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化学分析实验是分析化学教学的重要组成内容,是实践分析化学"量"的概念的重要途径。本文探讨了国际化合作办学背景下化学分析实验课程的全英文教学模式与方法,总结了化学分析实验(全英)课程建设过程的经验与不足,展望了化学分析实验全英文教学的前景。 相似文献
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Over the last six years through a Department of Energy Radiochemistry Education Award Program (REAP) we have developed a completely
web-based course in nuclear and radiochemistry given at the University of Texas at Austin. This course has had nuclear and
radiation engineering and chemistry graduate students. While the course also has an extensive laboratory component only the
lectures are web based. The lectures begin with a historical introduction of radiochemistry followed by two movies on Madame
Curie. This is followed by the usual lectures on radioactivity, fundamental properties, radioactive decay, decay modes, and
nuclear reactions. As section on radioactive waste management and nuclear fuel cycle is also presented. Lectures in neutron
activation analysis, geo- and cosmochemistry, and plutonium chemistry have also been developed. All lectures are in power
point with many animations and a significant number of solved problems. All students are required to make a short oral presentation
on some aspect of nuclear and radiochemistry in their research or a chosen topic. 相似文献
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Geoffrey R. Scollary 《Fresenius' Journal of Analytical Chemistry》1997,357(2):224-226
Post-graduate education in analytical chemistry in Australian universities does not have a high profile at the national level,
yet there is a significant demand from employers for graduates with qualifications in analytical chemistry. To meet this demand,
some specialist courses such as Graduate Diplomas and course work Master’s degrees have been established. These courses however
have a research component which is less than 50% of the total program. On the other hand, the traditional Master of Science
and Doctor of Philosophy degrees are research only degrees and follow on from a fourth year (Honours year) of university study
which may or may not have a course work component in analytical chemistry. The absence of course work past Year 4 produces
graduates with a high degree of specialisation but with a limited view of the relationship between analytical chemistry and
the social and R&D needs which drive research in analytical chemistry. It is argued that there should be a course work component
in Years 5, 6 and 7 and that this course work component should address both discipline and general skills issues.
Received: 15 January 1996/Accepted: 28 January 1996 相似文献
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Geoffrey R. Scollary 《Analytical and bioanalytical chemistry》1997,357(2):224-226
Post-graduate education in analytical chemistry in Australian universities does not have a high profile at the national level,
yet there is a significant demand from employers for graduates with qualifications in analytical chemistry. To meet this demand,
some specialist courses such as Graduate Diplomas and course work Master’s degrees have been established. These courses however
have a research component which is less than 50% of the total program. On the other hand, the traditional Master of Science
and Doctor of Philosophy degrees are research only degrees and follow on from a fourth year (Honours year) of university study
which may or may not have a course work component in analytical chemistry. The absence of course work past Year 4 produces
graduates with a high degree of specialisation but with a limited view of the relationship between analytical chemistry and
the social and R&D needs which drive research in analytical chemistry. It is argued that there should be a course work component
in Years 5, 6 and 7 and that this course work component should address both discipline and general skills issues.
Received: 15 January 1996/Accepted: 28 January 1996 相似文献
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Traditional laboratories are often based on the hidden assumptions that students can, and indeed should, work alone, and that they can leave the laboratory when they have finished collecting the data or observations. Discovery laboratories provide an alternative to traditional laboratories in which one or more routes are taken by groups of students working toward the discovery of a specific scientific relationship or concept. The discovery laboratories used in this study were developed by colleagues from institutions where faculty teach the laboratory component of the course. The goal of this study was to see what happens when discovery laboratories are integrated into the general chemistry curriculum at a large research university where teaching assistants are in charge of the laboratory sections.For the purpose of this study, we differentiated between a minimal level of success, in which discovery laboratories become an alternative approach to traditional experiments, and a significant level of success, in which they become a preferred approach. Evidence is presented to support the notion that discovery laboratories can be successfully integrated into the curriculum at a large research university, that students in the discovery laboratories believe they had to take responsibility for what happened in the laboratory, that both teaching assistants and the students reacted positively to the discovery laboratories, and that we achieved at least our definition of the minimal level of success. 相似文献
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The ability of scientific inquiry is one of the important abilities of undergraduate students. We have been thinking and exploring to cultivate students' scientific research ability in the course of laboratory teaching. In recent years, we had carried out persistently reform and practice to the laboratory teaching content and the teaching method in organic chemistry, for example, introduction to the frontier of scientific research, exploring the abnormal phenomena of the experiment, organization of experiment discussion, and carrying out the extracurricular research experiments. The above measures can greatly stimulate the students' interest in learning. Their abilities to think, observe, analyze and solve problems were fully developed. The students' ability of scientific inquiry had been cultivated in multiple aspects. The above measures have effectively promoted the improvement of teaching quality of organic chemistry laboratory course, and also supported the training objectives of high-quality innovative talents in chemistry. 相似文献
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大学有机化学实验课程中的思政案例设计 总被引:1,自引:0,他引:1
为充分挖掘有机化学实验课程中的思政元素,发挥专业课程在立德树人方面的重要作用,我们对部分有机化学教学实验的教学理念和教学内容进行了改革和探索。构建了以有机化学实验知识为主体,以中华传统文化、有机化学中的励志故事、日常生活中的有机化学等人文素材为主导的有机化学实验课程的思政教学体系,本文主要对课程思政的设计理念和具体案例进行了介绍。 相似文献
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南京大学国家级化学实验教学示范中心基于"三三制"本科人才培养理念,对化学实验教学进行了改革,完善了"专业学术类"人才培养的实验课程,加强了"交叉复合类"实验课程建设,探索了"就业创业类"人才培养的实验课程及平台建设,取得了显著的建设成效。 相似文献
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介绍高校化学实验课的总体目标、现状和问题,并针对现状和存在的问题,将管理学原理应用于高校化学实验课教学,以辅助提高教学效果。 相似文献
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Before teaching a course, the instructor must identify what she or he intends for the students to learn. For most analytical chemistry instructors, this usually involves an assessment of what methods and techniques to include and at what depth to cover them. There are many other skills, though, that will be important to students for their future success. Most college classes in analytical chemistry are taught in a lecture format. Techniques that can be used to improve the learning that can occur during a lecture are described. An alternative to lecturing is the use of cooperative learning. Cooperative learning offers the potential to develop skills such as teamwork, communication, and problem-solving that are more difficult to impart in a lecture format. The laboratory component of analytical chemistry courses is often an underutilized learning resource. More often than not, the lab is used to demonstrate fundamental wet and instrumental analysis techniques and develop rudimentary laboratory skills. The analytical lab should also be used to develop meaningful problem-solving skills and to demonstrate and have students participate in the entire analytical process. Ways of enhancing the analytical laboratory to include more global skills that are important to career success are described.Received January 12, 2003; accepted March 7, 2003
Published online July 16, 2003 相似文献
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Enoch Cobbina Julius Yao Agbezudor Prince Sodoke Amuzu Thomas K. Gyampomah 《Accreditation and quality assurance》2012,17(6):613-619
High-quality and reliable laboratory services are important components of effective and well-functioning health systems. Accurate, reliable and timely medical laboratory testing is crucial to patient care and disease surveillance. Unfortunately, in many sub-Saharan African countries, medical laboratory systems are adversely affected by the unavailability of medical laboratories, poor laboratory infrastructure and lack of well-trained personnel [1]. Quality in the laboratory is only achieved in a systematic way through the implementation of a quality management system. The results of the study showed that approximately 60?% of the 78 respondents were unaware of the requirements of ISO 15189:2007. A trial of proficiency testing, termed ??blind proficiency testing??, was carried out in which 19 laboratories determined the concentrations of urea and cholesterol in a proficiency testing material. Of the 19 laboratories that determined the concentration of urea, 63?% produced satisfactory results with scores between ?2 and +2. Similarly, 63?% of the participating laboratories obtained satisfactory z scores for cholesterol determination. Some of the laboratories that obtained satisfactory scores for urea determination had unsatisfactory scores for cholesterol determination and vice versa. It is recommended that the Ghanaian government pass a law and establish a standard to regulate medical laboratories in Ghana in order to improve quality in a significant way. 相似文献
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仪器分析实验是化学及相关专业的重要实验课程。结合课程特点和培养目标,提出了将比较教学法融入课堂的教学方法,指出了意义和作用,介绍了教学中开展比较教学的实践与应用。该方法加强了学生对仪器功能特点的掌握,激发其实验兴趣和创新精神,学生的认知能力在比较过程中不断建构、丰富、提高和发展,取得了较好的效果。 相似文献