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   https://doi.org/10.1044/2018_AJA-IMIA3-18-0018  

   Bernstein, Lynne E.; Besser, Jana; Maidment, David W.; Swanepoel, De Wet (November 2018, American Journal of Audiology)
2. The role of ontogenetic transformations in the loop in the classification and phylogeny of Terebratellidina (Brachiopoda)

   Carlson, S.J.; López Carranza, N.; Butler, A.D.; Bapst, D.W.; Sperling, E.A. (January 2019, PaleoBios)
3. The Function and Regulation of Zinc in the Brain

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4. Evolutionary Patterns of Modularity in the Linkage Systems of the Skull in Wrasses and Parrotfishes

   https://doi.org/10.1093/iob/obad035  

   Gartner, S. M.; Larouche, O.; Evans, K. M.; Westneat, M. W. (September 2023, Integrative Organismal Biology)

   Synopsis The concept of modularity is fundamental to understanding the evolvability of morphological structures and is considered a central framework for the exploration of functionally and developmentally related subsets of anatomical traits. In this study, we explored evolutionary patterns of modularity and integration in the 4-bar linkage biomechanical system of the skull in the fish family Labridae (wrasses and parrotfishes). We measured evolutionary modularity and rates of shape diversification of the skull partitions of three biomechanical 4-bar linkage systems using 205 species of wrasses (family: Labridae) and a three-dimensional geometric morphometrics data set of 200 coordinates. We found support for a two-module hypothesis on the family level that identifies the bones associated with the three linkages as being a module independent from a module formed by the remainder of the skull (neurocranium, nasals, premaxilla, and pharyngeal jaws). We tested the patterns of skull modularity for four tribes in wrasses: hypsigenyines, julidines, cheilines, and scarines. The hypsigenyine and julidine groups showed the same two-module hypothesis for Labridae, whereas cheilines supported a four-module hypothesis with the three linkages as independent modules relative to the remainder of the skull. Scarines showed increased modularization of skull elements, where each bone is its own module. Diversification rates of modules show that linkage modules have evolved at a faster net rate of shape change than the remainder of the skull, with cheilines and scarines exhibiting the highest rate of evolutionary shape change. We developed a metric of linkage planarity and found the oral jaw linkage system to exhibit high planarity, while the rest position of the hyoid linkage system exhibited increased three dimensionality. This study shows a strong link between phenotypic evolution and biomechanical systems, with modularity influencing rates of shape change in the evolution of the wrasse skull. 

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5. The role of the 1.5 order formalism and the gauging of spacetime groups in the development of gravity and supergravity theories

   https://doi.org/10.1142/S0217732322300051  

   Chamseddine, Ali H.; West, Peter (March 2022, Modern Physics Letters A)

   The 1.5 formalism played a key role in the discovery of supergravity and it has been used to prove the invariance of essentially all supergravity theories under local supersymmetry. It emerged from the gauging of the super Poincaré group to find supergravity. We review both of these developments as well as the auxiliary fields for simple supergravity and its most general coupling to matter using the tensor calculus. 

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