Step 1: Calculate plot area.
\[
\text{Plot area} = 1 \; \text{hectare} = 10{,}000 \; \text{m}^2
\]
Step 2: Built-up area using FAR.
\[
\text{Built-up area} = FAR \times \text{Plot area} = 2.0 \times 10{,}000 = 20{,}000 \; \text{m}^2
\]
Step 3: Car parking requirement.
One car parking required for every 100 sq.m built-up area.
\[
\text{Required parking spaces} = \frac{20{,}000}{100} = 200 \; \text{cars}
\]
Step 4: Distribution of parking between ground floor and basement.
Parking area is distributed equally:
\[
200 \div 2 = 100 \; \text{cars in ground floor (minimum allocation)}, 100 \; \text{cars in basement}
\]
Step 5: Area requirement and adjustment.
- Ground floor: Each car requires 15 sq.m
\[
100 \times 15 = 1500 \; \text{m}^2
\]
- Basement: Each car requires 25 sq.m. Initially, 100 cars →
\[
100 \times 25 = 2500 \; \text{m}^2
\]
But — the parking area allocation is by total requirement, not fixed per car count.
Step 6: Total area required for 200 cars.
Since ground and basement must share equally in terms of area, not car count, we calculate:
Total area needed if all were in ground = \(200 \times 15 = 3000\) m\(^2\).
Total area needed if all were in basement = \(200 \times 25 = 5000\) m\(^2\).
But given: Area is equally split.
\[
\text{Total parking area required} = 200 \times \text{average area per car}
\]
Weighted average area = \(\frac{15+25}{2} = 20\) m\(^2\)/car
\[
\text{Total parking area} = 200 \times 20 = 4000 \; \text{m}^2
\]
So each level (ground + basement) gets:
\[
\frac{4000}{2} = 2000 \; \text{m}^2
\]
Step 7: Cars accommodated in basement.
\[
\text{No. of cars in basement} = \frac{2000}{25} = 80 \; \text{cars}
\]
Wait — check again carefully:
The question states parking area equally distributed between ground and basement, not number of cars.
Step 8: Correct calculation.
- Total parking spaces required = 200.
- Each car requires 100 sq.m built-up ÷ FAR ÷ ratio → correction not needed.
- Equal area distribution: 2000 m\(^2\) basement / 25 m\(^2\) per car = 80 cars.
Final Answer: \[ \boxed{80 \; \text{cars}} \]
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Match the following Planning Strategies in Group-I to their corresponding descriptions in Group-II.

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