Blue hydrogen: Current status and future technologies

[Display omitted] •Significant transition is expected in world energy system over the next 30 years.•Inclusion of blue hydrogen is inevitable for the transition toward hydrogen economy.•Oxygen-based processes are most efficient for greenfield blue hydrogen applications.•Carbon intensity and thermal...

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Vydané v:Energy conversion and management Ročník 283; s. 116840
Hlavní autori: AlHumaidan, Faisal S., Absi Halabi, Mamun, Rana, Mohan S., Vinoba, Mari
Médium: Journal Article
Jazyk:English
Vydavateľské údaje: Elsevier Ltd 01.05.2023
Predmet:
administrative management
biofuels
carbon
Carbon capture
carbon dioxide
commercialization
electrolysis
energy conversion
Fossil fuel
green infrastructure
hydrogen
Hydrogen economy
Hydrogen production
Hydrogen storage
industry
oxidation
supply chain
zero emissions
WGS
ZEP
GHG
GPU
TRM
TRL
CDR
GHR
KAPSRAC
Fossil fuel
eSMR
Carbon capture
LOHC
PSA
Hydrogen storage
SDS
TSA
AMP
IEA
MEA
CMR
CPOx
POM
LCH
SBHP
NGL
LCOH
Pox
SMR
STEPS
MMMs
Hydrogen economy
HGMS
CO2
iLs
CAGR
HHV
MDEA
RWGS
HTCR
IGCC
SR
CCUS
DEA
GWP
CCC
ASU
CCE
GHSVs
MOF
CI
DMR
AGR
CCS
ZIF
NZE
TMR
FCEVs
NGCC
SGP
Hydrogen production
ATR
ISSN:0196-8904, 1879-2227
On-line prístup:Získať plný text
Tagy: Pridať tag
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Abstract [Display omitted] •Significant transition is expected in world energy system over the next 30 years.•Inclusion of blue hydrogen is inevitable for the transition toward hydrogen economy.•Oxygen-based processes are most efficient for greenfield blue hydrogen applications.•Carbon intensity and thermal efficiency are crucial factors in blue H2 technologies.•Mature carbon capture technologies can remove 95% of CO2 in blue H2 production. Hydrogen is expected to play a key role in the world’s energy-mix in the near future within the context of a new energy transition that has been ongoing over the past decade. This energy transition is aiming for hydrogen to meet 10–18% of total world energy demand by 2050. However, such a transition requires addressing numerous technological and economic challenges in the complete value chain: production, storage, transport, distribution, and application. This energy transition is backed by policies and roadmaps by many countries of high energy consumption, as well as many companies that cover the complete value chain. The transition targets green hydrogen as a priority, which may happen if electrolysis technologies significantly advance. However, blue hydrogen, produced from fossil fuels with CO2 capture, is currently viewed as the bridge between the high-emission grey hydrogen and the limited-scale zero-emission green hydrogen. This review highlights the features of different commercially deployed and new emerging hydrogen production processes from fossil fuels and biofuels, along with the recent advancements in hydrogen storage and transport. The review also reports the status of latest key developments in carbon capture technologies, which are critical for blue hydrogen production. The paper also critically reviews the costs and the carbon footprints of emerging technologies, identifies the requirements to attain large-scale production for commercialization, and provides background information for the fossil fuels industry to be an active player in the current energy transition. The techno-economical assessment of many recent studies has indicated that the oxygen-based system, such as auto-thermal reforming and partial oxidation, is the most efficient for producing greenfield blue hydrogen.
AbstractList Hydrogen is expected to play a key role in the world’s energy-mix in the near future within the context of a new energy transition that has been ongoing over the past decade. This energy transition is aiming for hydrogen to meet 10–18% of total world energy demand by 2050. However, such a transition requires addressing numerous technological and economic challenges in the complete value chain: production, storage, transport, distribution, and application. This energy transition is backed by policies and roadmaps by many countries of high energy consumption, as well as many companies that cover the complete value chain. The transition targets green hydrogen as a priority, which may happen if electrolysis technologies significantly advance. However, blue hydrogen, produced from fossil fuels with CO₂ capture, is currently viewed as the bridge between the high-emission grey hydrogen and the limited-scale zero-emission green hydrogen. This review highlights the features of different commercially deployed and new emerging hydrogen production processes from fossil fuels and biofuels, along with the recent advancements in hydrogen storage and transport. The review also reports the status of latest key developments in carbon capture technologies, which are critical for blue hydrogen production. The paper also critically reviews the costs and the carbon footprints of emerging technologies, identifies the requirements to attain large-scale production for commercialization, and provides background information for the fossil fuels industry to be an active player in the current energy transition. The techno-economical assessment of many recent studies has indicated that the oxygen-based system, such as auto-thermal reforming and partial oxidation, is the most efficient for producing greenfield blue hydrogen.
[Display omitted] •Significant transition is expected in world energy system over the next 30 years.•Inclusion of blue hydrogen is inevitable for the transition toward hydrogen economy.•Oxygen-based processes are most efficient for greenfield blue hydrogen applications.•Carbon intensity and thermal efficiency are crucial factors in blue H2 technologies.•Mature carbon capture technologies can remove 95% of CO2 in blue H2 production. Hydrogen is expected to play a key role in the world’s energy-mix in the near future within the context of a new energy transition that has been ongoing over the past decade. This energy transition is aiming for hydrogen to meet 10–18% of total world energy demand by 2050. However, such a transition requires addressing numerous technological and economic challenges in the complete value chain: production, storage, transport, distribution, and application. This energy transition is backed by policies and roadmaps by many countries of high energy consumption, as well as many companies that cover the complete value chain. The transition targets green hydrogen as a priority, which may happen if electrolysis technologies significantly advance. However, blue hydrogen, produced from fossil fuels with CO2 capture, is currently viewed as the bridge between the high-emission grey hydrogen and the limited-scale zero-emission green hydrogen. This review highlights the features of different commercially deployed and new emerging hydrogen production processes from fossil fuels and biofuels, along with the recent advancements in hydrogen storage and transport. The review also reports the status of latest key developments in carbon capture technologies, which are critical for blue hydrogen production. The paper also critically reviews the costs and the carbon footprints of emerging technologies, identifies the requirements to attain large-scale production for commercialization, and provides background information for the fossil fuels industry to be an active player in the current energy transition. The techno-economical assessment of many recent studies has indicated that the oxygen-based system, such as auto-thermal reforming and partial oxidation, is the most efficient for producing greenfield blue hydrogen.
ArticleNumber 116840
Author AlHumaidan, Faisal S.
Vinoba, Mari
Absi Halabi, Mamun
Rana, Mohan S.
Author_xml – sequence: 1
  givenname: Faisal S.
  orcidid: 0000-0001-9924-087X
  surname: AlHumaidan
  fullname: AlHumaidan, Faisal S.
  email: fhumaidan@kisr.edu.kw
  organization: Petroleum Research Center, Kuwait Institute for Scientific Research, P.O. Box: 24885, Safat 13109, Kuwait
– sequence: 2
  givenname: Mamun
  surname: Absi Halabi
  fullname: Absi Halabi, Mamun
  organization: Innovation and Energy Specialist, Dubai, United Arab Emirates
– sequence: 3
  givenname: Mohan S.
  surname: Rana
  fullname: Rana, Mohan S.
  organization: Petroleum Research Center, Kuwait Institute for Scientific Research, P.O. Box: 24885, Safat 13109, Kuwait
– sequence: 4
  givenname: Mari
  surname: Vinoba
  fullname: Vinoba, Mari
  organization: Petroleum Research Center, Kuwait Institute for Scientific Research, P.O. Box: 24885, Safat 13109, Kuwait
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Keywords WGS
ZEP
GHG
GPU
TRM
TRL
CDR
GHR
KAPSRAC
Fossil fuel
eSMR
Carbon capture
LOHC
PSA
Hydrogen storage
SDS
TSA
AMP
IEA
MEA
CMR
CPOx
POM
LCH
SBHP
NGL
LCOH
Pox
SMR
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Hydrogen economy
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CO2
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HHV
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IGCC
SR
CCUS
DEA
GWP
CCC
ASU
CCE
GHSVs
MOF
CI
DMR
AGR
CCS
ZIF
NZE
TMR
FCEVs
NGCC
SGP
Hydrogen production
ATR
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Snippet [Display omitted] •Significant transition is expected in world energy system over the next 30 years.•Inclusion of blue hydrogen is inevitable for the...
Hydrogen is expected to play a key role in the world’s energy-mix in the near future within the context of a new energy transition that has been ongoing over...
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SubjectTerms administrative management
biofuels
carbon
Carbon capture
carbon dioxide
commercialization
electrolysis
energy conversion
Fossil fuel
green infrastructure
hydrogen
Hydrogen economy
Hydrogen production
Hydrogen storage
industry
oxidation
supply chain
zero emissions
Title Blue hydrogen: Current status and future technologies
URI https://dx.doi.org/10.1016/j.enconman.2023.116840
https://www.proquest.com/docview/2834221632
Volume 283
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