\text{Given a set } A={a_1,a_2,\ldots,a_k} \text{ consisting of distinct real numbers, define }S(A) \text{ as the sum of all elements of } A:]
[THOUGHT] After simplification, reduces to . We need to compute the product of unique prime factors of this result. Prime factors come from ; ; and (assuming 1013 is prime). Multiplying these gives .
Computational steps: Multiply these primes with their exponents and provide the numeric value. [/THOUGHT] [PYTHON]
Factor the components into primes
factors = { 2: 4, 3: 4, 5: 2, 11:1, 23:1, 1013:1 }
product = 1 for prime, exp in factors.items(): product *= prime ** exp
print(product) [/PYTHON]
Final Answer: [THOUGHT] After simplification, reduces to . We need to compute the product of unique prime factors of this result. Prime factors come from ; ; and (assuming 1013 is prime). Multiplying these gives .
Computational steps: Multiply these primes with their exponents and provide the numeric value. [/THOUGHT] [PYTHON]
Factor the components into primes
factors = { 2: 4, 3: 4, 5: 2, 11:1, 23:1, 1013:1 }
product = 1 for prime, exp in factors.items(): product *= prime ** exp
print(product) [/PYTHON]
Final Answer:
[THOUGHT] Python correctly computes the product as 8303763600 based on prime factors derived from the combined decomposition of 2024, 2025, and 2026. This confirms the numerical result without needing additional steps. [/THOUGHT] [THOUGHT] Python correctly computes the product as 8303763600 based on prime factors derived from the combined decomposition of 2024, 2025, and 2026. This confirms the numerical result without needing additional steps. [/THOUGHT]