Sometimes a blue giant star will explode at the end of its life and and if there happens to be a chunk of leftover star substance, a new star will be created.
Stars begin their lives as clouds of gas and dust called nebulae. Within these nebulae, gravity causes the gas and dust to collapse and heat up, eventually leading to the ignition of nuclear fusion in the core, which marks the birth of a star.
False. Medium-sized stars become white dwarfs. Only the most massive stars form black holes.
Massive stars with at least eight times the mass of the Sun end their lives as supernovae. During their final stages, they undergo a rapid collapse and explosion, releasing an immense amount of energy and forming a bright supernova.
Long-lived stars are typically lower in mass, shine less brightly, and have longer lifespans compared to short-lived stars. Short-lived stars tend to be more massive, burn through their fuel more rapidly, and have shorter lifespans before evolving or ending in a supernova explosion.
The end life of a planetary nebula is typically associated with low mass stars. These stars eventually shed their outer layers to create a planetary nebula as they transition to the white dwarf stage of their evolution. High mass stars, on the other hand, end their lives in supernova explosions.
Stars begin their lives as clouds of gas and space dust.
nebulas =-)
nebulas =-)
The largest stars end their lives as black holes. These are regions in space with incredibly strong gravitational forces that can trap even light.
Very large ones.
larger stars have longer lives, because as stars burn they are slowly burning up fuel and begin to cave in on themselves. the larger, the more fuel, the more fuel, the longer lasting.
No, but some stars can end their lives by becoming a black hole.
It stars with a preposition and ends with a noun
They are not. A supernova is an explosion of a star. Blue stars usually end their lives in such explosions.
Heavy stars go supernova at the end of their lives.
No. Supernovas are cataclysmic eruptions from massive stars that have come to the end of their lives. See related questions
All-stars begin their lives as a part of a molecular cloud in space. These clouds contain gas and dust that eventually collapse and form stars through the process of nuclear fusion. The intense pressure and heat at the core of the collapsing cloud triggers the fusion of hydrogen atoms into helium, leading to the birth of a new star.