Philippe Julien
McGill University
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Publication
Featured researches published by Philippe Julien.
Journal of Propulsion and Power | 2014
Philippe Julien; Michael Soo; Samuel Goroshin; David L. Frost; Jeffrey M. Bergthorson; Nick Glumac; Fan Zhang
Stabilized aluminum flames are studied in the products of methane combustion. A premixed methane–air Bunsen flame is seeded with increasing concentrations of micron-size aluminum powder, and scanning emission spectroscopy is used to determine the flame temperature via both the continuous and aluminum monoxide spectra. The flame burning velocity is measured and the condensed flame products are collected and analyzed for unburned metallic aluminum content. It was observed that, below a critical concentration of about 120 g/m3, aluminum demonstrates incomplete oxidation with a flame temperature close to the methane–air flame. Below the critical concentration, the flame burning velocity also decreases similar to a flame seeded with inert silicon carbide particles. In contrast, at aluminum concentrations above the critical value, an aluminum flame front rapidly forms and is coupled to the methane flame. The flame temperature of the coupled methane–aluminum flame is close to equilibrium values with aluminum as...
Sustainable Energy and Fuels | 2017
Philippe Julien; Jeffrey M. Bergthorson
Energy carriers are required to store and transport clean, renewable energy. Currently, most scientific efforts are invested in batteries and hydrogen despite several drawbacks, such as low energy densities and, for hydrogen, a serious risk of accidental or intentional explosions. Metal fuels, which present an inherently low safety risk and have high energy densities, have been proposed as advanced storage and transport systems for large quantities of clean energy but have received far less attention. Metal powders or sprays can be burned with air to produce heat, or can be reacted with water to produce heat and hydrogen. The hydrogen produced can then fuel either an internal combustion engine or a fuel cell. Metal fuel utilization produces metallic oxides, which can be captured and cyclically reduced back into metal fuels ad infinitum. The recycling process to produce metal fuels must use renewable energy to ensure an environmentally friendly cycle. A set of 5 constraints guiding the choice for potential metal fuels, along with the available commercial and research-stage green recycling techniques, lead to a selection of 7 different metals that could be used as recyclable fuels in the near future.
Applied Energy | 2015
Jeffrey M. Bergthorson; Samuel Goroshin; Michael Soo; Philippe Julien; Jan Palecka; David L. Frost; D.J. Jarvis
Combustion and Flame | 2015
Philippe Julien; James Vickery; Samuel Goroshin; David L. Frost; Jeffrey M. Bergthorson
Proceedings of the Combustion Institute | 2013
Michael Soo; Philippe Julien; Samuel Goroshin; Jeffrey M. Bergthorson; David L. Frost
Proceedings of the Combustion Institute | 2015
Philippe Julien; Sam Whiteley; Samuel Goroshin; Michael J. Soo; David L. Frost; Jeffrey M. Bergthorson
Journal of Loss Prevention in The Process Industries | 2015
Philippe Julien; James Vickery; Sam Whiteley; Alex Wright; Sam Goroshin; Jeffrey M. Bergthorson; David L. Frost
Proceedings of the Combustion Institute | 2015
Jan Palecka; Philippe Julien; Samuel Goroshin; Jeffrey M. Bergthorson; David L. Frost; Andrew J. Higgins
Proceedings of the Combustion Institute | 2017
Philippe Julien; Sam Whiteley; Michael Soo; Samuel Goroshin; David L. Frost; Jeffrey M. Bergthorson
Combustion and Flame | 2016
Jeffrey M. Bergthorson; Philippe Julien; Samuel Goroshin; David L. Frost