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2 Dimensions Heat Transfer Analysis Based on 33 Criteria of DAI5 Framework – M. Yhandra Adityo (2306260151)

Hello everyone, let me introduce myself. My name is M. Yhandra Adityo, with SID number 2306260151, from the 2023 batch of the Mechanical Engineering major. On this occasion, I would like to talk about the DAI5 frameworkโ€™s 33 criteria, which must be implemented in every numerical method analysis, such as the heat transfer process that was conducted a few weeks ago, visualized on the video below:

In this presentation, I will show you all 33 DAI5 criteria that have guided me which are:

  • Consciousness of Purpose: My awareness must be active whenever I perform numerical method analysis, such as in this heat transfer process.
  • Self-Awareness: I need to understand who I am, why I am doing this, and how to do it effectively.
  • Ethical Consideration: Besides technical knowledge, I must also maintain proper conduct throughout the process.
  • Integration of CCIT: CCIT stands for Cara Cepat Ingat Tuhan in Indonesian, meaning “a quick way to remember God.” I must always acknowledge that God is present in my daily life.
  • Critical Reflection: I need to reflect on my work to ensure that I perform it as well as possible.
  • Clarity of Intention: Before starting my work, I must clearly define my intentions.
  • Alignment of Objectives: The objectives of my analysis must be well-structured to maximize the quality of my work.
  • Relevance of Intention: Besides clarity, my work must always align with my initial objectives.
  • Sustainability Focus: I must assess the impact of my work on the environment. Is it beneficial or harmful?
  • Focus on Quality: Apart from the quantity of data collected, ensuring high output quality is crucial for achieving the best results.
  • Problem Understanding: A clear understanding of the problem allows me to develop an optimal program for generating accurate results.
  • Stakeholder Awareness: In this case, the stakeholder refers to the object of my experimentโ€”a stainless steel plate with dimensions of 1ร—1 meter and a thickness of 0.5 meters.
  • Contextual Analysis: My analysis involves various scientific concepts, and I must fully understand them to conduct proper evaluations.
  • Root Cause Analysis: I need to determine the fundamental cause of heat transfer and incorporate it into my analysis.
  • Relevance of Analysis: Every step in my analysis must be relevant to all surrounding aspects to optimize its benefits.
  • Use of Data and Analysis: The more data I collect, the more accurate the results. Therefore, I must gather high-quality data to improve accuracy.
  • Assumption Clarity: Assumptions are not always prohibited in technical analysis. Sometimes, they are necessary for running simulations. For example, I assume that my steel plate has uniform thermal conductivity throughout its structure.
  • Creativity and Innovation: When encountering unsolvable problems, I must develop creative solutions and alternative methods.
  • Physical Realism: My analysis should reflect real-world physical phenomena.
  • Alignment with Intention: Every step I take in the analysis must be consistent with my initial objectives.
  • Scalability and Adaptability: The results of my program should be applicable to a wide range of fields.
  • Simplicity and Elegance: A lengthy process is useless if the output is not useful. The analysis should be as simple as possible while still achieving the intended objectives.
  • Clarity of Steps: The steps in my analysis must be clear and well-structured so that everyone involved understands their roles.
  • Comprehensiveness: My program should be able to analyze a broad range of aspects as effectively as possible.
  • Physical Interpretation: I must consider natural physical principles as a guide for analyzing the heat transfer process.
  • Error Minimization: A good program should generate numerical outputs that closely approximate real values. To achieve this, I used Python to develop a program that minimizes errors.
  • Verification and Validation: My program must be reviewed and validated by experts in the energy conversion sector before being published.
  • Iterative Approach: More iterations result in greater precision. In this case, I set my program to run 600 iterations to calculate heat distribution values.
  • Sustainability Integration: The results must be widely applicable and beneficial to society in everyday life.
  • Communication Effectiveness: To ensure better understanding among those reviewing my results, I must present them clearly and systematically.
  • Alignment with the DAI5 Framework: In every technical process I undertake, I must implement deep awareness of I, Intention, Initial Thinking, Idealization, and Instruction Set.
  • Documentation Quality: Finally, I have visualized the heat transfer process in a graph, which I will present to you below:

And also, the heat distribution diagram will be shown below:


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