Indus Valley Script Decipherment

This video approaches the decipherment in a very interesting computer statistics way.

Click this box for a series of 12 slides with extensive commentary that details a very plausible interpretation of the narrative Indus Valley seals and tablets. When the first slide appears look for the "Previous" button to proceed after you've read the first slide.

Understanding Life

"To understand life, I decided to study life's engineers... proteins!!
I broke them down to peptides, into individual amino acids, into individual atoms and even into electrons, and found them to be mere lifeless probabilities!!!

While I was busy closing my fist, the elusive phenomenon called life had slipped through my fingers!!!"

~ Pradipta Banerjee

Jellyfish and Math

Preamble

Over a period of billions of years, the first life-forms on earth began to form in extremely low-oxygen containing watery environments.

As the earth's seas became more and more oxygenated (in certain locales too acidic), I propose that proto lifeforms developed in these primordial waters of seas, inland seas or large ponds that contained quite a variety of minerals and salts. 

Proto lifeforms happened to develop in those briny waters - a brine high in magnesium chloride, sodium chloride, calcium chloride, iron sulfates and phosphates. (These five salts by the way, are just five of the twelve tissue-salts found in our body's cell plasma, e.g., a.o. our neurons.)

The proto lifeforms acquired the calcium salts 'around' their systems to eventually develop skeletal features, and together with the iron sulfates, phosphates, magnesium salts and more, they also developed proteins, lipids (fat), nerves, blood and muscle.

Millions of years later many lifeforms developed articulated skeletons, glandular tissues, etc. 

The calcium based skeletons could either be exo- or endo-skeletons: crabs and such in the former case, fish in the latter... and later land animals... That's just fauna, not to speak of flora.

'Imagine if the intelligence in our world resided not with humankind but rather with a singular, isolated jellyfish, floating deep in the Pacific Ocean...'
~ Scientific American  

I'll quote:

"German mathematician Leopold Kronecker famously declared, “God created the natural numbers, all else is the work of man.” But imagine if the intelligence in our world resided not with humankind but rather with a singular, isolated jellyfish, floating deep in the Pacific Ocean. Everything in its experience would be continuous, from the flow of the surrounding water to its fluctuating temperature and pressure. In such an environment, lacking individual objects or indeed anything discrete, would the concept of number arise? If there were nothing to count, would numbers exist?"

From this Scientific American article - especially page two:

"...would such an intelligent jellyfish eventually develop numbers and mathematics?"

Alright, here is an idea that at first may seem totally out of this world, and at first sight may have nothing to do with mathematics, but bear with me...

Imagine a 'human body' dressed and well... But then imagine that you are going to peel off layer after layer of that body. Of course you start off with the clothes, then you proceed with the skin layer, then the next tissue layer (flesh), and then more tissue and so on, until you eventually have stripped away all bony matter as well. 

So, imaginatively you have been peeling off layer after layer until you couldn't peel anything off anymore.

You were probably surprised that you didn't end up with nothing.., you were left with something... something quite wet, in the shape of a...

 

A jelly f... 

 

Just a minute...

...what you are left with is in fact CSF...

Cerebro-Spinal Fluid,
the stuff that has the form of and is inside... 

   

1. ...the meninges around your brain. (For now keep the shape of those meninges in mind - it is like a deflated collapsed and dimpled  plastic ball),
2. Your cranial ventricles. (Also keep their shape in mind),
3. A long tube inside your central spinal canal. (Keep that in mind as well.)
4. Your nerves  - some of that CFS (Cerebro-Spinal-Fluid) actually seeps out into your nerves and thus has the shape of long thin cell-plasma strands. (So you are keeping those long strands also in mind.)

The above illustration is taken from Science Daily:

 

Now, seeing all that together, what does it look like?

It very much looks like a... jelly fish, albeit that the jelly is more liquid.

Now imagine that you jump back into the past, way past...: 

The beginning of life on earth in some proto-ocean!

What if some very early form (between 700 and  580 million years ago) of jellyfish developed there, not only one of the earliest free moving living creatures * but also one that figured out a way of existing forever - being immortal?!

In fact, there are still species of jellyfish like that:

http://en.wikipedia.org/wiki/Turritopsis_nutricula
(See picture at the end of this article) 
http://news.nationalgeographic.com/news/2009/01/090130-immortal-jellyfish-swarm.htm
 

(The following contains quotes from the Preamble, but adjusted to make it pertain to this Jellyfish.)

What if over billions of years, a very special kind of jellyfish propagated itself in such a way that its survival became secured by eventually surviving (and multiplying) through the human species as... Cerebro-Spinal Fluid, and that this specific jellyfish species through the human species (and likely other animal species as well) is still around inside of us and eventually - being us - came to invent mathematics?

I got this idea (not the math part).in 1998  and proposed it (as a "this will knock your socks off" idea) in a talk I gave in Avon (Connecticut USA). It somehow so stuck in my head, that it does not want to let go of itself... :)

Of course the question is now: how and why did that jellyfish do it? No, again, not the math, but becoming a species with vertebrae and all.

It has to do with the fact that the first life-forms on earth thrived (they really had no choice) in extremely low-oxygen containing watery environments. As the earth's seas became more and more oxygenated (in certain locales too acidic), I propose that this proto-human jellyfish needed and found a way to survive.

It so happened that in those days the primordial waters of the seas, inland seas or large ponds) contained quite a variety of minerals and salts, and because this proto-human jellyfish happened to navigate those briny waters - a brine high in magnesium chloride, sodium chloride, calcium chloride, iron sulfates and phosphates, it gladly made do with what was around (again, there really was no choice)...
  
Left: from

 "Jellyfish Nervous Systems"

Millions of years later this jellyfish may have evolved in such a way that it acquired an articulated skeleton and all kinds of tissues.
These calcium based skeletons could either be exo- or endo-skeletons: crabs and such in the former case, and fish in the latter
As we know,  certain fish (Ichthyostega) crawled out of the sea 370 million years ago and evolved into mammals... and on and on it went.... that special proto-human jellyfish still surviving!

The First Known Immortal Animal:

"Scientists have discovered the world’s first known immortal animal. A jellyfish species named Turritopsis Nutricula. This jellyfish can reenter an earlier polyp stage, restarting its lifecycle after it mates. The jellyfish can repeat this process indefinitely, meaning that it will never die from aging, ever. Researchers hope that studying the Turritopsis will lead to breakthroughs in reversing the human aging process. The jellyfish are originally from the Caribbean but have spread all over the world." 

~ "Science & Technology" facebook page, via  Sasha Under Midnattssol

Note

* 580 million years ago Cnidaria were the first animals that could move freely due to the evolution of nerve and muscle like structures, they also developed simple eyes.

 

A Conundrum of Cosmic Proportions

.

Credit: NASA/WMAP Science Team

Timeline of the expansion of the universe.

The light elements were created on the far left of this diagram at the beginning of the universe, and became neutral atoms at around 380,000 years after the big bang.
~ Scientific American
(The Dark Ages are currently thought to have lasted between 150 million to 800 million years after the Big Bang.

 "... we see them [...] as they existed in the very early universe"

~ Wikipedia

Best Time to Study the Cosmos Was More Than 13 Billion Years Ago

Of course what happened 13.75  billion years ago is still visible, it only has to be inspected (and we do that already) by the world's various space telescopes and other means of deep-space observation...

Things to keep in mind:

1. Looking at what is 'seen' now - which can be up to 3x13.75=41.25 billion lightyears away - it appears that all observed phenomena are very far apart from each other and keep drifting apart due to the expansion of the universe, while 13.75 billion years ago (just after the dark ages that followed the inflationary period) those phenomena were all taking place in a smaller compacted region. 

2. So what is 'seen' should be compacted (I'm sure it can be done with software) 'condensed' to to speak to distances relevant to 13.75 billion years ago so that a better understanding of the dynamics might follow.

3. The way the 13.75 billion yr. old phenomena are depicted is deceiving as it is done on a two dimensional circular or oval surface while the data are taken from the inside of a seemingly hollow spherical perspective...

4. What is 'seen' should be condensed and turned inside out (I'm sure it can be done with software) so that a better understanding of the dynamics of 13.75 billion yrs ago may follow. Structures that have shapes like for instance the later galaxies could well be vortices - in fact the later galaxies may very well also be vortices.

5. Imaging all this in that condensed format will make it clear that space structures are integrated parts of what could be called a 3D "universal ocean", with waves and eddies, vortices and spouts, etc.  





The Universe made possible by Number Sleuth

 

A gamma-ray burst detected by NASA's Swift satellite in April 2009 - The latest candidate for the most distant object in the universe.
~ Credit: Gemini Observatory / AURA / Levan, Tanvir, Cucchiara)

"A gamma-ray burst detected by NASA's Swift satellite in April 2009 has been newly unveiled as a candidate for the most distant object in the universe. 

At an estimated distance of 13.14 billion light years, the burst lies far beyond any known quasar and could be more distant than any previously known galaxy or gamma-ray burst. [...]

The gigantic burst of gamma rays erupted from an exploding star when the universe was less than 4% of its present age, just 520 million years old, and less than 10% of its present size visible and measurable universe ¹."
~ Science Daily

"Space is expanding, carrying objects such as galaxies and photons with it, so light ravels a greater distance than a simple calculation (such as speed multiplied by time) might suggest. An object that emitted light 13.7 billion years ago is now forty two billion light years away. This figure depends on the values of cosmological parameters."
~ Scientific American (Editor)

When a gamma-ray burst is observed to be 13.14 billion light-years² away from us now, and considering that the universe is 13.75 billion years old, could it not be that that gamma-ray burst was right here 13.14:3=4.38 billion years ago?

And could it not be that that what we now measure and observe as being a gamma-ray burst, that right now and very far away that object might not be a gamma-ray burst at all anymore?

Let's assume that we fully hypothetically locate an enormous number of quasars (or objects that now still look like quasars) 13.14 billion light years away from here (say, 600 million years after the start of inflation) and say (again fully hypothetically) that they are seen by us in a spherical shell surrounding us (considering that in our visible and measurable universe ³ the earth is seen as its center), and say that the universe 13.75 billion years ago had not fully expanded yet, must it not be so then that 13.75 billion years ago all those quasars were concentrated around here and that this here then likely was a quasar too.

Of course during the universal expansion those quasars had also been expanding, meaning that 13.14 billion years ago those quasars must have been much smaller in size - their energy just more concentrated.

Of course this means that what we see in the far distance now, is how it was in the past - not how it is now - and that the past - that we now see in the distance, may currently very well be resembling what we are here now.

Hypothetically it is possible that right now observers 4.38 billion light-years away from us, are using instrumentation that makes them see 'us / this part of the universe' to be a - for example - gamma-ray burst.

Click here for an article on tiny early galaxies of nine billion years ago.

Notes:

¹ Cornish et al. calculated the universe to be 78 billion light-years across.

The distance from edge to edge is what is referred to as the comoving or proper distance.

² The age of the Universe is now considered to be 13.75 billion years.

³ Of course the earth is not at all at the centre of the universe. It is just from our vantage point that we see the universe around us as spherical, it does of course totally depend on the location of our measuring instruments.
http://en.wikipedia.org/wiki/Observable_universe

There are important remarks in the link above