Physics Experiment Report

Physics Experiment Report

1) Introduction: Explain the theory behind this experiment in a paragraph between 150 and 250 words. (2 Points)

Suppose you are using external resources; include the reference. It would be best if you had any relevant formulas and explanations of each term. You may use the rich formula tools embedded here.

2) Hypothesis: In an If /Then statement, highlight the purpose of the experiment.

For instance: If two same shape objects with different masses are dropped from the same height, they will hit the ground simultaneously. (2 points)Post-lab section:

Physics Experiment Report
3) Attach your analysis here, including any table, chart, or plot image. (3 Points)

4) Attach the image of any table, chart, or plot here. (4 points)

Each part is 2 points.

Table 1 and the calculation of the percent error.

Table 2 and the calculation of the percent error.

5) Attach the image of samples of your calculation here. (2 points)

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6) In a paragraph between 100 and 150 words, explain what you Learn. What conclusion can you draw from the results of this lab assignment? (2 points)

7) In one sentence, compare the results of the experiment with your Hypothesis. Why? (1 point)

8) Attach your response to the questions in the lab manual here. (4 points)

Question 1: 1 point

Question 2: 1 point

Question 3: 1 point

Question 4: 1 point Physics Experiment Report

1. What is the theory behind this experiment?,

2. What is the hypothesis in an If/Then format?,

3. What analysis (tables  charts calculations) supports the experiment?,

4. What did you learn and conclude from the experiment?,

5. How do the results compare with the hypothesis?

✅ Comprehensive General Answers

1) Introduction (Theory)
This experiment is based on the principles of classical mechanics, particularly the relationship between force, motion, and energy. According to Newton’s laws of motion, an object’s acceleration is determined by the net force acting on it and its mass. In many physics experiments, we measure quantities such as displacement, velocity, and time to verify theoretical predictions. A common formula applied is $F=ma$, where $F$ is force, $m$ is mass, and $a$ is acceleration. Another useful relationship is the kinematic equation:

s=ut+12at2s = ut + tfrac{1}{2}at^2s=ut+21​at2

where $s$ is displacement, $u$ is initial velocity, $a$ is acceleration, and $t$ is time. The experiment helps demonstrate how these theoretical formulas can be applied to real-world motion, while also allowing us to analyze error sources and compare observed data with theoretical expectations. Through measurement and calculation, the experiment emphasizes the importance of precision, accuracy, and the concept of percent error when validating results.

2) Hypothesis
If an object is subjected to motion under controlled conditions, then its observed behavior will follow the predictions of Newton’s laws of motion and kinematic equations.

3) Analysis (General Example)

• Table 1: Recorded measurements (time, displacement, velocity) and calculated values. Percent error was computed to compare experimental and theoretical results.

• Table 2: Repeated trials to improve accuracy and check consistency. Percent error again highlighted differences between observed and expected outcomes.

• Chart/Plot: A graph of displacement vs. time showed a parabolic trend, confirming constant acceleration. A velocity vs. time plot yielded a straight line, supporting theoretical predictions.

4) What I Learned (Conclusion)
Through this experiment, I learned how theoretical equations of motion translate into measurable results. By conducting repeated trials, recording data, and analyzing percent errors, I gained a clearer understanding of how ideal conditions differ from real experiments due to factors like air resistance, human error, or measurement limitations. The results confirmed the general validity of Newton’s laws, while also highlighting the role of experimental error. In conclusion, the experiment strengthened my ability to connect theoretical physics with hands-on practice and data interpretation.

5) Results vs. Hypothesis
The results generally supported the hypothesis because the data trends matched theoretical predictions, with minor deviations explained by experimental error.

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