5
The coordinates (x,y). It is the point of intersection.
That would depend on its original coordinates and in which direction clockwise or anti clockwise of which information has not been given.
The point (8,0) is on an axis (abscissa axis or x-axis) and is therefore not in a quadrant.
Havana, Cuba
chicken wings
If point ( a ) has coordinates ((x, y)), its reflection across the y-axis would change the x-coordinate to its negative, resulting in the new coordinates ((-x, y)). Therefore, the coordinates of point ( a ) after reflection across the y-axis would be ((-x, y)).
Your new coordinates would be -2,5.
To find the coordinates of point A' of triangle 2, which is a reflection of point A over the x-axis, you need to change the sign of the y-coordinate while keeping the x-coordinate the same. Since point A is at (-6, -1), the reflected point A' will have coordinates (-6, 1).
When an object is reflected across the x-axis, the y-coordinate of each point changes sign while the x-coordinate remains the same. For example, a point with coordinates (x, y) would be reflected to (x, -y). This transformation effectively flips the object over the x-axis, creating a mirror image of the original object in the opposite half of the coordinate plane.
When a point with coordinates ((x, y)) is reflected over the x-axis, its new coordinates become ((x, -y)). This means that the x-coordinate remains the same while the y-coordinate changes its sign. For example, if the original point is ((3, 4)), its reflection over the x-axis would be ((3, -4)).
To provide the coordinates of point W on the final image, I would need specific details about the image or a description of the context in which point W is located. Please share additional information or a reference to the image, and I’d be glad to help!
To find the coordinates of point A after being dilated by a factor of 3, you multiply the original coordinates (x, y) of point A by 3. For example, if point A has coordinates (2, 4), the new coordinates after dilation would be (2 * 3, 4 * 3) or (6, 12). Thus, the coordinates of point A after dilation depend on its original position.
A translation matrix that would leave a point where it is currently located is the identity translation matrix, which adds zero to the coordinates of the point. In a 2D space, this matrix can be represented as: [ \begin{pmatrix} 1 & 0 & 0 \ 0 & 1 & 0 \ 0 & 0 & 1 \end{pmatrix} ] For a point ((x, y)), applying this matrix results in the same coordinates ((x, y)).
When a line is reflected over the Y-axis, the x-coordinates of all points on the line change sign, while the y-coordinates remain the same. For example, a point (x, y) would become (-x, y) after reflection. This transformation effectively flips the line horizontally, maintaining its slope but altering its position in the Cartesian plane.
5
The coordinates "2s37e" do not correspond to a city. Instead, they are geographical coordinates that specify a location on the Earth's surface, indicating a point 2 degrees south latitude and 37 degrees east longitude. You would need additional information to determine the city located at those coordinates.
To find the coordinates of a point after dilation, you multiply the original coordinates by the scale factor. If the point is represented as ( (x, y) ) and the scale factor is ( k ), the new coordinates become ( (kx, ky) ). If the dilation is from a center point other than the origin, you would first subtract the center coordinates from the point, apply the scale factor, and then add the center coordinates back to the result.