Students are to reinforce the process of mole to mass conversion by practicing upon page 393, problem #’s: 63, 64, 65, and 66.
Reinforcement: Section 12.1 Review
Once students have completed their study guide on Section 12.1, Chromosomes and Inheritance, they are to answer page 240, 1-9 on their notebooks as a further reinforcement of the subject matter.
Lab Activity: Demonstrate and Elaborate upon Mutational Types
Students will work in groups of three to demonstrate their understanding of various types of mutations that include chromosomal and gene mutations. Students will utilize colored paper clips to show examples of chromosomal mutations such as deletion, inversion, translocation, and nondisjunction, as well as point mutations that include substitution, deletion, and insertion. In each point mutation example, students will explain the outcome of such a mutation.
Section 11.2: Stoichiometric Calculations (Mole to Mole Stoichiometry)
Students are to reinforce mole to mole conversion by solving problem #’s: 61 and 62 on page 393 as well as 6 and 7 on page 983.
Section 12.1: Chromosomes and Inheritance
We will complete our discussion on chromosomes and inheritance in terms of sex-linkage and chromosome mapping as well as chromosomal mutations and gene mutations. In the remaining time, we will reinforce our discussed topic further.
Chapter 12: Inheritance Patterns and Human Genetics
As a precursor to learning the subject matter on Inheritance Patterns and Human Genetics, students are to create a word wall that is based upon the several concepts and ideas that are presented in the chapter.
Homework, Section 11.1: Defining Stoichiometry
Students are to practice upon the stoichiometric process in terms of mole ratios by doing problem #’s: 1 and 2 page 371 as well as 3 and 4 page 372.
Section 11.1: Defining Stoichiometry
Students will learn that the amount of each reactant present at the start of a chemical reaction determines how much product can form. This is the main principle of stoichiometry, measuring components to reflect the quantative relationship between reactant amount used and amount of the product produced through a chemical equation.
First, we will focus on mole ratios prior to learning molar conversions through chemical equations.
Chapter 10 Wrap Up!
We will complete any DNA presentations, and we will wrap up this material by further reinforcing protein synthesis processes of transcription and translation prior to Easter break!
Lab Activity: Determining the Empirical Formula
Students will work within their assigned group to determine the empirical formula by experimentation using a specified amount of a metal (magnesium) as it undergoes combustion. Students will collect the necessary data using a 12-cm ribbon of magnesium, a crucible with its cover, scale, a triangular metal, a clamp, and a Bunsen burner. The students will follow a specified procedure to calculate and figure out the empirical formula of magnesium oxide.