These PowerPoints were planned as part of the IB schemes of work on Atomic Structure and Periodicity (including transition metal chemistry and coloured complexes) and cover the necessary content for both the Standard and Higher Level topics. They would also be suitable for other post-16 courses. Included are fully completed PowerPoints, student versions of the PowerPoints with sections to complete independently and some exam style questions. Topics included are: - The structure of the atom - The development of the theory of atomic structure from Dalton-present day - Isotopes and their properties - Calculating the R.A.M. of an isotope - Calculating the % abundance of two isotopes, given the R.A.M. - Radioisotopes and their uses - The mass spectrometer: what it is used for, how it works, why it works and how to read mass spectra - How to calculate the energy of a photon of light - Atomic Emission Spectra - How to write full electronic configurations for elements up to the 4p orbital - How to write full electronic configurations for ions of the elements up to the 4p orbital - The convergence limit of energy in energy levels and how this links to First Ionisation Energy - Trends in First Ionisation Energy and how this provided evidence for the presence of orbitals - The development of the Periodic Table - The structure and arrangement of the Periodic Table - How metallic/non-metallic properties change as you go left to right across the periodic table - How atomic radius of elements changes across periods and down groups, and why this occurs - How ionic radius of ions changes across periods and down groups, and why this occurs - How first ionisation energies of elements changes across periods and down groups, and why this occurs - How electron affinity of elements changes across periods and down groups, and why this occurs - How electronegativity of elements changes across periods and down groups, and why this occurs - Properties and reactions of the Group I metals - Properties and reactions of the Group XVII non-metals - The acid-base character and reactions of the period 2 and 3 oxides - Electronic structures of the Transition Metals - Electronic structures of Transition Metal ions - The definition of a Transition Metal - Properties of Transition Metals - Variable oxidation states and the trend in First Ionisation Energies - Paramagnetism and Diamagnetism - Complex Ions - Transition Metals as catalysts - How colour occurs in compounds - Ligand Field Theory - Which Transition Metals are coloured and which are colourless and why - Factors which affect colour - including identity of the metal, charge on the metal and identity of the ligand

These PowerPoints were planned as part of the IB schemes of work on Atomic Structure, Periodicity (including transition metal chemistry and coloured complexes) and Structure and Bonding. They cover the necessary content for both the Standard and Higher Level topics. They would also be suitable for other post-16 courses. Included are fully completed PowerPoints, student versions of the PowerPoints with sections to complete independently and some exam style questions.

These 9 PowerPoints were planned as part of the IB schemes of work on Biochemistry, and covers the necessary content for the all of the Standard and Higher Level units. It would also be suitable for other post-16 courses. It includes 9 full PowerPoints, along with student versions to use as notes, which have spaces for the students to add in missing information and activities for them to complete. It also includes exam questions for practice or assessment purposes Topics covered are: Introduction to Biochemistry - Metabolism - Biochemical reactions in terms of oxidation and reduction - Respiration - Photosynthesis - Hydrolysis and Condensation reactions Proteins - 2 amino acids and their behaviour as zwitterions - Gel electrophoresis - Paper chromatography - Peptides - Hydrolysis of peptides - Proteins - primary, secondary, tertiary and quaternary structures - Acid-base properties of amino acids and proteins - Acid-base buffers - Enzymes - Induced fit theory - Non competitive and competitive inhibition - The Michaelis-Menten equation - Protein Assays Lipids - Fatty acids - Triglycerides - Calculating the iodine number - Hydrolysis of triglycerides - Rancidity of fats - Energy values of fats - Phospholipids - Steroids (including cholesterol) - Sex hormones - Anabolic steroids Carbohydrates - Monosaccharides - Reducing sugars - Disaccharides - Polysaccharides - Starch, glycogen and cellulose Vitamins - Preventing deficiencies - Water and fat solubilities of vitamins - Vitamin A - Vitamin C - Vitamin D - Decomposition of vitamins Environmental Impacts of Biochemistry - Xenobiotics - Metabolism of xenobiotics - DDT - PCBs - Heavy metal toxicity - Pharmaceutically active compounds and detergents - Host-guest complexes - Polymers - Green Chemistry Proteins - 2 amino acids and their behaviour as zwitterions - Gel electrophoresis - Paper chromatography - Peptides - Hydrolysis of peptides - Proteins - primary, secondary, tertiary and quaternary structures - Acid-base properties of amino acids and proteins - Acid-base buffers - Enzymes - Induced fit theory - Non competitive and competitive inhibition - The Michaelis-Menten equation - Protein Assays Nucleic Acids - Nucleic Acids - Nitrogeneous Bases and Nucleotides - ATP - The structure of DNA - DNA profiling - DNA replication - Transcription - Genetic Engineering Biological Pigments - Coloured compounds and biological pigments - Carotenes - Porphyrins - Haemoglobin - Factors affceting oxygen uptake in haemoglobin - Foetal haemoglobin - Cytochromes - Chlorophyll - Anthocyanins - Melanin Stereochemistry in Biomolecules - Stereoisomerism - 2-amino acids - Fischer and CORN projections - Stereochemistry in Carbohydrates - Stereochemistry cyclic forms of monosaccharides - Stereochemistry in cellulose - Stereochemistry in fatty acids - Stereochemistry in retinal and vision chemistry