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Problem: Loud and Rich

Medium
30 min
Understand the Loud and Rich coding challenge where you identify the quietest person among those richer or equally rich. Learn to analyze constraints, implement an optimal O(n + m) time solution, and reinforce your grasp on algorithm efficiency principles.

Statement

You’re given a group of individuals where everyone has a specific amount of money and a different level of quietness. Additionally, you’re given an array richer = [xi,yi][x_{i}, y_{i}​], so that xix_{i}​ has more money than yiy_{i}​. The quietness level of each individual is represented using an array named quiet.

Return an integer array res, where res[i] = y. If y has the lowest value in quiet[y] among all individuals, who have equal or more money than the individual i.

Constraints:

  • n=n = quiet.length
  • 11 \leq nn 500\leq 500
  • 00 \leq quiet[i] << nn
  • All the values of quiet are unique.
  • 00 \leq richer.length n(n1)/2\leq n * (n - 1) / 2
  • 00 \leq x[i], y[i] << n
  • xix_{i} !=!= yiy_{i}
  • All the pairs of richer are unique.
  • The observations in richer are all logically consistent.
Problem
Ask
Submissions

Problem: Loud and Rich

Medium
30 min
Understand the Loud and Rich coding challenge where you identify the quietest person among those richer or equally rich. Learn to analyze constraints, implement an optimal O(n + m) time solution, and reinforce your grasp on algorithm efficiency principles.

Statement

You’re given a group of individuals where everyone has a specific amount of money and a different level of quietness. Additionally, you’re given an array richer = [xi,yi][x_{i}, y_{i}​], so that xix_{i}​ has more money than yiy_{i}​. The quietness level of each individual is represented using an array named quiet.

Return an integer array res, where res[i] = y. If y has the lowest value in quiet[y] among all individuals, who have equal or more money than the individual i.

Constraints:

  • n=n = quiet.length
  • 11 \leq nn 500\leq 500
  • 00 \leq quiet[i] << nn
  • All the values of quiet are unique.
  • 00 \leq richer.length n(n1)/2\leq n * (n - 1) / 2
  • 00 \leq x[i], y[i] << n
  • xix_{i} !=!= yiy_{i}
  • All the pairs of richer are unique.
  • The observations in richer are all logically consistent.