Methane Detection Using Nanomaterials and RFID Technologies

High-Sensitivity Gas Sensors

The project aims to develop next-generation gas sensors with ultra-high sensitivity and selectivity for methane and other hazardous gases relevant to the oil and gas sector. It seeks to integrate advanced carbon nanomaterials and metal-oxide nanostructures with RFID technology to enable wireless, compact, and real-time gas monitoring.

Gas detector

A core objective is to achieve detection limits at parts-per-million levels while maintaining sensor stability in harsh petrochemical environments. The project also targets validation of prototype sensors in simulated and relevant operational conditions. Ultimately, it aims to advance sensor technologies toward commercialization and industrial deployment.

Methodology

The project begins with the controlled synthesis and optimization of carbon-based nanomaterials, including nanotubes and graphenes as high surface area templates doped and co-doped with metallic nanoparticles to enhance sensitivity and selectivity. Multiple sensing mechanisms—chemi-resistive, electrochemical, optical, and field-effect–based—are designed and evaluated. These sensors are then integrated into flexible RFID platforms to enable wireless data transmission and real-time monitoring. Extensive laboratory calibration and performance testing are conducted under simulated harsh environments representative of petrochemical facilities. Sensor prototypes are iteratively refined based on performance feedback. The project progresses from TRL 2 toward TRL 4–5 through systematic validation and optimization.

Outcomes

Key outcomes include validated prototype gas sensors capable of ultra-low methane detection and peer-reviewed scientific publications.

Expected Impact

Environmental Impact – Methane Emissions Reduction

Environmental Impact

Early detection of methane, one of the most potent greenhouse gases, reducing fugitive emissions and supporting Qatar’s climate commitments.

Safety & Operational Impact – Industrial Monitoring

Safety & Operational Impact

Enhances monitoring capabilities in harsh petrochemical environments, contributing to improved workplace and infrastructure safety.

Technological Innovation – Advanced Sensor Development

Technological Innovation

Positions Qatar as a leader in single-atom engineered nanomaterials for industrial applications, advancing sensor technology beyond current global standards.

Economic Impact – Cost-Effective Industrial Deployment

Economic Impact

Enables cost-effective methane monitoring, lowering operational risks and potentially opening new markets for Qatari-developed environmental technologies.

Project ID

2025-2027  |  QASIP01-0907-230012
High Sensitivity & Selectivity Nanomaterials-based Gas Sensors

Collaborators

ZENON (Spain)