A) Additive B) Constant C) Multiplicative D) Linear
A) Chinese remainder theorem B) Fundamental theorem of arithmetic C) Fermat's little theorem D) Euclid's theorem
A) pk-1 - 1 B) pk - p C) pk - pk-1 D) pk - 1
A) pk-1(p-1) B) pk-1(p+1) C) pk(p-1) D) pk-2(p-1)
A) pk-1(1 - 1/p) B) pk(1 - 1/p) C) pk-1(1 + 1/p) D) pk(1 + 1/p)
A) pk-1 B) p C) pk-2 D) pk
A) phi(m) + phi(n) B) phi(m) / phi(n) C) phi(m)phi(n) D) phi(m+n)
A) 1, 2, ..., k B) 1, p, p2, ..., pk C) p, p2, ..., pk D) 1, p, ..., pk-1
A) m B) 1 C) p D) mn
A) m is a multiple of p B) m is a divisor of p C) m is coprime to p D) m is prime
A) The square root of n B) The product of all integers less than n C) The formula involving prime factorization exponents D) The sum of all prime numbers less than n
A) Consecutive integers B) Distinct prime numbers C) Any set of positive integers D) Even numbers only
A) The formula for the sum of divisors B) The definition of prime numbers C) The product formula with fractions D) The equivalent prime factorization formula
A) Calculus integration B) Euler's totient function C) Prime factorization D) Probability theory
A) Totatives B) Units C) Primes D) Multiples
A) 1 B) 3 C) 9 D) 6
A) DES encryption system B) AES encryption system C) Diffie-Hellman key exchange D) RSA encryption system
A) 1, 2, 4 B) 3, 6, 9 C) 1, 3, 9 D) 5, 7, 8
A) 1763 B) 1784 C) 1879 D) 1801
A) phi B) tau C) sigma D) pi
A) Gauss B) Euler C) Sylvester D) Jordan
A) Arithmetica B) Disquisitiones Arithmeticae C) The Elements D) Principia Mathematica
A) J. J. Sylvester B) Carl Friedrich Gauss C) Leonhard Euler D) Camille Jordan
A) π(A) B) φA C) πA D) φ(A)
A) It equals 0 B) It corresponds to the empty product C) It equals 1 D) It is undefined
A) Proof by contradiction B) Mathematical induction C) Binomial theorem D) Inclusion-exclusion principle |