CARMA

Cross Mission Carbon Management

Project area

Resource procurement (Input)
Fuel production
Refining and upgrading
Storage
Transport
Distribution
Utilisation
Post-treatment and recycling
Safety and standardisation
Systems integration / sector coupling
Community work and stakeholder involvement
Structural frameworks, regulation, and markets

All projects in the MissionGreenFuels project portfolio contribute to the green transition across the green fuels value chain and cross-cutting themes. The highlighted icons indicate the area this project contributes to. Click on the icons to lean more.

Project description

In energy and transport, carbon sources (such as biomass) are considered important to produce green fuels for shipping and aviation, to some extent heavy duty vehicles, as well as for industries and peak load power plants. Moreover, carbon sources such as biomass are important elements of CCUS strategies both to secure the carbon for CCU solutions as well as to provide biogenic carbon for underground CCS and/or biochar CCS solutions. To find the best and most affordable solution, one will have to take a holistic approach such as expressed in the concept of a smart energy system. One example of state-of-the-art is the biomass strategy illustrated in Figure 1.

Figure 1: Example of state-of-the-art of biomass strategy within energy, industry and transport
(Source: The role of sustainable bioenergy in a fully decarbonised society, Renewable Energy (196) 2022)

Project description

In agriculture, biomass is important for many inherent purposes including sustaining soil carbon content. However, there are numerous ways of increasing biomass production within agricultural systems while meeting other sustainability criteria. Most crops do not utilize the whole growing season for carbon capture and optimization involves the production of cover crops for harvest and use and a shift into a higher share of perennial crops with a longer growing season.

Forests produce a suite of products for energy and materials and potentially also feedstock for advanced green fuels. There are opportunities to increase forest growth and forest energy and materials may substantially contribute to the green transition of society. However, wood use in Denmark is currently characterized by large import fractions and low circularity leaving ample room for additional gains in terms of climate change mitigation from optimized use of the wood resource. A balance between carbon storage in ecosystems, carbon storage in wood products and substitution of energy intense and fossil products is paramount for the contribution of the forest sector to climate change mitigation. An example of a holistic cross-sectorial carbon balance for all carbon demanding sectors is illustrated in Figure 2.

Figure 2: Example of state-of-the-art of a holistic cross-sectorial carbon balance(Source: Scenarier for anvendelse af biomasseressourcer i fremtidens produktionssystemer for fødevarer, energi og materialer inden for rammerne af gældende politik for landbrug, miljø, klima, natur og energi. Det Nationale Bioøkonomipanel, 2022)

Project facts

Total budget of the project including co-financing
0 million DKK

Project start

November 2023

Project status

Active

Funding pool

Pool 2

Inflection point

Development of an efficient market

Value chain and theme

Systems integration / sector couplingStructural frameworks, regulation, and markets

Project objectives

To further develop existing theoretical understanding on the concept of sustainable biomass with GHG neutrality when applied with a holistic integration across sectors

Project partners

P5
Maersk_Logo_RGB
ZeroCarbon
nature-energy-logo-color-1
VJA
P32
arla_logo_rgb_72dpi
biorefine_logo
stiesdal_logo
crossbridge-logo-color
Novo_Nordisk_co2_researchCenter

Impact & outcome

This project will contribute with the following results outlining the potential future development of sustainable use of biomass in the fully decarbonized society:

  • Potential quantities of additional agricultural and forest biomass that can be produced sustainably within Denmark under different scenario conditions
  • Optimized use of forest biomass, integrating temporal aspects of the allocation of carbon to the forest ecosystem, materials, energy products and permanent underground storage
  • Which other policies and ecosystem services can be supported by a transition of Danish agriculture and forestry facilitated by an integration with the energy, material, and carbon markets
  • Technology scenarios for the best utilisation of our biomass resources into various materials, energy products and carbon storage via cascade utilisation
  • Perspectives for achieving a greening of Danish agriculture from conversion into a higher share of crop cover across the landscape and over time, with a utilisation of the new crops for biorefining

Click to enlarge project poster to learn more about the project.

Project contact

Henrik Lund

Henrik Lund

Aalborg University
Professor

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The green fuel value chain and cross-cutting themes

Resource procurement (Input)
Identification, sourcing, and supply of biomass, CO₂, green electricity, or waste materials (feedstock) used as input for fuel production.
Fuel production
Processes that transform the basic energy resources into primary energy carriers (e.g. hydrogen).
Refining and upgrading
Processes that purify, enhance or synthesize fuels/hydrogen to meet specific quality and performance standards.
Storage
Technologies and systems for containing larger quantities of fuels (methanol, ammonia, hydrogen, SAF) over time.
Transport
Logistics and infrastructure for moving fuels from production to consumption sites, covering pipelines, trucks, ships, etc.
Distribution
End-point delivery for supplying fuels to users (e.g. fuelling stations, industrial supply lines, on-site storage).
Utilisation
Application of the fuels in end-use sectors such as heavy transport, aviation, shipping, and power generation in industry. The end-user is responsible for sourcing of energy/fuels, as well as new technologies and assets capable of utilising these, often with the purpose of reducing GHG emissions and environmental impact. Furthermore, end-users are also responsible for meeting new regulatory requirements and handling all technical and commercial risks related to the application of new and more expensive energy, following the energy transition. Utilisation includes extensive field testing of new technologies and fuels to overcome technical challenges and test production and supply chain infrastructure.
Post-treatment and recycling
Handling of byproducts, residues or emissions, and processes for material recovery or environmental management.
Safety and standardisation
Development and application of safety protocols, technical standards and certifications to ensure secure handling and interoperability.
Systems integration / sector coupling
Linking fuel production and use with other energy systems and sectors (e.g. power-to-x, grid balancing, industrial symbiosis) to optimise efficiency and resilience. Primarily an analytical focus.
Community work and stakeholder involvement
Engagement of local actors, citizens and industry stakeholders to support implementation, acceptability and social sustainability.
Structural frameworks, regulation, and markets
Analysis, development and test of policy, regulatory structures, incentive mechanisms, and market models to enable deployment and scaling.