Parent plan · Week 16 · Electricity, Magnetism & Circuits — launch — Physics & Environmental Science

Parent teaching plan · 36 weeks

Units to teach or revisit

Chapter 6 · Electricity, Magnetism & Circuits

Assigned readings

Develop this chapter question: How do fields and circuits transfer energy without consuming charge?

This week’s goals

Read A lamp transfers energy while charge keeps circulating at chapter launch and revisit it alongside this week’s linked units, figures and investigation.

Five flexible sessions, normally 50–60 minutes. Two core unit sessions are scheduled, with a third for selected demanding topics. Sample week uses a complete 90-minute paper plus about 30 minutes of corrections within two ordinary-hour equivalents.

Session 1 · Electric Charge & Fields — build the model

Use the linked chapter reading, unit explanations, figures and notebook.

Your task

Read the chapter background and unit language. Draw a first model, study the core explanation and Parts 1–2, trace each figure and attempt the visual questions/checks. Complete a first worked case with its answer covered.

  1. Prepare the assigned explanation and identify the question.
  2. Trace a model or graph, labeling its quantities and units.
  3. Attempt the assigned reasoning and calculation before opening guidance.
  4. Compare with criteria and retain an explained correction.
Hint and response guidance

Name the objects, quantities, boundary and assumptions before choosing a relationship. Use the matching figure to check each step.

Its negative electron count falls while its positive nuclear charge remains, leaving a positive imbalance. It becomes 1/9 as large under the point-charge model.

  • Use the supplied evidence and correct quantity/units.
  • Explain the relevant mechanism or relationship.
  • Show intermediate working or a labeled model.
  • State an assumption, limitation or useful next test.

Session 2 · Electric Charge & Fields — apply and explain

Use the linked chapter reading, unit explanations, figures and notebook.

Your task

Study Parts 3–4 and selected source-model prompts, then attempt the whole-unit application, illustrated practice and changed independent case. Explain a correction, revise the opening model and complete the exit check.

  1. Prepare the assigned explanation and identify the question.
  2. Trace a model or graph, labeling its quantities and units.
  3. Attempt the assigned reasoning and calculation before opening guidance.
  4. Compare with criteria and retain an explained correction.
Hint and response guidance

Name the objects, quantities, boundary and assumptions before choosing a relationship. Use the matching figure to check each step.

F=qE gives+0.0010 N east for+2 μC and−0.0015 N, i.e.west, for−3 μC. The field is unchanged in the ideal nonperturbing-test model.

  • Use the supplied evidence and correct quantity/units.
  • Explain the relevant mechanism or relationship.
  • Show intermediate working or a labeled model.
  • State an assumption, limitation or useful next test.

Session 3 · Current, Voltage & Resistance — build the model

Use the linked chapter reading, unit explanations, figures and notebook.

Your task

Read the chapter background and unit language. Draw a first model, study the core explanation and Parts 1–2, trace each figure and attempt the visual questions/checks. Complete a first worked case with its answer covered.

  1. Prepare the assigned explanation and identify the question.
  2. Trace a model or graph, labeling its quantities and units.
  3. Attempt the assigned reasoning and calculation before opening guidance.
  4. Compare with criteria and retain an explained correction.
Hint and response guidance

Name the objects, quantities, boundary and assumptions before choosing a relationship. Use the matching figure to check each step.

I=2 A in the chosen conventional direction. 24 J in magnitude, assuming the specified potential drop and charge transfer.

  • Use the supplied evidence and correct quantity/units.
  • Explain the relevant mechanism or relationship.
  • Show intermediate working or a labeled model.
  • State an assumption, limitation or useful next test.

Session 4 · Current, Voltage & Resistance — apply and explain

Use the linked chapter reading, unit explanations, figures and notebook.

Your task

Study Parts 3–4 and selected source-model prompts, then attempt the whole-unit application, illustrated practice and changed independent case. Explain a correction, revise the opening model and complete the exit check.

  1. Prepare the assigned explanation and identify the question.
  2. Trace a model or graph, labeling its quantities and units.
  3. Attempt the assigned reasoning and calculation before opening guidance.
  4. Compare with criteria and retain an explained correction.
Hint and response guidance

Name the objects, quantities, boundary and assumptions before choosing a relationship. Use the matching figure to check each step.

I=9/12=0.75 A; P=VI=6.75 W; E=Pt=270 J. The stated constant resistance and voltage must persist over the interval.

  • Use the supplied evidence and correct quantity/units.
  • Explain the relevant mechanism or relationship.
  • Show intermediate working or a labeled model.
  • State an assumption, limitation or useful next test.

Session 5 · Circuits & Ohm's Law — build the model

Use the linked chapter reading, unit explanations, figures and notebook.

Your task

Read the chapter background and unit language. Draw a first model, study the core explanation and Parts 1–2, trace each figure and attempt the visual questions/checks. Complete a first worked case with its answer covered.

  1. Prepare the assigned explanation and identify the question.
  2. Trace a model or graph, labeling its quantities and units.
  3. Attempt the assigned reasoning and calculation before opening guidance.
  4. Compare with criteria and retain an explained correction.
Hint and response guidance

Name the objects, quantities, boundary and assumptions before choosing a relationship. Use the matching figure to check each step.

Rtotal=2+4=6 Ω, so I=6/6=1 A through each resistor. 3 A, the sum of the 1 A and 2 A branch currents.

  • Use the supplied evidence and correct quantity/units.
  • Explain the relevant mechanism or relationship.
  • Show intermediate working or a labeled model.
  • State an assumption, limitation or useful next test.

Submit this week

Parent / teacher weekly conference

Use actual written work to adjust support. Do not count a copied solution as independent mastery. Extend or redistribute time where needed; home-study records do not certify supervised or mandated laboratory requirements.

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