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Compiler à l'aide de XeLaTeX %%

This is the partial source code and images of Edible Food Book, a CC-BY-SA-3.0 book. Copyright © 2013 Abdelkrime Aries <kariminfo0@gmail.com> Some fonts and colours have been modified from the original. This template contains only nuts, cereals and pulses (grain legumes), and the images have been resized to save disk space. You can see the complete output PDF here, or get the complete source at the original Github site.

Deedy CV/Resume XeLaTeX Template Version 1.0 (5/5/2014) This template has been downloaded from: http://www.LaTeXTemplates.com Original author: Debarghya Das (http://www.debarghyadas.com) With extensive modifications by: Vel (vel@latextemplates.com) License: CC BY-NC-SA 3.0 (http://creativecommons.org/licenses/by-nc-sa/3.0/) Important notes: This template needs to be compiled with XeLaTeX.

Pakiet rotating umożliwia dowolny obrót różnych obiektów w dokumencie: tekstu, tabel i obrazów. Czytaj więcej na: http://pakietomat.wordpress.com/

The path to success in this class is to do many problems. Unlike other courses, exclusively doing reading(s) will not help. Coming to lecture is akin to watching workout videos; thinking about and solving problems on your own is the actual ``working out''. Feel free to \qu{work out} with others; \textbf{I want you to work on this in groups.} Reading is still \textit{required}. But for this homework set, I can't find anything from the 7th edition of Ross except the first few pages of Chapter 4 that are \qu{worth it} for you to read. The problems below are color coded: \ingreen{green} problems are considered \textit{easy} and marked \qu{[easy]}; \inorange{yellow} problems are considered \textit{intermediate} and marked \qu{[harder]}, \inred{red} problems are considered \textit{difficult} and marked \qu{[difficult]}, \inpurple{purple} problems are extra credit. The \textit{easy} problems are intended to be ``giveaways'' if you went to class. Do as much as you can of the others; I expect you to at least attempt the \textit{difficult} problems. This homework is worth 100 points but the point distribution will not be determined until after the due date. Late homework will be penalized 10 points per day. Between 1--15 points are arbitrarily given as a bonus (conditional on quality) if the homework is typed using \LaTeX. Links to instaling \LaTeX~and program for compiling \LaTeX~is found on the syllabus. You are encouraged to use \url{overleaf.com} (make sure you upload both the hwxx.tex and the preamble.tex file). If you are handing in homework this way, read the comments in the code; there are two lines to comment out and you should replace my name with yours and write your section. If you are asked to make drawings, you can take a picture of your handwritten drawing and insert as a figure or leave space using the \qu{$\backslash$vspace} command and draw them in after printing or attach them stapled. The document is available with spaces for you to write your answers. If not using \LaTeX, print this document and write in your answers. \textbf{Handing it in without this printout is NO LONGER ACCEPTABLE.} Keep this page printed for your records. Write your name and section below where section A is if you're registered for the 9:15AM--10:30AM lecture and section B is if you're in the 12:15PM-1:30PM lecture.

This is a sample file for legacy SIGCHI extended abstracts, using acmart.cls v1.71 (2020/05/04). Starting in Spring 2020 ACM retired SIGCHI Extended Abstract format (sigchi-a). ACM will not, under any circumstances, accept documents in this format for publication and will not offer technical support to the authors who use this template. You may use this format in the nonacm mode only, as in \documentclass[sigchi-a, nonacm]{acmart}.

This LaTex file is composed using LaTex.It's my probability homework published here only with the purpose of making more people get to know and use LaTex well!

Template for submission to the Journal of the Korean Physical Society (JKPS)

In this we examine the concept of the dimension of fractals, extending the idea of integer dimension to fractals, which we define and investigate here in. Moving on we consider the Minkowski dimension, sometimes referred to as the "box dimension", of a fractal. We then continue to define and examine another type of dimension; the Hausdorff dimension. We then investigate under what conditions these are equal finally moving on to prove Hutchinsons Theorem,