Conceptual Understanding

Earnest L. Perry, María E. Len-Ríos
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引用次数: 22

Abstract

Conceptual understanding is a phrase used extensively in educational literature, yet one that may not be completely understood by many K-12 teachers. A Google search of the term produces almost 15 million entries from a vast arena of subjects. Over the last twenty years, mathematics educators have often contrasted conceptual understanding with procedural knowledge. Problem solving has also been in the mix of these two. A good starting point for us to understand conceptual understanding is to review The Learning Principle from the NCTM Principles and Standards for School Mathematics (2000). As one of the six principles put forward, this principle states: Students must learn mathematics with understanding, actively building new knowledge from experience and prior knowledge. For decades, the major emphasis in school mathematics was on procedural knowledge, or what is now referred to as procedural fluency. Rote learning was the norm, with little attention paid to understanding of mathematical concepts. Rote learning is not the answer in mathematics, especially when students do not understand the mathematics. In recent years, major efforts have been made to focus on what is necessary for students to learn mathematics, what it means for a student to be mathematically proficient. The National Research Council (2001) set forth in its document Adding It Up: Helping Children Learn Mathematics a list of five strands, which includes conceptual understanding. The strands are intertwined and include the notions suggested by NCTM in its Learning Principle. To be mathematically proficient, a student must have: • Conceptual understanding: comprehension of mathematical concepts, operations, and relations • Procedural fluency: skill in carrying out procedures flexibly, accurately, efficiently, and appropriately • Strategic competence: ability to formulate, represent, and solve mathematical problems • Adaptive reasoning: capacity for logical thought, reflection, explanation, and justification • Productive disposition: habitual inclination to see mathematics as sensible, useful, and worthwhile, coupled with a belief in diligence and one's own efficacy. As we begin to more fully develop the idea of conceptual understanding and provide examples of its meaning, note that equilibrium must be sustained. All five strands are crucial for students to understand and use mathematics. Conceptual understanding allows a student to apply and possibly adapt some acquired mathematical ideas to new situations.
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概念的理解
概念理解是教育文献中广泛使用的一个短语,但许多K-12教师可能并不完全理解这个短语。在谷歌上搜索这个词,会从大量的主题中产生近1500万条条目。在过去的二十年里,数学教育者经常将概念性理解与程序性知识进行对比。解决问题的能力也是这两者的结合。我们理解概念理解的一个很好的起点是回顾NCTM学校数学原则和标准(2000)中的学习原则。作为提出的六大原则之一,这一原则指出:学生必须在理解中学习数学,积极地从经验和已有知识中建立新的知识。几十年来,学校数学的主要重点是程序性知识,或者现在所说的程序性流畅性。死记硬背是常态,很少关注对数学概念的理解。死记硬背不是数学的答案,尤其是当学生不理解数学的时候。近年来,人们一直在努力关注学生学习数学的必要条件,以及学生精通数学的意义。国家研究委员会(2001年)在其文件《加法:帮助儿童学习数学》中列出了五个方面,其中包括概念理解。这些线索交织在一起,包括NCTM在其学习原则中提出的概念。要精通数学,学生必须具备:•概念理解能力:对数学概念、运算和关系的理解•程序流畅性:灵活、准确、有效和恰当地执行程序的技能•战略能力:制定、表达和解决数学问题的能力•适应性推理能力:逻辑思维、反思、解释和论证的能力•生产倾向:习惯性地认为数学是明智的、有用的和有价值的,并相信勤奋和自己的能力。当我们开始更充分地发展概念性理解的概念并提供其含义的例子时,请注意平衡必须持续。这五条线对学生理解和使用数学至关重要。概念理解使学生能够应用并可能将一些已获得的数学概念应用于新的情况。
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