On a 1989 Blaster cylinder, "Y2" typically denotes a specific manufacturing code or part number that indicates the cylinder's design or compatibility. This code can help identify the cylinder's specifications, such as its bore size or intended application. For precise details, it's best to consult manufacturer documentation or a parts catalog relevant to the 1989 Blaster model.
Each element is the mean of the corresponding elements. Thus, the mean of (x1, y1) and ( x2, y2) is [( x1 + x2)/2, (y1 + y2)/2]
I think you have missed out an equals sign. If you mean x2 + y2 = 16, then the radius is 4.
If you mean: y2+5y+6 then it is (y+2)(y+3) when factored completely
I think you have missed out an equals sign. If you mean x2 + y2 = 16, then the radius is 4.
y6 x y2 y4 x y4 y2 x y2 x y4 y2 x y2 x y2 x y2
Each element is the mean of the corresponding elements. Thus, the mean of (x1, y1) and ( x2, y2) is [( x1 + x2)/2, (y1 + y2)/2]
I think you have missed out an equals sign. If you mean x2 + y2 = 16, then the radius is 4.
If you mean: y2+5y+6 then it is (y+2)(y+3) when factored completely
I think you have missed out an equals sign. If you mean x2 + y2 = 16, then the radius is 4.
y6 x y2 y4 x y4 y2 x y2 x y4 y2 x y2 x y2 x y2
8
4x-y2 = 2
88 + 5y - y2 66 - 3y + y2 Subtract: 22 + 8y -2y2
If you mean y2+8y+7=0 then it is a quadratic. y2+8y+7+9-9=0 y2+8y+16-9=0 (y+4)2=9 y+4=3 , y+4=-3 y=-1 , y=-7 So y can equal -1 or -7.
What do you want to convert it to? x2 + y2 = 2x If you want to solve for y: x2 + y2 = 2x ∴ y2 = 2x - x2 ∴ y = (2x - x2)1/2 If you want to solve for x: x2 + y2 = 2x ∴ x2 - 2x = -y2 ∴ x2 - 2x + 1 = 1 - y2 ∴ (x - 1)2 = 1 - y2 ∴ x - 1 = ±(1 - y2)1/2 ∴ x = 1 ± (1 - y2)1/2
0
It is: y2