Given:
Total asset value: \[ \text{Total} = 70 + 50 + 90 + x = (210 + x) \ \text{lakh} \]
Each of the three children receives: \[ \frac{210 + x}{3} \ \text{lakh} \]
Assign:
If \( x = 9 \), total value = \( 210 + 9 = 219 \) lakh. Each child’s share: \[ \frac{219}{3} = 73 \ \text{lakh} \]
From the balance equations and constraints, Seeta’s bank deposits are: \[ \boxed{\text{₹ 20 lakh}} \]
| Assets | Value (₹ lakh) |
|---|---|
| Bank Deposits | 70 |
| House | 50 |
| 3 Flats | 90 |
| Gold Coins | C |
Total asset value: \[ \text{Total} = 70 + 50 + 90 + C = (210 + C) \ \text{lakh} \]
Neeta, Seeta, and Geeta each receive: \[ \frac{210 + C}{3} \ \text{lakh} \]
Let Neeta’s bank deposit = \( x \) lakh, Geeta’s = \( y \) lakh. We have: \[ x < y \quad\text{and}\quad x + y = 70 \] The middle share (Seeta) is automatically \( 70 - (x + y) \) adjusted by assets.
Gold coins are equally divided: \[ \text{Coins per person} = \frac{C}{3} \ \text{lakh} \]
Let \( F_N, F_S, F_G \) be the value from flats/houses each person gets: \[ V_N = x + F_N + \frac{C}{3} \] \[ V_S = \text{(Bank share)} + F_S + \frac{C}{3} \] \[ V_G = y + F_G + \frac{C}{3} \] and \[ V_N = V_S = V_G = \frac{210 + C}{3} \]
Each flat is worth: \[ \frac{90}{3} = 30 \ \text{lakh} \] To balance her low bank deposit, Neeta must receive a higher value in property.
Under equal distribution:
\[ \boxed{\text{Neeta received 2 of the 3 flats.}} \]
An old woman's total assets are:
Total value of assets = Rs. 70 + Rs. 50 + Rs. 90 + x (gold coins)= Rs. 210 + x lakhs. She distributed the assets equally among her three children, Neeta, Seeta, and Geeta. Therefore, the amount each child received = (Rs. 210 + x)/3 lakhs. Let's denote the number of gold coins as 'n'. Therefore, their total worth is Rs. n lakhs. Each child's share must be an integer since individual items like the house, flats, or coins cannot be divided. Since the house is indivisible, it entirely goes to one of the children, contributing Rs. 50 lakhs to that child. Similarly, each flat contributes Rs. 30 lakhs to a child's share. Let's consider various combinations:
If Neeta receives the house (Rs. 50 lakhs) and one flat (Rs. 30 lakhs), this would account for Rs. 80 lakhs of assets. Another Rs. 70/3 lakhs would leave Neeta with a non-integral share. Geeta, receiving the highest from bank deposits, gets Rs. 70 lakhs and one flat (Rs. 30 lakhs), totaling Rs. 100 lakhs. Hence, Geeta could receive no gold coins. Seeta must then receive Rs. 100 lakhs in total assets (Rs. 50 lakhs house + Rs. 30 lakhs flat + Rs. 20 lakhs total in gold coins).
Thus,
| Neeta | House (50) + Flat (30) + Coins (y) |
| Seeta | Flat (30) + Coins (y) |
| Geeta | Bank Deposits (70) + Flat (30) |
Solving: y + y + Coins = Gold Coins = 3(y) = 3x. Solving equality gives x = 90, meaning there are 90 coins in total worth Rs. 90 lakhs.
The old woman has the following assets to distribute among her children: Neeta, Seeta, and Geeta.
Total bank deposits: ₹70 lakh
Total house(s) value: ₹50 lakh
Total flats value: ₹90 lakh (3 flats × ₹30 lakh each)
Let the number of gold coins be x (each worth ₹1 lakh).
The total value of assets is ₹70 lakh (bank deposits) + ₹50 lakh (house) + ₹90 lakh (flats) + ₹1 lakh × x (gold coins).
Given that the assets were distributed equally among the children:
Total value = 210 + x lakhs.
Each child gets = (210 + x)/3 lakhs.
Each received an integer number of gold coins, so x must be divisible by 3. Thus, let x be 3k for some integer k. The total value each child receives becomes (210 + 3k)/3 lakhs = 70 + k.
Now, allocate assets:
Assign other assets:
Given each gets (70 + k) lakhs:
Choose values for k:
Let k = 20 (as derived from distribution):
Now verify distributions within balance:
Thus, Geeta receives ₹20 lakh in bank deposits.
A train travels from Station A to Station E, passing through stations B, C, and D, in that order. The train has a seating capacity of 200. A ticket may be booked from any station to any other station ahead on the route, but not to any earlier station. A ticket from one station to another reserves one seat on every intermediate segment of the route. For example, a ticket from B to E reserves a seat in the intermediate segments B– C, C– D, and D–E. The occupancy factor for a segment is the total number of seats reserved in the segment as a percentage of the seating capacity. The total number of seats reserved for any segment cannot exceed 200. The following information is known. 1. Segment C– D had an occupancy factor of 952. Exactly 40 tickets were booked from B to C and 30 tickets were booked from B to E. 3. Among the seats reserved on segment D– E, exactly four-sevenths were from stations before C. 4. The number of tickets booked from A to C was equal to that booked from A to E, and it was higher than that from B to E. 5. No tickets were booked from A to B, from B to D and from D to E. 6. The number of tickets booked for any segment was a multiple of 10.