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Physics ILTS — Structured Solutions

Each question in the set is (or will be) worked out with the same six-row layout: Given · Need to find · Formula to be used · Concept · Step-by-step solution · Final answer. Read the source PDF below and use the solution cards further down for a clean walkthrough.

📅 Page created: 2026-07-25

📄 Source PDF — Physics ILTS

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📝 Scaffold in place · content to be filled in. This page is set up to hold structured solutions for each question in the source PDF above. Every solution card uses the same six-row layout you asked for:
Given Need to find Formula Concept Steps Final answer

Concept row will be written in plain, low-jargon English so a young student can follow it. To add a question's solution, send me the question's physics setup in your own words (e.g. "two capacitors 2 μF and 4 μF in series across 12 V, find charge on each") and I'll produce a full card in the exact format shown in the example below.

✨ Example card — showing the layout
Ex

Two capacitors in series across a battery (demo problem)

Capacitance · Series
Problem Two capacitors of 2 μF and 4 μF are connected in series across a 12 V battery. Find the charge on each capacitor and the voltage across each.
(a) 8 μC, 8 V & 4 V(b) 16 μC, 8 V & 4 V(c) 6 μC, 3 V & 6 V(d) 48 μC, 4 V & 8 V
Given
\(C_1 = 2\,\mu F\),   \(C_2 = 4\,\mu F\),   \(V = 12\) V,   connected in series.
Need to find
Charge on each capacitor (\(Q_1\), \(Q_2\)) and voltage across each (\(V_1\), \(V_2\)).
Formula
\[\dfrac{1}{C_{\text{eq}}} = \dfrac{1}{C_1} + \dfrac{1}{C_2} \quad(\text{series})\] \[Q = C_{\text{eq}}\,V \qquad V_1 = \dfrac{Q}{C_1},\;V_2 = \dfrac{Q}{C_2}\]
Concept
Think of the two capacitors as two buckets connected end-to-end through a single pipe. Since the same current flowed to fill them, they end up holding the exact same amount of charge — that's the key rule for series. But because the buckets are different sizes, the "water level" (voltage) in each bucket is different: the smaller bucket rises higher for the same amount of water. So the smaller capacitor gets the bigger share of the voltage.
Steps
  1. Compute equivalent capacitance for the series pair: \(\dfrac{1}{C_{\text{eq}}} = \dfrac{1}{2} + \dfrac{1}{4} = \dfrac{3}{4}\;\mu F^{-1}\)  ⇒  \(C_{\text{eq}} = \dfrac{4}{3}\,\mu F\).
  2. Charge drawn from the battery: \(Q = C_{\text{eq}}\,V = \dfrac{4}{3} \times 12 = 16\,\mu C\). This is the charge on each capacitor (series ⇒ same Q).
  3. Voltage across \(C_1\): \(V_1 = \dfrac{Q}{C_1} = \dfrac{16}{2} = 8\) V.
  4. Voltage across \(C_2\): \(V_2 = \dfrac{Q}{C_2} = \dfrac{16}{4} = 4\) V.
  5. Check: \(V_1 + V_2 = 8 + 4 = 12\) V ✓ (matches battery voltage).
Final answer
Charge on each = 16 μC; voltages = 8 V (across 2 μF) and 4 V (across 4 μF). Answer: (b)
📋 Solution cards — awaiting content
1

Question 1 — awaiting content

TBD
Given
Send me the problem setup and I'll fill this in.
Need to find
Formula
Concept
Steps
Final answer
2

Question 2 — awaiting content

TBD
Given
Send me the problem setup and I'll fill this in.
Need to find
Formula
Concept
Steps
Final answer
3

Question 3 — awaiting content

TBD
Given
Send me the problem setup and I'll fill this in.
Need to find
Formula
Concept
Steps
Final answer
💬 Next step: for every question you want worked out, send me a short setup like Q4: two spheres of charge +2μC and −3μC separated by 6 cm, find the force between them and I'll replace one of the placeholder cards above with a full six-row solution. I won't extract text from the source PDF myself.