Covering 29+ verified field devices across metering, industrial sensing & control, building & environment, and smart agriculture. Search by name, model, or protocol — every device comes with complete integration documentation. Why a “Device Catalog”? In IoT projects, the hardest part isn’t the technology itself — it’s figuring out “can I connect this device?” In […]

With the rapid development of industrial digitalization, smart buildings, and energy management systems, more and more devices need to be connected to IoT platforms. From environmental sensors and smart meters to industrial instruments and automation equipment, massive amounts of field data need to be collected, transmitted, and managed efficiently. However, real-world IoT deployments often face

1. Project Background The office building includes multiple subsystems: Existing issues: 2. System Objectives The goal is to build a low-maintenance, scalable monitoring system enabling: 3. System Architecture Built on ThinkLink, the system consists of four layers: 1. Sensor Layer 2. Edge Access Layer (DIN-rail DTU) 3. LoRaWAN Network Layer Based on LoRaWAN: 4. ThinkLink

In traditional IoT deployments, system architecture is often fragmented: sensor vendors provide devices, communication modules require third-party integration, and platform systems must repeatedly adapt protocols and data models. This fragmented approach leads to long deployment cycles, high integration costs, and complex on-site commissioning. ManThink has developed a true full-stack IoT product ecosystem based on years

1. Overview KS32 is a LoRaWAN-based dry contact input acquisition device designed for industrial and infrastructure monitoring applications. It provides 6-channel digital input (DI) interfaces, enabling direct acquisition of dry contact signals from field devices and transmitting status data over LoRaWAN networks. The device is designed to address a common challenge in industrial retrofit scenarios:

RS485 and Modbus RTU remain widely used in industrial automation, building management, energy monitoring, and smart utility projects. While these devices are reliable and cost-effective, they often face challenges when organizations attempt to integrate them into modern IoT systems. Issues such as extensive cabling, high installation costs, and limited remote management capabilities can slow down

In many commercial buildings, industrial sites, campuses, and municipal projects, the real challenge is not whether an IoT platform exists. The real challenge is how to connect a large number of existing field devices reliably, quickly, and cost-effectively. Water meters, electricity meters, heat meters, temperature and humidity sensors, level sensors, fans, pumps, valves, power cabinets,

Why Industrial IoT Needs LoRaWAN Industrial enterprises are increasingly looking for more efficient ways to connect devices and collect operational data. Traditional communication methods such as RS485, Modbus, CAN bus, and PLC systems are reliable, but large-scale deployment often involves: These limitations become more obvious in: This is why LoRaWAN is gaining popularity in industrial

In LoRaWAN deployments, many users focus heavily on gateway specifications while overlooking one critical factor: gateway installation position. In reality, even with the same LoRaWAN gateway, different installation locations can significantly affect RSSI, SNR, packet loss, and communication reliability. This article analyzes how gateway placement impacts LoRaWAN coverage and provides practical deployment recommendations based on

As IoT deployments continue to expand, the traditional cloud-centric architecture is facing challenges such as bandwidth pressure, latency, cloud costs, and network dependency. More and more LoRaWAN projects are now integrating edge computing to process data locally through edge gateways or edge platforms. This article explains why LoRaWAN and edge computing work well together, explores