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Where does fusion take place in the sun?
Fusion takes place in the sun's core, where temperatures and pressures are high enough to overcome the repulsive force between positively charged atomic nuclei and allow them to fuse together to form heavier elements, releasing energy in the process.
The sun produces energy from matter in its core through the process of?
nuclear fusion. This process involves high temperatures and pressures that cause hydrogen atoms to fuse into helium atoms, releasing energy in the form of light and heat.
Why can elements be produced in the sun but not in Earth's atmosphere?
Elements can be produced in the sun through nuclear fusion reactions, which require extremely high temperatures and pressures. These conditions are not present in Earth's atmosphere, so elements are not produced in the same way here. Elements on Earth are primarily produced through processes like supernova explosions and nuclear reactions in labs.
At 15.6 million degrees Celsius the temperature of the suns core is high enough for nuclear to occur?
Yes, at temperatures around 15.6 million degrees Celsius in the Sun's core, nuclear fusion reactions can occur. These reactions involve the fusion of hydrogen nuclei into helium nuclei, releasing immense amounts of energy in the form of light and heat.
Where is it where temperatures reach 27 million degrees F?
Temperatures of 27 million degrees Fahrenheit are found in the core of the Sun. This extreme heat is generated by nuclear fusion reactions that convert hydrogen into helium, releasing massive amounts of energy in the process.
Nuclear fusion requires extremely high?
Nuclear fusion requires extremely high temperatures, and pressures.Nuclear fusion requires extremely high temperatures, and pressures.Nuclear fusion requires extremely high temperatures, and pressures.Nuclear fusion requires extremely high temperatures, and pressures.
Why is fusion so hard to achieve?
Fusion is difficult to achieve because it requires extremely high temperatures and pressures to force atomic nuclei to combine, releasing energy in the process. Controlling these conditions is challenging, as the nuclei repel each other due to their positive charges, making it hard to overcome this natural barrier. Scientists are working to find ways to sustain fusion reactions for practical energy production.
Why does the temperature in the centers of stars have to be extremely high for fusion to occur?
The high temperature in the centers of stars is necessary for fusion to occur because it provides the particles with enough energy to overcome their natural repulsion and come together to fuse. At such high temperatures, the particles have sufficient kinetic energy to collide and fuse, releasing enormous amounts of energy in the process.
What is a significant difficulty in using fusion as an energy source?
One significant difficulty in using fusion as an energy source is the challenge of containing and controlling the extremely high temperatures and pressures required for the fusion reaction to occur.
What is a fusion reaction also known as?
Since they do not exist yet I do not believe they have any other names. Fusion does exist in nature so a sun or star could be considered a fusion reactor.
Why are the high temptress produced by the explosion of a fission bomb necessary fusion in a thermonuclear device?
The high temperatures produced by the explosion of a fission bomb are necessary for initiating the fusion reaction in a thermonuclear device because fusion reactions require extremely high temperatures and pressures to overcome the repulsive forces between positively charged nuclei. The fission explosion provides the energy needed to achieve these conditions, thereby allowing the fusion reaction to take place.
Where in the Solar System is the temperature high enough to start fusion?
Fusion reactions occur in the cores of stars, including our Sun, where temperatures are extremely high, on the order of millions of degrees Celsius. No other location in the solar system has temperatures high enough to sustain fusion reactions.
Why doesnt the helium currently in the suns core undergo fusion?
The helium in the Sun's core does not undergo fusion because it primarily consists of helium-4, which is a product of hydrogen fusion. While temperatures and pressures in the core are extremely high, the conditions required for helium fusion—such as even higher temperatures (around 100 million Kelvin) and sufficient density—are not met until much of the hydrogen has been fused into helium. Helium fusion, known as the triple-alpha process, will occur later in the Sun’s life cycle, once it exhausts its hydrogen fuel.
Does fusion occur only under extremely high temperatures?
Nuclear fusion of light elements is the process operating in the stars to produce energy, and needs very high temperature to occur. Experiments on earth to aim at producing useful power from fusion have been progressing for many years. The reactants most likely to be used are isotopes of hydrogen, deuterium and tritium. These need to be heated to some hundreds of millions of degrees kelvin before reaction starts. Fusion reactions have been seen, but only for less than 1 second so far. Fusion is not a chemical reaction, it is a nuclear process.
How could you do the fusion?
Fusion is a process that involves combining two or more elements to form a new, heavier element. In a controlled setting, such as a fusion reactor, fusion can occur at extremely high temperatures and pressures to generate energy. Currently, the most common fusion reaction being pursued is the combination of isotopes of hydrogen, like deuterium and tritium.
It takes an extremely high temperature for nuclear to occur inside the sun?
Not nuclear, it takes an extremely hight temperature for Fusion to occur with in the sun or any other star. ADDED: Yes "nuclear". Fusion is one of the two type of nuclear reaction, the other being Fission.
What makes fusion possible?
Fusion is possible because it involves combining light atomic nuclei to form heavier ones, releasing a large amount of energy in the process. This process occurs at extremely high temperatures and pressures, similar to those found in the core of stars, and is the force that powers the sun and other stars in our universe.
