3 Chapter Numeration Systems and Whole Number Operations

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Presentation transcript:

3 Chapter Numeration Systems and Whole Number Operations Copyright © 2016, 2013, and 2010, Pearson Education, Inc.

3-1 Numeration Systems Students will be able to understand and explain • Numbers, their origin, and their representation in numerals and models. • Different numeration systems including the Hindu-Arabic system. • Place value and counting in base ten and other bases. • Issues in learning with different numeration systems.

Definition Numerals: written symbols to represent cardinal numbers.

Definition Numeration system: a collection of properties and symbols agreed upon to represent numbers systematically.

Hindu-Arabic Numeration System 1. All numerals are constructed from the 10 digits. 2. Place value is based on powers of 10.

Place value assigns a value to a digit depending on its placement in a numeral.

Expanded form Factor If a is any number and n is any natural number, then n factors

Base-ten blocks 1 long →101 = 1 row of 10 units 1 flat →102 = 1 row of 10 longs, or 100 units 1 block →103 = 1 row of 10 flats, or 100 longs, or 1000 units

Example What is the fewest number of pieces you can receive in a fair exchange for 11 flats, 17 longs, and 16 units? 11 flats 17 longs 16 units (16 units = 1 long 1 long 6 units and 6 units) 11 flats 18 longs 6 units (after the first trade)

Example (continued) 11 flats 18 longs 6 units (18 longs = 1 flat) 1 flat 8 longs and 8 longs) 12 flats 8 longs 6 units (after the second trade)

Example(continued) 12 flats 8 longs 6 units 1 block 2 flats 1 block 2 flats 8 longs 6 units The fewest number of pieces = 1 + 2 + 8 + 6 = 17. (12 flats = 1 block and 2 flats) This is analogous to rewriting as

Tally Numeration System Uses single strokes (tally marks) to represent each object that is counted. = 13

Egyptian Numeration System

Example Use the Egyptian numeration system to represent 2,345,123.

Babylonian Numeration System

Example Use the Babylonian numeration system to represent 305,470. 1  603 216,000 24  602 86,400 51  60 3060 10  1 = 10 + = 305,470

Mayan Numeration System

Example Use the Mayan numeration system to represent 305,470.

Roman Numeration System

Roman Numeration System

In the Middle Ages, a bar was placed over a Roman number to multiply it by 1000.

Example Use the Roman numeration system to represent 15,478. XVCDLXXVIII

Other Number Base Systems Quinary (base-five) system

Example Convert 11244five to base 10.

Base Two Binary system – only two digits Base two is especially important because of its use in computers. One of the two digits is represented by the presence of an electrical signal and the other by the absence of an electrical signal.

Example Convert 10111two to base ten.

Example Convert 27 to base two. 16 27 1 –16 8 11 1 –8 4 3 0 –0 or 16 27 1 –16 8 11 1 –8 4 3 0 –0 2 3 1 –2 1 1 1 –1 or

Base Twelve Duodecimal system – twelve digits Use T to represent a group of 10. Use E to represent a group of 11. The base-twelve digits are 0, 1, 2, 3, 4, 5, 6, 7, 8, 9, T, and E.

Example Convert E2Ttwelve to base ten.

Example Convert 1277 to base twelve. 144 1277 8 –1152 12 125 T –120 1 5 5 –5 0 1277ten = 8T5twelve

Example What is the value of g in g36twelve = 1050ten?