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k a May Highlights and 2025 AoPS Online Class Information
jlacosta   0
May 1, 2025
May is an exciting month! National MATHCOUNTS is the second week of May in Washington D.C. and our Founder, Richard Rusczyk will be presenting a seminar, Preparing Strong Math Students for College and Careers, on May 11th.

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0 replies
jlacosta
May 1, 2025
0 replies
Cheesy's math casino and probability
pithon_with_an_i   0
12 minutes ago
Source: Revenge JOM 2025 Problem 4, Revenge JOMSL 2025 C3
There are $p$ people are playing a game at Cheesy's math casino, where $p$ is a prime number. Let $n$ be a positive integer. A subset of length $s$ from the set of integers from $1$ to $n$ inclusive is randomly chosen, with an equal probability ($s \leq  n$ and is fixed). The winner of Cheesy's game is person $i$, if the sum of the chosen numbers are congruent to $i \pmod p$ for $0 \leq i \leq p-1$.
For each $n$, find all values of $s$ such that no person will sue Cheesy for creating unfair games (i.e. all the winning outcomes are equally likely).

(Proposed by Jaydon Chieng, Yeoh Teck En)

Remark
0 replies
pithon_with_an_i
12 minutes ago
0 replies
Partitioning coprime integers to arithmetic sequences
sevket12   4
N 13 minutes ago by bochidd
Source: 2025 Turkey EGMO TST P3
For a positive integer $n$, let $S_n$ be the set of positive integers that do not exceed $n$ and are coprime to $n$. Define $f(n)$ as the smallest positive integer that allows $S_n$ to be partitioned into $f(n)$ disjoint subsets, each forming an arithmetic progression.

Prove that there exist infinitely many pairs $(a, b)$ satisfying $a, b > 2025$, $a \mid b$, and $f(a) \nmid f(b)$.
4 replies
sevket12
Feb 8, 2025
bochidd
13 minutes ago
Coaxal Circles
fattypiggy123   30
N 15 minutes ago by Ilikeminecraft
Source: China TSTST Test 2 Day 1 Q3
Let $ABCD$ be a quadrilateral and let $l$ be a line. Let $l$ intersect the lines $AB,CD,BC,DA,AC,BD$ at points $X,X',Y,Y',Z,Z'$ respectively. Given that these six points on $l$ are in the order $X,Y,Z,X',Y',Z'$, show that the circles with diameter $XX',YY',ZZ'$ are coaxal.
30 replies
fattypiggy123
Mar 13, 2017
Ilikeminecraft
15 minutes ago
Weird n-variable extremum problem
pithon_with_an_i   0
20 minutes ago
Source: Revenge JOM 2025 Problem 3, Revenge JOMSL 2025 A4
Let $n$ be a positive integer greater or equal to $2$ and let $a_1$, $a_2$, ..., $a_n$ be a sequence of non-negative real numbers. Find the maximum value of $3(a_1  + a_2 + \cdots + a_n) - (a_1^2 + a_2^2 + \cdots + a_n^2) - a_1a_2  \cdots a_n$ in terms of $n$.

(Proposed by Cheng You Seng)
0 replies
pithon_with_an_i
20 minutes ago
0 replies
Inequalities
sqing   3
N 5 hours ago by sqing
Let $a,b,c >2 $ and $ ab+bc+ca \leq 75.$ Show that
$$\frac{1}{a-2}+\frac{1}{b-2}+\frac{1}{c-2}\geq 1$$Let $a,b,c >2 $ and $ \frac{1}{a}+\frac{1}{b}+\frac{1}{c}\geq \frac{6}{7}.$ Show that
$$\frac{1}{a-2}+\frac{1}{b-2}+\frac{1}{c-2}\geq 2$$
3 replies
sqing
Yesterday at 11:31 AM
sqing
5 hours ago
Assam Mathematics Olympiad 2022 Category III Q18
SomeonecoolLovesMaths   2
N 6 hours ago by nyacide
Let $f : \mathbb{N} \longrightarrow \mathbb{N}$ be a function such that
(a) $ f(m) < f(n)$ whenever $m < n$.
(b) $f(2n) = f(n) + n$ for all $n \in \mathbb{N}$.
(c) $n$ is prime whenever $f(n)$ is prime.
Find $$\sum_{n=1}^{2022} f(n).$$
2 replies
SomeonecoolLovesMaths
Sep 12, 2024
nyacide
6 hours ago
Assam Mathematics Olympiad 2022 Category III Q17
SomeonecoolLovesMaths   1
N Today at 7:24 AM by nyacide
Consider a rectangular grid of points consisting of $4$ rows and $84$ columns. Each point is coloured with one of the colours red, blue or green. Show that no matter whatever way the colouring is done, there always exist four points
of the same colour that form the vertices of a rectangle. An illustration is shown in the figure below.
1 reply
SomeonecoolLovesMaths
Sep 12, 2024
nyacide
Today at 7:24 AM
Assam Mathematics Olympiad 2022 Category III Q14
SomeonecoolLovesMaths   1
N Today at 6:54 AM by nyacide
The following sum of three four digits numbers is divisible by $75$, $7a71 + 73b7 + c232$, where $a, b, c$ are decimal digits. Find the necessary conditions in $a, b, c$.
1 reply
SomeonecoolLovesMaths
Sep 12, 2024
nyacide
Today at 6:54 AM
Assam Mathematics Olympiad 2022 Category III Q12
SomeonecoolLovesMaths   2
N Today at 6:20 AM by nyacide
A particle is in the origin of the Cartesian plane. In each step the particle can go $1$ unit in any of the directions, left, right, up or down. Find the number of ways to go from $(0, 0)$ to $(0, 2)$ in $6$ steps. (Note: Two paths where identical set of points is traversed are considered different if the order of traversal of each point is different in both paths.)
2 replies
SomeonecoolLovesMaths
Sep 12, 2024
nyacide
Today at 6:20 AM
Assam Mathematics Olympiad 2022 Category III Q10
SomeonecoolLovesMaths   1
N Today at 5:53 AM by nyacide
Let the vertices of the square $ABCD$ are on a circle of radius $r$ and with center $O$. Let $P, Q, R$ and $S$ are the mid points of $AB, BC, CD$ and $DA$ respectively. Then;
(a) Show that the quadrilateral $P QRS$ is a square.
(b) Find the distance from the mid point of $P Q$ to $O$.
1 reply
SomeonecoolLovesMaths
Sep 12, 2024
nyacide
Today at 5:53 AM
A problem of collinearity.
Raul_S_Baz   2
N Today at 4:11 AM by Raul_S_Baz
Î am the author.
IMAGE
P.S: How can I verify that it is an original problem? Thanks!
2 replies
Raul_S_Baz
Yesterday at 4:19 PM
Raul_S_Baz
Today at 4:11 AM
Inequalities
sqing   0
Today at 3:46 AM
Let $ a,b,c>0 $ . Prove that
$$\frac{a+5b}{b+c}+\frac{b+5c}{c+a}+\frac{c+5a}{a+b}\geq 9$$$$ \frac{2a+11b}{b+c}+\frac{2b+11c}{c+a}+\frac{2c+11a}{a+b}\geq \frac{39}{2}$$$$ \frac{25a+147b}{b+c}+\frac{25b+147c}{c+a}+\frac{25c+147a}{a+b} \geq258$$
0 replies
sqing
Today at 3:46 AM
0 replies
Plz help
Bet667   3
N Yesterday at 6:50 PM by K1mchi_
f:R-->R for any integer x,y
f(yf(x)+f(xy))=(x+f(x))f(y)
find all function f
(im not good at english)
3 replies
Bet667
Jan 28, 2024
K1mchi_
Yesterday at 6:50 PM
2019 SMT Team Round - Stanford Math Tournament
parmenides51   17
N Yesterday at 6:40 PM by Rombo
p1. Given $x + y = 7$, find the value of x that minimizes $4x^2 + 12xy + 9y^2$.


p2. There are real numbers $b$ and $c$ such that the only $x$-intercept of $8y = x^2 + bx + c$ equals its $y$-intercept. Compute $b + c$.



p3. Consider the set of $5$ digit numbers $ABCDE$ (with $A \ne 0$) such that $A+B = C$, $B+C = D$, and $C + D = E$. What’s the size of this set?


p4. Let $D$ be the midpoint of $BC$ in $\vartriangle ABC$. A line perpendicular to D intersects $AB$ at $E$. If the area of $\vartriangle ABC$ is four times that of the area of $\vartriangle BDE$, what is $\angle ACB$ in degrees?


p5. Define the sequence $c_0, c_1, ...$ with $c_0 = 2$ and $c_k = 8c_{k-1} + 5$ for $k > 0$. Find $\lim_{k \to \infty} \frac{c_k}{8^k}$.


p6. Find the maximum possible value of $|\sqrt{n^2 + 4n + 5} - \sqrt{n^2 + 2n + 5}|$.


p7. Let $f(x) = \sin^8 (x) + \cos^8(x) + \frac38 \sin^4 (2x)$. Let $f^{(n)}$ (x) be the $n$th derivative of $f$. What is the largest integer $a$ such that $2^a$ divides $f^{(2020)}(15^o)$?


p8. Let $R^n$ be the set of vectors $(x_1, x_2, ..., x_n)$ where $x_1, x_2,..., x_n$ are all real numbers. Let $||(x_1, . . . , x_n)||$ denote $\sqrt{x^2_1 +... + x^2_n}$. Let $S$ be the set in $R^9$ given by $$S = \{(x, y, z) : x, y, z \in R^3 , 1 = ||x|| = ||y - x|| = ||z -y||\}.$$If a point $(x, y, z)$ is uniformly at random from $S$, what is $E[||z||^2]$?


p9. Let $f(x)$ be the unique integer between $0$ and $x - 1$, inclusive, that is equivalent modulo $x$ to $\left( \sum^2_{i=0} {{x-1} \choose i} ((x - 1 - i)! + i!) \right)$. Let $S$ be the set of primes between $3$ and $30$, inclusive. Find $\sum_{x\in S}^{f(x)}$.


p10. In the Cartesian plane, consider a box with vertices $(0, 0)$,$\left( \frac{22}{7}, 0\right)$,$(0, 24)$,$\left( \frac{22}{7}, 4\right)$. We pick an integer $a$ between $1$ and $24$, inclusive, uniformly at random. We shoot a puck from $(0, 0)$ in the direction of $\left( \frac{22}{7}, a\right)$ and the puck bounces perfectly around the box (angle in equals angle out, no friction) until it hits one of the four vertices of the box. What is the expected number of times it will hit an edge or vertex of the box, including both when it starts at $(0, 0)$ and when it ends at some vertex of the box?


p11. Sarah is buying school supplies and she has $\$2019$. She can only buy full packs of each of the following items. A pack of pens is $\$4$, a pack of pencils is $\$3$, and any type of notebook or stapler is $\$1$. Sarah buys at least $1$ pack of pencils. She will either buy $1$ stapler or no stapler. She will buy at most $3$ college-ruled notebooks and at most $2$ graph paper notebooks. How many ways can she buy school supplies?


p12. Let $O$ be the center of the circumcircle of right triangle $ABC$ with $\angle ACB = 90^o$. Let $M$ be the midpoint of minor arc $AC$ and let $N$ be a point on line $BC$ such that $MN \perp BC$. Let $P$ be the intersection of line $AN$ and the Circle $O$ and let $Q$ be the intersection of line $BP$ and $MN$. If $QN = 2$ and $BN = 8$, compute the radius of the Circle $O$.


p13. Reduce the following expression to a simplified rational $$\frac{1}{1 - \cos \frac{\pi}{9}}+\frac{1}{1 - \cos \frac{5 \pi}{9}}+\frac{1}{1 - \cos \frac{7 \pi}{9}}$$

p14. Compute the following integral $\int_0^{\infty} \log (1 + e^{-t})dt$.


p15. Define $f(n)$ to be the maximum possible least-common-multiple of any sequence of positive integers which sum to $n$. Find the sum of all possible odd $f(n)$


PS. You should use hide for answers. Collected here.
17 replies
parmenides51
Feb 6, 2022
Rombo
Yesterday at 6:40 PM
Inquality ...
Figarou   10
N Nov 12, 2010 by pxchg1200
a , b , c are positive reals

Prove that :

IMAGE
10 replies
Figarou
Nov 9, 2010
pxchg1200
Nov 12, 2010
Inquality ...
G H J
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Figarou
30 posts
#1 • 2 Y
Y by Adventure10, Mango247
a , b , c are positive reals

Prove that :

Image not found
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pxchg1200
659 posts
#2 • 1 Y
Y by Adventure10
Wajih wrote:
a , b , c are positive reals

Prove that :

Image not found
by Cauchy inequality,we got $ a^{3}c+b^{3}a+c^{3}b\ge a^{2}b^{2}+b^{2}c^{2}+c^{2}a^{2} $
is true by Muirhead :maybe:
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arqady
30248 posts
#3 • 1 Y
Y by Adventure10
Wajih wrote:
a , b , c are positive reals

Prove that :
\[\frac{a^4}{a^2+ab+b^2}+\frac{b^4}{b^2+bc+c^2}+\frac{c^4}{c^2+ca+a^2}\geq\frac{a^3+b^3+c^3}{a+b+c}\]
After expanding we need to prove that
\[\sum_{cyc}(a^6c^3+a^5c^4+a^6b^2c+a^6c^2b+a^5c^3b-a^5b^3c-2a^4b^3c^2-a^4c^3b^2-a^3b^3c^3)\geq0\]
which is true by AM-GM.
For example: $\sum_{cyc}\left(\frac{3}{4}a^6b^2c+\frac{1}{4}a^6c^2b\right)=\sum_{cyc}\left(\frac{3}{4}a^6b^2c+\frac{1}{4}b^6a^2c\right)\geq\sum_{cyc}a^5b^3c$,...
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kuing
1008 posts
#4 • 1 Y
Y by Adventure10
pxchg1200 wrote:
Wajih wrote:
a , b , c are positive reals

Prove that :

Image not found
by Cauchy inequality,we got $ a^{3}c+b^{3}a+c^{3}b\ge a^{2}b^{2}+b^{2}c^{2}+c^{2}a^{2} $
is true by Muirhead :maybe:
I don't think so, Muirhead need sym, not cyc...
in fact, try $a=2,b=1,c=\frac{1}{4}$
Z K Y
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pxchg1200
659 posts
#5 • 1 Y
Y by Adventure10
kuing wrote:
pxchg1200 wrote:
Wajih wrote:
a , b , c are positive reals

Prove that :

Image not found
by Cauchy inequality,we got $ a^{3}c+b^{3}a+c^{3}b\ge a^{2}b^{2}+b^{2}c^{2}+c^{2}a^{2} $
is true by Muirhead :maybe:
I don't think so, Muirhead need sym, not cyc...
in fact, try $a=2,b=1,c=\frac{1}{4}$
yes,I made a mistake,you're right kuing! :blush:
Can you show me another solution without expanding it?
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kuing
1008 posts
#6 • 2 Y
Y by Adventure10, Mango247
it's hard for me, I'm also waiting a nice solution... :maybe:
Z K Y
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Tourish
663 posts
#7 • 3 Y
Y by Gluncho, Adventure10, Mango247
\[\Longleftrightarrow \sum_{cyc}{\left(\frac{a^4}{a^2+ab+b^2}+ab-a^2\right)}\geq \frac{3abc}{a+b+c}\]
\[\Longleftrightarrow \sum_{cyc}{\frac{ab^3}{a^2+ab+b^2}}\geq \frac{3abc}{a+b+c}\]
\[\Longleftrightarrow \sum_{cyc}{\frac{b^2}{1+\frac{a}{b}+\frac{b}{a}}}\geq \frac{3abc}{a+b+c}\]
By cauchy we have
\[\sum_{cyc}{\frac{b^2}{1+\frac{a}{b}+\frac{b}{a}}}\geq \frac{(a+b+c)^2}{3+\frac{a}{b}+\frac{b}{a}+\frac{a}{c}+\frac{c}{a}+\frac{b}{c}+\frac{c}{b}}=\frac{abc(a+b+c)}{ab+bc+ca}\]
It suffice to show that
\[\frac{abc(a+b+c)}{ab+bc+ca}\geq \frac{3abc}{a+b+c}\]
\[\Longleftrightarrow (a+b+c)^2\geq 3(ab+bc+ca)\]
which is trival.
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arqady
30248 posts
#8 • 1 Y
Y by Adventure10
Great solution, Tourish! Thank you!
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kuing
1008 posts
#9 • 1 Y
Y by Adventure10
indeed, very great! :lol: many thanks
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Figarou
30 posts
#10 • 2 Y
Y by Adventure10, Mango247
Thank you very much for solving it ... :-D
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pxchg1200
659 posts
#11 • 2 Y
Y by Adventure10, Mango247
So great solution! thank you very much! :lol:
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