6. (a) Use the Cauchy-Schwarz Inequality to prove that, for any finite sequences of complex numbers {a} and {b;}=1) 2 £Ã's n ≤ (2-²) (2m²). i=1 (b) Show that for any positive real numbers x, y, z > 0, we have x²y² + + Z x+y+z< X 2 Y Hint: Let a₁ = 7,a2=₁, and a3 = Ty (c) What inequality of integrals do you get if you apply Cauchy-Schwarz to the "stan- dard" inner product on the space of real-valued continuous functions on [a, b], (f, g) So f(x)g(x) dx?

Algebra & Trigonometry with Analytic Geometry
13th Edition
ISBN:9781133382119
Author:Swokowski
Publisher:Swokowski
Chapter4: Polynomial And Rational Functions
Section4.2: Properties Of Division
Problem 51E
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Question
6. (a) Use the Cauchy-Schwarz Inequality to prove that, for any finite sequences of complex
numbers {a} and {b;}=1)
n
ΣAN'S (MP) (MP)
i=1
(b) Show that for any positive real numbers x, y, z > 0, we have
y²
x+y+z< + +
y
X
Z
Hint: Let a₁ = 7,a2 = ₁ and a3 =
(c) What inequality of integrals do you get if you apply Cauchy-Schwarz to the "stan-
dard" inner product on the space of real-valued continuous functions on [a, b], (ƒ, g) =
Så f(x)g(x) dx?
Transcribed Image Text:6. (a) Use the Cauchy-Schwarz Inequality to prove that, for any finite sequences of complex numbers {a} and {b;}=1) n ΣAN'S (MP) (MP) i=1 (b) Show that for any positive real numbers x, y, z > 0, we have y² x+y+z< + + y X Z Hint: Let a₁ = 7,a2 = ₁ and a3 = (c) What inequality of integrals do you get if you apply Cauchy-Schwarz to the "stan- dard" inner product on the space of real-valued continuous functions on [a, b], (ƒ, g) = Så f(x)g(x) dx?
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