The Semantics of Numerals';
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Early Etruscan Inscriptions
ja trvw (λ^ J uu^aunA oWVtC OnXv ^^a^JV /yu* A^-vr^ EARLY ETRUSCAN INSCRIPTIONS FABRETTI 2343-2346 GEORGE HEMPL THIS PAPER IS REPRINTED FROM THE MATZKE MEMORIAL VOLUME PUBLISHED BY THE UNIVERSITY XTbe TUntpereitp prese STANFORD UNIVERSITY CALIFORNIA 1911 IN MEMORY OF JOHN ERNST MATZKE EARLY ETRUSCAN INSCRIPTIONS FABRETTI 2342-2346 How I, a Germanic scholar, came to be interested in Venetic and Etrus- can, I have told in my report on the results of my Italic studies. This report has been delayed, chiefly by the difficulties inherent in such an under- taking, but it will now be published in a very short time. The present paper is an abstract from it. A few weeks before his death, Professor Matzke urged me to hasten the publication of my report. He said that my silence was being misinterpreted, and that I owed it not only to myself but also to my friends to publish something at once—if only a fragment. I was touched by what he said and the way in which he said it. It was almost exactly what another friend, Otto Jespersen, had written me from Copenhagen not long before, and what still others, as if by concert, now began to urge upon me. I saw the force of their arguments and decided to drop everything else and complete my report. And now that Fate has sud- denly cut short the life of one of them, I can find no more appropriate tribute to lay on his grave than the fragment he so recently urged me to publish. -
Vigesimal Numerals on Ifẹ̀ (Togo) and Ifẹ̀ (Nigeria) Dialects of Yorùbá
Vigesimal Numerals on Ifẹ̀ (Togo) and Ifẹ̀ (Nigeria) Dialects of Yorùbá Felix Abídèmí Fábùnmi (Ilé-Ifẹ̀) Abstract This study intends to bring Ifẹ̀ (Togo) into a linguistic limelight using the numeral systems. Numerals are a very important aspect of the day to day socio-economic and linguistic life of Ifẹ̀ (Togo) people. The traditional Ifẹ̀ (Togo) number system is vigesimal. In this study, forty- two different number words are listed for Yorùbá Ifẹ̀ (Nigeria) and Yorùbá Ifẹ̀ (Togo) and compared with Standard Yorùbá. We compared the Ifẹ̀ (Togo) number words and counting patterns with that of the Standard Yorùbá and Ifẹ̀ (Nigeria) and discovered that, by the nature of the components of these numbers, majority of the basic number words are either bisyllabic or trisyllabic, each syllable having the form VCV for the cardinals, and CVCV for the ordinals. There are irregularities in tonality; there are also alternations in the sequences of the vowel (oral and nasalized) and consonant sounds. This work finds out that Ifẹ̀ (Togo) has two counting patterns. In the first pattern, it uses addition solely to derive the number words but with a counting pattern where 'ten', 'twenty' and the added number units are taken as a whole. In the second counting pattern, subtraction is used to derive number words but this is applicable only to three numbers i. e. seventeen – /mɛ́ɛtadínóɡú/, eighteen – /méèʤìdínóɡu/ and nineteen – /mɔ̀kɔ̃dínoɡ́ u/. The Ifẹ̀ (Togo) dialect of Yorùbá mostly uses additive number positions. The dialect favours additive number positions more than the subtractive and the multiplicative positions. In other words, higher numbers are frequently used as bases for addition not as bases for multiplication in Ifẹ̀ (Togo). -
0. Introduction L2/12-386
Doc Type: Working Group Document Title: Revised Proposal to Encode Additional Old Italic Characters Source: UC Berkeley Script Encoding Initiative (Universal Scripts Project) Author: Christopher C. Little ([email protected]) Status: Liaison Contribution Action: For consideration by JTC1/SC2/WG2 and UTC Replaces: N4046 (L2/11-146R) Date: 2012-11-06 0. Introduction The existing Old Italic character repertoire includes 31 letters and 4 numerals. The Unicode Standard, following the recommendations in the proposal L2/00-140, states that Old Italic is to be used for the encoding of Etruscan, Faliscan, Oscan, Umbrian, North Picene, and South Picene. It also specifically states that Old Italic characters are inappropriate for encoding the languages of ancient Italy north of Etruria (Venetic, Raetic, Lepontic, and Gallic). It is true that the inscriptions of languages north of Etruria exhibit a number of common features, but those features are often exhibited by the other scripts of Italy. Only one of these northern languages, Raetic, requires the addition of any additional characters in order to be fully supported by the Old Italic block. Accordingly, following the addition of this one character, the Unicode Standard should be amended to recommend the encoding of Venetic, Raetic, Lepontic, and Gallic using Old Italic characters. In addition, one additional character is necessary to encode South Picene inscriptions. This proposal is divided into five parts: The first part (§1) identifies the two unencoded characters (Raetic Ɯ and South Picene Ũ) and demonstrates their use in inscriptions. The second part (§2) examines the use of each Old Italic character, as it appears in Etruscan, Faliscan, Oscan, Umbrian, South Picene, Venetic, Raetic, Lepontic, Gallic, and archaic Latin, to demonstrate the unifiability of the northern Italic languages' scripts with Old Italic. -
Unicode Request for Kaktovik Numerals Design
Unicode request for Kaktovik numerals L2/21-058R Eduardo Marín Silva, [email protected] Kirk Miller, [email protected] Catherine Strand, [email protected] 2021 April 29 This document supersedes L2/20-070 by Eduardo Marín Silva. The Kaktovik numerals are a set of base-20 digits with a sub-base of 5—that is, a penta-vigesimal system. Graphically, the sub-base forms the upper part of the digit and the remaining units the lower part, an iconic design that lends itself to graphical manipulation for arithmetic. Kaktovik numerals are part of the curriculum in the North Slope Borough School District of Alaska. Though designed by speakers of Iñupiaq Eskimo (ISO code [esi]), they are equally suited to the penta-vigesimal systems of other Inuit and Yupik languages of Alaska, Canada and Russia, and they have the support of the Inuit Circumpolar Council. Thanks to Deborah Anderson of the Universal Scripts Project for her assistance. Design Kaktovik numerals were made intentionally distinct from decimal Hindu-Arabic digits so that there could be no confusion between them. In speech as well, Kaktovik digits have been named in Iñupiaq and Hindu-Arabic digits in English in order to keep them distinct. There are 19 counting digits, composed of straight strokes joined at sharp angles, and a graphically distinct zero . The counting digits occupy the space of an upright golden rectangle, with a unit square at bottom and a smaller golden rectangle at top. The top rectangle is occupied by up to three horizontal strokes that tally the quinary sub-base (null, 틅, 틊, 틏). -
AVRIGA Zprávy Jednoty Klasických Filologů
AVRIGA Zprávy Jednoty klasických filologů XLVI (2004) 1-2 JEDNOTA KLASICKÝCH FILOLOGU Praha FECE QUOD POTUE FACIANT MELIORA POTENTES» Ignotus © Jednota klasických filologů, 2004 ISSN 1211-3379 ISBN 80-86791-14-9 ČLÁNKY - COMMENTATIONES ETRUSKE číslovky {status quaestionis^ Vladimír SLUNEČKO (Praha) Přejděme nyní k ne zcela jednoduché otázce etruské číslovky „10“. S. P. CoRTSEN (1932^: 59), navrhl etruský výraz jar jako číslovku „10“. Za její doklad považoval uvedené spojení v textu plátěné knihy cis saris (LL VIII. 1), které interpretoval jako další kalendářní datum.^ S tímto názorem se však nejednou polemizovalo (např. E. Goldmann 1934'**: 200 n., M. Durante 1965^: 315 n.). Neutěšený stav v otázce etruské číslovky „10“ lze ostatně dobře demonstrovat na diskusích z nedávné doby věnované tomuto tématu. Důkaz pro rovnost výrazu jar s číslovkou „10“ se pokusil mj. nabídnout H. Rix <1969®: 853 nn.), který chtěl podobu římské číslice X „10“ odvodit na základě akrofonního principu. Je totiž prokázáno,’ že na několika archaic kých nápisech jižní Etrurie bylo použito (místo zde obvyklé sigmy) západo- řecké chí - X - pro transkripci etruského sibilantu „s“. Dříve než však tato nezdařená inovace jihoetruské písařské školy ve Vejích opět vyšla z běžného užívání, tj. nejpozději v 6. stol. př. n. 1., muselo být podle Rixe toto písmeno po vzoru akrofonního principu při tvorbě řeckých číslic použito pro označe ní etruské číslovky jar „10“, takže vznikla římská číslice X. Tento výklad (a zároveň důkaz pro jar „10“) se však nezdá být příliš přesvědčivý.^ ‘ Tento článek je pokračováním článku uveřejněného pod týmž názvem v ZJKF (Auriga) 45, 2003, s. 25-34. ’ Zur etruskischen Sprachkunde, in: Symbolae Philologicae O. -
Chapter 6 MISCELLANEOUS NUMBER BASES. the QUINARY
The Number Concept: Its Origin and Development By Levi Leonard Conant Ph. D. Chapter 6 MISCELLANEOUS NUMBER BASES. THE QUINARY SYSTEM. The origin of the quinary mode of counting has been discussed with some fulness in a preceding chapter, and upon that question but little more need be said. It is the first of the natural systems. When the savage has finished his count of the fingers of a single hand, he has reached this natural number base. At this point he ceases to use simple numbers, and begins the process of compounding. By some one of the numerous methods illustrated in earlier chapters, he passes from 5 to 10, using here the fingers of his second hand. He now has two fives; and, just as we say “twenty,” i.e. two tens, he says “two hands,” “the second hand finished,” “all the fingers,” “the fingers of both hands,” “all the fingers come to an end,” or, much more rarely, “one man.” That is, he is, in one of the many ways at his command, saying “two fives.” At 15 he has “three hands” or “one foot”; and at 20 he pauses with “four hands,” “hands and feet,” “both feet,” “all the fingers of hands and feet,” “hands and feet finished,” or, more probably, “one man.” All these modes of expression are strictly natural, and all have been found in the number scales which were, and in many cases still are, in daily use among the uncivilized races of mankind. In its structure the quinary is the simplest, the most primitive, of the natural systems. -
Berber Numerals
57 BERBER NUMERALS §1. Classification In recent years the most detailed classifications of Berber languages have been presented by Ajxenval'd (1987), using a structural-typological approach, and by Militarev (see Ajxenval'd & Militarev 1991: 157-59) working with lexicostatistics. Their results are as follows: 1. East Berber branch Siwa (oasis Siwa in West Egypt), Zurg (oasis Kufra in East Libya), Fezzan (oases Tmessa and El Fodjaha in South Libya), Augila (oasis Djalo in North- East Libya), Sokna (North Libya), Ghadames (oasis Ghadames in West Libya). 2. South Berber (= Tuareg) branch North group: Tuareg of the oasis Kufra, Tuareg of the oasis Ghadames, Imanghassaten, Uraghen, Ghat, Ahnet (Plateau Muydir); "Tamahaq": Em- midir, Taitoq, Aizer (Plateau Tassili), Ahaggar; Ayr (Plateau Ayr, Kel Ui, Kel Fenian, Kel Tafidet, Ibabidayan etc.), Tuareg of Borku (Chad), Tuareg of Zinder (Niger), East Tawllemmet (= Iulimidden or Awlemidden; Niger-Mali- Burkina bordeland). South group: Kel Arokas; "Tamaseq": Heyawa, West Tawllemmet, Takarangat, Tagdhaq (= Ifoghas; Plateau Adrar), Taneslemt; "Tamazeq": Ida u Sak (= Dausak), Ighauilen, Imaioghen (= Iguhadaren). 3. West Berber group Zenaga (= Taddungiyah; Mauretania — Senegal). 4. North Berber group 4.1 Atlas group: a) TaSelhait (= Silha): Tinduft, Ait Umbribed (basin of Dra and Djebel Bani); Izemdaln, Imeizad, Ida u Zikri, Ait Isaffen, Amanus, Ait Mzal, Igliwa, Ait Wazgit etc. (Antiatlas); Tazerwalt, Ait Baamrani, Hawwara, Ida u Semlal, AStuken, Masst, Tiguga, Seksawa, Ait Wadjes, Ida u Izimmer, Demsira, Ida u Geriun, Demsira (basin of the river Sus); Tuggana, Igedmiun, Ait Immur, Iha- han, Imeghran, Ida u Tanan, Ida u Zikki, Ida u Zal, Ntifa (High Atlas); b) Tamazight (= Beraber): Ait Messad (region of Demnat); Ait Izdeg, Ait Yahya, Ait Sliman, Ait KhebbaS, etc. -
About Numbers How These Basic Tools Appeared and Evolved in Diverse Cultures by Allen Klinger, Ph.D., New York Iota ’57
About Numbers How these Basic Tools Appeared and Evolved in Diverse Cultures By Allen Klinger, Ph.D., New York Iota ’57 ANY BIRDS AND Representation of quantity by the AUTHOR’S NOTE insects possess a The original version of this article principle of one-to-one correspondence 1 “number sense.” “If is on the web at http://web.cs.ucla. was undoubtedly accompanied, and per- … a bird’s nest con- edu/~klinger/number.pdf haps preceded, by creation of number- mtains four eggs, one may be safely taken; words. These can be divided into two It was written when I was a fresh- but if two are removed, the bird becomes man. The humanities course had an main categories: those that arose before aware of the fact and generally deserts.”2 assignment to write a paper on an- the concept of number unrelated to The fact that many forms of life “sense” thropology. The instructor approved concrete objects, and those that arose number or symmetry may connect to the topic “number in early man.” after it. historic evolution of quantity in differ- At a reunion in 1997, I met a An extreme instance of the devel- classmate from 1954, who remem- ent human societies. We begin with the bered my paper from the same year. opment of number-words before the distinction between cardinal (counting) As a pack rat, somehow I found the abstract concept of number is that of the numbers and ordinal ones (that show original. Tsimshian language of a tribe in British position as in 1st or 2nd). -
Curiosities Regarding the Babylonian Number System
Curiosities Regarding the Babylonian Number System Sherwin Doroudi April 12, 2007 By 2000 bce the Babylonians were already making significant progress in the areas of mathematics and astronomy and had produced many elaborate mathematical tables on clay tablets. Their sexagecimal (base-60) number system was originally inherited from the Sumerian number system dating back to 3500 bce. 1 However, what made the Babylonian number system superior to its predecessors, such as the Egyptian number system, was the fact that it was a positional system not unlike the decimal system we use today. This innovation allowed for the representation of numbers of virtually any size by reusing the same set of symbols, while also making it easier to carry out arithmetic operations on larger numbers. Its superiority was even clear to later Greek astronomers, who would use the sexagecimal number system as opposed to their own native Attic system (the direct predecessor to Roman numerals) when making calculations with large numbers. 2 Most other number systems throughout history have made use of a much smaller base, such as five (quinary systems), ten (decimal systems), or in the case of the Mayans, twenty (vigesimal systems), and such choices for these bases are all clearly related to the fingers on the hands. The choice (though strictly speaking, it's highly unlikely that any number system was directly \chosen") of sixty is not immediately apparent, and at first, it may even seem that sixty is a somewhat large and unwieldy number. Another curious fact regarding the ancient number system of the Babylonians is that early records do not show examples of a \zero" or null place holder, which is an integral part of our own positional number system. -
Cretan Hieroglyphs Numerals: a Brief Information
Research & Reviews: Journal of Social Sciences www.rroij.com Cretan Hieroglyphs Numerals: A Brief Information Eka Ratna Acharya* Central Department of Education, Tribhuvan University, Kirtipur, Kathmandu, Nepal *For Correspondence: Eka Ratna Acharya, Central Department of Education, Tribhuvan University, Kirtipur, Kathmandu, Nepal, Tel: +97714331076; E-mail: [email protected] Received Date: Jan 02, 2018; Accepted Date: Feb 01, 2018; Published Date: Feb 09, 2018 Copyright: © 2018 Acharya ER et al. This is an open-access article distributed under the terms of the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and source are credited. Review Article ABSTRACT The term ‘hieroglyphs’ is mostly used in numeral notations. It is also related to languages, even though mathematics itself is a language. The Cretan Hieroglyphs script is one of the writing systems used on the Island of Crete between 2000-1650 BC. The symbols used in Cretan Hieroglyphs are found in many sources among them Phaistos disk is most popular. Cretan hieroglyphs were indigenous mathematical developments as the local writing systems. There may be the interrelationship among such notations or symbols of different civilizations. It was developed in the basis of culture, rituals, and indigenous practices distinctively. Similarly other local indigenous or antique phase’s hieroglyphs were found in different communities. We should care on such indigenous developments would be around in our surroundings too. Here the aim of this paper is to explore the development of Cretan Hieroglyphs numerals as the historical development in mathematical concern. The document analysis and historical approach is used here to conclude the theme of this paper. -
Altaic Numerals
102 ALTAIC NUMERALS For Karl H. Menges to his 90th birthday (April 22,1998) The Altaic hypothesis supposes a genetic relationship of Turkic, Mongo lian, Tungus, Korean and Japanese. One of the most frequent arguments of its opponents (Clauson, Scerbak) is based on an imaginary absence of common numerals. The presence of common (= inherited) numerals represents certainly an important argument for a genetic relationship. But its absence has no de claring value — there are more safely related languages without any related numerals. The recent progress in a comparative historical phonology of Altaic languages allows to identify more inherited numerals and to differentiate them from the numerals of substratal or adstratal origin. The most promising set of regular correspondences among Altaic branches and the reconstruction of the Proto-Altaic consonantism was made by Sta- rostin (1986: 104 and 1991: 21) and Vovin (1994: 100): Rule Proto- Proto-Tuikic Common Proto- Middle Proto-Japanese - Altaic Mongolian Tungus Korean 1. V *0-,*-p- V > h-, -b- *P p-.p(h) *P 2. *p *b h-, -r-/-w- *p-. *-b- p-, -w- */>-, -m- 3. *b *b b-,-y- *b-, *-w- P *p/*b(-m-/-r-) 4. *-w- *-b-/*-0- -b-l-y- *-w/*-y-•0- / *-0- 5. *m *b-, *m m *m m *m/*-0 6. +t *t t. m *t. V;'- t-. t(h) *t 7. *t *d-, *-t- d.Sd) *d; *Sl-.- t-, -r- *t/*d t- 8. *d *d- d,S(0 *d. *Si- t-, -r- *t/*d, -y-l-0 9. *n *-n- n *n n *n/*-0 10. *-rr *-r- -r- *-r- -r- *-t-/*-r-/*-0 11. -
Mathematics As a Liberal Art Class 13: Wednesday February 25
Mathematics As ALiberal Art Math 105 Spring 2015 Fowler 202 T 3:00- 3:55pm c 2015 Ron Buckmire http://faculty.oxy.edu/ron/math/105/15/ Class 13: Wednesday February 25 Hexadecimal: Millions Of Colors! Hexadecimal Number System Another number system which is often seen in computer systems is the hexadecimal number system, which uses 16 as a base or radix. In this case the digits are 0 through 9 supple- mented with A, B, C, D, E, and F. One issue with hexadecimal numbers is that since they use the same digits as the decimal system plus more, they can be confused for each other unless one uses a subscript to distin- guish them, like 42hex. Some places use a header to indicate a a non-decimal number, like \0x" for hex, e.g. 0x4E (which is the same thing as 7810). One can also use the header \0b", e.g. 0b1001110 (which is also the same thing as 7810). Hexadecimal numbers are usually seen in the description of colors, in describing pixel RGB values on screens in terms of how much red, green or blue are in a particular color. These pixel values range from 0 to 255 for each of these three, colors which puts the number of possible colors as 256x256x256 = 16 million colors! For example, the color pure red is represented by 0xFF0000, pure green is represented by 0x00FF00 and pure blue is represented by 0x0000FF. EXAMPLE What number in base 10 is equal to 05A3hex? How do we convert 637 into its hexadecimal equivalent? An Algorithm For Converting From A Decimal Number To Hexadecimal Use Repeated Division 1.