# Make a Comparison Table with the following elements:1.- PR…

Make a Comparison Table with the following elements: 1.- PROBLEM SOLVING MODEL: Explain what this model consists of. Theoretical.  Your application. Identify the steps of the Troubleshooting Model.Point out the advantages or disadvantages

Comparison Table: Problem Solving Models

In this comparison table, we will explore and analyze two problem-solving models: the theoretical problem-solving model and its practical application, specifically the Troubleshooting Model. We will examine the steps involved in the Troubleshooting Model and discuss its advantages and disadvantages.

Problem Solving Model: Theoretical

The theoretical problem-solving model is a structured approach to identify, analyze, and solve problems. It provides a systematic framework that can be applied to a wide range of problem-solving scenarios. Below is a breakdown of the key steps involved in this model:

1. Define the Problem: The first step in the problem-solving process is to clearly define the problem at hand. This involves identifying the issue, understanding its impact, and establishing the desired outcome.

2. Analyze the Problem: Once the problem is defined, a thorough analysis of the underlying causes and factors contributing to it is conducted. This step aims to gain a comprehensive understanding of the problem’s root causes and potential impacts.

3. Generate Possible Solutions: In this step, various potential solutions or alternatives are brainstormed and carefully evaluated. The focus is on generating creative and viable options that can effectively address the problem.

4. Evaluate and Select the Best Solution: The generated solutions are critically assessed based on their feasibility, effectiveness, and alignment with the desired outcome. The optimal solution is chosen, considering possible constraints and risks.

5. Implement the Solution: Once the solution is selected, it is then put into action. This step involves planning and executing the necessary actions to implement the chosen solution effectively.

6. Monitor and Evaluate the Results: After the solution is implemented, its outcomes are continually monitored and evaluated to determine its effectiveness. If the results are not satisfactory, adjustments may be made to improve the solution.

– Systematic Approach: The theoretical problem-solving model offers a structured approach, enabling individuals to tackle problems in a logical and organized manner.
– Comprehensive Analysis: By thoroughly defining and analyzing the problem, this model helps identify the underlying causes and prevent merely treating symptoms.
– Creativity and Alternatives: It encourages the generation of multiple potential solutions, fostering creative thinking and exploration of alternative options.
– Evaluation and Optimization: The process of evaluating and selecting the best solution ensures that the chosen approach is aligned with the desired outcome and maximizes effectiveness.

– Time-Consuming: The theoretical problem-solving model can be time-consuming, especially in complex situations that require extensive analysis and evaluation of numerous alternatives.
– Subjectivity: The evaluation and selection of the best solution may involve subjective judgment, introducing a level of bias or personal preferences.
– Overemphasis on Analysis: Excessive analysis may result in “analysis paralysis” and delay the implementation of practical solutions.
– Lack of Flexibility: The rigidity of the model may limit the consideration of unconventional or innovative approaches to problem-solving.

Troubleshooting Model: Practical Application

The Troubleshooting Model is a practical application of the theoretical problem-solving model, specifically designed for resolving technical issues or operational problems. This model follows a more specialized approach, primarily employed in fields such as technology, engineering, or systems maintenance. The key steps involved in the Troubleshooting Model are as follows:

1. Identify the Problem: In this initial step, the problem or malfunction is identified and clearly defined. It may involve understanding the symptoms, investigating error codes, or gathering relevant information.

2. Gather Information: Once the problem is identified, collecting relevant information about the system or equipment involved becomes crucial. This may involve examining documentation, consulting technical manuals, or conducting tests.

3. Analyze Potential Causes: A systematic analysis of potential causes is conducted based on the information gathered. This step aims to narrow down the possible reasons for the problem.

4. Test and Verify: Potential causes are tested and verified to identify the root cause accurately. This may involve running diagnostics, performing experiments, or conducting systematic checks.

5. Implement the Solution: Once the root cause is identified, an appropriate solution or workaround is implemented. This step may involve repairing or replacing components, reconfiguring settings, or applying software patches.

6. Test and Confirm the Solution: The implemented solution is tested to ensure that it resolves the problem effectively. This step aims to validate the solution’s success and prevent recurring issues.

7. Document the Solution: Finally, the steps taken to identify and resolve the problem are documented. This documentation serves as a reference for future troubleshooting or as a knowledge resource for others.