A squareprime is a composite number that is equal to the product of two prime numbers and is also a perfect square. This means a squareprime must be of the form $p^2$, where $p$ is a prime number. However, by definition, a perfect square greater than 1 must have at least three factors (1, the square root, and itself). If a number is $p^2$, its factors are 1, $p$, and $p^2$. For $p^2$ to be a product of *two* prime numbers, those two primes must be $p$ and $p$. This means the number would be $p \times p$. The definition of a squareprime as a composite number equal to the product of two prime numbers means the number would be $p \times q$ where $p$ and $q$ are prime. If this number is also a perfect square, then $p \times q = k^2$ for some integer $k$. The fundamental theorem of arithmetic states that every integer greater than 1 has a unique prime factorization. If $p \times q = k^2$, then the prime factorization of $k^2$ must be $p \times q$. For $k^2$ to have a prime factorization, the exponents in the prime factorization must be even. Thus, if $p \times q = k^2$, then $p$ and $q$ must be the same prime number, i.e., $p = q$. In this case, the number is $p \times p = p^2$. This number $p^2$ has prime factorization with an even exponent. However, the condition that it is the product of *two* prime numbers is ambiguous if $p=q$. If it means the product of exactly two primes (counting multiplicity), then $p^2$ fits. If it means the product of two *distinct* primes, then no such number exists. The term "squareprime" is not standard in number theory and may arise from a misunderstanding or a specific context. If the intention was to describe numbers that are both perfect squares and prime, no such number exists, as prime numbers by definition have exactly two distinct positive divisors (1 and themselves), while perfect squares greater than 1 have at least three divisors. If the intention was to describe numbers that are perfect squares and are products of two primes, then only squares of primes ($p^2$) fit, assuming "product of two primes" allows for repetition. For example, $4 = 2 \times 2 = 2^2$ is a square and the product of two primes. $9 = 3 \times 3 = 3^2$ is a square and the product of two primes. However, such numbers are simply the squares of primes.