Monday, October 16, 2023

Listening & Speaking (Implicit & Explicit)

 FOCUS QUESTION

How does light behave?

SPECIFIC OBJS.
1.Listen and respond to implicit and explicit information 
2.Generate and answer questions from implicit or explicit information received

CONTENT SUMMARY




















ENGAGE
Students what can you recall about explicit and implicit information?
Let us quickly read the content summary to refresh our memory.

EXPLORE
Now I will be reading you a passage on what causes reflection. I want you to listen carefully in order to identify explicit and implicit information.





























Reading: Page 183 Primary English Across The Curriculum Grade 6

Now can you provide me with some explicit and explicit  information in the passages.

EXPLAIN
Tell what implicit and explicit information are.
Identify implicit and explicit information from the passage.
 
EXTEND/ELABORATE
Examine explicit sentences from the passage and supply  statements that could be considered implicit.

EVALUATE 

Read the paragraph below, then identify at least three explicit information and three implicit information, using the T-Chart below.










FOLLOW UP PRACTICE EXERCISES

ACTIVITY 1

ACTIVITY 2

ACTIVITY 3

ACTIVITY 4

ACTIVITY 5

ACTIVITY 6


🌟 LESSON PLAN OVERVIEW

  • Strand: Listening & Speaking / Reading Comprehension

  • Integrated Subject: Science (Physical Science - Light)

  • Topic: Implicit and Explicit Information

  • Duration: 1 hour

  • Grade: 6

  • Focus Question: “How does light behave?”


🎯 OBJECTIVES

By the end of the lesson, students should be able to:

  1. Listen and respond to implicit and explicit information from a text or discussion.

  2. Generate and answer questions based on implicit and explicit information received.

  3. Use scientific information about how light travels to make inferences and justify responses.


🔍 5E Model Breakdown


1. Engage (10 mins)

Activity: "What's in the Bag?"

  • Show students a covered box with a flashlight inside.

  • Shake it, switch it on and off (letting the light flicker faintly through holes), but don’t show what's inside.

  • Ask: "What do you think is in the box?" and "What makes you think that?"

🗣 Prompt discussion around explicit clues (I saw light) and implicit clues (I inferred it's a flashlight because it flickered, made a sound, etc.)

STEM Link: Relating observations (Science) to inferences and reasoning (Language Arts).


2. Explore (10 mins)

Activity: "Light Maze"

  • Use flashlights and mirrors to create a simple maze of light beams on desks or the board.

  • Let students explore how light reflects and travels in straight lines.

  • Ask: “What did you see?” and “What does that tell you about light’s behavior?”

Students record:

  • Explicit info: e.g., “Light bounced off the mirror.”

  • Implicit info: e.g., “Light must travel in straight lines because it changed direction only when it hit the mirror.”


3. Explain (15 mins)

Activity: "Reading for Clues – The Light Story"

  • Read a short science passage titled: “The Journey of a Light Ray” (Create a simple story of a ray of light bouncing off a mirror and passing through a glass window).

Discuss:

  • What facts are directly stated (explicit)?

  • What do you have to figure out or infer (implicit)?

📝 Model how to use question stems:

  • Explicit: What does the passage say about…?

  • Implicit: Why do you think…? What can we assume about…?


4. Elaborate (15 mins)

Activity: "Inference Detective STEM Challenge"

  • In groups, give students a set of clues (mixed with explicit and implicit info) about light behavior (e.g., shadows forming, sunlight through glass, rainbow through prism).

Task:

  • Solve a “light mystery”:
    “A boy is standing in front of a window. There is a rainbow on the floor. What happened?”

  • Students identify:

    • What clues are explicit

    • What they infer

    • How light behavior helps solve the puzzle

🧠 Encourage use of both scientific reasoning and language comprehension skills.


5. Evaluate (10 mins)

Three-Tier Differentiated Evaluation:

TierActivityLevel
Tier 1 – BasicMatch explicit facts from a reading passage to given questions. (e.g., “What did the light do when it hit the mirror?”)Below Grade Level
Tier 2 – IntermediateRead a short paragraph and identify both explicit and implicit information. Answer mixed question types.On Grade Level
Tier 3 – AdvancedGiven a scenario (e.g., light entering a dark room), students generate their own inference-based questions and answer them.Above Grade Level

🧩 STEM Integration

  • Science: Understanding properties of light (reflection, straight-line travel).

  • Technology/Engineering: Using flashlights, mirrors, and possibly lenses or prisms.

  • Mathematics: Spatial reasoning with angles/reflection.

  • Literacy: Deep reading, comprehension, inference, and response using language structures.


🔄 Differentiation Strategies

  • Visuals & Props: Light maze, flashlight demonstrations, illustrations for visual learners.

  • Collaborative Groups: Pair struggling readers with stronger ones.

  • Sentence Frames: Provide starters for implicit/explicit responses (e.g., “I can tell this because…”).

  • Tiered Activities: See 3-tier evaluation for ability-based tasks.


📌 MATERIALS NEEDED

  • Flashlights

  • Mirrors

  • Transparent/glass objects

  • Reading passage: "The Journey of a Light Ray"

  • Printed scenario cards

  • Chart paper or worksheets


💡 HOMEWORK/EXTENSION

Students observe how light behaves at home (e.g., light through a window, shadow in the afternoon) and write a 2-paragraph reflection, highlighting one explicit and one implicit piece of information.



Materials

It was a bright morning when Ray, a tiny beam of sunlight, slipped through the small gap in the window. He stretched out quickly, moving in a straight line across the room. Suddenly, he hit the shiny surface of a mirror on the wall.

Without stopping, Ray bounced off the mirror and shot across the room in a new direction. He lit up a dark corner that had been hidden in shadow just moments before. On his journey, Ray passed through a clear glass vase filled with water. As he entered the water, something strange happened—he bent slightly and slowed down.

When Ray finally landed on the wall, he had spread into many colors like a rainbow. Though no one could see the full journey he took, the glowing wall told the story of how light behaves—bouncing, bending, and sometimes even breaking into color.


✅ Sample Questions (Use during class discussion):

  • Explicit:

    1. What did Ray hit after he entered the room?

    2. What did Ray pass through after the mirror?

  • Implicit:

    1. Why did Ray bend when he entered the vase of water?

    2. What can we tell about how light behaves in different materials?


Tuesday, February 16, 2021

Topic: Representing shared portions (Ratio and Percentage. (Lesson 4)

 FOCUS QUESTION

How can I represent shared portions?

SPECIFIC OBJS.
1. Apply the concept of ratio to percentage forms and use the symbol % correctly
2. Solve problems requiring the conversion of fractions to percentages and vice versa.

CONTENT SUMMARY


ENGAGE
What do you remember about percentage?
What is the symbol that represents percent? make it in the air.
Now ratios can be written as percentages and vice-versa.
First you have to write the given ratio as a fraction.

Examine the example below.

EXPLORE

























How did I arrive at 25?


Look at another method.

























Let's listen to this video clip on ratios to percentages.




Now you can also convert a percentage to a ratio. 

Eg. Write 20% as a ratio.
Step 1: Write the given percentage as a fraction

               20/100
Step 2 : Simplify the fraction where possible

              20/100 = 1/5
Step 3: Write the simplified fraction as a ratio in the form below.
             1:5

You can watch the video clip below for further clarity.


EXPLAIN
Now try these two problems and be ready to explain your steps.

(1) Write the ratio 4: 5 as a percentage
(2) Write 65% as a ratio


EXTEND/ELABORATE
Choose a partner and complete any three of the following,














EVALUATE 

























FOLLOW UP PRACTICE EXERCISE

🧮 Grade 6 Mathematics Lesson Plan

📘Topic: Representing Shared Portions – Ratio and Percentage

⏰Duration: 1 Hour

🎯Focus Question: “How can I represent shared portions?”

🎓Objectives:

  1. Apply the concept of ratio to percentage forms and use the symbol % correctly.

  2. Solve problems requiring the conversion of fractions to percentages and vice versa.


🔍 5E Model Lesson Plan

1. Engage (10 minutes)

Activity: “Let’s Share a Chocolate Bar”

  • Show students a chocolate bar divided into 10 pieces using a real object or image.

  • Ask:

    "If you and your friend share 3 out of 10 pieces, how much did you get in terms of a fraction? A ratio? Can you guess the percentage?"

  • Record and discuss responses.

  • Connect this to the idea of expressing shared portions in different ways (fraction, ratio, percent).

🌟 STEM Integration: Use digital polling (Mentimeter or Google Form) to collect and display responses live as percentages and fractions.


2. Explore (15 minutes)

Hands-On Group Activity: “Fraction–Ratio–Percentage Match-Up”

  • Students are placed in mixed-ability groups of 3–4.

  • Each group receives a set of cards with:

    • Fractions (e.g., 1/2, 1/4, 3/5)

    • Ratios (e.g., 1:2, 3:5)

    • Percentages (e.g., 50%, 25%, 60%)

  • Task: Match each fraction with its equivalent ratio and percentage.

  • Discuss patterns (e.g., "A ratio of 1:4 means 1 part out of 5, so what percent is that?").

🧩 Differentiation:

  • Provide scaffolded hints for struggling students (e.g., fraction bars or conversion charts).

  • Challenge early finishers to create their own set of match-up cards for peers.


3. Explain (10 minutes)

Mini-Lesson: Converting Forms

  • Model with board visuals:

    • How to convert fraction → percent
      (e.g., 34=34×100=75%\frac{3}{4} = \frac{3}{4} \times 100 = 75\%)

    • Percent → fraction
      (e.g., 40%=40100=2540\% = \frac{40}{100} = \frac{2}{5})

    • Ratio → percent
      (e.g., 1:4=15=20%1:4 = \frac{1}{5} = 20\%)

  • Emphasize correct use of the % symbol.

📘Students take notes and work through 2 examples together.


4. Elaborate (15 minutes)

STEM Challenge: “Data Detectives”

  • Students collect real-world data from a mock STEM survey (e.g., Favorite Juice Flavors: Apple – 6, Orange – 3, Pineapple – 1).

  • Convert the results into:

    • Fractions (e.g., 6/10)

    • Ratios (e.g., 6:10 or simplified)

    • Percentages (e.g., 60%)

  • Share group findings and reflect:

    “How does representing shared portions in different forms help us interpret data clearly?”

📊 STEM Integration: Represent survey results using a simple bar graph or pie chart in Excel or Google Sheets.


5. Evaluate (10 minutes)

Three-Tier Differentiated Assessment Task

TierTask Description
Tier 1 (Support)Match the following: ½ → 50%, 25% → ¼, etc. (Simple match-up worksheet with visuals)
Tier 2 (Core)Convert the following:
a) ¾ to %
b) 40% to a fraction
c) 2:5 to a %
Tier 3 (Challenge)Word Problem: “A class of 25 students has 10 girls. What percentage of the class are girls? Express as a fraction, a ratio, and a percentage.”

✅ Collect and review student work to determine mastery and misconceptions.


✨ Closure (Quick Wrap-Up) – 5 Minutes

  • Revisit the focus question:

    “How can I represent shared portions?”

  • Students respond using all three forms: fraction, ratio, percentage.

  • Homework (optional): Convert 5 real-life scenarios (e.g., sports wins/losses, meals eaten) into fraction, ratio, and percentage.


Saturday, January 16, 2021

Probability

 Probability

Focus Question: In what ways can I represent and interpret information?

Objectives:

  1. Formulate all possible outcomes of an experiment (e.g., tossing a fair coin, rolling a fair die).

  2. Perform and report on a variety of probability experiments.

Content:


MATHEMATICS LESSON PLAN (Grade 6)

Strand: Statistics & Probability
Topic: Collecting and Representing Data
Duration: 1 hour
Focus Question: In what ways can I represent and interpret information?
Objectives:

  1. Formulate all possible outcomes of an experiment (e.g., tossing a fair coin, rolling a fair die).

  2. Perform and report on a variety of probability experiments.


📊 Materials Needed

  • Coins and dice

  • Tally/frequency table templates

  • Graph paper

  • Markers or colored pencils

  • Rulers

  • STEM challenge worksheet

  • Projector/whiteboard

  • Cromebooks, teacher's blogsite


🌟 5E Model Lesson Plan

🔍 ENGAGE (5 minutes)

  • Activity: Show a quick video clip or perform a live demo of a coin toss and dice roll.

  • Ask students:

    • What are all the possible outcomes when you toss a coin?

    • What are the outcomes of rolling a die?

  • STEM Link: Highlight how scientists and engineers use experiments and data collection to predict results or test probabilities.


🧠 EXPLORE (15 minutes)

  • Hands-on Group Activity:

    • In pairs/groups, students conduct two mini experiments:

      1. Toss a coin 20 times and record the number of heads and tails.

      2. Roll a six-sided die 30 times and record the frequency of each number (1–6).

    • Use tally charts or frequency tables to collect data.

  • Materials: Coins, dice, tally chart worksheets, colored pencils.


📘 EXPLAIN (10 minutes)

  • Teacher leads discussion:

    • Define outcomes, frequency, and probability.

    • Model how to convert tallies into bar graphs or pictographs.

    • Guide students to understand the experimental probability = number of times an event occurs / total trials.

  • Visual Aid: Use projector/board to show sample bar graph of dice results.


⚙️ ELABORATE (20 minutes)

  • STEM Challenge (Differentiated):

    • Tier 1 (Basic): Students draw bar graphs of their results from coin toss or dice roll.

    • Tier 2 (Intermediate): Students compare their experimental results to theoretical probability (e.g., Heads = ½).

    • Tier 3 (Advanced): Students create and interpret double bar graphs comparing two different sets of outcomes (e.g., student A vs B or coin vs dice).

  • Extension (STEM link): Discuss how data representation is used in weather forecasting, sports statistics, and quality control in manufacturing.


EVALUATE (10 minutes)

Three-Tier Differentiated Evaluation Task

TierTaskCriteria
Tier 1Identify all possible outcomes for a coin and a die. Represent your data from the experiment using a tally chart.Accurately list outcomes and correctly use tally marks.
Tier 2Record experiment outcomes and represent results using a bar graph. Compare actual results with expected outcomes (theoretical probability).Correct bar graph with reasonable comparisons.
Tier 3Create a double bar graph from two different data sets and explain the similarities and differences between them.Double bar graph is clear, labeled, and includes thoughtful interpretation.

🧠 Differentiated Learning Strategies

  • Visual Learners: Use color-coded charts and pictographs.

  • Auditory Learners: Partner discussions and group interpretation.

  • Kinesthetic Learners: Physical dice/coin tossing and chart drawing.

  • Support for Struggling Students: Provide sentence starters, graph templates, and peer support.

  • Challenge for Advanced Learners: Extend into predicting outcomes for two-dice sums (e.g., probability of getting a 7).















FOLLOW UP PRACTICE EXERCISES
ACTIVITY 4 decimal responses

Friday, January 15, 2021

Materials, Properties and Uses (Lesson 4 )

 FOCUS QUESTION

What changes are reversible and irreversible?

SPECIFIC OBJS.

1.       Conduct an investigation to illustrate that some changes result in the formation of new materials and others do not.

2.       Work cooperatively in groups

3.       Predict the effects of heat on selected materials

4.       Make careful observations of reversible change and record and explain this using scientific language.


CONTENT SUMMARY

Materials can undergo reversible or irreversible changes. Irreversible changes cannot be undone and form new materials. Reversible changes can be undone. Reversible and irreversible changes can be useful in every day life.

Substances can change their state by heating and cooling.

Melting, freezing, evaporation and condensation can cause materials to change state.


ENGAGE
Read the scenario below.

The students in 6 B received a box of ice-cream from the past principal of their school. By the time it reached their class, it was very soft, however, the teacher starting sharing. This was a very difficult task for her, so she sent it back to the tuck shop to be placed in the refrigerator.

Students will  discuss why the ice-cream  was harder to share and why it was sent back to be placed in the refrigerator. 

They will tell if all materials are like that. (can go back to their original state) They will discuss the changes that the ice cream had undergone. (this will lead to the concept reversible)

EXPLORE

Students I need you to observe and record what happens when the following are done. 

a.       Heat a square of butter in hot water then allows it to cool

b.      Inflate and then deflate a balloon

c.       Cut a sheet of paper in four pieces then fit it back together

d.      Boil water and place a mirror directly above the steam.

(They will make predictions of what will happen before the experiment is done}.

They will also watch Youtube video clip on reversible changes to glean additional information for reporting


Now can you provide other examples of the types of changes.

EXPLAIN

Students will explain the changes that occurred in each case and state whether any new materials have been formed.

EXTEND/ELABORATE

Students will write a simple description of the meaning of the term “reversible change” and share their discussions with class.

Individually, students will create a table to record frequent reversible changes they experience at home or seen at school daily. Eg.

 

Action  (Before)

Description of the change (After)

Reversible

Yes ¡   / No ¡

Placing water in freezer

Water turned ice

                Yes ¡  /   No ¡

EVALUATE 

Answer questions of the types listed below.

1.       Which of the following activities depicts a reversible change?

(a)    Boiling an egg until hard       (c) melting a cube of ice

(b)   Burning an old rag                 (d) combining ingredients to make muffins for the family

2.       Define the term “reversible”

3.       Helen and Jane were both asked to provide examples of reversible changes. Helen’s response was “the burning of a piece of paper.” Jane’s answer was “melting of an ice cube”. Whose response was correct?

Justify your answer.

4.       Provide two examples of a reversible change.

(a)                                                                           (b)

5.       For each of the following, indicate by shading under the column whether you agree or disagree with the statements about reversible changes.

 

Statement                                                                           Agree                 Disagree

 

When a material is changed in a reversible way, a  

               new material is not made.                                          ¡                          ¡

 

               Burning a piece of paper can be reversible.               ¡                          ¡

 



































































FOLLOW UP PRACTICE EXERCISES

Lesson Plan – Grade 6 Science

Topic: Materials, Properties, and Uses
Focus Question: What changes are reversible and irreversible?
Duration: 1 Hour
Strand: Materials & Their Properties
Objectives:

  1. Conduct an investigation to illustrate that some changes result in the formation of new materials and others do not.

  2. Work cooperatively in groups.

  3. Predict the effects of heat on selected materials.

  4. Make careful observations of reversible change and record and explain this using scientific language.


ENGAGE (5–7 minutes)

Activity:

  • Display two short videos or live demonstrations:

    1. Ice melting (and later re-freezing).

    2. Paper burning to ash.

  • Ask students:

    • "What differences do you notice between the two changes?"

    • "Which one can we get back to its original form?"

  • Write their initial ideas on the board under ‘Reversible’ and ‘Irreversible’ headings.

STEM Link: Connect to real-world examples — ice in refrigerators (technology) vs. burning waste materials (environmental science).


EXPLORE (15 minutes) – Group Investigation

Materials (per group):

  • Ice cubes in a zip-lock bag

  • Chocolate pieces

  • Bread slices

  • Egg (boiled or raw for teacher demo with heat)

  • Candle & match (teacher handles flame)

  • Sugar

  • Metal spoon

  • Heat source (electric kettle/hot plate – supervised)

  • Chromebooks, projector

  • Teacher's blogsite

Procedure:

  1. Students in groups of 4–5 investigate the effect of heat on each material.

  2. They record:

    • Before heating appearance/texture.

    • After heating changes.

    • Can the original form be restored? (Yes/No)

  3. Teacher supervises and conducts high-risk activities (burning bread, candle, egg frying) while students observe.

Cooperative Skills:

  • Assign group roles: Recorder, Timekeeper, Safety Monitor, Materials Manager.


EXPLAIN (10 minutes)

Teacher Facilitation:

  • Define reversible change (can be undone, no new material formed) and irreversible change (cannot be undone, new material formed).

  • Link examples from students’ investigation to scientific definitions.

  • Introduce correct scientific language: melt, evaporate, condense, burn, char, solidify, chemical change, physical change.

  • Students share predictions vs. actual results — discuss why some predictions were correct/incorrect.

STEM Link:

  • Chemistry: Distinction between physical and chemical changes.

  • Engineering: Why some manufacturing processes (like metal forging) are irreversible.


ELABORATE (15 minutes)

Application Task:

  • Students classify a set of real-life changes as reversible or irreversible:

    • Rusting iron

    • Boiling water

    • Baking a cake

    • Freezing juice

    • Cutting paper

    • Dissolving sugar in water

  • In pairs, they justify their answers using scientific terms.

  • Extension for high-achievers: Suggest how some irreversible changes can be prevented or slowed down (e.g., painting metal to prevent rust).


EVALUATE (8 minutes) – Three-Tier Differentiated Assessment

Tier 1 (Basic):
Match each example to "Reversible" or "Irreversible" (ice melting, wood burning, sugar dissolving, egg frying).

Tier 2 (Proficient):
Explain why each change is reversible or irreversible using terms such as "new material formed" or "state change."

Tier 3 (Advanced):
Design a short investigation to test whether a new material is formed in a given change (e.g., heating saltwater to dryness) and predict outcomes.


Differentiation Strategies:

  • Support: Use visuals and word banks for ELLs and struggling learners.

  • Challenge: Ask stronger students to link reversible/irreversible changes to particle theory.

  • Hands-on learners: Provide more practical tasks.

  • Visual learners: Use diagrams and before/after images of changes.


Homework / Extension:

  • Research 3 irreversible changes in cooking or manufacturing and explain why they cannot be reversed.