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Energy Infrastructures for the Low-Carbon Transformation in Europe

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Book cover Energiewende "Made in Germany"

Abstract

Both in the German energiewende and in the European low-carbon energy system transformation, infrastructure is generally considered as a conditio sine qua non: a necessary though not sufficient condition for a low-carbon economy—and one without which energy transformation may fail. At second glance, there may be some doubt as to whether “big infrastructure” is really the appropriate way to approach the low-carbon transformation. The main reason is that in a carbon-intensive energy system, more infrastructure automatically implies more carbon emissions (sometimes called “carbon lock-in”). In this chapter, we analyze the role of physical infrastructure in the European low-carbon transformation, with a special focus on large-scale transmission infrastructure for electricity, natural gas, and CO2. Although these infrastructures can play a certain role, they are not necessarily the critical factors in low-carbon transformation, and often low-cost measures such as improving regulation or tightening access rules are more effective than capital-intensive infrastructure expansion. Section 11.2 suggests that although a majority of authors see infrastructure development as a no-regrets option, there are also arguments against an oversupply of infrastructure. Sections 11.311.5 provide model- and case study-based analyses of different infrastructure sectors. Section 11.3 focuses on electricity transmission and compares the plans for pan-European electricity highways with other, more modest scenarios focusing on domestic upgrades and selected cross-country interconnectors. Section 11.4 is dedicated to natural gas infrastructure: Our results show no evidence of a substantial need for additional pipeline or LNG infrastructure, but rather a need for modest investment, given the diverse and global European supply of natural gas. Our analysis of infrastructure planning for carbon pipelines in Section 11.5 yields an even more striking result: Perhaps not a single cross-border pipeline may be required—except for perhaps a few in the North Sea—simply because the underlying technology, carbon capture, transport, and storage (CCTS), is unlikely to be used at the expected scale. Our conclusion in Section 11.6 is that the way forward is more likely to lie in regional and local cooperation in infrastructure.

To place one’s faith in purely permissive sequences and to rely on the ability of SOC [social overhead capital, i.e., infrastructure] to call forth other economic activities, can, under these circumstances, be just as irrational as the so-called “Cargo Cult” that has been engaged in by some of the New Guinea tribes after the lamented departure of the Allied expeditionary force at the end of World War II: “Those in coastal villages have built wharves out into the sea, ready for the ships to tie up, and those in land villages have constructed airstrips out to the jungle for the planes to land. And they have waited in expectancy for the Second Coming of the Cargoes.” Touching as it is, such a belief in the propitiatory powers of social overhead capital should not be the basis of development policy.

Albert O. Hirschman (1958, 10:94): The Strategy of Economic Development.

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Notes

  1. 1.

    This chapter builds on previous studies and papers based on sectoral infrastructure models for electricity (Leuthold et al. 2012; Egerer et al. 2014; Egerer 2016), natural gas (Egging et al. 2008; Egging 2013; Holz et al. 2013), and CO2 pipelines (Mendelevitch 2014; Oei et al. 2014; Oei and Mendelevitch 2016). We examined the European perspective in the infrastructure subgroup of the EMF 28 Model Comparison “Europe 2050: The Effects of Technology Choices on EU Climate Policy” (see Holz and von Hirschhausen 2013). The chapter also addresses issues raised in earlier publications on European infrastructure, including a presentation to the German “Verein fuer Socialpolitik” (Hirschhausen et al. 2013) and studies for the European Investment Bank, the Foundation “Notre Europe,” and the MIT Center for Energy and Environmental Policy Research (CEEPR) (see von Hirschhausen 2010, 2011, 2012). We thank the numerous referees and conference discussants who provided useful comments on these papers, as well as Claudia Kemfert, Brigitte Knopf, Friedrich Kunz, Casimir Lorenz, Juan Rosellon, and Alexander Weber for in-depth discussions; the usual disclaimer applies.

  2. 2.

    Edenhofer, Ottmar. 2013. “The Economics of Uranium, Fossil Fuels and Climate Change Stabilization – Trade-Offs, Synergies and Solutions. Keynote at the IAEE 2013 European Conference.” Presented at the 13th European IAEE Conference, Düsseldorf, Germany.

  3. 3.

    Hirschman (1958, 10:95) continues by suggesting that “it would be illegitimate and wasteful to expand SOC facilities in anticipation of the kind of extremely rapid economic progress that does hit a city or area sometimes, but whose occurrence or continuation can never be predicted with confidence.”

  4. 4.

    Davis et al. (2010); see also the comment by Ottmar Edenhofer: http://wealthofthecommons.org/essay/atmosphere-global-commons, downloaded August 25, 2014.

  5. 5.

    “Higher cross-border transmission capacity throughout Europe has a negative environmental impact in this scenario: CO2 emissions increase by 3.6%. The reason is that the marginal cost of coal and lignite plants is lower than the marginal cost of gas plants because the CO2 price is not high enough to have a significant impact on the merit order of generation. More transmission capacity makes it possible to utilize coal and lignite more fully at the cost of gas plants.” Brancucci (2013, 41).

  6. 6.

    “For low and intermediate levels of renewables, CO2 emissions increase irrespective of the magnitude of the transmission infrastructure expansion (TIP). The main driver of this result is that TIP increases economic incentives to export (and produce) cheap coal-fired electricity resulting in a decrease of gas-fired production. A second effect driving the emissions increase is the boost in overall economic activities brought about by the efficiency gains from cross-country electricity trade. Even for already ambitious year-2020 RE production targets, we thus find that the TYNDP [ten year network development plan] fails to yield reductions in CO2 emissions at the European level.” Abrell and Rausch (2015, 35).

  7. 7.

    “FOSG encourages the efforts of the European Commission to create an integrated and strong liquid market in all timeframes and across all regions of Europe which will improve Europe’s competitiveness and the secure supply of electricity. FOSG strongly supports an increased coordination of national policies that should ultimately lead to coordinated RES [renewable energy sources] support schemes and a common European approach to system adequacy assessment. These measures are crucial in achieving the European energy transition in a cost-effective way.” (FOSG 2011).

  8. 8.

    Consentec, and Fraunhofer IWES. 2013. “Kostenoptimaler Ausbau Der Erneuerbaren Energien in Deutschland: Ein Vergleich Möglicher Strategien Für Den Ausbau von Wind- Und Solarenergie in Deutschland Bis 2033.” Studie. Berlin, Aachen, Kassel: Agora Energiewende, Consentec, Fraunhofer IWES.

  9. 9.

    See for MedGrid http://www.medgrid-psm.com/en/ (last download April 01, 2015), for Desertec http://www.desertec.org/de (last download April 01, 2015), and for DII http://www.dii-eumena.com/ (last download April 1, 2015). In a study for the “Union of the Mediterranean,” the World Bank had concluded: “Besides the coordination of transmission expansion, there is still the need for substantial investments into generation facilities. The World Bank estimates investment needs of up to €23 billion per year until 2030,” see Union for the Mediterranean (UfM) (2015). Fostering regional dialogue on energy: 3 UfM platforms on Gas, Regional Electricity Markets and Renewable Energy and Energy Efficiency are launched. Available online: http://ufmsecretariat.org/fostering-regional-dialogue-on-energy-launch-of-3-ufm-platforms-on-gas-regional-electricity-markets-and-renewable-energy-and-energy-efficiency/ Last accessed: May 27, 2015.

  10. 10.

    In fact, the project of linking the ENTSO-E European grid and the Russian UPS network has occupied the European industry and policymakers for a long time. Since the opening of Central and Eastern Europe to the West European electricity grid in the early 1990s, several attempts have been made to connect Europe with the Russian grid as well, with a particular focus on the Baltic countries (Lithuania, Latvia, and Estonia), that remain physically integrated into the Russian electricity system to this day; a pilot project in this regard was the “Baltic Ring,” a Transeuropean Project of the 1990s (Schrettl et al. 1998).

  11. 11.

    DII was dissolved on October 13, 2014, and some of the personnel was transferred to different previous members, such as ACWA Power (Saudi Arabia), RWE (Germany), and SGCC (China).

  12. 12.

    One of the bilateral connections proposed in the “Baltic Ring” project in the 1990s has been realized: the back-to-back DC-linking between Poland and Lithuania (2015: 500 MW, to be expanded to 1000 MW later on).

  13. 13.

    See EC. 2010. Commission Regulation (EU) No 838/2010 of 23 September 2010 on Laying down Guidelines Relating to the Inter-Transmission System Operator Compensation Mechanism and a Common Regulatory Approach to Transmission Charging.

  14. 14.

    See von Hirschhausen (2010) for an early account of these issues.

  15. 15.

    ELMOD is a techno-economic model developed at Dresden University of Technology (Chair of Energy Economics), the Berlin University of Technology (Workgroup for Infrastructure Policy), and the German Institute for Economic Research (DIW Berlin) (see Leuthold et al. 2012; Egerer et al. 2014); it is a large-scale spatial model of the European electricity market including both generation and the physical transmission network (DC Load Flow Approach). The model optimizes line investments for specific years.

  16. 16.

    Compared to the high mitigation scenarios, the 40% DEF scenario has one more cable connecting Great Britain to Germany but one less connecting it to Norway. Sweden is linked to continental Europe by one additional cable in the 40% DEF scenario, two in the 80% DEF scenario, and three in the 80% GREEN scenario. Overall higher DC investments in the 80% GREEN scenario also indicate a stronger integration of the non-synchronized transmission systems around the North and Baltic Seas.

  17. 17.

    ELMOD: scenario 80%GREEN, PRIMES: scenario “high RES”.

  18. 18.

    Speech of European Energy Commissioner G. Oettinger at the 10th Gas Infrastructure Europe Annual Conference in Krakow, Poland, May 24, 2012, quoted in the GIE article available at http://www.naturalgaseurope.com/oettinger-europe-gas-market (accessed January 23, 2013).

  19. 19.

    In the EMF-28 model comparison, Abrell et al. (2013) expect natural gas consumption in the default case (-40% GHG emissions) to decrease from about 18 EJ (2010) to below 15 EJ (2050) in the EU-27.

  20. 20.

    Egging (2013) provides a description of the main model setup and features. The model represents the supply chain structure of the sector, and allows a high level of detail, featuring demand seasonality, potential market power of trading agents, as well as endogenous investment in storage and transport capacity, both along the LNG supply chain and regarding pipeline connections. Whereas Egging (2013) presents a stochastic model, here we report results of deterministic versions with a particular focus on Europe and updated data sets. 25 of the EU-28 countries are incorporated individually in the data.

  21. 21.

    This subsection draws on Holz et al. (2014).

  22. 22.

    Gazprom still controls the majority of natural gas production in Russia, and in 2013 it produced around 75% of total Russian natural gas of 600 bcm. Total exports have been fairly constant over the course of the current decade at slightly below 200 bcm/a, with 60% of exports going to non-CIS countries in 2013. Richter and Holz (2015) provide a detailed analysis of disruption scenarios of Russian natural gas supplies to Europe.

  23. 23.

    Russia’s project to expand its pipeline capacities through the Baltic Sea (“Nord Stream 2”) has sparked debates in Europe, particularly in the context of growing geopolitical disputes. See Holz et al. (2014, 26) for a detailed list of the export pipelines from Russia to Europe, and Neumann et al. (2018) for a critical assessment of the investment project.

  24. 24.

    In particular, in Croatia, Hungary, and Romania, consumption is reduced substantially by more than 20% but also in Austria, the transit disruption effect is notable (−4% consumption in UKR Disruption relative to the Base Case).

  25. 25.

    Concretely, imports from Africa +18 bcm; Middle East +19 bcm; South America +15 bcm, and from Rest of Europe +10 bcm; the remaining 53 bcm reflect the reduction in EU consumption.

  26. 26.

    In the Gazprom scenario, the increase of LNG imports to the EU comes mainly from Qatar, African countries like Nigeria, Algeria and Egypt, and Trinidad and Tobago.

  27. 27.

    This section draws on Holz et al. (2015, 2017).

  28. 28.

    See for details Neumann et al. (2018).

  29. 29.

    On the Russian side, a new pipeline from Ukhta to Gryazovets (970 km) and the extension of the Gryazovets-Volkhov connection to the Slavyanskaya compressor station, the entry point to the Nord Stream 2 offshore pipeline, are required. See for details (Sberbank Investment Research 2018).

  30. 30.

    CO2-EOR is not an abatement technology, because a large part of the CO2 pumped into the ground resurfaces later on.

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Holz, F. et al. (2018). Energy Infrastructures for the Low-Carbon Transformation in Europe. In: von Hirschhausen, C., Gerbaulet, C., Kemfert, C., Lorenz, C., Oei, PY. (eds) Energiewende "Made in Germany". Springer, Cham. https://doi.org/10.1007/978-3-319-95126-3_11

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