Sunday, 29 May 2016

Speed of light

Can You Beat Speed of Light             
I will show you how to do
Einstein taken speed of light constant as a universal speed limitation and given that nobody can beat speed of light but that rule only implemented in our cosmos. Ok start from the bottom to understand this clearly,
Why it only implemented in our cosmos?
Because dark energy present in our cosmos, this energy is of parallel cosmos exert force on us and create a speed barrier which we called speed of light. Speed of light simply crossed if generate force equal to inter cosmic force (force exert by parallel cosmos). For simple explanation let take an example of a heavy stone. If you apply force on a large stone having mass more than you so it is harder to push because opposite force balance it and require more force to move it. If two or more people apply force so the force gets unbalance and the stone move towards the direction where force applied.
Here,
Friction- Inter cosmic force
People – Very powerful engines
Balance force – Speed of light
Stone – object
Means we have to beat inter cosmic force for equation and value wait for more 2 days.
But it is easy to beat speed of light inside a tunnel because they already exert force equal to inter cosmic force so there is no force exerting on us (not inside black hole only in wormhole and super massive nova tunnel) that’s why we travel infinite times faster than speed of light.
Einstein taken speed of light constant because he knows that it is the highest limit of speed under inter cosmic force. He founded this from some equations which I don’t know but I still trying to figure this crap out to mathematically proof it.



Thursday, 26 May 2016

Lost Frequencies Part-1

Lost Frequencies-
As I told that our universe also have a parallel cosmos (not so as like girl is a boy and a boy is a girl)
And I think that everybody now thinking is we travel between them as like inter dimension travel and the  answer is yes we travel between them this type of travel led us to travel between dimensions but this is not easy yet. So in this theory I added how to cross two dimensions with your RC plane, what are tunnels and living in 4D, 5D and the main 6D.
                                        
                                      WARNING
THIS THEORY IS SO DEEP SO FIRST READ OUR     PREVIOUS THEORIES FIRST

Our universe is divided into two blah…. Blah……..blah I know that there  is many question in your brain so forget the past and cross the limit of the universe but how you are going to do this, I have an idea so check it. To make a tunnel we need to collect matter of heavy mass (like matter of dwarf star) and gather it into a particular place of very small area so that the mass of that area reaches to the square of inter cosmic force. That’s not easy because even black hole have a mass of inter cosmic force. Means we are creating a black hole in front of us this is too dangerous.
Ok let check with a standstill black hole which is too away from us, if we provide it energy more and more so its mass increases and one day its mass increases to square of intercosmic force.
This idea is also too dangerous because we need to create a super massive black hole near us. This problem is solved by wormhole if we create a wormhole and make a super massive black hole very far means trillions of light year far so it is solved but it give rise to another two problems they are-
How gather enough matter to open wormhole again and again
It is too dangerous to open a wormhole in front of a super massive black hole.
Ok we talk about first problem later but first talk about second problem. We cannot open a wormhole near black hole(super massive) because super massive black hole create too much distortion that affect wormhole and change its way or prevent its mouth to open because a wormhole need continuous equal and opposite energy from whatever it is crossing. Simply we need to give it energy equal to that super massive black hole and once again the first problem will rise.
Now a final trick and this is perfectly working. We need a super massive black hole naturally formed like black hole in the centre of galaxies. Ok but now there’s a twist we didn’t need to open a wormhole in surrounding or very far we need to open a wormhole inside a black hole seems difficult and tricky but that is easy. Because we need to give wormhole an enormous amount of energy for a while not even for a complete quantum second.
It is working on the basis of combine energy whenever we open a wormhole inside a black hole we create a super massive nova tunnel for a while because of enormous and combine energy of both tunnels (it only work with super massive black holes)
But how we are going to gather enough negative energy to open it a while so wait for next series.


Friday, 13 May 2016

What is time?
Everything is in motion in the universe nothing is stable. Every object travel to infinity in their life but what is life. A life is continuous motion time didn't understand so take the example of a seed as time pass it grow larger and more larger and finally collapse because cells inside it loses energy due reactions inside which is due to motion inside the atoms of cell so simply life is continuous motion of time now what is time. Time means continuous motion of any object on space time whatever it is a subatomic particle inside atom or a black hole due to distortion, attraction, repulsion or by other force is called time I think you still not understand so again take example of growing seed inside that seed chemical, physical and biological reactions take place which provide it motion not vertical nor horizontal but motion in form of energy which help him to grow on time and that is time. The parallel motion of any object on space time due to any force is called time. So what happen and what do you mean by time the travel. Answer is simple time travel means travelling faster than space time once again you didn’t understand so take the example of seed again the chemical, physical and biological reaction take place inside the seed, a farmer mix fertilizer to the soil in which seed is settled to speed up the reactions and seed grow faster and eventually do time travel so here seed is object reactions are motion and fertilizer is energy which is applied on space time which eventually take us to travel in time. I think you not understand yet so just start from the beginning. Both the cosmos is continuously moving at a constant speed which we called cosmic time (at large level). When a certain object in any cosmic travel faster than cosmic plate or space time is called time traveling or see the diagram below

Sunday, 8 May 2016

Facts about Wormhole

                Facts about wormhole
Fact 1- The notion if teleportation of wormhole which create shortcut in space time is false. Wormhole connect two points in universe at same distance in which they are it not creates any short cut.
Fact2-Wormhole tunnel bend towards right due to effect of inter cosmic force applied on it this make it a perfect tunnel to travel in one cosmos.
Fact3-The wormhole tunnel collapse quickly if not get continuous energy supply of Exotic matter.
Fact4-The Casmir of two wormholes make it perfect to time travel using its Mechanics.
Fact5- A wormhole cannot apply force equal to inter cosmic force but it still act as a tunnel.

Saturday, 7 May 2016

Inter galactic gap

                                                                  Inter galactic gap
Introduction-
So you came to this part means you seen my theory of multivesre. In that I explained that there is a parallel cosmos which is parallel to us and made of antimatter. The parallel cosmos is divided from us from a gap called inter galactic gap. This gap is a pure vacuum and universe get contract inside it. It generally not has any particle but particle enter in it through quantum tunnels. This place is not suitable for particles because of immense inter cosmic force. Both the cosmic plate exert inter cosmic force on each other (see inter cosmic force theory for brief). The inter galactic gap also exert equal and opposite force to change back the shape of cosmic plates. If this not happen so there are event horizons created in every place with enormous distortion. In this theory we start from what is really an inter galactic gap. So let from the diagram for understanding what it is?
What it is?
Inter galactic gap is gap which distinguish two cosmos and prevent them from contact with each other. This gap is theoretically possible but mathematically it likes impossible, but from idea of multiverse it is possible.
If two cosmos come to an contact the anti matter and matter energy try to eliminate each other’s energy which destroy every matter in one of the cosmos but I don't know which cosmos collapse. So this gap also helpful to distinguish to cosmos it applies equal and opposite to maintain shape of both cosmic plate and prevent them from contact. But it cannot completely eliminate the force and energy by parallel cosmos which is called dark energy. Our cosmos also exert force on parallel cosmos (but large amount of force and energy only of tunnels) eliminated by the anti matter because of negative and more powerful energy fields and charge.

Facts-
Every tunnel is pass through the inter galactic gap. The force applied by the gap contract the universe inside the tunnel which make tunnel narrow and create 4 d inside the tunnel, see the diagram.   Also the force applied by inter galactic gap is a reason of collapse of wormhole instantly preventing light to pass through completely. This problem is solved by Casmir effect. For more see mechanics of wormhole.

Black hole get contract due to this force but black hole get continuous energy by absorbing object and energy which help it to stay open and the opposite force by the parallel cosmos generate enormous force in the core or see the diagram.  

Super massive tunnel also get collapse in a quantum second because of force applied by inter galactic gap but it contract only from throat because it generate energy which is square of inter cosmic force.

Proves of presence-

The presence of dark energy around us which also create mysterious distortion which sometimes repels or attract object mysteriously.
This is left energy in the form of distortion escaped by inter galactic gap due to heavy mass objects of parallel cosmos.
Unexplained frequencies which came from distortions inside intergalactic gap due to parallel cosmos. These frequencies are generally of reaction inside the heavy mass objects like star, tunnels, etc of parallel cosmos. These frequencies are of longer in wavelength and some of them escape through the inter galactic gap.
The parallel cosmos which is made of antimatter cannot react with our cosmos matter.
The creation of 4D, 5D and 6D inside tunnels. (As like in interstellar movie)
The contraction of universe or space time inside tunnels.
The bending of wormhole tunnel towards right and act like perfect tunnel to travel through only one cosmos without any force. It is fastest way of motion (for more see mechanics of wormhole).


Inter cosmic force

                                                             Inter cosmic force
We came too far with my theories but stop come back to theory of multiversity is anything still there to understand. Yes, the terms inter cosmic force. Ok so in previous theories that there is a parallel cosmos which is parallel to us. The spacetime having inter galactic gap between both the cosmos which prevent them to collide, but why both cosmos parallel? Why they do not collide with each other? Why the do not move apart from each other so all these questions will clear in this part.
Our universe is divided in two cosmos- one is ours and other is parallel. Both the cosmos exerts force on each other to maintain shape of cosmic plate and have inter galactic gap between them. In this theory we start from what is inter cosmic force and end with the cosmic law. The force which cosmic plate exerts on each other is called inter cosmic force. In simple see the diagram-
                                              
 (Inter cosmic force is NM)
This force is equally distributed in all of the cosmos and it is not concentrated on a single point because if this happen so all the matter get attracting to a single point and collide with each other which is let the big bang explosion once again.
This force is equal in every part of the cosmos.
This force is also equal to maximum distortion by black hole. Also if we won’t to time travels we have to beat inter cosmic force because time travel means traveling faster than space time.
Simply,
If we won’t to interlock cosmos so we have to put two wormholes together as like theory of cosmic equivalence.
Mathematical proof-
So first we have to find energy expansion rate means we have to find energy released during big bang by,
E=Age of universe(in s)Speed of light
Here we taken speed of light because universe is expanding at the speed of light
Age of Universe [A] = 13.799 billion years
                                  = 72328838400000000000 sec (Approx)
=72328838400000000000300000000
                         = 24109612.8 Joule/sec
Now,
Force=mass×acceleration
Means we have to find mass of the universe
Acceleration =Final velocityTime taken = 3000000001 = 300000000 m/sec
Hence,
Nm=E×A×c×M×a
Equilibrium-
Both the cosmic plate are in equilibrium state as like in thermodynamics means one of the cosmic plate if bent towards another so inter galactic gap apply equal and opposite force to change back the shape of the cosmic plate and make them cosmic equal. For simple explanation read below,
 Every object in the universe exert force on each other cosmos but the force is eliminated because inter galactic gap apply equal and opposite force on both cosmos. (But some of the force escapes through the gap) The inter galactic gap maintain a parallel shape of both cosmic plate from which they cannot come into contact. Inter galactic gap apply perpendicular force on both cosmic plate. The force applied by inter galactic gap to maintain parallel shape is called equilibrium force law of cosmos. That equilibrium is essential for both cosmos because from this they maintain parallel structure and prevent large distortion to form like event horizon of black hole everywhere. Simply equilibrium is equal state in physics as like that equilibrium between cosmos means equal state between the two cosmos. See the diagram below,
Law of cosmos-
The law of cosmos says that the opposite cosmos apply equal and opposite force on another cosmos to change back the shape of cosmic plate just like third law of Newton. If a cosmos not apply equal and opposite inter cosmic force so distortion will create in every region of both the cosmos which collapse both. See the diagram below,

                                         
Proves of presence of inter cosmic force-
Unknown distortions which we think that it is of black or heavily massed structures.

The limitation of speed to speed of light but beaten if generate energy equal to inter cosmic force which is possible in future but don’t forget every second is future.

The continuous motion of objects in universe parallel to cosmic plate. The continuous motion of object on space time is called time. Everything on the universe is continuous moving nothing is stable. When we travel faster than space time so we travel in time which we called time travel or simply traveling faster than the certain object speed limit. The continuous motion of the cosmic plates against each other is called cosmic time which is as like time but a large level. When we do time travel faster we had to travel than light means we have to beat inter cosmic force.

Unidentified attraction.

Super massive explosion and unknown collapse of certain area.

The opposite motion of parallel cosmos.

The parallel structure of cosmic plates.




Theory of Blackhole

                                       THEORY OF BLACK HOLE
About-
   
  Simulation of gravitational lensing by a black hole, which distorts the image of a galaxy in the background.


A black hole is a region of space time exhibiting such strong gravitational effects that nothing—including particles and electromagnetic radiation such as light—can escape from inside it. The theory of general relativity predicts that a sufficiently compact mass can deform spacetime to form a black hole. The boundary of the region from which no escape is possible is called the event horizon. Although crossing the event horizon has enormous effect on the fate of the object crossing it, it appears to have no locally detectable features. In many ways a black hole acts like an ideal black body, as it reflects no light. Moreover, quantum field theory in curved spacetime predicts that event horizons emit Hawking radiation, with the same spectrum as a black body of a temperature inversely proportional to its mass. This temperature is on the order of billionths of a Kelvin for black holes of stellar mass, making it essentially impossible to observe. Objects whose gravitational fields are too strong for light to escape were first considered in the 18th century by John Michell and Pierre-Simon Laplace. The first modern solution of general relativity that would characterize a black hole was found by Karl Schwarzschild in 1916, although its interpretation as a region of space from which nothing can escape was first published by David Finkelstein in 1958. Black holes were long considered a mathematical curiosity; it was during the 1960s that theoretical work showed they were a generic prediction of general relativity. The discovery of neutron stars sparked interest in gravitationally collapsed compact objects as a possible astrophysical reality.
Black holes of stellar mass are expected to form when very massive stars collapse at the end of their life cycle. After a black hole has formed, it can continue to grow by absorbing mass from its surroundings. By absorbing other stars and merging with other black holes, supermassive black holes of millions of solar masses (M☉) may form. There is general consensus that supermassive black holes exist
Parts of black hole-
A black hole generally has three parts:-
Event horizon
Core
Beyond
A black hole absorbs anything in its way.



Event horizon-
Around a black hole there is a mathematically defined region called an event horizon that marks the point of no return.
In general relativity, an event horizon is a boundary in space time beyond which events cannot affect an outside observer. Despite its invisible interior, the presence of a black hole can be inferred through its interaction with other matter and with electromagnetic radiation such as visible light. Matter that falls onto a black hole can form an external accretion disk heated by friction, forming some of the brightest objects in the universe. If there are other stars orbiting a black hole, their orbits can be used to determine the black hole's mass and location. Such observations can be used to exclude possible alternatives such as neutron stars. In this way, astronomers have identified numerous stellar black hole candidates in binary systems, and established that the radio source known as Sagittarius A*, at the core of our own Milky Way galaxy, contains a supermassive black hole of about 4.3 million solar masses maybe this is a myth.
In simple event horizon is a space of maximum distortion. Black holes create two distortion layers namely:-
Event horizon( area of maximum distortion)
Outer disc( area of less distortion)
In event horizon the distortion is equally close to core of the intergalactic frictional gap so intergalactic frictional gap also apply force to change back the shape of space time and from that force matter’s molecular bond start breaking and from the maximum distortion the matter could not escape from the event horizon.
Means if space ship has to escape it has to travel perpendicular to the space time with energy more than or close to speed of light. For more see the given diagram of event horizon.


Outer disc layer is region of less distortion which have distortion equal to an average star. So when anything enter in this region it start moving in parabolic path and centrifugal force through the energy generate provide it momentum to keep going in motion. To escape from this disc a space ship had to travel parallel to space time with energy more than the distortion.
To find the area of event horizon use this equation-
M×nmℷc
Here,
M = mass of black hole
nm= inter cosmic force
ℷc= wavelength of light (it is constant value of zero level distortion)

To find the mass of black hole-
a1-a2×nmℷc
Here,
a1= Area of black hole
a2= area of event horizon
Core-
A black hole exerts pressure on space time (through which it generates enormous distortion) which is close to inter cosmic force.
Black hole core also exerts pressure which bound the space time. Through Newton’s law that every action has an equal and opposite reaction, opposite cosmos also exerts pressure on black hole core thus generating enormous energy in the core.

For simple explanation see the diagram given below

To find the force in core of black hole use the given formula
a×nm
Here,
a = area of black hole
nm = inter cosmic force
Now a question is that why black hole act like a tunnel with a small opening nor like wormhole or like super massive nova tunnel ?
Answer is simple in the part beyond the limit I explained you that parallel cosmos is made of antimatter so all the energy which exerted by our cosmos is eliminated by the parallel cosmos. One black hole generate energy which is equal to inter cosmic force so our cosmos exerting double the force on parallel cosmos but the antimatter eliminate the extra energy and absorb it so parallel cosmos still exert constant force but inter galactic gap cannot contain anti matter so it exerts equal and opposite force to the opening so a tunnel like structure is formed due to energy distortions. For simple see the diagram below,







Beyond the black hole-
After passing through a black hole we enter in a new cosmos which is parallel to us which means it is made of antimatter. To explore in that cosmos we have to cover the spaceship with negative energy field. The parallel cosmos is parallel to ous so there is no speed limitation so we easily travel in speed of light easily because in parallel cosmos there is no force exerting on us. In our universe dark energy affect us and work like friction. It was due to black holes of parallel cosmos. But in the parallel cosmos there is no force exerting on us because the energy field of anti matter eliminate the dark energy which is exerted by our cosmos.
In parallel cosmos universal gravitational constant is also different so the mass of our body is also different there. There is new species of animals with different life compounds and we travel faster planet to planet because there is no speed limitation.
But there are some challenges that we have to beat to pass through the black hole-
  To pass through the black hole we have to eliminate the force of the                   core which is equal to inter cosmic force. So we have to travel faster than speed of light. (when we travel faster than light we generate energy more than inter cosmic force)
At the end of the black hole there is a small opening which is root of the area of black hole. But due to inter cosmic force the accuracy of space ship is difficult to pass through the hole.
      - We also have to continuously travel faster than speed of light between the enormous distortions.
      - The end of the black hole is connected to parallel cosmos as super massive nova hole.
And if we have to come back we need to face same challenges but there is one easy thing there we can easily gain the speed of light.
But we have to find the black hole of perfect size because smaller the black hole smaller the opening larger the black hole more energy required to pass through.
Now let the journey begin to new cosmos.
Summary –
A black hole is a region of space time exhibiting such strong gravitational effects that nothing—including particles and electromagnetic radiation such as light—can escape from inside it.
A black hole generally has three parts:-
Event horizon
Core
Beyond
Around a black hole there is a mathematically defined region called an event horizon that marks the point of no return.
In event horizon the distortion is equally close to core of the intergalactic frictional gap so intergalactic frictional gap also apply force to change back the shape of space time.
Black hole core also exerts pressure which bound the space time. Through Newton’s law that every action has an equal and opposite reaction, opposite cosmos also exerts pressure on black hole core thus generating enormous energy in the core.
One black hole generate energy which is equal to inter cosmic force so our cosmos exerting double the force on parallel cosmos but the antimatter eliminate the extra energy and absorb it so parallel cosmos still exert constant force but inter galactic gap cannot contain anti matter so it exerts equal and opposite force to the opening so a tunnel like structure is formed due to energy distortions.
After passing through a black hole we enter in a new cosmos which is parallel to us which means it is made of antimatter.
To pass through the black hole we have to eliminate the force of the                   core which is equal to inter cosmic force. So we have to travel faster than speed of light.
The end of the black hole is connected to parallel cosmos as super massive nova hole.











Challenge to today’s physics-
A black hole is a region of space time exhibiting such strong gravitational effects that nothing—including particles and electromagnetic radiation such as light—can escape from inside it.[1] The theory of general relativity predicts that a sufficiently compact mass can deform spacetime to form a black hole.[2][3] The boundary of the region from which no escape is possible is called the event horizon. Although crossing the event horizon has enormous effect on the fate of the object crossing it, it appears to have no locally detectable features. In many ways a black hole acts like an ideal black body, as it reflects no light.[4][5] Moreover, quantum field theory in curved spacetime predicts that event horizons emit Hawking radiation, with the same spectrum as a black body of a temperature inversely proportional to its mass. This temperature is on the order of billionths of a kelvin for black holes of stellar mass, making it essentially impossible to observe.
Objects whose gravitational fields are too strong for light to escape were first considered in the 18th century by John Michell and Pierre-Simon Laplace. The first modern solution of general relativity that would characterize a black hole was found by Karl Schwarzschild in 1916, although its interpretation as a region of space from which nothing can escape was first published by David Finkelstein in 1958. Black holes were long considered a mathematical curiosity; it was during the 1960s that theoretical work showed they were a generic prediction of general relativity. The discovery of neutron stars sparked interest in gravitationally collapsed compact objects as a possible astrophysical reality.
Black holes of stellar mass are expected to form when very massive stars collapse at the end of their life cycle. After a black hole has formed, it can continue to grow by absorbing mass from its surroundings. By absorbing other stars and merging with other black holes, supermassive black holes of millions of solar masses (M☉) may form. There is general consensus that supermassive black holes exist in the centers of most galaxies.
Despite its invisible interior, the presence of a black hole can be inferred through its interaction with other matter and with electromagnetic radiation such as visible light. Matter that falls onto a black hole can form an external accretion disk heated by friction, forming some of the brightest objects in the universe. If there are other stars orbiting a black hole, their orbits can be used to determine the black hole's mass and location. Such observations can be used to exclude possible alternatives such as neutron stars. In this way, astronomers have identified numerous stellar black hole candidates in binary systems, and established that the radio source known as Sagittarius A*, at the core of our own Milky Way galaxy, contains a super massive black hole of about 4.3 million solar masses.
On 11 February 2016, the LIGO collaboration announced the first observation of gravitational waves; because these waves were generated from a black hole merger it was the first ever direct detection of a binary black hole merge[
Properties and structure
The no-hair theorem states that, once it achieves a stable condition after formation, a black hole has only three independent physical properties: mass, charge, and angular momentum.[33] Any two black holes that share the same values for these properties, or parameters, are indistinguishable according to classical (i.e. non-quantum) mechanics.
These properties are special because they are visible from outside a black hole. For example, a charged black hole repels other like charges just like any other charged object. Similarly, the total mass inside a sphere containing a black hole can be found by using the gravitational analog of Gauss's law, the ADM mass, far away from the black hole.[clarification needed][39] Likewise, the angular momentum can be measured from far away using frame dragging by the gravitomagnetic field.[clarification needed]
When an object falls into a black hole, any information about the shape of the object or distribution of charge on it is evenly distributed along the horizon of the black hole, and is lost to outside observers. The behavior of the horizon in this situation is a dissipative system that is closely analogous to that of a conductive stretchy membrane with friction and electrical resistance—the membrane paradigm.[40] This is different from other field theories such as electromagnetism, which do not have any friction or resistivity at the microscopic level, because they are time-reversible. Because a black hole eventually achieves a stable state with only three parameters, there is no way to avoid losing information about the initial conditions: the gravitational and electric fields of a black hole give very little information about what went in. The information that is lost includes every quantity that cannot be measured far away from the black hole horizon, including approximately conserved quantum numbers such as the total baryon number and lepton number. This behavior is so puzzling that it has been called the black hole information loss paradox.[41][42]
Physical properties

A simple illustration of a non-spinning black hole
The simplest static black holes have mass but neither electric charge nor angular momentum. These black holes are often referred to as Schwarzschild black holes after Karl Schwarzschild who discovered this solution in 1916.[12] According to Birkhoff's theorem, it is the only vacuum solution that is spherically symmetric.[43] This means that there is no observable difference between the gravitational field of such a black hole and that of any other spherical object of the same mass. The popular notion of a black hole "sucking in everything" in its surroundings is therefore only correct near a black hole's horizon; far away, the external gravitational field is identical to that of any other body of the same mass.[44]
Solutions describing more general black holes also exist. Non-rotating charged black holes are described by the Reissner–Nordström metric, while the Kerr metric describes a non-charged rotating black hole. The most general stationary black hole solution known is the Kerr–Newman metric, which describes a black hole with both charge and angular momentum.[45]
While the mass of a black hole can take any positive value, the charge and angular momentum are constrained by the mass. In Planck units, the total electric charge Q and the total angular momentum J are expected to satisfy

for a black hole of mass M. Black holes satisfying this inequality are called extremal. Solutions of Einstein's equations that violate this inequality exist, but they do not possess an event horizon. These solutions have so-called naked singularities that can be observed from the outside, and hence are deemed unphysical. The cosmic censorship hypothesis rules out the formation of such singularities, when they are created through the gravitational collapse of realistic matter.[2] This is supported by numerical simulations.[46]
Due to the relatively large strength of the electromagnetic force, black holes forming from the collapse of stars are expected to retain the nearly neutral charge of the star. Rotation, however, is expected to be a common feature of compact objects. The black-hole candidate binary X-ray source GRS 1915+105[47] appears to have an angular momentum near the maximum allowed value.
Black hole classifications
Class Mass Size
Supermassive black hole
~105–1010 MSun
~0.001–400 AU

Intermediate-mass black hole
~103 MSun ~103 km ≈ REarth

Stellar black hole
~10 MSun ~30 km
Micro black hole
up to ~MMoon
up to ~0.1 mm
Black holes are commonly classified according to their mass, independent of angular momentum J or electric charge Q. The size of a black hole, as determined by the radius of the event horizon, or Schwarzschild radius, is roughly proportional to the mass M through

where rsh is the Schwarzschild radius and MSun is the mass of the Sun.[48] This relation is exact only for black holes with zero charge and angular momentum; for more general black holes it can differ up to a factor of 2.
Event horizon
Main article: Event horizon

Far away from the black hole, a particle can move in any direction, as illustrated by the set of arrows. It is only restricted by the speed of light.

Closer to the black hole, spacetime starts to deform. There are more paths going towards the black hole than paths moving away.[Note 1]


Inside of the event horizon, all paths bring the particle closer to the center of the black hole. It is no longer possible for the particle to escape.
The defining feature of a black hole is the appearance of an event horizon—a boundary in spacetime through which matter and light can only pass inward towards the mass of the black hole. Nothing, not even light, can escape from inside the event horizon. The event horizon is referred to as such because if an event occurs within the boundary, information from that event cannot reach an outside observer, making it impossible to determine if such an event occurred.[50]
As predicted by general relativity, the presence of a mass deforms spacetime in such a way that the paths taken by particles bend towards the mass.[51] At the event horizon of a black hole, this deformation becomes so strong that there are no paths that lead away from the black hole.
To a distant observer, clocks near a black hole appear to tick more slowly than those further away from the black hole.[52] Due to this effect, known as gravitational time dilation, an object falling into a black hole appears to slow as it approaches the event horizon, taking an infinite time to reach it.[53] At the same time, all processes on this object slow down, from the view point of a fixed outside observer, causing any light emitted by the object to appear redder and dimmer, an effect known as gravitational redshift.[54] Eventually, the falling object becomes so dim that it can no longer be seen.
On the other hand, indestructible observers falling into a black hole do not notice any of these effects as they cross the event horizon. According to their own clocks, which appear to them to tick normally, they cross the event horizon after a finite time without noting any singular behaviour; it is impossible to determine the location of the event horizon from local observations.[55]
The shape of the event horizon of a black hole is always approximately spherical.[Note 2][58] For non-rotating (static) black holes the geometry of the event horizon is precisely spherical, while for rotating black holes the sphere is oblate.
Singularity
Main article: Gravitational singularity
At the center of a black hole, as described by general relativity, lies a gravitational singularity, a region where the spacetime curvature becomes infinite.[59] For a non-rotating black hole, this region takes the shape of a single point and for a rotating black hole, it is smeared out to form a ring singularity that lies in the plane of rotation.[60] In both cases, the singular region has zero volume. It can also be shown that the singular region contains all the mass of the black hole solution.[61] The singular region can thus be thought of as having infinite density.
Observers falling into a Schwarzschild black hole (i.e., non-rotating and not charged) cannot avoid being carried into the singularity, once they cross the event horizon. They can prolong the experience by accelerating away to slow their descent, but only up to a limit; after attaining a certain ideal velocity, it is best to free fall the rest of the way.[62] When they reach the singularity, they are crushed to infinite density and their mass is added to the total of the black hole. Before that happens, they will have been torn apart by the growing tidal forces in a process sometimes referred to as spaghettification or the "noodle effect".[63]
In the case of a charged (Reissner–Nordström) or rotating (Kerr) black hole, it is possible to avoid the singularity. Extending these solutions as far as possible reveals the hypothetical possibility of exiting the black hole into a different spacetime with the black hole acting as a wormhole.[64] The possibility of traveling to another universe is however only theoretical, since any perturbation would destroy this possibility.[65] It also appears to be possible to follow closed timelike curves (returning to one's own past) around the Kerr singularity, which lead to problems with causality like the grandfather paradox.[66] It is expected that none of these peculiar effects would survive in a proper quantum treatment of rotating and charged black holes.[67]
The appearance of singularities in general relativity is commonly perceived as signaling the breakdown of the theory.[68] This breakdown, however, is expected; it occurs in a situation where quantum effects should describe these actions, due to the extremely high density and therefore particle interactions. To date, it has not been possible to combine quantum and gravitational effects into a single theory, although there exist attempts to formulate such a theory of quantum gravity. It is generally expected that such a theory will not feature any singularities.[69][70]
Photon sphere
Main article: Photon sphere
The photon sphere is a spherical boundary of zero thickness in which photons that move on tangents to that sphere would be trapped in a circular orbit about the black hole. For non-rotating black holes, the photon sphere has a radius 1.5 times the Schwarzschild radius. Their orbits would be dynamically unstable, hence any small perturbation, such as a particle of infalling matter, would cause an instability that would grow over time, either setting the photon on an outward trajectory causing it to escape the black hole, or on an inward spiral where it would eventually cross the event horizon.[71]
While light can still escape from the photon sphere, any light that crosses the photon sphere on an inbound trajectory will be captured by the black hole. Hence any light that reaches an outside observer from the photon sphere must have been emitted by objects between the photon sphere and the event horizon.[71]
Other compact objects, such as neutron stars, can also have photon spheres.[72] This follows from the fact that the gravitational field external to a spherically-symmetric object is governed by the Schwarzschild metric, which depends only on the object's mass rather than the radius of the object, hence any object whose radius shrinks to smaller than 1.5 times the Schwarzschild radius will have a photon sphere.
Ergosphere
Main article: Ergosphere

The ergosphere is an oblate spheroid region outside of the event horizon, where objects cannot remain stationary.
Rotating black holes are surrounded by a region of spacetime in which it is impossible to stand still, called the ergosphere. This is the result of a process known as frame-dragging; general relativity predicts that any rotating mass will tend to slightly "drag" along the spacetime immediately surrounding it. Any object near the rotating mass will tend to start moving in the direction of rotation. For a rotating black hole, this effect is so strong near the event horizon that an object would have to move faster than the speed of light in the opposite direction to just stand still.[73]
The ergosphere of a black hole is a volume whose inner boundary is the black hole's event horizon and an outer boundary of an oblate spheroid, which coincides with the event horizon at the poles but noticeably wider around the equator. The outer boundary is sometimes called the ergosurface.
Objects and radiation can escape normally from the ergosphere. Through the Penrose process, objects can emerge from the ergosphere with more energy than they entered. This energy is taken from the rotational energy of the black hole causing the latter to slow.[74]
Innermost stable circular orbit (ISCO)
Main article: Innermost stable circular orbit
In Newtonian gravity, test particles can stably orbit at arbitrary distances from a central object. In general relativity, however, there exists an innermost stable circular orbit (often called the ISCO), inside of which, any infinitesimal perturbations to a circular orbit will lead to inspiral into the black hole.[75] The location of the ISCO depends on the spin of the black hole, in the case of a Schwarzschild black hole (spin zero) is:

and decreases with increasing spin.
Formation and evolution
Considering the exotic nature of black holes, it may be natural[clarification needed] to question if such bizarre objects could exist in nature or to suggest that they are merely pathological solutions to Einstein's equations. Einstein himself wrongly thought that black holes would not form, because he held that the angular momentum of collapsing particles would stabilize their motion at some radius.[76] This led the general relativity community to dismiss all results to the contrary for many years. However, a minority of relativists continued to contend that black holes were physical objects,[77] and by the end of the 1960s, they had persuaded the majority of researchers in the field that there is no obstacle to the formation of an event horizon.
Once an event horizon forms, Penrose proved, a singularity will form within.[34] Shortly afterwards, Hawking showed that many cosmological solutions that describe the Big Bang have singularities without scalar fields or other exotic matter (see "Penrose–Hawking singularity theorems").[clarification needed] The Kerr solution, the no-hair theorem, and the laws of black hole thermodynamics showed that the physical properties of black holes were simple and comprehensible, making them respectable subjects for research.[78] The primary formation process for black holes is expected to be the gravitational collapse of heavy objects such as stars, but there are also more exotic processes that can lead to the production of black holes.
Gravitational collapse
Main article: Gravitational collapse
Gravitational collapse occurs when an object's internal pressure is insufficient to resist the object's own gravity. For stars this usually occurs either because a star has too little "fuel" left to maintain its temperature through stellar nucleosynthesis, or because a star that would have been stable receives extra matter in a way that does not raise its core temperature. In either case the star's temperature is no longer high enough to prevent it from collapsing under its own weight.[79] The collapse may be stopped by the degeneracy pressure of the star's constituents, allowing the condensation of matter into an exotic denser state. The result is one of the various types of compact star. The type of compact star formed depends on the mass of the remnant of the original star left after the outer layers have been blown away. Such explosions, from a supernova explosion or by pulsations, leads to planetary nebula. Note that this mass can be substantially less than the original star. Remnants exceeding 5 M☉ are produced by stars that were over 20 M☉ before the collapse.[79]
If the mass of the remnant exceeds about 3–4 M☉ (the Tolman–Oppenheimer–Volkoff limit[21]), either because the original star was very heavy or because the remnant collected additional mass through accretion of matter, even the degeneracy pressure of neutrons is insufficient to stop the collapse. No known mechanism (except possibly quark degeneracy pressure, see quark star) is powerful enough to stop the implosion and the object will inevitably collapse to form a black hole.[79]
The gravitational collapse of heavy stars is assumed to be responsible for the formation of stellar mass black holes. Star formation in the early universe may have resulted in very massive stars, which upon their collapse would have produced black holes of up to 103 M☉. These black holes could be the seeds of the supermassive black holes found in the centers of most galaxies.[80]
While most of the energy released during gravitational collapse is emitted very quickly, an outside observer does not actually see the end of this process. Even though the collapse takes a finite amount of time from the reference frame of infalling matter, a distant observer would see the infalling material slow and halt just above the event horizon, due to gravitational time dilation. Light from the collapsing material takes longer and longer to reach the observer, with the light emitted just before the event horizon forms delayed an infinite amount of time. Thus the external observer never sees the formation of the event horizon; instead, the collapsing material seems to become dimmer and increasingly red-shifted, eventually fading away.[81]
Primordial black holes in the Big Bang
Gravitational collapse requires great density. In the current epoch of the universe these high densities are only found in stars, but in the early universe shortly after the big bang densities were much greater, possibly allowing for the creation of black holes. The high density alone is not enough to allow the formation of black holes since a uniform mass distribution will not allow the mass to bunch up. In order for primordial black holes to form in such a dense medium, there must be initial density perturbations that can then grow under their own gravity. Different models for the early universe vary widely in their predictions of the size of these perturbations. Various models predict the creation of black holes, ranging from a Planck mass to hundreds of thousands of solar masses.[82] Primordial black holes could thus account for the creation of any type of black hole.[clarification needed]
High-energy collisions

A simulated event in the CMS detector, a collision in which a micro black hole may be created.
Gravitational collapse is not the only process that could create black holes. In principle, black holes could be formed in high-energy collisions that achieve sufficient density. As of 2002, no such events have been detected, either directly or indirectly as a deficiency of the mass balance in particle accelerator experiments.[83] This suggests that there must be a lower limit for the mass of black holes. Theoretically, this boundary is expected to lie around the Planck mass (mP = √ħc/G ≈ 1.2×1019 GeV/c2 ≈ 2.2×10−8 kg), where quantum effects are expected to invalidate the predictions of general relativity.[84] This would put the creation of black holes firmly out of reach of any high-energy process occurring on or near the Earth. However, certain developments in quantum gravity suggest that the Planck mass could be much lower: some braneworld scenarios for example put the boundary as low as 1 TeV/c2.[85] This would make it conceivable for micro black holes to be created in the high-energy collisions that occur when cosmic rays hit the Earth's atmosphere, or possibly in the Large Hadron Collider at CERN. These theories are very speculative, and the creation of black holes in these processes is deemed unlikely by many specialists.[86] Even if micro black holes could be formed, it is expected that they would evaporate in about 10−25 seconds, posing no threat to the Earth.[87]
Growth
Once a black hole has formed, it can continue to grow by absorbing additional matter. Any black hole will continually absorb gas and interstellar dust from its surroundings and omnipresent cosmic background radiation. This is the primary process through which supermassive black holes seem to have grown.[80] A similar process has been suggested for the formation of intermediate-mass black holes found in globular clusters.[88]
Another possibility for black hole growth, is for a black hole to merge with other objects such as stars or even other black holes. Although not necessary for growth, this is thought to have been important, especially for the early development of supermassive black holes, which could have formed from the coagulation of many smaller objects.[80] The process has also been proposed as the origin of some intermediate-mass black holes.[89][90]
Evaporation
Main article: Hawking radiation
In 1974, Hawking predicted that black holes are not entirely black but emit small amounts of thermal radiation;[37] this effect has become known as Hawking radiation. By applying quantum field theory to a static black hole background, he determined that a black hole should emit particles that display a perfect black body spectrum. Since Hawking's publication, many others have verified the result through various approaches.[91] If Hawking's theory of black hole radiation is correct, then black holes are expected to shrink and evaporate over time as they lose mass by the emission of photons and other particles.[37] The temperature of this thermal spectrum (Hawking temperature) is proportional to the surface gravity of the black hole, which, for a Schwarzschild black hole, is inversely proportional to the mass. Hence, large black holes emit less radiation than small black holes.[92]
A stellar black hole of 1 M☉ has a Hawking temperature of about 100 nanokelvins. This is far less than the 2.7 K temperature of the cosmic microwave background radiation. Stellar-mass or larger black holes receive more mass from the cosmic microwave background than they emit through Hawking radiation and thus will grow instead of shrink.[citation needed] To have a Hawking temperature larger than 2.7 K (and be able to evaporate), a black hole would need a mass less than the Moon. Such a black hole would have a diameter of less than a tenth of a millimeter.[93]
If a black hole is very small, the radiation effects are expected to become very strong. Even a black hole that is heavy compared to a human would evaporate in an instant. A black hole with the mass of a car would have a diameter of about 10−24 m and take a nanosecond to evaporate, during which time it would briefly have a luminosity of more than 200 times that of the Sun. Lower-mass black holes are expected to evaporate even faster; for example, a black hole of mass 1 TeV/c2 would take less than 10−88 seconds to evaporate completely. For such a small black hole, quantum gravitation effects are expected to play an important role and could hypothetically make such a small black hole stable, although current developments in quantum gravity do not indicate so.[94][95]
The Hawking radiation for an astrophysical black hole is predicted to be very weak and would thus be exceedingly difficult to detect from Earth. A possible exception, however, is the burst of gamma rays emitted in the last stage of the evaporation of primordial black holes. Searches for such flashes have proven unsuccessful and provide stringent limits on the possibility of existence of low mass primordial black holes.[96] NASA's Fermi Gamma-ray Space Telescope launched in 2008 will continue the search for these flashes.[97]
Observational evidence
Gas cloud ripped apart by black hole at the centre of the Milky Way.[98]
By their very nature, black holes do not directly emit any electromagnetic radiation other than the hypothetical Hawking radiation, so astrophysicists searching for black holes must generally rely on indirect observations. For example, a black hole's existence can sometimes be inferred by observing its gravitational interactions with its surroundings. However, the Event Horizon Telescope (EHT), run by MIT's Haystack Observatory, is an attempt to directly observe the immediate environment of the event horizon of Sagittarius A*, the black hole at the centre of the Milky Way. The first image of the event horizon may appear as early as 2016.[99] The existence of magnetic fields just outside the event horizon of Sagittarius A*, which were predicted by theoretical studies of black holes, was confirmed by the EHT in 2015.[100][101]
Detection of gravitational waves from merging black holes
On 24 September 2015 the LIGO gravitational wave observatory made the first-ever successful observation of gravitational waves.[6][102] The signal was consistent with theoretical predictions for the gravitational waves produced by the merger of two black holes: one with about 36 solar masses, and the other around 29 solar masses.[6][103] This observation provides the most concrete evidence for the existence of black holes to date. For instance, the gravitational wave signal suggests that the separation of the two object prior to merger was just 350 km (or roughly 4 times the Schwarzschild radius corresponding to the inferred masses). The objects must therefore have been extremely compact, leaving black holes as the most plausible interpretation.[6]
More importantly, the signal observed by LIGO also included the start of the post-merger ringdown, the signal produced as the newly formed compact object settles down to a stationary state. Arguably, the ringdown is the most direct way of observing a black hole.[104] From the LIGO signal it is possible to extract the frequency and damping time of the dominant mode of the ringdown. From these it is possible to infer the mass and angular momentum of the final object, which match independent predictions from numerical simulations of the merger.[105] The frequency and decay time of the dominant mode are determined by the geometry of the photon sphere. Hence, observation of this mode confirms the presence of a photon sphere, however it cannot exclude possible exotic alternatives to black holes that are compact enough to have a photon sphere.[104]
The observation also provides the first observational evidence for the existence of stellar-mass black hole binaries. Furthermore, it is the first observational evidence of stellar-mass black holes weighing 25 solar masses or more.[106]










                                       
       Thank you

Thursday, 5 May 2016

Mechanics of Wormhole

                                                        Mechanics of wormhole
Introduction-
The basic notion of an intra universe wormhole is that it is a compact region of space time whose boundary is topologically trivial but whose interior is not simply connected.  A wormhole or Einstein–Rosen bridge is a hypothetical topological feature that would fundamentally be a shortcut connecting two separate points in space time.
Characterizing inter universe wormholes is more difficult. For example, one can imagine a ‘baby’ universe connected to its ‘parent’ by a narrow ‘umbilici. One might like to regard the umbilicus as the throat of a wormhole, but the space time is simply connected.
Albert Einstein and his colleague Nathan Rosen in 1953 discovered a solution that Schwarzschild wormholes are bridges between areas of space that can be modeled vacuum solution to the Einstein field equation by combining models of a black hole and a white hole. The Schwarzschild wormhole, which would be present in the Schwarzschild metric describing an eternal black hole, but it was found that it would collapse too quickly for anything to cross from one end to the other. Wormholes that could be crossed in both directions, known as traversable wormholes
While Schwarzschild wormholes are not traversable, their existence inspired kip throne to imagine traversable wormholes created by holding the ‘throat’ of Schwarzschild wormhole open with exotic matter (material that has negative mass/energy). Researchers have no observational evidence for wormholes, but the equations of the theory of general relativity have valid solutions that contain wormholes.
The American theoretical physicist John Archibald Wheeler coined the term wormhole in 1957; the German mathematician Hermann Weyl, however, had proposed the wormhole theory in 1921, in connection with mass analysis of electromagnetic field energy.[12]
This analysis forces one to consider situations... where there is a net flux of lines of force, through what topologists would call "a handle" of the multiply-connected space, and what physicists might perhaps be excused for more vividly terming a "wormhole".
In above paragraphs you read that many researches happened on wormhole and many hypothesis were formed I also done research on wormholes that you study below. In this research we start from the beginning means what is wormhole and in the end I explain you how to use them for teleportation and time travel.
What is wormhole?
All of us know wormhole connect two parts of universe together and act like teleport able tunnel which create a shortcut between space times but this is not true (you will read more in another section). A wormhole is as like simple tunnel which connect two parts of universe through the inter galactic gap. A wormhole is much like a tunnel with two ends, each at separate points in space time.
For a simplified notion of a wormhole, space can be visualized as a two-dimensional (2D) surface. In this case, a wormhole would appear as a hole in that surface, lead into a 3D tube (the inside surface of a cylinder), then re-emerge at another location on the 2D surface with a hole similar to the entrance. An actual wormhole would be analogous to this, but with the spatial dimensions rose by one. For example, instead of circular holes on a 2D plane, the entry and exit points could be visualized as spheres in 3D space.
 To know about inter galactic gap see the diagram
 Journey through it-
We think that wormhole make journey short between two universes short but this is not true it connect two parts at equal distance in which they are in universe. The impossibility of faster-than-light relative speed only applies locally. Wormholes might allow effective superluminal (faster-than-light) travel by ensuring that the speed of light is not exceeded locally at any time. While traveling through a wormhole, superluminal (slower-than-light) speeds are used. If two points are connected by a wormhole whose length is equal to the distance between them outside the wormhole, the time taken to traverse it could be less than the time it would take a light beam to make the journey if it took a path through the space outside the wormhole. However, a light beam traveling through the wormhole would of course beat the traveler.
 But we travel faster because it pass through inter galactic gap which is stable (not moving constantly like cosmos) so inside a wormhole we have no effect of time on us and also inside there is not a single force exerting on us means it is completely open not even a single force exerting on us so we travel ∞  time faster than light means we complete a journey (inside wormhole) in just a quantum second. When we come out wormhole we enter in a universe which is constantly moving and again connect to same time where we left the universe in simple see the diagram,

Note: wormhole cannot open in inter cosmos
           The diagram shown is only of one universe
So inside a wormhole we see following effect-
No effect of time on us
No force exerting on us
No speed limitation
We travel ∞ times faster than light (based on power of our engine)
After getting outside a wormhole it is illusion that we think that we teleported but we travel the same distance.
See the diagram,

Also wormholes are not stable so they need continuous energy to stay open and if they close and the traveler is inside it so the traveler will never come back in the universe.
Wormhole tunnel-
A wormhole is not act like tunnel as like black hole or super massive tunnel because it cannot generate energy more than or equal to inter cosmic force. So when wormhole open it exert combine energy with cosmic plate means more the force on parallel plate and from the third law of Newton parallel cosmos also exert equal and opposite force to create equilibrium and as wormhole is a tunnel so it bend towards right. Don’t forget that wormhole tunnel is in inter galactic gap so inter galactic gap also exerts force on them
(which is a reason of collapsing a wormhole faster than light) which collapse them so wormhole need continuous energy supply of exotic matter which help wormhole to exert equal force to stay open. Also due to these extreme forces the space inside wormhole gets smaller. For simple explanation see the diagram below,

Or for 2D explanation see the diagram below,
How wormholes open naturally?
A wormhole cannot generate energy more than inter cosmic force but it generates energy not so far from inter cosmic constant means it generate energy between 1.74382×1021  but not equal to inter cosmic constant.
A wormhole open when energy of certain object at any place reaches to or above 1.74382×1021(if more than or equal to 6.3×1082it will become black hole). Take an example of a star (which explode) they are heavily massed so when they explode the energy level reach above1.74382×1021   so they turn into wormhole. These wormhole collapses quickly and not even allow light to successfully pass through them but they left electromagnetic radiation behind. These electromagnetic radiations start their journey to infinity. If we detect these radiation so we find weak areas in space time but we never reach to them when they are weak due some reasons-
The weak areas get cure a soon as light pass through them
Due to speed limitation we can’t reach to them because these area collapse faster than light.
So we came to conclusion that naturally formed wormhole is not for time traveling and teleportation.
How to supply energy to wormhole?
To prevent wormhole from collapsing and stay open it need continuous energy supply of exotic matter so we need help of Casmir effect see the diagrams below,
 Wormholes that could be crossed in both directions, known as traversable wormholes, would only be possible if exotic matter with negative energy density could be used to stabilize them. Wormholes are also a very powerful mathematical metaphor for teaching general relativity.
The Casimir effect shows that quantum field theory allows the energy density in certain regions of space to be negative relative to the ordinary vacuum energy, and it has been shown theoretically that quantum field theory allows states where energy can be arbitrarily negative at a given point. Many physicists, such as Stephen Hawking, Kip Thorne and others, therefore argue that such effects might make it possible to stabilize a traversable wormhole. Physicists have not found any natural process that would be predicted to form a wormhole naturally in the context of general relativity, although the quantum foam hypothesis is sometimes used to suggest that tiny wormholes might appear and disappear spontaneously at the Planck scale, and stable versions of such wormholes have been suggested as dark matter candidates. It has also been proposed that, if a tiny wormhole held open by a negative mass cosmic string had appeared around the time of the Big Bang, it could have been inflated to macroscopic size by cosmic inflation.
So from this negative energy fields we travel through the wormhole completely and it cannot collapse in half.
Coordinate setting-
To find the coordinate of mouth of wormhole use the given formula below,
Ec+nm-nm+E△E
Here Ec= combine energy of a wormhole
nm= Inter cosmic force
△E= Energy applied by inter cosmic force
E= Energy of wormhole
So the answer is the light year value from the origin of opening.
Now some important points,
                                                       E=∆E
Here E is for energy of wormhole and ∆E is for the force applied by inter galactic gap
l=∆l
Here l is for length between two points in space time and ∆l is length between two points inside wormhole tunnel.
Time travel using wormhole-
(Theory of cosmic equivalence)
The viral method of time travel is to traveling from speed of light but there is also another method use of cosmic equivalence. In this method both the cosmos is inters locked together and move under our control to travel in past and future. This work is simply done by two wormholes. If two wormholes put in front of each other they apply force on each other which lock two cosmos together with force equal to inter cosmic force. Through this if one of the wormholes is move to any of the direction our cosmos also move with that wormhole thus the same effect like time traveling. (For detail information see below)
For simple explanation see the diagram:-
The whole energy by two wormholes is given by,
E=Ec+nm-nm+E△E+Ec+nm-nm+E△E
This energy is more than intercosmic force so the equilibrium of certain place gets affected. Another wormhole is act like negative density tunnel (a tunnel with negative energy wall) because of Casmir effect between the two wormhole and combine with parallel cosmos due to negative energy density and the 1st wormhole still connect with our cosmos create an equilibrium which cure the shape of inter galactic gap. Now if we move the wormhole which is connected to our cosmos (positive energy density) so change the cosmic time which affect our time so we travel in future. If we move the wormhole with negative energy density so it again affect the cosmic time but in opposite side so we travel in past or see the diagram below,
We can move one wormhole by attracting it by opposite energy density matter.
This time traveling event will last longer till the Casmir effect of both wormholes if we want to make it forever so we need to generate Casmir effect in both the wormhole continuously so they work perfectly (means stay connected with cosmic plates).
Challenge to today’s Physics-
Schwarzschild wormholes
An artist's impression of a wormhole from an observer's perspective, crossing the event horizon of a Schwarzschild wormhole that bridges two different universes. The observer originates from the right, and another universe becomes visible in the center of the wormhole’s shadow once the horizon is crossed, the observer seeing light that has fallen into the black hole interior region from the other universe; however, this other universe is unreachable in the case of a Schwarzschild wormhole, as the bridge always collapses before the observer has time to cross it, and everything that has fallen through the event horizon of either universe is inevitably crushed in the singularity.
Lorentzian wormholes known as Schwarzschild wormholes or Einstein–Rosen bridges are connections between areas of space that can be modeled as vacuum solutions to the Einstein field equations, and that are now understood to be intrinsic parts of the maximally extended version of the Schwarzschild metric describing an eternal black hole with no charge and no rotation. Here, "maximally extended" refers to the idea that the space-time should not have any "edges": it should be possible to continue this path arbitrarily far into the particle's future or past for any possible trajectory of a free-falling particle (following a Geodesic in the spacetime), unless the trajectory hits a gravitational singularity like the one at the center of the black hole's interior. In order to satisfy this requirement, it turns out that in addition to the black hole interior region that particles enter when they fall through the event horizon from the outside, there must be a separate white hole interior region that allows us to extrapolate the trajectories of particles that an outside observer sees rising up away from the event horizon. And just as there are two separate interior regions of the maximally extended spacetime, there are also two separate exterior regions, sometimes called two different "universes", with the second universe allowing us to extrapolate some possible particle trajectories in the two interior regions. This means that the interior black hole region can contain a mix of particles that fell in from either universe (and thus an observer who fell in from one universe might be able to see light that fell in from the other one), and likewise particles from the interior white hole region can escape into either universe. All four regions can be seen in a spacetime diagram that uses Kruskal–Szekeres coordinates.
In this spacetime, it is possible to come up with coordinate systems such that if you pick a hyper surface of constant time (a set of points that all have the same time coordinate, such that every point on the surface has a space-like separation, giving what is called a 'space-like surface') and draw an "embedding diagram" depicting the curvature of space at that time, the embedding diagram will look like a tube connecting the two exterior regions, known as an "Einstein–Rosen bridge". Note that the Schwarzschild metric describes an idealized black hole that exists eternally from the perspective of external observers; a more realistic black hole that forms at some particular time from a collapsing star would require a different metric. When the infalling stellar matter is added to a diagram of a black hole's history, it removes the part of the diagram corresponding to the white hole interior region, along with the part of the diagram corresponding to the other universe.[13]
The Einstein–Rosen bridge was discovered by Ludwig Flamm[14] in 1916, a few months after Schwarzschild published his solution, and was rediscovered (although it is hard to imagine that Einstein had not seen Flamm's paper when it came out) by Albert Einstein and his colleague Nathan Rosen, who published their result in 1935. However, in 1962, John A. Wheeler and Robert W. Fuller published a paper showing that this type of wormhole is unstable if it connects two parts of the same universe, and that it will pinch off too quickly for light (or any particle moving slower than light) that falls in from one exterior region to make it to the other exterior region.
According to general relativity, the gravitational collapse of a sufficiently compact mass forms a singular Schwarzschild black hole. In the Einstein–Cartan–Sciama–Kibble theory of gravity, however, it forms a regular Einstein–Rosen bridge. This theory extends general relativity by removing a constraint of the symmetry of the affine connection and regarding its antisymmetric part, the torsion tensor, as a dynamical variable. Torsion naturally accounts for the quantum-mechanical, intrinsic angular momentum (spin) of matter. The minimal coupling between torsion and Dirac spinors generates a repulsive spin–spin interaction that is significant in fermionic matter at extremely high densities. Such an interaction prevents the formation of a gravitational singularity. Instead, the collapsing matter reaches an enormous but finite density and rebounds, forming the other side of the bridge.
Before the stability problems of Schwarzschild wormholes were apparent, it was proposed that quasars were white holes forming the ends of wormholes of this type.
Although Schwarzschild wormholes are not traversable in both directions, their existence inspired Kip Thorne to imagine traversable wormholes created by holding the "throat" of a Schwarzschild wormhole open with exotic matter (material that has negative mass/energy).
Traversable wormholes

Image of a simulated traversable wormhole that connects the square in front of the physical institutes of University of Tubingen with the sand dunes near Boulogne sur Mer in the north of France. The image is calculated with 4D ray tracing in a Morris–Thorne wormhole metric, but the gravitational effects on the wavelength of light have not been simulated.[17]
Lorentzian traversable wormholes would allow travel in both directions from one part of the universe to another part of that same universe very quickly or would allow travel from one universe to another. The possibility of traversable wormholes in general relativity was first demonstrated by Kip Thorne and his graduate student Mike Morris in a 1988 paper. For this reason, the type of traversable wormhole they proposed, held open by a spherical shell of exotic matter, is referred to as a Morris–Thorne wormhole. Later, other types of traversable wormholes were discovered as allowable solutions to the equations of general relativity, including a variety analyzed in a 1989 paper by Matt Visser, in which a path through the wormhole can be made where the traversing path does not pass through a region of exotic matter. However, in the pure Gauss–Bonnet gravity (a modification to general relativity involving extra spatial dimensions which is sometimes studied in the context of brane cosmology) exotic matter is not needed in order for wormholes to exist—they can exist even with no matter. A type held open by negative mass cosmic strings was put forth by Visser in collaboration with Cramer et al., in which it was proposed that such wormholes could have been naturally created in the early universe.
Wormholes connect two points in spacetime, which means that they would in principle allow travel in time, as well as in space. In 1988, Morris, Thorne and Yurtsever worked out explicitly how to convert a wormhole traversing space into one traversing time. However, according to general relativity, it would not be possible to use a wormhole to travel back to a time earlier than when the wormhole was first converted into a time machine by accelerating one of its two mouths.
Time travel-
The theory of general relativity predicts that if traversable wormholes exist, can also alter the speed of time. They could allow time travel. This would be accomplished by accelerating one end of the wormhole to a high velocity relative to the other, and then sometime later bringing it back; relativistic time dilation would result in the accelerated wormhole mouth aging less than the stationary one as seen by an external observer, similar to what is seen in the twin paradox. However, time connects differently through the wormhole than outside it, so that synchronized clocks at each mouth will remain synchronized to someone traveling through the wormhole itself, no matter how the mouths move around. This means that anything which entered the accelerated wormhole mouth would exit the stationary one at a point in time prior to its entry.
For example, consider two clocks at both mouths both showing the date as 2000. After being taken on a trip at relativistic velocities, the accelerated mouth is brought back to the same region as the stationary mouth with the accelerated mouth's clock reading 2004 while the stationary mouth's clock read 2012. A traveler who entered the accelerated mouth at this moment would exit the stationary mouth when its clock also read 2004, in the same region but now eight years in the past. Such a configuration of wormholes would allow for a particle's world line to form a closed loop in spacetime, known as a closed timelike curve. An object traveling through a wormhole could carry energy or charge from one time to another, but this would not violate conservation of energy or charge in each time, because the energy/charge of the wormhole mouth itself would change to compensate for the object that fell into it or emerged from it.
It is thought that it may not be possible to convert a wormhole into a time machine in this manner; the predictions are made in the context of general relativity, but general relativity does not include quantum effects. Analyses using the semiclassical approach to incorporating quantum effects into general relativity have sometimes indicated that a feedback loop of virtual particles would circulate through the wormhole and pile up on themselves, driving the energy density in the region very high and possibly destroying it before any information could be passed through it, in keeping with the chronology protection conjecture. The debate on this matter is described by Kip S. Thorne in the book Black Holes and Time Warps, and a more technical discussion can be found in The quantum physics of chronology protection by Matt Visser.[27] There is also the Roman ring, which is a configuration of more than one wormhole. This ring seems to allow a closed time loop with stable wormholes when analyzed using semiclassical gravity, although without a full theory of quantum gravity it is uncertain whether the semiclassical approach is reliable in this case.
Interuniversal travel
A possible resolution to the paradoxes resulting from wormhole-enabled time travel rests on the many-worlds interpretation of quantum mechanics. In 1991 David Deutsch showed that quantum theory is fully consistent (in the sense that the so-called density matrix can be made free of discontinuities) in spacetimes with closed timelike curves. However, later it was shown that such model of closed timelike curve can have internal inconsistencies as it will lead to strange phenomena like distinguishing non orthogonal quantum states and distinguishing proper and improper mixture. Accordingly, the destructive positive feedback loop of virtual particles circulating through a wormhole time machine, a result indicated by semi-classical calculations, is averted. A particle returning from the future does not return to its universe of origination but to a parallel universe. This suggests that a wormhole time machine with an exceedingly short time jump is a theoretical bridge between contemporaneous parallel universes. Because a wormhole time-machine introduces a type of nonlinearity into quantum theory, this sort of communication between parallel universes is consistent with Joseph Polchinski’s discovery of an "Everett phone" in Steven Weinberg’s formulation of nonlinear quantum mechanics. Such a possibility is depicted in the science-fiction 2014 movie Interstellar.
Summary-
A wormhole is as like simple tunnel which connect two parts of universe through the inter galactic gap.
Wormhole connects two parts at equal distance in which they are in universe it is not a teleport able tunnel.
Inside wormhole we travel ∞  time faster than light.
A wormhole cannot generate energy more than inter cosmic force.
A wormhole open when energy of certain object at any place reaches to or above 3.1×1041(if more than or equal to 6.3×1082it will become black hole).
Wormholes collapses quickly and not even allow light to successfully pass through them but they left electromagnetic radiation behind.
To prevent wormhole from collapsing and stay open it need continuous energy supply of exotic matter.
Some important equation,
                                                 E=∆E
Here E is for energy of wormhole and ∆E is for the force applied by inter galactic gap
l=∆l
Here l is for length between two points in space time and ∆l is length between two points inside wormhole tunnel.