A Level Chemistry | Video Course | Notes | Worksheets

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About Course

Cambridge International AS & A Level Chemistry (9701)
The Cambridge International AS & A Level Chemistry course (9701) is designed to provide students with a comprehensive and in-depth understanding of the fundamental principles of chemistry. This rigorous program is an excellent foundation for further study in chemistry, medicine, biological sciences, engineering, and other science-related fields at university.

Course Content and Structure
The syllabus is divided into various key areas, progressively building from foundational concepts to more advanced topics. Students can pursue either the AS Level qualification (covering the first half of the syllabus) or the full A Level qualification (covering the entire syllabus).

Key topics include:

Physical Chemistry:

Atomic Structure: Delving into the subatomic particles, electron configuration, and isotopic forms of elements.

Moles and Stoichiometry: Essential calculations involving moles, reacting masses, volumes of gases, and solutions.

Chemical Bonding: Exploring different types of bonding (ionic, covalent, metallic) and their influence on properties.

States of Matter: Understanding the properties of solids, liquids, and gases, including ideal gas behavior.

Energetics: Covering enthalpy changes, Hess’s Law, and bond energies.

Kinetics: Investigating reaction rates, factors affecting them, and reaction mechanisms.

Equilibria: Principles of reversible reactions, Le Chatelier’s Principle, and acid-base equilibria (including pH calculations).

Redox Reactions: Oxidation states, balancing redox equations, and electrode potentials.

Inorganic Chemistry:

The Periodic Table: Trends in properties across periods and down groups, including Group 2 (Alkaline Earth Metals) and Group 17 (Halogens).

Transition Elements: Characteristics and reactions of d-block elements, including complex ion formation.

Nitrogen and Sulfur: Important compounds and industrial applications.

Organic Chemistry:

Fundamentals of Organic Chemistry: Nomenclature, isomerism, and reaction types (substitution, addition, elimination).

Hydrocarbons: Alkanes, alkenes, and arenes.

Halogenoalkanes: Reactions and mechanisms.

Hydroxy Compounds: Alcohols and phenols.

Carbonyl Compounds: Aldehydes and ketones.

Carboxylic Acids and Derivatives: Esters, amides, and acyl chlorides.

Nitrogen Compounds: Amines and amino acids.

Polymerization: Addition and condensation polymers.

Spectroscopy: Introduction to analytical techniques such as IR, NMR, and mass spectrometry for structure determination.

Assessment
Assessment for 9701 typically involves multiple examination papers that test theoretical knowledge, problem-solving skills, and practical application. These papers may include:

Multiple Choice Questions: Assessing a broad range of knowledge.

Structured Questions: Requiring detailed explanations, calculations, and problem-solving.

Practical Assessment: Evaluating experimental skills, data analysis, and evaluation. This component is crucial for developing hands-on scientific proficiency.

Skills Developed
Beyond a deep understanding of chemical principles, the 9701 A Level Chemistry course fosters the development of critical transferable skills, such as:

Problem-solving and analytical thinking: Applying chemical principles to solve complex problems.

Experimental design and execution: Planning and carrying out practical investigations safely and effectively.

Data analysis and interpretation: Drawing valid conclusions from experimental results.

Critical evaluation: Assessing the reliability of data and experimental procedures.

Communication: Clearly articulating scientific concepts and arguments.

This course provides an excellent academic challenge and prepares students thoroughly for advanced scientific studies.

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What Will You Learn?

  • Good teaching and learning will incorporate and reinforce a subject’s key concepts to help students gain:
  • A greater depth as well as breadth of subject knowledge
  • Confidence, especially in applying knowledge and skills in new situations
  • The vocabulary to discuss their subject conceptually and show how different aspects link together
  • A level of mastery of their subject to help them enter higher education.

Course Content

Electrochemistry for A Levels (Complete with Notes and Solved Worksheets)
Electrochemistry (Cambridge International AS & A Level Chemistry 9701) Electrochemistry in Cambridge International AS & A Level Chemistry (9701) explores the interconversion of chemical and electrical energy. This topic delves into: Redox Reactions: Revisiting oxidation and reduction in terms of electron transfer, and balancing complex redox equations. Electrolysis: Understanding the decomposition of molten or aqueous ionic compounds (electrolytes) by passing an electric current. This includes predicting products at the anode and cathode, factors affecting product formation (e.g., concentration, electrode type), and quantitative aspects using Faraday's laws. Electrochemical Cells (Voltaic/Galvanic Cells): Studying how chemical reactions generate electricity. Key concepts include standard electrode potentials (E ∘ ), the construction and function of standard hydrogen electrodes (SHE) as a reference, calculating standard cell potentials (E cell ∘ ​ ), and predicting the feasibility of reactions. Nernst Equation (A2 Level): For A2 students, this section extends to how non-standard conditions (like changes in concentration) affect electrode potentials and cell potentials. This unit combines theoretical understanding with practical applications, providing insights into batteries, electroplating, and industrial chemical production.

  • Notes & Worksheets | Electrochemistry | A levels
  • 42:30
  • 2 | Balancing Redox Equations
    26:00
  • 3 | Standard Electrode Potentials
    00:00
  • 36:11
  • 5 | Electrochemical Cell and Cell Potential
    32:53
  • 6 | Redox Reactions using Electrode Potentials
    35:49
  • 7 | Redox Reactions using Electrode Potentials
    40:55
  • 8 | Redox Reactions using Electrode Potentials | Difficult Reactions
    39:57
  • 9 | Redox Reactions using Electrode Potentials | Difficult Reactions
    41:09
  • 10 | Nonstandard Electrode Potentials and Nernst Equations
    35:54
  • 11 | Electrolysis and Electrode Potentials
    31:07
  • 12 | Electrolysis | Faraday Constant & Moles
    40:25
  • 13 | Past Paper Practice
    00:00

Organic Chemistry for A levels (Complete with Notes and Solved Worksheets)
A-Level Organic Chemistry (9701) is all about carbon compounds. It covers their structure, naming (nomenclature), and various reactions. You'll learn about different functional groups like alkanes, alkenes, alcohols, and carboxylic acids, and their characteristic reaction mechanisms. Key areas include isomerism (structural and stereoisomerism), aromatic compounds (benzene), and the synthesis of organic molecules. You'll also explore polymers and essential analytical techniques like IR, NMR, and Mass Spectrometry for identifying compounds.

A2 Chemistry Past Paper Session

Reaction Kinetics (Complete with Notes and Solved Worksheets)
An Introduction to Reaction Kinetics In your A-Levels Chemistry course, you'll delve into the fascinating field of reaction kinetics, which is the study of how fast chemical reactions occur and the factors that influence their speed. Here's a breakdown of what you will learn: Understanding Reaction Rate: You will learn how to define and measure the "rate" of a reaction, which is the change in concentration of a reactant or product over time. Factors Affecting Rate: You'll explore how different factors, such as concentration, temperature, pressure (for gases), and the presence of a catalyst, can influence the speed of a reaction. Collision Theory: This principle will provide the foundation for understanding why reactions happen. You'll learn that particles must collide with sufficient energy (the activation energy) and the correct orientation for a reaction to occur. Mathematical Expressions: You will discover how to use rate equations and the rate constant (k) to mathematically express and calculate reaction rates. Reaction Mechanisms: You'll learn how to deduce and propose plausible reaction mechanisms—the step-by-step pathways reactions take—based on experimental data. Practical Applications: You will see how these concepts are vital for understanding real-world applications, such as the efficiency of industrial processes and the shelf life of products. By the end of this topic, you'll have the tools to predict and control the speed of a chemical reaction, giving you a deeper appreciation for the dynamics of the chemical world.

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