they mainly slide on their stomachs and sometimes waddle.
Protists that have animal-like characteristics are categorized as protozoans. The protozoan group is further subdivided by the way in which the protozoans move. The categories include sacordinians which move using pseudopod, zooflagellates which move using flagella, ciliaphorans which move using cilia, and sporozoans which form spores.
Penguins use a combination of walking and sliding on their bellies to move across land. They are well adapted to moving in this way due to their streamlined body shape and webbed feet. Penguins may also use their flippers to help balance and steer as they walk or slide.
They waddle. Sometimes, they fall onto their stomachs and slide.
They camoflage. And stay up in trees and don't move.
When moving a slide to the right, the image in the ocular will appear to move to the left. This is due to the adjustments made to keep the specimen in the center of the field of view as the slide is shifted.
To keep a euglena in view while it's swimming to the left, you should move your slide to the right. This will help you maintain its position within the field of view.
Moving the slide to the right in a microscope stage will cause the image to move to the left in the field of view.
If you move the slide to the left using a microscope, the specimen will appear to move to the right in the field of view. This is because the movement of the slide in one direction causes the specimen to move in the opposite direction within the field of view of the microscope.
When you move a slide up on a microscope stage, the image moves down in the field of view. This is because the light travels through the slide from bottom to top, so as you move the slide up, the image appears to move down.
The image will move upwards in the field of view when the slide is moved towards you. This is because the slide is physically closer to the objective lens, resulting in the object on the slide appearing to move in the opposite direction.
You would move your slide to the left in order to bring the object from the left side of the field to the center.
When you move the slide down under the microscope, the specimen on the slide will appear to move upward in the field of view. This is due to the way light rays bend as they pass through the lens system of the microscope, resulting in the specimen appearing to move in the opposite direction as the slide.
When you move the slide of the microscope to the right, any object on the slide as well as the slide itself will appear to move to the left. In a microscope, the image is actually inverted sideways and upside down. Like a double reflection.
When you move the slide to the right in a microscope, the image appears to move to the left in the field of view. This is because the slide is moving in the opposite direction to the movement of the stage. It gives the impression that the image is shifting in the opposite direction.
When you move the slide to the right under a microscope, the specimen on the slide will appear to move to the left in the field of view. This optical effect is due to the way light travels through the lenses of the microscope and is called the "opposite movement" phenomenon.
You would need to move the slide to the right in order to bring the object from the left side to the center of the field of view under the microscope.