1) Define a sequence of polynomials H n (x ) by H 0 (x )=1, H 1
(x )=2 x , and for n>1 by H n+1 (x )=2 x H n (x )−2 n H n−1 (x )
. These polynomials are called Hermite polynomials of degree n.
Calculate the first 7 Hermite polynomials of degree less than 7.
You can check your results by comparing them to the list of Hermite
polynomials on wikipedia (physicist's Hermite polynomials).
2)...
Let f(x) =
(x − 1)2, g(x) = e−2x,
and h(x) = 1 + ln(1 − 2x).
(a) Find the linearizations
of f, g,
and h at
a = 0.
Lf (x) =
Lg(x) =
Lh(x) =
(b) Graph f, g,
and h and their linear approximations. For which
function is the linear approximation best? For which is it worst?
Explain.
The linear approximation appears to be the best for
the function ? f g h since it is
closer to ? f g h for a larger
domain than it is to - Select - f and g g and
h f and h . The approximation looks worst
for ? f g h since ? f g h moves
away from L faster...
1a. Which of the following does the sensitivity of the bond
price to the changes in interest rates depend on?
Maturity of the bond
Coupon rate
Both maturity of the bond and the coupon rate
None
`1b. Which of the following is correct when the Coupon Rate of a
bond is equal to its Yield to Maturity?
The price of this bond is equal to its face value.
The price of this bond is higher than its face value.
The...
Which of the following does the sensitivity of the bond price to
the changes in interest rates depend on?
Maturity of the bond
Coupon rate
Both maturity of the bond and the coupon rate
None
Which of the following is correct when the Coupon Rate of a bond
is equal to its Yield to Maturity?
The price of this bond is equal to its face value.
The price of this bond is higher than its face value.
The price of...
PART A: Suppose X and Y are independent. Show that H(X|Y) = H(X)
. (H represents entropy i think)
PART B: Suppose X and Y are independent. Show that H(X,Y) = H(X)
+ H(Y)
PART C: Prove that the mutual information is symmetric, i.e.,
I(X,Y) = I(Y,X) and xi∈X, yi∈Y
Phase changes also involve changes in enthalpy (H). Assume an
ideal system: Calculate the total H to
bring m=46.884g of
ice at T=0 deg
C to steam at
T=100 deg C. Show your work. (Hint: Cp
values vary based on states of matter and energy is required to
execute a phase change.)