Why does workplace gender diversity matter? Here, we provide a review of the literature on both justice‐based and organizational benefits of workplace gender diversity that, importantly, is informed by evidence regarding sex differences and their relationship with vocational behavior and outcomes. This review indicates that the sexes are neither distinctly different, nor so similar as to be fungible. Justice‐based gains of workplace gender diversity include that it may cause less sex discrimination and may combat androcentrism in products and services. We (...) then consider potential instrumental benefits of workplace gender diversity to organizations, including for team and firm performance, innovation, occupational well‐being, and corporate governance. The evidence of positive association is currently strongest for occupational well‐being and governance. We recommend that policy makers ground gender diversity initiatives in this comprehensive and evidence‐based understanding of the benefits of workplace gender diversity. (shrink)

Graphical AbstractThe membrane lipids of archaea and bacteria are typically very different, a dichotomy known as the “lipid divide”. However, it is now known that archaeal and bacterial lipids can form stable membranes, both in the lab and in nature. So why don't they? If not lipids themselves, the lipid divide may be driven by adverse interactions of membrane proteins with foreign lipids. More details can be found in the Hypothesis article 1800251 by Victor Sojo, Why the Lipid Divide? Membrane (...) Proteins as Drivers of the Split between the Lipids of the Three Domains of Life, DOI: 10.1002/bies.201800251. (shrink)

Recent results from engineered and natural samples show that the starkly different lipids of archaea and bacteria can form stable hybrid membranes. But if the two types can mix, why don't they? That is, why do most bacteria and all eukaryotes have only typically bacterial lipids, and archaea archaeal lipids? It is suggested here that the reason may lie on the other main component of cellular membranes: membrane proteins, and their close adaptation to the lipids. Archaeal lipids in modern bacteria (...) could suggest that the last universal common ancestor (LUCA) had both lipid types. However, this would imply a rather elaborate evolutionary scenario, while negating simpler alternatives. In light of widespread horizontal gene transfer across the prokaryotic domains, hybrid membranes reveal that the lipid divide did not just occur once at the divergence of archaea and bacteria from LUCA. Instead, it continues to occur actively to this day. Also see the video abstract here https://youtu.be/TdKjxoDAtsg. (shrink)