Nuclear Batteries Target IoT Sensor Power Needs

MESQUITE, Nev., Sept. 30, 2026 /CourierPR/ -- The white paper explores how long-duration, low-output nuclear power sources could potentially address one of the persistent challenges in the Internet of Things (IoT): powering sensors deployed in locations where conventional battery replacement is difficult, costly, dangerous, or impractical.

The LoRaWAN ecosystem has reached a significant milestone, with the number of LoRaWAN-connected devices worldwide now exceeding 150 million, growing at approximately 25% compound annual growth rate (CAGR). This growth is attributed to a variety of applications, including utility infrastructure, industrial sensors, agricultural applications, tracked assets, and safety devices. Notable deployments include ZENNER Connect with more than 11.6 million sensors, Netmore with 11.2 million active devices, The Things Industries with approximately 6 million connected devices, and Veolia with more than 4 million active smart meters in France.

The white paper, published by Nuclear Diamond Batteries, examines 19 potential application sectors, including utility infrastructure, pipeline and oil-and-gas monitoring, structural health monitoring, unattended defense sensors, environmental science, agriculture, mining, remote industrial monitoring, satellite-connected IoT, and high-value asset monitoring. The analysis highlights the importance of specific energy requirements for certain deployments, where the sensor itself may become the dominant energy consumer.

The paper also delves into the energy accumulation architecture, examining the use of betavoltaic generation combined with an intermediate energy-storage component to support intermittent higher-power sensing and LoRaWAN transmission events. It includes 12 figures and infographics illustrating device-class suitability, energy architecture, application prioritization, development stages, and potential market positioning.

Nuclear Diamond Batteries, Inc. believes the significance of the opportunity is not simply the projected growth of IoT, but the increasing number of connected devices being placed into locations where ongoing maintenance can become a significant lifecycle expense. The company's nuclear-battery technology portfolio includes intellectual property covering nuclear-voltaic power generation, advanced electrode structures, and carbon nanomaterials, including U.S. Patent No. 12,394,534 B2, which covers a diamond-based nuclear-voltaic architecture designed to convert energy from radioisotope decay into electrical power.

The development roadmap proposed by Nuclear Diamond Batteries, Inc. progresses from laboratory energy-budget validation and a bench-scale demonstrator to an environmental beacon, field pilots, ruggedized modules, satellite-capable configurations, and application-specific products. The company emphasizes that the white paper describes a proposed engineering and commercialization pathway rather than a commercially available product, and that it has not yet built, certified, or commercialized a nuclear-powered LoRaWAN sensor.

The LoRa Alliance reported in September 2026 that the LoRaWAN market was approximately $3.7 billion in 2024 and could reach approximately $75.8 billion by 2034, representing a 41.1% compound annual growth rate (CAGR). Another third-party estimate published by Valuates Reports valued the global betavoltaic battery market at approximately $3.4 million in 2023 and projected approximately $11.4 million by 2030, representing an estimated 18.7% CAGR. These market estimates are independent third-party forecasts and should not be interpreted as projections of NDBI revenue, market share, or future financial performance.

Building Toward the "Perpetual Sensor," Nuclear Diamond Batteries, Inc. is developing a wireless sensing platform designed around continuous micropower generation, energy accumulation, ultra-low-power electronics, and intermittent communications. The company's intellectual property platform includes patents covering nuclear-voltaic power generation, advanced electrode structures, and carbon nanomaterials, including U.S. Patent No. 12,394,534 B2, which covers a diamond-based nuclear-voltaic architecture designed to convert energy from radioisotope decay into electrical power.

The company's next objective is measurement, with the goal of demonstrating a complete energy balance, including how much power is continuously generated, how efficiently it can be stored, how much energy the sensor and radio consume, and how frequently the system can reliably transmit. The company remains a development-stage company and has not commenced commercial production of nuclear diamond batteries. Development, possession, processing, manufacturing, and distribution of products involving radioactive materials may be subject to licensing, regulatory approvals, and other requirements of the U.S. Nuclear Regulatory Commission, applicable Agreement States, and other governmental authorities.

Nuclear Diamond Batteries, Inc. is developing nuclear diamond battery and advanced-energy technologies designed to convert energy from radioisotope decay into long-duration electrical power. The company is pursuing potential applications across defense, aerospace, medical, industrial, remote sensing, and Internet-of-Things markets where long operating life and reduced maintenance may provide meaningful advantages. The company's common stock is quoted on OTC Markets.