This checklist covers everything in the module. Complete everything on this list before moving to Module THREE.
We spend a lot of time talking about what good teaching looks like, but at some point you have to sit down and plan a lesson. That means choosing what students should learn, deciding how you will teach it, and figuring out how you will know whether they learned it. Those three decisions drive everything else. This module gives you the tools to make them well.
Chapter 4 introduces the planning framework: Bloom's revised taxonomy for thinking about cognitive demand (are your students remembering facts or analyzing relationships?), performance objectives for spelling out exactly what students will demonstrate, and the alignment model for making sure your objectives, instruction, and assessment all point in the same direction. Chapter 9 shifts from planning to method, with a deep look at small-group discussion and cooperative learning as instructional strategies. You will learn six specific discussion formats, the research behind why structured group work outperforms the "get in groups and talk about it" approach, and the five features that separate cooperative learning from group seating. Chapter 10 takes you into inquiry teaching and higher-level thinking, covering the 13 inquiry processes, the difference between guided and unguided inductive inquiry, and the metacognitive techniques that help students become aware of how their own minds work.
These chapters build on each other in ways that matter for your assignments. You cannot write a strong objective without understanding the taxonomy, because the taxonomy gives you the verbs. You cannot design a group activity worth running without a clear objective to anchor it. And you cannot teach inquiry without knowing which thinking skills you are asking students to practice. In this module, you will have worked through all of these connections, both in the readings and through the interactive activities built into this page.
When your objectives, instruction, and assessment all point in the same direction, students know what to study and trust the system is fair. When all three align, students know what to study and trust the system is fair.
A performance objective has three components: what the student will do, under what conditions, and how well. You will practice building them from the ground up in this module.
Cooperative learning requires five specific features. These five features are what keep all group members contributing. The research on this is clear, and the chapter gives you the fix.
Inquiry and metacognition are teachable habits, and Chapter 10 shows you how to build them into your instruction so students learn to monitor their own thinking.
All the learning materials for this module are on a single page, organized into the eight tabs at the top. You can work through the pages in order, which follows the logic of the chapters, or jump to the section you need. Click any card below to go to the tab.
On this tab you will find the readings, assignment descriptions, rubrics, bonus resources, and the reflection exit ticket.
An interactive pyramid, the Knowledge Dimension, and a drag-and-drop sorter where you classify classroom tasks by cognitive level. You will need this for Parts 2 and 4 of your Standards and Objectives assignment.
The three components of a performance objective (performance, conditions, criterion), a build-an-objective activity, and a broken-objective exercise. Practice here before writing Part 5 of your assignment.
How to unpack a standard, the alignment model from Figure 4.2, seven steps for teaching to standards, and effect size. This connects to Parts 1 and 2 of the assignment, where you select and dissect an NC standard.
All of Chapter 9: six discussion types, four basic group concepts, five cooperative learning features, and interactive activities for matching discussion formats to classroom scenarios.
All of Chapter 10: the 13 inquiry processes, guided vs. unguided inquiry, problem solving, discovery learning, metacognition, and the ten teacher behaviors that encourage thinking.
Eight branching scenarios drawn from all three chapters. Each one puts you in a classroom with a teacher who has a problem. You diagnose it, and the feedback explains the reasoning whether you get it right or wrong.
Seven required videos on Bloom's taxonomy, objective writing, and academic standards. Each video has a written summary explaining what to watch for and how it connects to the readings.
Keep these in mind as you work through the chapters and activities.
In this module, you will be able to:
A quick reference. These are the figures behind the ideas in Chapters 4, 9, and 10.







This is the major assignment for the module. It asks you to take a real NC standard for your subject and grade level and work through the full planning process: from the standard itself, through Bloom's taxonomy, to a complete performance objective.
The assignment has five parts:
Part 1: Standards Summary (20 pts). Select one NC Standard Course of Study standard for your subject and grade level. Write a brief summary that identifies the standard, explains what it asks students to know and do, and describes why it matters for your content area. This is your analysis of what the standard requires, not a copy-paste.
Part 2: Standard Dissection (20 pts). Break the standard into its component parts. Identify the content knowledge it requires (the nouns) and the cognitive processes it demands (the verbs). Map those verbs to Bloom's revised taxonomy. This step shows you whether the standard asks students to remember, understand, apply, analyze, evaluate, or create.
Part 3: Student Activity Design (20 pts). Design one classroom activity that addresses the standard. Describe the activity in enough detail that another teacher could run it. Include materials needed, time estimate, and the specific part of the standard it addresses.
Part 4: Bloom's Level Justification (20 pts). Identify the Bloom's level of your activity and justify that classification. Use the verb list from the taxonomy. Explain why the activity operates at that level and not at a higher or lower one. If your activity spans multiple levels, explain which level is primary and why.
Part 5: Complete Learning Objective (20 pts). Write one performance objective for your activity using all three components from Orlich's model (Figure 4.3): performance statement (an observable action using a Bloom's verb), conditions (the circumstances under which the student performs), and criterion measure (how well the student must perform). Your objective must align with the standard you selected, the activity you designed, and the Bloom's level you identified. Alignment is the concept. Alignment is also the assessment.
Assignment: Canva Anchor Chart
Submit in Canvas →| Criterion | Pts | Top | Mid | Low |
|---|---|---|---|---|
| Part 1: Standards Summary | 20 | Standard is identified by number and title. Summary explains what students must know and do. Includes why the standard matters for this content area. Written in the student's own words. | Standard is identified. Summary covers what students must know and do but lacks specificity or does not explain why the standard matters. 14 | Standard is copy-pasted without analysis, or summary is vague and does not address the content. 8 |
| Part 2: Standard Dissection | 20 | Nouns (content) and verbs (processes) are identified. Verbs are mapped to the correct Bloom's level with justification. The mapping shows understanding of the taxonomy. | Nouns and verbs are identified. Bloom's mapping is present but may have minor errors or lacks justification. 14 | Dissection is incomplete or Bloom's mapping is missing or incorrect. 8 |
| Part 3: Activity Design | 20 | Activity is described in enough detail for another teacher to run it. Materials, time estimate, and connection to the standard are included. The activity addresses the cognitive level identified in Part 2. | Activity is described but lacks detail in one area (materials, timing, or standard connection). Another teacher could run it with clarification. 14 | Activity is vague or does not connect to the standard. Another teacher could not replicate it from the description. 8 |
| Part 4: Bloom's Justification | 20 | Bloom's level is identified and justified using specific verbs from the taxonomy. Explains why the activity operates at this level and not a higher or lower one. Shows understanding of the hierarchy. | Bloom's level is identified. Justification is present but does not fully explain why other levels were ruled out. 14 | Bloom's level is missing, incorrect, or unjustified. 8 |
| Part 5: Learning Objective | 20 | Objective contains all three components (performance, conditions, criterion). Uses an observable Bloom's verb. Aligns with the standard, the activity, and the Bloom's level from Parts 1 through 4. | Objective has two of three components, or uses a Bloom's verb that does not match the identified level. Partial alignment. 14 | Objective is missing components or uses a non-observable verb ("understand," "appreciate"). Alignment is absent. 8 |
Part 1: The Chart (25 pts). The visual product itself. It should be clear, readable, accurate, and designed for classroom use. Imagine this chart hanging on the wall of your future classroom where students can reference it during instruction.
Part 2: Narrative (20 pts). Two paragraphs. The first paragraph explains what concept you chose and why you chose it. The second paragraph describes how you would use this chart in your classroom: when would students see it, how would you introduce it, and what would it help them do?
Professional Quality (5 pts). Clean design, readable fonts, no spelling or grammar errors, appropriate use of color and visual hierarchy.
VoiceThread Discussion #2
Record a video or audio response to the prompt below, then reply to at least two peers with substantive comments that extend, question, or connect to their ideas.
Submit in Canvas →| Criterion | Pts | Top | Mid | Low |
|---|---|---|---|---|
| The Chart | 25 | Concept is presented clearly and accurately. Visual hierarchy makes the chart easy to scan. A student could use this chart independently during instruction. Design choices serve the content. | Concept is present and mostly accurate. Chart is readable but layout or hierarchy could be stronger. Functional but not classroom-ready. 18 | Concept is unclear, inaccurate, or the design makes the chart hard to read. Would not help a student during instruction. 10 |
| Narrative | 20 | Paragraph 1 explains the concept and the rationale for choosing it. Paragraph 2 describes a specific, plausible classroom use: when students would see it, how the teacher would introduce it, and what it would help students do. | Both paragraphs are present. One is underdeveloped or generic. 14 | Only one paragraph, or both are vague and do not demonstrate understanding of the concept. 8 |
| Professional Quality | 5 | No spelling or grammar errors. Fonts are readable. Color choices support readability. Looks like something a professional teacher would display. | Minor errors or one design choice that reduces readability. 3 | Errors in spelling or grammar. Design choices hinder readability (tiny fonts, clashing colors, cluttered layout). 2 |
Initial post (30 pts). Clear, specific, and grounded in the module content. References at least one concept from the readings.
Two peer replies (10 pts each). Each reply engages with the peer's idea and adds to the conversation.
Self-Check
Before You Move On The Standards and Objectives assignment requires you to connect five different skills: identifying a standard, dissecting it using Bloom's, designing an activity, justifying your Bloom's classification, and writing a complete objective. Each part builds on the one before it. If you skip a step or do them out of order, the final objective will not align with the rest of your work. Alignment is the concept. Alignment is also the assessment.
Exit Ticket
After you have completed all the readings, activities, and assignments for this module, respond to the prompt below. Submit your response in the Exit Ticket: Module 2 assignment in Canvas (25 points).
If you can answer that question with specifics, you have the working knowledge this module is built to give you. If the answer feels vague, go back to the tab that covers the concept you are unsure about and work through the activity again.
Submit in Canvas →Every time you write a lesson plan, you make a decision about how hard you want students to think. That decision has consequences. If you aim too low, students coast through material they already know. If you aim too high without building the foundation, they flounder. Bloom's taxonomy ► Walkthrough gives you a shared language for making this decision deliberately, with six cognitive levels that run from simple recall at the bottom of the pyramid to original creation at the top.
The taxonomy was first published in 1956 by Benjamin Bloom and a committee of educational psychologists. In 2001, Lorin Anderson (one of Bloom's former students) and David Krathwohl revised it in two important ways: they converted the category names from nouns to verbs, because thinking is something you do rather than something you have, and they moved Synthesis to the top of the pyramid, renaming it Create. The revised version is what we use in this course, and it is what your textbook covers in Chapter 4.
According to your textbook, the taxonomy helps teachers in five specific ways: planning appropriate instruction, designing valid assessments, aligning instruction with objectives, sequencing learning from simple to complex, and communicating expectations to students. The levels are cumulative, which means each one builds on the ones below it. You cannot analyze something you have not first understood, and you cannot evaluate an argument you have not analyzed. The pyramid is a sequence, and that sequence matters when you sit down to write objectives.
The revised version also added a second dimension called the Knowledge Dimension, which crosses all six cognitive levels and includes four types of knowledge: factual (terminology, specific details), conceptual (categories, principles, theories), procedural (techniques, methods, criteria for using skills), and metacognitive (awareness of one's own cognition). When you combine the two dimensions, you get a table that can classify any learning objective with precision. A task that asks students to "recall the steps of the scientific method" is Remember + Procedural. A task that asks students to "evaluate their own problem-solving strategy" is Evaluate + Metacognitive. Your textbook presents this as the Taxonomy Table, and it is worth spending some time with.
Click any level of the pyramid to see its definition, key verbs, and examples. Each level builds on the one below it.
Here is the sentence that gets written in lesson plans more than any other: "The student will understand photosynthesis." It sounds reasonable. It might even be what you want students to do. The issue is you cannot see understanding. It is an internal process, invisible to the teacher, and therefore impossible to measure. What you can see is a student explaining the stages of photosynthesis, or comparing photosynthesis to cellular respiration, or designing an experiment to test the effect of light color on photosynthesis rate. Those are observable actions, and each one tells you something specific about what the student knows.
This is why the taxonomy matters so much for objective writing. It gives you verbs you can observe and measure. "Explain" is at the Understand level. "Compare" is Analyze. "Design" is Create. Each verb pins down what the student will do and what you will see them doing when they do it. "Understand" gives you none of that. When you sit down to write an objective for your assignment, the verb you choose is the single most important decision you will make.
As you work through the sort activity below, focus on the verbs. The verb in a learning task determines its Bloom's level. If the verb asks students to list, define, or recall, you are at Remember. If it asks students to judge, defend, or justify, you are at Evaluate. Read each task, find the verb, and let the verb guide your placement.
Drag each task into the Bloom's level where it belongs. Use the verb in each task as your guide.
The revised taxonomy added a second axis: the Knowledge Dimension. It crosses all six cognitive levels and includes four types. Factual knowledge is the basic elements students must know (terminology, specific details). Conceptual knowledge involves the interrelationships among elements within a larger structure (classifications, categories, principles, generalizations, theories, models). Procedural knowledge is "how to do it" knowledge (subject-specific skills, techniques, methods, and criteria for determining when to use appropriate procedures). Metacognitive knowledge is knowledge about cognition in general as well as awareness and knowledge of one's own cognition (strategic knowledge, knowledge about cognitive tasks, self-knowledge). When you combine this dimension with the six cognitive levels, you can classify any learning task with precision. A task that asks students to "recall the steps of the scientific method" is Remember + Procedural. A task that asks students to "evaluate their own problem-solving strategy" is Evaluate + Metacognitive.
Bloom is the default in K-12 planning, but two newer frameworks show up in standards documents and professional development. Knowing the differences helps you read what is asked of you and explain your choices.
Six cognitive levels plus a Knowledge Dimension. Best for writing objectives and classifying tasks.
Four levels of complexity, not difficulty. The default for analyzing assessment items and standards alignment in most state frameworks.
Adds metacognition and motivation as separate levels above thinking. Useful when you want to plan for engagement, not just cognition.
Use Bloom for objective writing and quick classification. Use Webb when working with state assessment items or analyzing the rigor of a task you are designing. Use Marzano when you need to plan for the affective side of learning, not just the cognitive.
In Part 4 of the Standards and Objectives assignment, you will identify the Bloom's level of a classroom activity and justify that classification. The justification is where most students struggle. It is not enough to say "the activity is at the Apply level." You need to explain what verb the activity uses, why that verb belongs at Apply rather than Understand or Analyze, and what the student is doing that makes it observable. The pyramid above and the sort activity give you practice doing that classification before you write it up for your assignment.
An objective describes what the student will be able to do after instruction. That sounds simple, but the emphasis on "do" is where most new teachers trip up. "I will lecture about the Civil War" describes what the teacher plans to do, not what students will learn from it. "The student will sequence five major events of the Civil War on a timeline with 100% accuracy" is an objective, because it names an observable action (sequence), sets conditions (a timeline), and defines a criterion (100% accuracy). The shift from teacher activity to student performance is the whole ballgame.
Your textbook makes the case that objectives do three jobs at once. They guide your instruction by telling you what to teach and how deep to go. They shape your assessment by defining what you will measure. And they communicate expectations to students by making the target visible before the lesson begins. When all three of these elements align, you get what the textbook calls curriculum alignment: objectives, instruction, and assessment all pointing in the same direction. When all three align, students trust the system is fair. You teach one thing, you test another, and students learn that preparation does not pay off. We will come back to alignment on the Standards tab, because it is the thread that runs through every piece of this module.
Your textbook (Orlich et al., Figure 4.3) identifies three required parts. Every performance objective must include all three. If one is missing, the objective is incomplete.
Notice how the three components work together. The condition sets up the task. The performance statement names the observable action. The criterion measure tells both teacher and student how good is good enough. Remove any one of these and the objective loses precision. Without a condition, you do not know under what circumstances the student must perform. Without a criterion, you cannot determine whether the student succeeded.
Here is a finished objective with the reasoning behind each piece. Hover or tap any colored part to see why it is there. Use this as the model for your own objectives.
Given a blank diagram of the water cycle , the student will label and describe all six stages with at least 90 percent accuracy.
Names the constraint. Students do not get to use their notes. This also tells me what to prepare: a printed blank diagram for every student.
"The student" could be implicit, but stating it forces me to think about who this serves. Mager calls this the A in ABCD. The textbook treats it as part of the performance.
"Label and describe" are both observable. I can see them happen. I avoided "understand" because I cannot measure understanding directly. Bloom level: Apply.
"All six stages" names the scope. Without it, "label" is vague: one stage? Two? This makes the goal countable.
"At least 90 percent accuracy" is the standard for success. Specific. Defensible. A student labeling 5 of 6 correctly knows whether they hit it. "Correctly" alone is not a criterion; it is an adjective.
Drag the chips into the workspace in correct order: Condition first, then Performance, then Criterion. The gray chips are distractors. They look like objective components but they are too vague to be measurable.
The textbook's three-component model (performance, conditions, criterion) is one approach. Two others appear regularly in K-12 planning documents and professional development. Each carves up the same territory differently.
Mager's classic four-part model. Names the learner explicitly, then describes what they will do, the situation, and the standard for success.
Originally a goal-setting framework from the management world, now common in K-12 IEP goals, professional growth plans, and standards-based grading. Useful as a checklist after you write an objective.
Part 5 of the Standards and Objectives assignment asks you to write one complete performance objective using all three components. The most common mistakes students make: using a non-observable verb (like "understand" or "learn"), forgetting to include the condition, or writing a criterion that is too vague ("correctly" is not a criterion; "with at least 80% accuracy on a 10-item assessment" is). Before you write your objective for the assignment, practice here. If you can build the correct objective in the drag-and-drop activity and fix the broken one in the self-check, you are ready for Part 5.
Standards define what students should know and be able to do at each grade level. They tell you what to teach, but they do not tell you how to teach it. That gap between the what and the how is where your professional judgment lives, and it is the source of both the power and the frustration that teachers feel about standards-based instruction.
In North Carolina, the NC Standard Course of Study lays out content standards for each subject and grade level. Every public and charter school follows the same standards, but teachers choose the methods. Two fifth-grade classrooms in the same building might teach the same standard through completely different activities, and both teachers would be doing their job well, as long as students meet the standard by the end of the unit. For your Standards and Objectives assignment, you will select one NC standard for your subject area and work through the process of unpacking it, which is what the rest of this tab is about.
Standards also have critics, and you should know the major arguments. The Fordham Foundation graded state standards across the country and found an average grade of C-minus. Some researchers argue that certain standards are developmentally inappropriate for the grade levels where they appear. Others argue that standards narrow the curriculum by pushing teachers to focus only on tested content at the expense of everything else. Your job as a teacher candidate is to understand these debates, form your own view, and plan instruction that addresses the standards for your subject area while still using the best methods available to you. The standards tell you where to go. The methods are yours to choose.
Your textbook calls this the "Teaching Alignment Model" (Figure 4.2). The idea is simple: objectives, instruction, and assessment must all point in the same direction. Drag the three elements into the correct sequence below.
When alignment breaks, students notice. When you teach one thing and test another, students stop trusting the system. When your objectives target analysis but your instruction only covers recall, students miss the practice they need to perform at the expected level. Alignment is a practical principle. It is what makes students trust your class is fair.
Your textbook (pp. 101-102) outlines a process for working from a standard to a lesson. Click each step to expand it. Notice how each step builds on the one before it. This is the process you will follow in the Standards and Objectives assignment.
Your textbook introduces a concept that will change how you read educational research: effect size. The formula is straightforward: effect size equals the experimental group mean minus the control group mean, divided by the standard deviation of the control group. An effect size of 0.25 translates to roughly 10 percentile points of improvement. An effect size of 0.50 means about 19 percentile points. An effect size of 1.0 means about 34 percentile points.
John Hattie, in his meta-analysis of over 800 studies, uses 0.40 as the threshold for a strategy worth pursuing. Anything below 0.40 is below what you would expect from ordinary instruction. Anything above 0.40 means the strategy is doing something beyond what would happen anyway. When someone tells you a teaching method "works," you now have a question to ask: what is the effect size? If they cannot tell you, be skeptical. If the effect size is below 0.40, the method may not be worth the instructional time it costs.
Parts 1 and 2 of the Standards and Objectives assignment ask you to select a standard and dissect it. The dissection requires you to identify the nouns (content) and verbs (cognitive processes) in the standard, then map those verbs to Bloom's taxonomy. This is the alignment work in action. You are starting with the standard and working forward through the planning process: standard to Bloom's level, Bloom's level to activity, activity to objective. If you can do the alignment activity above and answer the quick check correctly, you understand the concept well enough to apply it in your assignment.
It is teachers who have created positive teacher-student relationships that are more likely to have the above-average effects on student achievement.
John Hattie, Visible Learning (2009)Hattie's Visible Learning meta-analyses rank 252 influences on student achievement. The threshold for effort worth your time is 0.40. Here is how the strategies in this module compare.
The red linemarks the 0.40 effect-size threshold. Source: Hattie, Visible Learning (2009 and updates). Values approximate; rounded for readability.
Chapter 9 opens with a scene: Alexander Daniels observes a middle school class where desks are arranged in circles, eight students per group, and the buzz of conversation fills the room. The topic is cell phones. Students talk, debate, and build summary statements on newsprint. The teacher walks the room, sitting briefly with each group, then steps back. After the discussion, groups report to the class. Alexander is impressed by the level of responsibility and control the students show.
Discussion is a teaching technique that involves an exchange of ideas, with active learning and participation by all concerned. It requires the teacher to develop a viewpoint and to tolerate and encourage a wide range of ideas. Discussion is an active process of student-teacher involvement in the classroom environment (see Brookfield & Preskill 2005). It allows a student to discover and state a personal opinion or perspective, not just repeat what the teacher or text has already presented.
Before you can run a discussion, your students need to know how to listen. These are learned behaviors, not instincts.
Four elements shape how you organize groups in your classroom.
Your textbook identifies four concepts you need to understand before initiating small-group discussions: process, roles, leadership, and cohesion.
The manner of process in small-group discussion is verbal interaction. Communication processes are more vital for successful discussions. Students must be taught and encouraged to listen to what each person is saying and to respond appropriately. Involvement for everyone is part of the process.
Every member of a discussion group has a role. Group members may be assigned roles by the teacher or by the group as it matures. Each role has specific privileges, obligations, responsibilities, and powers. As the teacher, the term facilitator best describes your role. A facilitator gives students the skills, materials, and opportunities they need to direct their own learning experiences. As facilitator, you need to be walking around the class, listening, observing, and encouraging every student to participate. All class members must be rotated through the roles so that everyone gets experience as the leader and in the other roles.
The single most important role in a small group is that of the leader. Leadership is a learned quality. So as teacher, you have to model how a leader opens the discussion, calls on participants, clarifies statements, and seeks everyone's comments. Leaders have to be taught how to plan the discussion, organize the group for maximum efficiency, direct the discussion, and coordinate different individual assignments. Attributes that enhance leadership ability may include personal popularity, academic standing, temperament or sociability, thinking ability, and speaking ability.
The final concept is group cohesion: the tendency of a group to stick together and support its members. A cohesive group displays a "we" attitude. The members support one another and show pride in belonging. The tone the teacher sets is all-important here. In fact, possibly the most important predictor of your ability to facilitate small-group discussion is your own set of attitudes and feelings. Appreciating small-group discussion methods requires an appreciation of the atmosphere or emotional setting of the classroom.
Five functions keep a discussion moving. Click each to learn more.
Your textbook presents six basic types of small-group discussion. Each type serves a different instructional purpose. Click each to explore.
Brainstorming is a simple and effective skill-building technique to see when a high level of creativity is desired. The entire class can participate in a brainstorming activity, but the shorter the time available for the discussion, the smaller the number of participants should be (which should, in any case, be between 4 and 15 persons). All ideas, except for obvious plays, should be acknowledged and recorded. No criticism is to be made of any suggestion. Members should build on one another's ideas. In the final analysis, no idea belongs to any individual, so encourage "piggybacking." The leader should solicit ideas or opinions from silent members and give them positive reinforcement. Quality is less important than quantity, but this does not relieve group members of the need to think creatively.
The tutorial discussion group is most frequently used to help students who have difficulty learning or processing information at a satisfactory rate. The group is very small (usually four or fewer) and focuses on a narrow range of materials. Teachers of subjects such as reading, mathematics, home and family living, art, and business often use the tutorial group for remedial instruction. It is an excellent way to facilitate student handling of manipulatives, allowing the teacher to evaluate students' motor skills and helping students understand the relationship between themselves and body functions (see Downs 2006). The tutorial leader performs three major functions: questioning students to pinpoint the exact problem that has blocked learning, providing feedback or skills to facilitate learning, and encouraging students to ask questions and to seek answers among themselves.
One of the least complex types of small groups used for discussion is the task group. Each student in a task group can make significant contributions to the discussion. A prerequisite to using task groups is delineating specific tasks for all group members. A task group has clearly defined goals and clearly identified individual assignments and roles: for example, recorder, library researcher, artist, leader, and evaluator. The jigsaw technique is a method in which each member of the small group is given a specific piece of textual information. Each group member must then contribute to the group so that all can learn the entire textual content. Thus, each member must help the others to learn.
Role playing is a process-oriented group technique in which students act out or simulate a real-life situation. It may involve almost any number of participants, although 7 to 10 is ideal. Thorough preparation will help students enjoy the process and experience of role playing. A key point to emphasize with your class is that they should not be overly concerned about interactions that might, in other situations, be perceived as personal attacks. In role playing, the emphasis is not on the psyche of any participant, but on re-enacting or dramatizing a situation and demonstrating how different characters would react in that situation.
Steps of Role Playing: (1) Briefing students: exploring the topic and establishing the situation. (2) Conducting the drama: behaving as an actor in the described situation. (3) Debriefing: analyzing how the roles were played and identifying what concepts were learned.
A simulation is a representation or re-creation of a real object, problem, event, or situation. Although it mirrors reality, a simulation removes the possibility of injury or risk to the participants. The learner is nevertheless an active participant, engaged in demonstrating a behavior or previously acquired skills or knowledge. Simulations can be used to motivate students, provide information, enhance conceptual development, change attitudes, assess performance, and provide interdisciplinary activities. Goals of simulation include: developing changes in student attitudes, changing specific behaviors, preparing participants for assuming new roles in the future, helping individuals understand their current roles, increasing students' ability to apply principles, reducing complex problems to manageable elements, illustrating roles that may affect students' lives, motivating learners, developing analytical processes, and sensitizing individuals to other persons' life roles.
If you wish to emphasize problem solving, then you will find the inquiry discussion group very valuable. Any number of students may participate in the discussion group, but six students per team is an ideal size. The purposes of an inquiry discussion group are to stimulate scientific thinking, develop problem-solving skills, and help acquire new facts through a process of discovery and analysis (Sparapani 1998). The teacher may be the leader of this type of group. If, however, you have a student who has demonstrated good questioning skills and understands the concept under consideration, then allow that student to be the leader. Inquiry groups stimulate students to become skillful askers of questions. They also allow students to test the validity of hypotheses, determining by direct experience whether they are valid.
Inquiry groups are most appropriate for disciplines that lend themselves to problem solving, such as science and social science (George & Becker 2015; Yell 1998).
Drag each classroom scenario to the discussion type it best represents.
Why use positive feedback in a small-group setting? First, as you already saw in Chapter 8, positive feedback increases responses. Many students do not respond because they are afraid of giving an incorrect reply and receiving a negative teacher reaction. If they give a partially correct response, then some positive feedback from you should motivate students to try again. Second, students need to learn to cooperate with and support others. Students can and will learn to give positive feedback to one another, but only if you are not the only one giving feedback. Gradually shift the responsibility for providing feedback to the group. This helps to promote active learning and the group takes ownership of the positive group atmosphere.
Cooperative learning has much in common with the methods already discussed. Its essential characteristic is that it builds positive interdependence by teaching students to work and learn together in a small-group setting. Traditional cooperative learning groups consist of three to four students who work on an assignment or project together in such a way that each group member contributes to the learning process and then learns all the basic concepts being taught.
Traditional models of cooperative learning share five distinct features (Jacobs, Power & Loh 2002; Johnson & Johnson 2004). Drag each feature to its correct definition.
Research supports these eight benefits across grade levels and subject areas.
Getting cooperative learning started takes careful planning. Here are the key steps.
Your textbook lists these social skills students need to practice within cooperative groups.
Chapter 10 opens with Diana Shaw's social studies class. Students work in small groups of three to five. A few students sit at the computer center. The teacher is helping a small group of students with learning disabilities align their data on a large poster. Walls are covered with student work. Their project resembles the output of a professional convention.
What do we mean by thinking? The word is a construct or a label we apply to processes we can observe only indirectly through actions or products. In other words, when someone behaves in a careful, prudent manner, we infer that behavior resulted from deliberate thought. We propose that thinking is a combination of knowledge, skills or processes, and attitudes. Knowledge: the more knowledge you have about any area, the more effectively you can think about it (Schallert 2006; Shayer & Adey 2002; Steinberg & Spear-Swerling 1996). Effective thinking also requires particular attitudes, such as a disposition to perceive and relate to one's surroundings in particular ways.
Four attitudes distinguish effective thinkers from passive learners.
Higher-level thinking skills, also known as critical thinking, consist of the application of the top two levels of Bloom's taxonomy: analysis and synthesis, plus evaluation (determining value). Critical thinking is a multistage construction of meaning.
Nearly all writers agree on the generic aspects of thinking highlighted in the Core Skills of Thinking box (Lyons & LaBoskey 2002; Wallace & Bexley 2003). These five skills are core skills. To build these skills requires careful teacher planning, appropriate sequencing, and a continuous building of cognitive and attitudinal factors.
The basic processes of inquiry learning are listed below in order of complexity. Each process requires progressive intellectual development: as you develop one process, it spurs development of others. Click each to learn what it involves.
Identifying objects, object properties, and changes in various systems; making controlled observations; ordering a series of observations.
Making simple and complex classifications; tabulating and coding observations into groups based on shared properties.
Drawing conclusions based on observations; constructing situations to test these conclusions against new data.
Identifying sets and their members and then progressing to higher mathematical processes to quantify observations.
Identifying and ordering lengths and then areas, volumes, weights, temperatures, and speeds using appropriate tools and units.
Identifying movement and direction; learning rules governing changes in position across time and space.
Constructing graphs and diagrams to describe simple and then more complex phenomena; presenting written and oral reports of findings.
Interpolating and extrapolating from data; formulating methods for testing predictions against outcomes.
Distinguishing between operational and nonoperational definitions; constructing operational definitions for new problems that specify observable, measurable criteria.
Distinguishing hypotheses from inferences, observations, and predictions; constructing and testing hypotheses against evidence.
Describing data and inferences based on them; constructing equations to represent data; relating data to hypotheses; making generalizations supported by experimental findings.
Identifying independent and dependent variables; conducting experiments; describing how variables are controlled to ensure valid results.
Interpreting accounts of scientific experiments; stating problems; constructing hypotheses; conducting experimental procedures from start to finish.
Inductive inquiry can be approached in two different ways: guided and unguided. If you provide the specifics (the data or facts) and want the students to make the generalizations, then you are conducting guided inductive inquiry. If you allow students to discover the specifics themselves before they make generalizations, then the process is unguided inductive inquiry.
Drag each classroom scenario into the correct category.
Problem-solving models of instruction are based on the ideas of John Dewey (1916, 1938). Among his major educational contributions was his advocacy of a curriculum based on problems. He defined a problem as anything that gives rise to doubt and uncertainty. Dewey held that a problem has to be appropriate to students' level of study, has to be important to the culture, and has to be important and relevant to the student.
The student or class must first recognize that a problem exists and that it needs attention.
Move from general awareness to specific identification. What exactly is the problem? State it precisely.
Define key terms so all participants are working from the same understanding. Ambiguous language creates ambiguous solutions.
What are the constraints? Time, resources, scope? Establishing limits keeps the investigation focused and manageable.
Subdivide the problem so that it may be investigated systematically, one element at a time.
Collect data that are relevant to each task element. Not all data are equal; relevance is the filter.
Search the data for meaningful relationships, patterns, and connections between elements.
Based on the synthesized data, make generalizations and suggest alternatives to rectify the problem.
Communicate what was found. Science progresses when results are shared, challenged, and replicated by others.
Strike (1975) establishes two categories of discovery: absolute discovery (something discovered for all humankind, like DNA's molecular reproduction) and relative discovery (a concept that is already known by others but is found out for himself or herself for the first time by an individual learner). Strike also presents four modes of discovery.
Strike provides a basic criterion that is essential for any act to be labeled a discovery: the discoverer must communicate both the what and the how to others. If you discover the Lost Dutchman Mine in Arizona but do not tell a single individual, then you have not made a discovery.
These ten behaviors, drawn from the research, help students improve their thinking processes. Match each behavior to its description.
Critical thinking skills are also called strategic learning: students develop a capacity to accelerate their own learning. The textbook lists four assumptions about learners and learning that shape how we teach these skills.
Metacognitive skills: being aware of your thought processes while you are thinking. Research indicates that effective problem solvers subvocalize; in other words, they talk to themselves, constantly reading the situation, rechecking their progress, and evaluating whether their thinking is moving in an appropriate direction. Five techniques help students build these skills.
Consider a high school unit in US history that focuses on the colonial period. One way to combine content and thinking skills coverage is to have students prepare a large wall chart listing specific characteristics of several colonies. These might be geographic features, economic characteristics, or social backgrounds and attitudes. From these data, students could infer and hypothesize about colonies' possible attitudes toward future events, such as declaring independence. Depending on the instructional emphasis, students could be involved in virtually all thinking processes, from lower-order skills (observing and classifying) to higher-level skills (distinguishing relevant from irrelevant statements).
Use your thought processes as examples. This will help make students aware of their own thought processes (see the fourth and fifth teacher behaviors in the Instructional Strategies box and the related discussion of metacognition). Share with students the thinking you follow in planning a lesson, making a conclusion, or performing any relevant activity. Have your students identify the particular skills you use and suggest other strategies you might follow. Such demonstrations can take the form of printed handouts, audiotapes, or even a contributed problem-solving exploration of a student's question.
Have students summarize material in their own words. Ask students to outline the steps in a math solution, list the causes of a social condition, give reactions to an assembly speaker, and so on. Writing summaries is itself both an exercise of thinking skills and a generator of those skills. We must think to write; in addition, when writing, we frequently come up with new statements and ideas we did not think of beforehand. Writing is probably useful in learning because it forces the student to develop criteria, to identify some ideas as more important than others. This activity stimulates and reinforces the higher-level thinking skills.
Have students describe what is going on in their minds while they are thinking (Ricek 2004). Have students practice this technique in pairs for 3 to 5 minutes several times every week to overcome unfamiliarity with the method (and to practice cooperative learning). Once they are accustomed to the process, students can read their thinking processes in larger groups or in front of the entire class to maintain the skill.
Teaching metacognition can also include having students monitor their own academic behavior. Do they have test-taking strategies? Are the strategies effective? Might they be improved? What about learning strategies? Do they know whether they learn better from visual, auditory, or kinesthetic stimuli? Do they have strategies to help in each area? All of these questions are relevant to students' school experience. All are areas that you can explore with students as you help them share with one another and provide useful information.
The "guided" in guided inductive inquiry is not a synonym for "easy." It is a design principle traceable to Vygotsky. Inquiry asks students to work just beyond what they can do alone, in a Zone of Proximal Development the teacher constructs through prompts, examples, and patient questions. The teacher's guidance is the scaffold; remove it too soon and students fall, hold it too long and they never stand up.
The ten teacher behaviors that encourage thinking (page 300) are scaffolding behaviors. Each one creates space for students to do cognitive work the teacher could do faster. That is the point. Speed is not the goal.
Inquiry teaching and higher-level thinking are not separate subjects you add to an already crowded curriculum. They are how you teach the subjects you already have. Every content area can support observing, classifying, inferring, hypothesizing, and experimenting. Every classroom can make space for problem solving and discovery. The ten teacher behaviors are daily habits, not special occasions. Plan for thinking. Reach for meaning. Ask thought-provoking questions. Make students aware of their mental processes. Call on students to explain. Be patient. Thinking instruction should be part of each lesson, every day. Significant change requires at least a semester.
Differentiation is simply attending to the learning needs of a particular student or small group of students rather than the more typical pattern of teaching the class as though all individuals in it were basically alike.
Carol Ann TomlinsonBloom, performance objectives, cooperative learning, and inquiry are all powerful methods. Whether they reach every student depends on a separate question: how will you vary instruction for the range of learners in front of you? Carol Ann Tomlinson's framework names four things you can adjust.
Differentiation is not creating four separate lesson plans. It is making deliberate choices about which dimensions of the lesson will vary for which students. Pick one or two per lesson, not all four.
Look back through Chapters 4, 9, and 10. The discussion types in Chapter 9 (brainstorming, tutorial, role playing, simulation) are differentiation of process. Anchor charts and visual organizers (Module 2 assignment) are differentiation of content. Letting students choose between an essay and a video for the assessment is differentiation of product. None of these methods are inherently differentiated. They become differentiated when you decide who needs what.
Direct instruction, cooperative learning, and inquiry are not interchangeable. Each one does a different kind of cognitive work. Pick the situation closest to yours.
Reading about instructional design is one thing. Recognizing a design problem in the middle of a classroom is something else. These four scenarios drop you into classrooms where something has gone sideways, and your choices determine what happens next. Your choices determine what happens next. Each response leads to a different outcome, and you deal with the consequences before you move on.
This is closer to how teaching works. You make a decision, you see the result, and then you make another decision based on what happened. The scenarios cover objectives (Ch. 4), curriculum alignment (Ch. 4), cooperative learning (Ch. 9), and inquiry teaching (Ch. 10). Work through all four. If a wrong turn teaches you something the right answer would not have, that is the point.
Look at the paths you took. For each wrong turn, go back to the relevant chapter tab and find the section that covers the concept. Write one sentence explaining what you misunderstood and what you understand now. The act of naming your mistake and connecting it to the source material is one of the metacognitive techniques from Chapter 10. You are practicing the thing you just read about.
A math objective at Bloom-Apply, an English objective at Create level, and one objective with five mistakes baked in. Use the first two as additional models. Use the third as a checklist of what to avoid in your own work.
Apply means using a learned procedure in a new situation. The challenge in math is making "apply" different from "remember." Hover each piece to see the moves.
Given five real-world word problems involving distance, time, and speed , the student will solve for the unknown variable using the formula d = rt and showing all work , with at least four problems solved correctly.
"Word problems" not bare equations. The Apply level requires students to use the formula in a new context, not just plug numbers into an exercise that already names which formula to use.
"Solve for the unknown variable" is observable. The student writes the steps, and you see them. Bloom-Apply is the level when students choose and use a formula, not just recall it.
"Showing all work" forces the cognitive moves to be visible. A student who guesses and lands on the right answer does not pass this objective. The work is the assessment, not the answer.
"At least four of five" is countable and defensible. A student who solves three correctly knows they did not hit it. "Correctly" alone would not survive a grade dispute.
Create is the top of Bloom's. The verb has to demand original work. The criterion has to make originality measurable without crushing it.
After analyzing three persuasive essays from the textbook , the student will compose an original 500-word op-ed on a current local issue , applying at least three rhetorical techniques (ethos, pathos, logos) that target a specific audience identified in the opening paragraph.
"After analyzing three" makes Create dependent on Analyze. Students do not invent a genre cold; they study models, then produce. This is also a fairness move: every student starts from the same examples.
"Compose" is unambiguously Create. "Original" rules out rewriting one of the three essays. "500 words" sets a scope: long enough to develop, short enough to grade.
"Current local issue" anchors the work to something the student cares about. Bounded enough to keep the assignment teachable but loose enough to honor student voice.
"At least three of ethos, pathos, logos" gives you a checkable threshold. Ties the writing back to the rhetoric the unit covered. Prevents "I just wrote my opinion" submissions from passing.
Forces a rhetorical decision visible in the opening paragraph. You can grade for this. "Persuasive writing" without a named audience is just writing.
Five things are wrong with this objective. Hover each colored piece to see what is broken and how to fix it. If your draft has any of these, rewrite before submitting.
The student will appreciate the importance of Shakespeare's tragedies by completing the worksheet correctly.
You cannot see appreciation happen. You cannot grade it. Replace with a verb you could film: analyze, compare, defend, write. Same family of banned verbs: understand, know, learn, value, enjoy.
Importance to whom, in what way? Replace with a concrete topic: "the use of soliloquy," "the role of fate," "Shakespeare's portrayal of grief." Pin the abstraction to something countable.
"Shakespeare's tragedies" is 10 plays plus or minus. Pick one. "Hamlet" or "Othello" can fit a unit. The whole genre cannot. A scope you cannot teach is a scope you cannot assess.
What is on the worksheet? Multiple choice? Short answer? An essay? "Completing the worksheet" tells the student nothing about the cognitive work. Name the actual task: "answer five short-response questions about Hamlet's Act 3 soliloquy."
It is an adverb. Where is the count? The percentage? The rubric? Replace with something measurable: "with at least 80 percent accuracy" or "scoring 4 of 5 on the analysis rubric." If a student could argue with you about whether they hit it, the criterion is too vague.
These instructor walkthroughs cover Chapters 4 and 10. Each video does what the textbook cannot: it lets you watch someone think through a concept in real time and shows you the reasoning behind the choices an experienced teacher makes.
One practical suggestion: as you watch, write one sentence connecting something in the video to something specific from your reading. Not a summary, a connection. You will use these connections in your VoiceThread discussion, and having them written down gives you a concrete starting point when it is time to record your response.
These instructor videos walk through each chapter's key concepts. Copies of the PowerPoint slides are in the Modules section on Canvas.
Pick one chapter walkthrough above. Write one sentence connecting something the instructor said to something you read in the chapter. Not a summary. A connection: what idea from the video reinforced, clarified, or complicated something from the reading? Bring it to the VoiceThread discussion as a starting point when it is time to record your response.
Click the card to flip. Mark each one "Got it" or "Review again" to see what to study next.
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Match each term to its definition. Click two cards to flip them. Matching pairs stay open.
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Match each cognitive level to its action.
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Match each discussion format to its purpose.
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These are optional. They expand on concepts from the chapters and may help with your assignments.
The source document for the revised taxonomy. If you want to understand why the original Bloom's was updated and what changed, this is where to start.
Pearson · Library or purchaseJennifer Gonzalez walks through objective writing with classroom examples. Practical, specific, and short enough to read in ten minutes.
The full standards database for North Carolina, organized by subject and grade level. You will need this for Part 1 of the Standards and Objectives assignment.
The meta-analysis behind the 0.40 effect size threshold from Chapter 4. Hattie ranked 252 influences on student achievement. The full list is searchable online.
Spencer Kagan's structures (Think-Pair-Share, Jigsaw, Round Robin) are widely used implementations of the cooperative learning features from Chapter 9.
Short video and article showing cooperative learning done well in a real classroom. Useful for seeing the five features in action.