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MeteorWayne

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Let me add my welcome as well.<br /><br />This is all concepts way over my head, but seemed to make some sense to me.<br /><br />I'm not sure if that's good or bad <img src="/images/icons/smile.gif" /><br /><br />In any case, I look forward to perusing your ideas! <div class="Discussion_UserSignature"> <p><font color="#000080"><em><font color="#000000">But the Krell forgot one thing John. Monsters. Monsters from the Id.</font></em> </font></p><p><font color="#000080">I really, really, really, really miss the "first unread post" function</font><font color="#000080"> </font></p> </div>
 
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Hello SlipString<br /><br />I did not read your book yet.<br /><br />Welcome to SDC <img src="/images/icons/wink.gif" /><br /><br />When I started this thread I started with one question and of course I would like to listen to your thoughts:<br /><br />With the universe expanding and accelerating where does all the energy necessary to accelerate it comes from?<br /><br />Regarding your post I have also a question:<br /><br />How do you perceive the "before the big splash"?<br /><br />Regarding yourself:<br /><br />I am amazed that you find time to come to SDC but certainly is good to have you around. <br /><br />Do you usually use forums like SDC and what you expect from this kind of forum?
 
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slipstring

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Thanks for all your welcomes, and positive comments! <img src="/images/icons/smile.gif" /><br /><br />I just wrote a great long response (for about an hour), and unfortunately tried to close another firefox window that quicktime was choking in, and it crashed all 12 windows <img src="/images/icons/frown.gif" /> Ugh... Ok, again from the start!<br /><br />Answering: "With the universe expanding and accelerating where does all the energy necessary to accelerate it comes from?"<br /><br />The collision of membranes or "big splash" gave our membrane (and matter) all the energy it has. When the two branes collided, it sent massive, violent vibrations throughout each brane. These vibrations of our brane itself compress spacetime, creating a spider's web network of "dark matter" throughout it, and shrinking its apparant size to only a few billion light years accross shortly after the collision. All those dark matter vibrations will, over time, relax as the brane vibrations relax over time. They will first relax the most in the "starless" regions of space (as we have observed) far away from the network of dark matter brane vibrations that attracted the first gases of the early universe. This massive amount of dark matter aided those early gases to collapse into the first stars and galaxies of our universe. As the brane vibrations relaxed, they turned the potential energy of the brane vibrations into the kinetic energy of expanding spacetime back out towards its original size before the collision.<br /><br />This expansion begins slowly as the brane vibrations have rapid, high peaks, but then picks up speed as those waves stretch out towards a sin wave pattern. As the vibrations relax even further, and their wavelengths get longer and longer, this acceleration will begin to slow down as the brane relaxes closer to its original size (which I roughly calculated to be 526 trillion light years accross in radius). <br /><br />So, the dark energy came from the original collision of bra
 
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<font color="yellow">I look foreward to your responses, and hope you enjoyed my answers!</font><br /><br />I did enjoy. I must say that for the first time in this thread I see a concise answer to my question. If it is the correct time will tell. To me "fundamental particles", "gravity" and "acceleration" have been always the startling words.<br /><br />As for the fundamental particles I believe we are very far from ever knowing them and the reason is that since man as been exploring the quantum aspect of the universe everytime we added up one lense to our mental microscope we got a new surprise. Maybe that will be the last best kept secret.<br /><br />As for gravity, well it is different from all the other forces. The Pionner effect for example may just be one reflex of the uniqueness of gravity. As we leave the helioshpere we will se more changes, as we look further back in time until the symmetric breaking we will understand that what makes it different is the fact that it is able to communicate with the bulk.<br /><br />At last acceleration. Well if it will take 526 trillion light years for this "universal spring" to reach rest I may as well expect that other branes will collide until then and send us into a new voyage. <br /><br /><font color="yellow">As the brane vibrations relaxed, they turned the potential energy of the brane vibrations into the kinetic energy of expanding spacetime back out towards its original size before the collision.</font><br /><br />Can you define the moment when acceleration will slow down without ever knowing the density of the universe?<br /><br />Could our brane acceleration be the product of our brane being pushed instead of a collision?
 
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slipstring

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<font color="yellow">Can you define the moment when acceleration will slow down without ever knowing the density of the universe?<br />Could our brane acceleration be the product of our brane being pushed instead of a collision?</font><br /><br /><br />There are a few ways to figure it out, as in my model dark matter and energy are linked... The WMAP team has determined that our universe has a radius of at least 78 billion light years after 13.7 billion years of expansion. (According to the "standard model" This is because spacetime itself is stretching out as it expands making it appear as if the universe is expanding "faster than light" when it is actually just stretching all of spacetime out as it expands...) As they're still using the "old math" <img src="/images/icons/wink.gif" /> this 78 billion figure may be slightly low, but it's close enough for now. <br /><br />If we calculate how long it will take the universe to reach a radius of 263 trillion light years (halfway to its maximum radius of 526 trillion LY) at its changing rate of expansion, that should be the halfway point. At that time the universe should begin to put on the brakes, slowing its expansion in about the same amount of time it took to get that far. <br /><br />Since our expansion will still accelerate until that point, we just need to map the acceleration curve as several teams are doing now using both supernovae and quasars to peer back as far as possible. Preliminary results of that study are here as reported on NPR. Once we have the acceleration curve, we can calculate the time it will take to reach the halfway point!<br /><br />Re: "<font color="yellow">Could our brane acceleration be the product of our brane being pushed instead of a collision?</font><br /><br />Our brane was pushed away from the location of the collision, however as we are "trapped" within the b
 
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<font color="yellow">There are a few ways to figure it out, as in my model dark matter and energy are linked... The WMAP team has determined that our universe has a radius of at least 78 billion light years after 13.7 billion years of expansion. (According to the "standard model" This is because spacetime itself is stretching out as it expands making it appear as if the universe is expanding "faster than light" when it is actually just stretching all of spacetime out as it expands...) As they're still using the "old math" this 78 billion figure may be slightly low, but it's close enough for now.</font><br /><br />Do you think that our calculations (universe radius) can be correct from our location or they could differ if measured from outside the heliospere? Coudl the universe have had or have in the future different acceleration periods and deceleration periods.<br /><br /><font color="yellow">Our brane was pushed away from the location of the collision, however as we are "trapped" within the brane, there probably will be no way to detect this motion from our vantage point. <br /><br />If our brane was only "pushed," then there would not have been the energy to create an entire universe. One brane "nudging" another would have no effect on the contents of the brane, and we would have no way to detect a "nudge" as there is no way to detect anyting outside of our brane (which our strings are physically attached to...)</font><br /><br />Sounds ok but the "no way" is too determinist.<img src="/images/icons/wink.gif" /><br /><br />I see your point. If you push slowly a train you only know if you are moving if you are able to look outside. As if we get hit by another train we will feel the effects and this is what we perceive and the only phisical detectable possibility for "this universe".<br /><br />However you can still be hit and pushed afterwards (a push we could not detect in the confinement of our brane).<br /><br />But why do you think gravity is so weak co
 
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slipstring

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<font color="yellow">Do you think that our calculations (universe radius) can be correct from our location or they could differ if measured from outside the heliospere? Coudl the universe have had or have in the future different acceleration periods and deceleration periods. </font><br /><br />It shouldn't matter where in the universe we make the measurements, as the cosmic background radiation (CBR) should be the same wherever in the universe you are, and you can see back the same distance from any vantage point in the universe...<br /><br />The heliosphere/heliopause shouldn't distort our measurements. According to my model, the universe will follow an arc of acceleration then decceleration as our dark matter brane vibrations relax, accelerating our expansion along a curved path. Once our brane is completely stretched out, there will be no "dark matter" left, and all galaxies would have flown apart long before from lack of mass (hundreds of bullions of years away).<br /><br />However, eventually, another brane collision will come along, starting the whole process over again <img src="/images/icons/smile.gif" /><br /><br /><br /><font color="yellow">But why do you think gravity is so weak compared to the other forces? If indeed gravity is the only force communicating with the other dimensions isn't that itself a source of physical possibility to detect what is ouside? What are your thoughts on the Pioneer Effect? </font><br /><br />In my model, gravity is so weak bcause of the size of our membrane. When our brane was the Planck length (10<sup>-35</sup>m), gravity may have been as strong as the EM force. However, as it grew (and strings of matter stayed the same size), our strings had less of its surface area to vibrate against, decreasing the percentage of our brane a single string of matter could curve. This is how I came up with the size of our brane by equating G with EM when our brane was the Planck length, and calculating how large our brane had
 
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<font color="yellow">It shouldn't matter where in the universe we make the measurements, as the cosmic background radiation (CBR) should be the same wherever in the universe you are, and you can see back the same distance from any vantage point in the universe... </font><br /><br />Don't you think it is odd that aspect of CBR, the fact that it seems to be at the same distance no matter where we look in the sky? As if to say that CBR is consistent radiation emitted by a blackbody and we are inside of it.<br /><br />What do you think is the difference between today's assumption that we understand the universe and the classical view which assumed exactly the same and got it wrong?
 
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<font color="yellow">Trillions and trillions of microscopic gravity waves could curve spacetime enough on average to create an area of increased mass, slowing any craft passing through it. However, as I said, the normal matter in the area may be enough to produce the effect. </font><br /><br />Well it is either one or the other, both or something else.<br /><br />Maybe the LATOR experiment will answer all this questions.
 
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slipstring

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I apologize for my absense! I've been fairly busy...<br /><br /><font color="yellow">Don't you think it is odd that aspect of CBR, the fact that it seems to be at the same distance no matter where we look in the sky? As if to say that CBR is consistent radiation emitted by a blackbody and we are inside of it. </font><br /><br />Actually, that makes sense. Because our universe was created in a huge fireball of subatomic strings that were given energy from the membrane collision, it cooled and condensed into matter at roughly the same time everywhere. When the phase change occurred from quarks to matter, it released a flash of visible light everywhere which has been getting stretched further and further out as our universe has expanded.<br /><br />The radiation isn't still being emitted, it's getting weaker and weaker as our universe continues to expand. But because it was emitted everywhere at roughly the same time, it shouldn't matter where you observe it!<br /><br /><font color="yellow">What do you think is the difference between today's assumption that we understand the universe and the classical view which assumed exactly the same and got it wrong?</font><br /><br />Well, today most cosmologists still don't completely understand our universe. However, after they read my book, hopefully they will get much closer to understanding <img src="/images/icons/smile.gif" /> .<br /><br />As we progress, there are fewer things that we do not know. We still get surprised now and then, but eventually there will come a point where we finally understand almost everything <img src="/images/icons/smile.gif" /> .<br /><br />With the "fixing" of M-theory, we should be very close to a final theory of physics. With dark matter and energy explained, and our "big splash" occurring according to the laws of physics, all we'll need to do is fill in the gaps here and there... The big questions will have been answered, but there are still plenty of small ones we still need to t
 
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slipstring

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Regarding relativity, it has already been measured accurate to within 0.5 percent by a study of binary pulsars. Also, NASA's Gravity Probe B should be reporting back soon with some precise results. Gravity only needs to be incorporated into M-theory with my <i>Membrane Theory of Gravity</i>. Once that's done, these small discrepencies can be figured out with the concepts I described earlier. <br /><br />Relativity, for the most part, is correct. However, we'll need the string theory equations to nail it down 100%! <img src="/images/icons/smile.gif" />
 
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Lets wait for the Probe B results in April. SlipString I will read your book. It has been a pleasure to read your posts but remember Lord Kelvin: he tought the great ideas of physics were already known and it was only necessary to tidy up the details. Today we can barely reach 1Tev energy and see down to 10ˆ-18m but in 200 years we will look bad thinking like Lord Kelvin.<img src="/images/icons/wink.gif" />
 
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slipstring

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It's been a pleasure conversing with you! I had a lot of fun thinking about your questions! <img src="/images/icons/smile.gif" /> <br /><br />I know people like Lord Kelvin had been thinking that they were close to a final theory of physics many, many times before now, but they didn't know how much they didn't know!<br /><br />They were so much in the dark without any observations above our atmosphere which filters out so much of the information we needed. I wouldn't mind being surprised again in the future with a study revealing a new big question. It helps keep us striving to answer those big questions.<br /><br />The questions I can foresee would pertain to what our multiverse looks like outside our membrane. However, these questions will be very difficult to answer. The technology described in my book may take us on our first steps to understanding our brane in great detail. It's shape, how it vibrates, and what it looked like before the collision. <br /><br />One day, we might find a way to peer outside of our membrane. That's when we'll have more information to deal with. We could even detect the next membrane collision heading towards us someday <img src="/images/icons/smile.gif" /><br /><br />Luckily, with the technology described in my book, we're given a fighting chance to survive that next collision <img src="/images/icons/wink.gif" /><br /><br />I hope you enjoy the book, and will try to stop by to see if I'm needed here <img src="/images/icons/smile.gif" /><br /><br />Personally, I can't wait to get started on R&D to try to build the types of engines & ships described in <i>SlipString Drive</i> so we can visit the black holes, nebulae, binary neutron stars and galaxies to get real first-hand data on these phenomena (not to mention visiting Earth-like planets to check out their inhabitants!)<br /><br />I know travel like this is thought to be impossible (I used to think it was too). However, there is a trick we can use to "bypass" spacetime instead of trying
 
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alokmohan

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Surely you agree that general theory of relativity has passed all tests.
 
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slipstring

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Absolutely! Relativity is correct. However, it does need to be combined with quantum mechanics via <i>Membrane Gravity</i> at the level of each individual string.<br /><br />My method of travel is completely relativistic and it obeys the laws of relativity. <br /><br />However, I don't want to go into it much further as to leave something for you to read in the book. <img src="/images/icons/wink.gif" /> The method obeys relativity, and it works! <img src="/images/icons/smile.gif" />
 
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alokmohan

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But inside black hole theory of relativity fails.Imean as you enter the hole after crossing event horizon.
 
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slipstring

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Once relativity is incorporated into my theory of gravity, it all works fine. The core of a black hole is not a singularity, but a ball of compactified individual strings a few tens of meters across.<br /><br />Because the strings are so tightly packed due to gravity, they no longer have the "room" to vibrate, and time effectively stops for them. This leaves the hole with only three defining characteristics: mass, force charge, and spin.<br /><br />This also explains how Hawking radiation preserves the information within the hole. When one virtual string falls into the hole, the other one is accelerated away from the event horizon. The string that falls in aniahlates one string at the core, and it's quantum state is given to the virtual string that escapes as both virtual strings' quantum states were entangled. This way, the matter's information in the hole is recycled as Hawking radiation, and no information is destroyed.<br /><br />Once relativity and quantum mechanics are unified in <i>Membrane Gravity</i>, it's all good <img src="/images/icons/smile.gif" />
 
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alokmohan

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You are telling good things.Give the link please.Contents too high.
 
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enigma10

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nice links.<img src="/images/icons/smile.gif" /> <div class="Discussion_UserSignature"> <em>"<font color="#333399">An organism at war with itself is a doomed organism." - Carl Sagan</font></em> </div>
 
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