No, not all axisymmetric triangles are isosceles. An axisymmetric triangle is a triangle that can be rotated 180 degrees and still look the same. Isosceles triangles are a specific type of triangle where two sides are equal in length. While an isosceles triangle can be axisymmetric, not all axisymmetric triangles are isosceles. **

A parallelogram is not axisymmetric because it does not have rotational symmetry around any axis. In an axisymmetric shape, any rotation around a central axis will result in the same shape. However, in a parallelogram, rotating it around any axis other than its center will result in a different orientation and shape. This lack of rotational symmetry around any axis is what distinguishes a parallelogram from an axisymmetric shape. **

The object is axisymmetric because it has rotational symmetry around an axis, meaning it looks the same when rotated around that axis. Point-symmetry, on the other hand, involves reflection symmetry around a point, which is not present in this case. **

No, regularly constructed figures are not always axisymmetric. While axisymmetric figures have rotational symmetry around an axis, regularly constructed figures have equal sides and angles. Some regularly constructed figures, such as squares and equilateral triangles, may also be axisymmetric due to their symmetry properties, but others, like regular pentagons or hexagons, do not possess axisymmetry. **

No, a figure cannot be both axisymmetric and point-symmetric at the same time. Axisymmetric means that the figure has rotational symmetry around an axis, while point-symmetric means that the figure has symmetry around a central point. These two types of symmetry are mutually exclusive, as a figure cannot have both rotational symmetry around an axis and symmetry around a central point simultaneously. **

No, a rational function cannot be both axisymmetric and point-symmetric. Axisymmetric means that the function is symmetric with respect to rotation around an axis, while point-symmetric means that the function is symmetric with respect to reflection across a point. These two types of symmetry are not compatible with each other, so a function cannot exhibit both types of symmetry simultaneously. **

The derivative of an axisymmetric function is always point-symmetric because the function has the same value at every point along a given radius from the axis of symmetry. This means that the rate of change of the function with respect to the distance from the axis is the same in all directions, resulting in a point-symmetric derivative. In other words, the derivative of an axisymmetric function is the same in all directions, leading to point-symmetry. **

To make a right-angled triangle axisymmetric, you can add a mirror image of the triangle to the other side of the right angle. This will create a shape that is symmetrical along the line of the right angle, resulting in an axisymmetric figure. Additionally, you can also add a line of symmetry through the midpoint of the hypotenuse, creating a reflection of the triangle on the other side of the line. This will also result in an axisymmetric shape. **