{"id":31626,"date":"2025-11-12T21:19:05","date_gmt":"2025-11-12T17:49:05","guid":{"rendered":"https:\/\/sepehranformatic.com\/?p=31626"},"modified":"2025-12-10T09:44:54","modified_gmt":"2025-12-10T06:14:54","slug":"extending-iot-battery-life-lora-and-other-wireless-devices","status":"publish","type":"post","link":"https:\/\/sepehranformatic.com\/en\/extending-iot-battery-life-lora-and-other-wireless-devices\/","title":{"rendered":"Extending IoT Battery Life: LoRa and other Wireless Devices"},"content":{"rendered":"

Wireless IoT gadgets have gradually turned into the foundation of modern sectors, including smart agriculture, asset monitoring\u00a0 environmental control<\/a> <\/span><\/strong>in data centers, or coordinating logistics over vast areas. These small sensors frequently find themselves in locations that technicians rarely (or never) access: within walls, deep inside storage tanks, atop remote mountains, or out in the open ocean. For this reason, their task is straightforward yet vital: transmit data without requiring manual upkeep.<\/p>\n

However, all IoT projects encounter a major challenge: battery longevity and ways to extending <\/strong>IoT battery life<\/strong>?<\/p>\n

Why Battery Longevity Is More Crucial Than Any Other Aspect in IoT<\/strong><\/h2>\n

The majority of remote IoT devices<\/a><\/strong><\/span> lack a constant power grid, making them completely dependent on batteries. Consider the scenario of thousands of sensors scattered over vast areas\u2014replacing their batteries is not only costly but, in many instances practically unfeasible. For instance, certain sensors installed within infrastructures or offshore settings may remain unreachable for several years. If the battery depletes the entire device becomes unusable.<\/p>\n

This is why enhancing battery longevity<\/strong> is not merely a simple “feature\u201d; it often determines whether an IoT implementation succeeds or fails. Today, gadgets such as the Sepehr Data Logger<\/a><\/strong><\/span>, employed for tracking environmental parameters in industrial and IT environments, are designed with automatic battery charging during power failures; because in these environments, dependability isn’t optional; it’s crucial. Because high-power networks such as 4G\/5G are not ideal for remote IoT applications, the majority of low-power gadgets depend on LPWAN<\/strong> solutions like LoRaWAN<\/strong> <\/a><\/span>and satellite IoT, for worldwide reach. In both cases, the principle is straightforward:<\/p>\n

\u00a0The larger the amount of data transmitted, the quicker your battery depletes. Presented here are five approaches that engineers employ to prolong IoT battery longevity<\/strong> occasionally by several years.<\/p>\n

\"extend<\/p>\n

 <\/p>\n

Transmit Only What Is Necessary (Data Minimization)<\/strong><\/h2>\n

Among all components inside a wireless IoT device, the radio module is the biggest energy consumer.
\nTo put things into perspective:
\nWhen idle or sleep mode: around 0.1 W<\/p>\n

During transmission: up to 7 W, 7,000% increase each time the device transmits data.<\/p>\n

Human-friendly takeaway:<\/strong><\/p>\n

Only send what is absolutely essential.<\/p>\n

Practical recommendations:<\/strong><\/p>\n