Honors Chemistry is designed for students who have demonstrated strong ability in previous science courses. In this fast-paced, demanding course, the main topics--which include atomic theory, nuclear chemistry, periodicity, chemical reactions, stoichiometry, gases, solutions, reaction kinetics, equilibrium, acid-base theory, oxidation-reduction, and organic chemistry--are studied at an advanced level, with an focus on both conceptual understanding and problem-solving. Quantitative aspects of chemical concepts are emphasized throughout the course. Laboratory experimentation is an integral part of this class, and students write a number of formal reports which require demonstration of a sophisticated understanding of the relevant theories and principles. Students are expected to work cooperatively in both laboratory and classroom settings and to take individual responsibility for meeting the objectives of the course. This course is particularly well suited for students considering careers in science, engineering, or medicine.
Questions? Need help? E-mail Dr. Vanderveen Students are NOT allowed to use graphing or programmable calculators during classroom tests. (This will be strictly enforced.) If you need advice on selecting or using a suitable calculator, ask Dr. VanderVeen or for extra help before the test.
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General Course Information
Unit 9: Chemical Bonding
Why and how do atoms combine to form compounds? In this unit, we will draw Lewis structures to describe bonding and discuss several models to describe chemical bonding. Attractions between molecules will also be considered. A number of interactive and visual resources will be used to enrich the learning experience. This year, students will complete a detailed creative writing assignment as the summative assessment for the unit. Expect the occasional pop quiz!
2018-2019 Science Fair
Interested in participating in this year's science fair? Please consult with Dr V
Unit 10: Nuclear Chemistry
In this brief unit, we will consider the factors that make for unstable nuclei--and what then happens to those radioisotopes. We will learn to balance nuclear equations, solve radioactive dating problems involving half-lives, and calculate binding energies. We will also consider medical applications of radioisotopes and the effects of radiation on human tissue.
Unit 11: Gases
Aah, gases, everyone's favorite unit. Governed by the simple elegance of Kinetic Molecular Theory, we can use the ideal gas law to predict the behaviors of gas samples by looking at the variables of pressure, volume, temperature and moles. Graham's Law, the Combined Gas Law, Boyle's Law, Charles' Law and Guy-Lussac's Law--we'll visit them all. Keep your calculators handy!
Unit 12: Liquids and Solutions
In this brief unit, we will revisit solutes, solvents, and concentration units. We will interpret solubility graphs to solve problems and relate this to our knowledge of intermolecular attractions. We will also explore the differences between colloids and suspensions. We will explore the effect of adding solute on the freezing point of solutions in the laboratory and learn about other "colligative" properties.
Unit 13: Kinetics and Equilibrium (Ch. 17)
These topics are interrelated and fit well into a single unit. First, we will study reaction rates, using collision theory as the guiding principle. (We will supplement the textbook, which doesn't go into enough detail regarding reaction kinetics.) We will then explore reversible reactions and develop the concept of equilibrium and the equilibrium constant. We will also investigate the effect of stresses on equilibrium systems.
Unit 14: Acids, Bases, and Salts (Chapter 16)
We eat oranges and cook with vinegar--everyday sources of acids. We clean the windows with ammonia solutions and use Drano to unclog the sink--everyday sources of bases. What is the difference between acids and bases? What does the pH scale tell us? And best of all--titrating! We will also apply our understanding of equilibrium to acids and bases.
Unit 15: Redox and Electrochemistry
Some chemical reactions convert chemical energy into electrical energy. This occurs when atoms gain electrons ("reduction") or lose electrons ("oxidation"). We will learn to recognize this class of reaction. Additionally, these reactions can be harnessed to create batteries! We will use our knowledge of oxidation-reduction processes (or "redox") to predict the voltage produced in electrochemical cells.
Balancing chemical equations is easy! Just remember the number one rule: conservation of mass. Classifying reactions by type makes it possible to predict the products for a wide variety of chemical changes.
Unit 5: Compositional Stoichiometry and the Mole
This unit marks an emphasis on the mathematics of chemistry. We will revisit dimensional analysis and introduce a new conversion factor, the mole and Avogadro's number. (Why does she have a stuffed mole named Avogadro?) We will also learn about ways to quantitatively describe the composition of substances: gram formula mass, percent composition and empirical formulas. We will use the molarity formula to describe the composition of solutions. While most of the material is straightforward, even easy, students will find plenty of challenge problems, too!
Organic Chemistry Handouts
Unit 6: Stoichiometry
Sometimes, chemistry is like cooking. How much product can we make from a given amount of the ingredients? Factor label (aka, dimensional analysis) takes a leading role as we explore mass and mole relationships in chemical reactions. This year, we will incorporate some organic chemistry into this unit.
Unit 7: Energy
In this unit, we will explore the relationship between chemistry and energy--an important relationship as our society debates our dependence on petroleum and the renewable energy sources. The true beauty of thermodynamics lies in the durability of these ideas, as these principles are completely independent of atomic theory. State functions are extremely useful, and now you can discuss the reasons why reactions occur and find the enthalpy change of a reaction using two (related) but apparently dissimilar methods. Laboratory experiments will reinforce our knowledge of heating/cooling problems, phase changes, and problem solving strategies. We will also introduce the concepts of heat of reaction and driving forces for natural processes.
Unit 8: Modern Atomic Theory and Periodicity
We will compare early ideas on atomic structure to the the modern, quantum mechanical model of the atom. As we learn to describe the arrangements of electrons in atoms, we will be ready to relate element reactivity to electron configurations. We will also discuss explore the regular and repeating trends in the properties of the elements. We will examine the arrangement of the periodic table and the connections between electron configurations and reactivity. This will include exceptional electron configurations, typical ions formed by the elements, and Lewis dot structures to represent those most important electrons, the valence electrons.
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Neat link: A History of the Periodic Table, from the Kojo Nnamdi show (WAMU)
This page was last updated on 02/10/2019