To solve this problem of arranging colored beads following the given rules and maximizing the number of Red beads, we need to break down the problem systematically:
(1) According to Rule 1, no two adjacent beads can have the same color. This implies a checkerboard pattern limitation across rows and columns.
(2) Rule 2 requires at least one Green bead between two Blue beads, ensuring the alternation constraint remains.
(3) Rule 3 necessitates both at least one Blue and one Green bead between two Red beads, increasing color diversity.
Given placements: Red at 'second row, third column' and 'third row, second column'. We explore one possible optimal placement configuration maximizing Red beads within 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:
Therefore, the maximum additional Red beads possible is 6.
Funky Pizzeria was required to supply Pizzas to three different parties. The total number of pizzas it had to deliver was 800, 70% of which was to be delivered to Party 3 and the rest equally divided between Party 1 and Party 2. Pizzas could be of Thin Crust (T) or Deep Dish (D) variety and come in either Normal Cheese (NC) or Extra Cheese (EC) versions. Hence, there are 4 types of pizzas: T-NC, T-EC, D-NC, D-EC. Partial information about proportions of T and NC pizzas ordered by the three parties are given below.




