药学英语学术写作初探

在西方大学,写作常常被作为最重要的学科,每一门课都是一门写作课。但在中国,很多人认为,学术论文写作仅仅是从汉语到英语的翻译。因此,很多作者提交的论文存在很多问题。仅仅有少数专家和研究生在国外知名杂志发表文章。文章审稿者通常让作者把文章全部重写。本文目的旨在为药学专门用途英语写作课程提供设计思路。设计这类课程时,主要问题是分析学习者的特定需求。其他问题包括：目标、语法结构、习得技巧以及评估等。这篇文章在实验过程中采用图示训练法,评估方式采用形成性评估与终结性评估相结合的方式,通过援引药学英语专业写作课,将此课程作为个案研究,将各个问题逐一讨论,为药学英语学术写作课程提出建议。     

创新实践教学模式对大学生素质教育的作用

大学生素质教育要求新时代的大学生不仅要学习理论知识,更重要的是培养科学思维并掌握应用技能。我校微生物学课程教学中探索了以创新实践为主要内容的模式改革,其中"理论—技能—创新实践"同步训练的创新模式,是以将参与创新实践计入期末成绩的形式"强迫"学生进入实验室参与科研项目。实施中我们以"教师—研究生—创新小组"交互学习的方式,任课教师制定规则与目标,研究生帮助创新项目的选题、研究方案设计及实施指导,创新小组依照目标参与研究生的科研课题,最后完成创新实践并获得一定比例的成绩。实践证实创新实践教学对促进学生的理论课程学习、科学思维培养以及创新意识训练等方面都有积极的促进作用,是大学生素质教育的一种实用且高效的教学模式。     

病原生物学专业研究生综合素质培养的探讨

病原生物学是基础医学中一门重要学科,高素质病原生物学人才培养,是适应社会发展、满足社会需求、促进创新型人才建设的关键.作者在实际工作中,注重引导学生学习态度和思维模式的转变,开展多种形式的教学,从学习态度、科研能力、协作能力等方面对病原生物学专业研究生综合素质的培养进行了初步的探讨,把研究生带到知识前沿、形成研究问题、引导批判和创新,使研究生掌握一定的科研思路与科研方法;注重动手能力的训练,严格施教,加强学术道德教育,探索高素质病原生物学研究生培养的新模式.     

Learning to lead

A successful research career requires not only an aptitude for science but also the mastering of other skills including communication, management, and grant writing. A growing number of programs at universities and research institutes aim to teach these crucial skills to graduate students, postdoctoral fellows, and junior faculty.     

Graduate Students and Knowledge Exchange with Local Stakeholders: Possibilities and Preparation

Tropical biologists are exploring ways to expand their role as researchers through knowledge exchange with local stakeholders. Graduate students are well positioned for this broader role, particularly when supported by graduate programs. We ask: (1) how can graduate students effectively engage in knowledge exchange during their research; and (2) how can university programs prepare young scientists to take on this partnership role? We present a conceptual framework with three levels at which graduate students can exchange knowledge with stakeholders (information sharing, skill building, and knowledge generation) and discuss limitations of each. Examples of these strategies included disseminating preliminary research results to southern African villages, building research skills of Brazilian undergraduate students through semester‐long internships, and jointly developing and implementing a forest ecology research and training program with one community in the Amazon estuary. Students chose strategies based on stakeholders' interests, research goals, and a realistic evaluation of student capacity and skill set. As strategies became more complex, time invested, skills mobilized, and strength of relationships between students and stakeholders increased. Graduate programs can prepare students for knowledge exchange with partners by developing specialized skills training, nurturing external networks, offering funding, maximizing strengths of universities in developed and developing regions through partnership, and evaluating knowledge exchange experiences. While balancing the needs of academia with those of stakeholders is challenging, the benefits of enhancing local scientific capacity and generating more locally relevant research for improved conservation may be worth the risks associated with implementing this type of graduate training model.     

Design and implementation of an introductory course for computer applications in molecular genetics

Formal training in computational biology was initiated at Wayne State University in 1990 to meet the needs of the faculty. This was still at a time when the molecular databases and analysis tools could be housed in what is now equivalent to a modern but dated desktop computer. In 1995 the course was expanded to include graduate students to provide these senior students with a foundation in computational biology. This course has armed our students with a requisite set of basic skills that are necessary for a successful career in molecular genetics. It is now an integral component of the graduate program of the Center for Molecular Medicine and Genetics and our experiences in course delivery have been detailed (BioInformatics Methods and Protocols, S. Misener and S. A. Krawetz, eds., Humana Press, Totowa, NJ, 2000.). The course was expanded to a campus-wide unlimited enrollment program for the summer of 2000 to address the needs of our student body. In this review we present our experience with delivering a multidisciplinary campuswide computational biology course to a new and widely diverse student body.     

Curriculum development and technology incorporation in teaching neuroscience to graduate students in a medical school environment

Today's neuroscience faculty member wears multiple hats and requires diverse skills to succeed in the competitive environment in which they find themselves. A common refrain from graduates is that there is a need for better training in the diverse, multiple skills that they will need to succeed in obtaining a faculty position and excelling in that position once it is obtained. Our university recently developed a new neuroscience graduate program that allowed us to create a curriculum and core courses de novo and that could be tailored to provide training in diverse skills used by everyday neuroscience faculty members. The current article details our rationale, design, and implementation of this new curriculum and its two major core courses. The genesis of the new curriculum also provided an opportune time to introduce and test new teaching technology in the two neuroscience core courses. The technology incorporated included on-line WebCT course sites, computer performance system, and the Tegrity system. Herein, we elaborate on our experiences with the use of this technology in the small class graduate course setting and provide insight on student feedback on the perceived effectiveness of the technology. The mechanisms and considerations that are needed for incorporation of such technology are also discussed. While no single curriculum or technology incorporation scheme will be applicable to all programs, it is hoped that our experiences in curriculum design and technology incorporation will be beneficial to other universities as they consider refining existing programs or beginning new ones.     

基于“平台”理念，打造实用型课程——谈研究生“细胞生物学大实验”课程建设

实验课课程建设是研究生培养的重要组成部分,为适应当前研究生教学环境的变化和研究生人才培养的需要,学校开设了名为“细胞生物学大实验”的综合性实验课程。该文介绍了该课程设立的背景、课程的教学目标、教学内容、实施过程和考核方式以及教学效果。     

医学研究生急救技能掌握情况的初步调查

目的了解医学研究生对急救技能的掌握晴况和对培训的态度。方法对我校2008-2011年入学的458名医学研究生急救技能掌握情况进行调查,并对4项技术（徒手心肺复苏、止血、包扎、固定与搬运）进行技能考核。发放调查问卷,了解对急救技能培训的需求情况。结果医学研究生急救技能掌握普遍较差,4项技术平均合格率为27．3％;心肺复苏技能培训合格率为55．6％。92．3％的医学研究生认为急救技能非常重要,89．5％希望定期得到急救技能培训。结论医学研究生急救知识与技能掌握较差,应定期对他们进行急救技能培训。     

Optimising the monitoring of tropical aquatic resources through the development of Indigenous scientific capability

Involving Indigenous community members to assist with the monitoring of harvested populations can greatly assist with the sustainable use of these resources. The benefits of training Indigenous community members in western scientific methods include: increased capability development, increased employment opportunities and more cost effective monitoring output than could be undertaken by government agencies. The aim of this project was to develop a training course to provide elementary scientific skills to Indigenous participants from communities throughout the Northern Territory of Australia. The short term goals of the training were: (1) to increase the capacity of Indigenous communities to conduct monitoring activities and collect biological and physical samples, (2) to increase the employment opportunities for Indigenous community members by providing them with additional skills and a recognised qualification and (3) To provide a cost effective way of conducting monitoring activities in remote areas by using local capability rather than incurring the expense of sending a research team to these locations. The longer term goal of the training is to facilitate the development of research partnerships between Indigenous community members and management agencies as a first step in the move to co-management of aquatic resources. The key components for successfully developing the course were; consistent engagement with Indigenous communities to build relationships and identify priorities for both the community and government agency, the course content involved participation from community members and government scientists, the training addressed the needs of students with English as a second language, the course content was heavily practical and pictorial, assessments were verbal and/or practical and students were housed in accommodation that allowed them to conduct the course to the best of their ability. The research that has been conducted by the participants, as well as three students gaining employment in government research agencies since the completion of the course, suggest that the training has been successful in achieving its short term goals. The research partnerships that have been developed between the government agency and Indigenous community members are still in their infancy, so the move to co-management between these groups is still several years away. However, this training has provided an initial step in this process by increasing the monitoring capability within a substantial number of coastal Indigenous communities that allows them to participate in research programs that underpin the management of their aquatic resources.     

PubMed, the New York Times and the Chicago Tribune as tools for teaching genetics

An elementary course in human heredity for students not planning to major in the sciences can be based on current scientific literature and on the popular media. Examinations are constructed from questions on recent abstracts obtained from PubMed. The course is designed to promote writing skills in the sciences, and students write two papers in the course of a quarter. In the first paper, students trace the primary source of media reports on genetics and attempt to evaluate the reporter's translation. In a second paper, students write popular articles on the basis of current primary sources.     

医学研究生灾难医学知识的初步调查及对策

目的了解医学研究生对灾难医学相关知识的认知情况。方法通过发放调查问卷,对我校2008-2011年入学的458名医学研究生进行灾难医学相关知识调查分析。结果医学研究生对灾难医学的基本概念、基本急救技术、灾后心理援助以及传染病的预防及处理相关知识掌握较好,但对灾难伤员的检伤分类、灾难医学管理相关知识掌握明显不足。结论医学研究生掌握灾难医学相关知识已明显提高,但仍存在不足,应加强医学研究生急救技能培训、开设灾难医学选修课,以提高我国灾难医学救援整体水平。     

关于生态学本科毕业设计(论文)教学的思考

本科毕业设计(论文)是本科实践教学的重要环节,对于提高本科教育质量和学生综合素质具有至关重要的作用。针对本科毕业设计(论文)方面存在选题盲目、时间安排不合理、写作不规范、缺乏创新等问题,利用新办专业在管理与课程设置方面处于调整阶段的优势,从课程培育、毕业论文时间延长、与在研课题相结合和全过程管理等方面,对如何提高本科毕业设计(论文)质量的方式、方法进行了深入的探讨。     

Integrating information literacy training into an inquiry-based introductory biology laboratory

ABSTRACT

Information literacy is an essential skill for biologists; however, most biology curricula do not intentionally integrate information literacy into classroom and laboratory exercises. There is evidence that developing information literacy skills in undergraduates improves their research skills, writing, and GPAs. Our objective was to integrate information literacy skills into a first semester introductory biology laboratory with a multi-week, inquiry-based module that leverages primary literature. Here we describe the module, which challenges students to develop and test a hypothesis related to parental care behaviour in birds. Students form hypotheses based on literature searching done during librarian-led information literacy sessions, produce an annotated bibliography, collect and analyse video data of barn swallows feeding their offspring, and present their findings. Analysis of students’ annotated bibliographies indicates that 83% of the referenced papers were appropriate for developing their specific hypotheses. The key elements ofa successful information literacy training plan include faculty-librarian collaboration, multiple classroom or laboratory sessions that introduce or utilize information literacy, and relevance ofthe information literacy training to an assignment. By introducing information literacy early inbiology curricula, departments can develop tiered information literacy plans that incorporate opportunities for students to use and refine these skills throughout their studies.     

The Quantitative Methods Boot Camp: Teaching Quantitative Thinking and Computing Skills to Graduate Students in the Life Sciences

The past decade has seen a rapid increase in the ability of biologists to collect large amounts of data. It is therefore vital that research biologists acquire the necessary skills during their training to visualize, analyze, and interpret such data. To begin to meet this need, we have developed a “boot camp” in quantitative methods for biology graduate students at Harvard Medical School. The goal of this short, intensive course is to enable students to use computational tools to visualize and analyze data, to strengthen their computational thinking skills, and to simulate and thus extend their intuition about the behavior of complex biological systems. The boot camp teaches basic programming using biological examples from statistics, image processing, and data analysis. This integrative approach to teaching programming and quantitative reasoning motivates students’ engagement by demonstrating the relevance of these skills to their work in life science laboratories. Students also have the opportunity to analyze their own data or explore a topic of interest in more detail. The class is taught with a mixture of short lectures, Socratic discussion, and in-class exercises. Students spend approximately 40% of their class time working through both short and long problems. A high instructor-to-student ratio allows students to get assistance or additional challenges when needed, thus enhancing the experience for students at all levels of mastery. Data collected from end-of-course surveys from the last five offerings of the course (between 2012 and 2014) show that students report high learning gains and feel that the course prepares them for solving quantitative and computational problems they will encounter in their research. We outline our course here which, together with the course materials freely available online under a Creative Commons License, should help to facilitate similar efforts by others.This is part of the PLOS Computational Biology Education collection.     

A new paradigm for graduate research and training in the biomedical sciences and engineering

98Emphasis on the individual investigator has fostered discovery for centuries, yet it is now recognized that the complexity of problems in the biomedical sciences and engineering requires collaborative efforts from individuals having diverse training and expertise. Various approaches can facilitate interdisciplinary interactions, but we submit that there is a critical need for a new educational paradigm for the way that we train biomedical engineers, life scientists, and mathematicians. We cannot continue to train graduate students in isolation within single disciplines, nor can we ask any one individual to learn all the essentials of biology, engineering, and mathematics. We must transform how students are trained and incorporate how real-world research and development are done-in diverse, interdisciplinary teams. Our fundamental vision is to create an innovative paradigm for graduate research and training that yields a new generation of biomedical engineers, life scientists, and mathematicians that is more diverse and that embraces and actively pursues a truly interdisciplinary, team-based approach to research based on a known benefit and mutual respect. In this paper, we describe our attempt to accomplish this via focused training in biomechanics, biomedical optics, mathematics, mechanobiology, and physiology. The overall approach is applicable, however, to most areas of biomedical research.     

Little intervention,big results: intentional integration of information literacy into an introductory-level biology lab course

Abstract

Information literacy refers to a set of skills that allow its user to find appropriate resources and use them to develop, define and defend arguments. In many undergraduate programms, including biology and STEM related fields, students are expected to utilise these skills in writing lab reports, paper analyses, and in developing testable hypotheses. Here, we describe the development of a formalised information literacy module for an introductory biology laboratory course and a rubric to measure the effectiveness of this module, including suggestions for implementation. Our data show that while short-term gains were not made using previously published IL tests, application of a tailored rubric to writing assignments did show significant improvement in the students’ ability to find relevant sources, define the purpose of their work and explore that focus. The results of our evaluation demonstrate that even modest additions of formal instruction in information literacy to a course can significantly improve student gains in this area.     

Medical students as medical educators: opportunities for skill development in the absence of formal training programs

All physicians, at some point in their career, are responsible for the education of their peers and junior colleagues. Although medical students are expected to develop clinical and research skills in preparation for residency, it is becoming clear that a student should also be expected to develop abilities as a teacher. A handful of institutions have student-as-teacher programs to train medical students in education, but most students graduate from medical school without formal training in this area. When such a program does not exist, medical students can gain experience in education through participation in peer teaching, course design, educational committees, and medical education scholarship. In doing so, they attain important skills in the development, implementation, and evaluation of educational programs. These skills will serve them in their capacity as medical educators as they advance in their careers and gain increasing teaching responsibility as residents, fellows, and attending physicians.