Bienvenido a La Ayuda De Ultra Fractal
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
Object Oriented Programming
No. 52 March-A pril'1990 $3.95 T H E M TEe H CAL J 0 URN A L COPIA Object Oriented Programming First it was BASIC, then it was structures, now it's objects. C++ afi<;ionados feel, of course, that objects are so powerful, so encompassing that anything could be so defined. I hope they're not placing bets, because if they are, money's no object. C++ 2.0 page 8 An objective view of the newest C++. Training A Neural Network Now that you have a neural network what do you do with it? Part two of a fascinating series. Debugging C page 21 Pointers Using MEM Keep C fro111 (C)rashing your system. An AT Keyboard Interface Use an AT keyboard with your latest project. And More ... Understanding Logic Families EPROM Programming Speeding Up Your AT Keyboard ((CHAOS MADE TO ORDER~ Explore the Magnificent and Infinite World of Fractals with FRAC LS™ AN ELECTRONIC KALEIDOSCOPE OF NATURES GEOMETRYTM With FracTools, you can modify and play with any of the included images, or easily create new ones by marking a region in an existing image or entering the coordinates directly. Filter out areas of the display, change colors in any area, and animate the fractal to create gorgeous and mesmerizing images. Special effects include Strobe, Kaleidoscope, Stained Glass, Horizontal, Vertical and Diagonal Panning, and Mouse Movies. The most spectacular application is the creation of self-running Slide Shows. Include any PCX file from any of the popular "paint" programs. FracTools also includes a Slide Show Programming Language, to bring a higher degree of control to your shows. -
Fractal 3D Magic Free
FREE FRACTAL 3D MAGIC PDF Clifford A. Pickover | 160 pages | 07 Sep 2014 | Sterling Publishing Co Inc | 9781454912637 | English | New York, United States Fractal 3D Magic | Banyen Books & Sound Option 1 Usually ships in business days. Option 2 - Most Popular! This groundbreaking 3D showcase offers a rare glimpse into the dazzling world of computer-generated fractal art. Prolific polymath Clifford Pickover introduces the collection, which provides background on everything from Fractal 3D Magic classic Mandelbrot set, to the infinitely porous Menger Sponge, to ethereal fractal flames. The following eye-popping gallery displays mathematical formulas transformed into stunning computer-generated 3D anaglyphs. More than intricate designs, visible in three dimensions thanks to Fractal 3D Magic enclosed 3D glasses, will engross math and optical illusions enthusiasts alike. If an item you have purchased from us is not working as expected, please visit one of our in-store Knowledge Experts for free help, where they can solve your problem or even exchange the item for a product that better suits your needs. If you need to return an item, simply bring it back to any Micro Center store for Fractal 3D Magic full refund or exchange. All other products may be returned within 30 days of purchase. Using the software may require the use of a computer or other device that must meet minimum system requirements. It is recommended that you familiarize Fractal 3D Magic with the system requirements before making your purchase. Software system requirements are typically found on the Product information specification page. Aerial Drones Micro Center is happy to honor its customary day return policy for Aerial Drone returns due to product defect or customer dissatisfaction. -
Bachelorarbeit Im Studiengang Audiovisuelle Medien Die
Bachelorarbeit im Studiengang Audiovisuelle Medien Die Nutzbarkeit von Fraktalen in VFX Produktionen vorgelegt von Denise Hauck an der Hochschule der Medien Stuttgart am 29.03.2019 zur Erlangung des akademischen Grades eines Bachelor of Engineering Erst-Prüferin: Prof. Katja Schmid Zweit-Prüfer: Prof. Jan Adamczyk Eidesstattliche Erklärung Name: Vorname: Hauck Denise Matrikel-Nr.: 30394 Studiengang: Audiovisuelle Medien Hiermit versichere ich, Denise Hauck, ehrenwörtlich, dass ich die vorliegende Bachelorarbeit mit dem Titel: „Die Nutzbarkeit von Fraktalen in VFX Produktionen“ selbstständig und ohne fremde Hilfe verfasst und keine anderen als die angegebenen Hilfsmittel benutzt habe. Die Stellen der Arbeit, die dem Wortlaut oder dem Sinn nach anderen Werken entnommen wurden, sind in jedem Fall unter Angabe der Quelle kenntlich gemacht. Die Arbeit ist noch nicht veröffentlicht oder in anderer Form als Prüfungsleistung vorgelegt worden. Ich habe die Bedeutung der ehrenwörtlichen Versicherung und die prüfungsrechtlichen Folgen (§26 Abs. 2 Bachelor-SPO (6 Semester), § 24 Abs. 2 Bachelor-SPO (7 Semester), § 23 Abs. 2 Master-SPO (3 Semester) bzw. § 19 Abs. 2 Master-SPO (4 Semester und berufsbegleitend) der HdM) einer unrichtigen oder unvollständigen ehrenwörtlichen Versicherung zur Kenntnis genommen. Stuttgart, den 29.03.2019 2 Kurzfassung Das Ziel dieser Bachelorarbeit ist es, ein Verständnis für die Generierung und Verwendung von Fraktalen in VFX Produktionen, zu vermitteln. Dabei bildet der Einblick in die Arten und Entstehung der Fraktale -
On Bounding Boxes of Iterated Function System Attractors Hsueh-Ting Chu, Chaur-Chin Chen*
Computers & Graphics 27 (2003) 407–414 Technical section On bounding boxes of iterated function system attractors Hsueh-Ting Chu, Chaur-Chin Chen* Department of Computer Science, National Tsing Hua University, Hsinchu 300, Taiwan, ROC Abstract Before rendering 2D or 3D fractals with iterated function systems, it is necessary to calculate the bounding extent of fractals. We develop a new algorithm to compute the bounding boxwhich closely contains the entire attractor of an iterated function system. r 2003 Elsevier Science Ltd. All rights reserved. Keywords: Fractals; Iterated function system; IFS; Bounding box 1. Introduction 1.1. Iterated function systems Barnsley [1] uses iterated function systems (IFS) to Definition 1. A transform f : X-X on a metric space provide a framework for the generation of fractals. ðX; dÞ is called a contractive mapping if there is a Fractals are seen as the attractors of iterated function constant 0pso1 such that systems. Based on the framework, there are many A algorithms to generate fractal pictures [1–4]. However, dðf ðxÞ; f ðyÞÞps Á dðx; yÞ8x; y X; ð1Þ in order to generate fractals, all of these algorithms have where s is called a contractivity factor for f : to estimate the bounding boxes of fractals in advance. For instance, in the program Fractint (http://spanky. Definition 2. In a complete metric space ðX; dÞ; an triumf.ca/www/fractint/fractint.html), we have to guess iterated function system (IFS) [1] consists of a finite set the parameters of ‘‘image corners’’ before the beginning of contractive mappings w ; for i ¼ 1; 2; y; n; which is of drawing, which may not be practical. -
Current Practices in Quantitative Literacy © 2006 by the Mathematical Association of America (Incorporated)
Current Practices in Quantitative Literacy © 2006 by The Mathematical Association of America (Incorporated) Library of Congress Catalog Card Number 2005937262 Print edition ISBN: 978-0-88385-180-7 Electronic edition ISBN: 978-0-88385-978-0 Printed in the United States of America Current Printing (last digit): 10 9 8 7 6 5 4 3 2 1 Current Practices in Quantitative Literacy edited by Rick Gillman Valparaiso University Published and Distributed by The Mathematical Association of America The MAA Notes Series, started in 1982, addresses a broad range of topics and themes of interest to all who are in- volved with undergraduate mathematics. The volumes in this series are readable, informative, and useful, and help the mathematical community keep up with developments of importance to mathematics. Council on Publications Roger Nelsen, Chair Notes Editorial Board Sr. Barbara E. Reynolds, Editor Stephen B Maurer, Editor-Elect Paul E. Fishback, Associate Editor Jack Bookman Annalisa Crannell Rosalie Dance William E. Fenton Michael K. May Mark Parker Susan F. Pustejovsky Sharon C. Ross David J. Sprows Andrius Tamulis MAA Notes 14. Mathematical Writing, by Donald E. Knuth, Tracy Larrabee, and Paul M. Roberts. 16. Using Writing to Teach Mathematics, Andrew Sterrett, Editor. 17. Priming the Calculus Pump: Innovations and Resources, Committee on Calculus Reform and the First Two Years, a subcomit- tee of the Committee on the Undergraduate Program in Mathematics, Thomas W. Tucker, Editor. 18. Models for Undergraduate Research in Mathematics, Lester Senechal, Editor. 19. Visualization in Teaching and Learning Mathematics, Committee on Computers in Mathematics Education, Steve Cunningham and Walter S. -
Working with Fractals a Resource for Practitioners of Biophilic Design
WORKING WITH FRACTALS A RESOURCE FOR PRACTITIONERS OF BIOPHILIC DESIGN A PROJECT OF THE EUROPEAN ‘COST RESTORE ACTION’ PREPARED BY RITA TROMBIN IN COLLABORATION WITH ACKNOWLEDGEMENTS This toolkit is the result of a joint effort between Terrapin Bright Green, Cost RESTORE Action (REthinking Sustainability TOwards a Regenerative Economy), EURAC Research, International Living Future Institute, Living Future Europe and many other partners, including industry professionals and academics. AUTHOR Rita Trombin SUPERVISOR & EDITOR Catherine O. Ryan CONTRIBUTORS Belal Abboushi, Pacific Northwest National Laboratory (PNNL) Luca Baraldo, COOKFOX Architects DCP Bethany Borel, COOKFOX Architects DCP Bill Browning, Terrapin Bright Green Judith Heerwagen, University of Washington Giammarco Nalin, Goethe Universität Kari Pei, Interface Nikos Salingaros, University of Texas at San Antonio Catherine Stolarski, Catherine Stolarski Design Richard Taylor, University of Oregon Dakota Walker, Terrapin Bright Green Emily Winer, International Well Building Institute CITATION Rita Trombin, ‘Working with fractals: a resource companion for practitioners of biophilic design’. Report, Terrapin Bright Green: New York, 31 December 2020. Revised June 2021 © 2020 Terrapin Bright Green LLC For inquiries: [email protected] or [email protected] COVER DESIGN: Catherine O. Ryan COVER IMAGES: Ice crystals (snow-603675) by Quartzla from Pixabay; fractal gasket snowflake by Catherine Stolarski Design. 2 Working with Fractals: A Toolkit © 2020 Terrapin Bright Green LLC -
Math Morphing Proximate and Evolutionary Mechanisms
Curriculum Units by Fellows of the Yale-New Haven Teachers Institute 2009 Volume V: Evolutionary Medicine Math Morphing Proximate and Evolutionary Mechanisms Curriculum Unit 09.05.09 by Kenneth William Spinka Introduction Background Essential Questions Lesson Plans Website Student Resources Glossary Of Terms Bibliography Appendix Introduction An important theoretical development was Nikolaas Tinbergen's distinction made originally in ethology between evolutionary and proximate mechanisms; Randolph M. Nesse and George C. Williams summarize its relevance to medicine: All biological traits need two kinds of explanation: proximate and evolutionary. The proximate explanation for a disease describes what is wrong in the bodily mechanism of individuals affected Curriculum Unit 09.05.09 1 of 27 by it. An evolutionary explanation is completely different. Instead of explaining why people are different, it explains why we are all the same in ways that leave us vulnerable to disease. Why do we all have wisdom teeth, an appendix, and cells that if triggered can rampantly multiply out of control? [1] A fractal is generally "a rough or fragmented geometric shape that can be split into parts, each of which is (at least approximately) a reduced-size copy of the whole," a property called self-similarity. The term was coined by Beno?t Mandelbrot in 1975 and was derived from the Latin fractus meaning "broken" or "fractured." A mathematical fractal is based on an equation that undergoes iteration, a form of feedback based on recursion. http://www.kwsi.com/ynhti2009/image01.html A fractal often has the following features: 1. It has a fine structure at arbitrarily small scales. -
Fractal Art Using Variations on Escape Time Algorithms in the Complex Plane
Fractal art using variations on escape time algorithms in the complex plane P. D. SISSON Louisiana State University in Shreveport, USA One University Place Shreveport LA 71115 USA Email: [email protected] The creation of fractal art is easily accomplished through the use of widely- available software, and little mathematical knowledge is required for its use. But such an approach is inherently limiting and obscures many possible avenues of investigation. This paper explores the use of orbit traps together with a simple escape time algorithm for creating fractal art based on nontrivial complex-valued functions. The purpose is to promote a more direct hands-on approach to exploring fractal artistic expressions. The article includes a gallery of images illustrating the visual effects of function, colour palette, and orbit trap choices, and concludes with suggestions for further experimentation. Keywords: Escape time algorithm; fractal; fractal art; dynamical system; orbit trap AMS Subject Classification: 28A80; 37F10; 37F45 1 Introduction The variety of work currently being created and classified as fractal art is pleasantly immense, and the mathematical knowledge required by artists to participate in the creative process is now essentially nil. Many software packages have been written that allow artists to explore fractal creations on purely aesthetic terms, and the beauty of much of the resulting work is undeniable (see http://en.wikipedia.org/wiki/Fractal for an up-to-date collection of fractal software, and http://www.fractalartcontests.com/2006/ for a nice collection of recent fractal art). But a reliance on existing software and a reluctance to delve into the mathematics of fractal art is inherently limiting and holds the threat of stagnation. -
Fast Visualisation and Interactive Design of Deterministic Fractals
Computational Aesthetics in Graphics, Visualization, and Imaging (2008) P. Brown, D. W. Cunningham, V. Interrante, and J. McCormack (Editors) Fast Visualisation and Interactive Design of Deterministic Fractals Sven Banisch1 & Mateu Sbert2 1Faculty of Media, Bauhaus–University Weimar, D-99421 Weimar (GERMANY) 2Department of Informàtica i Matemàtica Aplicada, University of Girona, 17071 Girona (SPAIN) Abstract This paper describes an interactive software tool for the visualisation and the design of artistic fractal images. The software (called AttractOrAnalyst) implements a fast algorithm for the visualisation of basins of attraction of iterated function systems, many of which show fractal properties. It also presents an intuitive technique for fractal shape exploration. Interactive visualisation of fractals allows that parameter changes can be applied at run time. This enables real-time fractal animation. Moreover, an extended analysis of the discrete dynamical systems used to generate the fractal is possible. For a fast exploration of different fractal shapes, a procedure for the automatic generation of bifurcation sets, the generalizations of the Mandelbrot set, is implemented. This technique helps greatly in the design of fractal images. A number of application examples proves the usefulness of the approach, and the paper shows that, put into an interactive context, new applications of these fascinating objects become possible. The images presented show that the developed tool can be very useful for artistic work. 1. Introduction an interactive application was not really feasible till the ex- ploitation of the capabilities of new, fast graphics hardware. The developments in the research of dynamical systems and its attractors, chaos and fractals has already led some peo- The development of an interactive fractal visualisation ple to declare that god was a mathematician, because mathe- method, is the main objective of this paper. -
Open Source Resources for Teaching and Research in Mathematics
Open Source Resources for Teaching and Research in Mathematics Dr. Russell Herman Dr. Gabriel Lugo University of North Carolina Wilmington Open Source Resources, ICTCM 2008, San Antonio 1 Outline History Definition General Applications Open Source Mathematics Applications Environments Comments Open Source Resources, ICTCM 2008, San Antonio 2 In the Beginning ... then there were Unix, GNU, and Linux 1969 UNIX was born, Portable OS (PDP-7 to PDP-11) – in new “C” Ken Thompson, Dennis Ritchie, and J.F. Ossanna Mailed OS => Unix hackers Berkeley Unix - BSD (Berkeley Systems Distribution) 1970-80's MIT Hackers Public Domain projects => commercial RMS – Richard M. Stallman EMACS, GNU - GNU's Not Unix, GPL Open Source Resources, ICTCM 2008, San Antonio 3 History Free Software Movement – 1983 RMS - GNU Project – 1983 GNU GPL – GNU General Public License Free Software Foundation (FSF) – 1985 Free = “free speech not free beer” Open Source Software (OSS) – 1998 Netscape released Mozilla source code Open Source Initiative (OSI) – 1998 Eric S. Raymond and Bruce Perens The Cathedral and the Bazaar 1997 - Raymond Open Source Resources, ICTCM 2008, San Antonio 4 The Cathedral and the Bazaar The Cathedral model, source code is available with each software release, code developed between releases is restricted to an exclusive group of software developers. GNU Emacs and GCC are examples. The Bazaar model, code is developed over the Internet in public view Raymond credits Linus Torvalds, Linux leader, as the inventor of this process. http://en.wikipedia.org/wiki/The_Cathedral_and_the_Bazaar Open Source Resources, ICTCM 2008, San Antonio 5 Given Enough Eyeballs ... central thesis is that "given enough eyeballs, all bugs are shallow" the more widely available the source code is for public testing, scrutiny, and experimentation, the more rapidly all forms of bugs will be discovered. -
2015 23Rd Iranian Conference on Electrical Engineering
2015 23rd Iranian Conference on Electrical Engineering (ICEE 2015) Tehran, Iran 10 – 14 May 2015 Pages 1-857 IEEE Catalog Number: CFP1563J-POD ISBN: 978-1-4799-1973-4 1/2 2015 23rd Iranian Conference on Electrical Engineering (ICEE) Contents Area 1: Bioelectric 1. ECG Based Detection of Left Ventricular Hypertrophy Using Higher Order Statistics / Rashid Ghorbani Afkhami and Mohammad Ali Tinati ........................................ 1 2. An Auditory Brainstem Response-Based Expert System for ADHD Diagnosis Using Recurrence Qualification Analysis and Wavelet Support Vector Machine / Zeynab Esmailpoor, Ali Motie Nasrabadi, and Saeed Malayeri 6 3. A New Adaptive Noise Estimator for PDE-Based MRI Denoising / Mostafa Heydari and Mohammad-Reza Karami ....................................................... 11 4. Prediction of Jaw Movements Based on EMG Signals Using Fast Orthogonal Search / Hadi Kalani, Alireza Akbarzadeh, and Sahar Moghimi .......................................... 17 5. Phase Aberration Correction in Minimum Variance Beamforming of Ultrasound Imaging / Mahsa Sotoodeh Ziksari and Babak Mohammadzadeh Asl ...................................... 23 6. An Enhancement in Data Transmission in Biomedical Implantable Microsystems: Uni-Pulse Harmonic Modulation / Parviz Amiri and Mohamad Zinaty ................................. 27 7. Periodogram Pattern Feature-based Seizure Detection Algorithm using Optimized Hybrid Model of MLP and Ant Colony / Morteza Behnam and Hossein Pourghassem .......................... 32 8. Modeling and Controlling -
New Escape Time Koch Curve in Complex Plane
International Journal of Computer Applications (0975 – 8887) Volume 58– No.8, November 2012 New Escape Time Koch Curve in Complex Plane Priti Dimri Dharmendra Kumar Ashish Negi Associate Professor, Associate Professor, Associate Professor, Department of Computer Department of Computer Department of Computer Science and Engineering Science Science and Engineering G.B Pant Engineering College Institute of Management G.B Pant Engineering College Pauri Garhwal, 246001 Studies Dehradun Pauri Garhwal, 246001 ABSTRACT that of f(x) = |x| at x = 0, where no tangent is defined.[15] Von Koch curves allow numerous variations and have Because of its unique construction the Koch curve has a inspired many researchers and fractal artists to produce noninteger dimensionality. In the Koch curve, a fractal pattern amazing pieces of art. In this paper we present a new of 60-degree-to-base line segments one-third the length of the algorithm for plotting the Koch curve using complex previous line is repeated. The portion of the base line under a variables. Further we have applied various coloring newly formed triangle is deleted. Such geometric algorithms to generate complex Koch fractals. manipulation continued indefinitely, forms the Koch Curve. [23] Keywords The Von Koch Curve shows the self-similar property of a Koch curves, Fractal Coloring, Escape Time Algorithm. fractal. The same pattern appears everywhere along the curve 1. INTRODUCTION in different scale, from visible to infinitesimal. The Koch curve has a Hausdorff dimension of log(4)/log(3), i.e. A fractal is an object or quantity that displays self-similarity approximately 1.2619 and is enclosed in a finite area [8].