Sukhvinder Badwal
Research Subjects
Sukhvinder Badwal has a total of 116 co-authors. Here are the top co-authors by number of shared publications:
S. Giddey
CSIRO Energy
19 shared publicationsF.T. Ciacchi
13 shared publicationsF. T. Ciacchi
CSIRO Energy Technology, Private Bag 33, Clayton South 3169, Victoria, Australia
12 shared publicationsA. Kulkarni
CSIRO Energy Technol., Clayton, Victoria 3169, Australia
11 shared publications- Christopher Munnings
CSIRO Energy Technology
10 shared publications J. Drennan
Centre for Microscopy and Microanalysis, The University of Queensland, Brisbane 4072, QLD, Australia
10 shared publications
Latest Publications
- 2 March 2018
- Published by Wiley in Wires Energy and Environment
- Vol. 7 (3)
Emerging technologies, markets and commercialization of solid‐electrolytic hydrogen production
Around 60 million tons of hydrogen are generated globally each year, 96% of which is produced from fossil fuels. Very little hydrogen is used as energy media; instead, it is most commonly used in nonenergy‐related applications, such as the production of ammonia, fertilizer, methanol and other chemicals, the petrochemical industry, and the hydrogenation of products. However, there is a clear global shift in the use of hydrogen, which is now rapidly developing as a renewable fuel for both stationary and transport applications. Hydrogen can be transported in compressed form at high pressures, in liquid form at –253°C, or more conveniently converted to liquid fuels for easy transportation from locations high in renewable‐energy intensity to areas scarce in renewable resources. In the last 5 years there has been a significant advancement in the scale of solid‐electrolyte demonstrations with a number of megawatt (MW) class products under operation for onsite hydrogen generation, power to gas networks, and storage at multiple sites. This manuscript, building on our previous WIRES publication, discusses the commercialization status of renewable hydrogen‐generation technologies, along with advances in research and development linked to electrolytic hydrogen generation, use, and transportation in the form of liquid fuels such as ammonia, methanol, or dimethyl ether.This article is categorized under: Fuel Cells and Hydrogen > Science and Materials Fuel Cells and Hydrogen > Systems and Infrastructure
- 2 March 2018
- Published by Wiley in Wires Energy and Environment
- Vol. 7 (3)
Emerging technologies, markets and commercialization of solid‐electrolytic hydrogen production
Around 60 million tons of hydrogen are generated globally each year, 96% of which is produced from fossil fuels. Very little hydrogen is used as energy media; instead, it is most commonly used in nonenergy‐related applications, such as the production of ammonia, fertilizer, methanol and other chemicals, the petrochemical industry, and the hydrogenation of products. However, there is a clear global shift in the use of hydrogen, which is now rapidly developing as a renewable fuel for both stationary and transport applications. Hydrogen can be transported in compressed form at high pressures, in liquid form at –253°C, or more conveniently converted to liquid fuels for easy transportation from locations high in renewable‐energy intensity to areas scarce in renewable resources. In the last 5 years there has been a significant advancement in the scale of solid‐electrolyte demonstrations with a number of megawatt (MW) class products under operation for onsite hydrogen generation, power to gas networks, and storage at multiple sites. This manuscript, building on our previous WIRES publication, discusses the commercialization status of renewable hydrogen‐generation technologies, along with advances in research and development linked to electrolytic hydrogen generation, use, and transportation in the form of liquid fuels such as ammonia, methanol, or dimethyl ether.This article is categorized under: Fuel Cells and Hydrogen > Science and Materials Fuel Cells and Hydrogen > Systems and Infrastructure
- 1 January 2017
- Published by Elsevier
- p. 217-237
Gasification, DICE, and direct carbon fuel cells for power, fuels, and chemicals production from low rank coals
- 1 January 2017
- Published by Elsevier
- p. 217-237
Gasification, DICE, and direct carbon fuel cells for power, fuels, and chemicals production from low rank coals
- 1 September 2016
- Published by Elsevier in Electrochimica Acta
- Vol. 212, 744-757
Electro-catalytic conversion of ethanol in solid electrolyte cells for distributed hydrogen generation
- 1 September 2016
- Published by Elsevier in Electrochimica Acta
- Vol. 212, 744-757
Electro-catalytic conversion of ethanol in solid electrolyte cells for distributed hydrogen generation
- 12 January 2016
- Published by Springer Nature in Journal of Materials Science
- Vol. 51 (8) , 3928-3940
In situ high-temperature powder diffraction studies of solid oxide electrolyte direct carbon fuel cell materials in the presence of brown coal
- 12 January 2016
- Published by Springer Nature in Journal of Materials Science
- Vol. 51 (8) , 3928-3940
In situ high-temperature powder diffraction studies of solid oxide electrolyte direct carbon fuel cell materials in the presence of brown coal
- 1 October 2015
- Published by Elsevier in Electrochimica Acta
- Vol. 178, 721-731
Direct Carbon Fuel Cell Operation on Brown Coal with a Ni-GDC-YSZ Anode
- 1 October 2015
- Published by Elsevier in Electrochimica Acta
- Vol. 178, 721-731
Direct Carbon Fuel Cell Operation on Brown Coal with a Ni-GDC-YSZ Anode
- 16 July 2015
- Published by Wiley in ChemInform
- Vol. 46 (31)
ChemInform Abstract: Review of Progress in High Temperature Solid Oxide Fuel Cells
- 16 July 2015
- Published by Wiley in ChemInform
- Vol. 46 (31)
ChemInform Abstract: Review of Progress in High Temperature Solid Oxide Fuel Cells
- 1 June 2015
- Published by Elsevier in Journal of Power Sources
- Vol. 284, 122-129
Composite anodes for improved performance of a direct carbon fuel cell
- 1 June 2015
- Published by Elsevier in Journal of Power Sources
- Vol. 284, 122-129
Composite anodes for improved performance of a direct carbon fuel cell
- Top Cited Papers
- 1 May 2015
- Published by Elsevier in Applied Energy
- Vol. 145, 80-103
Direct ethanol fuel cells for transport and stationary applications – A comprehensive review
- 1 May 2015
- Published by Elsevier in Applied Energy
- Vol. 145, 80-103
Top Cited PapersDirect ethanol fuel cells for transport and stationary applications – A comprehensive review