YNWMicro - Mesh ad hoc network: Motherboard, FPGA/SDR module, complete machine customization manufacturer; industrial wireless bridge manufacturer; wireless communication WiFi module customization solution provider

Core Features

6GHz Band Technology

Adopts the new 6GHz frequency band with less interference and abundant channel resources. Compared with traditional 2.4G/5G bands, transmission stability is improved by more than 50%, supporting higher data rates.

50km-150km Long-Distance Transmission

Equipped with high-gain directional antennas (28dBi/30dBi optional) combined with advanced signal amplification technology, enabling stable data transmission up to 50km under line-of-sight conditions, meeting long-distance networking needs.

High Bandwidth & Low Latency

Supports up to 2.5Gbps wireless speed with wired ports supporting 1000Base-T/100Base-TX. Transmission latency as low as 1ms, meeting high-frequency requirements such as 4K/8K video surveillance and real-time data backhaul.

Strong Anti-Interference Capability

Supports Dynamic Frequency Selection (DFS) and Adaptive Modulation and Coding (AMC) technologies, automatically avoiding interference bands. Maintains stable transmission in complex electromagnetic environments with packet loss rate below 0.1%.

All-Weather Adaptability

Industrial-grade design with IP67 protection rating, supporting -40℃~70℃ wide temperature operating environment. Resistant to heavy rain, strong winds, high temperatures, severe cold and other harsh weather, suitable for long-term outdoor deployment.

Intelligent Management

Supports web-based graphical management interface for remote configuration and device status monitoring (signal strength, bandwidth usage, temperature, etc.). Supports batch management and firmware upgrades, improving operation efficiency by 80%.

High-Performance LigoWave Wirele...

This solution addresses the 150km wireless transmission requirements for high-altitude power grid construction projects (altitude ≥1500m), utilizing LigoWave PTP professional industrial bridges with a core "20km/hop" chain relay topology. It comprehensively resolves key challenges in high-altitude regions, including earth curvature, signal loss, and extreme environmental adaptation, while catering to real-time data transmission, video surveillance, and command dispatching needs for power grid construction. It fully complies with power grid construction safety regulations, providing a stable, efficient, and implementable wireless transmission solution for high-altitude power grid construction. Core application scenarios: High-altitude mountain power grid transmission line construction, high-altitude substation construction, and remote high-altitude power grid inspection data transmission. It solves the challenges of difficult fiber optic deployment, high costs, and long construction periods in high-altitude areas. Leveraging the industrial-grade protection and anti-interference capabilities of LigoWave PTP equipment, it achieves stable 150km transmission, ensuring the continuity and safety of power grid construction.

What Problems Do Mesh ad hoc Net...

Mesh networking devices, commonly referred to as MESH devices, are wireless communication devices that form communication networks through automatic discovery and dynamic networking between device nodes without relying on fixed infrastructure. The technical origin can be traced back to the US military’s Ad Hoc networks in the 1970s, which later evolved into the Mesh technology we know today. However, the earliest wireless mesh network dates back to the ALOHA system in 1968, which was the earliest prototype. In 2001, companies like Intel formally proposed the Mesh wireless network architecture, providing a clearer development direction for this technology. The most prominent feature of these devices is their multi-hop relaying, centerless distributed structure, with self-organizing, self-healing, and strong anti-destruction advantages. They are now mainly used in emergency communications, firefighting and rescue, military coordination, and broadband communication scenarios in complex environments.

Mesh Ad Hoc network – a co...

In extreme scenarios such as natural disasters and accidents, public network communications are easily disrupted, while emergency command, on-site rescue, and industrial inspection work urgently require uninterrupted, highly reliable, and high-speed communication. The "Opinions on Strengthening the Construction of Emergency Communication Capabilities in Extreme Scenarios," jointly issued by the Ministry of Industry and Information Technology and fourteen other departments, clearly states the need to build a dedicated communication network that meets the needs of emergency operations and is interconnected with the public network, forming a collaborative emergency communication network capability system. The CHX-602 handheld self-organizing network communication device, as a core product in the field of decentralized network communication, leverages the distributed architecture advantages of decentralized self-organizing networks to perfectly meet national emergency communication construction requirements. It has become a powerful communication guarantee tool for multiple fields such as police, fire departments, power, and petroleum, providing a stable, secure, and transparent channel for multimedia data transmission in complex environments.

Qualcomm Dual-Band Industrial Mo...

The deep implementation of smart manufacturing and the Industrial Internet of Things (IIoT) has significantly increased the dependence of industrial sites on wireless communication. However, three major pain points-s...

Integrated Wireless Video Survei...

Solution Background Tunnel pipeline construction scenarios are characterized by **enclosed environments, long and narrow spaces, high mobility of construction points, and high difficulty in cabling**. Traditi...