Inorganic Chemistry

Curriculum

8 Sections
41 Lessons
10 Weeks

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Classification of Elements and Periodicity in Properties:
This section covers the modern periodic table and the periodic trends of elements. Topics include atomic and ionic radii, ionization enthalpy, electron gain enthalpy, electronegativity, valence, and oxidation states.
4
Chemical Bonding and Molecular Structure:
This is a crucial topic that extends beyond just inorganic chemistry, but a deep understanding of bonding is essential. It includes theories like VSEPR, valence bond theory, and molecular orbital theory, as well as concepts like hybridization, resonance, and dipole moment.
5
Coordination Compounds:
This sub-part focuses on complex compounds. Key topics include Werner's theory, IUPAC nomenclature, isomerism (cis-trans, ionization), bonding theories (Valence Bond Theory and Crystal Field Theory), magnetic properties, and the color of coordination compounds.
5
s-Block Elements:
This section deals with the alkali and alkaline earth metals (Groups 1 and 2). It covers their general characteristics, reactivity towards various substances, and the properties of their compounds
5
p-Block Elements:
This is a large and important section covering groups 13 to 18. It details the electronic configuration, general trends in physical and chemical properties, anomalous behavior of the first element in each group, and the preparation, properties, and uses of important compounds of these elements.
7
d- and f-Block Elements:
This section focuses on transition elements (d-block) and inner transition elements (f-block). It includes general characteristics, electronic configuration, and trends in properties like ionization enthalpy, oxidation states, and magnetic properties.
5
Principles of Qualitative Analysis:
This topic, also known as salt analysis, involves the identification of cations and anions. It's an experimental chemistry topic that requires an understanding of the reactions and principles involved in separating and confirming the presence of different ions.
6
Metallurgy (General Principles and Processes of Isolation of Elements):
This part covers the general methods of extracting metals from their ores, including topics like concentration, reduction, refining, and the principles behind these processes
4

Lesson 3: Conversion of Ore to Metal

This lesson focuses on the core reduction step, where the concentrated ore is converted into its metallic form.

Calcination: This process involves heating a carbonate or hydroxide ore in a limited supply of air or oxygen to a high temperature. It removes volatile impurities and converts the ore into a more reducible oxide. For example, $C a C O_{3} Δ ” /> C a O + C O_{2}$ .
Roasting: This process involves heating a sulfide ore in the presence of excess air at a high temperature. It converts the sulfide ore into an oxide, which is easier to reduce. For example, $2 Z n S + 3 O_{2} Δ ” /> 2 Z n O + 2 S O_{2}$ .
Smelting: This is a pyrometallurgical process where the roasted or calcined ore is heated with a flux and a reducing agent (e.g., carbon) in a furnace. The flux combines with the gangue to form a fusible material called slag. For example, in iron metallurgy, limestone ( $C a C O_{3}$ ) acts as a flux.
Electrolytic Reduction: This method is used for highly reactive metals (e.g., Al, Na, K) that cannot be reduced by carbon. The metal is extracted from its molten salt or ore by passing an electric current through it. The Hall-Héroult process for aluminum extraction is a classic example

Inorganic Chemistry

Curriculum

Lesson 3: Conversion of Ore to Metal

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