[cs_content][cs_section parallax=”false” separator_top_type=”none” separator_top_height=”50px” separator_top_angle_point=”50″ separator_bottom_type=”none” separator_bottom_height=”50px” separator_bottom_angle_point=”50″ style=”margin: 0px;padding: 45px 0px;”][cs_row inner_container=”true” marginless_columns=”false” style=”margin: 0px auto;padding: 0px;”][cs_column fade=”false” fade_animation=”in” fade_animation_offset=”45px” fade_duration=”750″ type=”1/1″ style=”padding: 0px;”][cs_text]Monitoring and Management > 2. Maximising Production >
Identify that ammonia can be synthesised from its component gases, nitrogen and hydrogen
Describe that synthesis of ammonia occurs as a reversible reaction that will reach equilibrium
Identify the reaction of hydrogen with nitrogen as exothermic[/cs_text][/cs_column][/cs_row][/cs_section][cs_section parallax=”false” separator_top_type=”none” separator_top_height=”50px” separator_top_angle_point=”50″ separator_bottom_type=”none” separator_bottom_height=”50px” separator_bottom_angle_point=”50″ style=”margin: 0px;padding: 45px 0px;”][cs_row inner_container=”true” marginless_columns=”false” style=”margin: 0px auto;padding: 0px;”][cs_column fade=”false” fade_animation=”in” fade_animation_offset=”45px” fade_duration=”750″ type=”1/1″ style=”padding: 0px;”][cs_text]
- Ammonia is synthesised from nitrogen gas and hydrogen gas.
- Haber Process: The industrial synthesis of ammonia.
- The nitrogen gas used in the Haber process can be obtained through either:
- The catalytic reaction between natural gas and air, which removes oxygen and leaves nitrogen.
- The fractional distillation of liquid air.
- The hydrogen used in the Haber process can be obtained through one of the following:
- The catalytic reaction between natural gas and steam, and natural gas and air.
- The electrolysis of water.
- Generally, catalytic reactions are used to obtain both nitrogen and hydrogen gas.

The main method of preparation of hydrogen and nitrogen gases for the Haber process
- The synthesis of ammonia is a reversible exothermic equilibrium:

- For every mole of ammonia formed, 46 kJ of energy is released.
- At room temperature and atmospheric pressure, the equilibrium lies well to the left.
- By altering temperature and pressure, the equilibrium can be shifted in the forward direction.
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