Gravitational lensing and black holes can uncover the secret of dark matter and maybe also dark energy.

But let's start with hyperdrives. 

When energy travels in the particle, it increases its speed, or the particle accelerates. At the point in the acceleration track where a particle reaches energy stability, it delivers as much energy, as it gets from outside. And, at that point, acceleration ends. When energy starts to transfer out from the particle its speed decreases. 

In some models, the laser beam will aim to the point where the particle's speed is as close to the speed of light as possible. When that beam crosses the road of the particle, it will reach a higher speed than the speed of light.  Another version is that the quantum thermal pump will pull energy out from the internal structure of the particle. In that model, the quantum-size laser ray will send through the particle. 

So if there made a lower energy channel in the particle. That thing can turn energy travel inside the particle when it reaches the speed of light. 

In that model, the hyperdrive is the laser ray or ion beam that travels through the spacecraft. That kind of system makes the craft lower energy or colder. And then that system pulls energy out from the craft's shell. That thing makes it possible. That energy travels in it longer than in regular cases. 

The black hole pulls energy or a quantum field inside it. 

A black hole is an extremely powerful object that pulls particles inside it. And researchers hope that black holes can uncover the secrets of dark energy. There is the theory. That the black holes form whirls that cause friction or interaction between WIMPs (Weakly Interactive Massive Particles). 

And those whirls are the source of dark energy. And the thing is that kinds of models are always as good as other models until they are proven wrong. Researchers hope that the gravitational waves of black holes and kilonova explosions push the dark matter so dense that it can interact with visible material. 

The problem with a black hole is that pulls its environment inside it. That thing causes a situation. That particles act like the cork in the river. In that case, the interaction between the particle and the field that transfers it to the black hole is weak. Or otherwise thinking, the particle will not send visible wave movement as much as usual. The waves that that particle sends act like waves in the river when somebody drops a cork in the flow. 

That means the material doesn't act around black holes as it should act in a normal universe. So when we are modeling that material turns shorter when it reaches the speed of light, we are using a model. That is not suitable in the black hole and curvature universe. At least if there is something that makes the curve or gravitational pothole at the front of the traveling object. 

When a particle travels in a normal universe it faces the quantum field. That quantum field acts like air in the molecular world. It pushes the particle flat when it reaches the speed of light. The black hole will stretch that object. But there is one thing that people always forget when they are talking about the black hole and its interaction with its environment. Quantum fields near black holes are not static. 

Black holes pull the quantum fields or Higgs field in them. And that thing forms a situation where the particle travels into the black hole with the quantum field that travels like a river. So the virtual speed near the black hole is lower than it seems from outside that gravitational effect. That thing will push the object to form that looks like spaghetti. 

In some models, if some person sits in a spacecraft that reaches the speed of light that person sees that the universe turns smaller. The fact is that is the result of time dilation. But also the object's size turn smaller, and its shell turns larger in comparison to its internal structures. 

The light cone is the thing that shows the problem that a particle faces when it reaches the speed of light. The particle must press itself through the light wall. 

Then we can return to thinking about the particle's behavior when it closes to the speed of light in the normal universe. At first, the particle turns flat, and then it starts to create a pothole in the universe. 

Very fast-traveling particles form the pothole or channel behind them. The quantum field acts like water and when something very fast travels in it, it creates a channel behind it. That is similar to what a bullet makes in the air. So light travels behind that particle faster than outside that channel. 

And if there is some kind of light wave or light string that impacts the particle from backward it can make the situation where the particle will compress. If the superstring or extremely thin light string travels through the particle it acts like a thermal pump. That thermal pump transports energy out from the particle. And it also decreases the quantum pressure in it. That allows it to make a situation where the energy continues to travel in the particle.