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In terms of {{math|''c''}} and {{math|''h''}},
:<math>a = \left(\frac{c^2+4h^2}{8h}\right)^2\
What can be stated is that as the central angle gets smaller (or alternately the radius gets larger), the area ''a'' rapidly and asymptotically approaches <math>\tfrac{2}{3}c\cdot h</math>. If <math>\theta \ll 1</math>, <math>a = \tfrac{2}{3}c\cdot h</math> is a substantially good approximation.
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