BECCS is not suitable for hard-to-abate industries.

BECCS can be used for energy generation.

BECCS facilitates post-combustion carbon capture after the combustion.

BECCS avoids CO₂ release to the atmosphere during combustion.

Even capturing very high amounts of carbon dioxide, BECCS does not contribute to negative emissions.

Waste biomass is unsuitable for efficient BECCS processes targeting energy generation.

Cultivation of trees on a large scale is unnecessary for the BECCS process.

By capturing the released carbon dioxide, BECCS contributes to negative emissions.

Energy penalty should be significantly reduced.

Even though tree biomass is suitable, municipal solid waste cannot be employed in large scale BECCS systems.

Infrastructure development for carbon storage can be carried out at a later stage for BECCS systems.

Energy generation and biofuel production from BECCS systems are not beneficial for process economics.

Post-combustion carbon capture is the practical solution to capture carbon dioxide.

High capture efficiency is needed to yield the intended outcomes of BECCS systems.

Since the energy industry is hard-to-abate in carbon generation, BECCS captures the released carbon dioxide.

A solvent absorption and regeneration-based system is not needed to capture carbon dioxide.

The Arkalon Ethanol Plant in Kansas is a conversion-based BECCS system, and captured carbon dioxide is used for biofuel production.

The BECCS pilot plant in Sweden plans to employ biomass and industrial residues for conversion-based biofuel production.

The Illinois Industrial CCS facility captures CO₂ from corn-based ethanol fermentation and utilises it for beverage production.

The Stockholm Exergi BECCS pilot in Sweden is a combustion-based BECCS plant.

Fermentation compresses the generated carbon dioxide by biomass through gasification.

Fermentation is employed, and it converts the biomass to biofuels.

Captured air contains a lower carbon dioxide concentration compared to combustion-based BECCS systems.

Gasification is one of the key processes in conversion-based direct BECCS systems.

Industrial emissions are high in developing countries.

BECCS policy developments are not needed targeting large scale BECCS projects.

Lack of public-private partnerships to develop pilot-scale BECCS in developing countries.

Additional plants are unnecessary, considering the number of pilot-scale BECCS plants in developing countries.

DAC can be used to capture carbon dioxide from air near power plants.

DAC is an advanced carbon capture method.

DAC utilises the air from the ambient atmosphere to capture carbon dioxide.

DAC is not suitable for hard-to-abate industries.