The universe is the name we have given to the vastness of everything we know and don’t know. At the time when individuals could not determine the limits of the sky above them, they called it generic. Since the first use of the word, the universe has had various effects, aspects and fixtures. We are currently at a time when we believe that we are in the most advanced stages of the discovery of the universe. We also believe that we keep the latest innovations to test them in space with types of equipment to understand more than our predecessors. So what is the universe really like? What is its size and how huge is it in its expansion? I have no idea how big it is, but I don’t think it’s as big as we think.
The main component used to evaluate the universe and its elements is the size of things. The distances between the components are so large that we modified them to involve light over a long time as distance estimators. Everyone understands what a light year means. The light can disappear in a year. Light travel is much more than a moment to reach the moon. There are specific numbers and I prefer not to be too logical, so the idea redirects to recipes.
There is one thing that everyone seems to be missing in ratings. Stars have a lifespan. The lifespan of a star generally depends on its solar mass. They can range from a few million years to a few billion years. If a star on the other side of the perceived universe arose, light would begin to travel from that point forward. In the event that we fix the lifetime of this particular star, we can visualize when the star will stop producing light. In addition, we determine how long it will take the light to reach us due to the distance between us and the star.
How about setting the lifespan of this particular star at 100 billion years? That means that after 100 billion years, the star will not exist. We should fix a chapter on the star. Suppose it is 100 billion light years away. A hundred billion light years may seem like a huge distance, but it is an exceptionally normal distance in the universe. With these two uncertainties, what we can be sure of is that when the main lights of the star reach our eyes or telescopes, we will see the star raw but it is active, and not a star at all. When we see the brightest light coming out of the star’s explosion as it breaks up, the star has been extinguished for a hundred billion years. why? Because it took a hundred billion years for light to reach us and when we see that light, 100 billion years have passed since the event occurred.
Not only do we see things that aren’t there, but we also don’t see things that are there. Imagine starlight coming from a very bright star to Earth from 100 light years away. For now, if it wasn’t too much trouble, imagine a planet the size of a giant body starting to pass through Earth from a similar path. Can you imagine what would happen supposing that the priceless body were arranged with the light directed towards the Earth? The light will go to us anyway and then there is a fancy object on the light bar that prevents the rest of the light bar from coming to us. Will we see the priceless body? No, we won’t. On the basis that we will see the star anyway because all we get is starlight. Assuming the massive object blocked light two light years from Earth, it would take two years to see that infinite object. Also, it’s not just light and the perception of telescopes. Whatever you use and whatever ray you look for, you still won’t see the body because the light from that body hasn’t contacted you. If that object is approaching at the speed of light, when you understand that there is something, that object is actually close to you.