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Mathematics · B8

Term 3 · Week 5 · 2.00 credits · GHS 1.00

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 Lesson Note - Mathematics
A
Ave Maria RC JHS
Weekly Lesson Plan
JHS 2 (B8) · Term 3
Mathematics
Lesson 1 of 1
Week Ending
Friday, 22 May 2026 Backdated
Week & Term
Week 5 · Term 3
Class Teacher
James Opoku Agyemang
3. Geometry And Measurement
2. Measurement

Content Standard & Indicators

B8.3.2.2.1 B8.3.2.2.2
Demonstrate understanding of addition and subtraction of vectors and their applications in solving basic problems
Add, subtract and find the scalar multiplication of vectors in the component form.
Demonstrate understanding of vector equality.
Learners will add and subtract vectors in component form and identify the resultant vector.
Critical Thinking and Problem Solving (CP) Communication and Collaboration (CC)
vector component form resultant scalar multiplication displacement vector equality magnitude direction
Textbook Exercise book Ruler and graph board Markers protractor
Mathematics Curriculum Best Brain Maths Book Aki Ola Maths Book
Lesson Activities by Day
Date Phase 1: Starter (7 mins)
Preparing the brain
Phase 2: Main (20 mins)
New learning + assessment
Resources Phase 3: Plenary (6 mins)
Reflection + exercise
Tue
19
May 2026
  • 1Recall the meaning of vectors and identify their components from real-world motion scenarios
  • 2Ask learners: Kofi walks 3 km east then 4 km north. What is his final position from the start? Allow pairs to discuss and whisper their answers to each other
  • UNDERSTANDING VECTOR ADDITION IN COMPONENT FORM
  • 1Write on the board using a marker: Vector A = (3, 2) and Vector B = (1, 4). Explain: To add them, we add the first numbers and add the second numbers separately: A + B = (3+1, 2+4) = (4, 6). Use the textbook diagram (page 145) to show how the resultant vector looks on a grid. Learners copy this example into their exercise books and circle the resultant vector. Let learners work in pairs to keep all learners involved
  • 2Distribute rulers and graph boards to pairs. Each pair draws vector A = (2, 3) and vector B = (4, 1) on their graph board using the ruler, then draws the resultant vector (6, 4) by connecting the tail of A to the head of B. Ask one representative from each group to hold up their completed diagram to show the class
  • 3Struggling learners: work with vectors having only positive numbers less than 5. Fast finishers: add three vectors together—e.g., (1, 2) + (3, 1) + (2, 2)—and sketch the path on graph board. Use pair or group support to manage the large class.
  • 1Textbook (Best Brain Maths Book or Aki Ola Maths Book, page 145)
  • 2Exercise book
  • 3Ruler
  • 4Graph board
  • 5Markers
  • 1Learners work in pairs and compare their vector diagrams with the person sitting next to them, checking that both resultants match. Ask: Did you add the same way? Thumbs up if you agree with your partner's method
  • 2A volunteer comes to the board and writes the answer to: What is (5, 3) + (2, 1)? The class whispers their answer first, then the volunteer reveals (7, 4). Learners raise their right hand if they got it correct
Exercise
  • 1Write in your exercise book: Vector M = (6, 2) and Vector N = (1, 3). Find M + N. Show your working using the component method and state the resultant vector
Thu
21
May 2026
  • 1Recall the conditions for vector equality and identify equal vectors in a set of given diagrams
  • 2Display four drawn vectors on the board using markers: vector AB (3 cm right), vector CD (3 cm right), vector EF (3 cm up), vector GH (4 cm right). Ask: Which vectors look the same in both length and direction? Learners raise hands to name them
  • IDENTIFYING AND DESCRIBING PROPERTIES OF EQUAL VECTORS
  • 1Using the textbook diagram showing vectors u and v (both 5 cm, pointing northeast), ask the class: Describe what you see. What is the same? What is different? Write learner responses on the board: same magnitude, same direction. Confirm: Two vectors are equal if they have the same magnitude AND direction. Let learners work in pairs to keep all learners involved
  • 2Give each learner an exercise book and distribute a protractor. Show a worked example on the board: Vector Kofi walks 4 km east; vector Ama walks 4 km east from a different starting point. Using the protractor, confirm both vectors have 0° from the horizontal and 4 km length. Ask: Are these vectors equal? Why? Call on a learner who needs support to state: Yes, same length and direction. Struggling learners: use only the ruler to measure and compare two pre-drawn equal vectors in the textbook. Let learners work in pairs to keep all learners involved
  • 3Struggling learners work with the textbook's pre-drawn vector pairs and use only the ruler; fast finishers sketch their own pair of equal vectors on graph paper with labelled magnitudes. Use pair or group support to manage the large class.
  • 1Textbook
  • 2Exercise book
  • 3Ruler and graph board
  • 4Markers
  • 5Protractor
  • 1Call on one representative from each of three groups to stand and state one property of equal vectors aloud. Class repeats chorally three times: 'Equal vectors have the same magnitude and direction.'
  • 2Ask learners to show fingers 1–5: How confident are you now identifying equal vectors? (1 = not confident, 5 = very confident). Scan the room and note learners showing 1–2 for follow-up tomorrow
Exercise
  • 1In your exercise book, draw two equal vectors AB and CD. Label the magnitude and direction of each. Write one sentence explaining why they are equal vectors
Class Teacher
James Opoku Agyemang
Head Teacher
Signature & Date
SISO / Circuit Supervisor
Signature & Date

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