The solution involves the development of a new catalyst that can perform both hydrogen production and carbon capture simultaneously.

The hybrid catalyst integrates with steam methane reforming (SMR) units, optimizing the chemical reactions to convert methane into hydrogen while capturing CO2 efficiently.

This dual-function catalyst is embedded into the reactor design, reducing the need for extensive retrofitting and additional energy inputs.

The captured CO2 is then compressed and stored or utilized, depending on facility capabilities.

The system is designed to be scalable and retrofittable into existing hydrogen production infrastructure.

This solution provides a cost-effective and seamless integration of carbon capture with hydrogen production, significantly reducing emissions without substantial retrofitting costs.

It is poised to increase efficiency and align with regulatory standards for cleaner hydrogen output.

The development of specialized catalytic materials is technically challenging but feasible given advances in material science.

The integration can leverage existing SMR units, reducing overall retrofit costs.

Regulatory incentives for CO2 capture and utilization could offset initial R&D expenses.

Competitors might focus on alternative technologies such as direct air capture, but this solution targets an integrated approach within existing systems.