Hydrogen production process method and hydrogen production system
A process method and pyrolysis reactor technology, which are applied in the field of hydrogen production in the process of acid gas treatment, can solve the problems of low decomposition rate and low hydrogen equilibrium concentration, achieve the goal of increasing conversion rate, realizing gas-solid separation, and reducing processing load Effect
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Embodiment 1
[0049] Treat raw gas H 2 S concentration 100%, flow 4000Nm 3 / h; the particle size of Fe powder is 1-3mm, and the Fe powder is preheated to 800°C before entering the reactor; the absorption tower uses N-methyldiethanolamine as the absorbent. After the feed gas passes through the pyrolysis reactor, H 2 S generates H 2 The conversion rate is 31%, and the absorption tower top gas flow rate is 1235Nm 3 / h, H 2 The purity is 100%.
Embodiment 2
[0051] Treat raw gas H 2 The S concentration is 100%, the flow rate is 4000Nm3 / h; the Fe powder particle size is 1-3mm, and the Fe powder is preheated to 900°C before entering the reactor; the absorption tower uses N-methyldiethanolamine as the absorbent. After the feed gas passes through the pyrolysis reactor, H 2 S generates H 2 The conversion rate is 37%, and the absorption tower top gas flow rate is 1450Nm 3 / h, H 2 The purity is 100%.
Embodiment 3
[0053] Treat raw gas H 2 The concentration of S is 100%, the flow rate is 4000Nm3 / h; the particle size of Fe powder is 1-3mm, and the Fe powder is preheated to 1000°C before entering the reactor; the absorption tower uses N-methyldiethanolamine as the absorbent. After the feed gas passes through the pyrolysis reactor, H 2 S generates H 2 The conversion rate is 45%, and the absorption tower top gas flow rate is 1780Nm 3 / h, H 2 The purity is 100%.
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