Black hole black hole can not spread faster than light and can not escape from the black hole, so light can be escaped from gravity with high density object. Roughly speaking, a black hole is a spatial region where a lot of masses are concentrated so that nearby objects can not escape from gravity. Our current best gravity theory is Einstein's general relativity theory, so we have to learn more about black holes by digging down some of the results of this theory and considering the gravity in fairly simple cases . Part 1 of the 4 part series series on black holes. In this section we define what a black hole is and go back to the beginning of the black hole study and show how physicists can agree on the presence of these strange objects. Part 2 explains the role of the black hole in the galaxy and how the invisible object will be the brightest in the universe. In Part 3, we will explain how astronomers use the most complex observatory to observe black holes. Part 4 enters a strange aspect of black hole science: how these objects challenge our basic physics theory Astrophysicist Jedidah Isler is studying a black hole with excessive mass and overactivity. These objects waste material at a thousand times faster than the average super mass black hole. They draw material through an accretion disk rotating around a black hole and then eject it through an ejector moving at 99.99% light speed. When these jets point to the earth, we call them Super Mass, Overactive Black Hole, which produces their Mars or hot quasars. Isler is trying to understand the direction and location of the highest energy light generated by the injector and how this energy is transmitted through the Milky Way LIGO's black hole is twelve times the mass of the sun. However, astronomers believe that super mass black holes must also collide. That is how the universe forms the biggest quality black hole. However, the gravitational wave generated by the super mass black hole pair has a wavelength that is too large to be seen in LIGO. I returned to the radio telescope. Astronomers recognize that gravitational waves can affect the very fast rotating core of pulsar pulses. Pulsar is one of the most accurate watches in the universe. Pulsar can deliver radio waves because radio waves that emit radio waves arrive as expected. Using a pulsar pair that separates the light of many years in the Milky Way, radio astronomers can look for signs of gravitational waves that affect pulses.

The black hole proved that the black holes are not very invincible; they can emit radiation, and hence the quality of scattering (by E = MC 2). The calculation shows that black holes should emit particles and radiation as if the temperature is a high temperature body that depends solely on the mass of the black hole, which is inversely proportional: the higher the mass of the black hole Its temperature is low. Part 1 of the 4 part series series on black holes. In this section we define what a black hole is and go back to the beginning of the black hole study and show how physicists can agree on the presence of these strange objects. Part 2 explains the role of the black hole in the galaxy and how the invisible object will be the brightest in the universe. In Part 3, we will explain how astronomers use the most complex observatory to observe black holes. Part 4 enters a strange aspect of black hole science: how these objects challenge our basic physics theory Astrophysicist Jedidah Isler is studying a black hole with excessive mass and overactivity. These objects waste material at a thousand times faster than the average super mass black hole. They draw material through an accretion disk rotating around a black hole and then eject it through an ejector moving at 99.99% light speed. When these jets point to the earth, we call them Super Mass, Overactive Black Hole, which produces their Mars or hot quasars. Isler is trying to understand the direction and location of the highest energy light generated by the injector and how this energy is transmitted through the Milky Way LIGO's black hole is twelve times the mass of the sun. However, astronomers believe that super mass black holes must also collide. That is how the universe forms the biggest quality black hole. However, the gravitational wave generated by the super mass black hole pair has a wavelength that is too large to be seen in LIGO. I returned to the radio telescope. Astronomers recognize that gravitational waves can affect the very fast rotating core of pulsar pulses. Pulsar is one of the most accurate watches in the universe. Pulsar can deliver radio waves because radio waves that emit radio waves arrive as expected. Using a pulsar pair that separates the light of many years in the Milky Way, radio astronomers can look for signs of gravitational waves that affect pulses.

Black hole Every day we see the night sky, I know something outside our planet and I want to dream. The universe where we live is so diverse and unique that I am interested in understanding all the differences we have. In this miracle miracle, there are complications when studying and exploring the principle of the universe, so there is a mystery we can not understand in our universe. This mystery is an elusive black hole. Part 1 of the 4 part series series on black holes. In this section we define what a black hole is and go back to the beginning of the black hole study and show how physicists can agree on the presence of these strange objects. Part 2 explains the role of the black hole in the galaxy and how the invisible object will be the brightest in the universe. In Part 3, we will explain how astronomers use the most complex observatory to observe black holes. Part 4 enters a strange aspect of black hole science: how these objects challenge our basic physics theory Astrophysicist Jedidah Isler is studying a black hole with excessive mass and overactivity. These objects waste material at a thousand times faster than the average super mass black hole. They draw material through an accretion disk rotating around a black hole and then eject it through an ejector moving at 99.99% light speed. When these jets point to the earth, we call them Super Mass, Overactive Black Hole, which produces their Mars or hot quasars. Isler is trying to understand the direction and location of the highest energy light generated by the injector and how this energy is transmitted through the Milky Way LIGO's black hole is twelve times the mass of the sun. However, astronomers believe that super mass black holes must also collide. That is how the universe forms the biggest quality black hole. However, the gravitational wave generated by the super mass black hole pair has a wavelength that is too large to be seen in LIGO. I returned to the radio telescope. Astronomers recognize that gravitational waves can affect the very fast rotating core of pulsar pulses. Pulsar is one of the most accurate watches in the universe. Pulsar can deliver radio waves because radio waves that emit radio waves arrive as expected. Using a pulsar pair that separates the light of many years in the Milky Way, radio astronomers can look for signs of gravitational waves that affect pulses.

Black holes are one of many of the universe, and scientists still have a deep understanding about this. However, as technology continues to advance, we can understand more than the past. Today, the only way to observe these wonderful objects is to look for radiation from the surrounding gas. What are these? A black hole is nothing but a star in danger of extinction 2 A star considered as "Al" becomes our sun. Since the sun still generates energy by converting hydrogen to helium, it is considered "effective". When a star runs out of hydrogen it begins its death process. Part 1 of the 4 part series series on black holes. In this section we define what a black hole is and go back to the beginning of the black hole study and show how physicists can agree on the presence of these strange objects. Part 2 explains the role of the black hole in the galaxy and how the invisible object will be the brightest in the universe. In Part 3, we will explain how astronomers use the most complex observatory to observe black holes. Part 4 enters a strange aspect of black hole science: how these objects challenge our basic physics theory Astrophysicist Jedidah Isler is studying a black hole with excessive mass and overactivity. These objects waste material at a thousand times faster than the average super mass black hole. They draw material through an accretion disk rotating around a black hole and then eject it through an ejector moving at 99.99% light speed. When these jets point to the earth, we call them Super Mass, Overactive Black Hole, which produces their Mars or hot quasars. Isler is trying to understand the direction and location of the highest energy light generated by the injector and how this energy is transmitted through the Milky Way LIGO's black hole is twelve times the mass of the sun. However, astronomers believe that super mass black holes must also collide. That is how the universe forms the biggest quality black hole. However, the gravitational wave generated by the super mass black hole pair has a wavelength that is too large to be seen in LIGO. I returned to the radio telescope. Astronomers recognize that gravitational waves can affect the very fast rotating core of pulsar pulses. Pulsar is one of the most accurate watches in the universe. Pulsar can deliver radio waves because radio waves that emit radio waves arrive as expected. Using a pulsar pair that separates the light of many years in the Milky Way, radio astronomers can look for signs of gravitational waves that affect pulses.

If the ontology is a reality, the black hole is the most powerful in the known physical universe. Many people are familiar with the term black hole, but few people actually understand them. A black hole is formed due to a number of stars exhausting fuel (Chaisson, 193). When the star no longer exerts an outward force through the combustion gas it begins to collapse under its own strong inward gravity (Chaisson, 193). It is like slowly extracting air from the balloon. Part 1 of the 4 part series series on black holes. In this section we define what a black hole is and go back to the beginning of the black hole study and show how physicists can agree on the presence of these strange objects. Part 2 explains the role of the black hole in the galaxy and how the invisible object will be the brightest in the universe. In Part 3, we will explain how astronomers use the most complex observatory to observe black holes. Part 4 enters a strange aspect of black hole science: how these objects challenge our basic physics theory Astrophysicist Jedidah Isler is studying a black hole with excessive mass and overactivity. These objects waste material at a thousand times faster than the average super mass black hole. They draw material through an accretion disk rotating around a black hole and then eject it through an ejector moving at 99.99% light speed. When these jets point to the earth, we call them Super Mass, Overactive Black Hole, which produces their Mars or hot quasars. Isler is trying to understand the direction and location of the highest energy light generated by the injector and how this energy is transmitted through the Milky Way LIGO's black hole is twelve times the mass of the sun. However, astronomers believe that super mass black holes must also collide. That is how the universe forms the biggest quality black hole. However, the gravitational wave generated by the super mass black hole pair has a wavelength that is too large to be seen in LIGO. I returned to the radio telescope. Astronomers recognize that gravitational waves can affect the very fast rotating core of pulsar pulses. Pulsar is one of the most accurate watches in the universe. Pulsar can deliver radio waves because radio waves that emit radio waves arrive as expected. Using a pulsar pair that separates the light of many years in the Milky Way, radio astronomers can look for signs of gravitational waves that affect pulses.

Black hole American scientist John Wheeler, in 1969 used the term "black hole" for the first time, even light can not escape it, it can not be seen or blackened could not. John Michel extended this idea with a paper titled "Philosophical Transactions of the Royal Society of London". There he pointed out that a sufficiently large and compact star would have it. Part 1 of the 4 part series series on black holes. In this section we define what a black hole is and go back to the beginning of the black hole study and show how physicists can agree on the presence of these strange objects. Part 2 explains the role of the black hole in the galaxy and how the invisible object will be the brightest in the universe. In Part 3, we will explain how astronomers use the most complex observatory to observe black holes. Part 4 enters a strange aspect of black hole science: how these objects challenge our basic physics theory Astrophysicist Jedidah Isler is studying a black hole with excessive mass and overactivity. These objects waste material at a thousand times faster than the average super mass black hole. They draw material through an accretion disk rotating around a black hole and then eject it through an ejector moving at 99.99% light speed. When these jets point to the earth, we call them Super Mass, Overactive Black Hole, which produces their Mars or hot quasars. Isler is trying to understand the direction and location of the highest energy light generated by the injector and how this energy is transmitted through the Milky Way LIGO's black hole is twelve times the mass of the sun. However, astronomers believe that super mass black holes must also collide. That is how the universe forms the biggest quality black hole. However, the gravitational wave generated by the super mass black hole pair has a wavelength that is too large to be seen in LIGO. I returned to the radio telescope. Astronomers recognize that gravitational waves can affect the very fast rotating core of pulsar pulses. Pulsar is one of the most accurate watches in the universe. Pulsar can deliver radio waves because radio waves that emit radio waves arrive as expected. Using a pulsar pair that separates the light of many years in the Milky Way, radio astronomers can look for signs of gravitational waves that affect pulses.

The black hole exists only in our Milky Way and there are millions of stars. There are millions of galaxies in our universe. For the sake of the eyes, humans already know the existence of stars. Although the explanation may be different from those differences, they are always considered to be empty white sparkling points, but this mystery is not what we can see but what we see It is not possible. There are billions of stars illuminating the darkness of our universe, but the problem is what happens when one of these huge lights burns. Part 1 of the 4 part series series on black holes. In this section we define what a black hole is and go back to the beginning of the black hole study and show how physicists can agree on the presence of these strange objects. Part 2 explains the role of the black hole in the galaxy and how the invisible object will be the brightest in the universe. In Part 3, we will explain how astronomers use the most complex observatory to observe black holes. Part 4 enters a strange aspect of black hole science: how these objects challenge our basic physics theory Astrophysicist Jedidah Isler is studying a black hole with excessive mass and overactivity. These objects waste material at a thousand times faster than the average super mass black hole. They draw material through an accretion disk rotating around a black hole and then eject it through an ejector moving at 99.99% light speed. When these jets point to the earth, we call them Super Mass, Overactive Black Hole, which produces their Mars or hot quasars. Isler is trying to understand the direction and location of the highest energy light generated by the injector and how this energy is transmitted through the Milky Way LIGO's black hole is twelve times the mass of the sun. However, astronomers believe that super mass black holes must also collide. That is how the universe forms the biggest quality black hole. However, the gravitational wave generated by the super mass black hole pair has a wavelength that is too large to be seen in LIGO. I returned to the radio telescope. Astronomers recognize that gravitational waves can affect the very fast rotating core of pulsar pulses. Pulsar is one of the most accurate watches in the universe. Pulsar can deliver radio waves because radio waves that emit radio waves arrive as expected. Using a pulsar pair that separates the light of many years in the Milky Way, radio astronomers can look for signs of gravitational waves that affect pulses.

The theory of the existence of black holes is not new. Their idea was first introduced when Pastor John Michelle applied Newton's gravity theory in 1783 and predicted the possibility of so-called "dark stars". Albert Einstein 's theory of relativity is predicted by Schwarzschild in 1915. In 1967, these were renamed "black holes". A black hole is an object (usually a star) that collapses, becoming invisible, having nothing to gravitate, even light can escape from the surface. Part 1 of the 4 part series series on black holes. In this section we define what a black hole is and go back to the beginning of the black hole study and show how physicists can agree on the presence of these strange objects. Part 2 explains the role of the black hole in the galaxy and how the invisible object will be the brightest in the universe. In Part 3, we will explain how astronomers use the most complex observatory to observe black holes. Part 4 enters a strange aspect of black hole science: how these objects challenge our basic physics theory Astrophysicist Jedidah Isler is studying a black hole with excessive mass and overactivity. These objects waste material at a thousand times faster than the average super mass black hole. They draw material through an accretion disk rotating around a black hole and then eject it through an ejector moving at 99.99% light speed. When these jets point to the earth, we call them Super Mass, Overactive Black Hole, which produces their Mars or hot quasars. Isler is trying to understand the direction and location of the highest energy light generated by the injector and how this energy is transmitted through the Milky Way LIGO's black hole is twelve times the mass of the sun. However, astronomers believe that super mass black holes must also collide. That is how the universe forms the biggest quality black hole. However, the gravitational wave generated by the super mass black hole pair has a wavelength that is too large to be seen in LIGO. I returned to the radio telescope. Astronomers recognize that gravitational waves can affect the very fast rotating core of pulsar pulses. Pulsar is one of the most accurate watches in the universe. Pulsar can deliver radio waves because radio waves that emit radio waves arrive as expected. Using a pulsar pair that separates the light of many years in the Milky Way, radio astronomers can look for signs of gravitational waves that affect pulses.

Stars, comets, planets, when you look up at our atmosphere, they are all visible. Even if you say there is something invisible, what if you have 500 times more gravity than our sun? An object that can instantly swallow the entire earth. An object that can steal light from thin air. These objects are more powerful than artificial objects. Black holes are the most popular and unknown objects in the scientific community. A black hole is a spatial region where a large amount of material is packed so that an object can not escape its gravity. Part 1 of the 4 part series series on black holes. In this section we define what a black hole is and go back to the beginning of the black hole study and show how physicists can agree on the presence of these strange objects. Part 2 explains the role of the black hole in the galaxy and how the invisible object will be the brightest in the universe. In Part 3, we will explain how astronomers use the most complex observatory to observe black holes. Part 4 enters a strange aspect of black hole science: how these objects challenge our basic physics theory Astrophysicist Jedidah Isler is studying a black hole with excessive mass and overactivity. These objects waste material at a thousand times faster than the average super mass black hole. They draw material through an accretion disk rotating around a black hole and then eject it through an ejector moving at 99.99% light speed. When these jets point to the earth, we call them Super Mass, Overactive Black Hole, which produces their Mars or hot quasars. Isler is trying to understand the direction and location of the highest energy light generated by the injector and how this energy is transmitted through the Milky Way LIGO's black hole is twelve times the mass of the sun. However, astronomers believe that super mass black holes must also collide. That is how the universe forms the biggest quality black hole. However, the gravitational wave generated by the super mass black hole pair has a wavelength that is too large to be seen in LIGO. I returned to the radio telescope. Astronomers recognize that gravitational waves can affect the very fast rotating core of pulsar pulses. Pulsar is one of the most accurate watches in the universe. Pulsar can deliver radio waves because radio waves that emit radio waves arrive as expected. Using a pulsar pair that separates the light of many years in the Milky Way, radio astronomers can look for signs of gravitational waves that affect pulses.

When a star "dies", it can do many different things. It can form a neutron star, enlarge to a red gigantic star, shrink to a white dwarf, or collapse itself to form a black hole. It depends mainly on the density of stars. When huge stars over twenty times the mass of the sun die, they must either exhaust all of those extra substances or collide to form a black hole. Gravity also overwhelmed nuclear power. As gravity becomes very strong, it can not escape and even photons disappear, so it is called a "black" hole. Part 1 of the 4 part series series on black holes. In this section we define what a black hole is and go back to the beginning of the black hole study and show how physicists can agree on the presence of these strange objects. Part 2 explains the role of the black hole in the galaxy and how the invisible object will be the brightest in the universe. In Part 3, we will explain how astronomers use the most complex observatory to observe black holes. Part 4 enters a strange aspect of black hole science: how these objects challenge our basic physics theory Astrophysicist Jedidah Isler is studying a black hole with excessive mass and overactivity. These objects waste material at a thousand times faster than the average super mass black hole. They draw material through an accretion disk rotating around a black hole and then eject it through an ejector moving at 99.99% light speed. When these jets point to the earth, we call them Super Mass, Overactive Black Hole, which produces their Mars or hot quasars. Isler is trying to understand the direction and location of the highest energy light generated by the injector and how this energy is transmitted through the Milky Way LIGO's black hole is twelve times the mass of the sun. However, astronomers believe that super mass black holes must also collide. That is how the universe forms the biggest quality black hole. However, the gravitational wave generated by the super mass black hole pair has a wavelength that is too large to be seen in LIGO. I returned to the radio telescope. Astronomers recognize that gravitational waves can affect the very fast rotating core of pulsar pulses. Pulsar is one of the most accurate watches in the universe. Pulsar can deliver radio waves because radio waves that emit radio waves arrive as expected. Using a pulsar pair that separates the light of many years in the Milky Way, radio astronomers can look for signs of gravitational waves that affect pulses.

The black hole is the speed necessary to remove the black hole from the gravity of the person. For example, the escape speed of the Earth is 11 km / s. Everything that tries to escape from the gravity and pulling force of the earth must be at least 11 km / s. The escape speed of an object depends on its compactness, that is, the ratio of mass to radius. A black hole is a very compact object close to it, even if the speed of light is not enough to escape. Part 1 of the 4 part series series on black holes. In this section we define what a black hole is and go back to the beginning of the black hole study and show how physicists can agree on the presence of these strange objects. Part 2 explains the role of the black hole in the galaxy and how the invisible object will be the brightest in the universe. In Part 3, we will explain how astronomers use the most complex observatory to observe black holes. Part 4 enters a strange aspect of black hole science: how these objects challenge our basic physics theory Astrophysicist Jedidah Isler is studying a black hole with excessive mass and overactivity. These objects waste material at a thousand times faster than the average super mass black hole. They draw material through an accretion disk rotating around a black hole and then eject it through an ejector moving at 99.99% light speed. When these jets point to the earth, we call them Super Mass, Overactive Black Hole, which produces their Mars or hot quasars. Isler is trying to understand the direction and location of the highest energy light generated by the injector and how this energy is transmitted through the Milky Way LIGO's black hole is twelve times the mass of the sun. However, astronomers believe that super mass black holes must also collide. That is how the universe forms the biggest quality black hole. However, the gravitational wave generated by the super mass black hole pair has a wavelength that is too large to be seen in LIGO. I returned to the radio telescope. Astronomers recognize that gravitational waves can affect the very fast rotating core of pulsar pulses. Pulsar is one of the most accurate watches in the universe. Pulsar can deliver radio waves because radio waves that emit radio waves arrive as expected. Using a pulsar pair that separates the light of many years in the Milky Way, radio astronomers can look for signs of gravitational waves that affect pulses. The largest black hole in the universe grows faster than stars in the galaxy. Over the years astronomers have gathered data on the formation of stars and the growth of super mass black holes in galaxies. When black holes are formed in the center of the Milky Way, black holes and galaxies can grow side by side and when black holes become bigger than their host galaxies they will swallow them. Studies have shown that a black hole in a galaxy grows much faster than a small galaxy. There are many materials to swallow in the black hole of a gigantic galaxy, and in the case of a small galaxy there is not much material to swallow.

Black Hole American scientist John Wheeler invented the term "black hole" to describe a huge and compact star with a powerful gravity field that light could not escape in 1969. When the star's hydrogen center reserves run out, stars begin to die. The gravity causes the central part to contract more and more hot, but the outer region expands and the star turns into a red giant star. After that, the star evolved into a white dwarf, and most of that material is compressed into spheres of approximately the same size as the Earth. Part 1 of the 4 part series series on black holes. In this section we define what a black hole is and go back to the beginning of the black hole study and show how physicists can agree on the presence of these strange objects. Part 2 explains the role of the black hole in the galaxy and how the invisible object will be the brightest in the universe. In Part 3, we will explain how astronomers use the most complex observatory to observe black holes. Part 4 enters a strange aspect of black hole science: how these objects challenge our basic physics theory Astrophysicist Jedidah Isler is studying a black hole with excessive mass and overactivity. These objects waste material at a thousand times faster than the average super mass black hole. They draw material through an accretion disk rotating around a black hole and then eject it through an ejector moving at 99.99% light speed. When these jets point to the earth, we call them Super Mass, Overactive Black Hole, which produces their Mars or hot quasars. Isler is trying to understand the direction and location of the highest energy light generated by the injector and how this energy is transmitted through the Milky Way LIGO's black hole is twelve times the mass of the sun. However, astronomers believe that super mass black holes must also collide. That is how the universe forms the biggest quality black hole. However, the gravitational wave generated by the super mass black hole pair has a wavelength that is too large to be seen in LIGO. I returned to the radio telescope. Astronomers recognize that gravitational waves can affect the very fast rotating core of pulsar pulses. Pulsar is one of the most accurate watches in the universe. Pulsar can deliver radio waves because radio waves that emit radio waves arrive as expected. Using a pulsar pair that separates the light of many years in the Milky Way, radio astronomers can look for signs of gravitational waves that affect pulses.

Introduction Black hole is one of the most interesting topics in astrophysics. Even though they are generally considered to be true, their actual existence has not been confirmed. A black hole is an object with such a concentrated mass that can not escape from gravity as it passes through the horizon of the black hole event or the Schwarzschild radius. The Schwarzschild radius is the radius, and the escape speed is greater than the light speed in any interior. Part 1 of the 4 part series series on black holes. In this section we define what a black hole is and go back to the beginning of the black hole study and show how physicists can agree on the presence of these strange objects. Part 2 explains the role of the black hole in the galaxy and how the invisible object will be the brightest in the universe. In Part 3, we will explain how astronomers use the most complex observatory to observe black holes. Part 4 enters a strange aspect of black hole science: how these objects challenge our basic physics theory Astrophysicist Jedidah Isler is studying a black hole with excessive mass and overactivity. These objects waste material at a thousand times faster than the average super mass black hole. They draw material through an accretion disk rotating around a black hole and then eject it through an ejector moving at 99.99% light speed. When these jets point to the earth, we call them Super Mass, Overactive Black Hole, which produces their Mars or hot quasars. Isler is trying to understand the direction and location of the highest energy light generated by the injector and how this energy is transmitted through the Milky Way LIGO's black hole is twelve times the mass of the sun. However, astronomers believe that super mass black holes must also collide. That is how the universe forms the biggest quality black hole. However, the gravitational wave generated by the super mass black hole pair has a wavelength that is too large to be seen in LIGO. I returned to the radio telescope. Astronomers recognize that gravitational waves can affect the very fast rotating core of pulsar pulses. Pulsar is one of the most accurate watches in the universe. Pulsar can deliver radio waves because radio waves that emit radio waves arrive as expected. Using a pulsar pair that separates the light of many years in the Milky Way, radio astronomers can look for signs of gravitational waves that affect pulses.

In 1916, German astronomer Carl Schwarzchild tried to find out how the stars narrowed down to what he called "black hole". Schwarzchild predicts that the sun has to shrink to a radius of 2 miles or less. He also predicts that the sun will not change its weight even if it contracts its weight, which means that the planets will remain unaffected in their orbit. Schwarzchild still asked if the star could become this contract. 1934, W. Baade and F. Zwicky predict that the collapse of the stars removes those electron atoms and makes them a neutron star. Part 1 of the 4 part series series on black holes. In this section we define what a black hole is and go back to the beginning of the black hole study and show how physicists can agree on the presence of these strange objects. Part 2 explains the role of the black hole in the galaxy and how the invisible object will be the brightest in the universe. In Part 3, we will explain how astronomers use the most complex observatory to observe black holes. Part 4 enters a strange aspect of black hole science: how these objects challenge our basic physics theory Astrophysicist Jedidah Isler is studying a black hole with excessive mass and overactivity. These objects waste material at a thousand times faster than the average super mass black hole. They draw material through an accretion disk rotating around a black hole and then eject it through an ejector moving at 99.99% light speed. When these jets point to the earth, we call them Super Mass, Overactive Black Hole, which produces their Mars or hot quasars. Isler is trying to understand the direction and location of the highest energy light generated by the injector and how this energy is transmitted through the Milky Way LIGO's black hole is twelve times the mass of the sun. However, astronomers believe that super mass black holes must also collide. That is how the universe forms the biggest quality black hole. However, the gravitational wave generated by the super mass black hole pair has a wavelength that is too large to be seen in LIGO. I returned to the radio telescope. Astronomers recognize that gravitational waves can affect the very fast rotating core of pulsar pulses. Pulsar is one of the most accurate watches in the universe. Pulsar can deliver radio waves because radio waves that emit radio waves arrive as expected. Using a pulsar pair that separates the light of many years in the Milky Way, radio astronomers can look for signs of gravitational waves that affect pulses.

The black hole wants to see something outside our galaxy every day when we see the night sky and I want to dream. Our galaxy alone has millions of stars. That is why we need to understand everything we can not see. Humans already know the existence of stars. Because they have eyes and treat them as empty white shining points. This mystery is not only in the white sparkling spots we see but also in the night sky like a black hole. Before we start talking about the black hole, I will have to explain what the empty white shining point is. Part 1 of the 4 part series series on black holes. In this section we define what a black hole is and go back to the beginning of the black hole study and show how physicists can agree on the presence of these strange objects. Part 2 explains the role of the black hole in the galaxy and how the invisible object will be the brightest in the universe. In Part 3, we will explain how astronomers use the most complex observatory to observe black holes. Part 4 enters a strange aspect of black hole science: how these objects challenge our basic physics theory Astrophysicist Jedidah Isler is studying a black hole with excessive mass and overactivity. These objects waste material at a thousand times faster than the average super mass black hole. They draw material through an accretion disk rotating around a black hole and then eject it through an ejector moving at 99.99% light speed. When these jets point to the earth, we call them Super Mass, Overactive Black Hole, which produces their Mars or hot quasars. Isler is trying to understand the direction and location of the highest energy light generated by the injector and how this energy is transmitted through the Milky Way LIGO's black hole is twelve times the mass of the sun. However, astronomers believe that super mass black holes must also collide. That is how the universe forms the biggest quality black hole. However, the gravitational wave generated by the super mass black hole pair has a wavelength that is too large to be seen in LIGO. I returned to the radio telescope. Astronomers recognize that gravitational waves can affect the very fast rotating core of pulsar pulses. Pulsar is one of the most accurate watches in the universe. Pulsar can deliver radio waves because radio waves that emit radio waves arrive as expected. Using a pulsar pair that separates the light of many years in the Milky Way, radio astronomers can look for signs of gravitational waves that affect pulses.

So what is Quasar has to do with the black hole? What is a quasar? Recently, a radio telescope has been used to discover objects with high brightness in the universe. Because better terms are missing, cosmologists call them quasars. They look small, but they are illuminating the surrounding universe. Shortening the long story, I found that they are eating, black holes. Fill the black hole. Eat Black Hole. What kind of Italian food do they eat? No, the substances and gas they eat are swallowed close enough. Researchers including Eduardo Bañados reported the existence of a black hole with bright quasars in Nature's paper this week. Astronomers are looking for evidence of these early black holes in the universe, but they are still amazed at the size of the day called J1342 + 0928. Black hole is the point of the universe which is so strong that gravity can not escape it. It is not rock, gas, even light. In the vicinity of a big black hole, surrounding materials surround what forms an accretion disk. The substance in the disk rotates at speeds of several thousand miles per second, it heats up as it moves, and it hits hard against other dust and gas, and they are all heading for the same crazy Carousel's fate The Milky Way Black Hall is usually surrounded by dust and gas structures to supply and maintain them. These black holes and the disks surrounding them are called quasars. The light of the two quasars detected by Spitzer has spread to the Earth over 13 billion years. In other words, it means that one billion years have passed since the universe was born. Spitzer completed this work with the help of planetary exploration techniques called ground telescopes and microlenses. This method relies on a phenomenon called a gravitational lens in which light is bent and amplified by gravity. When a star passes in front of a distant star, it can be seen from the earth that the gravitational force of the foreground star can bend and amplify the light of the background star. If the planet orbits the foreground star, the attraction of the planet will expand and help to leave its own mark on the expanded light. At Ohio State University Francesco Shankar and David Weinberg, I have studied Quasar and black hole evolution from current observations. Our results show that the number of observed quasars and nuclear black holes is consistent with black hole growth. Light intensity and radiation efficiency

Black hole is the theoretical collection of substances that collapsed, even if light can not escape its power, its gravity is very strong. The problem is very dense because things are forced to a very small, very narrow area. Because light can not escape, they are considered true black. Clearly, this makes it difficult to detect actual black holes, so there is only ontology. These theories are gradually becoming "definitive proof". This evidence includes particle dust arising from the substance entering the black hole and observation of the trajectory of the object near the black hole. The idea of ​​singularity comes from the study of black hole physics. A black hole is described as an "orphaned" object at the location and time at which normal physical laws collapse. All bets have been closed. This singular point is expected to lead to rapid technological development and tremendous change of civilization. In addition to this innovation of the "horizon", human thought, even human history will experience tremendous changes. Super smart artificial intelligence that exceeds artificial intelligence in all aspects is the driving force of technical singularity. Interstellar deals with three major areas of black science physics, the complexity of the feedback system, and the most mysterious behavioral science among them. Marauder Alert - This article is not about solving the truth of black hole physics and ridiculous things. If you have not seen this movie yet, discard this plot. Of course, dystopian land, existence of interstellar wormhole, and some very confusing recursive time loops; Interstellar announced a very practical question - feedback. Unlike "Big Data", this term is not actually used in movies (this is a very common phrase and may be slick). But that is the core of the plot Part 1 of the 4 part series series on black holes. In this section we define what a black hole is and go back to the beginning of the black hole study and show how physicists can agree on the presence of these strange objects. Part 2 explains the role of the black hole in the galaxy and how the invisible object will be the brightest in the universe. In Part 3, we will explain how astronomers use the most complex observatory to observe black holes. Part 4 enters a strange aspect of black hole science: how these objects challenge our basic physics theory

Understanding the black hole is a theoretical celestial body with a very strong surface, and those containing light can not escape from its surface. Gravity is the key to the enormous power of the black hole. The strong gravity of the black hole prevents captured substances from escaping. For example, if the mass of the Earth is the same and there is only one quarter of the current radius, the person standing on that surface escapes twice as fast. The power of the black hole far exceeds our imagination. In 2016, Professor Steven Hawking gave a BBC Lease lecture on the topic that had been captivating him for decades - the Black Hole. In these flagship lectures, legendary physicists believe that if you understand the black holes and only understand how they challenge the nature of space and time, you can unravel the secret of the universe I will. With Steven and Lucy Hawking's latest children's book George and Blue Moon, George and Ann began to solve one of the mysteries of the universe world. Is there life under the crust like ice? Where are the robots coming from and who are controlling them? At the same time, two young heroes won the Mars training program. This is a dangerous and unexpected change to the program. Suddenly, best friends were fighting for starving games on the red planet. Filled with facts and papers from the universe from leading scientists, this is our most unpredictable thriller to date! The purpose of this white paper is to explain how the black hole concept is generated and to provide insight as to how the black hole is formed. Understanding the black hole can better understand the concept of time and space, and perhaps we can learn science fiction and scientific facts. I hope all explanations are over at the end of this article. A black hole may be one of the most misunderstood ideas for people other than astronomical and physical communities. Before you understand how it is formed you need to introduce some stars. This will bring light to the philosophy of black hole

In modern astronomy, a single type of celestial body is more confusing than other objects. Since Einstein first proposed the theoretical concept in the 1930's, the presence of black holes was first confirmed in the early 1990's. A black hole is a very small yet dense object that has the ability to draw planets, stars, even even light to its center, and ultimately has the ability to destroy everything in that path. In the past decade, many mysteries about space and time were discovered; however, many of these recent discoveries have brought a more unanswered question. In 2016, Professor Steven Hawking gave a BBC Lease lecture on the topic that had been captivating him for decades - the Black Hole. In these flagship lectures, legendary physicists believe that if you understand the black holes and only understand how they challenge the nature of space and time, you can unravel the secret of the universe I will. With Steven and Lucy Hawking's latest children's book George and Blue Moon, George and Ann began to solve one of the mysteries of the universe world. Is there life under the crust like ice? Where are the robots coming from and who are controlling them? At the same time, two young heroes won the Mars training program. This is a dangerous and unexpected change to the program. Suddenly, best friends were fighting for starving games on the red planet. Filled with facts and papers from the universe from leading scientists, this is our most unpredictable thriller to date! The purpose of this white paper is to explain how the black hole concept is generated and to provide insight as to how the black hole is formed. Understanding the black hole can better understand the concept of time and space, and perhaps we can learn science fiction and scientific facts. I hope all explanations are over at the end of this article. A black hole may be one of the most misunderstood ideas for people other than astronomical and physical communities. Before you understand how it is formed you need to introduce some stars. This will bring light to the philosophy of black hole

A black hole is a very compact object that can not escape its gravity and is called a black hole. The density of this object is very high, its mass is small, it is called singular point. Near the singular point there is the horizon of the event, also known as the gravitational radius. The horizon of the event is to establish a boundary, nothing can escape, and internal and external objects do not communicate. When a huge star collapses, a black hole is formed. It is difficult to explain how information leaks out from the black hole. Stephen Hawking calculated that the black hole had to be finally over. According to his calculations, the black hole eventually begins to leak information, eventually exploding. It releases captured particles in all forms. He said: "Running will not allow people to return to where they came." Instead, they will appear again elsewhere - but in another universe - again. Continue reading: Many scientific laboratories are trying to detect dark matter as the earth moves through the dark matter's space wind. Physicists say that a completely new field of research will be opened, including the possibilities of multiple universe and other dimensions, when completing what constitutes the mysterious dark matter. Read more: After the death of Stephen Hawking, I recently began reading articles on the science of black hole theory, and in the future I noticed the possibility of a huge black hole being diluting. As a fan of science fiction, I can only enjoy the horrible irony of anti-utopian future love and the imagination of many writers and writers. I was not an unattended person in my life. Everyone wants to become someone. If everyone is special, there is no one, so we all know that we can not all be "special". But as you get older, you notice that you do not know anything. If I can return to my teens, can I do it when I know everything and I think that my entire life is in front of me? No, it is not a million years. The decision to take me here is not always worthy of praise. It was the first time that in the late 1980s, I noticed how much influence Steven Hawking had on people all over the world shortly after his bestselling book, "From the Big Bang to the Black Hole". Published, we attended physicists gathered in Aspen, Colorado. I talked to him the place I know, a cowboy bar near Woody Creek but far from culturally. I asked Steven how he wanted to, and even if he was an adventurer, he said so. I called the bar and asked if there was a wheelchair access, but I started after being told that it was.

I will read about studies of stars and black holes below. A black hole is a star whose core is crushed by gravity. In the next text you will see how stars are formed, how it lives, and how it will become black holes. The star is made up of hydrogen and dust. The presence of stars is due to gravity. A star is formed by thin dust and gas atomic rotation around the universe. The atoms gather in a dense cloud and ultimately collapse under their own gravity. These are cockroaches made by a fierce cosmic nematode and we observe that they are a hard structure of time and space, it is believed to be due to a fast rotating black hole or a collision with an exploding star I will. The colliding black hole releases a considerable amount of gravity. The gravitational wave alternately stretches and contracts the space along the two axes. This makes the time and space distortion very small. Why choose LIGO? First of all, LIGO has two observation stations working together at the same time. - With just two LIGO detectors, scientists can roughly map the quality of black holes, how far they are apart, their position in the sky, and gain some detail about their orbit shape . The largest black hole in the universe grows faster than stars in the galaxy. Over the years astronomers have gathered data on the formation of stars and the growth of super mass black holes in galaxies. When black holes are formed in the center of the Milky Way, black holes and galaxies can grow side by side and when black holes become bigger than their host galaxies they will swallow them. Studies have shown that a black hole in a galaxy grows much faster than a small galaxy. There are many materials to swallow in the black hole of a gigantic galaxy, and in the case of a small galaxy there is not much material to swallow.

Black hole - This strange scientific phenomenon shocked physicists and astronomers for decades. Black hole, the topic of science fiction, is one of the biggest mysteries in science. Even today, the concept of ultra high density balls that can not even escape from light is somewhat far apart, and many scientists are against almost all aspects of the black hole. This project will try to reveal these magical shapes and will inform readers of the most popular and widely accepted theory. The idea of ​​singularity comes from the study of black hole physics. A black hole is described as an "orphaned" object at the location and time at which normal physical laws collapse. All bets have been closed. This singular point is expected to lead to rapid technological development and tremendous change of civilization. In addition to this innovation of the "horizon", human thought, even human history will experience tremendous changes. Super smart artificial intelligence that exceeds artificial intelligence in all aspects is the driving force of technical singularity. Interstellar deals with three major areas of black science physics, the complexity of the feedback system, and the most mysterious behavioral science among them. Marauder Alert - This article is not about solving the truth of black hole physics and ridiculous things. If you have not seen this movie yet, discard this plot. Of course, dystopian land, existence of interstellar wormhole, and some very confusing recursive time loops; Interstellar announced a very practical question - feedback. Unlike "Big Data", this term is not actually used in movies (this is a very common phrase and may be slick). But that is the core of the plot Part 1 of the 4 part series series on black holes. In this section we define what a black hole is and go back to the beginning of the black hole study and show how physicists can agree on the presence of these strange objects. Part 2 explains the role of the black hole in the galaxy and how the invisible object will be the brightest in the universe. In Part 3, we will explain how astronomers use the most complex observatory to observe black holes. Part 4 enters a strange aspect of black hole science: how these objects challenge our basic physics theory

Beyond this incident, the horizon is a harmless space with properties similar to those of other celestial bodies. In other words, the black hole is not a huge vacuum cleaner in the cosmic vacuum cleaner, and they unfortunately destroy everything that is close to them. Interestingly, if you can safely enter the horizon of a sufficiently large black hole event, you can freely and not be as big as a few minutes at a constantly changing light show. Unfortunately, I do not have enough power to pull you out of the horizon of the black hole event. This is probably the most spectacular inevitable death in the universe. Black holes are detected because surrounding materials (gas etc.) flow into the disk around the black hole by gravity. Since the gas molecules in the disk rotate very fast around the black holes, they heat up and emit X-rays. These X-rays can be detected from the Earth. Black holes can also be detected by observing the movement of stars near the black hole. Black holes are greatly increased by capturing nearby materials. Everything that falls within the scope of the event can not escape from the gravity of the black hole. Despite its fame, the black hole actually does not inhale objects from afar. Black holes can only capture objects very close to them or objects moving toward them. The black hole consists mainly of gas and dust, filling the gap of the universe. The black hole also consumes substances from nearby stars. Black holes may grow by fusing with other black holes and then fusing them, then they become super mass black holes. The notorious astronomical phenomenon known as a black hole shows the importance of gravity in the universe. The black hole is a very compact area of ​​space where light can not escape. Black holes are formed by dead stars collapsing by their own weight and forming an infinitely dense nucleus. In analogy with Einstein's 2D sheet, the black hole is very compact and forms a hole in the fabric of the space-time rather than the dent. Particles and waves containing light are confined by the huge gravity created by the black holes. The existence of the black hole directly opposed the concept of zero gravity in the universe

Understanding the black hole Our solar system consists of ten planets orbiting the sun. The sun functions as a magnet to hold the solar system together using its gravity. Once the sun goes away, the planets will be together. The answer may be a black hole. The black hole is a theoretical object, its gravity is very strong, and even light can not escape there (Shipman 64). If light can not escape from the black hole, it must be invisible - so how do we know that there is a black hole? In 2016, Professor Steven Hawking gave a BBC Lease lecture on the topic that had been captivating him for decades - the Black Hole. In these flagship lectures, legendary physicists believe that if you can understand black holes and understand only how they challenge the nature of space and time, you can unravel the secret of the universe . With Steven and Lucy Hawking's latest children's book George and Blue Moon, George and Ann began to solve one of the mysteries of the universe world. Is there life under the crust like ice? Where are the robots coming from and who are controlling them? At the same time, two young heroes won the Mars training program. This is a dangerous and unexpected change to the program. Suddenly, best friends were fighting for starving games on the red planet. Filled with facts and papers from the universe from leading scientists, this is our most unpredictable thriller to date! Quantifying the material field in the background of the black hole found out a lot about the black hole. However, to understand the basic principle of black hole thermodynamics, quantum gravity theory is necessary. Quantum theory is necessary to convey to us what happens near the singular point. However, it is very difficult to quantify gravity. In particular, to understand black holes, the theory that gives some hope is string theory.

The universe contains many diverse and exotic bodies that we just started to understand. Among the myriad of exotic bodies, the most elusive thing is the black hole. In astronomy there are many theories and problems about black holes. The subjects of these queries are black hole characteristics, processes, effects and functions. Scientists still do not fully understand it because it is difficult to find a black hole. By definition, the black hole is an area within the space, and the collapse of the material causes the gravitational field to be very strong, causing the light not to escape as well. Part 1 of the 4 part series series on black holes. In this section we define what a black hole is and go back to the beginning of the black hole study and show how physicists can agree on the presence of these strange objects. Part 2 explains the role of the black hole in the galaxy and how the invisible object will be the brightest in the universe. In Part 3, we will explain how astronomers use the most complex observatory to observe black holes. Part 4 enters a strange aspect of black hole science: how these objects challenge our basic physics theory Astrophysicist Jedidah Isler is studying a black hole with excessive mass and overactivity. These objects waste material at a thousand times faster than the average super mass black hole. They draw material through an accretion disk rotating around a black hole and then eject it through an ejector moving at 99.99% light speed. When these jets point to the earth, we call them Super Mass, Overactive Black Hole, which produces their Mars or hot quasars. Isler is trying to understand the direction and location of the highest energy light generated by the injector and how this energy is transmitted through the Milky Way LIGO's black hole is twelve times the mass of the sun. However, astronomers believe that super mass black holes must also collide. That is how the universe forms the biggest quality black hole. However, the gravitational wave generated by the super mass black hole pair has a wavelength that is too large to be seen in LIGO. I returned to the radio telescope. Astronomers recognize that gravitational waves can affect the very fast rotating core of pulsar pulses. Pulsar is one of the most accurate watches in the universe. Pulsar can deliver radio waves because radio waves that emit radio waves arrive as expected. Using a pulsar pair that separates the light of many years in the Milky Way, radio astronomers can look for signs of gravitational waves that affect pulses.

Knowing that black holes rain down on us with the night sky, we stare at the beautiful stars, and the imagination brings the limits of our solar system to the depths of high quality black holes. The universe in which we live contains unique and exciting things that let us know all the differences that may only be observed through the telescope. In this miracle miracle, our universe has strange things, and modern and classical physics can not be defined. This mystery happens to be a secret black hole. In 2016, Professor Steven Hawking gave a BBC Lease lecture on the topic that had been captivating him for decades - the Black Hole. In these flagship lectures, legendary physicists believe that if you can understand black holes and understand only how they challenge the nature of space and time, you can unravel the secret of the universe . With Steven and Lucy Hawking's latest children's book George and Blue Moon, George and Ann began to solve one of the mysteries of the universe world. Is there life under the crust like ice? Where are the robots coming from and who are controlling them? At the same time, two young heroes won the Mars training program. This is a dangerous and unexpected change to the program. Suddenly, best friends were fighting for starving games on the red planet. Filled with facts and papers from the universe from leading scientists, this is our most unpredictable thriller to date! Quantifying the material field in the background of the black hole found out a lot about the black hole. However, to understand the basic principle of black hole thermodynamics, quantum gravity theory is necessary. Quantum theory is necessary to convey to us what happens near the singular point. However, it is very difficult to quantify gravity. In particular, to understand black holes, the theory that gives some hope is string theory. Part 1 of the 4 part series series on black holes. In this section we define what a black hole is and go back to the beginning of the black hole study and show how physicists can agree on the presence of these strange objects. Part 2 explains the role of the black hole in the galaxy and how the invisible object will be the brightest in the universe. In Part 3, we will explain how astronomers use the most complex observatory to observe black holes. Part 4 enters a strange aspect of black hole science: how these objects challenge our basic physics theory

Introduction Black holes are an amazing process that happens in the universe and can destroy unfortunate cross paths. The black hole attracts the attention of millions of people all over the world due to its amazing power and unknown facts. The theory that led to the possible results of entering the black hole has been used in many science fiction novels, but we believe that science fiction novels may actually exist. Because we can not touch the black hole, it is difficult to understand our biggest brains, and perhaps just keep science fiction what happens. On the other hand, the black hole is the most powerful gravity power plant. When they remove substances from gas clouds between stars and stars, the substance is heated and shines brightly. This seems to be a paradox. What is invisible is the brightest thing in the universe. The black hole called Quasar is billions years ago. This is not the same as seeing the black hole directly. However, gravity wave detection after 2016 comes from the black hole. The signal seen by the Laser Interferometer Gravitational Wave Observatory (LIGO) is actually caused only by gravity, scientists say that what kind of objects produce waves without interference from stars or gases or other interference You can rebuild what you can do. LIGO's black hole is twelve times the mass of the sun. However, astronomers believe that super mass black holes must also collide. That is how the universe forms the biggest quality black hole. However, the gravitational wave generated by the super mass black hole pair has a wavelength that is too large to be seen in LIGO. I returned to the radio telescope. Astronomers recognize that gravitational waves can affect the very fast rotating core of pulsar pulses. Pulsar is one of the most accurate watches in the universe. Pulsar can deliver radio waves because radio waves that emit radio waves arrive as expected. Using a pulsar pair that separates the light of many years in the Milky Way, radio astronomers can look for signs of gravitational waves that affect pulses.

Black hole: Time and space warp black hole is one of the most wonderful things predicted by modern science. This is a place where gravity is so powerful that nothing can escape. This is the place where gravity is so powerful that the hole is rented out in space and time structure. The crack around this yawn is the "horizon" of space geometry, and the time itself is static. Inside of this hole, beyond this horizon, the direction of space and time is exchanged. Part 1 of the 4 part series series on black holes. In this section we define what a black hole is and go back to the beginning of the black hole study and show how physicists can agree on the presence of these strange objects. Part 2 explains the role of the black hole in the galaxy and how the invisible object will be the brightest in the universe. In Part 3, we will explain how astronomers use the most complex observatory to observe black holes. Part 4 enters a strange aspect of black hole science: how these objects challenge our basic physics theory Astrophysicist Jedidah Isler is studying a black hole with excessive mass and overactivity. These objects waste material at a thousand times faster than the average super mass black hole. They draw material through an accretion disk rotating around a black hole and then eject it through an ejector moving at 99.99% light speed. When these jets point to the earth, we call them Super Mass, Overactive Black Hole, which produces their Mars or hot quasars. Isler is trying to understand the direction and location of the highest energy light generated by the injector and how this energy is transmitted through the Milky Way LIGO's black hole is twelve times the mass of the sun. However, astronomers believe that super mass black holes must also collide. That is how the universe forms the biggest quality black hole. However, the gravitational wave generated by the super mass black hole pair has a wavelength that is too large to be seen in LIGO. I returned to the radio telescope. Astronomers recognize that gravitational waves can affect the very fast rotating core of pulsar pulses. Pulsar is one of the most accurate watches in the universe. Pulsar can deliver radio waves because radio waves that emit radio waves arrive as expected. Using a pulsar pair that separates the light of many years in the Milky Way, radio astronomers can look for signs of gravitational waves that affect pulses.

Everyone knows that space tours at Star Trek are faster than the speed of light. It's just science fiction. According to Einstein's theory of relativity, once an object reaches the speed of light, its mass is immediately converted to energy. Currently, our spacecraft can not reach Mars within 5 years. Now, in modern black hole theory, we can move to other solar system at a speed close to the speed of light. The black hole has been proved to have existed for the past 25 years and it has been thought that it exists for the past 75 years. One day in the distant future, we can stabilize the black hole and use anti - gravity power to move faster than ever. The future and the past may be space flight. "If time travel is possible, it will give us the key to secrets: the existence of God." (Unknown parameter 3) And the civilization and purpose of which human beings appear on earth are obvious It may become. (Unknown paragraph 3) "We can remain in the palm of our hand forever for ever, as the poet William Blake said." "(Unknown parameter 3) In the future black holes may be very useful for us. It is very difficult to find their immeasurable powers. A technologically advanced black hole can help us achieve time travel. Most scientists say that it is impossible to produce time machines, but Time Travel does not violate the laws of physics. And black holes may be the key. Since the 1930's, physicists have guessed about the existence of the wormhole. These are entrances between the various parts of the universe. One is made by connecting black hole pairs. By doing this, we will create a tunnel through time and space. Beyond one end and leaving the other end, time and place will change. The only difficulty is to ensure that the wormhole is not closed when the traveler passes by. If you want to close, travelers will not be able to survive on the other side. A member of the most fascinating and mysterious universe in the black hole. So far I can not fully understand that this is a mystery. A black hole can be regarded as a hole without a bottom of a spatiotemporal structure ("entering a black hole" - S. W. Hawking, 2008). Einstein's theory of relativity predicted a black hole, which is the mass within its own Schwartz silt radius. When a star dies, it leaves a huge core, and if it is three times the mass of the sun, it becomes a black hole.

Geologist John Mitchell first designed black hole ideas. He said that if some force can compress the sun to a sufficiently small size, it needs a speed faster than the speed of light (UTFC) as its gravitational field is very strong. Every object in the universe has a so-called Schwarzschild radius. The Schwarzschild radius of the object is the radius at which the object must be compressed to have escape rates greater than the speed of the light or black hole. Part 1 of the 4 part series series on black holes. In this section we define what a black hole is and go back to the beginning of the black hole study and show how physicists can agree on the presence of these strange objects. Part 2 explains the role of the black hole in the galaxy and how the invisible object will be the brightest in the universe. In Part 3, we will explain how astronomers use the most complex observatory to observe black holes. Part 4 enters a strange aspect of black hole science: how these objects challenge our basic physics theory Astrophysicist Jedidah Isler is studying a black hole with excessive mass and overactivity. These objects waste material at a thousand times faster than the average super mass black hole. They draw material through an accretion disk rotating around a black hole and then eject it through an ejector moving at 99.99% light speed. When these jets point to the earth, we call them Super Mass, Overactive Black Hole, which produces their Mars or hot quasars. Isler is trying to understand the direction and location of the highest energy light generated by the injector and how this energy is transmitted through the Milky Way LIGO's black hole is twelve times the mass of the sun. However, astronomers believe that super mass black holes must also collide. That is how the universe forms the biggest quality black hole. However, the gravitational wave generated by the super mass black hole pair has a wavelength that is too large to be seen in LIGO. I returned to the radio telescope. Astronomers recognize that gravitational waves can affect the very fast rotating core of pulsar pulses. Pulsar is one of the most accurate watches in the universe. Pulsar can deliver radio waves because radio waves that emit radio waves arrive as expected. Using a pulsar pair that separates the light of many years in the Milky Way, radio astronomers can look for signs of gravitational waves that affect pulses.

"As more material falls off the horizon the black hole will grow," Dieter Brill said. Schwartz quilt black hole was the first black hole discovered. Einstein created a formula he thought to be purely hypothetical, but an astronomer named Karl Schwarzchild found a way to apply Einstein's formula in a way to prove the existence of a black hole . After that scientists knew what to look for in the universe and immediately found a black hole. The Reissner-Nordstrøm black hole is more common than the Schwarzchild black hole. Oppenheimer predicted a black hole in 1938. However, since the behavior of the black hole is contrary to intuition, I can sympathize with Sir Arthur Eddington. No one knows what's going on inside the black hole. In the 1990s scientists discovered the existence of a massive mass black hole of 1 billion sun. They are often located in the center of an elliptical galaxy. Did they participate in the creation of those galaxies? We really do not know. This is a very difficult problem. The answer is in the range of 8 billion to 20 billion years, but this is a fairly extensive mistake. The most amazing thing about this problem is that the universe may actually be younger than its oldest star. The research conducted in 1994 shows that the universe has a history of 8 billion years, which means that the oldest star in the Milky Way is older than the universe. Fortunately, previous studies were confirmed in 1999 measurements. When Hawking published a paper on his book Black Hole and Baby Universe and other black holes, his view bothered the scientists of the 20th century. But he was criticized and continued to work despite becoming one of the biggest scientific figures. This commitment should be a role model for those who feel that they are not strong enough to achieve their goals. So far, scientists believe there is nothing coming from the black hole, but Hawking radiation is expected to be released from the black hole. Hawking's theory believes that black holes are not eternal, but they slowly release more substances until they evaporate completely. However, in the same theory, it seems likely that the black hole eventually creates another black hole, which will intertwine the two black holes. That is, they are related to each other and may share the same quantum particles. This is a possibility of time travel

"Heaven declared the glory of God, the sky declared the work with his hand." Psalm 19: 1, the beauty of the night sky and the mystery of the universe, its secrets and the staggering creation that straddles there is meaningless. We have found many mysteries. One of the secrets is a black hole, a massless intangible star, an immeasurable one, and an universe giant, dragging everything without mercy. But what exactly is that? A member of the most fascinating and mysterious universe in the black hole. So far I can not fully understand that this is a mystery. A black hole can be regarded as a hole without a bottom of a spatiotemporal structure ("entering a black hole" - S. W. Hawking, 2008). Einstein's theory of relativity predicted a black hole, which is the mass within its own Schwartz silt radius. When a star dies, it leaves a huge core, and if it is three times the mass of the sun, it becomes a black hole. In black hole astrophysics, we know the "stellar mass" black hole - basically 5 to 100 solar mass black holes are left behind a massive supernova. Millions to millions (and even billions) solar mass. You may have noticed a big quality gap between these two types of black holes. When the black hole begins to shrink and grows with time, what kind of black hole bridges the stellar mass black hole and the super monsters? LIGO's black hole is twelve times the mass of the sun. However, astronomers believe that super mass black holes must also collide. That is how the universe forms the biggest quality black hole. However, the gravitational wave generated by the super mass black hole pair has a wavelength that is too large to be seen in LIGO. I returned to the radio telescope. Astronomers recognize that gravitational waves can affect the very fast rotating core of pulsar pulses. Pulsar is one of the most accurate watches in the universe. Pulsar can deliver radio waves because radio waves that emit radio waves arrive as expected. Using a pulsar pair that separates the light of many years in the Milky Way, radio astronomers can look for signs of gravitational waves that affect pulses.

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Anderson, Craig. "Double paradox." Spring of Redwood University in 1999. Network July 22, 2010 This article describes the concept of "double paradox" also called "time expansion". Craig started his article by introducing Albert Einstein's theory of relativity to readers. According to Craig, Einstein believes that "the basic premise of the theory of relativity is that time and space are not absolute." Annotated bibliography is a list of references to various books, articles and other information sources on topics. The annotated bibliography appears as a reference page, but comments are included after the source of each reference. Annotation is a summary of information sources and important evaluations. Annotated references can be part of larger research projects or independent reports themselves. Evaluation notes include the above summary, but the accuracy, relevance, and quality of the work are critically appraised. Evaluation notes are useful for understanding topics, creating paper statements, determining if a particular source is useful for your job, and determining if there is enough valid information to complete the project . Focus on explanation and evaluation Annotated bibliography is very useful for organizing project research and is a very common kind of work. Annotated bibliography should describe the subject area of ​​the subject matter and include an information source that reflects the scope of the subject method. Comments tend to do one or two of the following two. The key to writing good comments is to consider who uses it. If it is for someone else, does your reader need to know to decide whether to read the text for him / herself? If it suits you, how do you summarize your work so that you remember your idea in the future? Concise, clear, concise to convey the most useful information in comments Annotated bibliography is a list of alphabetical source comments. Annotation is a summary and / or analysis of one or two paragraphs of articles, books, or other sources. Normally, the first paragraph contains a summary of the source in direct and clear terms. In the second paragraph, we will analyze or evaluate the source, taking into account the effectiveness, audience, discussion loophole etc. Note: Please be sure to check with your professor to find exactly what he / she wants to include in your comment. Also, please check with the professor about the length of each memo. Normally you can organize by topic, but please arrange entries of each group in alphabetical order.

The super mass black hole is a massive black hole whose mass is equivalent to a large amount of solar mass. When the usual "galactic nucleus black hole" has a mass range between 100,000 and 10 million solar mass, the black hole is called super mass black hole. (Cardiff University 2014). Since the solar mass is considered to be equal to the mass of the sun, this will make the super mass black hole very large compared to the sun. A huge black hole with a large mass makes its gravity infinitely infinite. In other words, stars that are many years away from light are driven by super-massive black holes. According to the general idea, the black hole has three types - Super Large, Miniature, Black Hole. Black holes are classified according to size and quality. It is well known that there is a super mass black hole at the center of a galaxy including the galaxy and the Milky Way where we live. Some super mass black holes have a mass that is greater than the mass of the sun. The small black hole is very small. Their masses are sometimes as small as the diameter of the pins. The common type of black hole is the type produced by several dying stars. There is a black hole called star. When gravity enters and the launch pressure becomes unbalanced, black holes are generated because stars have run out of nuclear fuel. From ordinary black holes of 30 to 40 sun masses, how can we not reach ultra-huge black holes with millions or even billions of sun masses? This is a little strange. These monsters began in the early stages of the history of the universe, and they must have taken the initiative in some way. From the viewpoint of a true black hole, this Hawking radiation is very weak and weak, so it may not be possible to directly detect on a general time scale without having a practical effect. However, we are in the cosmology about ten years apart from a wise time scale, we have plenty of time. Since there is nothing to grow the black hole, this Hawking radiation blocks very slowly even the biggest monster. LIGO's black hole is twelve times the mass of the sun. However, astronomers believe that super mass black holes must also collide. That is how the universe forms the biggest quality black hole. However, the gravitational wave generated by the super mass black hole pair has a wavelength that is too large to be seen in LIGO. I returned to the radio telescope. Astronomers recognize that gravitational waves can affect the very fast rotating core of pulsar pulses. Pulsar is one of the most accurate watches in the universe. Pulsar can deliver radio waves because radio waves that emit radio waves arrive as expected. Using a pulsar pair that separates the light of many years in the Milky Way, radio astronomers can look for signs of gravitational waves that affect pulses.

There are so many black holes in the universe that you can not calculate them. It is like asking the amount of sand on the beach. Fortunately, the universe is huge and its known black hole is not enough to bring the danger to the earth. When their lives end with a supernova explosion, the stellar mass black holes are formed from the largest mass of stars. The Milky Way contains about 100 billion stars. One in 1000 stars and one in one star will form a sufficiently large black hole. Therefore, in our Milky Way, we need to have about 100 million black holes of fixed star mass. Most of them do not look to us, and only a dozen have been found. About 1600 light years from Earth. There may be 100 billion galaxies in the universe area visible from the earth. Everyone has about 100 million black hole with fixed star mass. Somewhere in there, a new stellar mass black hole is born on supernova per second. The mass of the super mass black hole is one million to one billion times that of the sun, which is in the center of the galaxy. Most galaxies, perhaps the galaxies, have such black holes. So in our universe we have about 100 billion super mass black holes. The closest thing is in the center of our Milky Way, 28,000 light years away. We know that the farthest Quasar star has a light factor of one billion years According to the Hubble site, there is a balance between gravity and pressure push in the normal life of the star. When the star runs out of nuclear fuel, gravity will take over and eventually turn stars into black holes. Now I can not completely identify the cause, but whenever I think about my first experience on the Internet, I think about this exact picture - a black hole is formed. I remember how annoying it was to wait for his conference to be over at the father 's workplace more than ten years ago. I fell down in his chair to play and produce stories in my mind. The only thing I can do is turning and turning until I get dizzy. I like to use the sound of a gun to blow away the sound of life, so I will someday play with a typewriter (I realized that this is actually wasting the perfect paper. Quantifying the material field in the background of the black hole, I found a lot about the black holes. However, to understand the basic principle of black hole thermodynamics, quantum gravity theory is necessary. Quantum theory is also necessary to tell us what happens near the singular point. However, it is very difficult to quantify gravity. In particular, to understand the black hole, the theory that gives some hope is string theory. Black holes are greatly increased by capturing nearby materials. Everything that falls within the scope of the event can not escape from the gravity of the black hole. Despite its fame, the black hole actually does not inhale objects from afar. Black holes can only capture objects that are very close to them, or objects that are moving toward them. The black hole consists mainly of gas and dust, filling the space of the entire space of the universe. The black hole also consumes substances from nearby stars. Black holes may grow by fusing with other black holes and then fusing them, then they become super mass black holes.

There are so many black holes in the universe that you can not calculate them. It is like asking the amount of sand on the beach. Fortunately, the universe is huge and its known black hole is not enough to bring the danger to the earth. When their lives end with a supernova explosion, the stellar mass black holes are formed from the largest mass of stars. The Milky Way contains about 100 billion stars. One in 1000 stars and one in one star will form a sufficiently large black hole. Therefore, in our Milky Way, we need to have about 100 million black holes of fixed star mass. Most of them do not look to us, and only a dozen have been found. About 1600 light years from Earth. There may be 100 billion galaxies in the universe area visible from the earth. Everyone has about 100 million black hole with fixed star mass. Somewhere in there, a new stellar mass black hole is born on supernova per second. The mass of the super mass black hole is one million to one billion times that of the sun, which is in the center of the galaxy. Most galaxies, perhaps the galaxies, have such black holes. So in our universe we have about 100 billion super mass black holes. The closest thing is in the center of our Milky Way, 28,000 light years away. We know that the farthest Quasar star has a light factor of one billion years According to the Hubble site, there is a balance between gravity and pressure push in the normal life of the star. When the star runs out of nuclear fuel, gravity will take over and eventually turn stars into black holes. Now I can not completely identify the cause, but whenever I think about my first experience on the Internet, I think about this exact picture - a black hole is formed. I remember how annoying it was to wait for his conference to be over at the father 's workplace more than ten years ago. I fell down in his chair to play and produce stories in my mind. The only thing I can do is turning and turning until I get dizzy. I like to use the sound of a gun to blow away the sound of life, so I will someday play with a typewriter (I realized that this is actually wasting the perfect paper. Quantifying the material field in the background of the black hole, I found a lot about the black holes. However, to understand the basic principle of black hole thermodynamics, quantum gravity theory is necessary. Quantum theory is also necessary to tell us what happens near the singular point. However, it is very difficult to quantify gravity. In particular, to understand the black hole, the theory that gives some hope is string theory. Black holes are greatly increased by capturing nearby materials. Everything that falls within the scope of the event can not escape from the gravity of the black hole. Despite its fame, the black hole actually does not inhale objects from afar. Black holes can only capture objects that are very close to them, or objects that are moving toward them. The black hole consists mainly of gas and dust, filling the space of the entire space of the universe. The black hole also consumes substances from nearby stars. Black holes may grow by fusing with other black holes and then fusing them, then they become super mass black holes.

Stanley Yelnats was cursed. It was a curse that began with his great grandfather who wasted pigs and did not decompose and followed the generation of Jerez. Now, Stanley is unjustly sent to a boy 's Green Camp Conflict Center, where boys are building their characters all day long and digging holes 5 feet wide and 5 feet deep each day. There is no lake in Camp Green Lake. But there are lots of loopholes Even if Stanley notices that the character improvement of Green Lake Camp is more than that, it does not take much time. Boys are digging holes because the watchman is looking for something. But what is buried under the dry lake? Stanley tries to find the truth with this creative, dark humorous sin, punishment, redemption story. Is there a better way to crawl through the hole and visualize it? Instead of climbing a real hole it died! Please dig a hole in your backyard, beach, hell. Sometimes you sit there and cry hysterically what you need. If someone sees you and asks why you are in trouble, let's be honest. In most cases, they may want to join you. Do we all want to crawl in the hole and visualize it? Thanks to you and the trick you dig, it is almost always dead, it is possible! Maybe this is why life is not for you! The way of your life is not an actor, a writer, a chief executive - do you dig a hole for all of us? die! ! ! Black holes never last forever, and as stars, they die. Guessing about their death is very speculative. Black hole evaporation theory seems to be a general theory about how black holes die. The black hole emits radiation, the energy that emits this radiation is derived from the quality of the black hole and reduces black hole. Gradually, black holes will be confusing. Stephen Hawkins introduced the idea in the 1970s. Hollywood had a great influence on the way we observe astronomy, and Hollywood's recently accepted anomaly is the possibility of "wormhall". Before you understand what a wormhole is, you need to understand what "whitehall" is. The inverse matrix of the mathematical equation of the black hole has proven to be effective. The name on the other side of the black hole is actually a white hole. The white hole is the opposite of the black hole. When the black hole sucks something, the white hole spits out something Part 1 of a 4 part series series on black holes. In this section we define what a black hole is and go back to the beginning of the black hole study and show how physicists can agree on the existence of these strange objects. In Part 2 we will explain the role of the black hole in the galaxy and how the invisible object will be the brightest in the universe. In Part 3 we will explain how astronomers use the most complex observatory to observe black holes. Part 4 will enter a strange aspect of black hole science: how these objects challenge our basic physics theory