Endrich and its partners are showcasing a family of ultra-slim, advanced smart sensors that integrate into the E-IoT ecosystem. Developed through genuine pan-European collaboration, the E-zeroBatteryZone® sensors run entirely on energy harvesting—eliminating the need for batteries—and work seamlessly with both battery-powered devices and traditional IoT gateways. Key components include a low-power radio module from NeoCortec, an environmentally friendly supercapacitor from Ligna Energy, and indoor photovoltaic cells from Dracula Technologies.
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Low-Power IoT Sensor Networks – Neomesh: Integrated Security and Extended Range
The latest iteration of IoT sensor networks is redefining connectivity in industrial and commercial settings through the innovative Neomesh platform. This network is built on low-power sensor technology that minimizes energy consumption without compromising performance. Neomesh integrates robust security features into the network architecture, ensuring that data transmissions remain secure even in expansive deployments. Its extended range capabilities enable reliable communication across large facilities, remote sites, and challenging environments where conventional networks might falter. This combination of low-power operation, high security, and extended connectivity makes Neomesh a cornerstone for next-generation industrial automation and smart infrastructure, paving the way for a resilient and scalable IoT ecosystem.
Batteryless, Self-Sustaining Sensors: A Leap Toward Indefinite Operation
Engineered for long-term, multi-year operation, the new generation of sensor nodes is set apart by its ability to function without the need for battery replacements. Traditionally, industrial sensor networks have relied on battery-powered nodes, which not only entail periodic maintenance and replacement costs but also contribute to environmental waste. By leveraging ambient energy—primarily harvested from indoor lighting—these batteryless sensors eliminate such drawbacks. Achieving near-indefinite operation requires a meticulous approach: a comprehensive energy audit ensures that every sensor and system component is optimized to minimize power consumption. This optimization involves reducing the number of power-hungry elements and deploying ultra-low-power electronics that work in concert to draw minimal energy. The result is a sensor node that operates continuously, reduces operational costs dramatically, and aligns with sustainability goals, making it a game-changing solution for long-term industrial applications.
Advanced Energy Components: Ligna Supercapacitors and Dracula Indoor Solar Cells
Central to the success of these batteryless sensor nodes is the integration of advanced energy components designed for efficiency and compactness. Ligna supercapacitors play a critical role by providing rapid energy storage and delivery in a compact form factor, ensuring that the energy harvested is available exactly when needed, particularly for powering communication modules during data transmission bursts. Complementing this is the innovative Dracula line of indoor solar cells. These cells are specifically engineered to perform under low-light conditions common in indoor environments, generating sufficient power even when traditional solar panels might underperform. The synergy between these high-performance supercapacitors and optimized indoor solar cells creates a robust, energy-harvesting ecosystem that supports the continuous and reliable operation of the sensor network. This advanced integration not only minimizes the environmental footprint but also sets a new standard for sustainable, self-sufficient IoT solutions.
