in MUM-T technology. The PLA’s focus on innovative approaches, as articulated in the PLA Daily, underscores the transformative potential of UAVs in future warfare.

By integrating AI, stealth designs, and versatile launch platforms, China aims to create a networked, resilient aerial force capable of operating in complex environments.

Critical observation: While China’s progress is impressive, challenges remain, including the need for interoperable systems across diverse platforms and the potential for adversaries to counter UAV swarms with electronic warfare or directed-energy weapons. Continued investment in AI and secure communication systems will be crucial for maintaining a technological edge.

Source: scmp.com