Norm . The norm of a function ‖ f ‖ is like the length of a vector in R n . In particular, show that the norm defined in ( 16 ) satisfies the following properties associated with length (assume f and g are continuous and w ( x ) > 0 on [a, b]): a. ‖ f ‖ ≥ 0 , and ‖ f ‖ = 0 if and only if f ≡ 0 . b. ‖ c f ‖ = | c | ‖ f ‖ , where c is any real number. c. ‖ f + g ‖ ≤ ‖ f ‖ + ‖ g ‖ . d.
Norm . The norm of a function ‖ f ‖ is like the length of a vector in R n . In particular, show that the norm defined in ( 16 ) satisfies the following properties associated with length (assume f and g are continuous and w ( x ) > 0 on [a, b]): a. ‖ f ‖ ≥ 0 , and ‖ f ‖ = 0 if and only if f ≡ 0 . b. ‖ c f ‖ = | c | ‖ f ‖ , where c is any real number. c. ‖ f + g ‖ ≤ ‖ f ‖ + ‖ g ‖ . d.
Solution Summary: The author explains that the norm of function Vert f Vert satisfy the property
Norm. The norm of a function
‖
f
‖
is like the length of a vector in
R
n
. In particular, show that the norm defined in
(
16
)
satisfies the following properties associated with length (assume
f
and
g
are continuous and
w
(
x
)
>
0
on [a, b]):
a.
‖
f
‖
≥
0
,
and
‖
f
‖
=
0
if and only if
f
≡
0
.
b.
‖
c
f
‖
=
|
c
|
‖
f
‖
, where
c
is any real number.
c.
‖
f
+
g
‖
≤
‖
f
‖
+
‖
g
‖
.
d.
Quantities that have magnitude and direction but not position. Some examples of vectors are velocity, displacement, acceleration, and force. They are sometimes called Euclidean or spatial vectors.
Need a deep-dive on the concept behind this application? Look no further. Learn more about this topic, subject and related others by exploring similar questions and additional content below.