Progress of international program on hydrogen production with the copper-chlorine cycle

G. F. Naterer, S. Suppiah, L. Stolberg, M. Lewis, S. Ahmed, Z. Wang, M. A. Rosen, I. Dincer, K. Gabriel, E. Secnik, E. B. Easton, S. N. Lvov, V. Papangelakis, A. Odukoya

Research output: Contribution to journalArticle

18 Citations (Scopus)

Abstract

This paper highlights and discusses the recent advances in thermochemical hydrogen production with the copper-chlorine (Cu-Cl) cycle. Extended operation of HCl/CuCl electrolysis is achieved, and its performance assessment is conducted. Advances in the development of improved electrodes are presented for various electrode materials. Experimental studies for a 300 cm2 electrolytic cell show a stable current density and production at 98% of the theoretical hydrogen production rate. Long term testing of the electrolyzer for over 1600 h also shows a stable cell voltage. Different systems to address integration challenges are also examined for the integration of electrolysis/hydrolysis and thermolysis/electrolysis processes. New results from experiments for CuCl-HCl-H2O and CuCl2-HCl-H2O ternary systems are presented along with solubility data for CuCl in HCl-H 2O mixtures between 298 and 363 K. A parametric study of multi-generation energy systems incorporating the Cu-Cl cycle is presented with an overall energy efficiency as high as 57% and exergy efficiency of hydrogen production up to 90%.

Original languageEnglish (US)
Pages (from-to)2431-2445
Number of pages15
JournalInternational Journal of Hydrogen Energy
Volume39
Issue number6
DOIs
StatePublished - Feb 14 2014

Fingerprint

hydrogen production
electrolysis
Hydrogen production
Electrolysis
Chlorine
chlorine
Copper
copper
cycles
Electrolytic cells
exergy
electrolytic cells
Thermolysis
Electrodes
Exergy
Ternary systems
electrode materials
ternary systems
Energy efficiency
hydrolysis

All Science Journal Classification (ASJC) codes

  • Renewable Energy, Sustainability and the Environment
  • Fuel Technology
  • Condensed Matter Physics
  • Energy Engineering and Power Technology

Cite this

Naterer, G. F., Suppiah, S., Stolberg, L., Lewis, M., Ahmed, S., Wang, Z., ... Odukoya, A. (2014). Progress of international program on hydrogen production with the copper-chlorine cycle. International Journal of Hydrogen Energy, 39(6), 2431-2445. https://doi.org/10.1016/j.ijhydene.2013.11.073
Naterer, G. F. ; Suppiah, S. ; Stolberg, L. ; Lewis, M. ; Ahmed, S. ; Wang, Z. ; Rosen, M. A. ; Dincer, I. ; Gabriel, K. ; Secnik, E. ; Easton, E. B. ; Lvov, S. N. ; Papangelakis, V. ; Odukoya, A. / Progress of international program on hydrogen production with the copper-chlorine cycle. In: International Journal of Hydrogen Energy. 2014 ; Vol. 39, No. 6. pp. 2431-2445.
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Naterer, GF, Suppiah, S, Stolberg, L, Lewis, M, Ahmed, S, Wang, Z, Rosen, MA, Dincer, I, Gabriel, K, Secnik, E, Easton, EB, Lvov, SN, Papangelakis, V & Odukoya, A 2014, 'Progress of international program on hydrogen production with the copper-chlorine cycle', International Journal of Hydrogen Energy, vol. 39, no. 6, pp. 2431-2445. https://doi.org/10.1016/j.ijhydene.2013.11.073

Progress of international program on hydrogen production with the copper-chlorine cycle. / Naterer, G. F.; Suppiah, S.; Stolberg, L.; Lewis, M.; Ahmed, S.; Wang, Z.; Rosen, M. A.; Dincer, I.; Gabriel, K.; Secnik, E.; Easton, E. B.; Lvov, S. N.; Papangelakis, V.; Odukoya, A.

In: International Journal of Hydrogen Energy, Vol. 39, No. 6, 14.02.2014, p. 2431-2445.

Research output: Contribution to journalArticle

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T1 - Progress of international program on hydrogen production with the copper-chlorine cycle

AU - Naterer, G. F.

AU - Suppiah, S.

AU - Stolberg, L.

AU - Lewis, M.

AU - Ahmed, S.

AU - Wang, Z.

AU - Rosen, M. A.

AU - Dincer, I.

AU - Gabriel, K.

AU - Secnik, E.

AU - Easton, E. B.

AU - Lvov, S. N.

AU - Papangelakis, V.

AU - Odukoya, A.

PY - 2014/2/14

Y1 - 2014/2/14

N2 - This paper highlights and discusses the recent advances in thermochemical hydrogen production with the copper-chlorine (Cu-Cl) cycle. Extended operation of HCl/CuCl electrolysis is achieved, and its performance assessment is conducted. Advances in the development of improved electrodes are presented for various electrode materials. Experimental studies for a 300 cm2 electrolytic cell show a stable current density and production at 98% of the theoretical hydrogen production rate. Long term testing of the electrolyzer for over 1600 h also shows a stable cell voltage. Different systems to address integration challenges are also examined for the integration of electrolysis/hydrolysis and thermolysis/electrolysis processes. New results from experiments for CuCl-HCl-H2O and CuCl2-HCl-H2O ternary systems are presented along with solubility data for CuCl in HCl-H 2O mixtures between 298 and 363 K. A parametric study of multi-generation energy systems incorporating the Cu-Cl cycle is presented with an overall energy efficiency as high as 57% and exergy efficiency of hydrogen production up to 90%.

AB - This paper highlights and discusses the recent advances in thermochemical hydrogen production with the copper-chlorine (Cu-Cl) cycle. Extended operation of HCl/CuCl electrolysis is achieved, and its performance assessment is conducted. Advances in the development of improved electrodes are presented for various electrode materials. Experimental studies for a 300 cm2 electrolytic cell show a stable current density and production at 98% of the theoretical hydrogen production rate. Long term testing of the electrolyzer for over 1600 h also shows a stable cell voltage. Different systems to address integration challenges are also examined for the integration of electrolysis/hydrolysis and thermolysis/electrolysis processes. New results from experiments for CuCl-HCl-H2O and CuCl2-HCl-H2O ternary systems are presented along with solubility data for CuCl in HCl-H 2O mixtures between 298 and 363 K. A parametric study of multi-generation energy systems incorporating the Cu-Cl cycle is presented with an overall energy efficiency as high as 57% and exergy efficiency of hydrogen production up to 90%.

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