Skip to content

Satellite Operated by China Delivers Powerful Laser Strike on Starlink From High Altitude of 36,000 KM Above Earth's Surface

Spacecraft of Chinese origin has surpassed expectations, employing a 2-watt laser from 36,000 kilometers above the Earth's surface to attain unparalleled velocities. This groundbreaking development potentially redefines satellite communication, eclipsing the achievements of Starlink.

Satellite Operated by China Destroys Starlink Via 2-Watt Laser at an Altitude of 36,000 kilometers...
Satellite Operated by China Destroys Starlink Via 2-Watt Laser at an Altitude of 36,000 kilometers Above the Earth

In a groundbreaking development, Chinese researchers have unveiled the AO-MDR synergy, a novel technique designed to mitigate atmospheric effects on satellite laser communication. This innovative approach combines Adaptive Optics (AO) and Mode Diversity Reception (MDR) to stabilize laser signals in turbulent atmospheric conditions.

The AO-MDR synergy utilizes 357 micro-mirrors in the AO system to dynamically reshape and correct distorted laser light signals caused by atmospheric turbulence. Meanwhile, MDR captures the scattered laser signals by processing multiple mode channels through a multi-plane light converter and a path-picking algorithm. This algorithm selects the most reliable signals among several channels to maintain a stable and clear connection.

This synergy has proven effective in a satellite operating at 36,000 kilometers above Earth, enabling data transmission speeds of up to 1 Gbps. This is five times faster than SpaceX’s Starlink, which operates at lower altitudes and offers speeds around 200 Mbps.

The implications for global communication are vast. This breakthrough could enable ultra-HD video streaming, next-generation remote sensing, and potentially early 6G networks delivered via satellite lasers. The technology also promises more reliable satellite internet connections due to improved signal stability despite atmospheric interference.

Moreover, the development of the path-picking algorithm adds a layer of precision, resulting in fewer errors and increased reliability for data transmission. This could have significant impacts on industries that rely on real-time communication, such as media, telecommunications, and space exploration.

The path-picking algorithm was tested extensively at the Lijiang Observatory in southwestern China. As more countries invest in satellite laser communication, the world could see a rapid shift toward space-based networks that deliver faster, more reliable internet services.

In conclusion, the AO-MDR synergy represents a significant step forward in satellite communication technology. By overcoming atmospheric effects on laser signals, this technique paves the way for faster, more stable, and widespread high-capacity satellite networks.

The AO-MDR synergy not only shows promise for improved satellite internet connections but also has potential applications in various health-and-wellness and science areas, such as real-time monitoring of patient vital signs for remote health care or monitoring changes in weather patterns and climate conditions for better health-and-wellness and space-and-astronomy research.

With this new technology, the use of satellite laser communication in next-generation technology could extend to real-time data transmission in various tech-driven industries, including artificial intelligence, autonomous vehicles, and virtual reality, facilitating innovations and advancements in these fields.

Read also:

    Latest

    Drug abuse in Leipzig shows an alarming growth trend

    Rising Drug Dependency in Leipzig

    Rise in addiction cases reported in Leipzig, city report indicates. In the past year, approximately 4,200 individuals received support at counseling and treatment centers, marking an uptick of 100 compared to the year prior. Alcohol issues accounted for 43% of the reasons behind these seeking aid.