Cara Beal

Dr. Cara Beal

School of Medicine | Cities Research Institute | School of Engineering and Built Environment; Griffith University, Nathan 4111, QLD, Australia
orcid

Research Focus & Metrics

Academic Career Length

22Years (2005-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 January 2011 in Immunity
Verified
Journal Article
Closed access
NJNing Jiang
Ning Jiang
JHJun Huang
Jun Huang
LELindsay J. Edwards
Lindsay J. Edwards
BLBaoyu Liu
Baoyu Liu
YZYan Zhang
Yan Zhang
CZCheng Zhu
Cheng Zhu


9 November 2005 in Soil Research
Verified
Journal Article
Closed access
PDF file
Cara BealCara Beal
Cara Beal
EGE. A. Gardner
E. A. Gardner
NMNeal WIlliam Menzies
Neal WIlliam Menzies
On-site wastewater treatment and dispersal systems (OWTS) are used in non-sewered populated areas in Australia to treat and dispose of household wastewater. The most common OWTS in Australia is the septic tank–soil absorption system (SAS)—which relies on the soil to treat and disperse effluent. The mechanisms governing purification and hydraulic performance of a SAS are complex and have been shown to be highly influenced by the biological zone (biomat) which develops on the soil surface within the trench or bed. Studies suggest that removal mechanisms in the biomat zone, primarily adsorption and filtering, are important processes in the overall purification abilities of a SAS. There is growing concern that poorly functioning OWTS are impacting upon the environment, although to date, only a few investigations have been able to demonstrate pollution of waterways by on-site systems. In this paper we review some key hydrological and biogeochemical mechanisms in SAS, and the processes leading to hydraulic failure. The nutrient and pathogen removal efficiencies in soil absorption systems are also reviewed, and a critical discussion of the evidence of failure and environmental and public health impacts arising from SAS operation is presented. Future research areas identified from the review include the interactions between hydraulic and treatment mechanisms, and the biomat and sub-biomat zone gas composition and its role in effluent treatment.

1 March 2013 in Expert Systems with Applications
Verified
Journal Article
Closed access
CBChristopher Bennett
Christopher Bennett
Rodney StewartRodney Stewart
Rodney Stewart
Cara BealCara Beal
Cara Beal

1 June 2014 in Renewable and Sustainable Energy Reviews
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Journal Article
Closed access
AVAbel S. Vieira
Abel S. Vieira
Cara BealCara Beal
Cara Beal
Enedir GhisiEnedir Ghisi
Enedir Ghisi
Rodney StewartRodney Stewart
Rodney Stewart

18 June 2020 in Systems
Verified
Journal Article
Open access
PDF file
Oz SahinOz Sahin
Oz Sahin
Hengky SalimHengky Salim
Hengky Salim
ESEmiliya Suprun
Emiliya Suprun
Russell RichardsRussell Richards
Russell Richards
Stefen MacAskillStefen MacAskill
Stefen MacAskill
Cara BealCara Beal
Cara Beal
COVID-19 is a wicked problem for policy makers internationally as the complexity of the pandemic transcends health, environment, social and economic boundaries. Many countries are focusing on two key responses, namely virus containment and financial measures, but fail to recognise other aspects. The systems approach, however, enables policy makers to design the most effective strategies and reduce the unintended consequences. To achieve fundamental change, it is imperative to firstly identify the “right” interventions (leverage points) and implement additional measures to reduce negative consequences. To do so, a preliminary causal loop diagram of the COVID-19 pandemic was designed to explore its influence on socio-economic systems. In order to transcend the “wait and see” approach, and create an adaptive and resilient system, governments need to consider “deep” leverage points that can be realistically maintained over the long-term and cause a fundamental change, rather than focusing on “shallow” leverage points that are relatively easy to implement but do not result in significant systemic change.