Jackie is making a beaded bracelet. the bracelet will have no more than 12 beads. 1/3 of the beads will be green. what other fractions could represent the part of the beads on the bracelet that will be green

Other fractions could represent the part of the beads on the bracelet that will be green are :

Step-by-step explanation:

The maximum number of beads the bracelet can have  = 12 beads

The fraction of green beads in the bracelet = 1/3

⇒ 1 bead in every 3 bead is GREEN.

⇒The minimum number of total beads = Number of (green+ Other) bead          

                                                                   = 2 + 1  = 3

Now, the possible number of total beads the bracelet can have is

3, 4, 5 , 6, 7, 8, 9 ,10, 11 and 12.

If there are total 3 beads, the fraction representing the green bead  =

If there are total 6( =3 +3) beads, the fraction representing the green bead  

= 1 green bead in first 3 beads +  1  green bead in next 3 beads

=   2 green beads in total 6 beads =  

If there are total 9( = 3 +3 +3) beads, the fraction representing the green bead  =

If there are total 12( = 3 +  3 +3 +3) beads, the fraction representing the green bead  =

Hence, other fractions could represent the part of the beads on the bracelet that will be green are :

infinitely many solutions

step-by-step explanation:

we have been given the equation;

2(2x + 3) = -4 + 2(2x + 5)

we need to determine the value of x.

2(2x + 3), we expand this expression to obtain 4x + 6

similarly 2(2x + 5) will become 4x + 10

now we have;

4x + 6 = -4 + 4x + 10

4x + 6 = 4x + 10 - 4

4x + 6 = 4x + 6

the expression on the left hand side is identical to the one on the right hand side. therefore, we are looking at just a single straight line whose equation is;

y = 4x + 6

consequently, we shall have infinitely many solutions

in simplified version   it would be x ≤-4

step-by-step explanation:

multiply each term in x ≤-4 by -1