UAV & Drones
T1400 Tandem Helicopter Completes Maiden Flight in China
Harbin UAT’s T1400 autonomous tandem helicopter achieves first flight, designed for heavy-lift and high-altitude missions with superior safety features.
Heavy-Lift Autonomy: The T1400 Tandem Helicopter Takes Flight
The world of unmanned aerial vehicles (UAVs) just witnessed a significant leap forward. On October 30, 2025, the T1400 tandem unmanned helicopter successfully completed its inaugural flight in Harbin, China, marking a pivotal moment for heavy-lift autonomous systems. Developed by Harbin United Aircraft Technology Co Ltd (UAT), this aircraft isn’t just another drone; it’s a purpose-built workhorse designed to tackle some of the most demanding logistical and rescue missions on the planet, particularly in high-altitude environments where conventional aircraft struggle. The T1400, also known as the Boying T1400, represents a new frontier in autonomous capability, promising to deliver heavy payloads to remote and inaccessible regions with unprecedented efficiency and safety.
The significance of this development extends beyond a single successful flight. It signals a maturing of the heavy-lift drone market, a sector experiencing robust growth driven by military modernization, infrastructure development, and the increasing need for rapid deployment in emergency situations. As we push the boundaries of what’s possible, platforms like the T1400 are set to redefine logistics, emergency response, and civil services. This aircraft’s ability to operate in extreme temperatures, from -40°C to 55°C, and at altitudes up to 6,500 meters, opens up new operational theaters that were previously too hazardous or costly to access. The T1400 is not just an engineering achievement; it’s a strategic asset poised to make a tangible impact.
Engineering for the Extremes: A Technical Breakdown
At the heart of the T1400’s impressive capabilities is its tandem rotor configuration. This design, featuring two large rotors mounted one in front of the other, is a deliberate and critical engineering choice. Unlike single-rotor helicopters that require a tail rotor to counteract torque, consuming a significant portion of engine power, the T1400’s counter-rotating main rotors cancel each other’s torque out. This allows nearly all of the engine’s power to be dedicated to lift and propulsion. The result is a substantial increase in payload capacity and enhanced longitudinal stability, which is crucial when carrying heavy or unevenly distributed loads. It’s a design philosophy that prioritizes raw power and stability, making it ideal for the heavy-lift role it was born to fill.
Performance and Payload
The numbers speak for themselves. The T1400 boasts a Maximum Take-off Weight (MTOW) of 1,400 kg and can carry a maximum payload of 650 kg. This capacity is complemented by impressive endurance figures; it can operate for up to eight hours with a 200 kg payload or for two hours when carrying a heavier 500 kg load. With a maximum speed of 180 km/h and a cruising speed of 120 km/h, it can cover significant distances efficiently. What truly sets it apart, however, is its high-altitude performance. The T1400 is specifically designed for plateau operations, with a maximum take-off and landing height of 5,000 meters and a service ceiling of 6,500 meters. This makes it one of the few platforms capable of reliable operations in mountainous regions and other challenging geographical areas.
Versatility is another key aspect of its design. The T1400 is equipped with both an internal cargo compartment and an external suspension connector, offering flexibility for various mission profiles. The internal bay is large enough to accommodate critical medical equipment, stretchers, and even medical personnel, highlighting its potential for life-saving emergency support missions. Externally, it can transport heavy cargo, firefighting equipment, or agricultural supplies, making it a multi-role asset for a wide range of public and civil services. This dual-capability ensures the T1400 is not a one-trick pony but a flexible tool ready for diverse challenges.
The tandem rotor configuration is fundamental to its heavy-lift capability, as the counter-rotating rotors cancel out torque, allowing 100 per cent of the engine’s power to be dedicated to lift and propulsion.
Safety Through Redundancy
When operating autonomously in high-stakes environments, reliability is non-negotiable. UAT has engineered the T1400 with a strong emphasis on safety and resilience. The aircraft integrates a multiple redundant flight control system (FCMS) and a combined navigation system. This ensures precise control and robust navigational accuracy, even in complex terrain where GPS signals might be weak or compromised. The system is designed to handle unforeseen circumstances and maintain stable flight without constant human intervention.
Perhaps the most critical safety feature is its dual-engine architecture. The T1400 is powered by two engines, but its transmission system is ingeniously designed so that if one engine fails, the remaining engine can mechanically drive both the front and rear rotors. This single-engine-out capability is a significant safety enhancement, providing a level of resilience that is crucial for missions involving valuable cargo or operating over populated or difficult terrain. This focus on redundancy demonstrates a mature approach to autonomous flight, acknowledging that for these systems to be truly trusted, they must be exceptionally safe.
A New Contender in a Growing Market
The successful flight of the T1400 is not happening in a vacuum. It enters a global heavy-lift drone and helicopter market that is projected to see substantial growth over the next decade. Market analyses predict the heavy-lift helicopter market could grow from around $9.6 billion in 2024 to over $15.4 billion by 2034. This expansion is fueled by a confluence of factors, including military modernization programs, increasing infrastructure projects in remote areas, and the expansion of oil and gas exploration. There is a clear and rising demand for aircraft that can rapidly and reliably transport heavy equipment, supplies, and personnel into challenging environments.
The T1400 is well-positioned to capture a segment of this expanding market, particularly for specialized, high-altitude operations. Its autonomous capabilities, including autonomous takeoff and landing, obstacle avoidance, and precise delivery, align perfectly with the industry’s technological trends. Major players, including the U.S. Army with its Chinook fleet, are heavily investing in integrating semi-autonomous and fully autonomous systems. The T1400’s debut showcases a powerful, ready-to-deploy platform that meets the demands of this new era of logistics and transportation.
Future Applications and Implications
The potential applications for the T1400 are vast and transformative. In emergency response, it could be a game-changer, delivering medical supplies to disaster zones, evacuating casualties from inaccessible locations, or supporting firefighting operations from the air. For logistics, it offers a “flying truck” capable of bypassing difficult terrain and delivering goods directly to where they are needed, be it a remote construction site, an offshore platform, or a rural community. Its ability to operate in extreme cold and at high altitudes makes it particularly valuable for operations in regions like the Himalayas, the Andes, or the Arctic.
Beyond its immediate applications, the T1400 represents a broader shift towards autonomous solutions for complex, real-world problems. As these platforms become more common, we can expect to see significant changes in supply chain management, disaster relief strategies, and even agricultural practices. The success of advanced UAVs like the T1400 will likely spur further innovation in battery technology, artificial intelligence for navigation, and payload management systems. It is a clear indicator that the future of heavy logistics is not just bigger, but smarter and more autonomous.
Conclusion: A New Era of Aerial Logistics
The maiden flight of the T1400 tandem helicopter is more than just a technical demonstration; it’s a declaration of a new era in heavy-lift autonomous logistics. With its robust design, impressive payload capacity, and advanced safety features, the T1400 is a formidable tool built to operate where others cannot. It directly addresses a growing global need for reliable and efficient aerial transport in the most challenging environments on Earth. This aircraft stands as a testament to the power of focused engineering and a clear vision for the future of unmanned aviation.
As we look ahead, the implications of platforms like the T1400 are profound. They promise to enhance safety by removing humans from dangerous missions, increase efficiency by automating complex logistical chains, and extend our reach into previously inaccessible domains. The T1400 is a significant milestone, and its journey from this first flight to full operational deployment will be watched closely by industries ranging from defense and logistics to emergency services and beyond. It has set a new benchmark for what is possible in heavy-lift autonomy.
FAQ
Question: What is the T1400 Tandem Helicopter?
Answer: The T1400 is a heavy-lift unmanned helicopter developed by Harbin United Aircraft Technology Co Ltd (UAT). It features a tandem rotor design and is built for autonomous logistics, transport, and emergency support missions, especially in high-altitude and extreme environments.
Question: What are the key specifications of the T1400?
Answer: It has a Maximum Take-off Weight (MTOW) of 1,400 kg, a maximum payload of 650 kg, and a service ceiling of 6,500 meters. It can fly for up to 8 hours with a 200 kg payload and has a top speed of 180 km/h.
Question: What makes the tandem rotor design special?
Answer: The two counter-rotating rotors cancel out torque, eliminating the need for a power-consuming tail rotor. This allows all engine power to go towards lift, increasing payload capacity and stability, which is essential for carrying heavy loads.
Question: What safety features does the T1400 have?
Answer: The T1400 is equipped with a dual-engine system that allows one engine to power both rotors if the other fails. It also has a multiple redundant flight control system (FCMS) and a combined navigation system for enhanced reliability and safety during autonomous operations.
Sources: sUAS News
Photo Credit: Xinhua News
UAV & Drones
Reliable Robotics Advances ACAS Xu Flight Testing for FAA Certification
Reliable Robotics conducts extensive flight tests of ACAS Xu Detect and Avoid system near Hollister, California, supporting FAA certification efforts.
This article is based on an official press release from Reliable Robotics.
Introduction to ACAS X Flight Testing
As the aviation industry pushes toward the integration of uncrewed aircraft systems (UAS) into the National Airspace System (NAS), advanced collision avoidance technologies are becoming critical. Reliable Robotics recently announced significant progress in this area, detailing a comprehensive flight test campaign for its Detect and Avoid (DAA) system. According to a company press release, this initiative is part of an ongoing contract with the Federal Aviation Administration (FAA) to provide validation data for certifying DAA systems based on the Airborne Collision Avoidance System X (ACAS X).
The testing focuses on ACAS Xu, a variant specifically designed for autonomous fixed-wing aircraft. By integrating this algorithm with air-to-air radar and other sensors, Reliable Robotics aims to create an FAA-certifiable DAA solution capable of operating under Instrument Flight Rules (IFR) across all airspace classes. This development marks a crucial step in ensuring that uncrewed aircraft can safely share the skies with traditional, piloted traffic.
Advancing ACAS X for Uncrewed Systems
The FAA has been developing the ACAS X family of algorithms to modernize and improve upon the legacy Traffic Alert and Collision Avoidance System II (TCAS II). The new suite includes several versions tailored to different aircraft types: ACAS Xu for fixed-wing UAS, ACAS Xr for rotorcraft, and ACAS Xa as a direct replacement for TCAS II in transport-category aircraft. The primary advantage of ACAS X is its ability to reduce unnecessary alerts, particularly in terminal areas, while enhancing overall safety and separation.
Reliable Robotics is leveraging the ACAS Xu variant as it works toward a Supplemental Type Certificate (STC) to convert the Cessna 208B Caravan into a fully uncrewed aircraft system. In their official statement, the company noted that their DAA solution will provide surveillance against both cooperative and non-cooperative traffic, a vital requirement for safe airspace integration.
Flight Test Campaign Details
Simulating Real-World Encounters
To validate the system, Reliable Robotics has transitioned from Hardware In The Loop (HITL) testing to a rigorous, month-long flight test campaign. The company reports that the campaign involves over 50 scripted encounters in and around the terminal area of the Hollister public airport (KCVH) in California.
During these tests, Reliable’s Cessna 208B (registration N927FE) flies RNAV approaches under the control of an advanced automation system, commanded by a remote pilot located 50 miles away. Simultaneously, an instrumented Cessna 182 acts as an “intruder” aircraft, flying converging paths to create specific encounter geometries. The encounters are meticulously planned to simulate a loss of safe separation while maintaining strict safety margins, particularly near the closest point of approach (CPA).
“Successful completion of each encounter requires meticulous planning, close communication between the remote pilot and intruder pilot, and precise execution,” Reliable Robotics stated in their release.
Testing Minimum Equipage Scenarios
A key component of the flight test campaign is evaluating the DAA system’s performance against aircraft with minimal cooperative equipment. The Cessna 182 intruder is outfitted with the minimum viable equipment set required for compliance with current FAA ADS-B OUT mandates, a configuration common among smaller, older general aviation aircraft.
Because ADS-B OUT relies on GPS data, its integrity must be independently validated. Reliable Robotics explains that Mode C omnidirectional interrogation is insufficient for this task. Instead, their system uses an integrated non-cooperative track source, such as radar, to validate the ADS-B tracks and provide complete positional data. This ensures that accurate collision avoidance alerts can be issued even when encountering minimally equipped traffic.
Regulatory and Financial Backing
The push for advanced collision avoidance technology has strong backing at the federal level. The FAA has been funding research and development for ACAS X since 2008. Furthermore, Reliable Robotics highlighted that the Senate Transportation, Housing and Urban Development, and Related Agencies’ draft appropriations bill for Fiscal Year 2026 allocates $16 million specifically for continued ACAS X development.
This sustained financial support underscores the growing focus on modernizing airspace safety technologies to accommodate new entrants without compromising the safety of existing NAS stakeholders.
AirPro News analysis
We view the successful validation of ACAS Xu through real-world flight testing as a major milestone for the UAS industry. By proving that uncrewed systems can reliably detect and avoid both cooperative and non-cooperative traffic, even those with minimal ADS-B equipage, companies like Reliable Robotics are dismantling one of the most significant technical barriers to routine beyond visual line of sight (BVLOS) operations. We note that the $16 million allocation in the FY 2026 draft appropriations bill further signals that lawmakers view ACAS X not just as an experimental project, but as foundational infrastructure for the future of the National Airspace System.
Frequently Asked Questions
What is ACAS X?
ACAS X (Airborne Collision Avoidance System X) is a family of collision avoidance algorithms developed by the FAA to replace and improve upon legacy TCAS II systems. It includes variants for transport aircraft, rotorcraft, and uncrewed systems.
What aircraft is Reliable Robotics using for these tests?
Reliable Robotics is using a Cessna 208B Caravan (N927FE) equipped with their DAA system, and a Cessna 182 acting as the intruder aircraft.
Where are the flight tests taking place?
The flight tests are being conducted in and around the terminal area of the Hollister public airport (KCVH) in California.
Sources
Photo Credit: Reliable Robotics
UAV & Drones
Valyra Aerospace Launches Hydrogen-Powered VTOL Drones in Spain
Valyra Aerospace, a UPV spin-off, develops hydrogen-powered VTOL drones with extended endurance for defense and maritime sectors in Spain.
This article is based on an official press release from Universitat Politècnica de València (UPV).
Valyra Aerospace Emerges as UPV Spin-Off to Pioneer Hydrogen-Powered VTOL Drones
Valyra Aerospace has officially been recognized as a spin-off of the Universitat Politècnica de València (UPV), marking a significant milestone in the Spanish aerospace sector. According to the official university announcement, the company is positioning itself as one of the first in Spain to develop hydrogen-powered Unmanned Aerial Vehicles (UAVs) equipped with Vertical Take-Off and Landing (VTOL) capabilities. This technological approach aims to significantly outperform conventional battery and combustion engine systems by offering cleaner, longer-endurance flight profiles.
The transition to official spin-off status, achieved in early 2026, provides Valyra Aerospace with the institutional backing necessary to approach large governmental and industrial clients. The company is currently preparing to commercialize its first model, targeting critical applications in security, defense, and civilian maritime operations. By focusing on a “100% designed and built in Europe” philosophy, Valyra is aligning its product roadmap with the continent’s broader push for technological and defense sovereignty.
We at AirPro News have reviewed the comprehensive details provided by the UPV innovation ecosystem, which highlight not only the technical specifications of Valyra’s upcoming drone fleet but also the robust academic pipeline that brought the company to life.
From Student Project to Aerospace Innovator
The Origins in Horus UPV
The foundation of Valyra Aerospace traces back to 2018, originating as a student-led initiative named “Horus UPV.” As detailed in the university’s release, this project was incubated within UPV’s Generación Espontánea (Spontaneous Generation) program, an initiative designed to foster student-driven technological innovation. The company is spearheaded by three UPV alumni: Co-CEO Joan Albert Such GarcÃa and José Domingo Cerdán Torres, both holding Master’s degrees in Aeronautical Engineering, alongside Mario Sepúlveda Sánchez, who holds a Master’s in Automatics and Industrial Informatics.
Academic and Institutional Backing
The evolution from a student concept to a commercially viable enterprise was heavily supported by the university’s academic staff. Two prominent UPV professors serve as main partners in the spin-off: Sergio GarcÃa-Nieto RodrÃguez from the University Institute of Control Systems and Industrial Computing (ai2-UPV), and Luis Miguel GarcÃa-Cuevas González from the CMT-Clean, Mobility & Thermofluids Institute (CMT-UPV). This collaboration underscores the successful technology transfer from academia to the private sector.
“Valyra is more than a startup or a spin-off; it is already an exemplary company of convergence between the Generación Espontánea programs and company generation. It will be a benchmark and I am sure it will generate many other successful companies.”
Pioneering Hydrogen-Powered VTOL Technology
The VX Series and Technical Specifications
Valyra’s primary technological differentiator is its integration of hydrogen fuel cells into VTOL platforms. According to the provided specifications, this propulsion method allows their UAVs to achieve extended flight times and reduced emissions, making them highly suitable for sustainable, long-range operations where traditional electric batteries fall short. The VTOL capability eliminates the need for runways, enabling rapid deployment in constrained or harsh environments, such as offshore platforms and moving vessels.
The company’s flagship model is the VX-110, designed for sustainable, long-endurance operations at sea or on land. Additionally, the modular Series VX is tailored for aerospace research and innovation. The university’s announcement notes that the Series VX features a Maximum Take-Off Weight (MTOW) of 20 kg, a 3-meter wingspan, a 4 kg payload capacity, and a cruising speed of 75 km/h.
Target Markets: Defense and Civilian Applications
While the initial design focus leans toward military and governmental use, the modular architecture of Valyra’s UAVs ensures adaptability across various sectors. In the defense and security realms, the drones are targeted for Intelligence, Surveillance, and Reconnaissance (ISR) missions, naval operations, border control, anti-drug trafficking, and maritime rescue. On the civilian and commercial front, the technology is positioned for the surveillance of energy infrastructure, such as offshore wind farms and oil platforms, as well as environmental monitoring and maritime logistics.
Recent Milestones and European Sovereignty
ESA Incubator and Industry Recognition
Valyra Aerospace has rapidly accumulated significant industry validation. Following its participation in the SPIN UPV program, which structured its technology transfer, the company achieved its official spin-off status. Furthermore, on March 31, 2026, Valyra was selected to participate in the second edition of the European Space Agency (ESA) business incubator project at Castellon Airport. This follows earlier recognition in late 2025, when the specialized defense magazine Escudo Digital named Valyra as one of the 10 startups expected to shape the future of security and defense in Spain.
“The aim now is to show our clients that we’re not just selling hot air… In an environment like ours, where you need the support of as many institutions as possible, going from a startup to a spin-off gives you credibility. It gives you that seal of approval that allows you to approach large governmental or industrial clients, collaborators, and suppliers with greater solvency.”
AirPro News analysis
The emergence of Valyra Aerospace highlights a critical transition in the unmanned aerial systems market: the shift toward hydrogen propulsion to solve the endurance limitations of battery-powered VTOLs. Lithium-ion batteries remain heavy and offer diminishing returns for long-range maritime and ISR missions. By successfully integrating hydrogen fuel cells into a 20 kg MTOW platform, Valyra is addressing a distinct operational gap for European defense and infrastructure monitoring.
Furthermore, the company’s success is a testament to the robust innovation pipeline within the Spanish university system. The UPV’s IDEAS program has reportedly helped create over 1,033 startups since 1992, maintaining a historical survival rate of 66.4%. With UPV breaking its historical record for R&D&I project revenue in 2025 at €119 million, the institutional framework supporting deep-tech hardware startups in Spain appears stronger than ever. Valyra’s emphasis on a European supply chain also perfectly times the market, as EU nations increasingly prioritize domestic sourcing for critical defense and aerospace technologies.
Frequently Asked Questions (FAQ)
What makes Valyra Aerospace drones different from standard commercial drones?
According to the company’s specifications, Valyra drones utilize hydrogen fuel cells rather than standard lithium-ion batteries or combustion engines. This provides significantly longer flight endurance and cleaner operations, combined with Vertical Take-Off and Landing (VTOL) capabilities for runway-independent deployment.
What are the specifications of the Valyra Series VX?
The UPV press release states that the Series VX features a 20 kg Maximum Take-Off Weight (MTOW), a 3-meter wingspan, a 4 kg payload capacity, and a cruising speed of 75 km/h.
What is a university spin-off?
A spin-off is a company founded to commercialize technology or research developed within a university. In this case, Valyra Aerospace transitioned from a student project (“Horus UPV”) into a commercial entity with the official backing and technology transfer support of the Universitat Politècnica de València.
Photo Credit: Universitat Politècnica de València
UAV & Drones
Open-Source Bamboo Drone Flight Control Software Released by Chinese Researchers
Chinese researchers developed the first open-source flight control system for bamboo drones, tackling vibration issues and promoting sustainable UAVs.
This article summarizes reporting by the South China Morning Post and journalist Dr. Chao Kong. This article summarizes publicly available elements and public remarks.
World’s First Open-Source Bamboo Drone Flight Control Software Released by Chinese Researchers
A research team from China has successfully developed and released the world’s first open-source flight control system engineered specifically for bamboo-frame drones. According to reporting by the South China Morning Post, this breakthrough overcomes the unique physical and aerodynamic challenges associated with using natural, flexible materials in aviation.
The innovation, spearheaded by researchers at the School of Civil Aviation at Northwestern Polytechnical University, was initially detailed in the academic journal Heilongjiang Science on February 28, 2026, before gaining global attention in early April. By making the software freely available, the developers aim to accelerate the creation of sustainable, low-cost unmanned aerial vehicles (UAVs) that can serve as viable, eco-friendly alternatives to traditional plastic and carbon-fiber models.
For the commercial drone industry, this represents a significant step toward sustainable aviation. As we observe a growing global demand for green technology, the democratization of drone manufacturing could empower developing nations, agricultural sectors, and environmental monitoring groups to deploy highly capable fleets using locally sourced, biodegradable materials.
Engineering the Bamboo Drone
Overcoming Low-Frequency Vibrations
The physics of bamboo present a unique hurdle for aerospace engineers. Traditional UAVs rely on rigid composite materials, whereas bamboo is inherently flexible. According to the South China Morning Post, this flexibility generates distinct low-frequency vibrations during flight, typically measuring between 8 and 20 hertz.
Conventional commercial flight controllers are designed for rigid frames and struggle to process these specific low-frequency vibrations. Historically, this technological bottleneck has prevented the mass industrial adoption of bamboo drones. Existing closed-source controllers, and even many open-source alternatives, are inadequately adapted to the structural properties of natural materials, leading to instability in the air.
Hardware and Software Upgrades
To solve this stability issue, the Northwestern Polytechnical University team engineered a bespoke flight control board. The hardware features an industrial-grade chip paired with a dual inertial measurement unit (IMU) system, as detailed in the Heilongjiang Science publication. This dual-sensor approach provides the necessary redundancy and noise filtering required to manage a flexible airframe.
On the software side, the researchers utilized a refined “extended Kalman filter.” The performance metrics reported by the research team are notable: the new bamboo-optimized system reduces control latency to 8–10 milliseconds, a significant improvement over the 15–20 milliseconds typical of conventional systems.
According to the South China Morning Post, the open-source software “is specifically coded to exploit bamboo’s natural vibration-damping qualities,” significantly enhancing drone stability.
Broader Implications for Sustainability and Industry
Eco-Friendly Aviation
The commercial drone sector currently relies heavily on non-biodegradable plastics, carbon composites, and rare earth metals. Bamboo offers a highly renewable, fast-growing, and biodegradable alternative for drone airframes. By shifting toward natural materials, the industry could drastically reduce the environmental footprint of manufacturing and disposing of commercial UAV fleets.
Furthermore, by releasing the flight control software as an open-source platform, the Chinese team is removing a massive financial and technical barrier. This move has the potential to democratize drone technology globally, allowing various sectors to build low-cost UAVs without relying on expensive, proprietary components.
AirPro News analysis
At AirPro News, we view this development as a fascinating intersection of ancient materials and modern algorithms. However, it is crucial to place this innovation within the current geopolitical landscape. The global drone market is currently experiencing intense international scrutiny regarding Chinese-manufactured UAVs.
Concerns over data privacy and cybersecurity have led several Western nations to reassess their procurement policies regarding Chinese technology. Releasing this bamboo drone software as a free, open-source platform may serve as a strategic maneuver. By fostering global goodwill and encouraging international collaboration, developers might successfully bypass the commercial and geopolitical restrictions frequently placed on proprietary Chinese aerospace technology, ensuring their innovations still shape the global market.
Frequently Asked Questions (FAQ)
Who developed the bamboo drone flight control software?
The system was developed by a research team at the School of Civil Aviation at Northwestern Polytechnical University in China, with findings published in the journal Heilongjiang Science.
Why do bamboo drones need special software?
According to researchers, bamboo is flexible and generates low-frequency vibrations (8 to 20 hertz) during flight. These vibrations confuse standard flight controllers designed for rigid plastic or carbon-fiber drones, requiring specialized algorithms to maintain stability.
How much does the software cost?
The flight control software has been released for free as an open-source platform to encourage global development and adoption.
Sources: South China Morning Post, Heilongjiang Science
Photo Credit: South China Morning Post
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