Original Site Title: Appetizers and Lessons for Mathematics and Reason, June 1995 to April 2012. New site title:
Logic and Mathematics Skill & Concept Building Site Map || Français: 26 pages
for college students, gifted teens, home-tutoring and K1-12 schooling, with chapters on Logic and Pattern Based Reason to inform and amuse.

Logic 5 Chapters Arithmetic 10 Steps Algebra 12 Starter Steps & 5 Advanced Steps
Work & Study 23 Tips Geometry 15 Steps Calculus 70 Lessons

Ages 15+: Why study slopes Polynomials Quadratics Why factor polynomials Logarithms Functions
What is similarity Euclidean geometry leanly Coordinates + complex no.s Vectors DC Electric Circuits

Ages 12+: Prime factorization Written work formats Decimal place value Extend arithmetic skills orally
What is a variable 5. Fraction Operations by Raising Terms Solving Linear Equations: Take I Take II


Online Volumes: 1 - Elements of Reason, 2 - 3 Skills For Algebra, 3 - Why Slopes and
More Math
, 1A - Pattern Based Reason, 1B - Skill Development Principles + Troubles

Welcome:Site material may develop critical thinking, improve reading and writing, and build mathematics and pattern based reasoning skills. Online Volumes 1, 1A and 2 give avid readers in school and out the best places to begin.

Teachers & Tutors: This December 2011, 5-phase framework offers a context for mathematics & logic education. Phases 1 to 3 focus on skills with actual or potential local value for adult & daily life. College-oriented phases 5 & 4 focus on calculus & preparation for it. Phases 1 to 4 may also serve trades & professions not dependent on calculus.

Site Review: Math resources ... span ... arithmetic, logic, algebra, calculus, complex numbers, and Euclidean geometry. Lessons and how-tos .... provide a good foundation for high school and college ... mathematics. Read more.

Home < Archives < Mathematics Education Essays << Theory of Knowledge

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A Theory of Knowledge

Science and technology develops from hypotheses (rules and patterns) for testing directly or through the consistency of implications (chains or reason) with observations, all in an empirical repeatable and reproducible manner.  The latter may imply the limits of rules and patterns.  Mixed or applied mathematics too is an empirical subject built on assumed numerically and geometrical rules and patterns - assumptions drawn from experience and consistent with the most part with experience. While historical  and pedagogical  path to the thought-based development of mathematics skills and concepts goes  through synthetic (coordinate-free) drawings in geometry, the empirical limitations of the latter path appear in diagrams whose faults are explained with the aid of analytic geometry, and the empirical nature of pure mathematics appears in the absence of an absolute basis for mathematical theories rich enough to represent the infinite set of  natural numbers.  There are stories to be told and repeated  here about the development and construction of skills and  concepts in mathematics. The telling and repetition of stories to understand and explain the development of mathematical skills and concepts in a repeatable and reproducible manner is most likely inconsistent with post-modern, rule and pattern -rejecting developments in educational theories favoring subjective learning and knowledge, and indirect instruction.

We have the ability to follow and present stories on paper and on stage. Those stories may be fiction or not.  Some stories may follow each other, one at a time and one after another, or in parallel. Each person has his or her story to tell.  Mine is brief since I have forgotten many of the details. Now the ability to follow and tell stories echoes in the works of knowledge and fiction met in mathematics, science, technology and society. Non-fiction is preferred. 

In mathematics,  each proof or deductive chain of reason in represents a story or a sequence of  stories to be told and repeated.   The telling and repetition of stories or proofs links and develops skills and concepts in mathematics, one at a time and one after another, all in a repeatable and reproducible manner..  In each empirical theory, there are stories to be told and repeated  in the development, construction and testing of  skills and  concepts, or skills and concepts, subject to the limitations of rule and pattern based thought. There-in lies a gamble.  So no all certain.  But many of the methods of mathematics appear to be repeatable, reproducible and hence reliable tools in science and commerce. So there is a chance, the methods are non-fiction.

Mathematics instruction may be given the task of providing students with an operational command of the calculating and reasoning or proof methods in mathematics, pure or applied or mixed, and an eventual awareness of benefits, origins and limitations of the rules and patterns involved in the subject and other disciplines. In education, the empirical  hope or hypotheses that a student has an operational command of one area of proof or figuring can be tested by observing what a student writes or produces. If a student fails, more instruction or study is required while if a student passes the test, chances are he or she has master some mathematics, enough to continue instruction without review. Mathematics education is an empirical art in which instructor may observe the work of each student, and provide feedback or correction while the student is trying to follow the theories and methods of mathematics in a repeatable, reproducible and objective manner, modulo the limitations of rule and pattern based thought and processes.

Science, Mathematics and Education

Mathematics is called the Queen of Science. But mathematics is still an empirical science. Historically, the thought-based development of mathematics begins began with synthetic (coordinate-free) drawings in geometry to arrive at conclusions with the aid of axioms (assumed patterns).  But the empirical limitations of the latter path, the use of drawings, appear in diagrams whose faults are only explained with the aid of analytic geometry, the use of coordinates.  That use turns the development historical development of mathematics upside down.  Synthetic geometry is now replaced by coordinate-based geometry - models in drawings are codified or represented by points and sets of points, models in which the properties of real numbers are now employed to arrive at conclusions.   None the less, the empirical nature of pure mathematics stems in the origins of its axioms - assumed patterns which are not given, they are chosen. Here they are chosen to avoid inconsistencies met in previous attempts to provide a consistent thought based development of mathematics from axioms for real numbers - more precisely assumptions about sets that give a model of mathematics in which real numbers are represented or codified.   Thus mathematics itself has an empirical origin, albeit one sufficient to imply repeatable and reproducible, and hence verifiable deductive chains of reason. 

Hypothesis (Conjecture) Testing in mathematics: In a  mathematics theory or model based on axioms (assumed patterns),  we test of an statement or assertion by looking for a  proof, that is,  a deductive chain of reason starting with and only involving previously tested or proven deductive consequences of the axioms (assumed patterns).  If a valid proof is found, the statement is considered to be tested and hence proven. That is subject to the comments above about works of fiction and non-fiction, consistent or otherwise.

Secondary Mathematics for Ages 11+, A Practical Approach for home-tutoring or -schooling, or for schools & colleges with local curriculum control. Study how to include site content - its skill development how-TOs and innovations into present or future lesson plans - some reading required.

Road Safety Messages and Questions: When and why should you face traffic when walking along a road or cycle path? Is it a good idea to hang limbs outside of cars etc? What gives more protection in a crash: a car, motorbike or bicycle? See too, the BBC-Belgium story Texting and Driving - texting & the impossible test - the article links to a gruesome utube video on the subject

The Logic of Injustice: How Texas sent an innocent man to his death - The wrong Carlos. Some judgments are irreversible. Procescution: Where and when prosectors play to win rather than for justice, guilt beyond a reasonable doubt goes unrespected due to prosecutors who putting winning first, those innocence before the law may be convicted. Some procescutors offices in continuing to accuse after a pardon due to reasonable doubt or innocent being shown, may sucessfully oppose compensaton for false convictions by asserting a pardon individual is still under suspicion. Then the pardoned individual or the latter's estate is not compensation for years or decade of improper or false imprisonment, or for execution. Site chapters on Logic
and some in Pattern Based Reason may slowly lead to greater precision in reading, applying and writing laws.

May 2012, Composition Starting: Pre-School and Primary Mathematics - Quantitative Skills, An Intellectual View, Feedback Welcome:

The 8 Most Popular Site Inlinks

20 Times Table - the most popular site page - popular pages - unexpected.
Fractions & Ratios - with lesson on raising terms to introduce & justify times, division & comparison as well addition & subtraction
Parent Center - See below
Volume 1, Elements of Reason - Intro to all site books.
What is a Variable - best for ages 13+
Written work formats for Arithmetic and Algebra - a skill method and standard!
Complex Numbers Visually - best for ages 13+
Natural Logs, Exponentials, Powers, Roots

Division of Labour: This site offers advice and directions with pointers to resources elsewhere, if known, when they help or lessen the need to write more.

Parent Center: Help your child or teen learn:

Parent-friendly Work Booklets for ages 3+ to 13 Use these or others to check or build skills. Other booklets are available but these booklets allow parents unsure of themselves in mathematics to help their children. The selection acquired in Canada is published in the USA. So it has a US orientation. In retrospect, the selection shows parents what to check with the booklets or by other ways, the choice is theirs. But in retrospect, the selection does not cover integral and fractions liquid weights and measures - ask the publishers to correct that! For ages 9 to 12 say, parents may compensate by showing boys and girls how to use weights or mass, and further measures in food preparation. Beyond that children may be shown how to measure and calculate angles, lengths and areas [proportional amounts too] directly or by using maps and plans drawns to scale. Learning how to gather and measure all the ingredients, pots and pans for a dish or a meal, along with cleaning up sets the stage for like activities or experiments in science courses, and in developing organizational skills, gives boys and girls a head start. Good luck. At the other extreme, more comprehensive than light, if your motto is McCainian: drill, drill, drill then Toronto mathematician and actor John Mighton's jump math organization has jump math workbooks for at least grades 3 to 8 for at-home and in-school use - training sessions for teachers available. Jump math has been expanding to cover older students. Jump Math Samples: plus Fractions for Grades 3-4 & Grades 5-6 [Read] Free Resources grades 1 to 8 [unread - likely to be good]. and

Mathematics Skills For Ages 3 to 14 - technical!

Skills with take home value - A few ideas

Basic skills include time-date-calendar Matters; money matters; map, plan and scale diagram matters;counting, measuring and figuring; decision making with logic and likelyhood; being careful and being aware of the domino effect of mistakes; reading and writing with precision.

Is your child able to add, subtract and multiply amounts of money, work with fractions, work with clocks and calendars, work with maps and plans, and measure length, weight-mass and volume? Schools may promote your son or daughter without providing basic skills in reading, writing and arithmetic.

Arithmetic and Number Theory Skills

Algebra Starter Lessons

1 Working With Sets
2 Formula Forward Use - Evaluation
3 Solving Linear Equations - Skip first step with students able to solve 1 eqn in 1 unknown.
4 Computation Rules and Function Notation
5 Real Numbers
6 More Less Greater Than Inequalities and Comparison
7 Axioms Logic and Equivalent Equations
8 Unifying Theme For Algebra
9 Proportionality Backwards and Forwards
10 Examples of Algebraic Reasoning
A Origins of Counting and Figuring Methods
B Real Numbers Extrinsic Development


Site coverage of formuala evaluation format, of computation rules and axioms, and of the forward and backward use of formulas and proportionality relations lessens the amount of natural talent needed to understand and explain algebra.

Geometry - maps plans trigonometry vectors

1 Maps Plans Measurement
2 Euclidean Geometry - Constructions + extras
3 Cartesian and Polar Coordinates
4 Lines and Slopes Take 1
5 What is Similarity
6 Trigonometry first steps
7 Complex Numbers
8 Unit-Circle Trigonometry
9 Lines and Slopes Take 2 with tangent function
10 Intersecting Straight Lines and Transversals
11 Parallel Straight Lines and Transversals
12 Function Translating and Rescaling
13 Vectors
14 Degrees to Radians and Radians to Degrees
15 Arc or Inverse Trigonometric Function

Pre-Teen and young teen mastery of skills and practices which should be common with map-plans-diagrams drawn to scale, contour interpretation included, has actual or potential take-home value for daily- and adult-life in solving routine problems. Elevating some practices to principles, axioms or postualates, provides a base for analytic and Euclidean geometry, an analytic view of similarity, and an efficient mastery of trigonometry and complex numbers. Right triangle trigonometry provide an analytic alternative to solving geometric problems by drawing diagrams to scale.

More Algebra

Natural-Logarithms Exponentials Powers Roots
Five Polynomial Operations
Quadratics Geometrically
Functions
5 Factored Polynomial Sign Analysis Examples
Rewriting algebraic substitution as function substitutions

The first topic leads to a full high school level theory for the forward and backward mastery of growth and decay models and for definition, range and domains of radicals, roots and powers. The next two topics make quadratics and polynomials easier to learn and teach. Site coverage of functions turns vertical and horizontal line rules into computation methods for evaluating functions.

70 Calculus Starter Lessons

Calculus Lessons Elsewhere:

  1. How to Ace Calculus: Street Wise Guide - Mostly Text.

  2. Flash Video for Calculus Phobics

They cover basic topics in ways likely to complement your notes, your textbooks and site material. When Goldilocks trespassed in the house of the three bears, she found three bowls of porridge, two not to her liking, and one just right. Different bears have different tastes. As invited guest here and elsewhere, if one or more explanations is not to liking, try another. It may be better or just right.

Unsolicited Advice

Learning to do and high marks if it comes to easy is often deceptive - light rather than deep. For that reason, students with learning difficulties determined not to let it get in their way may go deeper and farther than those with none. High marks, if the come easy, may be deceptive - provide a too light and not a deep mastery. That could have been your problem in secondary school, one that leads to comprehension shock or difficulties in calculus and more generally in the first year of college. Bon Appetite.


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Home < Archives < Mathematics Education Essays << Theory of Knowledge

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Logic-Reason for all
Careful Thinking
Chains of Reason
Mathematical Induction
Responsibility
Bodies-of-Knowledge

Arithmetic - Ages 10+
1. Deciml Place Value - fun
2. Decimals for Tutors
3. Prime Factors - quickly
4. Fractions + Ratios
5. Arith with units - science

Geometry
1 Maps + Plans Use
2 Euclidean Geometry
3 Rct +Polr Coordinates
4 Lines-Slopes [I]
5. What is Similarity
Algebra Starters - the base
1. Better Work Format
2. Solve Linear Eqns
3. Computation Rules
4. Axioms, Item 3 Viewpnt
5. Formulas Backwards
More Algebra
Logarithms-ax & m/nth roots
Five Polynomial Operations
Quadratics Geometrically
Functions || Vectors too
Arith. Skill Check+Answers
Calculus Prep/Preview
What is a Variable
Why study slopes
Why factor polynomials
Complex Numbers
Limits + Continuity

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