1. 
The problem of illiteracy
 Illiteracy 
is a very serious national and international problem. It is not just limited to 
India or Asia; it is world-wide. The latest information by UNESCO shows that 50 
percent of the world's children of primary and secondary school age are not going 
to school at all. More than 40 per cent of the world's adult population-about 
800 Million-is estimated to fall below the level of functional literacy, when 
the criterion of 4th grade level of reading ability is used. In the last half 
decade, the criterion for functional literacy has been raised to sixth grade level. 
That is, a person should have at least six years attendance in school to be functionally 
literate. Obviously, raising the years of formal school has placed more persons 
in the ranks of the illiterate by definition.
 
A few examples of the level of illiteracy in different countries may be helpful 
to show the magnitude of this problem. Of the five and a half million inhabitants 
in Algeria over 15 years of age, four million, nearly 80 per cent are illiterates. 
Out of the 435 millions in India, about 300 million are illiterates. Only 5 percent 
of the entire population of Ethiopia is able to read. Illiteracy rate is estimated 
to be over 50 percent in 62 of the member countries of the United Nations.
 
2. 
Changing role of literacy in the world
 Illiteracy has always existed, 
it grows daily more malignant as a social evil. In the earlier times with its 
traditional form of living, inability to read was hardly a handicap. It was a 
simple society, mainly agrarian and people learned to read for utilitarian purpose 
or to read religious books. But those times have changed with the coming of the 
industrial revolution. Today, the use of the results of technical development 
has been more and more necessary for survival everywhere, and therefore, illiteracy 
has become increasingly serious. As ploughs are being replaced by tractors, there 
will be fewer and fewer jobs available for unskilled illiterate workers in any 
part of our technical civilization. There is also a high correlation between poverty 
and illiteracy, both going hand in hand with superstition, malnutrition and endemic 
disease.
3. 
Explosion of knowledge and reading
 Every ten years knowledge doubles. 
Teachers have to know a lot more today-five or six times more than when their 
parents were in school. A recent study conducted in U.S.A. shows that 85 percent 
of the children who are at present in the early elementary schools, will, when 
they graduate from college, go out into jobs which are not yet invented.
4. 
Subject area demands in reading
 With the growing technological and social 
complexity of the world, many more subjects are being included into the curriculum 
- not only into the school and high school but colleges as well. For example, 
in a sampling of high schools in the U.S.A. 800 different subjects are taught.
 
Teachers 
Are Interested in Improving Reading Ability
 
 In the U.S.A., the movement 
of improving the reading skills of students started out with improving the skills 
of those persons who were having difficulty in learning to read. This was in the 
beginning. Now this is no longer the only direction of the newer programmes. Present 
programmes also take good readers and prepare them to be superior readers, because 
it is the person possessing superior skill who will be able to do a superior job 
in his chosen profession.
1. 
Teachers are interested in the concept of readiness for different kinds of reading
 
The idea of readiness is not a new concept. We must know what it takes to be able 
to read in order to know how to improve that reading. For example, we have to 
know what readiness skills a person should have to be able to read in social studies, 
in literature, in mathematics and in various curriculum areas.
 
Take the area of vocabulary. What is a student does not know the vocabulary of 
a particular field? He will not be ready to read extensively in the field until 
he learns how to master its vocabulary. Take the field of physics for example. 
What if he does not know the meaning of the terms of 'force', 'atomic energy' 
and all such specific vocabulary? He will not progress far until he improves his 
readiness by mastering the language of the field.
 
He may not know the meaning of the words that make up the writings of the discipline. 
Therefore, meaningful vocabulary is certainly one of the readiness needed. Sometimes 
a word has a different meaning in a subject area-different from the general meaning 
of the term. For example, take the word root in botany and in mathematics and 
the 'root' of the problem as we generally use it. So although one may know the 
general meaning, one has to learn the specific meaning of the word in a specific 
field.
2. 
Organization of the materials
 The knowledge of the way in which materials 
are organized is another kind of readiness skill needed. Does he think how the 
materials are organized? Different materials are organized in a different way. 
For example, Shakespeare organized his plays in a different way than a chemistry 
professor would have organized a chemistry textbook. If one were to read aloud 
a chemistry textbook, the use of language in rhythm, pitch and intonation would 
be entirely different from the way he would read a play. And the general organization 
would be quite different. The way one reads a history book is different from the 
way a mathematics textbook is read. A different approach has to be used, for the 
concepts are different; paragraphs are put together differently, the reasoning 
is different; problem solving is different from one field to another. So to be 
able to find the kind of organization the author has used, another kind of readiness 
is needed.
3. 
Skills
 Skills required in each area are different. The reader must know 
the particular kinds of skills that are needed in the specific subject area. For 
example, reading in science and mathematics may require specific steps of reasoning 
and special attention to detail. Reading in social studies calls for skills in 
organizing facts in order to understand time/space sequence or cause and effect 
relationship. Consequently, a person who is to read successfully should have those 
specific skills which are required in the particular area, in addition to his 
general reading ability.
 
Teacher 
must know the science of reading
Reading 
is a fairly new science. Much of the research in reading has been done in the 
past few years unlike other sciences which have a long heritage of research. The 
first study of how people learn to read was done by JAVAL in 1879. He studied 
the eye-movements in reading. He discovered that while reading, the eyes move 
in discrete jumps across the line of print. The eye does not sweep across the 
page smoothly. Rather it moves and stops, then moves and stops. This discovery 
by JAVAL brought about the invention of the eye movement camera by which we can 
record on film the way in which the eye operates.
 
In this camera a light beam is reflected into the eye as the eye moves across 
a page of print, and that light is reflected into the film of a movie camera. 
This camera showed that while reading there is fixation. That is, the eyes focus 
and stop, see what they stop on, and then move to the next word or words and stop 
again. The eyes move and stop as many as five or six or seven times across a line 
of print. Then there is a return sweep. Then the eyes do it all over again.
 
There is also a duration of fixation-that is, the time the eyes stay still during 
a fixation. The eyes must remain stationary in order to record words. Then they 
jump to the next point and then there is another duration of fixation and so on. 
The average length of fixation, when the words are seen, is from 1/8 to ¼ 
second.
 
The inter-fixation movement, i.e., the time when the eye moves between fixation 
or stop, is about 1/25 of a second. It was found that only about 6 percent of 
total time of reading is spent in movement.
 
Then the eyes were also found to make regressions during reading, that is, the 
eye goes back to pick up along the same line of print words that were missed the 
first time over. A poor reader will make many more regressions than will a good 
reader. It is estimated that a good adult reader makes about one regression (backward 
movement) for every three or four lines, whereas a poor reader makes three or 
four per line.
 
There are two ways of measuring the number of letters or words the eyes can see 
at one fixation. One method is by the use of the Tachistoscope, an instrument 
that flashes letters or words for a short duration of 1/25 or 1/50 of a second. 
Without training on the tachistoscope, a person can se and report three or four 
single letters or around two words. After training, a person can see and record 
six to eight single letters or five or six, or even more words during this single 
tachistoscopic flash.
 
The other method of measuring the number of words seen per fixation is by use 
of the eye movement camera described above. Here is was found that the number 
of words seen per fixation during reading was one, and no more than two, words.
 
It was supposed for several years that because the span measured by the tachistoscope 
could be improved by training, that this training automatically transferred to 
the span used in regular reading. So it was commonly said that a person who had 
training with the tachistoscope could learn to read right down the centre of the 
page and see all the words of the line on each pile.
 
But in actual practice it does not work that way. TAYLOR's experiments 
with his eye movement camera showed what happens when the eye is in its saccadic 
and fixation movements. It showed the difference in the fixation and saccades 
when one reads a continuous line as opposed to reading a discrete number of letters 
or a fixed number of words. The mind, when reading, must pool all the information 
being received and associate it with past experiences related to it. Therefore 
in actual reading of continuous text the mind can deal with only about two words 
at a time. In the span measured by the tachistoscope, which is a discrete span, 
not having continuous text that precedes it or follows it, one can learn, by training, 
to see large wholes. But when the eye is in motion to read a continuous text something 
else happens in the 'computerized' function of the brain, narrowing the span so 
that comprehension can take place. This second span that the eye movement camera 
measures when the eye is in the process of reading continuous text is called the 
span of recognition. The span of perception measured by the tachistoscope can 
be as large as six to eight words, but the span of recognition is only about two 
words.
 
 
Table 
of Eye Fixation, Regressions, Duration of Fixations, Average
 Span of Recognition 
and Average Rate of Comprehension from
 A Sample of more than 6,000.
 
 | Grade 
Level | 1st | 2nd | 3rd | 4th | 5th | 6th | JA | HS | C | 
 
 | Fixations 
per 100 words | 240 | 200 | 170 | 136 | 118 | 105 | 95 | 83 | 75 | 
 
 | Regressions 
per 100 words | 55 | 45 | 37 | 30 | 26 | 23 | 18 | 15 | 11 | 
 
 | Average 
Span of Re- cognition (in words) | .42 | .50 | .59 | .73 | .85 | .95 | 1.05 | 1.21 | 1.33 | 
 
 | Average 
duration of fixation (in seconds) | .33 | .30 | .26 | .24 | .24 | .24 | .24 | .24 | .23 | 
 
 | Average 
rate of com- prehension (in words per minute) | 75 | 100 | 138 | 180 | 216 | 235 | 255 | 296 | 340 | 
 
The 
above Table by TAYLOR indicates clearly what we have discussed 
in the preceding pages. Note the 'College' column. In a 100 words, the average 
college student fixates 75 times along the lines of print or seven or eight times 
per line, not once or twice as has been advertised by some programmes. Notice 
also that as regressions, indicating that good readers make fewer regressions. 
The span of recognition is, at the college level only 1.33 words per fixation. 
This figure is derived by dividing 100 words (words in the sample) by the number 
of fixations. Note too, that the duration of fixation does not change noticeably-only 
a tenth of a second from the first grade on. The final listing in the Table has 
to do with rate. TAYLOR's sample of college students were shown to read at 340 
words per minute. This figure is somewhat higher than is reported by other studies 
which tend to show college students reading around 280-300 words per minute. 
 
Earl A. TAYLOR: 'The Spans: Perception, Apprehension, and Recognition'. 
American Journal of Ophthalmology, 44 (October 1957), 501-507.
However, 
because it was believed for a longtime that the span of perception transferred 
directly to the span of recognition many of the courses for speed reading were 
set up on this basic assumption. So in the earlier programmes much training was 
given in perceptual span training with the tachistoscope. But as was said before, 
a broader perceptual span (tachistoscope span) does not give a broader span of 
recognition as measured by the eye movement camera. Physiological and psychological 
constructs of the eyes handle the two situations quite differently.
But 
continuation of this idea has developed many newer pieces of equipment-such as 
the reading accelerator E.D.L. Controlled reader, etc., to mention a few. As early 
as 1940 Iowa State University as well as Harvard University had developed programme 
of continues text on 16 mm. Films.
 
TAYLOR's and other studies were aimed at studying the eye-movements and the 
visual process involved in reading. But it was Francis P. ROBINSON at the Ohio 
State University who made some early studies on the problem of comprehension-the 
problem of how one really learns from his reading, not how a person learns to 
say, or recognize, words. Present research oriented courses on efficient reading 
are based on the ideas developed as a result of ROBINSON'S studies. For example, 
the idea of surveying or previewing first before we read; the idea of asking questions 
during that preview; the idea of reading then to answer these questions and to 
select the rate of reading which is related to our purpose and to our need; then 
the idea of reciting after we have read to make sure that we know what we have 
read and then reviewing or looking again, scanning those items that we missed 
in the first reading. ROBINSON found that the most common method used by teachers 
to improve the reading, that of reading a second time if they did not get at the 
first time, was not a sound practice at all. He showed that in the first reading 
the mind becomes set to the ideas that one has learnt in the first reading. The 
configuration or the Gestalt of that whole reading is so well set in the mind 
that the second reading does not appreciably teach any more than the first reading. 
For example, when the sentence 'Paris in the Spring', was read by a group of students 
the mind was set so much that even in the second reading they again made the mistake 
of leaving out the second 'the'. Because the mind has a way of setting itself 
at the first exposure, it does not like to change the earlier impression. That 
is why it is important to set your impression first by skimming. Then the mind 
will operate on that impression to gain such knowledge as it should during that 
first reading. Skimming or reviewing first and reading secondly with questions, 
is a much better technique than a second reading.
 
Many people claim that newspaper articles or other articles can be read at the 
rate of 30,000 to 40,000 w.p.m. But this is not a fact according to research, 
for it shows that there is a psychological limit of how many words the eye can 
take in per minute. A study made of a programme that claimed to raise speeds to 
30,000 or 40,000 words, showed that students gained only 20 percent increase over 
their original rate. The New Delhi results based on the scientific method, on 
the other hand, showed a 125 percent increase over the original rate. The fact 
is that the eye moves in a mechanically consistent way, and that it moves from 
one point to another, and takes in about two words per fixation as it reads. It 
was found that after taking into consideration the movements and fixations in 
continuous reading that the maximum rate the eye can take up is only 800 w.p.m. 
When people claim they can read at the rate of 30,000 to 40,000 they are not reading 
the material; they probably are skimming it.
 
One of the earliest scientific studies on rapid reading, dated, even before the 
statistical facts about rapid reading was known was done by Paul WITTY. He asked 
the students to read any easy reading material 30 minutes a day. They were to 
read as rapidly as they could and to make a summary after every reading. The students 
were encouraged to read extensively in different subject matter. After one semester, 
results in testing showed that the students had increased in the rate of reading 
by 50 percent and also improved in comprehension. The programme was continued 
a second semester and students showed even greater improvement. This and a good 
many other studies have shown since 1930 that one of the best ways of improving 
reading is simply doing that very thing-reading. As was said earlier, these students 
improved their reading just by reading simple materials.
 
Some of the commonly used tools for rapid reading are the reading accelerator 
and controlled readers. They have a cohesive effect by keeping the class together. 
They have an effect of creating motivation through a novel approach. But like 
any other audio-visual aid they are only aids to good teaching and they do not 
teach in and of themselves. So it is not necessary that one must have these machines 
to teach rapid reading. The idea is to teach to become a more flexible reader 
by selecting ideas on the printed page and not reading everything, and being able 
to do that carefully and discretely and with good judgement and to do it very 
rapidly. And so we are teaching the skill of preview skimming, overview skimming 
and scanning. Many programmes have shown how they have improved successfully the 
rate of reading with better comprehension without the use of the equipment. But 
these instruments have their use in pulling the class together and in motivating 
the students, and is a kind of incentive. But nothing is happening visually that 
could not happen by your own determination to improve your skill of rate of reading 
by simply forcing yourself to read faster. Machines can make it interesting but 
cannot add to the process.
 
Teaching of rapid reading for adults on a wider scale was started in 1952 simultaneously 
at the University of Pittsburgh and the University of Chicago. Since then literally 
thousands of courses have been taught-with machines and without machines.