industrial wireless and AI

Most AI projects focus on the model. We focus on everything around the model. While many companies can deploy AI algorithms, few can simultaneously optimize:

AI Computing (NVIDIA Jetson)

Wi-Fi 6/7 Connectivity

Driver & Kernel Development

Edge Device Integration

Industrial Deployment WallysTech combines AI and wireless expertise into one platform, helping customers build intelligent edge systems that are faster to deploy, easier to scale, and ready for real-world environments. AI + Wireless = The Future of Edge Intelligence. Let's build it together.

Most industrial wireless problems are not caused by insufficient bandwidth.

They are caused by latency, jitter, interference, and network unpredictability.

That's where TDMA comes in.

The WallysTech DR5018S combines Qualcomm IPQ5018 with TDMA technology to deliver more stable and deterministic wireless communication for industrial applications.

From AGVs and smart factories to mining, surveillance, ports, and remote monitoring, reliable connectivity can make all the difference.

Because in industrial networks, stability matters more than speed.

🔍 Why do so many wireless projects fail before real-world deployment? In most cases, the issue is not “insufficient bandwidth” or “slow WiFi”. It is uncontrolled system complexity. In real-world scenarios such as mining, AGVs, industrial automation, and unmanned systems, projects rarely fail due to throughput limitations. Instead, the real challenges are: Mesh instability in high-mobility environments Noticeable latency jitter during multi-node handovers Uncontrollable routing paths that are difficult to optimize at system level Hardware and software developed separately, making holistic tuning almost impossible As a result: Perfect in the lab → Fails in the field. At WallysTech, we approach this differently: 👉 Not just hardware design, but hardware + software as a unified system 👉 Mesh, roaming, TDMA, and AP controller designed as a single architecture 👉 Built for real mobile networks, not idealized test environments Because in the real world: “It works” is not the same as “it runs stably in mines, mobile platforms, and large-scale deployments.” If you are working on robotics, industrial wireless, AGV, or mission-critical communication systems, let’s connect and exchange ideas. 🏷️ [email protected]

🚀 Meet the Next-Generation WiFi 7 Platform — WallysTech DR9574S Powered by Qualcomm IPQ9574 As enterprise and industrial wireless networks move toward higher bandwidth, lower latency, and 10G backhaul connectivity, the demand for flexible and high-performance WiFi 7 hardware continues to grow. The WallysTech DR9574S is designed to meet these challenges with a powerful multi-band WiFi 7 architecture based on the Qualcomm IPQ9574 platform. 🔥 Key Features ✅ WiFi 7 Multi-Band Architecture ✅ Flexible 2x2 / 4x4 RF Configurations ✅ Support for 5GHz & 6GHz Deployments ✅ 1 × 10G SFP Optical Port ✅ 1 × 10G Ethernet with PoE ✅ M.2 Expansion for WiFi & 5G Modem ✅ GPS Support ✅ Industrial-Grade Design With support for multi-link and high-capacity wireless networking, DR9574S helps accelerate the transition toward next-generation distributed wireless infrastructure.

Generally speaking, the higher the throughput of a WiFi router, the better its performance will usually be. Higher throughput means that the router can provide faster data transfer rates, allowing more devices to connect simultaneously and transfer data at high speeds. High-throughput routers can provide more stable and faster wireless connections and are suitable for applications with high bandwidth requirements, such as high-definition video streaming, online gaming, and large file downloads. If you have multiple devices connected to your WiFi network at the same time and need to transfer a lot of data, a router with high throughput will be better able to meet your needs.

as you see,throughput up to 8.9G , If the environment is better, it can reach 9G+, close to 10G.

QSDK mini pcie 5G/6G/6E moudle/QCN9074/QCN9024 chipset