IN Brief:
- NeoCortec’s NeoMesh protocol is supporting Endrich Bauelemente’s e-IoT platform.
- The platform includes smart sensors, IoT nodes, gateways, cloud services, refrigeration monitoring, soil sensing, and lighting-control nodes.
- The technology supports low-power, self-healing mesh networks for industrial IoT installations with many distributed measurement points.
NeoCortec is supporting Endrich Bauelemente Vertriebs GmbH’s e-IoT platform with NeoMesh, a low-power wireless mesh networking protocol and software stack for distributed smart sensor networks.
Endrich’s e-IoT platform combines IoT nodes, smart sensors, gateway devices, and cloud services for industrial digitisation projects. NeoMesh provides the local wireless ad-hoc network layer, allowing devices to send and receive small packets of data infrequently, reliably, and with low power consumption. The protocol is designed for battery-powered networks and supports self-healing operation, rerouting data automatically if a node fails or a radio path changes.
The platform spans several sensor and gateway applications. Endrich lists Citybox 2.0 for smart city monitoring, elevator monitoring systems, NeoMesh cellular gateways, digital and analogue smart sensor nodes, soil sensors, RS485 DIN-rail IoT gateways for refrigerator temperature control, refrigeration data loggers, cellular data loggers integrated into refrigerator door lightbars, and energy-harvesting e-zeroBatteryZone systems.
Sensor nodes in the ecosystem cover temperature, humidity, ambient light, door-opening detection, and AC voltage presence detection. A NeoMesh-based brightness control node supports 0–10V dimming for LED lamps and uses a Microchip SAMD21 MCU, while gateways use sub-GHz operation at 868MHz and 915MHz with LTE-M, NB-IoT, 2G, or CAT1-BIS connectivity options depending on configuration.
Industrial IoT deployments often run into a basic installation problem before data analysis begins. Measurement points are rarely located where power and communications are already convenient, while retrofit cabling can involve shutdowns, access work, safety approvals, cable trays, and integration costs that exceed the price of the sensor node. A low-power mesh architecture changes that installation model by letting distributed nodes cooperate locally before data is passed to a gateway.
NeoMesh is built around networks where many devices exchange small data packets at scheduled intervals. Dynamic routing, redundancy, and channel hopping support communication in obstructed or noisy environments, while NeoCortec states that the technology can scale to as many as 65,000 devices in a single network. The design focus is not high bandwidth, but long service life, network resilience, and practical deployment across many endpoints.
That profile suits environmental monitoring, refrigeration, agriculture, warehouse sensing, street lighting, building systems, and predictive maintenance tasks. Temperature drift, humidity, door status, soil moisture, equipment state, light level, and simple voltage-presence measurements do not require a continuous high-throughput connection. They do require dependable transmission, low maintenance, and a route from local measurement to usable data.
The gateway layer links that local sensing environment to broader connectivity services. Wireless Logic’s SGP.32 hardware work shows the same lifecycle issue at the cellular end of the chain, where IoT eSIM management, anomaly detection, and digital-twin connectivity are being built into device planning. Mesh networks address the near-field side of that problem, gathering data from physical assets before cellular or fixed connectivity carries it onward.
Component distribution is also changing as industrial customers seek deployable subsystems rather than isolated parts. Sensors, radios, microcontrollers, gateways, firmware, cloud services, and connectivity management increasingly have to arrive as a coherent design path. Endrich’s e-IoT platform reflects that shift by combining hardware blocks and services around defined monitoring use cases, instead of leaving every customer to assemble a full stack from unrelated components.
Battery life remains one of the most difficult constraints. A node that is cheap to install but expensive to maintain loses much of its appeal, particularly in refrigeration estates, agricultural sites, industrial buildings, or infrastructure assets where access is inconvenient. Low duty cycles, energy harvesting, efficient wake-up behaviour, and mesh routing all contribute to whether a sensor network can remain in service for years rather than months.
Radio planning still requires care. Antenna placement, enclosure materials, interference, sub-GHz regulation, gateway density, firmware update strategy, and data security can all limit performance if they are treated late in the design process. Mesh networking reduces reliance on direct long-range links, but the physical environment still defines the quality of the network.
NeoCortec and Endrich are addressing the practical layer where many industrial IoT projects succeed or stall: getting reliable data out of dispersed measurement points without turning every sensor into a wiring project. With refrigeration, elevator monitoring, smart city nodes, soil sensing, and lighting control in the same platform family, low-power mesh networking is moving toward a general-purpose industrial sensing layer rather than a specialist wireless add-on.
