1. (adj., slang) relating to or involving an idea, creation, work of art, etc.. that is so brilliant it inspires other brilliant works after one is exposed to it. Unlike viral trends, trends that Supernova may or may not circulate rapidly and widely from one Internet user to another, but they eventually gain world wide acclaim. The full meaning is most clearly grasped, after the epiphanies experienced via deep contemplation of the juxtaposition with its antithesis, "viral." While both types of works trend, only positive ones Supernova!
2. (verb) To ejaculate so intensely one lose consciousness.
3. (noun) A rare celestial phenomenon that inspired the slang term Supernova. (see N.A.S.A. for more)
2. (verb) To ejaculate so intensely one lose consciousness.
3. (noun) A rare celestial phenomenon that inspired the slang term Supernova. (see N.A.S.A. for more)
1. That brilliant idea to make a positive version of the slang term "viral" went Supernova!
2. I was concerned I was gonna have to call 911 after she Supernova'd and I couldn't wake her, for like, 10 minutes!!
3. She artfully described a supernova as, "a star that gives birth to stars, as it gives its all to light up the darkness that surrounds us."
2. I was concerned I was gonna have to call 911 after she Supernova'd and I couldn't wake her, for like, 10 minutes!!
3. She artfully described a supernova as, "a star that gives birth to stars, as it gives its all to light up the darkness that surrounds us."
by null_l33t May 3, 2017
When a man rubs his wiggy so hard and fast that it reaches a temperature of 5,778° K, then explodes spewing jizz hot enough to destroy Uranus and everything else around it.
by Waluwiggy July 2, 2019
An incredibly attractive woman.
by d2zag December 22, 2014
by D3NK M3M3 M4ST3R July 14, 2018
The cataclysmic explosion of a massive star. A Supernova may, for a short time, out shine an entire galaxy of a hundred billion ordinary stars. It is thought to leave behind a highly compressed neutron star.
Our Sun could never go supernova because it is simply too small. Only a massive star could die as a supernova.
by OneBadAsp October 20, 2006
Violent explosion of a star. The star is destroyed, with a remnant forming a neutron star (pulsar) or black hole (collapsar) depending on the residual mass.
There are generally two forms of supernova. One results at the end of the life of a star with at least about eight solar masses, which in a series of progressively shorter-lived and less efficient thermonuclear reactions generates ever heavier chemical elements in layers about the core. Effectively this is a star that lives fast and dies young. When each step in the process chokes up the core with nuclear "ash", contractions follow under gravity, driving up temperatures until they are sufficient to synthesise the next heavy element from this waste product. When the core fills with iron, the end point is reached; it takes more energy to fuse iron into anything heavier than the fusion reaction produces. At this point the star collapses, driving temperatures into perhaps twelve figures Kelvin and triggering an explosion that blows most of the star to smithereens.
A second type occurs in close orbiting binary systems where one star A, being more massive, evolves more quickly to the red giant phase and develops a thin outer envelope and a core rich in carbon. Its companion B skims off the outer layer, grows in mass and itself evolves to the red giant stage. At this point the carbon-rich star A begins reclaiming the hydrogen; when the gas accreting onto it drives its mass over 1.4 solar masses a huge nuclear reaction ensues and A blows itself apart.
Supernova explosions can briefly outshine the combined output of all the stars in at least a modest galaxy. They are also responsible for seeding the Universe with the heavy chemical elements of which the Earth and our very bodies are made.
There are generally two forms of supernova. One results at the end of the life of a star with at least about eight solar masses, which in a series of progressively shorter-lived and less efficient thermonuclear reactions generates ever heavier chemical elements in layers about the core. Effectively this is a star that lives fast and dies young. When each step in the process chokes up the core with nuclear "ash", contractions follow under gravity, driving up temperatures until they are sufficient to synthesise the next heavy element from this waste product. When the core fills with iron, the end point is reached; it takes more energy to fuse iron into anything heavier than the fusion reaction produces. At this point the star collapses, driving temperatures into perhaps twelve figures Kelvin and triggering an explosion that blows most of the star to smithereens.
A second type occurs in close orbiting binary systems where one star A, being more massive, evolves more quickly to the red giant phase and develops a thin outer envelope and a core rich in carbon. Its companion B skims off the outer layer, grows in mass and itself evolves to the red giant stage. At this point the carbon-rich star A begins reclaiming the hydrogen; when the gas accreting onto it drives its mass over 1.4 solar masses a huge nuclear reaction ensues and A blows itself apart.
Supernova explosions can briefly outshine the combined output of all the stars in at least a modest galaxy. They are also responsible for seeding the Universe with the heavy chemical elements of which the Earth and our very bodies are made.
by Fearman November 9, 2007
by Space Panda November 18, 2011