The Illinois Mathematics Teacher

Total Page:16

File Type:pdf, Size:1020Kb

The Illinois Mathematics Teacher THE ILLINOIS MATHEMATICS TEACHER EDITORS Marilyn Hasty and Tammy Voepel Southern Illinois University Edwardsville Edwardsville, IL 62026 REVIEWERS Kris Adams Chip Day Karen Meyer Jean Smith Edna Bazik Lesley Ebel Jackie Murawska Clare Staudacher Susan Beal Dianna Galante Carol Nenne Joe Stickles, Jr. William Beggs Linda Gilmore Jacqueline Palmquist Mary Thomas Carol Benson Linda Hankey James Pelech Bob Urbain Patty Bruzek Pat Herrington Randy Pippen Darlene Whitkanack Dane Camp Alan Holverson Sue Pippen Sue Younker Bill Carroll John Johnson Anne Marie Sherry Mike Carton Robin Levine-Wissing Aurelia Skiba ICTM GOVERNING BOARD 2012 Don Porzio, President Rich Wyllie, Treasurer Fern Tribbey, Past President Natalie Jakucyn, Board Chair Lannette Jennings, Secretary Ann Hanson, Executive Director Directors: Mary Modene, Catherine Moushon, Early Childhood (2009-2012) Com. College/Univ. (2010-2013) Polly Hill, Marshall Lassak, Early Childhood (2011-2014) Com. College/Univ. (2011-2014) Cathy Kaduk, George Reese, 5-8 (2010-2013) Director-At-Large (2009-2012) Anita Reid, Natalie Jakucyn, 5-8 (2011-2014) Director-At-Large (2010-2013) John Benson, Gwen Zimmermann, 9-12 (2009-2012) Director-At-Large (2011-2014) Jerrine Roderique, 9-12 (2010-2013) The Illinois Mathematics Teacher is devoted to teachers of mathematics at ALL levels. The contents of The Illinois Mathematics Teacher may be quoted or reprinted with formal acknowledgement of the source and a letter to the editor that a quote has been used. The activity pages in this issue may be reprinted for classroom use without written permission from The Illinois Mathematics Teacher. (Note: Occasionally copyrighted material is used with permission. Such material is clearly marked and may not be reprinted.) THE ILLINOIS MATHEMATICS TEACHER Volume 61, No. 1 Fall 2012 Table of Contents Guidelines for Submitting Manuscripts............................................................................. 35 Using Literature to Get to Pi ................................................................................................ 3 Deborah A. Crocker & Betty B. Long – General Interest Using the SmartArtTM Organization Chart to Create a Graphic Organizer ................................................................................................. 6 Dianna Galante – Technology Mind Mapping Fractions, Decimals and Percents ........................................................... 11 Geoffrey Lewis, Robert Hayes, & Marianne Wysocki – Elementary & Middle School Playground Equipment ....................................................................................................... 15 Ann Hanson & Peter Insley – High School Variations on the Witch of Agnesi ...................................................................................... 20 John Boncek & Sig Harden – High School Confetti – It’s Not Just for a Party Anymore! .................................................................. 25 Rena Pate – Elementary Problem Solving in the Primary Classroom ...................................................................... 28 Rena Pate – Elementary 101 102 uses for a paperclip ................................................................................................ 32 Charlotte Schulze-Hewett & Hana Sallouh – High School Quadrilaterals: Transformations for Developing Student Thinking ............................. 36 Colleen Eddy, Kevin Hughes, Vincent Kieftenbeld, & Carole Hayata – High School Illinois Mathematics Teacher – Fall 2012 .......................................................................................1 From the Editors… Welcome to the Fall 2012 issue of the Illinois Mathematics Teacher. It has been awhile, but we now have a great selection of articles to share with the members of ICTM. This issue of the IMT contains general interest articles as well as articles specific to a variety of levels of student learning. Deborah A. Crocker and Betty B. Long have written an article about using literature and technology to have students discover pi. Dianna Galante also addresses technology in her article about graphic organizers. Fractions are the topic of focus in an article by Geoffrey Lewis, Robert Hayes, and Marianne Wysocki. Two articles that may be of interest to high school teachers involve the mathematics associated with a playground swing and the mathematics of two famous curves. Rena Pate provides two articles in this issue that will be of interest to elementary level math teachers which discuss a readily available manipulative and problem solving. Charlotte Schulze-Hewett and Hana Sallouh discuss a manipulative that is readily available and how to implement it in your middle school or high school classroom. Finally, there is an article about using transformations in the high school geometry classroom. We want to thank all the readers of the IMT. We have enjoyed being the editors of this journal for the past eleven years. As Marilyn retires, we are passing the job of editor to two other members of ICTM. We wish them the best of luck and hope you continue to enjoy the IMT under their direction. Typically included at the end of each issue is a form for becoming a reviewer for the IMT. This form has not been included in this issue due to page considerations. If you are interested in becoming a reviewer, please email [email protected] and list the subject(s) or grade level(s) you would be interested in reviewing. In order to ensure that the articles are of interest to our readers, we send them to reviewers to get their approval. We would love to have reviewers willing to review in only one area or multiple areas. As postage prices continue to rise, we are trying to conduct most of our communications by email, so please update your information and your email address if you have not reviewed in the past year. Please consider submitting an article or classroom activity to the IMT. Consider writing about an activity that you use in your classroom and you would like to share with others. Your articles are needed to continue the sharing of ideas and the publishing of this journal on a regular basis. Thank you for sharing. Marilyn and Tammy editors Illinois Mathematics Teacher – Fall 2012 .......................................................................................2 Using Literature to Get to Pi Deborah A. Crocker – Appalachian State University, [email protected] Betty B. Long – Appalachian State University, [email protected] Literature is often used as a man. At this point, Radius goes to the springboard into mathematics at the carpenters, Geo of Metry and his brother elementary and middle school levels. Sym. While there, Radius has an idea about Stories can help motivate students to explore “across the middle” and “around the circle” and discover mathematical concepts. Even (p. 15). For the next several pages, in the if the reading level of the book is below story, Radius measures various circular grade level, the story can help students recall items. In table 1 is a list of the items that mathematical concepts and ideas. Sir Radius finds and their measures. Cumference and the Dragon of Pi: A Math Table 1 Adventure is an example of this type of Items measured by Radius in the story book. This activity incorporates literature in this manner and makes use of a handheld Across the Around the graphing device to discover pi using Item Middle Outside Edge multiple representations. Some prior (inches) (inches) knowledge of a handheld graphing device is Wheel 49 154 assumed. Onion Slice 3.5 11 As you read the story to your class, Basket 7 22 they will be introduced to the characters Sir Bowl 14 44 Cumference, his son Radius, and his wife Round of 17.5 55 Lady Di of Ameter. During lunch one day, Cheese Sir Cumference is accidentally turned into a dragon when Radius brings him a bottle Students should measure other circular labeled “Fire Belly” from the doctor’s objects such as tops of soda cans, hula- workroom to cure his stomachache. In the hoops, cookies, or plastic lids and add their doctor’s workroom, Radius looks for a cure measurements to table 1. The data can be to change his father back. He finds a entered on any handheld graphing device container with a poem written on the outside with the capability for scatterplots and linear that says: regression models. In this article, we will Measure the middle and circle show screens captured from the TI-73. The around, final table will be entered into the list editor Divide so a number can be found. on the TI-73. The “Across the Middle” Every circle, great and small – measurements are in L1 and the “Around the The number is the same for all. Outside Edge” measurements from the It’s also the dose, so be clever, literature book are in L2 (see fig. 1). Or a dragon he will stay . forever. (p. 13) Radius realizes he must solve the riddle in the poem involving a circle in order to change his dad back from a dragon into a Fig. 1 Screen shot of L1 and L2 Illinois Mathematics Teacher – Fall 2012 .......................................................................................3 The data in the list editor can be analyzed both graphically and numerically. Numerically, you can have the students create lists L3, L4, L5, and L6 containing L2/L1, L2 + L1, L2 - L1, and L2*L1, respectively. By analyzing the sum, Fig. 4 Screen shots showing how to set up a difference, product and quotient, students stat plot should observe that only the quotient appears to be approximately constant. (see The data in the scatter plot should
Recommended publications
  • Section 1.7B the Four-Vertex Theorem
    Section 1.7B The Four-Vertex Theorem Matthew Hendrix Matthew Hendrix Section 1.7B The Four-Vertex Theorem Definition The integer I is called the rotation index of the curve α where I is an integer multiple of 2π; that is, Z 1 k(s) dt = θ(`) − θ(0) = 2πI 0 Definition 2 Let α : [0; `] ! R be a plane closed curve given by α(s) = (x(s); y(s)). Since s is the arc length, the tangent vector t(s) = (x0(s); y 0(s)) has unit length. The tangent indicatrix is 2 0 0 t : [0; `] ! R , which is given by t(s) = (x (s); y (s)); this is a differentiable curve, the trace of which is contained in the circle of radius 1. Matthew Hendrix Section 1.7B The Four-Vertex Theorem Definition 2 Let α : [0; `] ! R be a plane closed curve given by α(s) = (x(s); y(s)). Since s is the arc length, the tangent vector t(s) = (x0(s); y 0(s)) has unit length. The tangent indicatrix is 2 0 0 t : [0; `] ! R , which is given by t(s) = (x (s); y (s)); this is a differentiable curve, the trace of which is contained in the circle of radius 1. Definition The integer I is called the rotation index of the curve α where I is an integer multiple of 2π; that is, Z 1 k(s) dt = θ(`) − θ(0) = 2πI 0 Matthew Hendrix Section 1.7B The Four-Vertex Theorem Definition 2 A vertex of a regular plane curve α :[a; b] ! R is a point t 2 [a; b] where k0(t) = 0.
    [Show full text]
  • Ian R. Porteous 9 October 1930 - 30 January 2011
    In Memoriam Ian R. Porteous 9 October 1930 - 30 January 2011 A tribute by Peter Giblin (University of Liverpool) Będlewo, Poland 16 May 2011 Caustics 1998 Bill Bruce, disguised as a Terry Wall, ever a Pro-Vice-Chancellor mathematician Watch out for Bruce@60, Wall@75, Liverpool, June 2012 with Christopher Longuet-Higgins at the Rank Prize Funds symposium on computer vision in Liverpool, summer 1987, jointly organized by Ian, Joachim Rieger and myself After a first degree at Edinburgh and National Service, Ian worked at Trinity College, Cambridge, for a BA then a PhD under first William Hodge, but he was about to become Secretary of the Royal Society and Master of Pembroke College Cambridge so when Michael Atiyah returned from Princeton in January 1957 he took on Ian and also Rolph Schwarzenberger (6 years younger than Ian) as PhD students Ian’s PhD was in algebraic geometry, the effect of blowing up on Chern Classes, published in Proceedings of the Cambridge Philosophical Society in 1960: The behaviour of the Chern classes or of the canonical classes of an algebraic variety under a dilatation has been studied by several authors (Todd, Segre, van de Ven). This problem is of interest since a dilatation is the simplest form of birational transformation which does not preserve the underlying topological structure of the algebraic variety. A relation between the Chern classes of the variety obtained by dilatation of a subvariety and the Chern classes of the original variety has been conjectured by the authors cited above but a complete proof of this relation is not in the literature.
    [Show full text]
  • Evolutes of Curves in the Lorentz-Minkowski Plane
    Evolutes of curves in the Lorentz-Minkowski plane 著者 Izumiya Shuichi, Fuster M. C. Romero, Takahashi Masatomo journal or Advanced Studies in Pure Mathematics publication title volume 78 page range 313-330 year 2018-10-04 URL http://hdl.handle.net/10258/00009702 doi: info:doi/10.2969/aspm/07810313 Evolutes of curves in the Lorentz-Minkowski plane S. Izumiya, M. C. Romero Fuster, M. Takahashi Abstract. We can use a moving frame, as in the case of regular plane curves in the Euclidean plane, in order to define the arc-length parameter and the Frenet formula for non-lightlike regular curves in the Lorentz- Minkowski plane. This leads naturally to a well defined evolute asso- ciated to non-lightlike regular curves without inflection points in the Lorentz-Minkowski plane. However, at a lightlike point the curve shifts between a spacelike and a timelike region and the evolute cannot be defined by using this moving frame. In this paper, we introduce an alternative frame, the lightcone frame, that will allow us to associate an evolute to regular curves without inflection points in the Lorentz- Minkowski plane. Moreover, under appropriate conditions, we shall also be able to obtain globally defined evolutes of regular curves with inflection points. We investigate here the geometric properties of the evolute at lightlike points and inflection points. x1. Introduction The evolute of a regular plane curve is a classical subject of differen- tial geometry on Euclidean plane which is defined to be the locus of the centres of the osculating circles of the curve (cf. [3, 7, 8]).
    [Show full text]
  • Some Remarks on Duality in S3
    GEOMETRY AND TOPOLOGY OF CAUSTICS — CAUSTICS ’98 BANACH CENTER PUBLICATIONS, VOLUME 50 INSTITUTE OF MATHEMATICS POLISH ACADEMY OF SCIENCES WARSZAWA 1999 SOME REMARKS ON DUALITY IN S 3 IAN R. PORTEOUS Department of Mathematical Sciences University of Liverpool Liverpool, L69 3BX, UK e-mail: [email protected] Abstract. In this paper we review some of the concepts and results of V. I. Arnol0d [1] for curves in S2 and extend them to curves and surfaces in S3. 1. Introduction. In [1] Arnol0d introduces the concepts of the dual curve and the derivative curve of a smooth (= C1) embedded curve in S2. In particular he shows that the evolute or caustic of such a curve is the dual of the derivative. The dual curve is just the unit normal curve, while the derivative is the unit tangent curve. The definitions extend in an obvious way to curves on S2 with ordinary cusps. Then one proves easily that where a curve has an ordinary geodesic inflection the dual has an ordinary cusp and vice versa. Since the derivative of a curve without cusps clearly has no cusps it follows that the caustic of such a curve has no geodesic inflections. This prompts investigating what kind of singularity a curve must have for its caustic to have a geodesic inflection, by analogy with the classical construction of de l'H^opital,see [2], pages 24{26. In the second and third parts of the paper the definitions of Arnol0d are extended to surfaces in S3 and to curves in S3. The notations are those of Porteous [2], differentiation being indicated by subscripts.
    [Show full text]
  • The Implementation of Ict on Various Curves Through
    THE IMPLEMENTATION OF ICT ON VARIOUS CURVES THROUGH WINPLOT J.Sengamala Selvi,1,* Dr.T.Venugopal 2 1Asst.Professor, Dept.of Mathematics, SCSVMV University, Enathur, Tamilnadu, Kanchipuram, India. 2Professor of Mathematics, Director, Research and Publications, SCSVMV University, Enathur, Kanchipuram, Tamilnadu, India. E-mail: [email protected]. ABSTRACT: ml This paper aims to take a step further into the 2. Click on the link: Winplot for Windows development and innovation of teaching, 95/98/ME/2K/XP (558K) using contemporary instruments, which 3. When prompted, click save to save the develops the necessary skills of the student file to the desktop. community. To introduce the Win plot 4. Double click the icon wp32z.exe on the software in making teaching mathematical desktop. problems into an easier one so as to cheer up 5. WinZip will prompt to extract the files to the students to develop their application C:\peanut. Click “Unzip”. oriented skills. This paper deals with the hope 6. Win Plot is now installed in C:\peanut that the mathematics classroom will soon be directory. converted into modern classroom where software oriented learning will take place in the near future. KEYWORDS: Higher education Mathematics, ICT, Mathematics pedagogy.Win plot software 1. Introduction: ICT is one of the factors to shaping and changing the world rapidly.ICT has also brought a paradigm shift in education. It touches every aspect of Education.ICT has brought a new networks of teachers and learners connecting them throughout the globe.ICT is a means of accessing, processing, sharing, editing, selecting, B.BASICS OF WINPLOT presenting, communicating through the The first time Win Plot is used, the screen information in a variety of media.
    [Show full text]
  • An Investigation of the Four Vertex Theorem and Its Converse Rebeka Kelmar Union College - Schenectady, NY
    Union College Union | Digital Works Honors Theses Student Work 6-2017 An Investigation of the Four Vertex Theorem and its Converse Rebeka Kelmar Union College - Schenectady, NY Follow this and additional works at: https://digitalworks.union.edu/theses Part of the Geometry and Topology Commons Recommended Citation Kelmar, Rebeka, "An Investigation of the Four Vertex Theorem and its Converse" (2017). Honors Theses. 52. https://digitalworks.union.edu/theses/52 This Open Access is brought to you for free and open access by the Student Work at Union | Digital Works. It has been accepted for inclusion in Honors Theses by an authorized administrator of Union | Digital Works. For more information, please contact [email protected]. An Investigation of the Four Vertex Theorem and its Converse By Rebeka Kelmar *************** Submitted in partial fulfillment of the requirements for Honors in the Department of Mathematics UNION COLLEGE March, 2017 Abstract In the study of curves there are many interesting theorems. One such theorem is the four vertex theorem and its converse. The four vertex theorem says that any simple closed curve, other than a circle, must have four vertices. This means that the curvature of the curve must have at least four local maxima/minima. In my project I explore different proofs of the four vertex theorem and its history. I also look at a modified converse of the four vertex theorem which says that any continuous real- valued function on the circle that has at least two local maxima and two local minima is the curvature function of a simple closed curve in the plane.
    [Show full text]
  • A Convex, Smooth and Invertible Contact Model for Trajectory Optimization
    A convex, smooth and invertible contact model for trajectory optimization Emanuel Todorov Departments of Applied Mathematics and Computer Science and Engineering University of Washington Abstract— Trajectory optimization is done most efficiently There is however one additional requirement which we when an inverse dynamics model is available. Here we develop believe is essential and requires a qualitatively new approach: the first model of contact dynamics definedinboththeforward iv. The contact model should be defined for both forward and and inverse directions. The contact impulse is the solution to a convex optimization problem: minimize kinetic energy inverse dynamics. Here the forward dynamics in contact space subject to non-penetration and friction-cone w = a (q w u ) (1) constraints. We use a custom interior-point method to make the +1 1 optimization problem unconstrained; this is key to defining the compute the next-step velocity w+1 given the current forward and inverse dynamics in a consistent way. The resulting generalized position q , velocity w and applied force u , model has a parameter which sets the amount of contact smoothing, facilitating continuation methods for optimization. while the inverse dynamics We implemented the proposed contact solver in our new physics u = b (q w w ) (2) engine (MuJoCo). A full Newton step of trajectory optimization +1 for a 3D walking gait takes only 160 msec, on a 12-core PC. compute the applied force that caused the observed change in velocity. Computing the total force that caused the observed I. INTRODUCTION change in velocity is of course straightforward. The hard Optimal control theory provides a powerful set of methods part is decomposing this total force into a contact force and for planning and automatic control.
    [Show full text]
  • Mathematics 1
    Mathematics 1 MATHEMATICS Courses MATH 1483 Mathematical Functions and Their Uses (A) Math is the language of science and a vital part of both cutting-edge Prerequisites: An acceptable placement score - see research and daily life. Contemporary mathematics investigates such placement.okstate.edu. basic concepts as space and number and also the formulation and Description: Analysis of functions and their graphs from the viewpoint analysis of mathematical models arising from applications. Mathematics of rates of change. Linear, exponential, logarithmic and other functions. has always had close relationships to the physical sciences and Applications to the natural sciences, agriculture, business and the social engineering. As the biological, social, and management sciences have sciences. become increasingly quantitative, the mathematical sciences have Credit hours: 3 moved in new directions to support these fields. Contact hours: Lecture: 3 Contact: 3 Levels: Undergraduate Mathematicians teach in high schools and colleges, do research and Schedule types: Lecture teach at universities, and apply mathematics in business, industry, Department/School: Mathematics and government. Outside of education, mathematicians usually work General Education and other Course Attributes: Analytical & Quant in research and analytical positions, although they have become Thought increasingly involved in management. Firms in the aerospace, MATH 1493 Applications of Modern Mathematics (A) communications, computer, defense, electronics, energy, finance, and Prerequisites: An acceptable placement score (see insurance industries employ many mathematicians. In such employment, placement.okstate.edu). a mathematician typically serves either in a consulting capacity, giving Description: Introduction to contemporary applications of discrete advice on mathematical problems to engineers and scientists, or as a mathematics. Topics from management science, statistics, coding and member of a research team composed of specialists in several fields.
    [Show full text]
  • Geometric Differentiation: for the Intelligence of Curves and Surfaces: Second Edition I
    Cambridge University Press 978-0-521-81040-1 - Geometric Differentiation: For the intelligence of Curves and Surfaces: Second Edition I. R. Porteous Frontmatter More information Geometric differentiation © in this web service Cambridge University Press www.cambridge.org Cambridge University Press 978-0-521-81040-1 - Geometric Differentiation: For the intelligence of Curves and Surfaces: Second Edition I. R. Porteous Frontmatter More information © in this web service Cambridge University Press www.cambridge.org Cambridge University Press 978-0-521-81040-1 - Geometric Differentiation: For the intelligence of Curves and Surfaces: Second Edition I. R. Porteous Frontmatter More information Geometric differentiation for the intelligence of curves and surfaces Second edition I. R. Porteous Senior Lecturer, Department of Pure Mathematics University of Liverpool © in this web service Cambridge University Press www.cambridge.org Cambridge University Press 978-0-521-81040-1 - Geometric Differentiation: For the intelligence of Curves and Surfaces: Second Edition I. R. Porteous Frontmatter More information University Printing House, Cambridge CB2 8BS, United Kingdom Cambridge University Press is part of the University of Cambridge. It furthers the University’s mission by disseminating knowledge in the pursuit of education, learning and research at the highest international levels of excellence. www.cambridge.org Information on this title: www.cambridge.org/9780521810401 © Cambridge University Press 1994, 2001 This publication is in copyright. Subject
    [Show full text]
  • Moon in a Puddle and the Four-Vertex Theorem
    Moon in a puddle and the four-vertex theorem Anton Petrunin and Sergio Zamora Barrera with artwork by Ana Cristina Chavez´ Caliz´ Abstract. We present a proof of the moon in a puddle theorem, and use its key lemma to prove a generalization of the four-vertex theorem. arXiv:2107.08455v1 [math.DG] 18 Jul 2021 INTRODUCTION. The theorem about the Moon in a puddle provides the simplest meaningful example of a local-to-global theorem which is mainly what differential geometry is about. Yet, the theorem is surprisingly not well-known. This paper aims to redress this omission by calling attention to the result and applying it to a well-known theorem MOON IN A PUDDLE. The following question was initially asked by Abram Fet and solved by Vladimir Ionin and German Pestov [10]. Theorem 1. Assume γ is a simple closed smooth regular plane curve with curvature bounded in absolute value by 1. Then the region surrounded by γ contains a unit disc. We present the proof from our textbook [12] which is a slight improvement of the original proof. Both proofs work under the weaker assumption that the signed curva- ture is at most one, assuming that the sign is chosen suitably. A more general statement for a barrier-type bound on the curvature was given by Anders Aamand, Mikkel Abra- hamsen, and Mikkel Thorup [1]. There are other proofs. One is based on the curve- shortening flow; it is given by Konstantin Pankrashkin [8]. Another one uses cut locus; it is sketched by Victor Toponogov [13, Problem 1.7.19]; see also [11].
    [Show full text]
  • FOUR VERTEX THEOREM and ITS CONVERSE Dennis Deturck, Herman Gluck, Daniel Pomerleano, David Shea Vick
    THE FOUR VERTEX THEOREM AND ITS CONVERSE Dennis DeTurck, Herman Gluck, Daniel Pomerleano, David Shea Vick Dedicated to the memory of Björn Dahlberg Abstract The Four Vertex Theorem, one of the earliest results in global differential geometry, says that a simple closed curve in the plane, other than a circle, must have at least four "vertices", that is, at least four points where the curvature has a local maximum or local minimum. In 1909 Syamadas Mukhopadhyaya proved this for strictly convex curves in the plane, and in 1912 Adolf Kneser proved it for all simple closed curves in the plane, not just the strictly convex ones. The Converse to the Four Vertex Theorem says that any continuous real- valued function on the circle which has at least two local maxima and two local minima is the curvature function of a simple closed curve in the plane. In 1971 Herman Gluck proved this for strictly positive preassigned curvature, and in 1997 Björn Dahlberg proved the full converse, without the restriction that the curvature be strictly positive. Publication was delayed by Dahlberg's untimely death in January 1998, but his paper was edited afterwards by Vilhelm Adolfsson and Peter Kumlin, and finally appeared in 2005. The work of Dahlberg completes the almost hundred-year-long thread of ideas begun by Mukhopadhyaya, and we take this opportunity to provide a self-contained exposition. August, 2006 1 I. Why is the Four Vertex Theorem true? 1. A simple construction. A counter-example would be a simple closed curve in the plane whose curvature is nonconstant, has one minimum and one maximum, and is weakly monotonic on the two arcs between them.
    [Show full text]
  • Differential Geometry from a Singularity Theory Viewpoint
    View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by Biblioteca Digital da Produção Intelectual da Universidade de São Paulo (BDPI/USP) Universidade de São Paulo Biblioteca Digital da Produção Intelectual - BDPI Departamento de Matemática - ICMC/SMA Livros e Capítulos de Livros - ICMC/SMA 2015-12 Differential geometry from a singularity theory viewpoint IZUMIYA, Shyuichi et al. Differential geometry from a singularity theory viewpoint. Hackensack: World Scientific, 2015. 384 p. http://www.producao.usp.br/handle/BDPI/50103 Downloaded from: Biblioteca Digital da Produção Intelectual - BDPI, Universidade de São Paulo by UNIVERSITY OF SAO PAULO on 03/04/16. For personal use only. Differential Geometry from a Singularity Theory Viewpoint Downloaded www.worldscientific.com 9108_9789814590440_tp.indd 1 22/9/15 9:14 am May 2, 2013 14:6 BC: 8831 - Probability and Statistical Theory PST˙ws This page intentionally left blank by UNIVERSITY OF SAO PAULO on 03/04/16. For personal use only. Differential Geometry from a Singularity Theory Viewpoint Downloaded www.worldscientific.com by UNIVERSITY OF SAO PAULO on 03/04/16. For personal use only. Differential Geometry from a Singularity Theory Viewpoint Downloaded www.worldscientific.com 9108_9789814590440_tp.indd 2 22/9/15 9:14 am Published by World Scientific Publishing Co. Pte. Ltd. 5 Toh Tuck Link, Singapore 596224 USA office: 27 Warren Street, Suite 401-402, Hackensack, NJ 07601 UK office: 57 Shelton Street, Covent Garden, London WC2H 9HE Library of Congress Cataloging-in-Publication Data Differential geometry from a singularity theory viewpoint / by Shyuichi Izumiya (Hokkaido University, Japan) [and three others].
    [Show full text]