Conjectures involving infinite families of restricted partition congruences can be difficult to verify for a number of individual cases, even with a computer. We demonstrate how the machinery of Radu's algorithm may be modified and employed to efficiently check a very large number of cases of such conjectures. This allows substantial evidence to be collected for a given conjecture, before a complete proof is attempted."...for certain things first became clear to me by a mechanical method, although they had to be demonstrated by geometry afterwards because their investigation by the said method did not furnish an actual demonstration. But it is of course easier, when we have previously acquired... some knowledge of the questions, to supply the proof than it is to find it without any previous knowledge."-Archimedes, The Method CRISTIAN-SILVIU RADU AND NICOLAS ALLEN SMOOT a(25n + 24) ≡ 0 (mod 5), and suggested additional congruences for a(n) to higher powers of 5. At first sight, the matter of specifying a family of congruences might seem easy enough. Certainly, one could directly compute a list of the numerical values of a(mn + j) for a fixed m, j ∈ Z ≥0 , as n varies over a large number of nonnegative integers. We could program a computer to check the greatest common divisor of this list.Yet more interesting, one of the authors has developed algorithms [18] that can take series of the form ∞ n=0 a(mn + j)q n and expand them into a finite, linear combination of eta quotients. By examining the coefficients of each term in such a finite combination, and knowing that each eta quotient expands into an integer power series, we can often determine whether a(mn + j) is divisible by a given power of a prime (in our case, 5) for all n ∈ Z ≥0 .However, for 24n ≡ 1 (mod 5 2α ), one can quickly show that