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Showing posts with label GHG. Show all posts
Showing posts with label GHG. Show all posts

Wednesday, 19 July 2017

Can the EU Chemical Industry go Carbon Neutral by 2050?

The chemical industry’s ambition is to play a leading role in the transformation of the European economy to a sustainable low-carbon and circular economy by creating innovative climate and energy friendly solutions, both for its own processes and for many other industries through chemical products. A new report 'Low carbon energy and feedstock for the European chemical industry' from SusChem founding partners Dechema and released via the European Chemical Industry Council (Cefic) explores how the chemical industry can become carbon neutral by 2050. 

The Dechema study analyses the technological options available for the chemical industry and outlines the conditions necessary to facilitate the transition of the European chemical industry to carbon neutrality.

As well as giving a first full overview of all available technologies for the main chemical production processes, it describes what is needed to refurbish the industrial base we know today in Europe, in a world of shale gas and low oil prices:
  • Abundant low-carbon electricity in much larger volumes and at competitive prices;
  • Availability of alternative feedstocks (e.g. bio-based raw materials, CO2 or industrial waste gases).
  • An enabling fiscal structure to modernise ageing production facilities and equipment or build new plants;
  • Government or public-private support to scale-up technologies and share investment risk for those technologies that are first of a kind or high risk
  • Innovation and research into new chemical technologies that help overcome these challenges.
  • Enabling business models to enhance cross-sectoral collaboration to find sustainable ways to re-use CO2
Role for SusChem and SPIRE
The report concludes that, in order to achieve the EU’s 2050 objectives, an ambitious research and innovation programme will be essential to improve the potential of required advanced technologies, and public-private-partnership efforts will be critical to enable fast deployment and risk sharing for the investments needed. 

In addition, industrial symbiosis opportunities and sustainable materials recycling options should be further explored in order to improve energy and resource efficiency beyond sectorial boundaries. 

Clearly these areas where SusChem and SPIRE are currently working hard to advance sustainable chemistry and sustainable process industry technologies.

Energy intensive
The chemical industry has already halved its energy intensity and greenhouse gas emissions since 1990, but producing chemicals remains one of the most energy intensive industrial processes. Making the sector carbon neutral while retaining its competitiveness in a full circular economy in Europe is a significant challenge, which cannot be solved by the industry on its own.

In an interview with Politico Energy Marco Mensink, Cefic Director General, said that the fact that the industry is looking at how to cut carbon emissions shows that it’s embracing the need for change, “I think we have always taken the position that we are very energy-intensive and that there are huge challenges to become energy neutral,” he said. “But this is a different stance.” Why? Because the attitude of the sector is changing, because the Paris climate agreement has become a reality, and because time is ticking, he added.

The main findings of the report are that the implementation of the technologies investigated in the study would allow for a very significant reduction of CO2 emissions in 2050 (up to 210 Mt annually under the maximum scenario). And including the production and use of fuels related to the pathways considered in the study, the additional CO2 abatement potential in 2050 exceeds the chemical sector’s current emissions even under the intermediate scenario.

Commenting on the report, Marco Mensink said: “Many promising low-carbon technologies are available at a relatively advanced stage of development. The industry will need to find the way to overcome the investment, raw material and energy challenges for them to be implemented on a large scale in Europe.” 

Kurt Wagemann, Executive Director of DECHEMA added: “The implementation of the technologies investigated in this study would allow for a very significant reduction of CO2 emissions of the chemical industry by 2050 even under the least ambitious scenario.”

However, such a transition to carbon neutrality will entail huge challenges for the European chemical industry including availability of low carbon energy, availability of alternative feedstock, investments in new assets that far exceed the typical level of investments in the recent years, uncompetitive production costs. 

The report
The report Low carbon energy and feedstock for the European chemical industry looks into technology options and pathway scenarios to ensure a low-carbon, yet competitive European chemical industry by 2050. The study focuses on the main chemical building blocks used in upstream large volume production processes (ammonia, methanol, ethylene, propylene, chlorine and the aromatics benzene, toluene and xylene), which represent about two-thirds of all GHG emissions in the chemical sector.

Thursday, 30 June 2016

Gaseous Industrial Effluents and Industrial Symbiosis

The Executive Agency for Small and Medium-sized Enterprises (EASME) has launched an invitation to tender for the extension of the services of the European Sustainable Chemicals Support Service (ESCSS) to additional Model Demonstrator Regions. This phase 2 of the ESCSS will have a special emphasis on facilitating the recovery of Gaseous Industrial Effluents (GIEs) as non-fossil feedstock for sustainable chemicals production. 


This Phase 2 of the ESCSS follows up on Phase 1 launched in February 2016. This extension of the services of the ESCSS will focus on how recovery of GIEs as an alternative to fossil feedstock can be best exploited to produce sustainable chemical products.

The GIEs of interest for the extension are gases originating in combustion and exothermic process as effluent gas from energy intensive industries, such as steel or cement, and could include CO, CO2, NOX, SO2, H2 and others.

Phase 1 aimed to help regions establish and further develop sound strategies towards sustainable chemical production in Europe by taking advantage of domestically available feedstock, such as biomass, waste or CO2. The experiences from this initiative will be shared with other interested European regions to provide practical guidance on how to strengthen cross-sectorial cooperation between chemical industries and other industries and sectors, notably, agriculture, forestry, energy intensive industries, waste management and recycling, and can help many regions in Europe to move towards a circular and low-carbon economy by using renewable resources for chemicals production.

Six "Model Demonstrator Regions" were selected following the Call: Andalusia, Groningen-Drenthe, Kosice, Scotland, South and Eastern Ireland, and Wallonia.

Phase two
This Phase 2 aims to deepen the support services provided by the ESCSS. Special emphasis will be laid on the use of various GIEs as a potential feedstock for the manufacturing of sustainable chemicals in Europe for the following reasons:

  • GIEs are the least developed alternative feedstock. Relatively little information exists about the economic potential of transforming GIEs into chemicals and about the impact on CO2 and other Green House Gases (GHGs) reductions
  • The recovery of GIEs as an alternative feedstock for chemicals production requires new forms of cross-sectorial cooperation - industrial symbiosis - that are very different from the use of biomass or the recovery of waste. 

At policy level, there is relatively little awareness about the potential of GIEs recovery and how to support the new forms of cross-sectorial cooperation that is needed to better exploit it.

The use of GIEs is challenging because of the need for a deeper integration of different industrial activities leading to industrial symbiosis. Industrial symbiosis will facilitate investments, in particular in resource efficiency, circular economy and energy infrastructure.

Recovery of GIEs is also a challenge in terms of ecological and economic viability; there is therefore a need for deeper reflection on this issue, taking into account policy objectives, such as, strengthening Europe's industrial base, ensuring the security of feedstock supply and further implementation of European policies related to climate change.

Potential IPCEI
In addition the Commission is supporting the elaboration of a potential Important Project of Common European interest (IPCEI), which engages major players from several Member States and companies from various industry sectors to speed up the transformation of CO2 into value for a rejuvenated European economy and to gain global technology leadership in clean technologies.

This potential IPCEI will be designed as a transnational integrated project across public and private sectors that can propel Europe to global leadership in the transformation of CO2 into value-added products and services. The Commission has already hosted a workshop as well as informal meetings with Member States and industrial stakeholders involved in the elaboration of this IPCEI project. The results from this discussion are being used by the Commission to develop new ideas on how to further promote the concept of the circular economy in the specific field of GIEs.

The overall objective of ESCSS Phase 2 is to prepare a road map that aims at valorising the concept of recovery of GIEs in Europe as alternative to fossil feedstock to produce sustainable chemicals. This will also contribute to the industrial policy objective of modernising EU manufacturing industries and enabling industrial symbiosis in Europe, and further implementation of the Circular Economy Action Plan.