技术教育和模块化实验室

Anthony E. Schwaller
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引用次数: 2

摘要

技术教育领域的变化非常迅速。在全国范围内,越来越多的中小学将传统的工艺美术课程转变为现代技术教育课程。其中一个主要变化是使用模块化技术系统,也称为模块化技术教育环境。模块化技术系统现在在美国许多中等和中等技术教育项目中使用。这些系统在课堂上使用独立的模块化技术教学单元。例如,流体动力领域的典型单元包括一个模块化单元,该单元有液压训练器、液压阀、仪表、液压电路板和各种耗材、工具和附件,包括主计算机和相关软件。学生在整个模块单元中完成各种作业,并继续推进更高水平的内容。各种模块化单元可用于初中和中学课程。一些比较流行的模块化技术单元包括空气动力学、计算机问题解决、光纤、计算机图形学、飞行模拟、电子音乐、机器人、CAD/CAM技术、流体动力、计算机集成制造、卫星通信、桌面出版、虚拟现实、生物技术、视频编辑、CO滚道、空间和火箭、空中轨道车辆、无线电广播、人工智能和气象卫星。虽然不是完全匹配,但模块化课程中的每个教学单元都可以与技术素养标准相关联(国际技术教育协会[ITEA], 2000)。模块领域或内容也与国家教师教育认证委员会(NCATE)和技术教师教育委员会(CTTE)技术教育专业领域指南(ITEA, 1997)中建立的公认的技术主题相关。模块化技术系统引导学生概念化、实验和检验交通、通信、建筑和制造等主要内容主题的原理。他们还结合了多层次的课程,以促进团队合作、决策、批判性思维、逻辑推理、故障排除、问题解决、独立研究和职业探索等关键技能的发展。模块化技术教学帮助学生理解和评估技术对当今社会的影响,以便对未来如何使用、管理甚至创造技术做出明智的决定。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Technology Education and Modular Labs
The field of technology education is changing very rapidly. Nationally, more and more middle and secondary schools are converting traditional industrial arts programs to contemporary technology education programs. One of the major changes is the use of modular technology systems, also called modular technology education environments. Modular technology systems are now used in many of the middle and secondary technology education programs throughout the United States. These systems use self-contained modular units of technology instruction in the classroom. For example, a typical unit in the area of fluid power would include a modular unit that has a hydraulic trainer, hydraulic valves, gauges, hydraulic circuit boards, and various consumable supplies, tools, and accessories including the main computer and associated software. Students complete various assignments throughout the modular unit and continue to advance to higher level content. Various modular units are available for middle and secondary school programs. Some of the more popular modular technology units include aerodynamics, computer problem solving, fiber optics, computer graphics, flight simulation, electronic music, robotics, CAD/CAM technology, fluid power, computer integrated manufacturing, satellite communications, desktop publishing, virtual reality, biotechnology, video editing, CO raceway, space and rocketry, air-track vehicle, radio broadcasting, artificial intelligence, and weather satellite. Although not completely matched, each unit of instruction within a modular program can be linked to the Standards for Technological Literacy (International Technology Education Association [ITEA], 2000). The module areas or content are also related to accepted technology themes that have been established within the National Council for the Accreditation of Teacher Education (NCATE) and Council for Technology Teacher Education’s (CTTE) technology education specialty area guidelines (ITEA, 1997). Modular technology systems guide the student to conceptualize, experiment, and examine the principles of the major content themes of transportation, communications, construction, and manufacturing. They also incorporate a multilevel curriculum that promotes the development of critical skills of teamwork, decision making, critical thinking, logical reasoning, troubleshooting, problem solving, independent research, and career exploration. Modular technology instruction helps students understand and assess the impact of technology on society today in order to make informed decisions about how they will use, manage, and even create technologies for the future.
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