空间教育:工科大学生空间政策教学的挑战与策略

Sara M. Langston
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引用次数: 0

摘要

法律和政策为空间行为体从事空间活动提供了基础。同样,不同层次的政策和法规适用于国际、国内,甚至体制上适用于政府和非政府实体。因此,教授空间条例和最佳做法的政策框架对于大学空间教育综合课程至关重要。然而,在指导技术类和非政策类大学生以人文学科为中心的话题时,挑战就出现了。阅读理解、写作能力、批判性思维和沟通技巧是政策教育的关键要素,但许多技术型学生很难达到这些要求。鉴于这些是在学术界和动态空间工作队伍中取得成功所必需的基本技能,可能需要调整传统的教学方法,以优化技术学生受众的期望学习成果。存在可定制的策略,可以将这些基本技能与实质性内容和材料结合并扩展,为学习、评估和体验提供一系列教学和学习模式。本演讲将重点介绍一所航空大学为应对这些挑战而尝试的潜在学习方法。例如,总体策略可能包括从学生旅程的视觉化开始(很像投资推销中的用户旅程),描绘学生参与课程内容的增值体验,并构建基于技能的实质性学习组件,这些组件按顺序引入并增加难度。学习方法的例子包括在作业创建中应用布鲁姆分类法。最重要的是:1)知识:包括识别、理解和记忆核心内容(如突击测验、阅读测验、累积复习测验、题库评估);2)分析:包括阅读理解、解释、评价、分析(如文章、摘要、案例分析);3)应用:涉及调查、研究和设计研究项目(如研究文章、海报、数字演示、短视频)。在整个学期中,脚手架作业和工件分成可管理的部分是指导学生走向成功和减少潜在的“专家盲点”的关键。最后,期末回顾和学生的自我反思有助于强调批判性思维过程,并提供学生在整个学期中获得实质性知识、技能和经验的视觉回顾
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Space education: challenges and strategies in teaching space policy to technical university students
Law and policy provide the foundation for space actors engaging in space activities. Likewise, various levels of policy and regulation apply internationally, domestically, and even institutionally to both governmental and nongovernmental entities. Consequently, teaching the policy frameworks for space regulations and best practices is essential for a comprehensive university curriculum in space education. Challenges arise, however, when instructing technical and non-policy university students in humanities-centered topics. Reading comprehension, writing ability, critical thinking, and communication skills are critical elements of policy education, yet many technically oriented students struggle with these requirements. Given these are fundamental skillsets necessary for success in both academia and a dynamic space work force, adapting traditional teaching methodologies may be required to optimize desired learning outcomes for technical student audiences. Customizable strategies exist that can combine and scale these fundamental skillsets with substantive content and materials, providing a range of teaching and learning modalities for study, assessment, and experience. This presentation will highlight potential learning approaches tried at one aeronautical university to address these challenges. For instance, overarching strategies may include commencing with a visual of the student journey (much like a user journey in an investment pitch) delineating the value-added experience for students engaging in course content, and building substantive skill-based learning components which are introduced sequentially and with increasing level of difficulty. Examples of learning methodologies include applying Bloom’s Taxonomy in assignment creation. Most importantly: 1) Knowledge: involves identifying, understanding and remembering core content (e.g. pop quizzes, reading quizzes, cumulative review quizzes, question bank assessments); 2) Analysis: involves reading comprehension, interpretation, evaluation, analysis (e.g. essays, summaries, case studies); 3) Application: involves investigation, research and designing research projects (e.g. research articles, posters, digital presentations, short videos). Scaffolding assignments and artifacts into manageable pieces throughout the semester is key to guiding students towards success and reducing potential for ‘expert blind spots.’ Lastly, an end-of-course review and self-reflection of the student journey is helpful in underlining the critical thinking process and provide a visual review of the student journey in acquiring substantive knowledge, skills, and experience throughout the term
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