Sign Up to like & get
recommendations!
0
Published in 2019 at "Applied Thermal Engineering"
DOI: 10.1016/j.applthermaleng.2019.02.074
Abstract: Abstract The sulfur–iodine (SI) thermochemical water-splitting cycle is a promising hydrogen production process with high thermal efficiency and low pollution. The Bunsen reaction in the cycle using an electrochemical cell (EC) has been proposed and…
read more here.
Keywords:
cycle;
hydrogen production;
sulfur iodine;
microscopic characteristics ... See more keywords
Sign Up to like & get
recommendations!
1
Published in 2017 at "International Journal of Hydrogen Energy"
DOI: 10.1016/j.ijhydene.2017.04.117
Abstract: Abstract Massive hydrogen production featuring high efficiency, CO2 free, and cost effectiveness is a crucial challenge for the hydrogen economy. Nuclear hydrogen production through thermochemical iodine–sulfur (IS) process is a potential candidate for this purpose.…
read more here.
Keywords:
hydrogen;
process;
reaction;
bunsen reaction ... See more keywords
Sign Up to like & get
recommendations!
0
Published in 2019 at "International Journal of Hydrogen Energy"
DOI: 10.1016/j.ijhydene.2018.12.217
Abstract: Abstract Iodine–sulfur (IS) cycle is the most promising thermochemical water-splitting process for nuclear hydrogen production. The Bunsen reaction, which produces sulfuric and hydriodic acid for the two decomposition reactions, plays a crucial role for the…
read more here.
Keywords:
liquid solid;
process;
reaction;
gas liquid ... See more keywords
Sign Up to like & get
recommendations!
0
Published in 2019 at "International Journal of Hydrogen Energy"
DOI: 10.1016/j.ijhydene.2019.03.174
Abstract: Abstract The electrochemical Bunsen reaction is an alternative way to traditional Bunsen reaction for hydrogen production, which can produce H2SO4 and HI in lower iodine and water condition in an electrochemical cell. However, energy consumption…
read more here.
Keywords:
bunsen;
electrochemical bunsen;
bunsen reaction;
energy ... See more keywords