Well, honey, when you have two plane mirrors angled at 90 degrees, you're gonna have a grand total of 7 images. That's right, 7! You've got the original object, 3 images in each mirror, and then a bonus image where they all intersect. So, get ready for a mirror maze of reflections!
Three images will be formed
1/5
(360/Angle)-1 example: angle= 60 then, (360/60)-1=5
5 images. Total number of symmetrical positions = 360/60 = 6. Of these, one is the object itself.
5 images will be formed and how when two plane mirror are tilted at an angle of 60 degree
4.5 or 3.5 The number is five.
The empirical formula for the number of images formed by two inclined mirrors is [ n = \frac{360}{|180-\theta|} ], where (\theta) is the angle between the mirrors. This formula is derived from the concept that each additional image is created when the extended reflected light rays meet at intervals of (\frac{360}{|180-\theta|}) degrees.
As we place two mirrors inclined with each other then many images are formed. If @ is the angle of inclination then number of images is got by the formula [360/@] - 1 Hence as we place the two mirrors at right angles ie 90 degree then number of images will be 3 If both mirrors kept parallel facing each other then infinite images are formed.
When two plain mirrors are placed at a 150-degree angle, multiple images are formed. The number of images formed can be calculated using the formula: ( \text{Number of images} = \frac{360}{\text{angle between the mirrors}} - 1 ). In this case, with a 150-degree angle, the calculation would be ( \frac{360}{150} - 1 = 2 ) images are formed.
2 images are formed
Three images will be formed
To find out how many images are formed when plane mirrors are tilted at an angle, use the formula N=360/a-1 , wherein N is the number of images formed and a is the given angle. So in this case, N=360/30-1, will result to N=11 images formed.
50 images.
1/5
(360/Angle)-1 example: angle= 60 then, (360/60)-1=5
5 images. Total number of symmetrical positions = 360/60 = 6. Of these, one is the object itself.
9