in order to promote the low-carbon development of gas turbine power generation industry and achieve large-scale application of hydrogen energy
performance calculation was conducted for a typical F-class gas turbine subjected to hydrogen blending of 0%~65% ratio(volume fraction). The impact of hydrogen blending on gas turbine power
efficiency
exhaust flow rate
exhaust temperature
CO
2
emission
and combined cycle performance was deeply analyzed
with a focus on key technologies for the retrofit of gas turbine combustion system
control system
and auxiliary system. Results show that it is necessary to add hydrogen blending equipment and control device for gas turbine hydrogen power generation transformation. The gas turbine burner
fuel system
combustible gas detection system
fire protection system and
hood ventilation system should be upgraded adaptively
and the corresponding control and protection logic such as fuel quantity control
fuel distribution and tempering monitoring should be improved. After the hydrogen blending retrofit
with the increase of hydrogen blending ratio
the output and efficiency of gas turbine and combined cycle increase
and the CO
2
content in exhaust gas is significantly reduced
which improves the carbon emission reduction capacity of the unit.
关键词
Keywords
references
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