53 research outputs found

    You can't climb a broken ladder : examining underrepresentation of multiply-disadvantaged groups in secure and senior roles in UK geochemistry

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    Geochemistry provides useful research tools related to fundamental processes in Earth, Environmental and Planetary Sciences. It has a distinct identity among the academic communities in these subjects, yet there is no specific data on workforce diversity among geochemists. We present the first demographic data of UK geochemists from a voluntary anonymous survey. We scrutinise the data with respect to protected characteristics (e.g., age, ethnicity, gender identity, sexual orientation and disability) and seniority of those within the community. We furthermore use this UK data to compare the career progression of geochemists who belong to multiply-privileged identities with those who belong to multiply-disadvantaged identities, to assess their representations with increased seniority on the academic career. This UK based case study on diversity and inclusion suggests that the career paths of geochemists belonging to multiple disadvantaged groups are restricted, including overrepresentation among those on fixed-term contracts or in service roles for laboratory support. Our data highlight that there is a decrease in diversity with an increase in seniority; specifically, UK geochemists from sexual and gender minorities, neurodiverse, and women from ethnic minority groups were not represented among the participants of our survey at the top of the academic ladder. There are many reasons for the loss of diversity in the UK geochemistry community with increased seniority. In order to address this and the underrepresentation of particular groups in senior leadership roles, our findings suggest that the career progression of geochemists requires an intersectional lens to examine the complexity of identity data. Such an approach would enable a better understanding of the impact of multiple and compounded disadvantages, biases, negative experiences and discrimination faced by multiply-disadvantaged identities

    You Can’t Climb a Broken Ladder: Examining Underrepresentation of Multiply-Disadvantaged Groups in Secure and Senior Roles in UK Geochemistry

    Get PDF
    Geochemistry provides useful research tools related to fundamental processes in Earth, Environmental and Planetary Sciences. It has a distinct identity among the academic communities in these subjects, yet there is no specific data on workforce diversity among geochemists. We present the first demographic data of UK geochemists from a voluntary anonymous survey. We scrutinise the data with respect to protected characteristics (e.g., age, ethnicity, gender identity, sexual orientation and disability) and seniority of those within the community. We furthermore use this UK data to compare the career progression of geochemists who belong to multiply-privileged identities with those who belong to multiply-disadvantaged identities, to assess their representations with increased seniority on the academic career. This UK based case study on diversity and inclusion suggests that the career paths of geochemists belonging to multiple disadvantaged groups are restricted, including overrepresentation among those on fixed-term contracts or in service roles for laboratory support. Our data highlight that there is a decrease in diversity with an increase in seniority; specifically, UK geochemists from sexual and gender minorities, neurodiverse, and women from ethnic minority groups were not represented among the participants of our survey at the top of the academic ladder. There are many reasons for the loss of diversity in the UK geochemistry community with increased seniority. In order to address this and the underrepresentation of particular groups in senior leadership roles, our findings suggest that the career progression of geochemists requires an intersectional lens to examine the complexity of identity data. Such an approach would enable a better understanding of the impact of multiple and compounded disadvantages, biases, negative experiences and discrimination faced by multiply-disadvantaged identities

    You can't climb a broken ladder: Examining underrepresentation of multiplydisadvantaged groups in secure and senior roles in UK geochemistry

    Get PDF
    Geochemistry provides useful research tools related to fundamental processes in Earth, Environmental and Planetary Sciences. It has a distinct identity among the academic communities in these subjects, yet there is no specific data on workforce diversity among geochemists. We present the first demographic data of UK geochemists from a voluntary anonymous survey. We scrutinise the data with respect to protected characteristics (e.g., age, ethnicity, gender identity, sexual orientation and disability) and seniority of those within the community. We furthermore use this UK data to compare the career progression of geochemists who belong to multiply-privileged identities with those who belong to multiply-disadvantaged identities, to assess their representations with increased seniority on the academic career. This UK based case study on diversity and inclusion suggests that the career paths of geochemists belonging to multiple disadvantaged groups are restricted, including overrepresentation among those on fixed-term contracts or in service roles for laboratory support. Our data highlight that there is a decrease in diversity with an increase in seniority; specifically, UK geochemists from sexual and gender minorities, neurodiverse, and women from ethnic minority groups were not represented among the participants of our survey at the top of the academic ladder. There are many reasons for the loss of diversity in the UK geochemistry community with increased seniority. In order to address this and the underrepresentation of particular groups in senior leadership roles, our findings suggest that the career progression of geochemists requires an intersectional lens to examine the complexity of identity data. Such an approach would enable a better understanding of the impact of multiple and compounded disadvantages, biases, negative experiences and discrimination faced by multiply-disadvantaged identities

    An experimental study of volcanic ash chemical reactivity : implications for atmospheric trace chemistry and ocean iron biogeochemistry

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    Volcanic ash from explosive eruptions is increasingly recognised as an environmental agent, yet knowledge is limited on what controls ash reactivity within atmospheric, aquatic or terrestrial systems. Reactivity is likely driven primarily by interactions at the solid-fluid interface, but the chemical properties of the ash surface which mediate these interactions are poorly understood. Relatedly, the capacity of ash emissions to impact the atmospheric trace gas budget by providing reactive surfaces has not been quantified. Further, ash deposition to the ocean is capable of affecting marine primary production by supplying iron, but factors determining ash iron solubility have yet to be elucidated. The doctoral study sheds light on these issues through experimental investigation. Probe gas uptake measurements reveal varying densities of acid-base and redox surface sites on ash. Ash surface chemistry, originally defined by magma composition and mineralogy and subsequently modified by interaction with volcanic gases and condensates during eruption, in turn influences ash reactivity towards sulphur dioxide and ozone gas. Iron mobilisation from ash is initially governed by surface characteristics imparted by plume processing and later reflects dissolution of bulk glass and crystalline components. Interaction with water and acid gases during eruption and exposure to pH fluctuations during transport can significantly affect iron solubility and speciation in airborne ash. Our findings suggest that a combination of magmatic, eruptive and atmospheric factors underlie ash chemical reactivity. By providing new insight on the role of ash as a chemical agent in the atmospheric and oceanic environments, this work contributes to better understanding the potential impacts of explosive eruptions on the Earth System.(AGRO - Sciences agronomiques et ingénierie biologique) -- UCL, 201
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