It’s easy to take for granted the seamless way information is preprocessed, transmitted wirelessly, and nicely processed on another device. But the future of wireless communications may be even more sophisticated, as scientists work toward a concept in which data isn’t just transmitted wirelessly but also processed in midair.

In the world of wireless communication, radio waves and microwaves are two foundational technologies that form the backbone of modern communication systems. Both play crucial roles in transmitting information across distances, but they operate differently in terms of frequency, range, bandwidth, and application. Understanding the distinctions between radio and microwave transmission is essential for selecting the right technology in fields like defense, broadcasting, telecommunications, and unmanned systems.

Microwave transmission is typically line-of-sight (LOS), meaning the transmitter and receiver must be aligned directly without major obstructions in between. These systems are known for their high bandwidth, low latency, and resilience in extreme environments.

Microwave transmission refers to the wireless communication technology that uses microwave frequencies—typically ranging from 1 GHz to 100 GHz—to transmit data over long distances. Unlike traditional radio waves, microwaves travel in line-of-sight paths and are often used in point-to-point communication systems.

TuQian Wireless is a leading provider of industrial and tactical wireless communication equipment. With deep expertise in video transmission, mesh networking, and mobile signal systems, TuQian develops advanced UAV transmission solutions tailored to high-stakes applications.

In recent years, the rapid development of drone technology has enabled its wide application in military reconnaissance, civilian aerial photography, logistics transportation, etc. However, it has also brought about potential risks such as privacy leakage and airspace security threats. Unauthorized drones invading sensitive areas, disrupting aviation order, and even carrying out malicious attacks occur frequently, making anti-drone technology a key area of research and deployment for various countries. Anti-drone equipment uses detection, identification, interference, interception, etc. to build a low-altitude defense system to cope with increasingly complex drone threats. This article aims to analyze the main types, working principles, and development trends of current anti-drone technologies, discuss their application and challenges in actual combat, and provide references for research in related fields.

Imagine hundreds of drones flying around in the sky. How do they communicate with each other? Without base stations or Wi-Fi, what do they rely on to exchange information? The answer is a cutting-edge technology called "ad hoc networking" - just like a swarm of bees, each drone can automatically find its companions and form an intelligent network without the need for a queen bee to direct them!

MESH networking is a decentralized communication system where each device (node) can connect to multiple other devices, forming a web-like structure. In industrial settings, this means that even if one node fails or a connection is lost, the network can automatically reroute data through other nodes. This self-healing capability ensures higher reliability and fault tolerance compared to traditional point-to-point or star networks.

In modern industrial IoT, emergency response, and mobile surveillance systems, fast and reliable wireless connections are critical. Tuqian Wireless delivers high-performance Wireless Peripheral Communication Systems that combine long-range transmission, ultra-low power operation, and rugged design for harsh environments.