Step 1: Let Variables Represent the Scenario
Let the number of persons ahead of Pinky be \( 3x \) Let the number of persons behind Pinky be \( 5x \) (since the ratio is \( 3:5 \))
Step 2: Total Number of Persons in the Queue
Total number of persons in the queue is: \[ 3x + 1 + 5x = 8x + 1 \] We're told: \[ 8x + 1 < 300 \]
Step 3: Solve the Inequality
Subtract 1 from both sides: \[ 8x < 299 \] Divide by 8: \[ x < \frac{299}{8} = 37.375 \Rightarrow \text{Maximum integer value of } x = 37 \]
Step 4: Calculate Persons Ahead of Pinky
Using \( x = 37 \): \[ \text{Persons ahead of Pinky} = 3x = 3 \times 37 = \boxed{111} \]
\[ \boxed{\text{Maximum persons ahead of Pinky} = 111} \]
Step 1: Assume Representation
Let Pinky be surrounded by:
Total number of people in the queue (including Pinky) is: \[ 3a + 5a + 1 = 8a + 1 \]
Step 2: Apply the Total Constraint
Given: total people in the queue is less than 300: \[ 8a + 1 < 300 \Rightarrow 8a < 299 \Rightarrow a < 37.375 \] Since \(a\) must be a whole number, the maximum possible value of \(a\) is: \[ a = 37 \]
Step 3: Calculate People Ahead of Pinky
Using \( a = 37 \): \[ \text{People ahead of Pinky} = 3a = 3 \times 37 = \boxed{111} \]
\[ \boxed{111} \] is the maximum number of people that might be standing in front of Pinky.
When $10^{100}$ is divided by 7, the remainder is ?