96.25: Which of the following is NOT possible for the imagz0 8 gzzov+h2 wp4uyn3es formed by the lens yoz pw4 h vugz2+z0n38in the accompanying figure?

  97.07: A narrow beam of monochromatic light enters a lens parallel to theeek61k kv:d03;c +qck chd0zg optic axis, as shown in the accompanying diagram. Which arrow best represents the direction of the light after leaving the keg6k0kk e ch:1zd3c 0v dc+;qlens?

  16.29: A ray of light is incident onto a thin glasq 4, ,sax kwr0 /d78jvrjmag+es lens as shown. Which one of the following arrows bes/7grasmdre0x j 8k+ ,vq j4aw,t indicates the path of the refracted ray?

  01.06: After striking the lens shown in the diagra4lkcg 6 * a.yw5cpzhpt6dr3g9m at right, the light ray will most likely follow whic3p5.w y*6l ggprz4ckdh96ac th path?

  95.10: A plane mirror produces an z1jbcw2*t 9 jus523/qg. u -w itoecxeimage that is:

  94.18: An object is located 0.20 meters from a converging lens whfm+9y1pt i4cqich has a focal length of 0.15 meters. Relative to the m+4qp ity9f c1object, the image formed by the lens will be:

  98.19: In order to produce an 7*g/aj3;hp 3 s pqztqrenlarged, upright image of an object, you could use a3*j r s3 /tqapp7gzhq;

  99.34: A small light bulb is placed 20 cm to the right of a cohj(7b p,nt /vknverging lens of focal length 10 cm. Which of the following statements is NOT true about the image ofjbnpk(7 th/, v the bulb formed by the lens?

  05.29: An object is in front of a convex lens, at s1m-ld wsc )xos:*l 9ca distance less than the focal length from the lens. Its imagc)1x9s*s:lo-w scdm le is

  95.21: A diverging lens produces an image of a rix9 7nl:+ak)/z -2wywugvqqw eal object that is:

  08.28: A diverging lens produces an imagavcn/5a) qo; cm;t+/e n+sqxke of a real object. This image is

  09.43: A real object is located in front of a convex led/e+lnn 8 ql) 0ynyj+bhj he -10eefe*ns at a distance greater than the focal length of the lens. What type of image is formed and what fdn0e1* eqeh/ n)+ hlb 8 j0ej+elyyn-is true of the image’s size compared to that of the object?

  10.28: Which of the following could produce anwf+(c)8dje0 jxkmto0d:i fb 2 enlarged but inverted image of a reaed+ m2 fct:k oi0f(w)8 d0jbjxl object?

  99.38: An image is formed on a screen by a convd a,1c8cul0bqsz i,(pergent lens. If the top half of the lens is then covered what wiliqdpuac1bl08,c, ( zsl happen to the image?

  11.45: An object is placed in front of a thin converging lens resultingl+k076bzfi:vtjsulx z) m3 6fz0ewy4 in a focused image forming on a screen. If the bottom half of the lens were covered wlw+ fjsivexb03y zk zlzftmu4:6706)ith black paper, what happens to the image on the screen?

  11.33: For the set-up shown of a candle and screen placed 30 cm aptn(5hk6 fgmnf 8t/: xyart, there are two locations at which a thin converging lens can be placed to produce a focused real image. One real image of the candle appears on the s8/f t(yh nnf m:g65xktcreen when the lens is located 12 cm from the candle. From this location, how does this lens now have to be moved in order to make the second real image of the candle appear on the screen?

  01.23: A object is placed 10 cm in front of the center of a conssiuo /:xhj u6,xj w jm/6p+l/cave curved mirror with a radius of curvature of 10 cm. About how far from the mirror will the real imagiju /: ,jsm pu/+6sx 6jwolh/xe of the object be formed?

  03.22: An object placed in frou;ti pakrxige) v3oq 41b 42:bnt of a converging mirror creates a real image. The distance between the object and the mirror is then doubled, resulting in q u)e;tva2 b4g3 pb4i1i kxo:ran image 1/3 as large as before.Where was the object originally?

  04.30: A converging lens forms a virtual image of a real object th9n/md d)hww2x u1oy5uat is two times the object's size. The converging lens is replaced with a diverging lens haom2h w9ndu5)x w1/yu dving the same size focal length. What is the magnification of the image formed by the diverging lens?

  17.45: Which one of the followw4am/t8n.jgbw8fq :z i u81 lxing magnifications cannot be produced using a single converging lenignl8 t148 bzx. qfjwuamw:/ 8s?

  13.37: A real object in air is placed in front ov nv6:/i6qknaf a glass lens. The calculated image size is larger than the size of the origv:qani6k /6nvinal object. Which one of the following conclusions about the type of lens used and the type of image formed is correct?

  12.35: A student wants to set up an experiment with a thin convex lens of focalt )* ;pof 1jh o.ty9zc7tslib/ length f such that a thin real object produces a focused real image on a movable screen. At how many locations along the optical axis (principal axis) can the object be placed so that the distance between the object and )jo.tt h /cyb1*;fp 79il otsz the focused image on the screen is equal to 3f ?

  14.36: A concave mirror with focal length f is shown in the figure. tr bdw7*8)ot0n)qita1i+ fny A real object now is placed to the left of the mirror. In theory, which one of the following choices best describes everywhere that it is impossible for an image to fori 7f 10w8doiyqab r)+ tt)nnt*m from the mirror?

  16.42: An object (which points upward) is placed 21.0 cm from a conveq +wl8st/oyq;q.op(erging lens of focal length 18.0 cm. Which one of the following choioyo s t8wqq+l/.eq p;(ces is true about the image formed by the lens?

  06.38: For which of the followinci q imhbol1*:9mp8d7g does one obtain an image of increased size from a real object?dip lmm9i18:q*ch 7 bo Take all focus and radius of curvature values as positive.