Two students arrange an object in front of a spherical mirror (focal length of 3.6cm) so that the image is 3.00 times larger than the object, and draw diagrams to show how and why they placed the object where they did. The instructor collects their work and finds that each student put the object at a DIFFERENT place relative to the focal point, and yet both students correctly got an image 3.00 times as large. Your job is to show with a calculation the two locations of the object and which a ray diagram, show how each is in fact magnified appropriately.
Please help me with the calculations. I can make the diagram according to the calculations.
Remember when u=4.8 then image is real.
When u=2.4 then image is virtual (inside the mirror).
Two students arrange an object in front of a spherical mirror (focal length of 3.6cm) so...
2. An object is 30 cm in front of a convex mirror with a focal length of 20 cm. Using ray tracing and thin lens equation, determine whether the image is real/virtual, upright/inverted, reduced/magnified.
2. An object is 30 cm in front of a convex mirror with a focal length of 20 cm. Using ray tracing and thin lens equation, determine whether the image is real/virtual, upright/inverted, reduced/magnified.
An object is 11 cm in front of a concave spherical mirror with focal length of magnitude 5.0 cm. What are (a) the radius of curvature of the mirror (including sign), (b) the image distance (including sign), and (c) the magnification (including sign)?
A10 and All. A CONCAVE spherical mirror has a focal length of 20 cm. An object is placed 60 cm from the pole P of the mirror as shown in the diagram. R is the center of curvature. All. (i) Is the image magnified or diminished? Explain and justify your answer. (ii) Confirm your answers to the above part questions in A10 and All above, by sketching the paths of TWO Rays on the diagram to show how and where...
An object 2.0 cm tall is placed at different locations in front of a concave mirror whose radius of curvature is 30 cm. Determine the location of the image and its characteristics when the object distance is 30 cm and 10 cm using (a) The ray diagrams (Note: Draw the ray diagram on a sheet paper using Parallel ray, Chief ray and focal ray) (b) The mirror equation
25.16 An object is placed 17 cm in front of a spherical mirror. The image lies 5.0 cm in front of the mirror. What is the focal length f of the mirror? 25.18 A person’s face is 30.0 cm in front of a concave makeup mirror, producing an upright image that is 1.63 times as large as the object. What is the mirror’s focal length f?
An object is placed in front of a concave mirror with a focal length of 5 cm . The image formed is at a distance of 7.5 cm behind the mirror. The magnification factor m= An object is placed in front of a concave mirror with a focal length of 10 cm . The image formed is at a distance of 20 cm on the same side of the mirror. The magnification factor m= An object is placed in front...
An object O is placed at the location shown in front of a convex spherical mirror. Use ray tracing to determine the location and size of the image in the mirror. As you work, keep in mind the following properties of principal rays: A ray parallel to the axis, after reflection, passes through the focal point F of a concave mirror or appears to come from the (virtual) focal point of a convex mirror. A ray through (or proceeding toward)...
A spherical lens has a magnification is +3.0. (a) Determine the focal length in terms of the object distance. (b) Suppose the object is located 6.0 cm to the left of the mirror. What are the focal length and image distance? (c) Is the lens concave or convex? (d) Using a ray diagram, confirm the locations of the image and focal point.
A thin spherical concave mirror has a focal length f. An object in located 10.0 cm in front of the mirror and it is noticed that a real image is formed where the object is located. Calculate the focal length of the mirror.