Browse by Grade: JC 2

Singapore · MOE Syllabus Outcomes

JC 2 Chemistry

This course explores advanced chemical principles including energetic stability, kinetic control, and the intricate behavior of organic functional groups. Students bridge the gap between microscopic structural theories and macroscopic chemical phenomena through rigorous analytical frameworks.

6 units·14 topics·Ages 17-18
1

Chemical Energetics and Thermodynamics

2 topics·Thermodynamics

Exploration of energy changes in chemical reactions focusing on enthalpy, entropy, and Gibbs free energy to predict reaction spontaneity.

Enthalpy and Born-Haber Cycles

Analyzing energy cycles to determine lattice energy and the stability of ionic compounds.

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Entropy and Gibbs Free Energy

Investigating the roles of disorder and energy dispersal in determining the feasibility of chemical processes.

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2

Reaction Kinetics and Equilibrium

3 topics·Chemical Reactions

Examination of the factors affecting reaction rates and the dynamic nature of reversible chemical systems.

Rate Equations and Mechanisms

Deriving rate laws from experimental data to propose multi-step reaction mechanisms.

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Chemical Equilibria and Le Chatelier’s Principle

Quantitative analysis of equilibrium constants and the response of systems to external stress.

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Ionic Equilibria and Buffer Systems

Study of weak acids, bases, and the mathematical modeling of pH maintenance in biological systems.

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3

Electrochemistry and Redox Processes

2 topics·Chemical Reactions

Analyzing the conversion between chemical and electrical energy through electrochemical cells and electrolysis.

Electrochemical Cells and Standard Potentials

Measuring standard electrode potentials to predict the direction of electron flow and cell voltage.

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Electrolysis and Faraday’s Laws

Quantitative study of electrolytic decomposition and its applications in industrial electroplating.

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4

The Chemistry of Transition Elements

2 topics·Periodic Table

Exploring the unique properties of d-block elements including variable oxidation states, complex ion formation, and catalysis.

Complex Ion Formation and Color

Explaining the origin of color in transition metal complexes using crystal field theory.

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Catalytic Properties of d-Block Elements

Investigating heterogeneous and homogeneous catalysis mechanisms in industrial processes.

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5

Organic Chemistry: Functional Groups and Mechanisms

3 topics·Chemical Reactions

A deep dive into the reactivity of organic molecules including carbonyl compounds, carboxylic acids, and nitrogen derivatives.

Nucleophilic Addition in Carbonyls

Analyzing the reactivity of aldehydes and ketones toward nucleophilic attack.

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Carboxylic Acids and Derivatives

Comparing the acidity of carboxylic acids and the reactivity of acyl chlorides and esters.

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Nitrogen Compounds and Proteins

Examining the basicity of amines and the structural hierarchy of amino acids and proteins.

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6

Structural Elucidation and Synthesis

2 topics·Stoichiometry

Integrating spectroscopic techniques and synthetic pathways to identify unknown compounds and design organic routes.

Spectroscopic Analysis

Using Infra-Red and Nuclear Magnetic Resonance spectroscopy to deduce molecular structures.

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Organic Synthesis and Planning

Designing multi-step synthetic routes and identifying necessary reagents and conditions.

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