
Students will be able to describe the process of fractional distillation of crude oil, and link the properties of fractions to the size of their molecules.
Students will be able to name alkanes using IUPAC nomenclature. They will be able to draw diaplyed formulae to represent alkanes and link these to the bonding present. Students will be able to define the term "isomers" and draw representations of the isomers of different alkanes.
Students will be able to describe the complete and incomplete combustion of alkanes. They will be able to write balanced symbol equations for both types of combustion.
Students will be able to describe substitution reactions and predict the products when halogens react with alkanes.
Students will be able to name alkenes using IUPAC nomenclature, and draw displayed formulae for different isomers.
Students will be able to describe the addition reactions of alkenes using halogens. They will be able to describe the use of bromine to distinguish between saturated and unsaturated molecules.
Students will be able to describe the process of addition polymerisation using alkenes. They will be able to draw repeating units for polyalkenes.
Students will be able to name alcohols using IUPAC nomenclature. They will be able to describe the formation of alcohols using addition reactions of alkenes. They will be able to compare the production of ethanol using addition, and fermentation.
Students will be able to name carboxylic acids using IUPAC nomenclature. They will be able to describe the formation of carboxylic acids using oxidation of alcohols.
Students will be able to name esters using IUPAC nomenclature and describe their formation from an alcohol and a carboxylic acid. They will be able to draw repeating units for polyesters formed during condensation polymerisation.
Students will be able to describe the four methods for measuring rates of reaction, and describe the advantages and disadvantages of each method.
Students will be able to explain how the rate of a reaction is related to the frequency of collisions, and the proportion of successful collisions.
Students will be able to explain how concentration affects the rate of a reaction. They will be able to describe the "disappearing cross" method for measuring the rate of a reaction.
Students will be able to explain the effect of surface area on the rate of reaction. They will be able to describe the use of gas syringe for measuring the rate of a reaction.
Students will be able to explain the effect of temperature on the rate of reaction in terms of collision frequency and considerations of activation energy. They will be able to describe the "mass loss" method of measuring the rate of a reaction.
Students will be able to explain the effect of catalysts on the rate of reaction.
Students will be able to explain the changes in the rate of a reaction over time. They will be able to link the gradient of a suitable graph to the rate of reaction.
Students will be able to describe the common reversible reactions involving ammonium chloride, and hydrated copper sulphate.
Students will be able to describe the features of a (dynamic) equilibrium and explain how equilibrium is established in a reversible reaction.
Students will be able to use mole calculations to find the % yield of a reaction.
Students will be able to describe the concept of equilibrium position and how it relates to yield.
Students will be able to describe and explain how temperature, pressure, and addition of a catalyst affect the position of an equilibrium.
Students will be able to describe the steps in the manufcature of ammonia. They will be able to explain the optimum, and actual conditions used in the reversible step.
Students will be able to describe the steps for the formarion of sulphuric acid. They will be able to describe and explain the optimum and actual conditions used in the reversible step.
Students will be able to describe redox reactions related to the gain and loss of oxygen. They will be able to identify oxidising and reducing agents.
Students will be able to describe the steps involved in the extraction of iron, and how major impurities are removed.
Students will be able to describe redox reactions related to the gain and loss of electrons.
Students will be able to use half-equations to show the gain and loss of electrons during oxidation and reduction.
Students will be able to describe the electrolysis of molten ionic compounds and write half equations for the oxidation and reduction processes.
Students will be able to describe the use of electrolysis to form aluminium.
Students will be able to predict the products formed during the electrolysis of ionic solutions using rules to identify the preferential oxidation and reduction reactions.
Students will be shown model answers to a sample of examination questions from the 4 units in this course.
ATTENTION PARENTS: Does your student need help learning IGCSE and GCSE Chemistry (or similar courses) from home? This course will give them the skills they need to feel confident for their exams. Purchase this course to help your student prepare for their exams by helping them to understand chemistry, rather than focusing on trying to memorise seemingly unrelated facts!
This course covers all of the material studied in iGCSE Chemistry and GCSE Chemistry courses in the topics of Organic Chemistry, Reaction Rates, Equilibria, and Redox Reactions. These are normally the topics covered in (i)GCSE courses by schools in year 11 (Grade 10, ages 15/16). The material is also relevant for most GCSE courses. It is designed for students who are currently in year 11 (Grade 10, ages 15-16) and revising the material covered in their school lessons. It would also be useful for those students entering A level, or IBDP courses in chemistry who require a firm grounding before embarking on these more advanced qualifications. The material covered in this topic is also covered in most American and Canadian syllabuses in grade 10 chemistry/science (ages 15/16).
As soon as students sign up for this IGCSE Chemistry and GCSE Chemistry masterclass they will receive access to:
NEW and updated IGCSE chem & GCSE chem video lessons for each section of the course.
FREE digital IGCSE chem & GCSE worksheets to support learning
FULL EXAM QUESTION WALKTHROUGHS of past exam papers to help you learn the best exam writing strategies.
FREE topic-specific IGCSE chemistry past exam paper questions and mark schemes.
This IGCSE chemistry (O Level) masterclass is offered by IGCSEprep on Udemy. This masterclass covers all the content needed to write the IGCSE chemistry exams offered by Pearson Edexcel (double or triple) or Cambridge CIE (core or extended) or other exam boards like Oxford AQA.