No, a diverging lens cannot form a real image of a real object. Instead, it always produces a virtual image that is upright and located on the same side of the lens as the object. This occurs because the light rays diverge after passing through the lens, and they appear to originate from a point behind the lens.
Since the image height is smaller than the object height, it is a virtual image. Using the thin lens equation (1/f = 1/d_o + 1/d_i), where d_o is the object distance and d_i is the image distance, and assuming a diverging lens, the image distance is found to be -17.17 mm. This means the image is located 17.17 mm in front of the lens.
The formula used to calculate the image distance for a diverging lens is 1/f = 1/d_o + 1/d_i, where f is the focal length of the lens, d_o is the object distance, and d_i is the image distance. Given the object distance of 51 mm, the object height of 13 mm, and the image height of 3.5 mm, the image distance from the lens can be calculated using the equation and appropriate algebraic rearrangements.
The rays of light going through the dead centre are not deviated. So the angle from the top of image to lens centre is the same as for top of object to lens centre. So height is proportional to distance. So 13/51 = 3.5/dist giving distance=3.5x51/13 = about 13.73mm
A concave lens, also known as a diverging lens, can produce an image that is upside down and reversed. This type of lens causes light rays to spread out, resulting in an image that is flipped both vertically and horizontally when compared to the original object.
Yes, a diverging lens creates a virtual image on the same side as the object. The image appears smaller than the object and cannot be projected onto a screen.
A diverging lens can only produce a virtual image, because the light passing through a diverging lens never converges to a point. The virtual image produced by a diverging lens is always right-side-up and smaller than the original object. The image and the object viewed are always on the same side of the lens. Diverging lenses are used as viewfinders in cameras.
A diverging lens can produce several types of images, depending on the location of the object relative to the lens. Typically, a diverging lens will produce a virtual, upright, and reduced image for objects placed beyond the lens' focal point.
An object is located 51mm from a diverging lens the object has a height of 13mm and the image height is 3.5mm?Diverging lens do not form real images.When parallel rays of light passes thru a diverging lens, the rays diverge (spread apart) on the other side of the lens. It forms a virtual image. The object will look smaller.The image is on the same side of the lens as the object, so f is negative.Do = 51mm Ho = 13mmDi = ______ Hi = 3.5mmDi = -13.7mm1/Di + 1/Do = 1/f1/-13.5 + 1/51 = 1/ff = -18.36 mm
A single diverging lens always produces a virtual image. This is because the light rays that pass through the lens appear to diverge as they are traced back on the same side as the object, making it impossible for them to converge to form a real image on a screen.
No, a diverging lens will always form a virtual image. This is because the light rays diverge after passing through the lens, preventing them from actually converging to a real focal point where an image could be formed.
A diverging lens. In this case, the object distance will be equal to the image distance but with opposite sign.
A converging lens produces a virtual image that is upright and enlarged, while a diverging lens produces a virtual image that is upright and reduced in size. Additionally, the converging lens forms the virtual image on the same side as the object, while the diverging lens forms it on the opposite side.
A diverging lens will produce a virtual image that is upright, reduced in size, and located on the same side as the object. The image will also be formed by extending the refracted rays backwards.
A diverging lens can produce both reduced and magnified real images, depending on the position of the object relative to the lens and the focal length of the lens. However, the most common case is for a diverging lens to produce a reduced real image.
converge. Instead of meeting at a point to form a real image, the diverging lens causes the light rays to spread out, resulting in a virtual image that appears to be located on the same side as the object.
concave lens does not form a rel image and convex MIRROR does not form a real image