prove that if you multiply 4 successive integers and take the
square root of that + a number, the only number for which
root(product + x) is a perfect square is 1.
write a function to determine the square root of a number. The
square root of a number can be approximated by repeated calculation
using the formula NG = 0.5(LG + N/LG) where NG stands for the next
guess and LG stands for the last guess. The loop should repeat
until the difference between NG and LG is less than 0.00001. Use an
initial guess of 1.0. Write a driver program to test your square
root function. I WANT THIS PROGRAM...
A positive number is added to the reciprocal of its square root.
Use Calculus methods to answer the following questions:what if
anything, is the smallest such sum? What, if any, positive x-values
will yield the smallest sum? Give exact answers as well as answers
accurate to Five decimal place. Be sure to give a mathematical
justification that you answer represents a minimum and not a
maximum.
Chapter 3 Exercise 1Babylonian Algorithm. The Babylonian algorithm to compute
the square root of a positive number n is as follows: 1. Make a guess at the
answer (you can pick n/2 as your initial guess). 2. Computer = n / guess. 3. Set guess = (guess +r) /
2. 4. Go back to step 2 until the
last two guess values are within 1% of each other.Write a program that inputs an integer for n, iterates through
the Babylonian algorithm until the guess...
Show that Hermitian operators have real eigenvalues. Show that
eigenvectors of a
Hermitian operator with unique eigenvalues are orthogonal. Use
Dirac notation
for this problem.
The _____________ is the square root of the arithmetic average
of the squared deviations from the mean. In other words, it is
simply the square root of the ______________.data spread; population standard deviationStandard deviation; data spreadpopulation standard deviation; variancevariance; standard deviation
In this assignment, we will implement a square root approximater
and then an nth root approximater. Recall that the nth root of x is
the number when raised to the power n gives x. We learned in class
that we can use the concepts of binary search to approx imate the
square root of a number, and we can continue this logic to
approximate the nth square root. Please look at Lecture Notes 03,
section 4 for a little more...