The first two answers go into some level of detail and provide links to the Wikipedia articles for the integration methods used, I suppose the answer would be yes otherwise they would be wasting their time providing such links, the code is in python, so you will need to be familiar with python for that to be of any value to you I would say
I got an elementary question. Lets say I have a basis vector v = \partial_1 at a point p, what does it mean (and how) to extend it to a vector field V near p?
This problem is from the 7th edition of the book "Calculus and Analytic Geometry" by George Thomas
and Ross Finney. It is problem number 3 of section 5.4
Problem:
Find the volume generated when the region bounded by the given curves and lines is revolved about the
x-axis. (Note: $x = 0$ is the y-...
A survey of 100 people was conducted to find the popularity of Tom Cruise, Matt Damon and Robert Downey. 35 people liked watching the movies of Tom Cruise, 33 people liked watching the movies of Matt Damon, and 43 people liked watching the movies of Robert Downey.
11 people said they enjoyed watching the movies of Tom Cruise and Robert Downey but not of Matt Damon, 7 people said that they enjoyed watching movies of Tom Cruise and Matt Damon but not of Robert Downey and 18 people said that they enjoyed watching movies of Matt Damon and Robert Downey. 5% of the respondents enjoyed watching the movies of all the three stars.
How many people enjoyed watching the movies of only one star?
How do we solve these problems? Can somebody having an experience with these types of problems help me?
Suppose $X$ is Borel and $f:X\rightarrow \mathbb{R}$ is a function such that $\{$ $x\in X$ $:$ $f$ is not continuous at $x$ $\}$ is countable. How would I go on proving that $f$ is Borel measurable?
Problem:
Find the volume generated when the region bounded by the given curves and lines is revolved about the
x-axis using the disk method. Then find it using the cylindrical shell method and verify that they produce the same result.
\begin{align*}
y &= x^2 \\
x &= 1 \\
x &= 2 \\
\end{align*}
An...
@Knight draw a venn diagram with three overlapping circles
user435118
19:25
user435118
Hi everyone. I'm learning bearings and doing one of my first questions on it but not sure if it's correct as the question doesn't have answers. Could someone check it please and check my logic?
user435118
I did interior angles add up to 180 degrees, then 360-146-90 to find one angle of the triangle (124 degrees). Then did (180-124)/2 as it is an isosceles triangle and then added 34 to 28 to get 062.
which algorithm does someone mean when they say "the Groebner basis algorithm"? I'm reading about several algorithms about Groebner basis but I don't know which one gets to be "the" one
Let $p_i$ be the i th prime.
Define
$$ \zeta_H(s) = \prod_{i = 1}^{\infty} \frac{p_{2i}^s}{p_{2i}^s - 1} $$
Consider it's analytic continuation.
( feel free to explain that analytic continuation )
Where are the zero's and poles of this function ?
Does this function have all it's nontrivial zero's...
@Sophie googling should bring you right to Groebner basis algorithm, it's finding a finite basis as a module for an ideal of (usually multivariate) polynomials.
Each radical $\sqrt[k+1]a$ forms an array of the variables $(p, p^2,\dots, p^k),$ wherein there is not a problem to exclude them via a simple linear system.
In particular, for the expression $x=\sqrt a + \sqrt[3]b$ easily to get
$$
\begin{cases}
p+q-x = 0\\
p^2=a\\
q^3 = b
\end{cases}\Rightarrow
...
I'm having trouble understanding the second implication... I don't see where the determinant came from
Consider the sequence $f(i)$ for integer $i>0$ :
$f(1) = f(2) = 1 $
$f(3) = 2$
define the remaining by
$f(2n) = f(2n-1) + \frac{f(2n-2)}{f(n)}$
$f(2n+1) = f(2n) + \frac{2n-1}{f(n)}$
How fast does this function grow ?
What are the best asymptotics ?
How to answer such similar questions in general ...