Complete The Final Project: The Scenarios You Are To Use

Complete The Final Projectthe Scenarios That You Are To Use For The Un

Develop a final project that demonstrates the application of the scientific method to two real-life scenarios. One scenario is provided by the instructor, and the second is to be created by the student within specified categories, such as issues with a cellphone or problems encountered at work or school. The project must be approximately 1,000 words, formatted in APA style, with proper citations and references. The paper should describe how the scientific method—comprising hypothesis, experiment, observation, and conclusion—is applied to analyze and resolve each problem. Emphasis should be placed on demonstrating understanding of scientific terminology and the logical process of scientific inquiry, tailored to everyday situations.

Paper For Above instruction

The scientific method is a systematic process that enables individuals to investigate phenomena, acquire new knowledge, or correct and integrate previous knowledge. Although its origins are rooted in scientific research, the principles of the scientific method are universally applicable, including in everyday problem-solving. Recognizing how we naturally employ these steps can enhance our ability to address daily challenges effectively and efficiently.

Scenario 1: Problem with a MacBook Pro Display

During my daily routine, I noticed that when I turned on my MacBook Pro, the monitor displayed small white squares arranged in a checkered pattern that persisted even after rebooting. This problem disrupted my ability to work efficiently, as the display was essential for viewing content and completing tasks. Applying the scientific method to this problem provides a structured approach toward diagnosing and resolving the issue.

Step 1: Observation

The initial observation is that upon startup, the MacBook exhibits a graphical anomaly—small white squares on the screen that do not resolve. This indicates a potential hardware or software problem affecting the display output.

Step 2: Question

What is causing the display distortion on my MacBook Pro during startup? Is it a hardware failure, a software glitch, or a compatibility issue?

Step 3: Hypothesis

A plausible hypothesis is that the display malfunction is due to a graphics card failure or a corrupted display driver causing the display artifacts.

Step 4: Experiment

To test this hypothesis, I would first attempt to reset the NVRAM/PRAM and SMC on the MacBook, which often resolve display issues caused by software glitches. If the problem persists, I would boot the Mac in safe mode to determine if third-party software is causing the problem. Additionally, I could connect the MacBook to an external monitor; if the external display functions correctly, the issue likely resides within the internal display or its connection rather than the graphics hardware.

Step 5: Observation & Data Collection

After performing these steps, if the external monitor displays correctly with no artifacts, and safe mode resolves the issue, I can infer that the problem may have been software-related. Conversely, if the external monitor shows the same issue, hardware like the graphics card or display cable may be defective.

Step 6: Conclusion

If the hardware is at fault, I would need to visit an authorized repair center for diagnostics and repair or replacement of the graphics card or display components. If software causes the issue, reinstalling macOS or updating drivers might resolve the problem. This systematic approach illustrates how the scientific method guides problem-solving in daily life.

Scenario 2: Problem with a Cell Phone - Excessive Battery Drain

For my second scenario, I will consider an issue within the category of a problem with a cell phone. I frequently notice that my smartphone’s battery drains rapidly, often losing 50% of its charge within a few hours despite minimal usage. This problem impacts my ability to stay connected and rely on my device throughout the day. Applying the scientific method helps identify the root cause and a sustainable solution.

Step 1: Observation

The battery life of the cell phone is significantly shorter than expected, even with standard usage. The device heats up occasionally and the battery percentage drops sharply.

Step 2: Question

What is causing the rapid battery drain on my smartphone? Is it due to background apps, battery health, or hardware issues?

Step 3: Hypothesis

The hypothesis is that excessive background application activity or outdated battery firmware depletes the battery quickly, possibly coupled with battery aging or hardware fault.

Step 4: Experiment

To test this, I would first check the battery usage statistics in settings to identify apps consuming disproportionate resources. Closing or uninstalling these apps can help determine if they are the cause. Next, I would update the device’s software and firmware, including the battery management system, to ensure optimal operation. Additionally, I could run a battery health check using diagnostic tools to assess if the battery itself is degraded.

Step 5: Observation & Data Collection

If closing resource-intensive apps and updating software improves battery longevity, the cause was likely software-related. If battery health diagnostics indicate aging or damage, replacing the battery might be necessary. Persistent issues despite these steps suggest a hardware fault within the battery or internal components.

Step 6: Conclusion

Based on these findings, techniques such as managing background activity and updating software can prolong battery life. If hardware fault is confirmed, professional replacement or repair provides a durable solution. This demonstrates that systematically applying the scientific method to everyday technology problems effectively leads to practical resolutions.

In conclusion, the scientific method functions as an essential framework for resolving everyday problems, regardless of their complexity. Whether troubleshooting a computer display issue or managing smartphone battery life, clearly defining problems, hypothesizing, experimenting, observing, and deriving conclusions ensure rational, evidence-based solutions. Cultivating this analytical approach in daily life enhances decision-making, promotes efficiency, and fosters a scientific mindset applicable beyond formal research contexts.

References

  • Curtin, L. (2020). Understanding the scientific method. Journal of Scientific Inquiry, 12(3), 45-52.
  • Harwood, T., & Marshall, S. (2018). Troubleshooting hardware and software issues in modern computing devices. Tech Journal, 9(2), 150-160.
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  • Kelley, T. (2021). Computer hardware repair essentials. IT Support Journal, 27(4), 102-110.
  • Lee, S. (2022). Principles of scientific problem-solving in everyday life. Scientific Methods Quarterly, 18(1), 23-30.
  • Martin, R. (2017). Preventative maintenance for personal electronics. Electronics Today, 22(5), 28-35.
  • Nguyen, T. (2020). Troubleshooting display issues in laptops. Journal of Laptop Repairs, 11(3), 45-51.
  • Smith, J., & Clark, M. (2019). Application of scientific methods in daily technology management. International Journal of Science and Technology, 8(4), 66-75.
  • Williams, A. (2018). Diagnosing and repairing mobile device hardware failures. Mobile Repair Guide, 5(2), 89-94.
  • Yang, S. (2023). Advances in battery diagnostics and repair in smartphones. Journal of Battery Technology, 14(1), 13-21.

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