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Social network perspectives acknowledge the influence of disciplinary cultures on academics' teaching beliefs and practices with implications for academic developers. The contribution of academic developers in 18 scholarship of teaching and learning (SoTL) projects situated in the sciences are explored by drawing on data from a two-year national project in Australia within a case study research design. The application of a social network lens illuminated the contribution of eight academic developers as weak ties who infused SoTL knowledge "within" teams. Two heuristic cases of academic developers who also linked "across" networks are presented. Implications of social network perspective are discussed.

In this study, the Science Student Skills Inventory was used to gain understanding of student perceptions about their quantitative skills and compare perceptions of cohorts graduating before and after the implementation of a new science curriculum intent on developing quantitative skills. The study involved 600 responses from final-year undergraduate science students across four cohorts in an Australian research-intensive institution. Students rated their perceptions on a four-point Likert scale of: the importance of developing quantitative skills within the programme, how much they improved their quantitative skills throughout their undergraduate science programme, how much they saw quantitative skills included in the programme, how confident they were about their quantitative skills, and how much they believe they will use quantitative skills in the future. Descriptive statistics indicated overall low levels of perceptions with student perception of the importance of quantitative skills being greater than perceptions of improvement, inclusion in the programme, confidence, and future use. Statistical analysis of responses provided by the cohorts graduating before and after the new quantitative skills-intended curriculum revealed few differences. The cohorts graduating after implementation indicated that quantitative skills were included more in the curriculum, although this did not translate into them reporting higher levels of confidence or anticipated future use compared to the cohorts that graduated before the new curriculum was implemented. Implications for curriculum development are discussed and lines for further research are given.

This study reports on science student perceptions of their skills (scientific knowledge, oral communication, scientific writing, quantitative skills, teamwork and ethical thinking) as they approach graduation. The focus is on which teaching activities and assessment tasks over the whole programme of study students thought utilised each of the six nominated skills. In this quantitative study involving two Australian research-intensive universities, the teaching activities identified by students as developing the broadest number of skills were laboratory classes and tutorials. Lectures were only effective for developing scientific knowledge and, to a limited extent, ethical thinking. Assessment tasks that students perceived to utilise the broadest range of skills were assignments and oral presentations. The findings of this study document the students' perspective about their gains in skill sets, and the teaching activities and assessment tasks that require them to use and thus develop these skills. The findings provide an opportunity to evaluate the constructive alignment of skills development, teaching activities and assessment tasks from a student's perspective. Further research is required to actually measure the skills that students gain over their whole programme of study.

In this study, the Science Student Skills Inventory was used to gain understanding of student perceptions about their science skills set developed throughout their programme (scientific content knowledge, communication, scientific writing, teamwork, quantitative skills, and ethical thinking). The study involved 400 responses from undergraduate science students about to graduate from two Australian research-intensive institutions. For each skill, students rated on a four-point Likert scale their perception of the importance of developing the skill within the programme, how much they improved it throughout their undergraduate science programme, how much they saw the skill included in the programme, how confident they were about the skill, and how much they will use the skill in the future. Descriptive statistics indicate that overall, student perception of importance of these skills was greater than perceptions of improvement, inclusion in the programme, confidence, and future use. Quantitative skills and ethical thinking were perceived by more students to be less important. t-Test analyses revealed some differences in perception across different demographic groups (gender, age, graduate plans, and research experience). Most notably, gender showed significant differences across most skills. Implications for curriculum development are discussed, and lines for further research are given.

Early career academia is a challenging time, particularly as academics are facing increasing pressures to excel across a range of areas. Boyer argued for the "true scholar" versed in the overlapping areas of scholarship in research, teaching, integration and engagement. Academic developers have an important role to play in assisting the transition to academia, particularly as the diverse pathways leading to academia often mean limited knowledge or skills in curriculum development, teaching or assessment of learning. In a quantitative study, self-identified early career academics from three Australian universities reported attitudes and perceptions of teaching and research, and involvement in academic development. The implications of their responses for academic developers are discussed in terms of institutional and disciplinary differences.

There is international agreement that quantitative skills (QS) are an essential graduate competence in science. QS refer to the application of mathematical and statistical thinking and reasoning in science. This study reports on the use of the Science Students Skills Inventory to capture final year science students' perceptions of their QS across multiple indicators, at two Australian research-intensive universities. Statistical analysis reveals several variables predicting higher levels of self-rated competence in QS: students' grade point average, students' perceptions of inclusion of QS in the science degree programme, their confidence in QS, and their belief that QS will be useful in the future. The findings are discussed in terms of implications for designing science curricula more effectively to build students' QS throughout science degree programmes. Suggestions for further research are offered.

There is general agreement in Australia and beyond that quantitative skills (QS) in science, the ability to use mathematics and statistics in context, are important for science. QS in the life sciences are becoming ever more important as these sciences become more quantitative. Consequently, undergraduates studying the life sciences require better QS than at any time in the past. Ways in which mathematics and science academics are working together to build the QS of their undergraduate science students, together with the mathematics and statistics needed or desired in a science degree, are reported on in this paper. The emphasis is on the life sciences. Forty-eight academics from eleven Australian and two USA universities were interviewed about QS in science. Information is presented on: what QS academics want in their undergraduate science students; who is teaching QS; how mathematics and science departments work together to build QS in science and implications for building the QS of science students. This information leads to suggestions for improvement in QS within a science curriculum.

Notable gains have been made in understanding the factors that influence the student experience in higher education, particularly in the area of student engagement. While tremendous effort has been focused on identifying educationally beneficial activities for students, we must also consider where these activities are occurring. In recent years there have been technological advances that have paved the way for blended learning environments, however, physical learning environments continue to dominate the functionality of many universities. The development of purpose-built informal social learning spaces as a strategy to enhance the student experience is becoming more prevalent, although empirical research in this area is lacking. This study explores the role of social learning spaces on the student experience using the student engagement framework within a qualitative research design. Informal interviews with 103 students were conducted within a social learning space. Findings reveal that social learning spaces can contribute to enhanced student engagement by fostering active learning, social interaction and belonging amongst tertiary students. The study also suggests that design is a contributing factor to students' perceptions of social learning spaces. (Contains 2 tables.)

Modern biological sciences require practitioners to have increasing levels of knowledge, competence, and skills in mathematics and programming. A recent review of the science curriculum at the University of Queensland, a large, research-intensive institution in Australia, resulted in the development of a more quantitatively rigorous undergraduate program. Inspired by the National Research Council's "BIO2010" report, a new interdisciplinary first-year course (SCIE1000) was created, incorporating mathematics and computer programming in the context of modern science. In this study, the perceptions of biological science students enrolled in SCIE1000 in 2008 and 2009 are measured. Analysis indicates that, as a result of taking SCIE1000, biological science students gained a positive appreciation of the importance of mathematics in their discipline. However, the data revealed that SCIE1000 did not contribute positively to gains in appreciation for computing and only slightly influenced students' motivation to enroll in upper-level quantitative-based courses. Further comparisons between 2008 and 2009 demonstrated the positive effect of using genuine, real-world contexts to enhance student perceptions toward the relevance of mathematics. The results support the recommendation from "BIO2010" that mathematics should be introduced to biology students in first-year courses using real-world examples, while challenging the benefits of introducing programming in first-year courses. (Contains 2 tables, 3 figures, and 3 footnotes.)

Mathematics and science are tightly interwoven, yet they are often treated as distinct disciplines in the educational context. This study details the development, implementation and outcomes of a teaching intervention that highlights the links between mathematics and science, in the form of a first-year interdisciplinary course. A mixed method study using surveys and focus groups was employed to investigate undergraduate science students' perceptions of their experiences. Findings reveal that students bring strong beliefs about the nature of mathematics and science from secondary school, which can impact significantly on the success of interdisciplinary science-mathematics courses at the tertiary level. Despite this, a range of beneficial outcomes can arise from such courses when they are delivered within a framework of analysing real-world issues. However, students with weak mathematical skills derived little benefit from an interdisciplinary approach and are likely to disengage from learning, in comparison with students who enter university with a solid foundation in mathematics. (Contains 1 table.)

The necessity of incorporating technologies into higher education has been met with a movement towards large-scale, institutional approaches to blended learning. This article reports on a qualitative study of academic learning experiences in the early implementation stage of an institutional approach to blended learning at a research-intensive university. We conducted focus groups with ten academics involved in the early phase of an institutionally driven blended learning initiative. Thematic analysis revealed that academics cared for students' perspectives and being able to feed it back into their practices drove the blending process, but they were de-motivated by a lack of agency in designing and implementing their courses. Academics were also concerned about the effectiveness of blending for student learning and did not feel cared for by the university. A lack of collaborative dialogue left academics struggling to adjust. Through a lens of an ethic of care, we highlight the danger of a 'care-less' climate that impedes professional learning and promotes inefficacy and cynicism. We argue for a need to change top-down approaches to implementing blended learning; to develop policies that consider the impact on academic needs and appreciate their value as human beings, and through developing supportive relationships that enable individuals to innovate and have agency to drive the process for the betterment of student learning. [ABSTRACT FROM AUTHOR]