Decode the logic and print the Pattern that corresponds to given input. If N= 3 then pattern will be : 10203010011012 **4050809 ****607 If N= 4 then pattern will be: 1020304017018019020 **50607014015016 ****809012013 ******10011

To decode the logic and print the pattern for a given input \( N \), let’s analyze the patterns for \( N = 3 \) and \( N = 4 \).

Pattern Analysis

For \( N = 3 \):

  • Line 1: 102030
  • Line 2: 10011012
  • Line 3: **4050809
  • Line 4: ****607

For \( N = 4 \):

  • Line 1: 10203040
  • Line 2: 17018019020
  • Line 3: **50607014015016
  • Line 4: ****809012013
  • Line 5: 10011

Observations:

  1. The pattern consists of numbers and asterisks.
  2. Each line starts with numbers and is followed by asterisks.
  3. The numbers in each line increase by a fixed step.
  4. The number of asterisks increases as the lines progress.

Pattern Logic:

  • Line 1: Numbers from 10 to \( 10 \times N \) with a step of 10.
  • Line 2: Numbers from 10 to \( 10 \times N \) with a step of 10, followed by numbers from 100 to \( 100 + (N-1) \).
  • Line 3: Starts with two asterisks, followed by numbers from 40 to \( 40 + (N-1) \times 10 \) with a step of 10, then numbers from 140 to \( 140 + (N-1) \).
  • Line 4: Starts with four asterisks, followed by numbers from 60 to \( 60 + (N-1) \times 10 \) with a step of 10, then numbers from 200 to \( 200 + (N-1) \).

General Pattern for \( N \):

  1. Line 1: Numbers from 10 to \( 10 \times N \).
  2. Line 2: Numbers from 10 to \( 10 \times N \), followed by numbers from 100 to \( 100 + (N-1) \).
  3. Line 3: Starts with two asterisks, followed by numbers from 40 to \( 40 + (N-1) \times 10 \), then numbers from 140 to \( 140 + (N-1) \).
  4. Line 4: Starts with four asterisks, followed by numbers from 60 to \( 60 + (N-1) \times 10 \), then numbers from 200 to \( 200 + (N-1) \).

Example for \( N = 5 \):

  • Line 1: 1020304050
  • Line 2: 100110120130140
  • Line 3: **5060708090
  • Line 4: ****100110120130
  • Line 5: 140150160170

This pattern can be generated programmatically by following the observed logic and incrementing the number of asterisks and numbers accordingly.

Related

the allele for black noses in wolves is dominant over the allele fro the brown noses. There is no known selective advantage for one nose colour over another in wolves. If this remains true, which of the following statements is most liklely TRUE about the change in wolf nose colours re over many generations? Black noses will become more common than they are now black noses will stay about the same frequency as now black noses will become less common than they are now brown noses wil disappear after enough generations pass