The aim of this article is to propose a creative and an innovative approach of syllabus design based on the principles of constructionism. This design is conceptualized as a schematic bee hive structure. This design features a central “mother cell” surrounded by six peripheral cells that function as storage and control units for educational data. The framework integrates mathematical constants and the golden ratio to guide the design process, enhancing its structure and functionality. Additionally, the adoption of an innovative coding system promotes technological integration, enabling institutions to create a syllabus design tailored to their specific needs. The article addresses challenges in designing a flexible, customizable syllabus that incorporates technology and mathematical optimization, aiming to improve the educational experience. The conclusion suggests that this innovative approach offers a dynamic and an adaptable alternative to conventional syllabus design, with performance standards emphasizing modularity, aesthetic and functional balance, and seamless technological integration. It focuses on the importance of the new design in fostering better educational outcomes. While competing approaches are not explicitly mentioned, other syllabus design models could include traditional linear structures and non-adaptive digital frameworks, which may not fully integrate constructionism or provide the same level of customization and technological support. They lack mathematical or constructionist foundation which this model seeks to surpass through its holistic, data responsive architecture.

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Integrating Artificial and Human Intelligence Within a Constructionism Framework: A Case Study in Syllabus Design

  • Aicha Douar

摘要

The aim of this article is to propose a creative and an innovative approach of syllabus design based on the principles of constructionism. This design is conceptualized as a schematic bee hive structure. This design features a central “mother cell” surrounded by six peripheral cells that function as storage and control units for educational data. The framework integrates mathematical constants and the golden ratio to guide the design process, enhancing its structure and functionality. Additionally, the adoption of an innovative coding system promotes technological integration, enabling institutions to create a syllabus design tailored to their specific needs. The article addresses challenges in designing a flexible, customizable syllabus that incorporates technology and mathematical optimization, aiming to improve the educational experience. The conclusion suggests that this innovative approach offers a dynamic and an adaptable alternative to conventional syllabus design, with performance standards emphasizing modularity, aesthetic and functional balance, and seamless technological integration. It focuses on the importance of the new design in fostering better educational outcomes. While competing approaches are not explicitly mentioned, other syllabus design models could include traditional linear structures and non-adaptive digital frameworks, which may not fully integrate constructionism or provide the same level of customization and technological support. They lack mathematical or constructionist foundation which this model seeks to surpass through its holistic, data responsive architecture.