Introduction
In this cold fusion experiment, we will determine whether it is possible to create a source of energy through a cold nuclear fusion reaction. If it is possible to create an energy source using a cold nuclear reaction, then it could provide limitless energy for many years.
Cold fusion, also known as low-energy nuclear reactions (LENR), is a controversial area of research that aims to achieve nuclear fusion at relatively low temperatures and pressures. Despite being the subject of much research, cold fusion has not yet been able to produce the sustained, controlled nuclear reactions that are necessary for it to be considered a viable energy source.
Scientists stated that this cold fusion reactor would take only ten feet of Lake Michigan to produce enough power for the whole United States for 1500 years. And it will run only on water.
We are performing this experiment similarly to Dr. Fleischmann and Dr. Pons.
Aim
To determine if it is possible to create an energy source using a cold nuclear reaction.
Theory
1. When two nuclei merge together to form a single nucleus, it emits a lot of energy. And this reaction is termed a nuclear fusion reaction.
2. Nuclear cold fusion reaction is a hypothesized nuclear reaction in which a fusion reaction occurs at room temperature and normal pressure.
Requirements
1. Deuterium Oxide
2. A Jar
3. Thermometer
4. Two electrodes which are the platinum anode, palladium cathode
5. Regular Water
6. Seawater
7. Notebook
Procedure
Step 1: Pour deuterium oxide into a jar.
Step 2: Insert a thermometer into this jar.
Step 3: Insert two electrodes connected to the power supply into this jar.
Step 4: Send electricity to the deuterium oxide.
Step 5: Repeat this experiment twice with seawater and regular water.
Step 6: Record your observations.
Observation
1. Deuterium oxide broke down into oxygen and deuterium.
2. After getting ionized by electrons, atoms moved to the electrodes that had a charge opposite to them.
3. Oxygen was negatively charged. It moved to the positive anode platinum. While deuterium was positively charged, it moved to the negative cathode (palladium).
4. If the experiment had been successful, then the deuterium got concentrated on palladium. And this concentration would cause the nucleus to touch one another, forming the bond between two deuterium atoms. At last, this process would have released a lot of energy.
Result
1. At the end of the cold fusion experiment, we found that the deuterium had increased the temperature only by 1 degree Fahrenheit.
2. We collected the gas and burned it, which showed the absence of stable helium. This means that stable helium did not get produced in the process.
3. This indicates that no fusion reaction occurred during the experiment, as the deuterium had not condensed enough to perform a fusion reaction.
Precaution
1. Use gloves and goggles to perform this experiment.
2. Use lithium salt instead of table salt in the electrolyte solution.
3. Record your observation carefully.
Conclusion
In this cold fusion experiment, we determined if it is possible to create an energy source using a cold nuclear fusion reaction.
VIVA Questions With Answers
Q.1 What was the aim of your experiment?
ANS. To determine if it is possible to create an energy source using a cold nuclear reaction.
Q.2 What was the result of your experiment?
ANS. No fusion reaction took place during the experiment as the deuterium had not condensed enough to perform a fusion reaction.
Q.3 Why should one use lithium salt instead of table salt in an electrolyte solution?
ANS. Lithium salt improves the conductivity of electrolyte solution. As a result, chances for fusion reaction increase.
Q.4 Oxygen and deuterium moved to which side of the electrode?
ANS. The atoms of oxygen and deuterium moved to that side of the electrode which had opposite charges. This means that negatively charged oxygen moved to the positive anode while positively charged deuterium moved to the negative cathode.
Q.5 What do you understand about cold fusion?
ANS. A nuclear cold fusion reaction is a hypothesized nuclear reaction in which a fusion reaction takes place at room temperature and normal pressure.
Saquib Siddiqui is a Mechanical Engineer with expertise in science projects and experiments. Saquib’s work focuses on integrating scientific concepts with practical applications, making complex ideas accessible and exciting for learners of all ages. In addition to his practical work, Saquib has authored several articles, research papers, and educational materials.
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