Construct a unit circle $$ x^2+y^2 = 1 $$ between (0,1) and (1,0).
Then construct the hyp. $$ x^2-y^2 = 1$$ in the same interval.
You should have the ++ quadrant of a unit circle. and the upper half of an hyperbola, coincident at (0,1). Construct any line from (0,0) to the curve $$ x^2-y^2 = 1$$
Write the formula for the area of the triangle bounded by y=0; y=tan(theta) where theta is <pi/4, and subtended by the line from (0,0) to the hyperbola; and the hyperbolic curve, in terms of x and y.
Can you construct a line from (0.5,0) to the same point on the hyperbola as y=tan(theta) which is the upper right vertex of the triangle? How close can theta be to pi/2, and what limits this?
P,S, you may notice that you can't fit $$ x^2-y^2 = 1$$ into (0,1), (1,0); the hyp. lives 'outside' x=1; you need (0,1), (1,y).
Then construct the hyp. $$ x^2-y^2 = 1$$ in the same interval.
You should have the ++ quadrant of a unit circle. and the upper half of an hyperbola, coincident at (0,1). Construct any line from (0,0) to the curve $$ x^2-y^2 = 1$$
Write the formula for the area of the triangle bounded by y=0; y=tan(theta) where theta is <pi/4, and subtended by the line from (0,0) to the hyperbola; and the hyperbolic curve, in terms of x and y.
Can you construct a line from (0.5,0) to the same point on the hyperbola as y=tan(theta) which is the upper right vertex of the triangle? How close can theta be to pi/2, and what limits this?
P,S, you may notice that you can't fit $$ x^2-y^2 = 1$$ into (0,1), (1,0); the hyp. lives 'outside' x=1; you need (0,1), (1,y).
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