Welch Buckner (ringcry79)

However, spiders of prime predation relevance seem to be those of the Ctenidae and Theraphosidae families.Global biodiversity declines, largely driven by climate and land-use changes, urge the development of transparent guidelines for effective conservation strategies. Species distribution modeling (SDM) is a widely used approach for predicting potential shifts in species distributions, which can in turn support ecological conservation where environmental change is expected to impact population and community dynamics. Improvements in SDM accuracy through incorporating intra- and interspecific processes have boosted the SDM field forward, but simultaneously urge harmonizing the vast array of SDM approaches into an overarching, widely adoptable, and scientifically justified SDM framework. In this review, we first discuss how climate warming and land-use change interact to govern population dynamics and species' distributions, depending on species' dispersal and evolutionary abilities. We particularly emphasize that both land-use and climate change can reduce the accessibility to suitable habitat for many species, rendering the ability of species to colonize new habitat and to exchange genetic variation a crucial yet poorly implemented component of SDM. We then unite existing methodological SDM practices that aim to increase model accuracy through accounting for multiple global change stressors, dispersal, or evolution, while shifting our focus to model feasibility. We finally propose a roadmap harmonizing model accuracy and feasibility, applicable to both common and rare species, particularly those with poor dispersal abilities. This roadmap (a) paves the way for an overarching SDM framework allowing comparison and synthesis of different SDM studies and (b) could advance SDM to a level that allows systematic integration of SDM outcomes into effective conservation plans.The applicability of evolutionary biology principles to diseases has been largely questioned by the medical field. While Evolutionary Medicine (EM) developed in part to lessen this gap, EM is an independent field from both evolution and medicine, whose continued narrowing of topics as a consequence of its reductionist approach, in addition to its focus to introduce itself at a late stage in medical education, has led to its continued resistance toward implementation. In turn, this has had a profound and lasting impact on the awareness of evolution in medicine among physicians. For both the evolutionary and medical communities to reach a common perspective and obtain a greater frame-work of medical thought, a comprehensive view of the evolution of the healthy human being needs to be introduced as a starting point during the premedical curriculum. Here, we present our views on the ongoing challenges that have caused the continued division between the evolutionary fields and medicine, and provide solutions to help bridge the gap for an interdisciplinary field of evolution in medicine.While academia is moving forward in terms of diversifying recruitment of undergraduate and graduate students, diverse representation is still not found across the academic hierarchy. At the graduate level, new discussions are emerging around efforts to improve the experiences of women and underrepresented minorities through inclusive graduate programming. Inclusive graduate programs are that which actively center and prioritize support for diverse experiences, identities, career goals, and perspectives, from recruitment through graduation. Establishing regular and rigorous evaluation of equity and inclusion efforts and needs is a critical component of this work. This is recognized by funding agencies that increasingly require reporting on inclusion efforts; here, we suggest use of a systems change framework for these evaluations. A systems change approach emphasizes three levels explicit change (e.g., policies), semi-explicit change (e.g., power dynamics), and implicit change (e.g., bi