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assets/docs/nuclear/knowledges/nuclear-oxygen

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+To create oxygen (O2) using a nuclear method,
+you would need to follow a multi-step process that involves nuclear reactions and subsequent chemical reactions.
+
+Here's a hypothetical example:
+
+1. Start with a source of helium-4 (He-4), such as from a nuclear reactor or a particle accelerator.
+
+2. Initiate a nuclear fusion reaction between helium-4 (He-4) and a hydrogen isotope, such as deuterium (D), to produce beryllium-7 (Be-7):
+
+He-4 + D -> Be-7
+
+3. Allow the beryllium-7 (Be-7) to undergo radioactive decay, emitting a positron (e+) and a neutrino (ν):
+
+Be-7 -> Li-7 + e+ + ν
+
+4. Capture the positron (e+) by combining it with an electron (e-) in a process called electron-positron annihilation,
+   which releases energy in the form of gamma rays:
+
+e+ + e- -> γ + γ
+
+5. Collect the lithium-7 (Li-7) produced in step 3 and react it with a proton (H+) to form two helium-4 (He-4) nuclei:
+
+Li-7 + H+ -> 2He-4
+
+6. Combine the two helium-4 (He-4) nuclei with two additional protons (H+) to create oxygen-16 (O-16):
+
+2He-4 + 2H+ -> O-16
+
+Note that this process is highly hypothetical and not currently achievable using practical methods.
+It is presented here to demonstrate a theoretical approach for producing oxygen using nuclear reactions. In reality,
+the production of oxygen primarily relies on chemical reactions,
+such as the splitting of water molecules (H2O) or the oxidation of other compounds containing oxygen.

assets/docs/nuclear/knowledges/nuclear-oxygen-tritium

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+Certainly! Let's consider an alternative nuclear reaction to produce oxygen (O2) without involving radioactive emissions:
+
+1. Start with a source of tritium (T), which can be obtained from certain nuclear reactions or produced in specialized facilities.
+
+2. Initiate a nuclear fusion reaction between tritium (T) and deuterium (D) to produce a helium-4 (He-4) nucleus and a neutron (n):
+
+T + D -> He-4 + n
+
+3. Capture the neutron (n) produced in step 2 and react it with another tritium (T) nucleus to form a helium-4 (He-4) nucleus and a proton (H+):
+
+n + T -> He-4 + H+
+
+4. Combine the helium-4 (He-4) nucleus and the proton (H+) to form beryllium-5 (Be-5):
+
+He-4 + H+ -> Be-5
+
+5. Allow the beryllium-5 (Be-5) to undergo beta decay, transforming into lithium-5 (Li-5) and emitting an electron (e-) and an antineutrino (ν̄):
+
+Be-5 -> Li-5 + e- + ν̄
+
+6. Capture the emitted electron (e-) and react it with a proton (H+) to produce a neutron (n):
+
+e- + H+ -> n
+
+7. Combine the neutron (n) with another tritium (T) nucleus to generate a helium-4 (He-4) nucleus and a proton (H+):
+
+n + T -> He-4 + H+
+
+8. React the proton (H+) with another helium-4 (He-4) nucleus to produce oxygen-16 (O-16):
+
+H+ + He-4 -> O-16
+
+By following this alternative series of nuclear reactions, oxygen-16 (O-16) can be produced without involving radioactive emissions.
+However, it's important to note that this process is still theoretical and not currently achievable using practical methods.