Metadata
Title
Carbon Capture
Category
general
UUID
23072d8cb4c7408591005f574b0a3f83
Source URL
https://www.hbku.edu.qa/en/qeeri/energy-center/co2-capture-utilization
Parent URL
https://www.hbku.edu.qa/en/qeeri/energy-center
Crawl Time
2026-03-24T05:58:47+00:00
Rendered Raw Markdown

Carbon Capture

Source: https://www.hbku.edu.qa/en/qeeri/energy-center/co2-capture-utilization Parent: https://www.hbku.edu.qa/en/qeeri/energy-center

Overview

This initiative leverages QEERI’s carbon capture technologies to build an ecosystem that contributes to emissions reduction.

Projects

This project develops Direct Air Capture (DAC) technology by integrating innovative CO₂ filters into Air Handling Units (AHUs) to capture CO₂ efficiently at reduced capital and operating costs, leveraging existing AHU infrastructure and available regeneration energy. A primary objective is to use the captured CO₂ as feedstock for Sustainable Aviation Fuel (SAF), aligning with the CORSIA Sustainability Criteria (Annex 16, Volume IV), which limits SAF production via the Power-to-Liquid (PtL) pathway to CO₂ from atmospheric sources, supporting a closed-loop carbon model. This feedstock will be delivered to the Sustainable Low-Carbon Aviation project under the Clean Fuel Initiative.

The system uses advanced filters (MOFs, hybrid zeolites, silica-based sorbents) to capture CO₂ from ventilation air. Filters are regenerated via TSA/PSA, with a dual-filter setup and automated sensors ensuring continuous operation, enabling efficient, low-cost carbon capture from AHUs

Current research also investigates transporting CO₂ from buildings to the SAF unit, considering cost and safety. One approach converts captured CO₂ into formic acid as a hydrogen carrier for downstream applications, including SAF synthesis.

Feasibility studies include developing an advanced aqueous ammonia-based DAC system and utilizing DAC-derived CO₂ for building refrigeration, exploring alternative capture chemistries, and expanding applications.