All high-level programming languages do 4 basic things:
Everything else is syntactic sugar.
Galileo has influenced us heavily to think math in terms of symbols. A mathematical symbol expresses an idea very concisely and effectively. Much more than a language could do.
is more concise than saying "let x equal to 1".
x = 1
Let me rephrase the above bereft of assumptions --
The mathematical expression "x = 1" is more concise than saying it in English "let x equal to 1".
But what if we could express "x = 1" much more concise in a natural language?
For e.g., let me just say
I just dropped the symbol "=". One symbol less! Whohoo! I also established a convention that whatever on left side is receiver and on the right side is provider. In a language like Sanskrit, for e.g., the "is/happens" is implicit (asti/bhavati). So no other verb is required. (There are other languages that exhibit this property too).
People think that just because ancient Sanskrit mathematicians did not use symbols, the works are not scientific. Symbol is just a convenience; if language could be more powerful than symbols, who needs them? As a side note, Sanskrita almost does not use punctuations (except for end of sentence - the pipeline character |). In contrast, English just can't be "communicated" without appropriate punctuations' usage.
To demonstrate the power of the language, let us look at a simple program using a pseudo-language.
The question is, can this program be expressed using natural language? Of course, we can write the whole program in plain English, but it wont be concise. (COBOL anyone, hello?)
//Pseudo-code to produce a random number and determine if its odd or even s = 100; r = (int) rand(s); if (r % 2 == 0) return "even"; else return "odd";
Now lets apply the Sanskrit grammarian Paninian rules. I am going to keep the function names as is (in bold), but conjugate the variable names per Sanskrit rules (taking them to be consonant ending variables).
As you can see there are absolutely no mathematical symbols! A program is written purely by the expressive power of language. So what happened? How are they equal?
1: aSeSha: SUnyam // No remainder 0 (No remainder equals 0) 2: s Satam // s Satam asti (s is 100) 3: sa: rand r // of s random is r (r is random of s) 4: int ca // int also (r is also int of random of s) 5: even ra: aSeshe dvibhAjane // "even" is of r during division of 2 when no reminder happens (on division by 2 of r has no reminder, it is even) 6: odd SeShe // "odd" when there is a reminder Here are the sutras in proper Sanskrit: अशेष: शून्यम् | स् शतम् | स: वृथा र् | अभिन्न: च | समं र: अशेषे द्विभाजने | विषमं शेषे ||
Using nominative case and the implicit "is", Panini eliminated the need for equals sign. Functions are defined via genetive case. Using the locative case, Panini provides the if-else condition. In effect, mathematical expressions are substituted by simply conjugating the variables.
That is the genius contribution of Panini to Sanskrita! Now a skilled poet could come and rearrange the above 6 sutras into a sloka format, and lo! there is sloka that tells us how to determine an even/odd number!
Let me attempt a half-baked sloka (May Sanskrita enthusiasts forgive me for such a blasphemy).
अशेषो शून्यं भूयात् सेकशतं वृथा रेफ: स: ।
अभिन्नश्च द्विभाजने विषमं समं शेषोऽशेषे ॥
Due to the occurrence of words like SeSha, SUnyam, aSeSha, dvibhAjane, abhinna the above can be mis-interpreted to refer Adisesha, SUnyavAda, Vishnu, Dvaita, Advaita etc. Now we have an example of a sloka referring to the gods and a mathematical algorithm encoded in it!