What is the resulting product when Si28 is irradiated with fast neutrons?

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In summary, when 28Si is irradiated with fast neutrons, Al28 is created as a result of the fusion of a fast neutron with the Si nucleus. The National Nuclear Data Centre can provide information on the gamma radiation emitted during this process. The most intense gamma peak can be determined by consulting the data for the naturally most abundant target nuclei.
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When a target material is irradiated with neutrons, a number of nuclear reactions are possible. For the slow neutron activation of 28Si, 29Si is created. Determine what is created if 28Si is irradiated with fast neutrons. Then, consult the National Nuclear Data Centre (http://www.nndc.bnl.gov/nudat2/) and determine the gamma radiation that will be emitted.

What is the energy of the most intense gamma peak?
(assume the original target nuclei are those which are naturally most abundant)

Similar to another post I just made. I read a little bit that said the reaction of Si28 and fast neutrons can create Al28. The fast neutron fuses with the Si nucleus, knocking out a proton, and then Al-28 decays back to Si-28 by emitting and gamma radiation.
 
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1. What is Si28 + fast neutrons = -> ?

Si28 + fast neutrons = -> is a nuclear reaction between silicon-28 (a stable isotope of silicon) and fast-moving neutrons. This reaction can result in the formation of different isotopes of silicon, such as silicon-29 and silicon-30.

2. What happens during the Si28 + fast neutrons = -> reaction?

During this reaction, the fast-moving neutrons collide with the Si28 nuclei, causing them to become unstable. This results in the emission of particles and/or gamma rays, and the formation of different isotopes of silicon.

3. Why is the Si28 + fast neutrons = -> reaction important?

The Si28 + fast neutrons = -> reaction has important applications in nuclear physics and technology. It is used in the production of isotopes for medical and industrial purposes, as well as in nuclear power plants to generate energy.

4. How is the Si28 + fast neutrons = -> reaction controlled in nuclear power plants?

In nuclear power plants, the Si28 + fast neutrons = -> reaction is controlled by regulating the amount of neutrons present in the reactor. This is done through the use of control rods that absorb excess neutrons, preventing the reaction from becoming too fast and out of control.

5. Are there any risks associated with the Si28 + fast neutrons = -> reaction?

Like any other nuclear reaction, the Si28 + fast neutrons = -> reaction can be hazardous if not properly controlled. The release of excess energy and radiation can pose health and environmental risks. However, with proper safety measures in place, these risks can be minimized and controlled.

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