Suppose the variables are X and Y and the equation can be written in either of the following equivalent forms:
bY = aX or aX - bY = 0 or Y/X = c
where a, b and c are non-zero constants.
find the direct variation equation 3x+y=0
Oh, dude, direct variation is when two variables change in the same way. In this case, 5x + 3 = 8y + 3, so technically they are changing in the same way by adding 3 to both sides. So, yeah, I guess you could say it's a direct variation, but like, who really cares, right?
No.
When two variables are related in such a way that the ratio of their values always remains the same, the two variables are said to be in direct variation. y=2x is direct variation y=x+2 is not direct variation
Direct variation
find the direct variation equation 3x+y=0
I have recently been doing all these direct variation problems but not every linear relationship is a direct variation... But every direct variation is a linear relation!
An equation in slope-intercept form (y = mx + b) represents a direct variation only when the y-intercept (b) is zero, making it (y = mx). If (b) is non-zero, the equation does not represent a direct variation, which is defined as a linear relationship that passes through the origin. Therefore, it is "sometimes" true that an equation in slope-intercept form represents a direct variation, depending on the value of (b).
There is only one equation that is given in the question and that equation is not a direct variation.
To determine if (-12 = 6y) represents direct variation, we can rearrange the equation to solve for (y). Dividing both sides by 6 gives (y = -2), which shows that for each value of (y), there is a constant multiple of (-2). Since this equation can be expressed in the form (y = kx) (where (k) is a constant), it does represent a direct variation.
No. This is not true. It is false. The equation is an example of direct variation.
In direct variation, the relationship between two variables ( y ) and ( x ) can be expressed as ( y = kx ), where ( k ) is the constant of variation. Using the point (-10, -17), we can substitute these values into the equation: ( -17 = k(-10) ). Solving for ( k ) gives ( k = \frac{-17}{-10} = \frac{17}{10} ). Therefore, the equation representing the direct variation is ( y = \frac{17}{10}x ).
There are three ways: a table, a graph, and an equation.
Yes, the equation ( y = -3x ) represents a direct variation. In a direct variation, the relationship between two variables can be expressed in the form ( y = kx ), where ( k ) is a constant. Here, the constant ( k ) is -3, indicating that ( y ) varies directly with ( x ) but in the opposite direction.
Oh, dude, direct variation is when two variables change in the same way. In this case, 5x + 3 = 8y + 3, so technically they are changing in the same way by adding 3 to both sides. So, yeah, I guess you could say it's a direct variation, but like, who really cares, right?
No.
no.