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This paper reports on the integration of the teaching of writing skills into the first year curriculum in biological sciences at Sydney University. Written genres appropriate for a first year program were identified and teaching/learning materials and methodologies were developed to prepare students for these writing tasks. These tasks and the accompanying materials and methodologies formed a structured and systematic process for learning about writing in the context of the subject matter being taught at the time. This process together with standardised feedback and assessment procedures encouraged independent learning approaches and the progressive development of writing skills. Student and staff evaluations have shown that the writing program is valued and that student learning of writing skills has been enhanced. However, they have also highlighted the importance of changes in student and teacher perception and attitudes to scientific writing and its place in the course, as well as the key role of communication in the program as a whole.
The current writing program has been trialled, for the last three years, as part of the first year biology course at the University of Sydney. In previous years there was considerable anecdotal evidence from teaching staff of the need for students to be made aware of and/or taught about writing in the context of the course. However, most suggested solutions were dismissed as too expensive or difficult to implement with such a large (850) group of students. While it has always been acknowledged that writing exercises should be set and assessed as part of the course curriculum, problems arose with the minimal time allocated for teaching writing and quantitative and qualitative variation in marking and feedback. Usually one, or at the most two written assignments were set and marked during the course and students thus had little opportunity to practise their writing skills, and to act upon the feedback provided. Written work in the course was not set, discussed or marked with language and English usage in mind, and this gave the impression that writing skills were not as valued or as integral a part of the course as disciplinary knowledge. A successful application for a CAUT teaching development grant provided an opportunity to overcome some of these problems by developing a specific integrated writing program within a science course (Drury and Taylor, 1995).
The aim of this program was to integrate the teaching of writing skills with the teaching of disciplinary knowledge so that the purposes of communicating such knowledge were made explicit. Learning goals for communicating disciplinary knowledge were identified based on descriptions of the written genres appropriate for each level of study in the course, so that students could be guided to master these as they progressed through the year. Once appropriate genres had been identified and described, teaching/ learning materials and methodologies were developed, and integrated into the curriculum, so they could be learnt in a sequential and structured way at different stages of the course. The materials and methodologies were used as the basis for small group discussion (approximately 4/5 students within a larger group of 15 students) within the context of a laboratory class of approximately 60 students. Each group of 15 students was directed and monitored by a member of staff and teaching about writing was juxtaposed with the biological content being taught at the time. Such discussions were supplemented by individual and group writing practice followed by group or paired feedback, and teacher feedback, on student writing. Another important aspect of this approach was in making explicit to students the assessment criteria to be used in giving feedback, so that they were encouraged to monitor their own writing, discuss it with their peers, and thus become more independent learners.
Table 1, below, shows the progression of teaching about writing, writing practice, and assessment and feedback for the first semester of the course. (The development of oral communication is also included in the table but will not be discussed in this paper). All teaching materials use examples which are directly relevant to the content at that stage of the course. Thus students combine practice in writing with testing of their understanding of the concept areas currently being covered in lectures and laboratory classes. The sequencing and complexity of the writing tasks also parallels the students' increasing understanding of more complex biological concepts. The second semester of the course has a similar sequence of quizzes and lab reports, but there are fewer discussions and group writing activities. Feedback is still given in the same format for all assignments and an increasing weighting of marks is given to reports as the course progresses.
| Week | Content of laboratory class | Teaching writing | Writing practice | Learning about assessment | Assessment and feedback | Developing independent learning skills |
| 1 | Introduction to course. | Discussion and notes on writing a description, keeping lab records. | Describing a seedling. | Introduction to the assessment of writing tasks for the year. Discussing group written work. | Group and teacher formative feedback on written work. | Discussion of student and course expectations. |
| 2 | Microscopy. | Written answer for diagnostic purposes. | Teacher formative feedback given, remedial workshop if required. | |||
| 3 | Enzyme experiment. | Notes on how to write a lab report. | Keeping lab records. | Completing self-help writing exercises. | ||
| 4 | Chromatography. | Notes on how to write a lab report. | Keeping lab records and writing a practice lab report. | Writing a practice lab report. | ||
| 5 | Transport in plants. | |||||
| 6 | Discussions | Explanation of assessment criteria to be used throughout the course. Model 'good' and 'problem' lab reports discussed. Teacher review of practice lab reports. | Student discussion of appropriate assessment criteria for writing. Application of criteria to sample texts. | Group and teacher formative feedback on practice reports. | Comparison of practice report with 'good' and 'problem' texts. | |
| 7 | Gas exchange in plants | Lab report written on class experiment | Teacher summative assessment using standard criteria, general formative feedback given. | Application of notes, discussion material and feedback to preparing practice lab report. | ||
| 8 | Animal digestion. | Quiz: short written answer to compare and contrast question. | Teacher summative assessment using standard criteria, general formative feedback given. | |||
| 9 | Gas exchange in animals. | |||||
| 10 | Microbiology. | |||||
| 11 | Transport in animals. | |||||
| 12 | Skeletons. | Discussion of poster preparation, integration of visual, oral and written presentation. | Preparing a group poster on skeleton theme to include written information. | Discussion of how to give formative feedback on presentations, criteria to be used for assessment. | Organisation of group poster preparation, preparation of individual contributions. | |
| 13 | Poster presentations. | Group and teacher assessment of posters and talks. Group discussion of feedback on lab reports. | Presenting talks. |
The importance of clear and unambiguous communication with students about the whole writing program cannot be stressed enough, and many perceived problems, from a teacher or student perspective, were associated with inconsistencies in explanations and interpretations. Thus, planning and teaching strategy must be carefully formulated, since any application of good practice, however well communicated, is open to being misunderstood or ignored by students. Student perception of what is expected, particularly in the area of assessment also strongly influences their overall knowledge of the topic and subsequent performance (Biggs, 1989). Therefore, instructions, or explicit teaching, about writing must be communicated clearly from the beginning of the course, so that students can develop a systematic and structured approach to using the information to improve their writing. This applies also to student use of the feedback given throughout the program. Encouraging its progressive use as a formative aid when practising writing must become part of the self directed learning process for students, (Robinson and Blair, 1995). In this way, the influence of formal teaching may decrease as student independence and responsibility is developing.
A number of student evaluations of the program have shown that the range of teaching methodologies and materials generally meet the needs of different student learning approaches. Although students respond to different areas of the writing program the following teaching approaches may be particularly significant: models of 'good' and 'problem' writing, the self-help materials and the range of feedback materials. We are currently running a series of interviews, with students who have completed the program, to determine their perceptions of our teaching and teaching materials, and their influence on improvements in their writing skills. Quantitative analysis of student marks, using standardised performance indicators for language and presentation, is being carried out to determine any consistent changes in overall writing proficiency during the course. Detailed analysis of student writing within this program has already been documented by Murison (1996), who focussed on whether students have used the input in the teaching/learning materials in writing their laboratory reports. The initial results of her linguistic analysis of a sample of student laboratory reports show that students have used these materials in their writing, thus providing objective evidence that student learning has taken place as a result of this project intervention.
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| Authors: Charlotte Taylor, School of Biological Sciences, The University of Sydney, NSW 2006. Email: cetaylor@bio.usyd.edu.au Helen Drury, The Learning Assistance Centre, The University of Sydney, NSW 2006. Email: hdrury@extro.ucc.su.oz.au Please cite as: Taylor, C. and Drury, H. (1996). Teaching writing skills in the science curriculum. Different Approaches: Theory and Practice in Higher Education. Proceedings HERDSA Conference 1996. Perth, Western Australia, 8-12 July. http://www.herdsa.org.au/confs/1996/taylorch.html |