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Memory Methods
1. Simple Repitition Method
The classical method, very popular as in committing poems to memory by reading them over and over.
2. Full Concentration Method
Concentrate on the topic content while learning. Do not allow your mind to wander. Focus on names and numbers. Try deliberately to remember. Your approach should not be casual. Review soon after you learn, lest memory should fade away.
3. Visual Encoding Method
Translate information into visual formats like pictures, charts, diagrams, tables and graph.
4. Logical Organisation
Matter that is logically organised is retained better than the disjointed floating bits of information. Infuse meaning into what ever you learn. No “Nonsense Syllables”.
5. Mnemonics Method
Few good people try this method to learn some complicated series. There is no harm in using memory crutches like it, after grasping the spirit of the lesson. VIBGYOR is the most famous mnemonic that helps up to list the seven rainbow colors in their appropriate order. Once, I had remembered the name of the planets in the order of their distances from the sum by the acrostics “My very enlightened mother just served us noodles-in plates”, as it tells me the names of nine planets ( off course now they are eight, but I learned it earlier than the removal of pluto), in the order: Mercury, Venus, Earth, Mars, Jupiter, Saturn, Uranus, Neptune and Pluto.
6. Mock Teaching Method
If you find a particular portion of a chapter difficult to digest, imagine that you are teaching to a student sitting before you. Explain virtually the content of the lessen. The idea will get hammered into your mind.
7. Rhyming Method
Scholars say that verses are better than prose. Change any definition into verse and try to rhym them. Remember, I discuss just verses, and not poetry.
8. Chunking Method
Very popular method. You can divide a big list into a number of bits or chunks. For example, to remember a mobile number of ten digits, people usually split it to three or more chunks.
9. Pegging
This involves the principal of association. First make a list of ten or twenty convenient pegs or key words that you can easily recall in the right sequence. For example, in alphabetical order, ant, butterfly, cat, dog, elephant, fox, and so on (Living beings are arranged). Cartoons also help in pegging.
10. Blogging
This is the best method for that student, who want to learn very complicated topics. When you blog about any topic, you use all the nine methods listed above in your post. I got blogging, superior method to other nine.
Related articles
- What is an easy way to remember the planets (wiki.answers.com)
Free Online Calculus Text Books
- Elementary Calculus : An approach using infinitesimals by H. J. Keisler
- Multivariable Calculus by Jim Herod and George Cain
- Calculus by Gilbert Strang for MIT OPEN COURSE WARE
- Calculus Bible by G S Gill [I found this link broken.]
- Another Calculus Bible by Neveln
- Lecture Notes for Applied Calculus [pdf] by Karl Heinz Dovermann
- A Summary of Calculus [pdf] by Karl Heinz Dovermann
- First Year Calculus Notes by Paul Garrett
- The Calculus of Functions of Several Variables by Professor Dan Sloughter
- Difference Equations to Differential Equations : An Introduction to Calculus by Professor Dan Sloughter
- Visual Calculus by Lawrence S. Husch
- A Problem Text in Advanced Calculus by John Erdman
- Understanding Calculus by Faraz Hussain
- Advanced Calculus [pdf] by Lynn Loomio and Schlomo Sternberg
- The Calculus Wikibook [pdf] on Wiki Media
- Stewart ‘s Calculus by James Stewert.
[Link removed due to copyright reasons.] - Vector Calculus
- The Calculus for Engineers by John Perry
- Calculus Unlimited by J E Marsden & A Weinstein
- Advanced Calculus by E B Wilson
- Differential and Integral Calculus by Daniel A Murray
- Elements of the Differential and Integral Calculus[pdf] by W A Granville & P F Smith
- Calculus by Raja Almukkahal, Victor Cifarelli, Chun Tuk Fan & L Jarvis
Essential Steps of Problem Solving in Mathematical Sciences
Learning how to solve problems in mathematics is simply to know what to look for.
Math problems often require established procedures and one must know What & When to apply them. To identify procedures, you have to be familiar with the different problem situations, and be able to collect the appropriate information, identify a strategy or strategies and use the strategy/strategies appropriately. But exercise is must for problem solving. It needs practice!! The more you practice, the better you get. The great mathematical wizard G Polya wrote a book titled How to Solve It in 1957. Many of the ideas that worked then, do still continue to work for us. Given below are the four essential steps of problem solving based on the central ideas of Polya.
The Fear, and the Use, of Mathematics and Physics
The two areas of human enquiry that inspire the greatest terror in the hearts of students are undoubtedly mathematics and physics. You may find history or chemistry or economics difficult, but your reaction to these subjects, and more others is almost certainly not fear. On the other hand, when you encounter an equation, your first reaction is to escape to more amiable company. If you compare subjects to people, you will realize that your reaction to maths or physics is very similar to your reaction to a stern, quiet person who is famous for his wisdom but who makes you very uncomfortable indeed. When he speaks you listen dutifully, because you’ve been told his words contain a lot of meaning, but you understand almost nothing, and you end up feeling foolish and exposed; and what is worse, this person does not need to shout to make you feel this way — he just has to look at you. When you see an equation or a mathematical expression you react in the same way. Let us try to under stand that what mathematics is and why it is so difficult.
Derivative of x squared is 2x or x ? Where is the fallacy?

As we know that the derivative of , with respect to
, is
.
i.e.,
However, suppose we write as the sum of
‘s written up
times..
i.e.,
Now let
then,
This argument appears to show that the derivative of , with respect to
, is actually x, not 2x..
Where is the error?