The Story of 0 RICK BLAKE, CHARLES VERHILLE
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Mathematics in Language
cognitive semantics 6 (2020) 243-278 brill.com/cose Mathematics in Language Richard Hudson University College London, London, England [email protected] Abstract Elementary mathematics is deeply rooted in ordinary language, which in some respects anticipates and supports the learning of mathematics, but which in other re- spects hinders this learning. This paper explores a number of areas of arithmetic and other elementary areas of mathematics, considering for each area whether it helps or hinders the young learner: counting and larger numbers, sets and brackets, algebra and variables, zero and negation, approximation, scales and relationships, and probability. The conclusion is that ordinary language anticipates the mathematics of counting, arithmetic, algebra, variables and brackets, zero and probability; but that negation, approximation and probability are particularly problematic because mathematics de- mands a different way of thinking, and different mental capacity, compared with ordi- nary language. School teachers should be aware of the mathematics already built into language so as to build on it; and they should also be able to offer special help in the conflict zones. Keywords numbers – grammar – semantics – negation – probability 1 Introduction1 This paper is about the area of language that we might call ‘mathematical language’, and has a dual function, as a contribution to cognitive semantics and as an exercise in pedagogical linguistics. Unlike earlier discussions of 1 I should like to acknowledge detailed comments on an earlier version of this paper from Neil Sheldon, as well as those of an anonymous reviewer. © Richard Hudson, 2020 | doi:10.1163/23526416-bja10005 This is an open access article distributed under the terms of the CC BY 4.0Downloaded License. -
Chapter 4 Mathematics As a Language
Chapter 4 Mathematics as a Language Peculiarities of Mathematical Language in the Texts of Pure Mathematics What is mathematics? Is mathematics, represented in all its modern variety, a single science? The answer to this clear-cut question was at- tempted by the French mathematicians who sign their papers with the name Nicolas Bourbaki. In their article "Architecture of Mathematics" published in Russian as an appendix to The History of Mathematics' (Bourbaki, 1948), they stated that mathematics (and certainly it is only pure mathematics that is referred to) is a uniform science. Its uniformity is given by the system of its logical constructions. A chracteristic feature of mathematics is the explicit axiomatico-deductive method of construct- ing judgments. Any mathematical paper is first of all characterized by containing a long chain of logical conclusions. But the Bourbaki say that such chaining of syllogisms is no more than a transforming mechanism. It may be applied to any system of premises. It is just an outer sign of a system, its dressing; it does not yet display the essential system of logical constructions given by the postulates. The system of postulates in mathematics is not in the least a colorful mosaic of separate initial statements. The peculiarity of mathematics lies in the ability of the system of postulates to form special concepts, mathematical structures, rich with logical consequences which may be derived from them deductively. Mathematics is principally an axioma- ' This is one of the volumes of the unique tractatus TheElernenrs of Marhernorrcs, which wos ro give the reader the fullest impression of modern mathematics, organized from the standpoint of one of the largest modern schools. -
The Utility of Mathematics
THE UTILITY OF MATHEMATICS It is not without great surprise that we read of the efforts of modern "educators" to expunge the study of mathematics from the scholastic curriculum. It is logical, and consistent with an already incomplete, un satisfactory program, for the State to exclude religious instruc tion from the free public schools. The proscription of the study of the German language in the schools is consonant with the existing antipathy for all things German. But who has weighed mathematics in the balance of honest investigation and found it wanting? Two American soldiers training for the great conflict "over there" visited a book shop. One purchased a German grammar. His companion severely reprimanded him for his apparent weak ness, and eloquently proclaimed the uselessness of studying Ger man. "Well," said the first soldier, "you will be in an awful fix when you reach Berlin." Without a working knowledge of the German language the victorious Allies will, indeed, be at a great disadvantage when the present drive shall have led them into Germany on the road to Berlin. But what a rocky road to Ber lin! The vandalism of the retreating Hun is obstructing that road by the wanton destruction of cities, towns and villages, with their churches, bridges and every other architectural triumph of constructive engineering. The damage must be repaired when the war is· over. It will require the careful work of skilled engineers. Was there ever an engineer who attained success without the aid of mathemat ics? The war has wrought havoc and destruction wherever the tents of battle have been pitched. -
The Language of Mathematics: Towards an Equitable Mathematics Pedagogy
The Language of Mathematics: Towards an Equitable Mathematics Pedagogy Nathaniel Rounds, PhD; Katie Horneland, PhD; Nari Carter, PhD “Education, then, beyond all other devices of human origin, is the great equalizer of the conditions of men, the balance wheel of the social machinery.” (Horace Mann, 1848) 2 ©2020 Imagine Learning, Inc. Introduction From the earliest days of public education in the United States, educators have believed in education’s power as an equalizing force, an institution that would ensure equity of opportunity for the diverse population of students in American schools. Yet, for as long as we have been inspired by Mann’s vision, our history of segregation and exclusion reminds us that we have fallen short in practice. In 2019, 41% of 4th graders and 34% of 8th graders demonstrated proficiency in mathematics on the National Assessment of Educational Progress (NAEP). Yet only 20% of Black 4th graders and 28% of Hispanic 4th graders were proficient in mathematics, compared with only 14% of Black 8th grades and 20% of Hispanic 8th graders. Given these persistent inequities, how can education become “the great equalizer” that Mann envisioned? What, in short, is an equitable mathematics pedagogy? The Language of Mathematics: Towards an Equitable Mathematics Pedagogy 1 Mathematical Competencies To help think through this question, we will examine the language of mathematics and the role of language in math classrooms. This role, of course, has changed over time. Ravitch gives us this picture of math instruction in the 1890s: Some teachers used music to teach the alphabet and the multiplication tables..., with students marching up and down the isles of the classroom singing… “Five times five is twenty-five and five times six is thirty…” (Ravitch, 2001) Such strategies for the rote learning of facts and algorithms once seemed like all we needed to do to teach mathematics. -
The Academic Language of Mathematics
M01_ECHE7585_CH01_pp001-014.qxd 4/30/13 5:00 PM Page 1 chapter 1 The Academic Language of Mathematics Nearly all states continue to struggle to meet the academic targets in math for English learners set by the No Child Left Behind Act. One contributing factor to the difficulty ELs experience is that mathematics is more than just numbers; math education involves terminology and its associated concepts, oral or written instructions on how to complete problems, and the basic language used in a teacher’s explanation of a process or concept. For example, students face multiple representations of the same concept or operation (e.g., 20/5 and 20÷5) as well as multiple terms for the same concept or operation 6920_ECH_CH01_pp001-014.qxd 8/27/09 12:59 PM Page 2 2 (e.g., 13 different terms are used to signify subtraction). Students must also learn similar terms with different meanings (e.g., percent vs. percentage) and they must comprehend mul- tiple ways of expressing terms orally (e.g., (2x ϩ y)/x2 can be “two x plus y over x squared” and “the sum of two x and y divided by the square of x”) (Hayden & Cuevas, 1990). So, language plays a large and important role in learning math. In this chapter, we will define academic language (also referred to as “academic Eng- lish”), discuss why academic language is challenging for ELs, and offer suggestions for how to effectively teach general academic language as well as the academic language specific to math. Finally, we also include specific academic word lists for the study of mathematics. -
Mathematics, Language and Translation Sundar Sarukkai
Document généré le 23 mai 2020 16:12 Meta Journal des traducteurs Mathematics, Language and Translation Sundar Sarukkai Volume 46, numéro 4, décembre 2001 Résumé de l'article La langue mathématique utilise la langue naturelle. Les symboles se URI : https://id.erudit.org/iderudit/004032ar rapportent eux aussi aux termes de la langue naturelle. Les textes DOI : https://doi.org/10.7202/004032ar mathématiques relèvent de combinaisons de symboles, de langue naturelle, de représentations graphiques, etc. Pour arriver à une lecture cohérente de ces Aller au sommaire du numéro textes, il faut passer par la traduction. Les mathématiques appliquées, comme la physique, passent continuellement d'une langue (et culture) à une autre, et par conséquent, elles sont mieux comprises quand elles relèvent du domaine Éditeur(s) de la traduction. Les Presses de l'Université de Montréal ISSN 0026-0452 (imprimé) 1492-1421 (numérique) Découvrir la revue Citer cet article Sarukkai, S. (2001). Mathematics, Language and Translation. Meta, 46 (4), 664–674. https://doi.org/10.7202/004032ar Tous droits réservés © Les Presses de l'Université de Montréal, 2001 Ce document est protégé par la loi sur le droit d’auteur. L’utilisation des services d’Érudit (y compris la reproduction) est assujettie à sa politique d’utilisation que vous pouvez consulter en ligne. https://apropos.erudit.org/fr/usagers/politique-dutilisation/ Cet article est diffusé et préservé par Érudit. Érudit est un consortium interuniversitaire sans but lucratif composé de l’Université de Montréal, l’Université Laval et l’Université du Québec à Montréal. Il a pour mission la promotion et la valorisation de la recherche. -
Manual (English): Nimbus® Analytical Balances
Adam Equipment Nimbus NBL Series (P.N. 3016612481, Revision 3.00, Effective Aug 2017) Operating Manual For internal (‘i’), external (‘e’) calibration (“p”) pillar models Software rev.: V3.1145 & above (Force Motor Analytical Models) V4.1826 & above (Precision Load Cell Models) © Adam Equipment Company 2017 © Adam Equipment Company 2017 TABLE OF CONTENTS 1 KNOW YOUR BALANCE .......................................................................................................... 3 2 PRODUCT OVERVIEW ............................................................................................................ 4 3 PRODUCT SPECIFICATIONS ................................................................................................. 5 4 UNPACKING THE BALANCE ................................................................................................. 11 5 LOCATING THE BALANCE .................................................................................................... 11 6 SETTING UP THE BALANCE ................................................................................................. 13 6.1 ASSEMBLING THE BALANCE ....................................................................................... 13 6.1.1 Levelling the balance ................................................................................................. 13 6.1.2 Warm-Up Time .......................................................................................................... 13 6.1.3 Weighing .................................................................................................................. -
The Language of Mathematics in Science
The Language of A Guide for Mathematics in Teachers of Science 11–16 Science A note on navigating around within this PDF file Introduction: the language of mathematics in science Background About this publication Mathematics and science Thinking about purposes and using judgement Understanding the nature of data Assessment Process of development of this publication Further references on terminology and conventions Overview of chapters 1 Collecting data 1.1 Measuring and counting 1.2 Measurement, resolution and significant figures 1.3 Characteristics of different types of data 1.4 Naming different types of data 1.5 Where do data come from? 2 Doing calculations and representing values 2.1 Calculations and units THE LANGUAGE OF MATHEMATICS IN SCIENCE A Guide for Teachers of 11–16 Science The Association for Science Education (ASE) is the largest subject association in the UK. As the professional body for all those involved in The Association science education from pre-school to higher education, the ASE provides a national network supported by a dedicated staff team. Members include for Science Education teachers, technicians and advisers. The Association plays a significant role in promoting excellence in teaching and learning of science in schools and colleges. More information is available at www.ase.org.uk. The Nuffield Foundation is an endowed charitable trust that aims to improve social well-being in the widest sense. It funds research and innovation in education and social policy and also works to build capacity in education, science and social science research. The Nuffield Foundation has funded this project, but the views expressed are those of the authors and not necessarily those of the Foundation. -
Learning the Language of Mathematics 45
Learning the Language of Mathematics 45 Learning the Language of Mathematics Robert E. Jamison Clemson University Just as everybody must strive to learn language and writing before he can use them freely for expression of his thoughts, here too there is only one way to escape the weight of formulas. It is to acquire such power over the tool that, unhampered by formal technique, one can turn to the true problems. — Hermann Weyl [4] This paper is about the use of language as a tool for teaching mathematical concepts. In it, I want to show how making the syntactical and rhetorical structure of mathematical language clear and explicit to students can increase their understanding of fundamental mathematical concepts. I confess that my original motivation was partly self-defense: I wanted to reduce the number of vague, indefinite explanations on home- work and tests, thereby making them easier to grade. But I have since found that language can be a major pedagogical tool. Once students understand HOW things are said, they can better understand WHAT is being said, and only then do they have a chance to know WHY it is said. Regrettably, many people see mathematics only as a collection of arcane rules for manipulating bizarre symbols — something far removed from speech and writing. Probably this results from the fact that most elemen- tary mathematics courses — arithmetic in elementary school, algebra and trigonometry in high school, and calculus in college — are procedural courses focusing on techniques for working with numbers, symbols, and equations. Although this formal technique is important, formulae are not ends in themselves but derive their real importance only as vehicles for expression of deeper mathematical thoughts. -
Woodworks Shearwalls USA – Version History
WoodWorks Shearwalls USA – Version History This document provides descriptions of all new features, bug fixes, and other changes made to the USA version of the WoodWorks Shearwalls program since Shearwalls 2000. The most recent major version of Shearwalls is Version 11, released in November 2016. The most recent service release is Version 11.1 , released in May 2017. This file last updated with changes April 26, 2017. Click on the links below to go to the changes for the corresponding release. (DO = Design Office) Shearwalls 11.1 – DO11, SR-1 Shearwalls 10.43 – Hot fix Shearwalls 9.3 – DO 9, SR-3` Shearwalls 10.42 – DO 10, SR-4b Shearwalls 11.0.1 – DO11, SR-a Shearwalls 9.21, 9.22, and 9.25 – Hot fixes Shearwalls 10.41 – DO 10, SR-4a Shearwalls 11 – DO 11 Shearwalls 9.2 – DO 9, SR-2 Shearwalls 10.4 – DO 10, SR-4 Shearwalls 9.13 – DO 9, SR-1c Shearwalls 10.31 – DO 10, SR-3a Shearwalls 9.12 – Hot fix Shearwalls 10.3 – DO 10, SR-3 Shearwalls 9.11 – DO 9 SR-1b Shearwalls 10.22, 10.23 and 10.24 – Hot fixes Shearwalls 9.1 – DO 9, SR-1 Shearwalls 9 – DO 9 Shearwalls 10.21 – DO 10, SR-2a Shearwalls 10.2 – DO 10, SR-2 Older Versions Shearwalls 10.11, 10.12, and 10.13 – Hot fixes Shearwalls 10.1 – DO 10, SR-1 Shearwalls 10 – DO 10 Shearwalls 11.1 – May 15, 2017 – Design Office 11, Service Release 1 1. Wind Story Drift Design Setting (Change 232) Because the newly added wind story drift limitations from ASCE 7 CC.1.2 can be difficult to meet and are not mandatory according to ASCE 7 Appendix C, a design setting has been added to activate the calculation of wind story drift, and Option setting and Show menu item to allow you to turn off the output of story drift output tables independently for wind and seismic design. -
G5 Weighing Instrument. Technical Manual
G5 Weighing Instrument Program version 1.4.X (PM and RM) Program version 3.4.X (RMD) Technical Manual G5-PM, G5-RM and G5-RMD models Security locks .................................... 5-22 CONTENTS 6. Communication ............................. 6-1 General ............................................... 6-1 1. Introduction ................................... 1-1 Serial interface .................................... 6-1 General ................................................ 1-1 Modbus RTU Slave ............................. 6-1 Maintenance ........................................ 1-2 Modbus TCP Slave ............................. 6-2 Safety information ............................... 1-2 Ftp Server ........................................... 6-3 Technical data ..................................... 1-3 Fieldbus interface ................................ 6-3 Ordering information ........................... 1-7 Modbus protocol .................................. 6-3 2. Installation ..................................... 2-1 7. Remote Access ............................. 7-1 Mechanical installation ........................ 2-1 General ............................................... 7-1 Electrical installation ............................ 2-3 Browser requirements ......................... 7-1 Connection of cable shields ................ 2-3 Using the Remote Access ................... 7-2 G5-PM Front Panel ............................. 2-8 Security ............................................... 7-2 G5-RMD Front Panel ....................... -
ED380270.Pdf
DOCUMENT RESUME ED 380 270 SE 053 486 AUTHOR Sharma, Mahesh C. TITLE Place Value Concept: How Children Learn It and How To Teach It. INSTITUTION Center for Teaching/Learning of Mathematics, Framingham, MA. PUB DATE Jan 93 NOTE 26p. AVAILABLE FROMCenter for Teaching/Learning of Mathematics, P.O. Box 3149, Framingham, MA 01701 (single isEue, $2). PUB TYPE Collected Works Serials (022) Guides Classroom Use Teaching Guides (For Teacher) (052) JOURNAL CIT Math Notebook; v10 n1-2 Jan-Feb 1993 EDRS PRICE MF01/PCO2 Plus Postage. DESCRIPTORS Arithmetic; Cognitive Development; *Concept Formation; Elementary Education; Evaluation Methods; *Learning Activities; *Manipulative Materials; *Mathematics Instruction; Number Concepts; *Place Value; Teaching Methods IDENTIFIERS Cuisenaire Materials; *Mathematics History ABSTRACT The development of the place value system and its universal use demonstrate the elegance and efficiency of mathematics. This paper examines the concept of place value by:(1) presenting the historical development of the concept of place value in the Hindu-Arabic system;(2) considering the evolution of the number zero and its role in place value;(3) discussing the difficulties children have in understanding place value;(4) describing strategies to teach place value and 12 teaching activities that utilize manipulative materials and hands-on approaches; (5) discussing how the suggested activities make the transition from concrete experiences to symbolic understanding of place value; and (6) suggesting ways to assess children's understanding of place value. (Contains 16 references.) (MDH) ***********************************;,AAi,***************,:**************** Reproductions supplied by EDRS are the best that can be made * from the original document. *********************************************************************** Place Value Concept: How Children Learn It and How to Teach It by Mahesh C.