2020
DOI: 10.1039/d0ee02016h
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What is needed to deliver carbon-neutral heat using hydrogen and CCS?

Abstract: In comparison with the power sector, large scale decarbonisation of heat has received relatively little attention at the infrastructural scale despite its importance in the global CO2 emissions landscape. In...

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Cited by 71 publications
(52 citation statements)
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“…A recent study on the requirements for carbon neutral heating in the UK from hydrogen estimated a 55 GW production capacity. [ 291 ] Encouragingly, our estimate here of ≈264 TWh, for the colder half of the year, is equivalent to ≈60 GW, and is therefore in close agreement with their estimate. This energy can be converted using the gross calorific value of natural gas (≈40 MJ m −3 ) [ 292 ] to the volume of natural gas required (≈22.5 bcm).…”
Section: Materials Choice For Pec Water Splittingsupporting
confidence: 90%
“…A recent study on the requirements for carbon neutral heating in the UK from hydrogen estimated a 55 GW production capacity. [ 291 ] Encouragingly, our estimate here of ≈264 TWh, for the colder half of the year, is equivalent to ≈60 GW, and is therefore in close agreement with their estimate. This energy can be converted using the gross calorific value of natural gas (≈40 MJ m −3 ) [ 292 ] to the volume of natural gas required (≈22.5 bcm).…”
Section: Materials Choice For Pec Water Splittingsupporting
confidence: 90%
“…The main cost and performance parameters of H 2 generation and G2P technologies are summarized in Table 2, which include electrolysis, natural gas fueled SMR with and without CCS (90% capture), stationary fuel cell, and H 2 fueled CCGT. Similar to other studies 5,7,18 focused on electrolyzer-grid interactions, we approximate electrolyzer lifetime as a fixed parameter (10 years shown in Table 2) rather than as a model variable that depends on electrolyzer operation. This approach does not account for the impact of use-dependent degradation of electrolyzer systems.…”
Section: Case Study Setupmentioning
confidence: 99%
“…With the above motivation, a number of studies have expanded the scope of traditional power sector capacity expansion models (CEM) to endogenize investment decisions in end-use technologies, which include some parts of the H supply chain, notably electrolytic H 2 production. These studies highlight the potential for flexible electricity consumption in other end-uses to partially substitute the need for energy storage in the electricity sector and alter generation mix in the power sector towards increasing VRE deployment [18][19][20][21] . While these studies are inspiring, the interactions between the H 2 supply chain and the power sector, in many of the studies, exclude critical components in the H 2 supply chain.…”
Section: Introductionmentioning
confidence: 99%
“…This reduces the cost of CO 2 capture, thereby allowing an economical capture rate of up to 95 - 98%. This notwithstanding, our analysis assumes a lower bound capture rate of 90%, in line with similar techno-economic assessments ( Antonini et al., 2020 ; Sunny et al., 2020 ).…”
Section: Methodsmentioning
confidence: 60%
“…For these reasons and given the widespread availability of natural gas infrastructure in Europe, we adopt ATR-CCS as the archetypal hydrogen production technology in the near-to-medium term. Figure S1 presents a schematic overview of the ATR processes adopted in the analysis, techno-economic parameters for the reference ATR-CCS plants are taken from Sunny et al., and are summarized in Table S1 ( Sunny et al., 2020 ).…”
Section: Resultsmentioning
confidence: 99%