This particular discovery actually inspired our entire article. Recently, a cosmic gas cloud was said to have shown a mysterious gamma-ray heartbeat. It apparently syncs up perfectly with a neighboring black hole. It was an international team that discovered this cloud in the constellation of Aquila, the eagle. They used data from the Arecibo Observatory in Puerto Rico and NASA’s Fermi Gamma-Ray Space Telescope to accomplish this discovery. The team claims the cloud “beats” in rhythm with a small black hole roughly 100 lightyears away from it. A German team at the DESY National Research Center believes the black hole is connected to this mystery in some way.
The aforementioned black hole is part of a Microquasar system referred to as SS 433. This system has a giant star that’s exactly 30 times as large as the mass of our own Sun. Microquasars are just smaller Quasars, but they can still eat up massive amounts of light. As the quasar and star orbit each other, the black hole is pulling in matter from the star, resulting in an accretion disk around the black hole itself. Yet part of the matter from this star does not drain into the black hole and shoots out high-speed particles and strong magnetic fields in jet-form, producing X-rays and Gamma Rays. It is thought that the Quasar gives the heartbeat. Yet it and the cloud are 100 lightyears apart, making this one of science’s current space anomalies in need of study.
Black Holes, on their own, are not exactly space anomalies. We know they exist and we know what they can do for the most part. However, even that can be called into question. Black Holes still surprise us from time to time. To understand exactly what a Black Hole actually is, you should first know that it involves time and gravity. We know from Albert Einstein’s Theory of General Relativity that gravity will often help us dictate time. Black Holes are a region of spacetime where the gravity is so impressively strong that absolutely nothing, even radiation & light, can escape. We found using Einstein’s equations that properly compact mass can deform spacetime, allowing the emergence of a Black Hole.
This usually tends to occur when massive stars collapse as they die off. Once one forms it can grow by absorbing more mass and even by merging with other black holes. Supermassive Black Holes are said to likely exist at the center of most galaxies. Yet this is roughly what we know. We have no idea what happens when you’re fully sucked in. We know that it will bend and break whatever it absorbs but we do not know what happens once something is fully sucked in. Does it come out somewhere else? Where does this mass absorbed actually go in the end? These are the questions science may never have a true answer to, making them essentially anomalies to us.
Today, most scientists agree that the Big Bang is how our universe formed. Still called the Big Bang “Theory” by some, it is not so much a theory any longer. The problem science has is simply how to explain it all. They will tell you most of the story, based on careful study of the universe for all of human history. However, one thing gets in the way. We just do not know how certain things existed to make the Big Bang a reality. This is heavily present when it comes to matter and antimatter. When the Big Bang happened, we should have an even amount of matter and antimatter.
Scientists call it “Matter to Antimatter Asymmetry.” Yet this would be hard to accomplish because they are produced together at the same time. They are attracted to each other due to their differences in electric charges too. When they come in contact with each other, they explode into pure energy. During the Big Bang, this would have happened a lot. We also know without matter, our universe cannot exist and we do not have that even number. Something got in the way of the two matters colliding and exploding at some point. What that is will always be one of the biggest space anomalies ever. Yet this is just one of the many questions regarding how the universe formed that science may never know the answer to.
Space anomalies like this guiding neutrino do not come along very often. In 2017, this high-energy neutrino struck the Earth. While neutrinos are not normally anything to write home about, the IceCube Neutrino Observatory in Antarctica saw something very interesting. It was the first one to arrive at Earth with enough information about its origin. Due to the unique opportunity this provided for scientists, they were excited to see what they could find out.
Astronomers set their telescopes in the direction of the neutrino origin, in hopes of capturing more or even other incredible sights. They found that this neutrino came from a flaring blazer, which is a supermassive black hole at the very center of the Milky Way Galaxy. Not only that, but it was flung at Earth around 4 million years ago! Black holes are space anomalies in their own right, but this took the cake.
Quasars are really cool, and essentially space anomalies in their own right. As many people will know, massive objects are known for curving light. This can be an issue, especially when it comes to looking at something through a telescope. Such a problem existed with the Hubble Space Telescope in 1979 when they spotted a quasar from the early universe. A cool sight on its own, scientists wanted to use it to estimate the universe’s expansion rate.
That was when they found out that it was expanding faster today than it was back in the early period. Of course, this finding actually disagreed with other measurements at the time. The double quasar phenomena is a good way to measure, but due to the uncertainty, it’s still an anomaly. Due to this, more studies are being done to further understand the universe’s rapid expansion. In fact, there are many reasons used, including our next space anomaly.
When you hear scientists discuss the dark matter, don’t feel like they are saying something that you could never understand. They really don’t know how it works either. We’re serious…no one really does. This is why dark matter can refer to literally any substance that interacts mostly with gravity (and has visible matter). We know it makes up roughly 85% of the matter in the known universe.
Astronomers have also been able to also determine that astrophysical observations, especially gravitational, can be explained by dark matter. As laws of gravity are universal, so when they differ from that…dark matter likely played a role. The reason it is called “dark” is that it does not interact with electromagnetic fields. Therefore, it does not absorb, reflect, or emit radiation; making it nearly impossible to detect.
Elst-Pizarro is often misunderstood, as people have trouble knowing if it is an asteroid or comet. This is not a crazy problem, but most experts can see the difference. Yet Elst-Pizarro just felt like being different. Discovered in 1979, we did not really care about it a lot as it was within the asteroid field. By 1996, it was showing a tail like a comet. This led to many just assuming it was debris from a collision.
However, the tail’s brightness and even structure changed as time went on. No one seemed to understand the issue, with the most likely concept is that it could be an asteroid that collided with something that exposed an icy body. Which could then be melting away. However, no one knows why or really how this asteroid managed to become a comet. This is one of those space anomalies astronomers seemed to differ heavily on.
For those unaware, neutron stars emit radio waves or at the very least, high-energy radiation like you might see with X-Rays. Yet in 2018, astronomers were struck with something they did not expect. They found a long stream of infrared light coming from a neutron star roughly 800 lightyears away from Earth. The discovery was incredible, yet also slightly terrifying as no one knew what this could be. They certainly could not explain it.
This had never been seen before, making it hard for researchers to really explain. They did, however, propose that a disk of dust surrounding the neutron star could be the cause of it generating such a signal. The image above gives you a guide to what happened as soon as infrared was utilized and followed. As of now, they have yet to find out the true reason for the stream. Making it one of the most compelling space anomalies in recent memory.
Like dark matter, dark energy is one of the space anomalies we may never have a true answer for. What we do know is that dark energy is some form of unknown energy that affects our universe on incredibly large scales. Supernovae measurements help us find it, and helped us realize the universe was expanding at a much faster rate. Due to this discovery, we had answers for things beyond the normal forms of matter or energy that most understand.
Dark energy helped us explain cosmic events such as the Big Bang. We know it is the most likely reason the universe’s expansion has accelerated but we do not understand it all. Dark energy simply is too difficult to grasp for now, but that might not be the case for that much longer. As of 2020, research has been specifically aimed at looking further into dark energy. Perhaps we’ll know more about it one day.
If you want something to make you scratch your head, we invite you to check out the Red Rectangle Nebula. Located in the Monoceros Constellation 2,300 lightyears from Earth, you’ll see it. You’ll notice that two stars sit at the heart of the area, which is what ultimately gives us the image of it being a rectangle. Dust rings surround them, creating two cones of brightness. The Nebula here exhibits something rare known as an extended red emission, making dust glow red.
While we can understand how the rectangle came to pass, no one knows why the dust is red. Some have assumed it to be due to ultraviolet light from stars that randomly connected or interacted with carbon-rich molecules within the dust. But that is not proven. There are other areas of the universe with colored dust, yet for some reason, there is not a connection between their dust coloring and the Red Nebula.
Astronomers noticed odd ripples of dust in the Milky Way in 2009, making many feel a disruptive force was present. However, they could not determine at the time what caused the issue. By 2015, we had an answer. The cause was a dwarf galaxy orbiting the Milky Way, which is ever so slightly altering the motion of our galaxy with its gravitational pull. Scientists were only able to see it due to 4 bright stars around the galaxy.
It would be too hard to see without it. Astronomers believe dark matter is the reason why we cannot truly see it very well. Given the name Galaxy X, the dwarf galaxy was unique at the time. This all changed when in 2016, we discovered Dragonfly 44, made of literally 99.99% dark matter. Along with Segue 1, the dwarfs have been spotted more and more. However, no one knows how they came to be. Moreover, what their role is with dark matter.
While the Milky Way is a relatively flat galaxy, others are different. Some like Ellipticals can look like a football. Hoag’s Object, however, operates differently. It has an old yellow core, surrounded by a beautiful ring of blue stars. However, there is nothing in the middle as if someone took a bite out of the middle of the thing! Yet another look makes it seems like some sort of space donut!
The “Object” was spotted in 1950 by Arthur Hoag, its namesake. We have yet to see another galaxy of any kind that looks similar. Scientists have no conclusive reasoning as to how this formed. However, the theory is that a small galaxy came through and went right through it. This isn’t a bad theory, as the area spins very slowly, and a small version of the galaxy is hidden in itself.
There is a place known as the South Atlantic Anomaly or SAA. It is a region of the Earth’s magnetic field known as Space’s version of the Bermuda Triangle. Astronauts have reportedly fallen asleep only to be shocked by an intense flash of light. It is thought that this is linked to Van Allen radiation belts, which are twin particles trapped in our planet’s magnetic field. This is quite an important issue to figure out, as we know that our magnetic field is not perfectly aligned to the Earth’s rotation.
That very well could lead to why this area roughly 125,000 miles above the South Atlantic causes such trouble. Even the International Space Station has trouble in the area, as computers stop working & astronauts experience cosmic flashes. On top of this, the Hubble Space Telescope cannot take any observations! If we are to do commercial space travel, we’ll need to figure out the issue with the SAA and how to work around it.