Economic analysis of a Power-to-Gas pilot plant within the Italian energy transition framework

Author(s):  
Corine Nsangwe Businge ◽  
Paolo Grisi ◽  
Alberto Gelmini
2021 ◽  
Vol 173 ◽  
pp. 12-23
Author(s):  
Robert Bedoić ◽  
Hrvoje Dorotić ◽  
Daniel Rolph Schneider ◽  
Lidija Čuček ◽  
Boris Ćosić ◽  
...  

2018 ◽  
Vol 212 ◽  
pp. 386-400 ◽  
Author(s):  
R.C. McKenna ◽  
Q. Bchini ◽  
J.M. Weinand ◽  
J. Michaelis ◽  
S. König ◽  
...  

2022 ◽  
Vol 334 ◽  
pp. 01005
Author(s):  
Simona Di Micco ◽  
Mariagiovanna Minutillo ◽  
Alessandra Perna ◽  
Elio Jannelli

Today, the hydrogen is considered an essential element in speeding up the energy transition and generate important environmental benefits. Not all hydrogen is the same, though. The “green hydrogen”, which is produced using renewable energy and electrolysis to split water, is really and completely sustainable for stationary and mobile applications. This paper is focused on the techno-economic analysis of an on-site hydrogen refueling station (HRS) in which the green hydrogen production is assured by a PV plant that supplies electricity to an alkaline electrolyzer. The hydrogen is stored in low pressure tanks (200 bar) and then is compressed at 900 bar for refueling FCHVs by using the innovative technology of the ionic compressor. From technical point of view, the components of the HRS have been sized for assuring a maximum capacity of 450 kg/day. In particular, the PV plant (installed in the south of Italy) has a size of 8MWp and supplies an alkaline electrolyzer of 2.1 MW. A Li-ion battery system (size 3.5 MWh) is used to store the electricity surplus and the grid-connection of the PV plant allows to export the electricity excess that cannot be stored in the battery system. The economic analysis has been performed by estimating the levelized cost of hydrogen (LCOH) that is an important economic indicator based on the evaluation of investment, operational & maintenance and replacement costs. Results highlighted that the proposed on-site configuration in which the green hydrogen production is assured, is characterized by a LCOH of 10.71 €/kg.


2019 ◽  
Vol 3 (9) ◽  
pp. 2521-2529 ◽  
Author(s):  
Boreum Lee ◽  
Hyunjun Lee ◽  
Juheon Heo ◽  
Changhwan Moon ◽  
Sangbong Moon ◽  
...  

A stochastic techno-economic analysis is conducted to evaluate economic feasibility for power-to-gas technology using a high-pressure PEM water electrolyzer.


2021 ◽  
Vol 64 ◽  
pp. 47-58
Author(s):  
Geun Sohn ◽  
Ju-yeol Ryu ◽  
Hyemin Park ◽  
Sungho Park

2020 ◽  
Vol 6 (4) ◽  
pp. 390-405
Author(s):  
Jonathan Stern

The role of gases in the energy transition is a different, and much more immediate, issue in the EU, compared with other global regions. Net zero targets for 2050 mean that in order to retain the gas market and the extensive network infrastructure which has been developed, zero carbon gases will need to be developed, and natural gas (methane) will need to be decarbonized. Maximum availability of biomethane and hydrogen from power to gas is estimated at 100–150 billion cubic meters by 2050 (or around 25–30% of gas demand in the late 2010s. Therefore, large scale hydrogen production from reforming methane with carbon capture and storage (CCS), or pyrolysis, will be needed to maintain anything close to current demand levels. Costs of biomethane and hydrogen options are several times higher than prices of natural gas in 2019–2020. Significant financial support for decarbonization technologies — from governments and regulators — will therefore be needed in the 2020s, if they are to be available on a large scale in the 2030s and 2040s. If the EU gas community fails to advance convincing decarbonized narratives backed by investments which allow for commercialization of renewable gas and methane decarbonization technologies; and/or governments fail to create the necessary legal/fiscal and regulatory frameworks to support these technologies, then energy markets will progressively move away from gases and towards electrification.


Energies ◽  
2021 ◽  
Vol 14 (20) ◽  
pp. 6594
Author(s):  
Michael Sterner ◽  
Michael Specht

Germany’s energy transition, known as ‘Energiewende’, was always very progressive. However, it came technically to a halt at the question of large-scale, seasonal energy storage for wind and solar, which was not available. At the end of the 2000s, we combined our knowledge of both electrical and process engineering, imitated nature by copying photosynthesis and developed Power-to-Gas by combining water electrolysis with CO2-methanation to convert water and CO2 together with wind and solar power to synthetic natural gas. Storing green energy by coupling the electricity with the gas sector using its vast TWh-scale storage facility was the solution for the biggest energy problem of our time. This was the first concept that created the term ‘sector coupling’ or ‘sectoral integration’. We first implemented demo sites, presented our work in research, industry and ministries, and applied it in many macroeconomic studies. It was an initial idea that inspired others to rethink electricity as well as eFuels as an energy source and energy carrier. We developed the concept further to include Power-to-Liquid, Power-to-Chemicals and other ways to ‘convert’ electricity into molecules and climate-neutral feedstocks, and named it ‘Power-to-X’at the beginning of the 2010s.


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