Hebden : Chemistry 11 Honours Notes

 and

 Hebden : Advanced Placement Notes

 Download Notes Package (Zip File)

This 325 page set of notes was originally written for my students when I taught Chemistry 11 Honours and Advanced Placement Chemistry. I believe the notes may also benefit teachers and students involved with the International Baccalaureate program.

The notes are modeled after Hebden : Chemistry 12, A Workbook for Students and Hebden : Chemistry 11, A Workbook for Students. However, the Chemistry 11 and 12 Workbooks are copyrighted, may not be copied (even in part) and are sold through our exclusive distributor, Western Campus Resources ( www.westerncampus.ca ).

In contrast, this set of Chemistry 11 Honours and Advanced Placement Chemistry notes is being put into the public domain to be used freely by teachers, without payment to anyone, including the author. Although originally I had some idea of publishing the notes, the small audience/demand made that unrealistic and hence the notes are now being made available to teachers and students for their use as they see fit. I only ask that the credit lines at the top of the even pages (“Hebden : Chemistry AP”, etc.) be retained or suitably acknowledged if the notes are used, revised or modified by a teacher.

The set of notes is in the form of individual documents for each unit and a separate document for the answer section to each unit. Unlike the Chemistry 11 and 12 Workbooks, there are no cartoons (teachers will simply have to tell their own jokes), no table of contents, no glossary and no set of tables. However, two supplementary documents have been included: Least Squares Fit of Data Points to a Linear Equation and Thermodynamics Data Table. These documents are explained below. Because Advanced Placement Chemistry requires a slightly enriched background for students taking the course, the documents I used to enrich Chemistry 11 Honours are also included.

The material on pages 6–10 of VALENCE BOND THEORY AND MOLECULAR ORBITAL THEORY (AP Valence Bond Theory.doc) and the associated answers on pages 1–2 of ANSWERS TO VALENCE BOND THEORY AND MOLECULAR ORBITAL THEORY (AP Valence Bond Theory.Answers.doc) are taken directly from Hebden : Chemistry 11, A Workbook for Students, pages 183-188. These copyrighted pages are used with the permission of the author and may only be used for their intended purpose as review of the immediately–following AP material. The included copyright review material may not be altered, reproduced or used in any other context.

Because the notes have not been as thoroughly edited for errors as were the Chemistry 11 and 12 Workbooks, there may still be some errors in the notes. Let the user beware! The notes are thought to be more-or-less error-free, but such a pie-in-the-sky dream is unlikely to be true. If serious errors are found, please contact me at jhebden@shaw.ca and I will see if a revision is warranted.

Laboratory experiments appropriate to the AP course include those found in the excellent lab book “Essential Experiments for Chemistry” by Duncan Morrison and Darrel Scodellaro (www.smglabbooks.com). Particularly, experiments 7A, 8A, 8B, 8C, 11D, 16B, 16C and 16E. In addition, I have previous submitted several student experiments to the BC Science Teachers' Association website (www.bcscta.ca/resources/hebden/labhebdenAP.htm) titled:  “Activation Energy”, “Enthalpy of Decomposition of H2O2”, “Thermodynamics of PbCl2” and “Vapour Density”. In addition, I submitted to the same website a collection of demonstrations suitable for AP Chemistry, titled “Chem AP Demos”.

The material in the set of notes includes the following document files. The number following the name of each file denotes the number of pages in the document.

  

CHEMISTRY 11 HONOURS NOTES

Chem 11 Hons Unit II.doc (5) / Chem 11 Hons Unit II.Answers.doc (3) – This unit is used to introduce students to an analytical way of solving problems by organizing their thinking. The vehicle used is the solving of problems related to the density of objects that float or sink in fluids, and the buoyancy of objects in liquids.

Chem 11 Hons Unit V.doc (7) / Chem 11 Hons Unit V.Answers.doc (7) – This unit includes: calculations based on Avogadro’s Hypothesis; determining empirical formulae from combustion of hydrocarbons; alternate methods of expressing concentration – % (w/w), % (v/v), ppm and ppb.

Chem 11 Hons Unit VIII.doc (16) / Chem 11 Hons Unit VIII.Answers.doc (2) – This unit, titled Nuclear Reactions, covers: introductory terminology, balancing nuclear reactions, energy from nuclear reactions (non-testable), types of nuclear reactions (atomic fusion, induced fission, annihilation and transmutation), radioactive decay (types of radioactive decay [eg. alpha decay, beta decay, positron decay, gamma decay, electron capture and spontaneous fission], the band of nuclear stability, half life [including calculations], and radioactive decay series), nuclear reactors (the CANDU reactor, fast breeder reactors and the problem of nuclear waste disposal), and some applications of radioactivity (radiological dating, tracer analysis and neutron activation analysis).

 

ADVANCED PLACEMENT CHEMISTRY NOTES

AP Cubic Crystals (7) / AP Cubic Crystals Answers (4) – Students learn about simple, body centered and face centered cubic crystal lattices, as well as hexagonal close packed lattices. This is standard introductory material for cubic/hexagonal crystals. Students use both 2- and 3-dimensional geometry to solve some problems.

AP Reaction Kinetics (24) / AP Reaction Kinetics Answers (6) – Topics covered include: the rate law, units of the rate constant, experimental determination of the rate law, natural logarithms, reaction order and molecularity, first order reactions, half life, second order reactions, graphical representation of reaction order and rate constant, calculations involving activation energy (the Arrhenius equation), free radicals and chain reactions.

Least Squares Fit (1) – This document outlines the mathematical method of linear least squares fit for experimental data. By means of a least squares fit (also called “linear regression”), an experimenter can derive the best numerical value of the slope and intercept for a set of data points that obey a straight-line relationship. Such numerical methods are the “bread and butter” of scientists analyzing data in experimental situations, and an early exposure to such methods is of benefit to students. (Copies of the mathematical formulae for non-linear data fitting – quadratic, inverse, inverse square, logarithmic, exponential and exponential square – are available from the author.)

AP Gas Laws.doc (23) / AP Gas Laws.Answers.doc (9) – Topics covered include: measuring gas pressure, Avogadro’s Hypothesis (a review), Boyle’s law, Dalton’s law of partial pressures, vapour pressure (molecular theory of vapour pressure [including freeze drying, the effect of compressing the vapour above a liquid] and boiling temperature), Charles’ law, the ideal gas law (including calculations on single and multiple sets of conditions), Graham’s law of effusion, the kinetic molecular theory or “collision theory”, systems of real gases and deviations from ideality (including the van der Waals equation), phase diagrams and the critical point.

AP Equilibrium.doc (4) / AP Equilibrium.Answers.doc (1) – Topics covered include: equilibrium laws for gaseous reactions and rate laws involving equilibrium processes.

AP Solubility.doc (6) / AP Solubility.Answers.doc (4) – Topics covered include: the effect of differing heats of solution on the solubility, crystal lattice energy and hydration energy (including the Born-Haber cycle), common ion effect calculations.

AP Colligative Properties.doc (14) / AP Colligative Properties.Answers.doc (9) – Topics covered include: concentration calculations (mole fraction, mole percent, percentage concentration, molal concentration), colligative properties (vapour pressure lowering of a solvent by a solute, boiling point elevation, freezing point depression, osmotic pressure).

AP Thermodynamics.doc (30) / Thermodynamcs.Answers.doc (11) – Topics covered include: basic definitions, the first law of thermodynamics (including P–V work, enthalpy, calorimetry, bomb calorimetry, Hess’s Law and bond energies), the second law of thermodynamics, the third law of thermodynamics, Gibb’s free energy, standard free energies, the effect of temperature on free energy, free energy and equilibrium, free energy and maximum work, the free energy of non-equilibrium systems, the relationship between Kp and Go.

Thermodynamics Data Table.doc (3) – This data table includes sufficient data for solving the exercises involved in the unit AP Thermodynamics. In addition to the specific heats for the phases of water and the molar heats of fusion and evaporation for water, the main table includes values of ,  and So for selected elements and compounds.

AP Acids.doc (28) / AP Acids.Answers (9) – Topics covered include: calculating total dissociation constants, the reason behind the periodic trend in acid strengths, pH of acid-base mixtures, the amphoteric nature of aqueous metal ions, buffer calculations (including the Henderson–Hasselbalch equation), Lewis acids and bases, complex ions and coordination compounds, writing the formulae of coordination compounds, the rules for naming coordination compounds, isomerism in complexes.

AP Electronic Structure of Atoms.doc (34) / AP Electronic Structure of Atoms.Answers.doc (8) – Topics covered include: background to the development of modern atomic theory (the wave behavior of light, the birth of the quantum, the photoelectric effect, and atomic line spectra), review of the energy level diagram for hydrogen, the shapes of electron orbitals, review of the energy level diagram for polyelectronic atoms, review of electron configurations, quantum numbers (the principal quantum number, the angular momentum quantum number, the magnetic quantum number, the electron spin quantum number), ionization energies, electron affinity, oxidation state, some relationships between electron configurations and periodic properties, crystal field splittings in transition metal complexes (including high spin and low spin octahedral complexes, other geometries, the colour of transition metal complexes).

AP Valence Bond Theory.doc (29) / AP Valence Bond Theory.Answers.doc (10) – Topics covered include: introduction (initial definitions, orbital diagrams, hybridization), review of Lewis structures, Valence–Shell Electron–Pair Repulsion (VSEPR) theory, sigma and pi bonds, resonance, drawing the resonance structures of a neutral molecule, formal charge, molecular orbital theory (including background theory and terminology, the MO’s and energy levels of molecules made from H and He, the MO’s and energy levels of molecules involving second row elements, a brief comment on delocalized MO’s, a comparison of valence bond and molecular orbital theory).

AP Electrochemistry.doc (7) / AP Electrochemistry.Answers.doc (4) – Topics covered include: electrolysis calculations, Gibb’s free energy of electrochemical cells, concentration cells, and the Nernst equation.