Contents: CK-12 Chemistry - Intermediate
Unit 1: Overview of Chemistry
- Chapter 1: Introduction to Chemistry
- Chapter 2: Matter and Energy
- Chapter 3: Measurement
Unit 2: Organization of Matter
- Chapter 4: Atomic Structure
- Chapter 5: Electrons in Atoms
- Chapter 6: The Periodic Table
- Chapter 7: Chemical Nomenclature
- Chapter 8: Ionic and Metallic Bonding
- Chapter 9: Covalent Bonding
Unit 3: Quantitative Relationships
- Chapter 10: The Mole
- Chapter 11: Chemical Reactions
- Chapter 12: Stoichiometry
Unit 4: Phases of Matter
- Chapter 13: States of Matter
- Chapter 14: The Behavior of Gases
- Chapter 15: Water
- Chapter 16: Solutions
Unit 5: Chemical Reactions
- Chapter 17: Thermochemistry
- Chapter 18: Kinetics
- Chapter 19: Equilibrium
- Chapter 20: Entropy and Free Energy
- Chapter 21: Acids and Bases
- Chapter 22: Oxidation-Reduction Reactions
- Chapter 23: Electrochemistry
Unit 6: Nuclear, Organic, and Biochemistry
- Chapter 24: Nuclear Chemistry
- Chapter 25: Organic Chemistry
- Chapter 26: Biochemistry
The Teacher's Edition (TE)
The CK-12 Chemistry - Intermediate Teacher's Edition complements CK-12's Chemistry - Intermediate FlexBook®. The TE comprises six strands: Teaching Strategies & Tips, Differentiated Instruction, Enrichment, Science Inquiry, Common Misconceptions, and Assessments.
Each unit and chapter will have a general overview. Each chapter section will also include an introduction and teaching strategies. The majority of content will be presented by individual lesson.
This Teacher's Edition will focus on eight subtopics for each lesson:
- Key Concept
- Lesson Objectives
- Lesson Vocabulary
- Check Your Understanding
- Teaching Strategies
- Reinforce and Review
- Points to Consider
Worksheets and Assessments
- The CK-12 Chemistry - Intermediate Workbook complements CK-12's Chemistry - Intermediate FlexBook® and contains worksheets for each lesson.
- The CK-12 Chemistry - Intermediate Quizzes and Tests complements CK-12's Chemistry - Intermediate FlexBook® and contains one quiz per lesson, one chapter test, and one unit test.
Pacing the Lesson
Each chapter has guidelines for the minimum number of class periods needed to teach each lesson. We have strived to keep each chapter under a week of class time, which would cover the complete FlexBook® resource in 25 weeks, providing ample time for flexibility. We realize this is a tremendous amount of material, and many teachers may choose not to utilize the complete FlexBook® resource, providing even more time for flexibility. As the teacher, you can determine if your class needs additional (or less) time on certain lessons/chapters, and adjust the pacing accordingly.
For a year's study of Chemistry, we recommend a science and/or lab notebook in which students may:
- Answer the Check Your Understanding questions.
- Answer/reflect on the Points to Consider questions.
- Write additional questions about an upcoming lesson, chapter, or unit of study.
- Draw pictures of living organisms and diagrams of life processes.
- Take notes and define academic vocabulary.
- Keep a record of pertinent web sites to access relevant information.
- Write up lab activities.
- Write up ideas for possible long-term projects.
- Keep reflections on what they have learned.
Students should date each entry and refer back to their ideas earlier in the year, reflecting on their deepening understanding.
Throughout the TE, we will provide numerous examples of strategies that can be used to make the content accessible to students. Many strategies and activities have been included as web site links, and we recommend that these be previewed before assigning to the students. Traditional examples of general teaching strategies, differentiated instruction, enrichment, science inquiry, and reinforcement strategies will be provided.
Teaching Strategies: General
- Appreciate what’s difficult for students, helping them develop scientific ways of thinking.
- Vary class activities, using a wide variety of resources to aid students in deepening their understanding of scientific issues.
- Give students opportunities to participate in scientific investigations to understand “doing science.”
As in any good teaching, bring up topics with which students are already familiar to give students a context to assimilate new understandings. Give these topics a “twist” to engage student’s motivation. Break complex tasks into smaller tasks, show examples of quality outcomes, offer hints or verbal cues, use mnemonic devices, chants and/or songs for activities requiring memorization of facts or procedures. Use graphic organizers such as concept maps; teach key vocabulary before reading the FlexBook® textbook. Continually ask questions to guide and facilitate students in making predication, or to encourage deeper investigations or thinking on a topic. Model activities before students participate. And, ask for student contributions about their past experiences in the field.
Chemistry words can be intimidating for students to read, say, and talk about. As teacher, you can make a game of the words, and take a few minutes to do a daily or weekly dissection in class. Make sure students know that it is not a big deal to not know the word when you first come into contact with it, but to learn to break it down into pieces, figure out the meaning of each piece, and then put it all back together again to find the meaning.
Teach your students how to read, comprehend, and summarize scientific text. Each lesson offers an opportunity to use different techniques to guide students to synthesize the core elements of the lesson. Try one or two different techniques each time:
Use illustrations in the student edition as a tool for teaching content, exploring ideas, and probing students’ misunderstandings.
Have students apply higher-level thinking or other relevant skills as they relate to lesson content (e.g., predicting, forming hypotheses, drawing conclusions, interpreting data, observing, classifying, making inferences, comparing and contrasting, identifying cause and effect, analyzing). This might be achieved through a simple activity, answering questions, class discussion, and/or partner work.
Stimulate class discussion of a topic. This could include scripted questions to ask the class, with expected or sample answers. The discussion tips should be specific and focused. For example, don’t write: “Discuss Darwin’s theory of evolution.” Instead, write: “Guide students in discussing why Darwin’s theory was not widely accepted in his own lifetime.” Ask: “How did Darwin’s theory of evolution conflict with prevailing views of living things?”
Do (and fully describe) an in-class demonstration to illustrate or explain a process, concept, etc. Keep in mind constraints on classroom time and resources. Include a concluding sentence or scripted question that relates the demonstration to the process or concept.
Have students do a simple hands-on activity that will help them better understand a topic or process. Explain fully how the activity is to be done. This could be a pencil-and-paper activity or other activity that does not involve materials, although readily available classroom materials could be used. Again, conclude with a sentence or question that ties the activity with the topic or process being studied.
Teaching Strategies: Differentiated Instruction
These strategies can be used for all three types of student populations that are typically addressed by DI (i.e., ELL, LPR, SN), but a particular population has been specified each time a strategy is used. The strategy can be tailored somewhat to that population, even if it’s only by referring to the population type in the strategy (e.g., “Pair English language learners with native speakers of English”).
Have students make a KWL chart, where K = Know, W = Want to Know, and L = Learned. Students should fill in the K and W columns before reading and the L column after reading a particular passage or lesson.
Give students cloze sentences (basically, fill-in-the-blank sentences) about important lesson concepts. Students are instructed to fill in the missing words as they read the lesson.
Divide the class into groups and have the groups walk around the room to read and discuss posted questions or topics (each on a large sheet of paper). Each group (using a different color pen) answers the questions or writes comments about the topics. They also read and respond to answers/comments written by other groups. This is followed by discussing the answers/comments with the class, reviewing misunderstandings they reveal, or by groups summarizing what they know about one or more questions/topics.
Assign questions or topics to individual students to think about. Pair ELL students with native speakers and LPR students with more proficient readers to work together on answering the questions or discussing the topics.
Assign this vocabulary strategy, which involves students drawing a large box and dividing it into four parts labeled “Definition,” “Drawing,” “Example,” and “Non-example.” Assign students a vocabulary word and tell them to fill in each part of the box for that word.
Have individual students, pairs, groups, or the class as a whole make a cluster diagram organizing lesson concepts.
Have individual students, pairs, groups, or the class as a whole make a concept map organizing lesson concepts.
Have individual students, pairs, groups, or the class as a whole make a Venn diagram organizing lesson concepts.
Have individual students, pairs, groups, or the class as a whole make a compare/contrast table for specific lesson concepts, processes, etc. (e.g., photosynthesis and cellular respiration; mitosis and meiosis). You may need to provide the column and row headings for the table.
Have individual students, pairs, groups, or the class as a whole make a cycle diagram to show the steps in a cyclical process (e.g., life cycle of amphibians).
Have individual students, pairs, groups, or the class as a whole make a flow chart to show the steps in a process (e.g., photosynthesis).
Have students divide a sheet of paper in half, on the left side write the main ideas from a passage or lesson (skipping several lines between the main ideas). On the right side, students are instructed to fill in important details about each main idea as they read.
Post lesson vocabulary words and their definitions, examples, etc., on a bulletin board or wall. Refer students to the word wall as they study lesson content.
Teaching Strategies: Enrichment
Although online and/or library research is always an option for enrichment, it tends to be overused. Avoid it unless it is really relevant and likely to be helpful for the other students in the class. Whatever students are assigned to do, they should be given a chance to share their work with the class through an informal oral presentation, a written report, etc. In some cases (e.g., making a board game or crossword puzzle), the product can be used by the class to reinforce or review lesson content.
- Research a Topic
- Present a Role-Play
- Teach a Topic
- Create a Video
- Create a Poster
- Debate an Issue
- Interview an Expert
- Create a Model
- Demonstrate a Process
- Take a Survey
- Write an Essay
- Make a Board Game
- Make a Crossword Puzzle
- Create a Web Site
- Make a Diagram
- Make a Diorama
- Make a Display
- Write a Research Proposal
- Make a Video
- Write a Rap (Song)
- Present a PowerPoint Show
- Lead a Discussion
Teaching Strategies: Science Inquiry
These strategies should get students involved in thinking or acting like a scientist. They should help the students learn lesson content by encouraging them to be actively engaged in scientific thinking and/or using scientific methods.
- Ask a Research Question: e.g., based on hypothetical observations.
- Formulate a Hypothesis: e.g., based on a research question. Must be specific and testable; could also ask students to describe data that would support or disprove the hypothesis.
- Develop a Research Plan: e.g., to test a specific hypothesis. Could focus on types of variables, controls, etc.
- Analyze Data: Data could be in a graph or table that is provided in the SE or TE or students could find the data online.
- Solve a Problem: requiring application of lesson concepts, procedures, etc.
In addition to online quizzes, this could be a quick teacher-directed activity or something students do alone or in pairs to make sure they understand lesson content. It should probably be aimed at the average to below-average students in the class, though reinforcement activities are important for all students. Some suggestions are listed below. The goal is to reveal to the teacher or to the students themselves what they know and what they still don’t understand. The activity should include a sentence suggesting a way for students to learn what they don’t know (e.g., “Find definitions in the FlexBook® textbook of any vocabulary words you did not know.”). This can easily be preceded or followed with a Lesson Review. Either you or a student(s) leads a discussion to review the lesson. You can use the Lesson Summary from the student edition. Clarify any issues and answer any questions students may have.
Take an Online Quiz: Have students track their own level of mastery of concepts as measured by quizzes. Additionally, you could have students take the quiz before and after teaching the material and have them track their growth.
Make Flashcards: This activity could be used for boldface vocabulary words or important concepts; have students use the flashcards to quiz a partner.
Label a Drawing: The drawing could be art from the SE with the labels deleted.
Outline the Lesson: This could be done with a partner or as a class using an overhead projector.
Ask Questions: Each student turns in a question on an index card. Then, the teacher answers or reviews material relevant to those questions that are asked most frequently.
List and Discuss: Students make a list of something (e.g., reproductive isolating mechanisms), and then partners compare and discuss their lists.
Use Vocabulary: Students use the lesson vocabulary words in sentences or a brief paragraph.
Make a Quiz: Students write a few fill-in, matching, or true/false questions and then use them to quiz a partner.
Make a Drawing: Students create a simple sketch to demonstrate comprehension of a process (e.g., cell division).
Complete a Chart: Students complete missing parts of a diagram or fill in cells of a table that have missing information.
Check Your Understanding
This section includes questions related to previously presented information that the authors consider important for the student to have access to the information in the current lesson.
Points to Consider
Questions in this section serve as a segue into the next lesson (or chapter). Ask students to read the Points to Consider at the end of the lesson in their FlexBook® textbook. They can be answered individually or as an opening to lead a class discussion. Use these questions to assess student understanding and misconceptions before beginning the next unit of study.
Making the FlexBook® Textbook Flexible
An important advantage of the FlexBook® textbook is the ability it gives you, the teacher, to choose the chapters and lessons that you think are most important for your own classes. The following information is provided to help you decide whether to include this chapter or certain lessons in this chapter in your students’ FlexBook® student edition. You should also consult the standards correlation table when selecting chapters and lessons to include in the FlexBook® resource textbook.
- As the introductory chapter in this FlexBook® resource, CK-12 recommends the inclusion of the material within this chapter in any course on Chemistry.
- Students should read this entire chapter before reading the remaining chapters.
- It is recommended that you include all the lessons of this chapter.
Image copyright 3445128471, 2014. www.shutterstock.com. Used under license from Shutterstock.com.
Chemistry is the study of the composition of matter and the changes that matter undergoes. Chemists study both the macroscopic and the microscopic world. The discipline of chemistry can be divided into several branches, such as organic chemistry and analytical chemistry. Chemistry plays a vital role in many aspects of the modern world, from agriculture to medicine to energy production. As do all scientists, chemists employ the scientific method to accumulate information about the particular chemical systems that are being studied.
See the following Web sites for appropriate activities:
Pacing the Lessons
Class Period(s) (60 min)
1.1 What is Chemistry
1.2 The Scientific Method