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AMC (AIMO validation set) / https://artofproblemsolving.com/wiki/index.php/2022_AMC_12A_Problems/Problem_25 / A circle with integer radius r is centered at (r,r). Distinct line segments of length c_(i) connect points (0,a_(i)) to (b_(i),0) for 1≤i≤14 and are tangent to the circle, where …
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problem
A circle with integer radius is centered at . Distinct line segments of length connect points to for and are tangent to the circle, where , , and are all positive integers and . What is the ratio for the least possible value of ?
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A circle with integer radius r is centered at (r,r). Distinct line segments of length c_(i) connect points (0,a_(i)) to (b_(i),0) for 1≤i≤14 and are tangent to the circle, where a_(i), b_(i), and c_(i) are all positive integers and c₁≤c₂≤⋯≤c₁₄. What is the ratio (c₁₄)/(c₁) for the least possible value of r?
Original LaTeX notation
A circle with integer radius $r$ is centered at $(r, r)$. Distinct line segments of length $c_i$ connect points $(0, a_i)$ to $(b_i, 0)$ for $1 \le i \le 14$ and are tangent to the circle, where $a_i$, $b_i$, and $c_i$ are all positive integers and $c_1 \le c_2 \le \cdots \le c_{14}$. What is the ratio $\frac{c_{14}}{c_1}$ for the least possible value of $r$?Discussion
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