Difference between revisions of "2022 SSMO Relay Round 1 Problems"
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==Problem 2== | ==Problem 2== | ||
− | Let <math>T=</math> | + | Let <math>T=TNYWR</math>. Now, let <math>\ell</math> and <math>m</math> have equations <math>y=(2+\sqrt{3})x+16</math> and <math>y=\frac{x\sqrt{3}}{3}+20,</math> respectively. Suppose that <math>A</math> is a point on <math>\ell,</math> such that the shortest distance from <math>A</math> to <math>m</math> is <math>T</math>. Given that <math>O</math> is a point on <math>m</math> such that <math>\overline{AO}\perp m,</math> and <math>P</math> is a point on <math>\ell</math> such that <math>PO\perp \ell</math>, find <math>PO^2.</math> |
[[2022 SSMO Relay Round 1 Problems/Problem 2|Solution]] | [[2022 SSMO Relay Round 1 Problems/Problem 2|Solution]] | ||
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==Problem 3== | ==Problem 3== | ||
− | Let <math>T=</math> | + | Let <math>T=TNYWR</math>. Now, let <math>ABC</math> a triangle such that <math>AB=T,</math> <math>AC=100</math>, and <math>\angle{ABC}=36^{\circ}.</math> Find the remainder when the product of all possible values of <math>BC</math> is divided by <math>1000</math>. |
[[2022 SSMO Relay Round 1 Problems/Problem 3|Solution]] | [[2022 SSMO Relay Round 1 Problems/Problem 3|Solution]] |
Latest revision as of 19:17, 2 May 2025
Problem 1
Suppose are distinct digits where
such that
where
. Find
.
Problem 2
Let . Now, let
and
have equations
and
respectively. Suppose that
is a point on
such that the shortest distance from
to
is
. Given that
is a point on
such that
and
is a point on
such that
, find
Problem 3
Let . Now, let
a triangle such that
, and
Find the remainder when the product of all possible values of
is divided by
.