The biodiversity crisis demands greater engagement in pro‐nature conservation behaviours. Research has examined factors which account for general pro‐environmental behaviour; that is, behaviour geared to minimizing one's impact on the environment. Yet, a dearth of research exists examining factors that account for pro‐nature conservation behaviour specifically—behaviour that directly and actively supports conservation of biodiversity. This study is the first of its kind to use a validated scale of pro‐nature conservation behaviour. Using online data from a United Kingdom population survey of 1,298 adults (16+ years), we examined factors (composed of nine variable‐blocks of items) that accounted for pro‐nature conservation behaviour. These were: individual characteristics (demographics, nature connectedness), nature experiences (time spent in nature, engaging with nature through simple activities, indirect engagement with nature), knowledge and attitudes (knowledge/study of nature, valuing and concern for nature) and pro‐environmental behaviour. Together, these explained 70% of the variation in people's actions for nature. Importantly, in a linear regression examining the relative importance of these variables to the prediction of pro‐nature conservation behaviour, time in nature did not emerge as significant. Engaging in simple nature activities (which is related to nature connectedness) emerged as the largest significant contributor to pro‐nature conservation behaviour. Commonality analysis revealed that variables worked together, with nature connectedness and engagement in simple activities being involved in the largest portion of explained variance. Overall, findings from the current study reinforce the critical role that having a close relationship with nature through simple everyday engagement plays in pro‐nature conservation behaviour. Policy recommendations are made. A free Plain Language Summary can be found within the Supporting Information of this article.
A wealth of literature has evidenced the important role that the greater-than-human natural environment plays in our mental health and wellbeing (reviews by Bratman et al., 2019;Capaldi et al., 2014Capaldi et al., , 2015Pritchard et al., 2019). Spending time in nature, engaging with nature directly and indirectly, and a strong sense of nature connectedness (a psychological/emotional connection with nature) have each been shown to positively impact well-being. Few studies, however, have examined the importance that various nature-related factors have on our well-being when examined in concert with each other, and no studies have simultaneously examined the differential influences of nature connectedness and engagement. In the current study, using a national United Kingdom sample of 2,096 adults, we provide new insights into this gap in the literature. Our primary focus was on examining, when considered simultaneously, the patterns and relative predictive importance to hedonic wellbeing (i.e., happiness), eudaimonic wellbeing (i.e., worthwhile life), illbeing (i.e., depression and anxiety), and general physical health of five nature-related factors: (1) nature connectedness, (2) time in nature, (3) engagement with nature through simple everyday activities, (4) indirect engagement with nature, and (5) knowledge and study of nature. A consistent pattern of results emerged across multiple analytical approaches (i.e., correlations, linear regression, dominance analyses, commonality analysis), wherein time in nature was not the main (or significant) predictive nature-related factor for wellbeing. Rather, nature connectedness and engaging with nature through simple activities (e.g., smelling flowers) consistently emerged as being the significant and prominent factors in predicting and explaining variance in mental health and wellbeing. Implications for practical application and policy/programme planning are discussed.
Summary 1. The conservation of biodiversity depends upon both policy and regulatory frameworks. Here, we identify priority policy developments that would support conservation in the UK in the light of technological developments, changes in knowledge or environmental change. 2. A team of seven representatives from governmental organizations, 17 from non‐governmental organizations and six academics provided an assessment of the priority issues. The representatives consulted widely and identified a long‐list of 117 issues. 3. Following voting and discussion during a 2‐day meeting, these were reduced to a final list of 25 issues and their potential policy options and research needs were identified. Many of the policies related to recent changes in approaches to conservation, such as increased interest in ecosystem services, adaptation to climate change and landscape ecology. 4. We anticipate that this paper will be useful for policy makers, nature conservation delivery agencies, the research community and conservation policy advocates. 5. Although many of the options have global significance, we suggest that other countries consider an equivalent exercise. We recommend that such an exercise be carried out in the UK at regular intervals, say every 5 years, to explore how biodiversity conservation can best be supported by linked policy development and research in a changing world. 6. Synthesis and applications. Opportunities for policy development were prioritized and for each of the top 25 we identified the current context, policy options and research questions. These largely addressed new issues relating to developing topics such as ecosystem services, landscape planning and nanotechnology. We envisage that this will largely be used by researchers wishing to make a contribution to potential policy debates.
[1] Large animal colonies are significant sources of atmospheric NH 3 that can potentially increase the nitrogen status of nearby ecosystems. Atmospheric NH 3 concentrations were measured at different distances from a Cape fur seal colony at Cape Cross, northwest coast of Namibia, and an atmospheric dispersion model was applied inversely to estimate the total NH 3 emission. Mean concentrations ranged from 354 to 0.01 mg NH 3 m À3 at 0.01 and 26 km from the source, respectively. The model simulations suggest that the colony emits 25-70 tonnes of NH 3 -N yr À1, c. 3% of the total N excreted by the seals.
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