55 research outputs found

    Student engagement and perceptions of blended-learning of a clinical module in a veterinary degree program.

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    Blended learning has received much interest in higher education as a way to increase learning efficiency and effectiveness. By combining face-to-face teaching with technology-enhanced learning through online resources, students can manage their own learning. Blended methods are of particular interest in professional degree programs such as veterinary medicine in which students need the flexibility to undertake intra- and extramural activities to develop the range of competencies required to achieve professional qualification. Yet how veterinary students engage with blended learning activities and whether they perceive the approach as beneficial is unclear. We evaluated blended learning through review of student feedback on a 4-week clinical module in a veterinary degree program. The module combined face-to-face sessions with online resources. Feedback was collected by means of a structured online questionnaire at the end of the module and log data collected as part of a routine teaching audit. The features of blended learning that support and detract from students’ learning experience were explored using quantitative and qualitative methods. Students perceived a benefit from aspects of face-to-face teaching and technology-enhanced learning resources. Face-to-face teaching was appreciated for practical activities, whereas online resources were considered effective for facilitating module organization and allowing flexible access to learning materials. The blended approach was particularly appreciated for clinical skills in which students valued a combination of visual resources and practical activities. Although we identified several limitations with online resources that need to be addressed when constructing blended courses, blended learning shows potential to enhance student-led learning in clinical courses

    7th Drug hypersensitivity meeting: part two

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    Residential electricity demand: A modelling analysis of the dynamics of household activity and energy consumption patterns

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    Understanding the diversity of energy requirements and energy-related behaviours in the residential sector is key to assessing the potential of this sector to contribute to the overall flexibility of future low-carbon power systems. Models offer the opportunity to explore the relationships between household activities and the associated electricity demand loads. However, if models are to assist in the research that aims to inform the design of effective interventions, understanding the role users play must be at the core of the modelling efforts. Conventional approaches to residential electricity demand modelling have been developed with a view to inform conventional power systems. The simplifying assumptions that rule these models mask the complexity of the links between user activities and demand for electricity. Therefore, assessing the potential of the implementation of energy efficiency measures targeting the residential sector calls for the development of enhanced modelling approaches. In this thesis the key shortcomings of conventional modelling approaches have been identified. In particular, the analysis has revealed that conventional models consistently fail to represent the diversity of residential users. Thus, the need to re-assess the adequacy of the simplifying assumptions used in the development of conventional modelling approaches has been highlighted. The diversity of residential energy requirements has been further investigated, and novel methods to characterise the socio-demographic heterogeneity of households have been presented. Furthermore, the thesis describes novel approaches that attempt to bridge the gap between energy research through social science lenses and the development of technical modelling tools. The findings of the validation analysis show that these approaches could indeed help improve our understanding of the current role of the residential sector and assess its potential to provide additional system flexibility

    Linking intra-day variations in residential electricity demand loads to consumers' activities: What's missing?

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    An increasing interest in the representation of the intra-day variability observed in domestic electricity consumption patterns has driven the development of various modelling frameworks that incorporate consumer behavioural patterns as a key element for the simulation of electricity consumption. Some of the existing models produce reasonable representations of the broader characteristics of user activity patterns, typically rendered as dwelling occupancy patterns. However, when these activity patterns are used to produce estimates of the electricity demand loads associated with such activities, little attention is paid to the links between activities and the actual use of the electric equipment responsible for the production of the actual demand loads. Instead, the simulation of demand loads from activity patterns is ruled by simplifying assumptions that mask the reality behind those links. This paper therefore seeks to unpack the relationship between activity and electricity demand profiles by focussing on the underlying activity patterns in more detail, and how these relate to the usage patterns of the associated appliances. These relationships are studied based on currently available datasets. The analysis of the activities associated with the use of more than one appliance revealed the differences between the likelihood of each appliance being activated throughout the day relative to user engagement in the activity the appliance is associated with. In practice, what this shows is how each appliance's share of the demand load associated with the activity varies throughout the day. As a result, the power consumption associated with a particular activity is subject to the same kind of variability; activity-related demand. The results of this analysis can be used in conjunction with current or new modelling approaches with a view to linking the user activity patterns with the simulation more of realistic electricity demand loads
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