Key Research Objectives

Clearly defined research objectives guiding the development of scalable, efficient, and responsible clean-air technologies.

Efficiency & Performance Optimization

A primary research objective is to improve the efficiency of carbon dioxide capture from ambient air under real-world conditions. This includes studying airflow behavior, material interaction, and environmental variability to maximize system performance in diverse urban settings.

Energy Optimization & Continuous Operation

Another key objective is to reduce overall energy consumption while maintaining continuous and stable system operation. Research efforts focus on optimizing system design so that large volumes of air can be processed efficiently, supporting long-term and economically viable deployment.

Material Durability & System Longevity

Improving the durability and lifespan of capture materials and system components is a central research objective. This includes evaluating material stability, regeneration behavior, and long-term performance to ensure reliable operation with minimal maintenance requirements.

Scalability & Urban Adaptability

Research objectives also emphasize scalability and adaptability of system architecture. The goal is to develop modular solutions that can be deployed at different scales, from localized installations to broader urban applications, while maintaining safety, performance, and environmental responsibility.

Safety, Responsibility & Validation

Ensuring safe operation and environmental responsibility remains integral to all research objectives. A strong emphasis is placed on transparent, data-driven validation methods that support iterative improvement, performance assessment, and informed decision-making for future pilot deployments.

Long-Term Research Vision

Together, these research objectives form a long-term vision focused on building scientifically sound, scalable, and sustainable solutions capable of addressing urban air pollution challenges while delivering measurable environmental impact.