Continuous monitoring provides a clear advantage: it constantly captures emissions data 24 hours a day. But this volume of data comes at a significant cost of bandwidth and power.

How can operators maintain reliable monitoring without straining their networks or batteries? Qube solves this by combining efficient power use with intelligent sampling techniques.

Here we review the advances in sampling, data compression, and payload frequency that make this possible.

Strategic sensor placement is critical for reliable, real-time methane detection. Detection depends not just on technology, but on understanding wind behavior, emission sources, and site constraints. 

Qube’s deployment methodology uses historical wind data, source mapping, and MILP-based optimization to design sensor arrays that maximize detection coverage and minimize false negatives. 

The Qube deployment tool turns this methodology into a practical workflow—helping operators visualize trade-offs, configure sensor layouts, and balance detection accuracy with budget. 

Qube’s devices have been tested in some of the world’s toughest climates: extreme cold, heat, humidity, and dust. Qube has used this experience to refine our hardware to deliver reliable, durable continuous emissions monitoring anywhere in the world.

At Qube Technologies, listening to our customers isn’t just part of what we do—it’s central to our mission. In the critical field of emissions monitoring, understanding real-world challenges and anticipating customers’ emerging needs are key to driving innovation.

Qube Technologies has built the Controlled Release Test Facility (CRTF), roughly 60 km (~ 37 mi) west of Calgary, Alberta, which functions as a specialized field environment to conduct continuous monitoring (CM) emissions tests under controlled real-world conditions.