AdditionSubtractionMultiplicationDivisionPrime NumbersDecimals and Place ValueSquare RootRational and Irrational Numbers

We apply everyday mathematics while shopping, watching a sports event, playing a computer game or reviewing a monthly budget and paying bills. Math isn’t just written problem solving and evaluating formulas requiring pencil and paper or computer spreadsheet.

Much of our knowledge of basic everyday mathematics is taught to us in pre-k thru k-6 education. Young children quickly learn money gets things they want. Use coins and dollars to help them develop an understanding of counting and math, real or play money. Work fractions, decimals and percents into the learning.

Our number system is Arabic based and includes the digits 0, 1, 2, 3, 4, 5, 6, 7, 8, 9. The Arabic number system is a base 10 number system. For basic mathematics these 10 digits are used to create all math integers and rational numbers of discrete mathematics. Integers and rational numbers are Real Numbers.

Not all number systems are based on 10 digits. Binary number systems, the basis of electronic computers, use the digits 0 and 1. Binary is a base 2 number system.

Integers in math are positive integers, negative integers and zero. Integer numbers extend infinite positive (∞) and infinite negative (-∞). Zero is neither positive nor negative. Integers that are positive and not fractions or decimals are whole numbers.

Rational numbers often present the result of a mathematical integer operation as a fraction. Fractions are quotients of integer math.

Both math integers and rational numbers can have math signs “-“ (minus; less than zero) and “+” (positive; greater than zero). For results that are positive the “+” math sign is usually omitted. Without a math sign a numeric value is assumed positive.

Most basic mathematics does not include irrational numbers. Irrational numbers are real numbers that cannot be expressed as quotients of integers. The square root of 2 is an irrational number, but not the only irrational number. However, the square root of 4 is 2. Two is a rational number. Not all square roots are irrational numbers. Mathematics using irrational real numbers is considered to be concepts of basic algebra.

A quick review: Real numbers include integers, rational and irrational numbers. Basic mathematics is mostly concerned with integer and rational real numbers; it is primarily arithmetic formulas and arithmetic problems. Algebra problems and algebra formulas include integer, rational and irrational numbers. Everyday mathematics is mostly basic mathematics and can require some algebra, trigonometry, geometry and shapes.

The least complicated math is basic arithmetic to quantify by count, sum or measure. It consists of integer addition, subtraction, multiplication and division methods then progresses to rational number fractional, decimal and percent numeric forms. Basic arithmetic is concrete math, easiest to learn and must be understood before advancing to other discrete mathematics.

It is common to learn basic properties of arithmetic for binary numbers, prime numbers, trigonometry, exponents, logarithms and geometry after basic arithmetic. These additional mathematical methods are applied every day by many people at work, home, during recreation and play.

Let me share the experience I had with my daughter:

Beginning when she was three years old I would sit with her on my lap or on the floor and we would play simple math counting games using fingers, sticks, coins or other readily available objects. Sometimes we’d use hand-held fun math games or books that had pictures and counting. I’d review addition, subtraction, multiplication, division and fraction flash cards with her. A benefit of flash cards is they show math problems together with solutions. When we went to a park for a couple of hours we’d find small stones and play simple counting games, if only for ten minutes. It was learning while playing.

Most children enjoy play that involves interacting with a parent or by a parent approved adult. During play I spoke to my daughter using numbers and words pertaining to the math flash cards or game. Flash cards can be used repetitively, provide concrete examples and typically proceed from easy to more difficult. Repetitive and concrete is important for child learning. Using objects other than math cards for counting provides development of concept generalization and abstraction.

One Saturday afternoon I took my daughter, now in the first grade, to a state park some distance from home. While traveling I asked her what she was learning in school. She said they had learned addition and subtraction of 3 digits, then asked to play a math game. She never enjoyed car rides and was getting bored. I verbally provided her addition or subtraction of 3 digit numbers, one arithmetic problem at a time. To my pleasant surprise she was doing them in her head giving a first time correct answer averaging 4 out of 5 math problems!

By the third grade she understood that arithmetic and other basic mathematics were solid beginnings. She understood that algebra, geometry, trigonometry, calculus and statistics are other advanced mathematics based on rules of arithmetic. This must have had a positive impact. When she entered seventh grade she asked to begin algebra, a ninth grade class. The school administered a pre-requite math test. She scored 49 of 50 correct.

Copyright © DigitMath.com

All Rights Reserved.

Adding Fractions |

Subtracting Fractions |

Multiplying Fractions |

Dividing Fractions |

Fractions to Decimals |

Fraction to Percent |

Factoring Polynomials |

Factors and Factoring Defined |

Prime Factorization |

Algebraic Expressions and Math Terms |

Important Algebraic Expressions |

Difference of Squares |

Factoring Trinomials |

Factoring by Grouping |

Cube-Formula(s) |

Absolute Value |

Polynomial Long Division |

Synthetic Division |

Radicals Adding Subtracting |

Radical Expressions |

Simplifying Radical Expressions |

Graphing Linear Equations |

Linear Equations In Two Variables |

System of Equations |

Linear Function |

Distance Formula |

Midpoint Formula |

Factoring Quadratic Equations |

Factoring by Completing the Square |

Quadratic Equation Formula |

Common Logarithm Tables |

Logarithms Definition |

Logarithm Properties |

Common Logarithms |

Antilogs |

Natural Logarithms |

Sequence Convergence & Divergence |

Summation Notation |

Factorials |

Factorials for Binomial Expansion |

Pascals Triangle |

Mathematical Induction |

What are Parallelograms? |

Parallelogram Area |

Perimeter of a Parallelogram |

What is a Quadrilateral? |

3×3 Matrix Determinant |

4×4 Matrix Determinant |

3×3 Cramer’s Rule |

Circle |

Ellipse |

Parabola |

Hyperbola |

Trigonometric Functions Table |

Radians |

Sine Graph |

Cosine Graph |

Tangent Graph |

Using Trigonometric Functions Table |

Babylonian/Pythagorean/Egyptian |

Greek Mathematics |

Chinese Indian Islamic Math |

Medieval European Renaissance Math |

Scientific Revolution Math |

Modern Math |

Twentieth Century Math |

Multiplication Table |

Adding Decimals |

Subtracting Decimals |

Multiplying Decimals |

Square Numbers Conversion Tables |