The question asks for the remainder when the product $127 \times 141 \times 147 \times 162 \times 177$ is divided by 27.
We can use the properties of modular arithmetic. The remainder of a product of numbers divided by a divisor is the same as the remainder of the product of their individual remainders divided by that same divisor.
Mathematically, if we want to find $(a \times b \times c \times d \times e) \pmod{n}$, we can first find the remainders of $a, b, c, d, e$ when divided by $n$, let them be $r_a, r_b, r_c, r_d, r_e$. Then, the required remainder is $(r_a \times r_b \times r_c \times r_d \times r_e) \pmod{n}$.
Let's find the remainder of each number when divided by 27:
Now, we multiply these remainders and find the remainder when divided by 27:
Remainder = $(19 \times 6 \times 12 \times 0 \times 15) \pmod{27}$
Since one of the factors in the product of remainders is 0 (from the number 162), the entire product becomes 0.
Remainder = $0 \pmod{27}$
Remainder = $0$
The remainder when $127 \times 141 \times 147 \times 162 \times 177$ is divided by 27 is 0.
What smallest number should be added to 16809 so that the sum is completely divisible by 41?