CSIR NET MATHEMATICS | Linear Algebra | Inner Product Q.77(A) Q.68(B) Q.74(C) (हिंदी में) Booklet A Section C Example 77 June 2019 Booklet B Section C Example 68 June 2019 Booklet C Section C Example 74 June 2019 Linear Algebra, Inner Product, CSIR NET Answer Key June 2019, Mathematical Science, Helpful those who are preparing for NET, GATE, SET, SLET exams Thanks to :::::::::::::::::::: Artist: Otis McDonald Album: Innovations in Booty Shaking Music (Part 2)
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Video Summary
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This video provides a detailed mathematical walkthrough of a linear algebra problem involving a transformation $T_W$ defined on $\\mathbb{R}^n$ using the standard inner product. The instructor evaluates four specific properties of the transformation to determine which options are true, ultimately proving that the transformation preserves inner products and is its own inverse.
Hi, hello friends, this
Inside the video, we are linear
The problem of LGP
We will discuss CS
Ein Ad June 2019 Example Number Seventy Four for Trauma
Bookled C. M. for Punt Seventy Four A. R. and Tros A. R.
to denote by R the standard inner product
the Rn-valued function TW defined from Rn to Rn by TWV equals
V minus two times the inner product of V and W divided by the inner product of W with W, all multiplied by W
or V belongs to R, which of the
The following are true: we have four options.
The first option is to determine TW equal to 1 second.
option is inner product TW V1 with TW V2 equal
to V1 with V2 or all V1 V2 belong to Rn third
The second option is TW equal to TW inverse, and the fourth option is T2W.
is equal to 2 TW.
So the standard inner product on ℝᴺ
We have two vectors, U equal
to U1U2UN and V equal to V1V2VN
belongs to RN. In the X example, we are given
Use the standard inner product
So first, let's recall the standard inner product. We have two vectors.
U equals U₁U₂Vᴺ, V equals V₁V₂Vᴺ
Inside RN. The standard inner product will be the dot product between U and V.
Then we will get u1, u1 plus u2, u2 plus u1
for n equal to 2
We will define a function
tw, r2 to r2
tw equals v minus 2 times
in a prop v with w, w with w into w
We have not been given a basis.
Therefore, we will use the standard basis vectors.
R2 on
so e1 equals 1, 0
and e2 equal to 0, 1
standard basis vector in R²
Take any non-zero vector
w equals 1, 1
With respect to this transformation
We will find the images of E1 and E2.
So, the image of E1
Inside the definition, we will replace V with even
So E1 minus 2 times
E1 inner product with W
divided by W with W into W
The value of E1 is 10.
The value of W is 11.
so 10 minus 2 times
10 inner product with 11
His answer will come today 1
inner product with 11
His answer will come today 2
2 and 2 will cancel out
10 minus 11
Its value will be 0 minus 1.
The image of E1 will arrive.
0-1, in the same way
To find the image of E2
We will replace V with E2
so E2-2 times E2 inner product
W divided by the inner product of W
W into W, the value of E2 is
0-1, then we'll put it here 0-1
-2 × (0 - 1)
1-1
The value of the inner product will be 1.
and 1-1 inner product 1-1
The value will be 2-2-2 canceled
0-1-1-1
Then the answer will be minus 1 minus 0
Then the image of E2 will be minus 1.
For the matrix of this transformation
first column
Image of E1 and image of E2 in the second column
The value of the image of E1 is 0 minus 1.
And the value of the image of E2 is minus 1, 0
Its determinant value will be minus 1.
And the first option says that
The value of the determinant should be 1.
So our first option is wrong.
in the second option, inner product
TW V1 with TW V2
For TW V1
In the definition, we will replace v with v1.
so v1 minus 2 times v1
inner product of w divided by the inner product of w
into w, for v2
We will replace v with v2
so v2 minus 2 times v2
inner product w divided by
w inner product w into, here we
Simple properties of the inner product
we will use, so v1's
The inner product will be with the second component.
And this is the second term.
The inner product will be the second component.
With it, in the same way
inner product v1 of
Will be with v2
The inner product of minus v1 will be
with the second term
And here in the second term, it is constant with respect to the inner product.
We'll take him out then.
Then the inner product of v1 with w will be
plus the second term in
The inner product of the first component will be with v2.
And the first component is the inner product.
Will be with the second term
We will take this constant inner product outside within the third term.
Then the inner product of w with v2 will be
And in the last term, we have two coefficients appearing.
The constant
We will take it outside the inner product.
And its multiplication will take place.
-2 - 2
so plus 4 inner product V with W
V2 with W
divided by the square of the inner product of W with W
into the inner product of W with
inner product W
with V2
is always the inner product of V2 with W
Property of inner product
Then these two terms will become the same.
And the coefficient of both is minus 2 minus 2.
Then it will come to us
minus 4 times the inner product of v2
with w, v1 with w
divided by w with w
within the last term
square of the inner product of w with w
One power will be canceled out.
inner product of w with w
Then we will get 4 times the inner product
v with w, v2 with w
divided by w with w
This is 4 times, and this is minus 4 times.
Then these terms will be cut.
So it will remain with us
inner product of v1 with v2
so inner product
T W V1
The answer for T W V2 will appear.
V1 V2, which is our second option
Then the second option will be correct here.
The third option has an inverse.
So we will find the inverse
So T W V equals U.
so its inverse image will be
U to V
T W V equals U
From the definition of function
V minus 2 times the inner product of V with W
W with W into W
Both sites will take the inner product with W
We will then use the property of the inner product.
Then the inner product of v with w will be
And the inner product of the second term
It will be with w.
We will factor out the constant term
So the inner product of w with w
These 'w' and 'w' will cancel each other out.
So it will come within the second term
-2 times v with w
v with w minus 2 times v with w
So it will come today.
minus times v with w
equal to u with w
And from the verification of this relation
v equals will become u plus
two times the inner product of v with w
divided by w with w into w
t w inverse for inverse function
u equals v, the value of v
we will substitute u plus two times
inner product of v with w
w with w into w
but the inner product of v with w
is equal to minus u with
w, then we will substitute here
So we'll get t w
inverse u equals u minus
two times the inner product of u with w
divided by w with w into w
But this is the definition
It belongs to TW.
Meaning of
TW inverse equals TW
That is our third option
So it's been corrected now.
Now we will check the fourth option
T2W
V
equal to
in the definition
Jagir of W
We will replace 2W
So V minus
2 times
V
2W
2W Inner Prabhi
2W
2W
2 by 2 by 8
Then 8 will come in the numerator.
2 times 2 in the denominator
4 will come
Then it will come in simplified form.
V minus 2 times the inner product
V with W, W with W into W
on the right side is 2 times
TW, then definition of it we
We will multiply by 2, then
2 volts minus 2, times 2, 4 times
V with W, divided by
W to W, but this
T2, W is not
So the fourth option will be incorrect.
In this example, we have only 2 correct ones.
The answer is second and third.
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