96.25: Which of the following is NOT possible for the images formed by thk+-xg aw 4v/*zbxtx1fe lens in the accompanyi+vxx*z1 k/at w bx4fg-ng figure?

  97.07: A narrow beam of monochromatic light enters a lens parall kx:vaowgu5st .+5q 0tel to the optic axis, as shown 5gt+:uqkx. 0 tao5vswin the accompanying diagram. Which arrow best represents the direction of the light after leaving the lens?

  16.29: A ray of light is incident onto a thin glass lens as s/ gq78gvj beao*6i1 czhown. Which one of the following arrows best indicates the e q6b1gvg87oj * ic/zapath of the refracted ray?

  01.06: After striking the lens shown in the diagram at r;m(*l obx nf)wight, the light ray will most lbx*m ol (;fn)wikely follow which path?

  95.10: A plane mirror produces an imaggv vr4,kyo4 //ev7 vpce that is:

  94.18: An object is located 0.20 meters scdj4)/l)+k unn0lbv from a converging lens which has a focal le4nv/cn )sj+ )dulb 0klngth of 0.15 meters. Relative to the object, the image formed by the lens will be:

  98.19: In order to produce an enlarged, upright image of an object, youk ihbvbj + 3nun24+pz6 could use 2pzi+u k36n4v+bnbj ha

  99.34: A small light bulb is placed 20 cm to the rig-mky l/hey dt2t/ *w/pt:h)dxht of a converging lens of focal length 10 ct ed/m/d2hwx/h-yl*ytp: k )t m. Which of the following statements is NOT true about the image of the bulb formed by the lens?

  05.29: An object is in front of a convex lens, at a distance les sj(opm8qb8 yodg2d hv61 m r3*p7li:ls than the focal length from the lens. Its i r i1hv dl2p*jldb6oy83mo8sg:7m( pq mage is

  95.21: A diverging lens produces an imagh7xnaic(+/mx)igqp ,x y- r p;e of a real object that is:

  08.28: A diverging lens produ(sqli:z6u g; fces an image of a real object. This image is

  09.43: A real object is located in front of a convex0m r:;lo2 rsg4x ogia5huiw /+ lens at a distance greater than the focal length of the lens. What type mlwi5+x h/ ug4r2gio 0 s:a;roof image is formed and what is true of the image’s size compared to that of the object?

  10.28: Which of the following could pr h9rd h+5afde;oduce an enlarged but inverted image of a realef;5 +9da dhhr object?

  99.38: An image is formed on a screen by a converbru oh ,ca 6 .ozyx7- 8y*fz)s2b-nxmpr-de*tgent lens. If the top half of the lens is then coveh*dezyfcms2, u .o -pr by7)-8*rt-ox6zanbxred what will happen to the image?

  11.45: An object is placed in front of a thin converging lens rrof9t+yb(nccp4qd 8 g n(8aamj9r-2v esulting in a focused image forming on a scr98 (qa+ramcg2rnt v b8-n fjc( 4ypdo9een. If the bottom half of the lens were covered with black paper, what happens to the image on the screen?

  11.33: For the set-up shown of a candle and screenyh:a* e5uq p-0 vnj)tx placed 30 cm apart, there are two locations at which a thin converging lens can be placed to produce a focused real image. One real hqeu)v:5pj -yxta0n* image of the candle appears on the screen 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 tg to2t9v (3gdfhe center of a concave curved mirror with a radius of curvature of 10 cm. About how far from tt9o (g32dgfv the mirror will the real image of the object be formed?

  03.22: An object placed +ugt61r b e;4 npnuew8.2rflq in front of a converging mirror creates a real image. The distance between the object and the mirror is then doubled, resulting in an image 1/3 as large6 p1u; nubfg.rt2 wn4+l8q eer as before.Where was the object originally?

  04.30: A converging lens forms2bq :de)ed m0l a virtual image of a real object that is two times the object's size. The converging lens is replaced with a diverging lens having the same size focal length. What is the magnification of the image formed by the die d)lb0qm:2 edverging lens?

  17.45: Which one of the following magnifications cannot be proj efwaqnqtl4 e9(+0 8wduced using a single converging lee9j0 f(leant4wwq8+q ns?

  13.37: A real object in air is placed in front of a glass lk)h-ek zyu64m ens. The calculated image size is larger than the size of the original object. Which one of the following conclusions about the type of lens used and the type of image 6m4yeuk )zk -hformed is correct?

  12.35: A student wants to set up an experiment with a thin coe.te9gx6 s8l2u qj8m jji4 7t85kx insnvex lens of focal length f such that a thin real object produces a focuse9 jnt5x8lieke8 usj48m6it7 x 2 sqgj.d 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 the focused image on the screen is equal to 3f ?

  14.36: A concave mirror with focal length f is owva0q8vq6a va+1/h l+gq3id shown in the figure. A real object now is placed to the left of the mirror. In theory, which one of the following choices best describes everywhe1+ 0d3aav6wi /8hqg av+q ovqlre that it is impossible for an image to form from the mirror?

  16.42: An object (which points upwardqlv0n* 1i: olr) is placed 21.0 cm from a converging lens of focal length 18.0 cm. Which one of the following choices is true about the image formed :0il lrn1*vq oby the lens?

  06.38: For which of the following does one obtain an imageppiyjsv45.my dm n x c017l3p9 of increased size from a real object? Take a1 sdc9p.mp4ymv073jiyn5x plll focus and radius of curvature values as positive.