(2,1)
Oh, what a lovely journey we're going on! To translate something means to move it. So, let's take our point and gently shift it 4 units to the right and 5 units down. Just like that, we've created a new location full of possibilities. Remember, there are no mistakes, just happy little accidents!
Not sure
The new coordinates are(3 + the old 'x', 2 + the old 'y')
For a start, you would need an initial equation. A horizontal translation of ANY equation can be achieved by replacing every ocurrence of "x" with "x - a", where "a" is the amount you want to move the graph to the right. For example, replacing every ocurrence of "x" by "x - 10" will move your graph 10 units to the right.
(0,0) = the origin
If you we're at the point (8,-2) and you went 5 units right and 2 units up, you'd be at (13,0).
The coordinates are (10, 5).
Here's an example: In the coordinate plane, the point is translated to the point . Under the same translation, the points and are translated to and , respectively. What are the coordinates of and ? Any translation sends a point to a point . For the point in the problem, we have the following. So we have . Solving for and , we get and . So the translation is unit to the right and units up. See Figure 1. We can now find and . They come from the same translation: unit to the right and units up. The three points and their translations are shown in Figure 2.
A translation that moves a point 4 units to the right and 5 units down can be described by the rule ( (x, y) \rightarrow (x + 4, y - 5) ). This means that for any point ((x, y)), you add 4 to the x-coordinate and subtract 5 from the y-coordinate to find the new position after the translation.
A translation of 4 units to the right followed by a dilation of a factor of 2
(z,z+2) or (z+2,z)
the translation of 2 is the one that triangle moves by 4 units right and 8 units up
The rule for the transformation formed by a translation of 5 units to the right and 2 units up is given by the function ( (x, y) \rightarrow (x + 5, y + 2) ). This means that for any point ((x, y)), you add 5 to the x-coordinate and 2 to the y-coordinate to find the new position after the translation.
A reflection across the origin transforms a point ((x, y)) to ((-x, -y)). After this reflection, a translation of 3 units to the right and 4 units up shifts the point to ((-x + 3, -y + 4)). Therefore, the combined rule for the transformation is given by the mapping ((x, y) \to (-x + 3, -y + 4)).
A function that translates a point ((x, y)) to the right by (a) units and up by (b) units can be expressed as (f(x, y) = (x + a, y + b)). This means you simply add (a) to the x-coordinate and (b) to the y-coordinate of the original point. In function notation, if (f(x, y)) represents the original point, the translated point can be represented as (f'(x, y) = (x + a, y + b)).
The orientation of figure L would remain unchanged after a translation of 8 units to the right and 3 units up. Translation moves a figure without altering its shape, size, or direction. Thus, while the position of figure L will change, its orientation will stay the same.
Translation down 3 units refers to the movement of a geometric figure or point in a downward direction along the vertical axis by three units. This means that every point of the figure or point is shifted straight down, reducing its y-coordinate by 3. For example, if a point originally at (x, y) is translated down 3 units, its new position will be (x, y - 3).