106 research outputs found

    Integrating technology to increase graduate employability skills: A blockchain case study in Property Law teaching

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    The discourse of graduate employability skills includes emphasis on digital capabilities. Digital capabilities encompass an understanding of the new and emerging technologies that are driving significant change in business, government and society and by implication, the critical and creative thinking skills to integrate these contexts with the law. By contrast, the accredited law curriculum remains focussed on doctrine thus frequently relegating consideration of law and technology to discrete (elective) subjects. Further, the default method of teaching and learning doctrine remains a case method approach using hypothetical problems. Such an approach to curriculum is, at best, neutral about the relevance of new technologies and the skills required to analyse them in a legal context with consequences for contemporary and likely future employer expectations for law graduates to be prepared for practice. This article first establishes the imperative to incorporate digital contexts into the core law curriculum as a means of providing students with foundational skills for a changing workplace. Secondly, it presents the case for an enhanced approach to teaching legal problem solving. Beyond the backward-looking hypothetical fact scenario, it suggests that a future focused analytical mindset is integral to the lawyer’s suite of thinking tools. Finally, it provides a case study of a critical—and doctrinal—analysis of a recent proposal to fractionalise lots in a Torrens system in tandem with a blockchain. The case study illustrates the application of an enhanced problem-solving approach. It shows how the broader context of new technologies might be integrated into property law teaching through prospective problem-solving

    Tree Fern Apical Temperatures at the Royal Botanic Garden Edinburgh

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    Tree ferns are difficult to maintain out of doors in the British Isles except in western localities, where winter temperatures are moderated by the North Atlantic Drift, or in places where buildings provide a clement microclimate. The present study of tree-fern apical temperatures during winter was carried out on five trunked specimens of Dicksonia antarctica that had been grown satisfactorily out of doors for several years, while planted in the ground of a courtyard at the Royal Botanic Garden Edinburgh (RBGE). The plants were never wrapped or otherwise protected with thermal insulation during the winter months. An electric thermometer was inserted into the apical cleft of each plant in November 2003, and weekly readings of minimum and maximum temperature taken until April 2004. The ambient temperature of the air in the courtyard was similarly recorded and compared with the screen and grass temperatures at the RBGE weather station in the main botanic garden. The lowest grass and screen temperatures were respectively -11.2°C and -7.1°C, whereas the lowest courtyard and fern-apical temperatures were respectively -3.2°C and -0.8°C. Thus in the coldest period of that winter there was over 10°C difference in temperature between ground level in the main garden and a tree fern apical cleft in the sheltered courtyard. The tree ferns were not noticeably damaged by exposure of the apical cleft region to just below freezing point on a few occasions and the fronds stayed green. The five individual plants differed considerably in trunk height, diameter and volume. Regression analysis revealed that there was a significantly increasing thermal-insulating effect in the apical cleft associated with larger trunk diameters and volumes. The RBGE weather station temperatures during the winter of 2003-4 were unexceptional when compared with records from the previous 19 years. Thus the data from 2003-4 may be taken as representing a typical recent winter for this Edinburgh location. This study highlights the benefits of having detailed temperature measurements when assessing the winter-protective capabilities of a particular micro—environment for a semi-hardy species such as D. antarctica

    Late Holocene Paleoclimate reconstruction of the northern Gulf of Aqaba using foraminifera as a proxy

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    Title from PDF of title page, viewed on December 21, 2011Thesis advisor: Tina M. NiemiVitaIncludes bibliographic references (p. 112-119)Thesis (M.S.)--Dept. of Geosciences. University of Missouri-Kansas City, 2011A multiproxy analyses of sediment from a 4.3 m core extracted from 25 m water depth on the shelf of the northern Gulf of Aqaba suggest shifts in depositional environments over the past 4000 yrs. Foraminifera assemblages, grain-size distribution, sediment characterization, and radiocarbon age dating indicate several eco-stratigraphic zones including two periods of aridity from ~3900 to 2900 yr BP and ~1130 yr BP to present, a transitional period from ~2900 to 2500 yr BP, and an abrupt shift to wetter conditions between ~2500 to 1130 yr BP. Furthermore, this study records two foraminifera-barren horizons at 170 and 190 cm that correlate to grain size anomalies at that depth. A tsunami wave generated sometime during 2200-1800 yr BP is one possible explanation for this occurrence. Seismic stratigraphy indicates a reflector at approximately 3 m below the seafloor that delineates the boundary between a relict, coral fringing reef horizon, U8, and the overlying U9 strata. Sedimentation rates that adjust for sediment compaction suggest the sequence lies near the foraminifera-barren horizons at ~200 cm in the core. These data signify a dramatic environmental event possibly corresponding to reef termination on the Northern Gulf of Aqaba shelf.Introduction -- Study area -- Foraminifera -- Methods -- Results -- Discussion -- Conclusion -- Appendix A. Foraminifera spreadsheet -- Appendix B. Foraminifera graphs -- Appendix C. Grain size -- Appendix D. Matrix composition -- Appendix E. Core lithology and field descriptio

    The use of a risk assessment and decision support tool (CRISP) compared with usual care in general practice to increase risk-stratified colorectal cancer screening: study protocol for a randomised controlled trial.

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    BACKGROUND: Australia and New Zealand have the highest incidence rates of colorectal cancer worldwide. In Australia there is significant unwarranted variation in colorectal cancer screening due to low uptake of the immunochemical faecal occult blood test, poor identification of individuals at increased risk of colorectal cancer, and over-referral of individuals at average risk for colonoscopy. Our pre-trial research has developed a novel Colorectal cancer RISk Prediction (CRISP) tool, which could be used to implement precision screening in primary care. This paper describes the protocol for a phase II multi-site individually randomised controlled trial of the CRISP tool in primary care. METHODS: This trial aims to test whether a standardised consultation using the CRISP tool in general practice (the CRISP intervention) increases risk-appropriate colorectal cancer screening compared to control participants who receive standardised information on cancer prevention. Patients between 50 and 74 years old, attending an appointment with their general practitioner for any reason, will be invited into the trial. A total of 732 participants will be randomised to intervention or control arms using a computer-generated allocation sequence stratified by general practice. The primary outcome (risk-appropriate screening at 12 months) will be measured using baseline data for colorectal cancer risk and objective health service data to measure screening behaviour. Secondary outcomes will include participant cancer risk perception, anxiety, cancer worry, screening intentions and health service utilisation measured at 1, 6 and 12 months post randomisation. DISCUSSION: This trial tests a systematic approach to implementing risk-stratified colorectal cancer screening in primary care, based on an individual's absolute risk, using a state-of-the-art risk assessment tool. Trial results will be reported in 2020. TRIAL REGISTRATION: Australian and New Zealand Clinical Trial Registry, ACTRN12616001573448p . Registered on 14 November 2016
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