Leader: ETH-SPL
Participants: ETH-SPL, ETH-RRE, ETH-EPSE, ETH-sus.lab, Neustark, SBB Cargo, VBSA, Casale, ERZ, Jura Cement, Lonza, Arxada, scienceindustries, Sulzer Chemtech, Carbfix, Northern Lights
The objectives of this work package are:
The overall purpose of this WP is to assess the
upscaling potential of carbon capture, utilization
and storage (CCUS) and carbon capture, transport and
storage (CCTS) chains in the near term as well as
that of a CO2 network connecting Swiss
emission sites to national and international storage
sites in the long term. In the following, CO2 supply chains that involve CO2 capture
and transport abroad for geological storage are
referred to as CCTS, while CO2 supply
chains that involve CO2 capture and usage
and storage in concrete via mineralization are
referred to as CCUS.
First, we will focus on
the analysis of few Swiss point-source emitters from
the WtE, cement and biogas sectors (e.g., KVA Linth,
ERZ plant in Hagenholz, Jura cement plant in
Wildegg) that may deploy CCUS and CCTS as an
emission mitigation solution in the near-term, e.g.,
before 2030. This work will consider the overall
CO2 supply chain with CO2
capture and liquefaction at the emitter’s site,
transport, and storage in concrete (domestic
solution) or in a geological reservoir abroad.
Because of the near-time horizon, it is expected
that these supply chains will mostly rely on CO2
transport by truck and train.
In a next step,
the development and optimal integrated design of a
CO2 network interconnected to a
pan-European shared infrastructure will be
investigated as a long-term emissions mitigation
solution. The analysis will be extended to other
sectors, i.e., chemical, pharma, and life sciences
sectors.
Such a network will serve the Swiss
point-source emitters and will include Direct Air
Capture (DAC) units, whose optimal location with
respect to operational CO2 storage hubs
abroad will be investigated. Finally, the optimal
integration of post-combustion CO2
capture with WtE and cement plants will be evaluated
with reference to the Jura Cement plant in Wildegg
(Aargau) and the ERZ WtE plant in Hagenholz
(Zürich), and guidelines will be provided to
generalize the outcomes of this analysis to other
Swiss emitters from these sectors.
Entsorgung Recycling Zürich
“The city of Zürich is targeting a net-zero strategy for 2040. The CO2 emission of the Wasteto-Energy plant in Hagenholz is the biggest single source emission in the city. The goal of ERZ is to develop the optimal waste incineration plant for the future. Today the legal boundary conditions for the waste incineration plants are not clear with respect to the CO2 emissions. This project will help us understand how the CO2 capture and the district heating can be optimally combined. The urgency for this work is driven by the timeline. The legal boundary conditions, the transport of CO2 and also the optimal design for carbon capture for a WtE plant have to be clear, before any implementations can be started. As soon as the project can be launched it takes at least 6-10 years to have the adequate unit in operation.”
Jura Cement
“In agreement with the “Energieperspektiven 2050” and the long-term climate strategy published by the Swiss government in January 2021, we believe CCS will be needed in the Swiss cement industry to deal with non-avoidable emissions. Being subject to the European Emission Trading System and with rising carbon prices, the cement industry faces growing CO2 costs and is therefore under pressure to mitigate CO2 emissions as fast as possible. The long lead time to plan and implement CCS across the full value chain, including the regulatory framework, necessitates immediate action. In sum, from the perspective of a cement producer there is an urgency to develop a CCS infrastructure in Switzerland. The DemoUpCARMA study is a first step in this direction and it is coming at the right time.”
scienceindustries
While defining our position on climate protection and looking into the statistics, we have realized that the avoidance of emissions from the thermal recovery of special waste from production processes and from external sources will be the biggest challenge for our industries in achieving the net-zero CO2-emissions goal by 2050. On the long term, a combination of several technologies and approaches will enable our industries to achieve considerable emission reductions. Among these technologies, the avoidance and regeneration of waste but also post-combustion CO2-capture will play a role. This is why the chemical, pharma and life science industries are highly interested in the DemoUpCARMA project, which will demonstrate CCUS and CCTS value chains and investigate their upscaling. In addition, this project will help us assess the regulatory frameworks relevant for CCUS/CCTS technologies, and understand effective and competitive business models for the future implementation of these technologies by our industries.