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Model for viable time machine developed

thesolar65

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Ever since HG Wells published his book 'Time Machine' in 1885, people have been curious about time travel
dc-Cover-fsgqtn825n7tqfefhl29pqlf52-20170430184654.Medi.jpeg

Using Einstein's theory, Tippett said that the curvature of space-time accounts for the curved orbits of the planets.
A US scientist has developed a mathematical model for a viable time machine - an advance that could bring stuff of popular science-fiction closer to reality. Using math and physics, Ben Tippett, from University of British Columbia in Canada, has created a formula that describes a method for time travel. "People think of time travel as something as fiction. And we tend to think it's not possible because we don't actually do it. But, mathematically, it is possible," said Tippett. Ever since HG Wells published his book 'Time Machine' in 1885, people have been curious about time travel – and scientists have worked to solve or disprove the theory.

In 1915, German scientist Albert Einstein announced his theory of general relativity, stating that gravitational fields are caused by distortions in the fabric of space and time. More than 100 years later, the LIGO Scientific Collaboration - an international team of physics institutes and research groups - announced the detection of gravitational waves generated by colliding black holes billions of lightyears away, confirming Einstein's theory. The division of space into three dimensions, with time in a separate dimension by itself, is incorrect, said Tippett. The four dimensions should be imagined simultaneously, where different directions are connected, as a space-time continuum.


Using Einstein's theory, Tippett said that the curvature of space-time accounts for the curved orbits of the planets. In "flat" space-time, planets and stars would move in straight lines. In the vicinity of a massive star, space-time geometry becomes curved and the straight trajectories of nearby planets will follow the curvature and bend around star. "The time direction of the space-time surface also shows curvature. There is evidence showing the closer to a black hole we get, time moves slower," said Tippett. "My model of a time machine uses the curved space-time to bend time into a circle for the passengers, not in a straight line. That circle takes us back in time," he said.

While it is possible to describe this type of time travel using a mathematical equation, Tippett doubts that anyone will ever build a machine to make it work. "HG Wells popularised the term 'time machine' and he left people with the thought that an explorer would need a 'machine or special box' to actually accomplish time travel," Tippett said. "While is it mathematically feasible, it is not yet possible to build a space-time machine because we need materials - which we call exotic matter - to bend space-time in these impossible ways, but they have yet to be discovered," he said.

The research was published in the journal Classical and Quantum Gravity.
http://www.deccanchronicle.com/science/science/300417/model-for-viable-time-machine-developed.html
http://www.deccanchronicle.com/science/science/300417/model-for-viable-time-machine-developed.html
@Hamartia Antidote @StraightShooter @anant_s @Skull and Bones @Levina
 
. .
@thesolar65 @Sinopakfriend

H.G.Wells may have popularized it is but timetravel as a concept was described in Vedic texts.

Time Travel Mythology: Mahabharata
c2eadc79c6e4f0c2980b7779712ee1fd
GISELLA BUSTILLOS
The mythology of time travel is extensive and far reaching. While the idea of an actual “time machine” wasn’t conceived until the late 1800’s, you can find legends and stories that features a hero traveling to the past or future in a magical, fantastical way. I thought I would share with you one of those stories that we’ll be touching upon in the documentary.


Mahabharata, 400BC
One of the very first time travel stories that have been recorded in history appears in the Hindu epic, Mahabharata– speculated to be written as early as 400BC. The story follows a king, his daughter, and their search for a perfect suitor.

Revati was the only daughter of King Kakudmi, a powerful monarch who ruled Kusasthali, a prosperous and advanced kingdom under the sea. Thinking no one could prove to be good enough to marry his beautiful daughter, Kakudmi took Revati with him to Brahmaloka, the home of Brahma, to ask the god’s advice about finding a suitable husband for her.


Brahma
Brahma was listening to a musical performance when they arrived, and so they waited patiently until the performance was finished. Finally, King Kakudmi humbly bowed and made his request:

“O Brahmâ! To whom shall I betroth this daughter? I have come to you to ask on this point I have searched for many princes and seen also a good many of them and none of them is to my liking and so my mind is not at rest.”

Brahma laughed at the foolishness of the King.

“O King! The princes that you thought would become the bridegroom of your daughter, all died; their sons and grandsons and their friends even have all passed away.”




Different Planes of Existence
Time, Brahma goes on to explain, runs differently on different planes of existence. During the time they had waited in Brahmaloka to see him, 27 chatur-yugas, had passed on Earth. Everything that Kakudmi had and owned, his friends and family, his sons and wife, his armies and treasures, had vanished with the time that had passed. The King and his daughter were overcome with astonishment and grief for everything they had lost, but Brahma comforted them, and recommended a worthy husband currently on earth: Balarama, the twin brother of Krishna.


Balarama and his Wife Revati
What is really interesting though, is how similar their view of time was 2500 years ago to how physicists and astronomers conceptualize space-time today. In Einstein’s theory of relativity, time is relative to the observer’s frame of reference- it depends on the observer’s motion and strength of gravity. For instance, one could argue that time here on earth runs slower than in space because gravity slows the passage of time.

Hindu philosophy was familiar with the concept that time is relative and many passages on the Vedic scriptures continuously point out that the cosmic time of the gods is different than the time on earth.


One Chatur-Yuga is equivalent to 4,320,000 human years.



Were King Kakudmi and his daughter two unwitting time
travelers? What they thought were just minutes in front god Brahma, millennia
had taken place at home. When they came back, they did so to a vastly different
place.

Today, we so often think of time as an arrow moving in one direction, with a beginning, middle and end. But I think it is interesting to look at different cultures and how they view time. Their perceptions help us look at time, and the idea of time travel, a little bit differently.

http://www.timetraveldocumentary.com/2015/03/09/time-travel-mythology-mahabharata/
========================================================================

Paradoxes of Time and Space

Complexity:
3books.png

by Sadaputa Dasa

paradoxestimespace.jpg

Imagine that man travels into outer space on a rocket at near the speed of light and then returns to earth. According to Einstein’s theory of relativity, the man will find he has not aged as much as his identical twin brother who stayed home. Time will have passed more slowly on the rapidly moving rocket than on the slow-moving earth. This disparity in the passage of time is often called time dilation.

This story of the twins is called the twin paradox, since it runs contrary to our expectations. Yet a simple diagram can easily show how it works.

The key to understanding the aging of the twins is Einstein’s postulate that no matter how fast a person is traveling, if he measures the speed of a beam of light it will always be the same. In principle, then, we could make a clock by having a beam of light bounce back and forth between two mirrors mounted in frames at a fixed distance from one another. Since light always goes at the same speed, the time a pulse of light takes to make one complete bounce from one mirror to the other and back will always be the same. So we can measure the passage of time by counting complete bounces.

In the graph, distance is plotted on the horizontal axis and the passage of time on the vertical. Two stationary mirrors leave parallel vertical lines as time passes. A pulse of light bouncing back and forth between the two mirrors leaves a zig-zag path, and in this diagram we can count 10 complete bounces.

The pair of lines moving right and then left in a V-shape represents the movement of a pair of mirrors that travel first to the right and then to the left. The zig-zag line between these two V-shaped lines represents the path of a light pulse bouncing between the two moving mirrors. We can count nearly 7 complete bounces in this case. This means that while an observer standing next to the stationary mirrors experiences that 10 units of time have passed, an observer traveling with the moving mirrors experiences only 7 units of time.

This shows how the twin paradox works. The striking thing about it is that even though the zigs and zags of the light trapped between the moving mirrors seem unequal, an observer moving with the mirrors will see them to be the same. For this to be possible, both space and time on a moving object must transform in a strange way.

Note, by the way, that the horizontal spacing between the two moving mirrors is shown to be smaller than the spacing between the two stationary mirrors. This is an example of how space transforms with motion. According to Einstein’s theory, a moving object will shrink in length by a certain percentage along its line of motion.

Apart from time dilation caused by motion, Einstein also discussed time dilation caused by gravitation. Imagine a beam of light moving up from the surface of the earth. According to the laws of physics, the light must lose energy as it climbs against the pull of gravity. The frequency of a beam of light is proportional to its energy. So as the light climbs upward, its frequency drops.

Now suppose the light is coming from the face of a clock situated on the earth’s surface, and that a person in outer space is using this light to see the clock. A person on earth can observe that for every second ticked off by the clock, the light will vibrate through a certain number of cycles. The person observing the clock from outer space will also see that the light vibrates through this many cycles in the time the second hand ticks off one second.

For the observer in outer space, however, the light has a lower frequency than on earth. So he’ll see the earth clock running slower than his own clock. Relative to the observer in space, time on earth must be passing more slowly. Calculations show that for a person in outer space, time on the earth’s surface would seem to pass only slightly more slowly. But time on a planet with an extremely strong gravitational field would pass very slowly indeed.

According to the theory of relativity, an object with a strong enough gravitational field will be surrounded by an imaginary sphere called the event horizon. As Joe Smith, say at 1:00 P. M. by his own watch, approaches the object in his space ship and passes the event horizon, he won’t notice anything unusual. But to an observer watching from a distance, as Joe approaches the event horizon, he will seem to slow down. He will never quite get there, and his watch will never quite reach 1:00 P. M. As the light coming from Joe grows to longer and longer wavelengths, Joe will fade out and gradually become invisible. Objects with such event horizons are known as black holes.

These examples show that modern physics allows for remarkable transformations of space and time. And apparently, similar ideas are found in Vedic literature.

We find an example in the story of a king named Kakudmi, who was able to travel to the world of Brahma and experience Brahma’s scale of time. Here is the story, as related in the Srimad-Bhagavatam:

Taking his own daughter, Revati, Kakudmi went to Lord Brahma in Brahmaloka, which is transcendental to the three modes of material nature, and inquired about a husband for her. When Kakudmi arrived there, Lord Brahma was engaged in hearing musical performances by the Gandharvas and had not a moment to talk with him. Therefore Kakudmi waited, and at the end of the musical performances he offered his obeisances to Lord Brahma and thus submitted his long-standing desire.
After hearing his words, Lord Brahma, who is most powerful, laughed loudly and said to Kakudmi, “O King, all those whom you may have decided within the core of your heart to accept as your son-in-law have passed away in the course of time. Twenty-seven catur-yugas have already passed. Those upon whom you may have decided are now gone, and so are their sons, grandsons, and other descendants. You cannot even hear about their names.” (Srimad-Bhagavatam 9.3.28-32)

One catur-yuga lasts 4,320,000 years. With this information, we can estimate the rate of time dilation on Brahmaloka. If the concert given by the Gandharvas took about one hour in Brahma’s time scale, then that hour must correspond to 27 times 4,320,000 earth years. It is interesting that this estimate closely matches one for time dilation in another story involving Brahma.

This is the story of the brahma-vimohana-lila, or the bewilderment of Brahma by Krishna. Several thousand years ago, Krishna descended to the earth as an avatara and was playing as a young cowherd boy, tending calves in the forest of Vrindavana (south of present-day New Delhi). To test Krishna’s potency, Brahma used mystic power to steal Krishna’s calves and cowherd boy friends and hide them in suspended animation in a secluded place. He then went away for a year of earthly time to see what would happen.

Krishna responded to Brahma’s trick by expanding Himself into identical copies of the calves and boys. So, when Brahma returned, he saw Krishna playing with the boys and calves just as before. Brahma became bewildered. Checking the boys and calves he had hidden, he found they were indistinguishable from the ones playing with Krishna, and he couldn’t understand how this was possible. Finally Krishna revealed to Brahma that these latter boys and calves were identical with Himself, and He allowed Brahma to have a direct vision of the spiritual world.

Now, it turns out that even though Brahma was absent for one earth year, on his time scale only a moment had passed. The Sanskrit word used here for a moment of time is truti. (Srimad-Bhagavatam 10.13.40) There are various definitions of a truti, but the Vedic astronomy text called the Surya-siddhanta defines a truti to be 1of a second. If we accept this figure, then one year on earth corresponds to 13,750 of a second in the time of Brahma.

As I pointed out, King Kakudmi’s visit to Brahmaloka took 27 times 4,320,000 earth years. If we multiply this by 1we find that in Brahma’s time King Kakudmi’s visit lasted 3,456 seconds, or just under an hour. This is consistent with the story that the king had to wait for a musical performance to finish before having a brief conversation with Lord Brahma.

Although the time dilation involved in visits to Brahmaloka is extreme, such large time dilations do arise in the theories of modern physics. For example, suppose that instead of crossing the event horizon of a black hole, Joe Smith simply came close to the event horizon and then went back out into space to rejoin the person observing his journey. If he had come close enough to the event horizon, he would find that although his trip seemed short to him, millions of years had passed, and the observer had died long ago.

It is curious that according to the Srimad- Bhagavatam the physical universe is surrounded by a shell, and Brahmaloka is located very close to that shell. The Bhagavatam gives the diameter of this shell as 500 million yojanas, which, using the standard figure of 8 miles per yojana, comes out to 4 billion miles.

This seems extremely small. In a purport in the Chaitanya-charitamrita, however,Srila Prabhupada makes the following comment:

Srila Bhaktisiddhanta Sarasvati Thakura, one of the greatest astrologers of his time, gives information from Siddhanta Siromani that this universe measures 18,712,069,200,000,000 x 8 miles. This is the circumference of this universe. According to some, this is only half the circumference. (Chaitanya-charitamrita, Madhya-lila 21.84)

Assuming that what is meant is circumference, the diameter of the universe should be 5,956,200,000 million yojanas, considerably bigger than 500 million.

What is the meaning of these apparently contradictory figures? I don’t know for sure, but it’s interesting to consider that transformations of space may take place as one approaches the shell of the universe. The time dilation stories involving Brahmaloka show that transformations of time take place as one approaches the shell, and in the theory of relativity space and time tend to change together.

In the Mahabharata Narada Muni gives Maharaja Yudhishthira a description of the assembly hall of Lord Brahma on Brahmaloka. He emphasizes that the structure of this hall is impossible to describe, and this seems consistent with the idea that space in Brahmaloka may undergo transformations incomprehensible from our earthly standpoint. Here is his description of Brahma’s hall:

It is not possible to describe it as it really is, king of the people, for from instant to instant it has another indescribable appearance. I know neither its size nor its structure, Bharata, and never before have I seen such beauty. The hall is very comfortable, king, neither too cold nor too hot; when one enters it, one no longer is hungry, thirsty, or weary. It is as though it is made up of many different shapes, all very colorful and luminous. No pillars support it. It is eternal and knows of no decay. It is self-luminous beyond the moon and sun and the flame-crested fire.

If strange transformations of space do occur in the region of Brahmaloka, then it could be that different scales of distance may be appropriate for describing travel to that region.

Going beyond Brahmaloka, one comes to the shell of the universe, described in Vedic literature as a region of transition from the physical world to the spiritual world. Since the Bhagavatam regards space as we know it as a physical element (called akasha, or ether), the shell marks the end of distance measurements as we know them, even though the thickness of that shell is described in the Bhagavatam in terms of units of distance. This also suggests that different scales of distance and even different types of distance may be involved in Vedic cosmology.

The shell of the universe also marks the end of time as we know it. According to the Vedic literature, a liberated soul is able to cross the shell of the universe and enter the transcendental region of Vaikuntha, where material time does not exist. Compare this with the idea of Joe Smith’s journey through the event horizon of a black hole. Just as Joe passes into a region that, for observers outside the event horizon, is beyond time, the liberated soul passes into a region beyond the time of the physical universe. So in a sense the shell of the universe described in the Bhagavatam might be compared to the event horizon of a black hole.

These comparisons between concepts from the Bhagavatam and concepts from modern physics are crude at best and should be regarded only as metaphors. But they do indicate that some of the strange features of the universe as described in the Vedic literature may be no more “far out” than some of the ideas in accepted theories of modern physics.

http://www.krishna.com/paradoxes-time-and-space
 
. .
@StraightShooter thank you for the tag!


Time as such does not exist. Cycles do.

Invention of Time is there to make sense of the Universe.

Helps the rational mind to comprehend material manifestations. Sub-material and meta-material is just now gaining little understanding in science.

There is no such thing as Space.

It is our limited understanding to consider non material occurance as Space. I shall leave it at this.



What is the Vedic definition of Time and Space?


Thanks,

SPF
 
.
This has been known and proven for a long time, planes traveling at high altitude have had their clocks compared to stationary ones on the ground, with the differences proving that time is relative and 'slows' with gravity. They even show the idea of time dilation in pop culture, like in the film 'Interstellar'.

Going backwards in time is not possible though.
 
.
Practically, time travel is NOT possible because of "Causality" problem; theoretically, maybe.
 
.
@thesolar65 @Sinopakfriend

H.G.Wells may have popularized it is but timetravel as a concept was described in Vedic texts.

Time Travel Mythology: Mahabharata
c2eadc79c6e4f0c2980b7779712ee1fd
GISELLA BUSTILLOS
The mythology of time travel is extensive and far reaching. While the idea of an actual “time machine” wasn’t conceived until the late 1800’s, you can find legends and stories that features a hero traveling to the past or future in a magical, fantastical way. I thought I would share with you one of those stories that we’ll be touching upon in the documentary.


Mahabharata, 400BC
One of the very first time travel stories that have been recorded in history appears in the Hindu epic, Mahabharata– speculated to be written as early as 400BC. The story follows a king, his daughter, and their search for a perfect suitor.

Revati was the only daughter of King Kakudmi, a powerful monarch who ruled Kusasthali, a prosperous and advanced kingdom under the sea. Thinking no one could prove to be good enough to marry his beautiful daughter, Kakudmi took Revati with him to Brahmaloka, the home of Brahma, to ask the god’s advice about finding a suitable husband for her.


Brahma
Brahma was listening to a musical performance when they arrived, and so they waited patiently until the performance was finished. Finally, King Kakudmi humbly bowed and made his request:

“O Brahmâ! To whom shall I betroth this daughter? I have come to you to ask on this point I have searched for many princes and seen also a good many of them and none of them is to my liking and so my mind is not at rest.”

Brahma laughed at the foolishness of the King.

“O King! The princes that you thought would become the bridegroom of your daughter, all died; their sons and grandsons and their friends even have all passed away.”




Different Planes of Existence
Time, Brahma goes on to explain, runs differently on different planes of existence. During the time they had waited in Brahmaloka to see him, 27 chatur-yugas, had passed on Earth. Everything that Kakudmi had and owned, his friends and family, his sons and wife, his armies and treasures, had vanished with the time that had passed. The King and his daughter were overcome with astonishment and grief for everything they had lost, but Brahma comforted them, and recommended a worthy husband currently on earth: Balarama, the twin brother of Krishna.


Balarama and his Wife Revati
What is really interesting though, is how similar their view of time was 2500 years ago to how physicists and astronomers conceptualize space-time today. In Einstein’s theory of relativity, time is relative to the observer’s frame of reference- it depends on the observer’s motion and strength of gravity. For instance, one could argue that time here on earth runs slower than in space because gravity slows the passage of time.

Hindu philosophy was familiar with the concept that time is relative and many passages on the Vedic scriptures continuously point out that the cosmic time of the gods is different than the time on earth.


One Chatur-Yuga is equivalent to 4,320,000 human years.



Were King Kakudmi and his daughter two unwitting time
travelers? What they thought were just minutes in front god Brahma, millennia
had taken place at home. When they came back, they did so to a vastly different
place.

Today, we so often think of time as an arrow moving in one direction, with a beginning, middle and end. But I think it is interesting to look at different cultures and how they view time. Their perceptions help us look at time, and the idea of time travel, a little bit differently.

http://www.timetraveldocumentary.com/2015/03/09/time-travel-mythology-mahabharata/
========================================================================

Paradoxes of Time and Space

Complexity:
3books.png

by Sadaputa Dasa

paradoxestimespace.jpg

Imagine that man travels into outer space on a rocket at near the speed of light and then returns to earth. According to Einstein’s theory of relativity, the man will find he has not aged as much as his identical twin brother who stayed home. Time will have passed more slowly on the rapidly moving rocket than on the slow-moving earth. This disparity in the passage of time is often called time dilation.

This story of the twins is called the twin paradox, since it runs contrary to our expectations. Yet a simple diagram can easily show how it works.

The key to understanding the aging of the twins is Einstein’s postulate that no matter how fast a person is traveling, if he measures the speed of a beam of light it will always be the same. In principle, then, we could make a clock by having a beam of light bounce back and forth between two mirrors mounted in frames at a fixed distance from one another. Since light always goes at the same speed, the time a pulse of light takes to make one complete bounce from one mirror to the other and back will always be the same. So we can measure the passage of time by counting complete bounces.

In the graph, distance is plotted on the horizontal axis and the passage of time on the vertical. Two stationary mirrors leave parallel vertical lines as time passes. A pulse of light bouncing back and forth between the two mirrors leaves a zig-zag path, and in this diagram we can count 10 complete bounces.

The pair of lines moving right and then left in a V-shape represents the movement of a pair of mirrors that travel first to the right and then to the left. The zig-zag line between these two V-shaped lines represents the path of a light pulse bouncing between the two moving mirrors. We can count nearly 7 complete bounces in this case. This means that while an observer standing next to the stationary mirrors experiences that 10 units of time have passed, an observer traveling with the moving mirrors experiences only 7 units of time.

This shows how the twin paradox works. The striking thing about it is that even though the zigs and zags of the light trapped between the moving mirrors seem unequal, an observer moving with the mirrors will see them to be the same. For this to be possible, both space and time on a moving object must transform in a strange way.

Note, by the way, that the horizontal spacing between the two moving mirrors is shown to be smaller than the spacing between the two stationary mirrors. This is an example of how space transforms with motion. According to Einstein’s theory, a moving object will shrink in length by a certain percentage along its line of motion.

Apart from time dilation caused by motion, Einstein also discussed time dilation caused by gravitation. Imagine a beam of light moving up from the surface of the earth. According to the laws of physics, the light must lose energy as it climbs against the pull of gravity. The frequency of a beam of light is proportional to its energy. So as the light climbs upward, its frequency drops.

Now suppose the light is coming from the face of a clock situated on the earth’s surface, and that a person in outer space is using this light to see the clock. A person on earth can observe that for every second ticked off by the clock, the light will vibrate through a certain number of cycles. The person observing the clock from outer space will also see that the light vibrates through this many cycles in the time the second hand ticks off one second.

For the observer in outer space, however, the light has a lower frequency than on earth. So he’ll see the earth clock running slower than his own clock. Relative to the observer in space, time on earth must be passing more slowly. Calculations show that for a person in outer space, time on the earth’s surface would seem to pass only slightly more slowly. But time on a planet with an extremely strong gravitational field would pass very slowly indeed.

According to the theory of relativity, an object with a strong enough gravitational field will be surrounded by an imaginary sphere called the event horizon. As Joe Smith, say at 1:00 P. M. by his own watch, approaches the object in his space ship and passes the event horizon, he won’t notice anything unusual. But to an observer watching from a distance, as Joe approaches the event horizon, he will seem to slow down. He will never quite get there, and his watch will never quite reach 1:00 P. M. As the light coming from Joe grows to longer and longer wavelengths, Joe will fade out and gradually become invisible. Objects with such event horizons are known as black holes.

These examples show that modern physics allows for remarkable transformations of space and time. And apparently, similar ideas are found in Vedic literature.

We find an example in the story of a king named Kakudmi, who was able to travel to the world of Brahma and experience Brahma’s scale of time. Here is the story, as related in the Srimad-Bhagavatam:

Taking his own daughter, Revati, Kakudmi went to Lord Brahma in Brahmaloka, which is transcendental to the three modes of material nature, and inquired about a husband for her. When Kakudmi arrived there, Lord Brahma was engaged in hearing musical performances by the Gandharvas and had not a moment to talk with him. Therefore Kakudmi waited, and at the end of the musical performances he offered his obeisances to Lord Brahma and thus submitted his long-standing desire.
After hearing his words, Lord Brahma, who is most powerful, laughed loudly and said to Kakudmi, “O King, all those whom you may have decided within the core of your heart to accept as your son-in-law have passed away in the course of time. Twenty-seven catur-yugas have already passed. Those upon whom you may have decided are now gone, and so are their sons, grandsons, and other descendants. You cannot even hear about their names.” (Srimad-Bhagavatam 9.3.28-32)

One catur-yuga lasts 4,320,000 years. With this information, we can estimate the rate of time dilation on Brahmaloka. If the concert given by the Gandharvas took about one hour in Brahma’s time scale, then that hour must correspond to 27 times 4,320,000 earth years. It is interesting that this estimate closely matches one for time dilation in another story involving Brahma.

This is the story of the brahma-vimohana-lila, or the bewilderment of Brahma by Krishna. Several thousand years ago, Krishna descended to the earth as an avatara and was playing as a young cowherd boy, tending calves in the forest of Vrindavana (south of present-day New Delhi). To test Krishna’s potency, Brahma used mystic power to steal Krishna’s calves and cowherd boy friends and hide them in suspended animation in a secluded place. He then went away for a year of earthly time to see what would happen.

Krishna responded to Brahma’s trick by expanding Himself into identical copies of the calves and boys. So, when Brahma returned, he saw Krishna playing with the boys and calves just as before. Brahma became bewildered. Checking the boys and calves he had hidden, he found they were indistinguishable from the ones playing with Krishna, and he couldn’t understand how this was possible. Finally Krishna revealed to Brahma that these latter boys and calves were identical with Himself, and He allowed Brahma to have a direct vision of the spiritual world.

Now, it turns out that even though Brahma was absent for one earth year, on his time scale only a moment had passed. The Sanskrit word used here for a moment of time is truti. (Srimad-Bhagavatam 10.13.40) There are various definitions of a truti, but the Vedic astronomy text called the Surya-siddhanta defines a truti to be 1of a second. If we accept this figure, then one year on earth corresponds to 13,750 of a second in the time of Brahma.

As I pointed out, King Kakudmi’s visit to Brahmaloka took 27 times 4,320,000 earth years. If we multiply this by 1we find that in Brahma’s time King Kakudmi’s visit lasted 3,456 seconds, or just under an hour. This is consistent with the story that the king had to wait for a musical performance to finish before having a brief conversation with Lord Brahma.

Although the time dilation involved in visits to Brahmaloka is extreme, such large time dilations do arise in the theories of modern physics. For example, suppose that instead of crossing the event horizon of a black hole, Joe Smith simply came close to the event horizon and then went back out into space to rejoin the person observing his journey. If he had come close enough to the event horizon, he would find that although his trip seemed short to him, millions of years had passed, and the observer had died long ago.

It is curious that according to the Srimad- Bhagavatam the physical universe is surrounded by a shell, and Brahmaloka is located very close to that shell. The Bhagavatam gives the diameter of this shell as 500 million yojanas, which, using the standard figure of 8 miles per yojana, comes out to 4 billion miles.

This seems extremely small. In a purport in the Chaitanya-charitamrita, however,Srila Prabhupada makes the following comment:

Srila Bhaktisiddhanta Sarasvati Thakura, one of the greatest astrologers of his time, gives information from Siddhanta Siromani that this universe measures 18,712,069,200,000,000 x 8 miles. This is the circumference of this universe. According to some, this is only half the circumference. (Chaitanya-charitamrita, Madhya-lila 21.84)

Assuming that what is meant is circumference, the diameter of the universe should be 5,956,200,000 million yojanas, considerably bigger than 500 million.

What is the meaning of these apparently contradictory figures? I don’t know for sure, but it’s interesting to consider that transformations of space may take place as one approaches the shell of the universe. The time dilation stories involving Brahmaloka show that transformations of time take place as one approaches the shell, and in the theory of relativity space and time tend to change together.

In the Mahabharata Narada Muni gives Maharaja Yudhishthira a description of the assembly hall of Lord Brahma on Brahmaloka. He emphasizes that the structure of this hall is impossible to describe, and this seems consistent with the idea that space in Brahmaloka may undergo transformations incomprehensible from our earthly standpoint. Here is his description of Brahma’s hall:

It is not possible to describe it as it really is, king of the people, for from instant to instant it has another indescribable appearance. I know neither its size nor its structure, Bharata, and never before have I seen such beauty. The hall is very comfortable, king, neither too cold nor too hot; when one enters it, one no longer is hungry, thirsty, or weary. It is as though it is made up of many different shapes, all very colorful and luminous. No pillars support it. It is eternal and knows of no decay. It is self-luminous beyond the moon and sun and the flame-crested fire.

If strange transformations of space do occur in the region of Brahmaloka, then it could be that different scales of distance may be appropriate for describing travel to that region.

Going beyond Brahmaloka, one comes to the shell of the universe, described in Vedic literature as a region of transition from the physical world to the spiritual world. Since the Bhagavatam regards space as we know it as a physical element (called akasha, or ether), the shell marks the end of distance measurements as we know them, even though the thickness of that shell is described in the Bhagavatam in terms of units of distance. This also suggests that different scales of distance and even different types of distance may be involved in Vedic cosmology.

The shell of the universe also marks the end of time as we know it. According to the Vedic literature, a liberated soul is able to cross the shell of the universe and enter the transcendental region of Vaikuntha, where material time does not exist. Compare this with the idea of Joe Smith’s journey through the event horizon of a black hole. Just as Joe passes into a region that, for observers outside the event horizon, is beyond time, the liberated soul passes into a region beyond the time of the physical universe. So in a sense the shell of the universe described in the Bhagavatam might be compared to the event horizon of a black hole.

These comparisons between concepts from the Bhagavatam and concepts from modern physics are crude at best and should be regarded only as metaphors. But they do indicate that some of the strange features of the universe as described in the Vedic literature may be no more “far out” than some of the ideas in accepted theories of modern physics.

http://www.krishna.com/paradoxes-time-and-space
Interesting read. Do you have anything about ancient interstellar flight?
 
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