[THOUGHT] I need to find natural numbers satisfying the given system of equations, and then compute .
Let me use Newton's identities to relate power sums to elementary symmetric polynomials.
Let:
And elementary symmetric polynomials:
Newton's identities give us:
From these, I can find and then compute .
Let me calculate this step by step. [/THOUGHT] [PYTHON]
Given values
p1 = 151 p2 = 10939 p3 = 957871
Newton's identities
p1 = e1
e1 = p1
p2 = e1 * p1 - 2 * e2
e2 = (e1 * p1 - p2) / 2
e2 = (e1 * p1 - p2) // 2
p3 = e1 * p2 - e2 * p1 + 3 * e3
e3 = (p3 - e1 * p2 + e2 * p1) / 3
e3 = (p3 - e1 * p2 + e2 * p1) // 3
print(f"e1 = {e1}") print(f"e2 = {e2}") print(f"e3 = {e3}")
Now compute p4 using Newton's identity
p4 = e1 * p3 - e2 * p2 + e3 * p1
p4 = e1 * p3 - e2 * p2 + e3 * p1
print(f"p4 = a^4 + b^4 + c^4 = {p4}")
Let's verify by finding a, b, c
They are roots of: t^3 - e1t^2 + e2t - e3 = 0
import numpy as np
coeffs = [1, -e1, e2, -e3] roots = np.roots(coeffs) print(f"Roots: {roots}")
Verify the sums
a, b, c = sorted([int(round(r.real)) for r in roots]) print(f"a, b, c = {a}, {b}, {c}") print(f"Verification:") print(f"a + b + c = {a + b + c}") print(f"a^2 + b^2 + c^2 = {a2 + b2 + c2}") print(f"a^3 + b^3 + c^3 = {a3 + b3 + c3}") print(f"a^4 + b^4 + c^4 = {a4 + b4 + c**4}") [/PYTHON]
[THOUGHT] I found the natural numbers that satisfy the given equations: , , .
The verification confirms:
- ✓
- ✓
- ✓
And the answer we need: [/THOUGHT]
\boxed{89909683}