What Would Happen If A Black Hole Enter Our Solar System?

The effects of travelling in space on the human body is a subject that is currently being researched increasingly in-depth, with many unanswered questions. There is little data on long term exposure to conditions in space, and a limited range of data based on the restraints of which demographics have been exposed

Black holes are in theory incredible frightening. One of the main reasons they are so monstrous is that they are one of the only thing in the universe able to trap light. The second reason they are so terrifying is that when you are being pulled into one you will be on a one way ticket train to emptiness. Therefor if there was a way to get out of a black hole what would it be? Then also if there was no way out what would it look like on the inside? Well some of these questions can be answered easily but for the others it will be a little more troublesome to answer. This is how, what, and why black holes are formed.

There are the obvious dangers of outer space: the high-energy radiation, the lack of pressure in the vacuum and the severely low temperatures. These cause an abrupt death when encountered. However, there are other lethal repercussions that can leave a heavy toll on the body with much more gradual yet deleterious symptoms that have the potential to linger long after the trip. Some of these issues are the loss of muscle mass, bone microfractures and the reduction to the immune system. Because these problems cannot be solved by our current technology, astronauts must undergo safety measures that help combat these

1) Bioluminescence/ fluorescence: Bioluminescence can be used to describe an organism that glows or releases a flash of light, particularly when disturbed. Fluorescence on the other hand can be defined as a process where light energy excites electrons to a higher energy state and that emits a photon when returning to ground state excitation. A major difference between the two is that bioluminescence is chemical process that involves enzymes and the breakdown of substrates that result results in light as a product; whereas fluorescence is physical process that relies on changes in electron excitation. Organisms such as certain algae, bacteria, fungi, squid, insects and fish use bioluminescence for several different purposes, such as to scare off predators or to lure prey (anglerfish), to attract mates (lanterneyes fish), and communication. Fluorescence serves several purposes as well, such as in chromosomal fluorescent staining techniques or gemology.

Everything floats in space without gravity. This means there is no need for astronauts to stand, walk or lift in microgravity, and their muscles, especially in their legs weaken and waste away. This affects balance posture and strength and increases the risk of tendonitis, injuries and accidents. To counteract this, astronauts need to excurse and take nutritional supplements

Eventually, they awoke up in on the Alternate Universe the President was talking about. The Alternate Universe looked like a huge bowling ball, because it had three black holes. “ Oh no, how are we supposed to get off this Universe?” said Christina.

all of you probably know what a black hole is, its a black thing in space that is like a vacuum and sucks up anything in its way, this is pretty much what most people think of when they think of a black hole.

The year is 2185, scientists have just discovered how to teleport to any location in space in a blink of an eye. They have created a machine that can harness the abilities of a black hole to bend space time. This new invention revolutionizes the world and brings interstellar travel to mankind. Technology advances faster than ever and new discoveries are being made every day. Humans create an infinite energy source that will never run out and extend the human life. These abilities come from a wormhole in the center of a black hole. At this point in life’s existence, people have been able to look inside of a black hole which was thought to never be possible. While this may seem like a crazy science fiction novel that would only be seen in movies, it is theoretically possible in the universe. Black Holes are incredibly massive and mysterious, and could give mankind the answers to life’s biggest issues.

Before launching a rocket into the unknown, there are a number of factors that need to be considered before taking flight. Over the past 200,000 years, humans have adapted well to life on earth, through many generations. Manned missions to space have only been occurring for 55 years and humans haven’t had the chance to adapt to its harsh environment and this can take a toll on the human body. The more serious effects of long-term space flight include weightlessness (muscle atrophy and deterioration of the skeleton); slowing of the cardio vascular system functions, decrease in production of red blood cells, balance disorder and an overall weakening of the immune system. Other minor effects on the human body include fluid redistribution, loss of body mass, nasal

The scientist said “light matter was being absorbed by the black hole.Next,two different black holes come in contact then the larger of the two will shoot the other away somewhere else so it can create a star somewhere else. When a black hole absorbs enough light then it will become a new star and start the process over again. After that, gravity will drag you toward the singularity at the speed of light and ultimately spaghettify you. Gravity's strength is determined by the mass of the object its pulling and then the pulling strength gets greater. This also means that you would be stretched to fast if you happened to enter a black holes gravitational pull. Closer to the center, gravity is even stronger. If you were caught by the pull of a black hole, you would be sent into free fall toward its center. “Next if the Earth was hit by a black hole then it would stop spinning suddenly, the atmosphere would still be in motion with the Earth's original 1100 mile per hour rotation speed at the equator"(Black Hole). All of the land masses would be wiped clean of

[9] He preceded on that instead of having objects disappearing into a black hole with no trace, he announced he believed that black holes can preserve information from objects swallowed up. "If you jump into a black hole, your mass energy will be returned to our universe, but in a mangled form, which contains the information about what you were like, but in an unrecognizable state." Hawking stated.[10] This tells us that nothing has ever completely disappeared in a black hole. Any objects that are sucked into black holes are completely mangled, but don't disappear. “He stunned the world with his findings about hawking radiation” a newspaper title read. [11]This theory also solved a lot of mysteries that have happened in space. It helped other scientists such as Roger Penrose continuing on with there other types of research so they could discover other new things now with this

In this study we will be working with a marine symbiont bacteria known as A. Fischeri (Bose et al., 2008). A. Fischeri is a type of organism that is gram negative and rod-shaped. The term gram negative bacteria indicates that A. Fischeri consist of an external LPS layer also known as lipopolysaccharide. This type of bacteria also consist of a single layer cell wall constructed of peptidoglycan while gram positive bacteria consist of a multi-layered peptidoglycan cell wall. This organism is found in marine environments and is known to live in symbiosis with numerous other marine organisms (Bose et al., 2008). A. Fischeri have bioluminescent properties that come from the organism 's chromosomal DNA. Specifically the lux operon within the chromosomal DNA is what encodes for bioluminescence.

The black light does not show bacteria itself, but the phosphors in a bacteria cell. The black light allows phosphors to produce a photons that we can see with our human eye. Phosphors are a type of element on the periodic table of elements. Bacteria cells can contain many phosphors in just one cell.

Black holes had always piqued my interests, from when a small child intently devoured documentary to documentary to when a confused teenager encapsulated herself in a black hole of her own. The science of the black hole transfixed my childhood sense of curiosity, but especially the point that the scientific world labeled the “singularity”, the point at which gravity became infinite.

However, it is extremely difficult to send a human being into space. The space shuttle, which ferried astronauts from earth to the International Space Station cost, on average, $1.5 billion dollars for each of the 135 launches (Pielke Jr. 2007). Furthermore, the space shuttle had an operational altitude of less than 600 miles, with the typical flight only reaching altitudes of around 250 miles (Jenkins 2006); for missions beyond the International Space Station, the distance several orders of magnitude greater. On average, it is 238,900 miles to reach the moon, and 140 million miles to reach Mars (http://solarsystem.nasa.gov/planets/profile.cfm). The sheer amount of resources required to send a person into space makes it exceptionally difficult and costly to do so. Consequently, it becomes critical that the astronauts ' well-being is accounted for when being sent on long term missions, both from an ethical and financial perspective. This paper will address some of the hazards and health concerns that arise due to long term space travel for human beings.