International students' experiences of university libraries and librarians

ABSTRACT International students constitute a significant proportion of the Australian university population, and thus of the university library-using population. Drawing on qualitative research findings, this paper discusses the library-related experiences and perceptions of international students at two Australian universities. While the students’ previous library use was limited, at their host university they experienced library using challenges, often associated with unfamiliarity. However, they generally viewed their Australian university library and library staff in a positive light. The findings support recommendations for developing library professionals’ awareness of, and enhancing international students’ library use.

Reflections from Senior Women Academics

The Tiddas Showin’ Up, Talkin’ Up and Puttin’ Up: Indigenous Women and Educational Leadership project was led by Flinders University in partnership with the Australian Catholic University through the Indigenous Higher Education Centres located in Adelaide (Yunggorendi First Nations Centre) and Brisbane (Weemala Indigenous Unit) (Bunda and White 2009). At the beginning of the project, two levels of governance were established: a Circle of Senior Indigenous Women from the higher education sector, and a Steering Committee of Senior Executive Women from partner universities. The Circle of Senior Indigenous Women included experts in the fields of learning and teaching, scholarship, administration and management, and community engagement. The Circle’s members were: • Professor Wendy Brady, Charles Darwin University • Dr Jackie Huggins, University of Queensland • Ms Angela Leitch, Education Queensland • Professor Aileen Moreton-Robinson, Queensland University of Technology • Dr Bronwyn Fredericks, Queensland University of Technology and Monash University The Steering Committee members were: • Professor Gabrielle McMullen, Australian Catholic University • Professor Marie Emmit, Australian Catholic University • Professor Faith Trent, Flinders University • Dr Jane Robbins, Flinders University The two levels of governance provided advice to the project leaders throughout the project. Three of these women share their reflections in this paper.

Demonstrating Indigenous women’s educational leadership : Tiddas Showin’ Up, Talkin’ Up and Puttin’ Up!

This is the opening paper for a special edition of the Journal of Australian Indigenous Issues and comes from an Australian Learning and Teaching Council (ALTC) Leadership for Excellence in Learning and Teaching Program funded project titled Tiddas Showin’ Up, Talkin’ Up and Puttin’ Up: Indigenous Women and Educational Leadership (Bunda and White 2009). The project name, Tiddas Showin’ Up, Talkin’ Up and Puttin’ Up, draws from two Indigenous sources. Firstly, it reinscribes the white way of knowing the familial relationship of ‘Sister’ in the Indigenous generic language term of ‘Tidda’. Secondly, Showin’ Up, ‘Talkin’ Up’ (Moreton-Robinson 2000) and Puttin’ Up calls into being the constructions of our leadership as Indigenous women, grounded in our communities and with particular reference to our leadership in universities.

Identities

A poem about the multiple facets of identity

The CAPA Indigenous Project. Indigenous postgraduate education: A project into the barriers which indigenous students must overcome in postgraduate studies: A short history 1993-2000.

This brief paper outlines some of the early work undertaken in Indigenous postgraduate activism in Australia. In particular, the work undertaken in the lead up to the 'Project into the Barriers which Indigenous Students must Overcome in Postgraduate Studies'.

Wireless mobility usage: a preliminary study for management in two Australian university settings

Wireless Mobility Usage: A Preliminary Qualitative Study for Management in Two Australian University Settings, Neville Meyers, Heather Gray, Greg Hearn, Louis Sanzogni, and Sandra Lawrence.

Networked aquatic microbial observing systems: An overview

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Design and implementation of sensor networks for the observation and research of harmful algal blooms in southern California coastal waters

Harmful Algal Blooms (HABs) have become an important environmental concern along the western coast of the United States. Toxic and noxious blooms adversely impact the economies of coastal communities in the region, pose risks to human health, and cause mortality events that have resulted in the deaths of thousands of fish, marine mammals and seabirds. One goal of field-based research efforts on this topic is the development of predictive models of HABs that would enable rapid response, mitigation and ultimately prevention of these events. In turn, these objectives are predicated on understanding the environmental conditions that stimulate these transient phenomena. An embedded sensor network (Fig. 1), under development in the San Pedro Shelf region off the Southern California coast, is providing tools for acquiring chemical, physical and biological data at high temporal and spatial resolution to help document the emergence and persistence of HAB events, supporting the design and testing of predictive models, and providing contextual information for experimental studies designed to reveal the environmental conditions promoting HABs. The sensor platforms contained within this network include pier-based sensor arrays, ocean moorings, HF radar stations, along with mobile sensor nodes in the form of surface and subsurface autonomous vehicles. FreewaveTM radio modems facilitate network communication and form a minimally-intrusive, wireless communication infrastructure throughout the Southern California coastal region, allowing rapid and cost-effective data transfer. An emerging focus of this project is the incorporation of a predictive ocean model that assimilates near-real time, in situ data from deployed Autonomous Underwater Vehicles (AUVs). The model then assimilates the data to increase the skill of both nowcasts and forecasts, thus providing insight into bloom initiation as well as the movement of blooms or other oceanic features of interest (e.g., thermoclines, fronts, river discharge, etc.). From these predictions, deployed mobile sensors can be tasked to track a designated feature. This focus has led to the creation of a technology chain in which algorithms are being implemented for the innovative trajectory design for AUVs. Such intelligent mission planning is required to maneuver a vehicle to precise depths and locations that are the sites of active blooms, or physical/chemical features that might be sources of bloom initiation or persistence. The embedded network yields high-resolution, temporal and spatial measurements of pertinent environmental parameters and resulting biology (see Fig. 1). Supplementing this with ocean current information and remotely sensed imagery and meteorological data, we obtain a comprehensive foundation for developing a fundamental understanding of HAB events. This then directs labor- intensive and costly sampling efforts and analyses. Additionally, we provide coastal municipalities, managers and state agencies with detailed information to aid their efforts in providing responsible environmental stewardship of their coastal waters.

Implementation of an embedded sensor network for the coordination of Slocum gliders for coastal monitoring and observation

Autonomous Underwater Vehicles (AUVs) are revolutionizing oceanography through their versatility, autonomy and endurance. However, they are still an underutilized technology. For coastal operations, the ability to track a certain feature is of interest to ocean scientists. Adaptive and predictive path planning requires frequent communication with significant data transfer. Currently, most AUVs rely on satellite phones as their primary communication. This communication protocol is expensive and slow. To reduce communication costs and provide adequate data transfer rates, we present a hardware modification along with a software system that provides an alternative robust disruption- tolerant communications framework enabling cost-effective glider operation in coastal regions. The framework is specifically designed to address multi-sensor deployments. We provide a system overview and present testing and coverage data for the network. Additionally, we include an application of ocean-model driven trajectory design, which can benefit from the use of this network and communication system. Simulation and implementation results are presented for single and multiple vehicle deployments. The presented combination of infrastructure, software development and deployment experience brings us closer to the goal of providing a reliable and cost-effective data transfer framework to enable real-time, optimal trajectory design, based on ocean model predictions, to gather in situ measurements of interesting and evolving ocean features and phenomena.