🔢 number theory
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Significant Zeros
1. The problem gives an arithmetic expression $7 2 9 8 - 3 1 8 + 8 5$ represented in a positional numeral system with radix (base) 9.
2. We first interpret the numbers separated by
Extended Euclid
1. Find the values of x and y for $(a,b)=(81,57)$ using the Extended Euclidean Algorithm.
Step 1: Compute $\gcd(81,57)$ using the Euclidean Algorithm:
Factoring Pgcd Ppcm
### Exercice 18
1. Décomposer $a=118800$ et $b=12600$ en produit de facteurs premiers.
Zeta Function Approx
1. The problem is to understand and interpret the given formula:
$$\zeta(s) \approx \sum_{n=1}^{V} \frac{1}{n^s} + \beta(V,s) \cdot V^{1-s}$$
Divisor Sum
1. **State the problem:**
We have a positive integer $n$ with exactly 6 positive divisors. We list all positive divisors $d$ of $n$ and compute $\frac{n}{d}$ for each divisor $d$.
Gcd Evaluation
1. The problem appears to be evaluating or verifying the expression involving the numbers 10, 2, and 10 yielding the result 2.
2. However, the expression written as "10,2,10 = 2" i
Modular Congruences
1. Problem 33: Find the number of distinct incongruent solutions to $$98x \equiv 175 \pmod{49}$$.
Step 1: Simplify the congruence. Note that $49$ divides both sides since modulo $4
Prime Check 233
1. The problem "How to solve 233" is ambiguous as 233 is a number, not an equation or a problem.
2. To clarify, if you want to find factors of 233, we can determine if 233 is prime
Euler Theorem
1. Let's state the problem: We want to prove or use Euler's theorem, which states that for any integer $a$ and $n$ that are coprime (\gcd(a,n)=1),
$$a^{\phi(n)} \equiv 1 \pmod{n}$$
Collatz Conjecture
1. **Stating the problem:**
The problem is about the Collatz conjecture, which says: start with any positive integer $n$. If $n$ is even, divide it by 2. If $n$ is odd, replace it
Collatz Conjecture
1. The problem described is a famous unsolved problem in mathematics known as the Collatz conjecture or 3n+1 problem.
2. The rule is: for a given starting positive integer $n$, if
Least Positive Integer
1. The statement says: "There is a positive integer that is less than or equal to every positive integer." This means we're looking for a positive integer $n$ such that for every p