Browse by UCL people
Group by: Type | Date
Number of items: 13.
Article
Lowe, RJ;
Chiu, LF;
Pye, S;
Cassarino, TG;
Scamman, D;
Solano-Rodriguez, B;
(2021)
Lost generation: Reflections on resilience and flexibility from an energy system architecture perspective.
Applied Energy
, 298
, Article 117179. 10.1016/j.apenergy.2021.117179.
|
Romanello, Marina;
Di Napoli, Claudia;
Drummond, Paul;
Green, Carole;
Kennard, Harry;
Lampard, Pete;
Scamman, Daniel;
... Costello, Anthony; + view all
(2022)
The 2022 report of the Lancet Countdown on health and climate change: health at the mercy of fossil fuels.
The Lancet
, 400
(10363)
pp. 1619-1654.
10.1016/S0140-6736(22)01540-9.
|
Scamman, D;
Bustamante, H;
Hallett, S;
Newborough, M;
(2014)
Off-grid solar-hydrogen generation by passive electrolysis.
International Journal of Hydrogen Energy
, 39
(35)
pp. 19855-19868.
10.1016/j.ijhydene.2014.10.021.
|
Scamman, D;
Newborough, M;
(2016)
Using surplus nuclear power for hydrogen mobility and power-to-gas in France.
International Journal of Hydrogen Energy
, 41
(24)
pp. 10080-10089.
10.1016/j.ijhydene.2016.04.166.
|
Scamman, D;
Newborough, M;
Bustamante, H;
(2015)
Hybrid hydrogen-battery systems for renewable off-grid telecom power.
International Journal of Hydrogen Energy
, 40
(40)
pp. 13876-13887.
10.1016/j.ijhydene.2015.08.071.
|
Scamman, D;
Solano-Rodríguez, B;
Pye, S;
Chiu, LF;
Smith, AZP;
Gallo Cassarino, T;
Barrett, M;
(2020)
Heat Decarbonisation Modelling Approaches in the UK: An Energy System Architecture Perspective.
Energies
, 13
(8)
p. 1869.
10.3390/en13081869.
|
Staffell, I;
Scamman, DP;
Velazquez Abad, A;
Balcombe, P;
Dodds, P;
Ekins, P;
Shah, N;
(2019)
The role of hydrogen and fuel cells in the global energy system.
Energy and Environmental Science
, 12
(2)
pp. 463-491.
10.1039/C8EE01157E.
|
Book chapter
Winning, M;
Pye, S;
Glynn, J;
Scamman, D;
Welsby, D;
(2018)
How Low Can We Go? The Implications of Delayed Ratcheting and Negative Emissions Technologies on Achieving Well Below 2 °C.
In: Giannakidis, G and Karlsson, K and Labriet, M and Ó Gallachó, B, (eds.)
Limiting Global Warming to Well Below 2 °C: Energy System Modelling and Policy Development.
(pp. 51-65).
Springer: Cham, Switzerland.
|
Proceedings paper
Lowe, R;
Chiu, LF;
Pye, S;
Gallo Cassarino, T;
Barrett, M;
Scamman, D;
Smith, A;
(2020)
Lost Generation: System Resilience and Flexibility.
In:
Proceedings of the 2020 MIT “A+B” Applied Energy Symposium.
2020 MIT “A+B” Applied Energy Symposium: Cambridge, MA, USA.
(In press).
|
Roberts, EPL;
Scamman, DP;
(2011)
Techno-Economic Modelling Of A Utility-Scale Redox Flow Battery System.
In:
(Proceedings) Electrical Energy Storage Applications and Technologies Conference 2011, San Diego, California, US.
Electricity Energy Storage Systems, US Department of Energy
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Report
|
Drummond, P;
Scamman, D;
Ekins, P;
Parousos, L;
Keppo, I;
(2021)
Growth-Positive Zero-Emission Pathways to 2050.
(Sitra Studies
185
).
Sitra: Helsinki, Finland.
|
Thesis
|
Scamman, DP;
(2007)
Technical-commercial modelling and design of redox flow batteries for energy storage.
Doctoral thesis , The University of Manchester.
|
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Scamman, DP;
(1999)
Optimisation of combined cycle power plant using genetic algorithms.
Masters thesis , Cambridge University.
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