The goal of a ray diagram is to determine the location, size, orientation, and type of image that is formed by the double concave lens. Typically, this requires determining where the image of the upper and …

For an object inside the focal point, a virtual erect image will be formed. The ray diagrams for concave lenses inside and outside the focal point give similar results: an erect virtual image smaller than the …

Learn how to draw ray diagrams for diverging lenses and understand how they affect the bending of light.

Use the check boxes to choose which rays to show. You need any two to fix the position of the image. The image is shown by the red arrow. Extensions of rays are shown as dotted lines:

Learn how to use ray diagrams to understand the behavior of light rays when they pass through diverging lenses and determine the location, size, and nature of the image formed.

Struggling with your diverging lens ray diagram? This guide breaks down the 3 core rules for tracing rays and locating the virtual image. Draw diagrams with confidence.

To answer these questions, we will look at three different ray diagrams for objects positioned at different locations along the principal axis. The diagrams are shown below.

In this lab, you will construct the TWO ray diagrams for diverging lenses. The diagram below shows five different object locations drawn and labeled in red and their corresponding image locations drawn …

In a diverging ray diagram, the lens is represented by a thick lens shape with two curved sides. The lens is usually shown as concave, with the outer edges thicker than the center. This concave shape …

Diverging lenses, on the other hand, are also known as concave lenses. They spread out parallel rays of light and cause them to diverge. The diagram of a diverging lens shows parallel rays of light entering …