To address the problem of arranging colored beads according to specified rules while maximizing the count of Red beads, a systematic approach is required:
(1) Rule 1 dictates that adjacent beads must differ in color, imposing a checkerboard constraint on both rows and columns.
(2) Rule 2 mandates at least one Green bead between any two Blue beads, maintaining an alternation requirement.
(3) Rule 3 requires at least one Blue bead and one Green bead between any two Red beads, increasing color diversity.
The initial bead placements are Red at 'second row, third column' and 'third row, second column'. The following represents one optimal configuration for placing additional Red beads within these constraints:
| G | B | R | B | G |
| B | R | G | R | B |
| R | G | G | G | B |
| B | R | B | R | G |
| G | B | G | B | R |
In this configuration:
Consequently, the maximum number of additional Red beads that can be placed is 6.
The table provided displays the estimated cost (in lakh) for the construction of a canal between two points. Based on the information in the table, answer the questions that follow.
The following table gives the marks obtained by six students in six different subjects in an examination. The maximum marks for each subject are given in the brackets. Answer the questions that follow.
Consider the provided scenario and answer the following questions based on the given information.
