SS 1 First Term

Lesson objectives

By the end of the week, learners should be able to:

1. Define a computer according to architectural principles.
2. State six characteristics of a modern computer.
3. Name the main hardware components and give their functions.
4. Explain why digital signals differ from analogue signals.
5. Classify devices by input, processing, output or storage role.

Key vocabulary

• Computer: a digital device that processes data under stored instructions.
• Architecture: the structural design specifying component interfaces.
• Digital signal: discrete values representing data.
• Analogue signal: continuous values varying in real time.
• Characteristic: an attribute describing a device.
• Interface: the boundary where components connect to each other.
• Role: the function assigned to each component.

Common misconceptions

• "A computer is just a box with a screen." The box contains internal components; the screen is only one output.
• "Digital signals are more complex than analogue signals." Analogue signals vary continuously and are harder to store reliably.
• "Every characteristic matters equally." Some characteristics are more measurable than others.

Teacher activities

1. Starter: open a system unit and ask the class which components are part of the computer architecture.
2. Define computer and name six characteristics, writing them on the board as a class brainstorm.
3. Describe digital versus analogue signals and compare storage reliability.
4. Name the main hardware components and assign each a function.
5. Set a device-classification task grouping twenty items by role.
6. Close with the exit question comparing digital and analogue signals.

Student activities

1. Open the system unit and identify the major components inside.
2. Recall the six characteristics and fill them in their own words.
3. State why digital signals are preferable for storage compared with analogue.
4. Name the main hardware components and give each a function in one sentence.
5. Classify twenty items by input, processing, output or storage role.
6. Answer the exit question in one sentence about digital versus analogue signals.

Practical / learning evidence

An exploded system-unit diagram with six main components labelled, a six-characteristics chart and a twenty-item classification table. Hand in all three for marking.

Resources and preparation

An actual desktop system unit opened safely, printed diagram templates and item cards. Offline route: printed diagrams and cards, no device needed. Supervise the removal of cables and keep tools out of learners' hands.

Assessment for learning

Inspect the diagram for six correct main components. Check the characteristics chart for six distinct entries. Mark the classification for accurate role assignment. Flag any learner who groups the CPU as only input.

Inclusion and homework

Provide the diagram prelabelled in the first six blanks for learners who need scaffolding. Allow oral completion of the classification. Extend confident learners with seventeen additional items and a seventeenth role category. Homework: name one digital signal application and one analogue signal application in daily life.

Lesson objectives

By the end of the week, learners should be able to:

1. Sequence eight early computing devices from the abacus to the microprocessor.
2. State the contribution of Pascal, Babbage, Lovelace and Hollerith.
3. Name the five computer generations and the main technology of each.
4. Compare the first and fourth generations on size, speed and heat.
5. Explain why transistors replaced valves and valves gave way to integrated circuits.

Key vocabulary

• Abacus: a counting frame with beads used for arithmetic.
• Napier's bones: numbered rods for multiplication and division.
• Pascaline: Blaise Pascal's geared adding machine.
• Analytical Engine: Charles Babbage's programmable mechanical design.
• Lovelace: Ada Lovelace, first programmer credited with the Analytical Engine.
• Hollerith: Herman Hollerith's punched-card tabulator.
• Valve: an early electronic switching component that was large and hot.
• Transistor: a small solid-state switch replacing the valve.
• Integrated circuit: many transistors on one silicon chip.
• Microprocessor: a complete processing unit on a single chip.

Common misconceptions

• "The abacus was the first computer." The abacus is a calculating aid without automatic processing.
• "Babbage built the Analytical Engine." Babbage designed it but did not build it in his lifetime.
• "Generations are measured only by years." Generations define the dominant electronic technology.

Teacher activities

1. Starter: ask learners to multiply 27 times 13 on the abacus without paper.
2. Walk through early devices in date order and state each inventor's contribution.
3. Present the generations table with the period, technology and example machine for each row.
4. Show images of valve, transistor, integrated circuit and microprocessor machines.
5. Model why transistors replaced valves and integrated circuits replaced transistors.
6. Close with the exit question comparing first and fourth generation machines.

Student activities

1. Attempt the multiplication on the abacus and compare with mental math.
2. Copy the device list and add the contribution of each inventor.
3. Complete the generations table for rows 2 through 5.
4. Rank the five generations from largest to smallest and fastest to slowest.
5. Write two sentences explaining why transistors replaced valves.
6. Answer the exit question in one sentence about the fourth generation.

Practical / learning evidence

A five-row generations table with columns Generation, Period, Main technology, Size, Speed/Heat and Example machine. Plus a dated device list of eight entries from the abacus to the microprocessor. Hand in both for marking.

Resources and preparation

A bead frame or printed abacus, a valve photograph, a transistor, an integrated circuit and pictures of ENIAC, a 1980s PC and a modern phone. Offline route: invention cards arranged in date order, no device needed. Handle any glass valve carefully and keep it out of learners' reach.

Assessment for learning

Inspect the generations table for at least one correct example machine per generation. Ask two learners to defend their ranking of sizes. Mark the device list for correct date order. Record any learner who writes "the first computer was ENIAC."

Inclusion and homework

Provide the generations table partly completed for learners who need scaffolding. Allow extra time on the timed drill where approved. Extend confident learners with predicting the sixth generation. Homework: ask an older family member which computer they first used and write three sentences about how it differs from today's phone.

Lesson objectives

By the end of the week, learners should be able to:

1. Explain the central processing unit as ALU plus control unit plus registers.
2. Name the main parts of a desktop system unit.
3. Describe how a motherboard connects all components.
4. Identify expansion slots and state when an add-on is needed.
5. Build or label an exploded diagram of a system unit.

Key vocabulary

• CPU: the processor, often called the brain of the computer.
• ALU: the arithmetic logic unit performing calculations.
• Control unit: fetches instructions and directs execution.
• Register: fast temporary storage inside the processor.
• Motherboard: the main circuit board connecting components.
• Expansion slot: a slot on the motherboard for extra hardware.
• Add-on: extra hardware that extends functionality.
• Exploded diagram: a diagram showing components separated visually.

Common misconceptions

• "The fan is optional on a desktop." Active cooling is required to prevent overheating.
• "The CPU and the system unit are the same." The CPU is one component inside the system unit.
• "Expansion cards fit anywhere." Cards must physically match the motherboard slot type.

Teacher activities

1. Starter: open a system unit if one is available and remove the CPU, memory and fan.
2. Define the CPU as ALU plus control unit plus and describe each piece separately.
3. Name the motherboard, RAM, ROM and expansion slot parts one by one.
4. Explain how the motherboard links every component physically.
5. Set a card-sorting task: picture cards matched to part labels.
6. Close with the exit question about expansion slots.

Student activities

1. Handle the opened system unit and name each removable part.
2. Label a blank exploded diagram with the five main components.
3. Sort the picture cards to match each component to its label.
4. Explain why a new add-on must fit the motherboard slot.
5. Decide whether a given add-on belongs inside or outside the case.
6. Answer the exit question in one sentence about expansion slots.

Practical / learning evidence

A completed exploded diagram with five main components labelled, a card-matching chart and a three-item expansion-slot reasoning exercise. Hand in all three for marking.

Resources and preparation

An actual desktop system unit opened safely, printed part cards and blank diagrams. Screwdriver and anti-static precautions out of reach. Offline route: printed cards and diagrams. Never open a powered or plugged-in machine.

Assessment for learning

Check the diagram for at least five correct entries. Mark the card matching for correct pairs. Ask two learners to explain the CPU role without notes. Watch for "the monitor is the computer" and correct it using the opened unit.

Inclusion and homework

Provide a partially completed diagram for learners who need scaffolding. Allow written rather than verbal explanations. Extend confident learners with six components and a second diagram of a laptop layout. Homework: name three components found only in a laptop and state their role.

Lesson objectives

By the end of the week, learners should be able to:

1. Name the five main input devices and state the role of each.
2. Distinguish mechanical from non-mechanical devices.
3. Explain why a scanner is input and a printer is not input.
4. Compare touchscreens, microphones and webcams on input method.
5. Identify at least fifteen input devices and classify them correctly.

Key vocabulary

• Input device: a device that sends data into the computer.
• Keyboard: a panel of keys that enters characters and commands.
• Mouse: a pointing device that selects screen items.
• Scanner: a device that converts images into digital data.
• Microphone: an audio input capturing sound.
• Touchscreen: a screen that accepts touch as input.
• Webcam: a camera that captures video frames as input.
• Mechanical device: an input whose action involves striking or moving physical parts.
• Non-mechanical device: an input driven by electronics instead of strikes.

Common misconceptions

• "A printer is an input device." A printer receives data and produces output; entering data requires an input device.
• "Touchscreens count as both." They accept touch input and display output simultaneously.
• "Every input device feels the same." Mechanical and non-mechanical devices behave differently.

Teacher activities

1. Starter: ask a pair to name every device you touched to send a message on a phone.
2. Name the five main input devices and demonstrate each with a live example.
3. Explain mechanical versus non-mechanical by showing a keyboard and a touchscreen.
4. Compare touchscreens, microphones and webcams using input methods.
5. Run a fifteen-device classification task and require reasons.
6. Close with the exit question about the printer role.

Student activities

1. Name every input device touched on the starter and identify them.
2. State the role of each of the five main input devices in one sentence.
3. Distinguish a mechanical device from a non-mechanical device with examples.
4. Compare touchscreens, microphones and webcams on input method.
5. Classify fifteen devices as input devices and write a reason for each.
6. Answer the exit question in one sentence about the printer role.

Practical / learning evidence

A fifteen-device classification table with columns Device, Input/Output/Both, Reason and Where used. Hand in for marking.

Resources and preparation

Keyboard, mouse, scanner, microphone, webcam and touchscreens where available. Printed device cards for sorting. Offline route: picture cards and paper tables. Supervise the scanner and printer so learners do not scan personal documents.

Assessment for learning

Inspect the classification table for at least twelve correct input devices with reasons. Mark the mechanical versus non-mechanical distinction. Ask a learner to explain why the scanner is input rather than output. Watch for "printer is input" and correct it live.

Inclusion and homework

Provide picture cards with device names underneath and allow oral completion. Allow learners to sort cards physically into envelopes. Extend confident learners with eighteen devices and a second input category. Homework: find two input devices at home or school and state the data they provide.

Lesson objectives

By the end of the week, learners should be able to:

1. Name the five main output devices and state the role of each.
2. Distinguish soft copy and hard copy outputs.
3. Compare impact and non-impact printers.
4. Name three specialised output devices such as plotters and projectors.
5. Classify twenty items by input, output, both or none.

Key vocabulary

• Output device: a device that presents processed information to the user.
• Monitor: a screen displaying processed information.
• Printer: a device that produces printed material.
• Hard copy: material printed on paper.
• Soft copy: material shown on a screen or stored as a file.
• Impact printer: a printer that strikes the paper through a ribbon.
• Non-impact printer: a printer that prints without striking the paper.
• Plotter: a device that draws precise line art on paper.
• Projector: a device that enlarges a screen image onto a wall.

Common misconceptions

• "A touchscreen is only output." Touchscreens are both input and output.
• "All printers strike the paper." Inkjet and laser printers do not strike.
• "Hard copy and soft copy are interchangeable." Paper has different permanence than screen storage.

Teacher activities

1. Starter: hold up a keyboard and ask which one is not an output device.
2. Name the five main output devices and demonstrate each live.
3. Explain hard copy versus soft copy using monitor and printed copies.
4. Compare impact and non-impact printers with two physical samples.
5. Run a twenty-item output-input classification task with traps.
6. Close with the exit question comparing plotters and printers.

Student activities

1. State which starter device is not an output and give the reason.
2. State the role of each of the five main output devices.
3. Distinguish hard copy from soft copy and give one advantage each.
4. Compare impact and non-impact printers on two criteria each.
5. Classify twenty items by output role with reasons.
6. Answer the exit question in one sentence about plotters and printers.

Practical / learning evidence

A fifteen-device classification table with columns Device, Role, Soft or Hard, Where used and Reason. Hand in for marking.

Resources and preparation

Monitor, printer, projector and speaker demonstrations, plus dot-matrix and laser or inkjet printouts. Printed device cards and blank classification tables. Offline route: paper demo cards and tables. Supervise the printer so learners do not waste personal paper.

Assessment for learning

Inspect the classification for at least twelve correct output devices with reasons. Mark the impact versus non-impact comparison. Ask a learner to explain the touchscreen case. Watch for "touchscreen is only output" and correct it live.

Inclusion and homework

Provide picture cards with device names underneath and allow oral completion. Extend confident learners with twenty-one items and a specialised-output extension. Homework: name one soft copy device and one hard copy device at home.

Lesson objectives

By the end of the week, learners should be able to:

1. Distinguish memory from storage and give one example each.
2. Explain why RAM is volatile and ROM is non-volatile.
3. Convert between bytes, kilobytes, megabytes, gigabytes and terabytes using 1024.
4. Classify storage devices as magnetic, optical or solid state.
5. Compare storage media on capacity, speed, portability and cost.

Key vocabulary

• Memory: working space holding programs and data currently in use.
• Storage: long-term holding of files when the power is off.
• Volatile: loses contents when power is removed.
• Non-volatile: keeps contents without power.
• Byte: eight bits, the basic storage unit.
• Magnetic storage: stores data magnetically, such as a hard drive.
• Optical storage: read by a laser, such as a CD or DVD.
• Solid-state storage: flash memory with no moving parts.
• Capacity: the amount of data a device holds.
• Speed: how quickly data can be accessed.

Common misconceptions

• "Memory and storage are the same." RAM is temporary; storage keeps files when powered off.
• "Deleting a file removes it permanently." Deletion usually moves the file to the Recycle Bin first.
• "Cloud storage means the file is not on any device." Cloud storage needs a connection to reach files.

Teacher activities

1. Starter: ask where a phone photograph goes when the phone is switched off.
2. Draw the memory-versus-storage distinction and place RAM, ROM and storage correctly.
3. Build the unit ladder bit, byte, KB, MB, GB, TB and work two conversions.
4. Pass around a hard disk, a CD, a flash drive and a memory card.
5. Compare capacities by converting and asking how many CDs equal one DVD.
6. Close with the safe-use rules and the backup question.

Student activities

1. Answer the starter in one sentence.
2. Copy the memory and storage diagram and add two examples each.
3. Complete five unit conversions showing the working.
4. Identify each device passed round and write its storage type.
5. Solve two capacity conversion problems with the method shown.
6. Write three flash-drive safety rules and one sentence on backups.

Practical / learning evidence

A conversion worksheet with at least five worked conversions, a three-row storage-type table and the two worked capacity problems. Hand in all three for marking.

Resources and preparation

A hard disk drive, a CD or DVD, a flash drive and a memory card. Calculators for conversion work. Printed conversion worksheets. Offline route: physical media and worksheets. Warn learners not to insert unknown flash drives into laboratory machines.

Assessment for learning

Mark the working, not just the final answer, since a wrong answer from wrong work will fail later questions. Check that RAM sits under memory and not storage. Ask two learners to explain their capacity method aloud before collection.

Inclusion and homework

Provide a printed conversion ladder as a reference and reduce the worksheet to three items where time is short. Extend confident learners with a comparison of SSD and HDD for speed. Homework: find the storage capacity of any phone, memory card or computer you can access in gigabytes.

Lesson objectives

By the end of the week, learners should be able to:

1. Restate system software and application software definitions.
2. Name five functions of an operating system.
3. Distinguish firmware from regular system software.
4. Explain the role of a utility program such as antivirus software.
5. Classify thirty software items into system, application or both.

Key vocabulary

• Software: the programs that tell hardware what to do.
• System software: programs running and managing the computer.
• Application software: programs solving a user task.
• Operating system: manages hardware, files, memory and programmes.
• Firmware: permanent instructions on a chip such as boot loader.
• Utility program: a maintenance tool such as antivirus or disk cleanup.
• Boot loader: programme loaded at start-up to begin the OS.
• Driver: system software letting hardware talk to the OS.

Common misconceptions

• "Windows is an application." Windows is system software; Microsoft Word is the application.
• "Software is something you can hold." A CD contains hardware; the program on it is software.
• "Firmware disappears after a reboot." Firmware persists across reboots as permanent instructions.

Teacher activities

1. Starter: hold up a keyboard and a screenshot of an installer; ask which is hardware and which is software.
2. Restate the system versus application definitions and add five OS functions.
3. Introduce firmware as permanently stored on a chip and distinguish it from utilities.
4. Model naming a driver and a utility program with examples.
5. Set the thirty-item software classification task and require reasons for four items.
6. Close with the exit question distinguishing firmware from application software.

Student activities

1. State the system versus application definitions and give two examples each.
2. Name five operating-system functions in one to two lines each.
3. Distinguish firmware from a utility program with one example each.
4. Classify a driver and a utility program correctly with examples.
5. Complete the thirty-item software classification with reasons.
6. Answer the exit question in one sentence about firmware.

Practical / learning evidence

A fifteen-software classification table with columns Software, System, Application, Example and Reason. Plus a ten-item firmware-versus-utility chart. Hand in both for marking.

Resources and preparation

Keyboard, mouse and a screenshot of installed applications. Blank classification tables and item cards. Offline route: printed cards and tables. Do not let learners install or uninstall anything on laboratory machines.

Assessment for learning

Mark the classification for accuracy and reasons. Check the firmware chart for one correct example of firmware and one of utility. Watch for "Windows is an application" and correct it live.

Inclusion and homework

Provide the item cards in larger print and allow oral completion. Extend confident learners with thirty items and a second firmware example. Homework: list three application programs on any device and state the task each performs.

Lesson objectives

By the end of the week, learners should be able to:

1. State five operating-system functions in order.
2. Explain why an operating system exists at all.
3. Name the managers each OS function performs.
4. Distinguish user accounts from shared drives.
5. Apply one OS function to a given scenario.

Key vocabulary

• Operating system: software managing hardware, files, memory and users.
• Manager: the component handling a system resource.
• File manager: handles creation, naming and deletion of files.
• User account: a profile identifying one authorised user.
• Shared drive: a storage area accessible to multiple users.
• Program manager: runs and schedules installed programmes.
• Resource manager: allocates processor time and memory.
• Security manager: enforces access rules and passwords.

Common misconceptions

• "The OS does nothing except run programs." The OS manages everything from power to passwords.
• "User accounts are the same as folders." Accounts protect resources; folders organise data.
• "An OS controls every device on the network." An OS controls the computer and its attached peripherals.

Teacher activities

1. Starter: display a locked folder and an unlocked folder and ask which the OS would make active.
2. List five OS functions step by step, linking each to its manager component.
3. Explain why an OS exists by contrasting bare hardware with managed hardware.
4. Compare user accounts with shared drives in a classroom lab setting.
5. Demonstrate one OS function on a live system and explain it.
6. Close with the functional-order task and exit question about managers.

Student activities

1. Identify which starter folder the OS would make active and explain why.
2. State the five OS functions in order, naming each manager.
3. Explain why an operating system exists, avoiding bare-hardware arguments.
4. Compare user accounts and shared drives for file sharing.
5. Apply one OS function to a given classroom scenario.
6. Answer the exit question in one sentence about managers.

Practical / learning evidence

A five-function checklist with each function paired to its manager, a one-paragraph OS existence explanation and a classroom-scenario task. Hand in all three for marking.

Resources and preparation

Computers with an OS interface, printed checklist and a classroom scenario card. Offline route: paper checklist and scenarios. Verify the computers start reliably and do not prompt repeatedly.

Assessment for learning

Inspect the checklist for five correct functions with matching managers. Check the explanation for a sensible existence reason. Mark the scenario task for applying the correct OS function. Flag any learner who lists only program management.

Inclusion and homework

Provide the checklist prefilled for learners who need scaffolding and allow oral completion. Extend confident learners with seven functions and a seventh manager category. Homework: name one difference between a user account and a shared drive.

Lesson objectives

By the end of the week, learners should be able to:

1. Define a word processor and name three examples.
2. Identify the main parts of the Word window.
3. Create a new document and set standard formatting.
4. Apply heading, paragraph, alignment and spacing.
5. Save a formatted document under a clear filename.

Key vocabulary

• Word processor: software for creating, editing and formatting text.
• Ribbon: the strip of tabs and groups at the top of the window.
• Tab: a labelled section such as Home or Insert.
• Group: a set of related commands within a tab.
• Cursor: the blinking insertion point showing where typing begins.
• Save: storing the current document under its existing name.
• Save As: creating a new copy or changing the format.
• Filename: the name identifying a stored file.

Common misconceptions

• "Save and Save As do the same thing." Save updates the existing file; Save As creates a new copy.
• "Word saves automatically when closed." Closing without saving discards changes unless newer versions offer to keep them.
• "A word processor is only a typewriter." It also edits, formats, checks spelling and prints.

Teacher activities

1. Starter: display a typewritten page and a formatted document; ask which is easier to correct.
2. Name three word processors and open Word or LibreOffice Writer on the projected screen.
3. Tour the window: title bar, ribbon tabs, groups, ruler, workspace, scroll bar and status bar.
4. Model creating a new document and typing two paragraphs.
5. Demonstrate selecting text and applying bold, italics, underline and alignment.
6. Set the notice task and finish with the save routine demonstration.

Student activities

1. Answer the starter and give one reason.
2. Name three word processors and label a screenshot of one window.
3. Create a new blank document and set A4 paper and normal margins.
4. Type a three-line notice without formatting.
5. Apply heading, paragraph, alignment and spacing to the notice.
6. Save as a DOCX filename, reopen to confirm and close without saving.

Practical / learning evidence

A formatted one-paragraph notice containing a centred heading, body text, bullets and an underlined sentence, saved as a DOCX with a clear filename. Reopen and inspect independently.

Resources and preparation

Computers with Microsoft Word or LibreOffice Writer, blank screenshots and a notice text for typing. Disable Caps Lock before drills. Check that computers start and that the software opens cleanly.

Assessment for learning

Inspect the reopened file for consistent formatting and correct filename. Ask two learners to run the save routine without prompts. Watch for inconsistent alignment and correct them live.

Inclusion and homework

Provide the notice text as a printed copy so learners focus on formatting. Allow a partner to read steps aloud. Extend confident learners with line spacing, borders and coloured headings. Homework: list five things a word processor can do that a typewriter cannot.

Lesson objectives

By the end of the week, learners should be able to:

1. Define a programming language as a set of instructions.
2. Name three programming concepts: variables, loops and selection.
3. Explain why high-level languages are easier than assembly.
4. Describe the role of an interpreter.
5. Trace one simple interpreter program to predict output.

Key vocabulary

• Programming language: a structured notation telling the computer what to do.
• Variable: a named container holding a value.
• Loop: a repeatable block of instructions.
• Selection: a branch such as if-then that runs different paths.
• High-level language: a language closer to human speech than machine code.
• Assembly language: a low-level language mapping closely to machine code.
• Interpreter: a program that executes high-level commands line by line.
• Machine code: binary instructions executed directly by hardware.
• Trace: predicting output by stepping through code.

Common misconceptions

• "Programming is only for geniuses." Programming is a craft improved by practice like any other.
• "Interpreters never understand variables." An interpreter executes variable assignments step by step.
• "Every language runs the same way under the hood." Low-level and high-level languages map differently to machine code.

Teacher activities

1. Starter: run a PRINT statement and show the result without revealing the code.
2. Define programming language and name the three programming concepts.
3. Explain why high-level languages are easier than assembly on syntax and readability.
4. Describe the interpreter role and contrast it with a compiler.
5. Trace a simple interpreter program line by line and predict the output.
6. Close with the tracing task and exit question about language level.

Student activities

1. Guess the PRINT command from the starter RUN.
2. Define a programming language in their own words and name the three concepts.
3. Compare high-level and assembly languages on ease and readability.
4. Describe the interpreter role and contrast it with a compiler briefly.
5. Hand-trace one simple interpreter program and write the predicted output.
6. Answer the exit question in one sentence about high-level versus assembly.

Practical / learning evidence

A recorded interpreter program plus the documented expected output and a traced prediction. Hand in both the program and the predicted output for marking.

Resources and preparation

A computer with a BASIC interpreter installed, blank interpreter windows and a sample tracing task card. Keep the interpreter in a read-only folder for learners without install capability. Disable Caps Lock before typing.

Assessment for learning

Inspect the typed program for correct PRINT syntax. Compare the traced output with the actual interpreter output and flag any mismatch. Ask a learner to explain why LET appears before an assignment.

Inclusion and homework

Prebuild the interpreter folder with Welcome and sample programs for learners lacking install capability. Provide a tracing template with output lines preprinted. Extend confident learners with two tracing tasks and a high-level versus assembly contrast. Homework: write a one-line interpreter statement that prints HELLO.

Lesson objectives

By the end of the week, learners should be able to:

1. Recall the full term's key terms without notes in ten minutes.
2. Test objective knowledge with a short recall quiz.
3. Practise spreadsheet and presentation and programming skills under timed conditions.
4. Prepare three practical stations ready for the examination week.
5. Organise their materials for examinations.

Key vocabulary

• Full summary: a one-page recap of the entire term's vocabulary.
• Recall quiz: a short test of definitions and concepts from memory.
• Timed conditions: a restricted time allowance for practice.
• Practical station: a setup point for examination practical tasks.
• Materials organisation: keeping tools ready before an examination.

Common misconceptions

• "Revision is just reading notes again." Revision means testing and practising, not passive reading.
• "Tomorrow is the exam so today is fine." A full day before leaves almost no preparation time.
• "Better to be relaxed than busy preparing." Preparation reduces anxiety and improves performance.

Teacher activities

1. Starter: ten rapid-fire recall questions from the full term, no notes allowed.
2. Run a timed objective quiz and mark it as a class, explaining distractors.
3. Demonstrate the three practical stations and remind learners of the materials checklist.
4. Walk through a morning materials organisation checklist.
5. Confirm that every learner can reach the exam room and has stationery.
6. Close with a brief announcement of the Second Term starting Monday.

Student activities

1. Answer the ten recall questions and note any slips.
2. Mark their own quiz answers and record scores for review.
3. Prepare the three practical stations and run through the materials checklist.
4. Practice spreadsheet, presentation and programming tasks for ten minutes each.
5. Pack stationery, identification and any permitted materials for examination day.
6. Write one sentence on what revision helped you feel ready for Monday.

Practical / learning evidence

A scored objective quiz, a completed revision grid covering all terms and an materials-organisation checklist signed by the learner. All three handed to the teacher for marking.

Resources and preparation

Quiz sheet, revision grid and materials checklist. Confirm the examination room, three machines and one invigilator per station are booked before the week.

Assessment for learning

Use the quiz scores to plan the Second-Term reteach if class averages are below target. Check the revision grid for completeness. Verify the materials checklist is signed and ready for examination day.

Inclusion and access

Provide the quiz in large print and allow extra time where approved. Pair learners for the practical rehearsal so a confident partner can model the steps. Homework: pack everything needed for the examination week and store it safely.

Lesson objectives

By the end of the examination week, learners should be able to:

1. Demonstrate recall of the term's concepts under examination conditions.
2. Apply knowledge to unfamiliar examples in objective and short-answer questions.
3. Complete a practical task within the time allowance using correct procedure.
4. Name, save and submit files correctly.
5. Explain their practical output when questioned by the examiner.

Examination design

For Senior Secondary 1 the totals are: Section A objective 20 marks, Section B short answer 30 marks, Section C essay 10 marks, Section D practical 20 marks, total 80. Section A samples recall. Section B samples explanation, comparison and classification. Section D samples practical skills in this term and advanced productivity tools.

Section	Format	Marks
A	Objective (20 four-option items)	20
B	Short answer (definitions / diagrams / classification / conversions)	30
C	Essay (definition / comparison / application)	10
D	Practical (typing / word processing / OS interaction)	20
Total	80

Teacher activities

1. Confirm the approved timetable, venue, seating and invigilation before the week begins.
2. Brief learners on the paper structure, the time for each section and the materials allowed.
3. Set out three practical stations: typing, word processing and operating-system interaction, with one invigilator per station where possible.
4. Prepare offline equivalents for learners without device access: printed keyboard diagram, paper formatting task and OS scenario card.
5. Mark using the agreed scheme, moderate a sample of scripts and record scores.
6. Return scripts with feedback and prepare to hand over to Second Term.

Student activities

1. Attend the briefing and note the time allowed per section.
2. Complete Section A, then Section B, allocating time as instructed.
3. Move through the practical stations in the assigned order.
4. Save work with the correct filename and confirm it opens before leaving the station.
5. Answer the examiner's question on their practical output.
6. Collect marked scripts and record the topics to revise in Second Term.

Practical / learning evidence

The completed examination script, the saved practical file for each candidate and the practical rubric sheets. Retain scripts, marking guides and representative learner work for moderation as required by the assessment framework.

Resources and preparation

Printed question papers and answer sheets, a marking guide and rubric per station, working computers with Word or Writer, a stopwatch, printed keyboard diagrams and OS scenario cards. Check every machine the day before, and prepare two spare machines where possible. Ensure power backup and an offline alternative for each station.

Assessment for learning

Mark Section D against the practical rubric: task interpretation, procedure, technical accuracy, OS interaction, file naming and saving, organisation and explanation. Moderate a sample of scripts across all sections, and flag any question where more than a third of learners scored zero for review of the teaching rather than the learners.

Inclusion and access

Provide extra time and large-print papers where approved, seat learners with visual or hearing needs appropriately, and allow the offline equivalent for any learner without device access so that no candidate loses practical marks because of equipment. Keep the practical criteria identical across the digital and paper routes.

After the examination

Record scores against the class list, return scripts with brief feedback, and hand over to Second Term: problem solving, flowcharts, pseudocode, types of programming languages, translators, program development, communication systems, internet benefits and abuse, computer ethics and viruses, applications of ICT. Note any topic where the class average fell below the school's threshold and schedule it as a Second-Term retrieval starter.