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1. Executive Functions and Emotion Regulation in Children with Autism Spectrum Disorders

Author

Cristina Costescu, Rosan Adrian, and David Carmen

Abstract

Children with autism spectrum disorders (ASD) present deficits in regulation of their emotions which have a great impact on their mental health and well-being. There are several studies showing the connection between executive functions deficits and emotion dysregulation in the context of an ASD diagnosis. Our study aims to investigate which among the executive functions can predict the emotional dysregulation in children with ASD, if there is an association between the ASD specific characteristics and their ability to regulate their emotions and to identify if there are possible mediators of this relationship. To reach our objective, we enrolled 60 children with ASD (mean age 8.5 years) whose parents completed standardised measurements for executive functions, emotional dysregulation, and ASD characteristics. We found a positive association between ASD characteristics' severity and emotional dysregulation, as well as some significant predictors among specific executive functions and emotional dysregulation. Moreover, executive functioning mediates the relationship between the ASD characteristics and emotion regulation. Our research provides a better understanding of the relationship between ASD characteristics, executive functions, and emotion regulation.

Published
2024
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5. Mushroom Hunters: A Digital Game for Assessing and Training Sustained Attention in Children with Neurodevelopmental Disorders

Author

Costescu, Cristina, David, Carmen, Roșan, Adrian, Ferreira, Paula, Ferreira, Aristides, Vera, Lucia, Herrera, Gerardo, Kacprzyk, Janusz, Series Editor, Gomide, Fernando, Advisory Editor, Kaynak, Okyay, Advisory Editor, Liu, Derong, Advisory Editor, Pedrycz, Witold, Advisory Editor, Polycarpou, Marios M., Advisory Editor, Rudas, Imre J., Advisory Editor, Wang, Jun, Advisory Editor, Kubincová, Zuzana, editor, Caruso, Federica, editor, Kim, Tae-eun, editor, Ivanova, Malinka, editor, Lancia, Loreto, editor, and Pellegrino, Maria Angela, editor

Published
2023
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6. Specific niche requirements underpin multidecadal range edge stability, but may introduce barriers for climate change adaptation

Author

Firth, Louise B., Harris, Daniel, Blaze, Julie A., Marzloff, Martin P., Boyé, Aurélien, Miller, Peter I., Curd, Amelia, Vasquez, Mickaël, Nunn, Julia D., O’Connor, Nessa E., Power, Anne Marie, Mieszkowska, Nova, O’Riordan, Ruth M., Burrows, Michael T., Bricheno, Lucy M., Knights, Antony M., Nunes, Flavia L. D., Bordeyne, François, Bush, Laura E., Byers, James E., David, Carmen, Davies, Andrew J., Dubois, Stanislas F., Edwards, Hugh, Foggo, Andy, Grant, Lisa, Green, J. A. Mattias, Gribben, Paul E., Lima, Fernando P., McGrath, David, Noël, Laure M. L. J., Seabra, Rui, Simkanin, Christina, and Hawkins, Stephen J.

Published
2021

7. Insights into the diet and feeding behavior of immature polar cod (Boreogadus saida) from the under‐ice habitat of the central Arctic Ocean.

Author

Schaafsma, Fokje L., Flores, Hauke, David, Carmen L., Castellani, Giulia, Sakinan, Serdar, Meijboom, André, Niehoff, Barbara, Cornils, Astrid, Hildebrandt, Nicole, Schmidt, Katrin, Snoeijs‐Leijonmalm, Pauline, Ehrlich, Julia, and Ashjian, Carin J.

Subjects
DIETARY patterns, GASTROINTESTINAL contents, FORAGE fishes, ARCTIC climate, SPECIFIC gravity
Abstract

Polar cod (Boreogadus saida) is an endemic key species of the Arctic Ocean ecosystem. The ecology of this forage fish is well studied in Arctic shelf habitats where a large part of its population lives. However, knowledge about its ecology in the central Arctic Ocean (CAO), including its use of the sea‐ice habitat, is hitherto very limited. To increase this knowledge, samples were collected at the under‐ice surface during several expeditions to the CAO between 2012 and 2020, including the Multidisciplinary drifting Observatory for the Study of Arctic Climate (MOSAiC) expedition. The diet of immature B. saida and the taxonomic composition of their potential prey were analysed, showing that both sympagic and pelagic species were important prey items. Stomach contents included expected prey such as copepods and amphipods. Surprisingly, more rarely observed prey such as appendicularians, chaetognaths, and euphausiids were also found to be important. Comparisons of the fish stomach contents with prey distribution data suggests opportunistic feeding. However, relative prey density and catchability are important factors that determine which type of prey is ingested. Prey that ensures limited energy expenditure on hunting and feeding is often found in the stomach contents even though it is not the dominant species present in the environment. To investigate the importance of prey quality and quantity for the growth of B. saida in this area, we measured energy content of dominant prey species and used a bioenergetic model to quantify the effect of variations in diet on growth rate potential. The modeling results suggest that diet variability was largely explained by stomach fullness and, to a lesser degree, the energetic content of the prey. Our results suggest that under climate change, immature B. saida may be at least equally sensitive to a loss in the number of efficiently hunted prey than to a reduction in the prey's energy content. Consequences for the growth and survival of B. saida will not depend on prey presence alone, but also on prey catchability, digestibility, and energy content. [ABSTRACT FROM AUTHOR]

Published
2024
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18. The circumpolar impacts of climate change and anthropogenic stressors on Arctic cod (Boreogadus saida) and its ecosystem

Author

Geoffroy, Maxime, Bouchard, Caroline, Flores, Hauke, Robert, Dominique, Gjøsæter, Harald, Hoover, Carie, Hop, Haakon, Hussey, Nigel E., Nahrgang, Jasmine, Steiner, Nadja, Bender, Morgan, Berge, Jørgen, Castellani, Giulia, Chernova, Natalia, Copeman, Louise, David, Carmen L., Deary, Alison, Divoky, George, Dolgov, Andrey V., Duffy-Anderson, Janet, Dupont, Nicolas, Durant, Joël M., Elliott, Kyle, Gauthier, Stéphane, Goldstein, Esther D., Gradinger, Rolf, Hedges, Kevin, Herbig, Jennifer, Laurel, Ben, Loseto, Lisa, Maes, Sarah, Mark, Felix C., Mosbech, Anders, Pedro, Sara, Pettitt-Wade, Harri, Prokopchuk, Irina, Renaud, Paul E., Schembri, Sarah, Vestfals, Cathleen, Walkusz, Wojciech, Geoffroy, Maxime, Bouchard, Caroline, Flores, Hauke, Robert, Dominique, Gjøsæter, Harald, Hoover, Carie, Hop, Haakon, Hussey, Nigel E., Nahrgang, Jasmine, Steiner, Nadja, Bender, Morgan, Berge, Jørgen, Castellani, Giulia, Chernova, Natalia, Copeman, Louise, David, Carmen L., Deary, Alison, Divoky, George, Dolgov, Andrey V., Duffy-Anderson, Janet, Dupont, Nicolas, Durant, Joël M., Elliott, Kyle, Gauthier, Stéphane, Goldstein, Esther D., Gradinger, Rolf, Hedges, Kevin, Herbig, Jennifer, Laurel, Ben, Loseto, Lisa, Maes, Sarah, Mark, Felix C., Mosbech, Anders, Pedro, Sara, Pettitt-Wade, Harri, Prokopchuk, Irina, Renaud, Paul E., Schembri, Sarah, Vestfals, Cathleen, and Walkusz, Wojciech

Abstract

Arctic cod (Boreogadus saida) is the most abundant forage fish in the Arctic Ocean. Here we review Arctic cod habitats, distribution, ecology, and physiology to assess how climate change and other anthropogenic stressors are affecting this key species. This review identifies vulnerabilities for different life stages across the entire distribution range of Arctic cod. We explore the impact of environmental (abiotic and biotic) and anthropogenic stressors on Arctic cod with a regional perspective in a scenario up to the year 2050 and identify knowledge gaps constraining predictions. Epipelagic eggs and larvae are more vulnerable to climate change and stressors than adults. Increased water temperatures, sea-ice decline, altered freshwater input, acidification, changing prey field, increased interspecific competition, new predators, and pollution are the principal stressors that will affect Arctic cod populations. Detrimental effects are likely to be greater in regions characterized by the advection of warmer Atlantic and Pacific waters. In contrast, Arctic cod may benefit from ocean warming in colder areas of the High Arctic. The risk from fisheries is moderate and primarily limited to bycatch. Overall, a decrease in suitable habitat and an associated decline in total Arctic cod biomass are predicted. In most Arctic seas, the relative abundance of Arctic cod within the fish community will likely fluctuate in accordance with cold and warm periods. A reduced abundance of Arctic cod will negatively affect the abundance, distribution, and physiological condition of certain predators, whereas some predators will successfully adapt to a more boreal diet. Regional management measures that recognize the critical role of Arctic cod are required to ensure that increased anthropogenic activities do not exacerbate the impacts of climate change on Arctic marine ecosystems. Ultimately, the mitigation of habitat loss for Arctic cod will only be achieved through a global reduction in

Published
2023

20. The circumpolar impacts of climate change and anthropogenic stressors on Arctic cod (Boreogadus saida) and its ecosystem

Author

Geoffroy, Maxime, primary, Bouchard, Caroline, additional, Flores, Hauke, additional, Robert, Dominique, additional, Gjøsæter, Harald, additional, Hoover, Carie, additional, Hop, Haakon, additional, Hussey, Nigel E., additional, Nahrgang, Jasmine, additional, Steiner, Nadja, additional, Bender, Morgan, additional, Berge, Jørgen, additional, Castellani, Giulia, additional, Chernova, Natalia, additional, Copeman, Louise, additional, David, Carmen L., additional, Deary, Alison, additional, Divoky, George, additional, Dolgov, Andrey V., additional, Duffy-Anderson, Janet, additional, Dupont, Nicolas, additional, Durant, Joël M., additional, Elliott, Kyle, additional, Gauthier, Stéphane, additional, Goldstein, Esther D., additional, Gradinger, Rolf, additional, Hedges, Kevin, additional, Herbig, Jennifer, additional, Laurel, Ben, additional, Loseto, Lisa, additional, Maes, Sarah, additional, Mark, Felix C., additional, Mosbech, Anders, additional, Pedro, Sara, additional, Pettitt-Wade, Harri, additional, Prokopchuk, Irina, additional, Renaud, Paul E., additional, Schembri, Sarah, additional, Vestfals, Cathleen, additional, and Walkusz, Wojciech, additional

Published
2023
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23. Aortic dissection in pregnancy and the postpartum period

Author

Russo, Melissa, primary, Boehler-Tatman, Mattie, additional, Albright, Catherine, additional, David, Carmen, additional, Kennedy, L'Oreal, additional, Roberts, Aaron W., additional, Shalhub, Sherene, additional, Afifi, Rana, additional, Case, Melanie, additional, Cotter, Novelett E., additional, David, Carmen C., additional, Fasano, Mark, additional, Goldenberg, Richard, additional, Howitt, Jake, additional, Söderlund, Timo T., additional, Trotter, Debra, additional, Rabin, Asaf, additional, Russo, Melissa L., additional, Drudi, Laura Marie, additional, Marks, Laura L., additional, Yousif, Maisoon D., additional, Hoffstaetter, Tabea, additional, Taubenfeld, Ella, additional, Vemulapalli, Sreekanth, additional, Campos, Chrisanne S., additional, Rusche, Lindsey, additional, Pena, Robert C.F., additional, Mussa, Firas F., additional, MacCarrick, Gretchen, additional, Goldsborough, Earl, additional, Samuel, Christeen, additional, Xu, Lillian, additional, Mouawad, Nicolas J., additional, Yassa, Eanas S., additional, Teng, Xiaoyi, additional, Politano, Amani, additional, Teindl, Jesse, additional, Bloom, Lara, additional, Gluck, Rebecca, additional, O'Neal, Meredith Ford, additional, Grima, Josephine, additional, Masciale, Eileen, additional, Ota, Takeyoshi, additional, Wright, Katelyn, additional, Hakim, Alan J., additional, Owens, Gareth, additional, Arnaoutakis, George J., additional, Judelson, Dejah, additional, D'Oria, Mario, additional, Rio-Sola, Lurdes del, additional, Ajalat, Mark, additional, Chau, Marvin, additional, Talutis, Stephanie D., additional, Woo, Karen, additional, Wohlauer, Max V., additional, Yi, JeniannA., additional, Eagle, Kim A., additional, Bowman, Marion A. Hofmann, additional, MS, Eva Kline-Rogers, additional, Kim, Hyein, additional, Henoud, Claudine, additional, Damrauer, Scott, additional, Krol, Emilia, additional, Afifi, Rana O., additional, Cecchi, Alana C., additional, Drake, Madeline, additional, Estrera, Anthony, additional, Hebert, Avery M, additional, Milewicz, Dianna M., additional, Prakash, Siddharth K., additional, Sandhu, Harleen, additional, Smith-Washington, Akili, additional, Tanaka, Akiko, additional, Watson, Jacob, additional, Ahmad, Myra, additional, Albright, Catherine M., additional, Burke, Christopher R., additional, Byers, Peter H., additional, Lawrence, Sarah O., additional, Lee, Jenney R., additional, Medina, Jonathan, additional, Nishath, Thamanna, additional, Pham, Julie, additional, Segal, Courtney, additional, Soto, Michael, additional, Catalan, Linell, additional, Patterson, Megan, additional, and Ilonzo, Nicole, additional

Published
2022
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26. Allometric relationships of ecologically important Antarctic and Arctic zooplankton and fish species

Author

Schaafsma, Fokje, David, Carmen, Kohlbach, Doreen, Ehrlich, Julia, Castellani, Giulia, Lange, Benjamin, Vortkamp, Martina, Meijboom, André, Wünsch, Anna-Fortuna, Immerz, Antonia, Cantzler, Hannelore, Klasmeier, Apasiri, Zakharova, Nadezhda, Schmidt, Katrin, Van de Putte, Anton, van Franeker, Jan-Andries, Flores, Hauke, Schaafsma, Fokje, David, Carmen, Kohlbach, Doreen, Ehrlich, Julia, Castellani, Giulia, Lange, Benjamin, Vortkamp, Martina, Meijboom, André, Wünsch, Anna-Fortuna, Immerz, Antonia, Cantzler, Hannelore, Klasmeier, Apasiri, Zakharova, Nadezhda, Schmidt, Katrin, Van de Putte, Anton, van Franeker, Jan-Andries, and Flores, Hauke

Abstract

Allometric relationships between body properties of animals are useful for a wide variety of purposes, such as estimation of biomass, growth, population structure, bioenergetic modelling and carbon flux studies. This study summarizes allometric relationships of zooplankton and nekton species that play major roles in polar marine food webs. Measurements were performed on 639 individuals of 15 species sampled during three expeditions in the Southern Ocean (winter and summer) and 2374 individuals of 14 species sampled during three expeditions in the Arctic Ocean (spring and summer). The information provided by this study fills current knowledge gaps on relationships between length and wet/dry mass of understudied animals, such as various gelatinous zooplankton, and of animals from understudied seasons and maturity stages, for example, for the krill Thysanoessa macrura and larval Euphausia superba caught in winter. Comparisons show that there is intra-specific variation in length–mass relationships of several species depending on season, e.g. for the amphipod Themisto libellula. To investigate the potential use of generalized regression models, comparisons between sexes, maturity stages or age classes were performed and are discussed, such as for the several krill species and T. libellula. Regression model comparisons on age classes of the fish E. antarctica were inconclusive about their general use. Other allometric measurements performed on carapaces, eyes, heads, telsons, tails and otoliths provided models that proved to be useful for estimating length or mass in, e.g. diet studies. In some cases, the suitability of these models may depend on species or developmental stages.

Published
2022

27. The interactive effects of temperature and food consumption on growth of larval Arctic cod (Boreogadus saida): a bioenergetic model

Author

David, Carmen L., Ji, Rubao, Bouchard, Caroline, Hop, Haakon, Hutchings, Jeffrey A., David, Carmen L., Ji, Rubao, Bouchard, Caroline, Hop, Haakon, and Hutchings, Jeffrey A.

Abstract

© The Author(s), 2022. This article is distributed under the terms of the Creative Commons Attribution License. The definitive version was published in David, C. L., Ji, R., Bouchard, C., Hop, H., & Hutchings, J. A. The interactive effects of temperature and food consumption on growth of larval Arctic cod (Boreogadus saida): a bioenergetic model. Elementa: Science of the Anthropocene, 10(1), (2022): 00045, https://doi.org/10.1525/elementa.2021.00045., Understanding larval growth, mediated by the interaction of early life traits and environmental conditions, is crucial to elucidate population dynamics. We used a bioenergetic model as an integrative tool to simulate the growth of Arctic cod (Boreogadus saida) larvae and to test the sensitivity of modeled growth to temperature and food quantity and quality. The growth was computed as the energy gained through food consumption minus the energy lost through respiration and other metabolic processes. We extended a previously published bioenergetic model to cover the full range of larval length and used a simplified feeding module. This simplification allowed us to build a predictive tool that can be applied to larval Arctic cod at a large spatial scale. Our model suggested that with subzero temperatures in the High Arctic, larvae need to increase food consumption in order to reach the observed length-at-age in late summer. The modeled growth agreed well with the field observations in the High Arctic but was 2–3 times higher than the laboratory-derived growth rate, probably due to differences in food type and selective mortality. Our study reveals important knowledge gaps in our understanding of larval cod growth in the High Arctic, including the lack of empirical estimations of daily ration and respiration for larvae under the natural habitat temperatures., This research was undertaken thanks in part to funding from the Canada First Research Excellence Fund, through the Ocean Frontier Institute.

Published
2022

28. Connectivity modelling informs metapopulation structure and conservation priorities for a reef‐building species

Author

David, Carmen, Marzloff, Martin, Knights, Antony M., Cugier, Philippe, Nunes, Flavia, Cordier, Celine, Firth, Louise B., Dubois, Stanislas, David, David, Carmen, Marzloff, Martin, Knights, Antony M., Cugier, Philippe, Nunes, Flavia, Cordier, Celine, Firth, Louise B., Dubois, Stanislas, and David

Abstract

Aim In coastal marine systems, biogenic reef-building species have great importance for conservation as they provide habitat for a wide range of species, promoting biodiversity, ecosystem functioning and services. Biogenic reef persistence and recovery from perturbations depend on recolonization by new recruits. Characterizing larval dispersal among distant reefs is key to understanding how connectivity shapes metapopulation structure and determines network coherence; all of which are of critical importance for effective conservation. Location Northeast Atlantic coast and western English Channel, France. Methods We used a biophysical transport model to simulate larval dispersal of the reef-building polychaete Sabellaria alveolata. We combined dispersal modelling and network analysis into a framework aiming to identify key reef areas and critical dispersal pathways, whose presence in the network is vital to its overall coherence. We evaluated changes in dispersal pathways constrained by different connectivity thresholds, i.e., minimum dispersal rate for the presence of a connection. We tested scenarios of sequential loss of reefs: randomly, by habitat quality (a score for reef status and occupancy in an area) or by betweenness centrality metric (BC; quantifying the proportion of shortest paths connecting all areas that are passing through any given area). Results We found that the network of S. alveolata reefs forms two main regional clusters, the Atlantic coast and the English Channel, which are connected only through weak sporadic dispersal events. Within each cluster, the network is characterized by relatively high connectivity among neighbouring areas with reefs, maintained even under higher connectivity thresholds. Simulating scenarios of sequential loss of reefs further identified high centrality reefs, those with highest BC values, key to network coherence. Main conclusions Effective conservation of this important reef habitat requires a network of protected a

Published
2022
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31. The mental health impact of aortic dissection

Author

Ilonzo, Nicole, primary, Taubenfeld, Ella, additional, Yousif, Maisoon D., additional, Henoud, Claudine, additional, Howitt, Jake, additional, Wohlauer, Max, additional, D'Oria, Mario, additional, MacCarrick, Gretchen, additional, Case, Melanie, additional, Cotter, Novelett E., additional, David, Carmen C., additional, Fasano, Mark, additional, Goldenberg, Richard, additional, Söderlund, Timo T., additional, Trotter, Debra, additional, Rabin, Asaf, additional, Boehler-Tatman, Mattie, additional, Russo, Melissa L., additional, Drudi, Laura Marie, additional, Marks, Laura L., additional, Hoffstaetter, Tabea, additional, Vemulapalli, Sreekanth, additional, Campos, Chrisanne S., additional, Rusche, Lindsey, additional, Pena, Robert C.F., additional, Mussa, Firas F., additional, MacCarrick , Gretchen, additional, Goldsborough, Earl, additional, Samuel, Christeen, additional, Xu, Lillian, additional, Mouawad, Nicolas J., additional, Yassa, Eanas S., additional, Teng, Xiaoyi, additional, Politano, Amani, additional, Teindl, Jesse, additional, Bloom, Lara, additional, Gluck, Rebecca, additional, O'Neal, Meredith Ford, additional, Grima, Josephine, additional, Masciale, Eileen, additional, Ota, Takeyoshi, additional, Wright, Katelyn, additional, Hakim, Alan J., additional, Owens, Gareth, additional, Arnaoutakis, George J., additional, Judelson, Dejah, additional, Rio-Sola, Lurdes del, additional, Ajalat, Mark, additional, Chau, Marvin, additional, Talutis, Stephanie D., additional, Woo, Karen, additional, Wohlauer, Max V., additional, Yi, JeniannA., additional, Eagle, Kim A., additional, Bowman, Marion A. Hofmann, additional, MS, Eva Kline-Rogers, additional, Kim, Hyein, additional, Damrauer, Scott, additional, Krol, Emilia, additional, Afifi, Rana O., additional, Cecchi, Alana C., additional, Drake, Madeline, additional, Estrera, Anthony, additional, Hebert, Avery M, additional, Milewicz, Dianna M., additional, Prakash, Siddharth K., additional, Roberts, Aaron W., additional, Sandhu, Harleen, additional, Smith-Washington, Akili, additional, Tanaka, Akiko, additional, Watson, Jacob, additional, Ahmad, Myra, additional, Albright, Catherine M., additional, Burke, Christopher R., additional, Byers, Peter H., additional, Kennedy, L'Oreal, additional, Lawrence, Sarah O., additional, Lee, Jenney R., additional, Medina, Jonathan, additional, Nishath, Thamanna, additional, Pham, Julie, additional, Segal, Courtney, additional, Shalhub, Sherene, additional, Soto, Michael, additional, Catalan, Linell, additional, Patterson, Megan, additional, and Ilonzo, Nicole, additional

Published
2022
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32. Current state and future directions of genomic medicine in aortic dissection: A path to prevention and personalized care

Author

Cecchi, Alana C., primary, Drake, Madeline, additional, Campos, Chrisanne, additional, Howitt, Jake, additional, Medina, Jonathan, additional, Damrauer, Scott M., additional, Shalhub, Sherene, additional, Milewicz, Dianna M., additional, Case, Melanie, additional, Cotter, Novelett E., additional, David, Carmen C., additional, Fasano, Mark, additional, Goldenberg, Richard, additional, Söderlund, Timo T., additional, Trotter, Debra, additional, Rabin, Asaf, additional, Boehler-Tatman, Mattie, additional, Russo, Melissa L., additional, Drudi, Laura Marie, additional, Marks, Laura L., additional, Yousif, Maisoon D., additional, Hoffstaetter, Tabea, additional, Taubenfeld, Ella, additional, Vemulapalli, Sreekanth, additional, Campos, Chrisanne S., additional, Rusche, Lindsey, additional, Pena, Robert C.F., additional, Mussa, Firas F., additional, MacCarrick, Gretchen, additional, Goldsborough, Earl, additional, Samuel, Christeen, additional, Xu, Lillian, additional, Mouawad, Nicolas J., additional, Yassa, Eanas S., additional, Teng, Xiaoyi, additional, Politano, Amani, additional, Teindl, Jesse, additional, Bloom, Lara, additional, Gluck, Rebecca, additional, O'Neal, Meredith Ford, additional, Grima, Josephine, additional, Masciale, Eileen, additional, Ota, Takeyoshi, additional, Wright, Katelyn, additional, Hakim, Alan J., additional, Owens, Gareth, additional, Arnaoutakis, George J., additional, Judelson, Dejah, additional, D'Oria, Mario, additional, Rio-Sola, Lurdes del, additional, Ajalat, Mark, additional, Chau, Marvin, additional, Talutis, Stephanie D., additional, Woo, Karen, additional, Wohlauer, Max V., additional, Yi, JeniannA., additional, Eagle, Kim A., additional, Bowman, Marion A. Hofmann, additional, MS, Eva Kline-Rogers, additional, Kim, Hyein, additional, Henoud, Claudine, additional, Damrauer, Scott, additional, Krol, Emilia, additional, Afifi, Rana O., additional, Cecchi, Alana C., additional, Estrera, Anthony, additional, Hebert, Avery M, additional, Prakash, Siddharth K., additional, Roberts, Aaron W., additional, Sandhu, Harleen, additional, Smith-Washington, Akili, additional, Tanaka, Akiko, additional, Watson, Jacob, additional, Ahmad, Myra, additional, Albright, Catherine M., additional, Burke, Christopher R., additional, Byers, Peter H., additional, Kennedy, L'Oreal, additional, Lawrence, Sarah O., additional, Lee, Jenney R., additional, Nishath, Thamanna, additional, Pham, Julie, additional, Segal, Courtney, additional, Soto, Michael, additional, Catalan, Linell, additional, Patterson, Megan, additional, and Ilonzo, Nicole, additional

Published
2022
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33. An assessment of the current medical management of thoracic aortic disease: A patient-centered scoping literature review

Author

Pena, Robert C.F., primary, Hofmann Bowman, Marion A., additional, Ahmad, Myra, additional, Pham, Julie, additional, Kline-Rogers, Eva, additional, Case, Melanie J., additional, Lee, Jenney, additional, Eagle, Kim, additional, Cotter, Novelett E., additional, David, Carmen C., additional, Fasano, Mark, additional, Goldenberg, Richard, additional, Howitt, Jake, additional, Söderlund, Timo T., additional, Trotter, Debra, additional, Rabin, Asaf, additional, Boehler-Tatman, Mattie, additional, Russo, Melissa L., additional, Drudi, Laura Marie, additional, Marks, Laura L., additional, Yousif, Maisoon D., additional, Hoffstaetter, Tabea, additional, Taubenfeld, Ella, additional, Vemulapalli, Sreekanth, additional, Campos, Chrisanne S., additional, Rusche, Lindsey, additional, Pena , Robert C.F., additional, Mussa, Firas F., additional, MacCarrick, Gretchen, additional, Goldsborough, Earl, additional, Samuel, Christeen, additional, Xu, Lillian, additional, Mouawad, Nicolas J., additional, Yassa, Eanas S., additional, Teng, Xiaoyi, additional, Politano, Amani, additional, Teindl, Jesse, additional, Bloom, Lara, additional, Gluck, Rebecca, additional, O'Neal, Meredith Ford, additional, Grima, Josephine, additional, Masciale, Eileen, additional, Ota, Takeyoshi, additional, Wright, Katelyn, additional, Hakim, Alan J., additional, Owens, Gareth, additional, Arnaoutakis, George J., additional, Judelson, Dejah, additional, D'Oria, Mario, additional, del Rio-Sola, Lurdes, additional, Ajalat, Mark, additional, Chau, Marvin, additional, Talutis, Stephanie D., additional, Woo, Karen, additional, Wohlauer, Max V., additional, Yi, Jeniann A., additional, Eagle, Kim A., additional, Bowman, Marion A. Hofmann, additional, Kim, Hyein, additional, Henoud, Claudine, additional, Damrauer, Scott, additional, Krol, Emilia, additional, Afifi, Rana O., additional, Cecchi, Alana C., additional, Drake, Madeline, additional, Estrera, Anthony, additional, Hebert, Avery M, additional, Milewicz, Dianna M., additional, Prakash, Siddharth K., additional, Roberts, Aaron W., additional, Sandhu, Harleen, additional, Smith-Washington, Akili, additional, Tanaka, Akiko, additional, Watson, Jacob, additional, Albright, Catherine M., additional, Burke, Christopher R., additional, Byers, Peter H., additional, Kennedy, L'Oreal, additional, Lawrence, Sarah O., additional, Lee, Jenney R., additional, Medina, Jonathan, additional, Nishath, Thamanna, additional, Segal, Courtney, additional, Shalhub, Sherene, additional, Soto, Michael, additional, Catalan, Linell, additional, Patterson, Megan, additional, and Ilonzo, Nicole, additional

Published
2022
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34. Lived experiences of people with or at risk for aortic dissection: A qualitative assessment

Author

Lee, Jenney R., primary, Segal, Courtney, additional, Howitt, Jake, additional, Case, Melanie, additional, Cotter, Novelett, additional, Soderlund, Timo, additional, Trotter, Debra, additional, Lawrence, Sarah O., additional, Shalhub, Sherene, additional, Cotter, Novelett E., additional, David, Carmen C., additional, Fasano, Mark, additional, Goldenberg, Richard, additional, Söderlund, Timo T., additional, Rabin, Asaf, additional, Boehler-Tatman, Mattie, additional, Russo, Melissa L., additional, Drudi, Laura Marie, additional, Marks, Laura L., additional, Yousif, Maisoon D., additional, Hoffstaetter, Tabea, additional, Taubenfeld, Ella, additional, Vemulapalli, Sreekanth, additional, Campos, Chrisanne S., additional, Rusche, Lindsey, additional, Pena, Robert C.F., additional, Mussa, Firas F., additional, MacCarrick, Gretchen, additional, Goldsborough, Earl, additional, Samuel, Christeen, additional, Xu, Lillian, additional, Mouawad, Nicolas J., additional, Yassa, Eanas S., additional, Teng, Xiaoyi, additional, Politano, Amani, additional, Teindl, Jesse, additional, Bloom, Lara, additional, Gluck, Rebecca, additional, O'Neal, Meredith Ford, additional, Grima, Josephine, additional, Masciale, Eileen, additional, Ota, Takeyoshi, additional, Wright, Katelyn, additional, Hakim, Alan J., additional, Owens, Gareth, additional, Arnaoutakis, George J., additional, Judelson, Dejah, additional, D'Oria, Mario, additional, Rio-Sola, Lurdes del, additional, Ajalat, Mark, additional, Chau, Marvin, additional, Talutis, Stephanie D., additional, Woo, Karen, additional, Wohlauer, Max V., additional, Yi, JeniannA., additional, Eagle, Kim A., additional, Bowman, Marion A. Hofmann, additional, MS, Eva Kline-Rogers, additional, Kim, Hyein, additional, Henoud, Claudine, additional, Damrauer, Scott, additional, Krol, Emilia, additional, Afifi, Rana O., additional, Cecchi, Alana C., additional, Drake, Madeline, additional, Estrera, Anthony, additional, Hebert, Avery M, additional, Milewicz, Dianna M., additional, Prakash, Siddharth K., additional, Roberts, Aaron W., additional, Sandhu, Harleen, additional, Smith-Washington, Akili, additional, Tanaka, Akiko, additional, Watson, Jacob, additional, Ahmad, Myra, additional, Albright, Catherine M., additional, Burke, Christopher R., additional, Byers, Peter H., additional, Kennedy, L'Oreal, additional, Lee, Jenney R., additional, Medina, Jonathan, additional, Nishath, Thamanna, additional, Pham, Julie, additional, Soto, Michael, additional, Catalan, Linell, additional, Patterson, Megan, additional, and Ilonzo, Nicole, additional

Published
2022
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35. Executive Summary of the Aortic Dissection (AD) Collaborative

Author

Shalhub, Sherene, primary, Case, Melanie, additional, Cotter, Novelett E., additional, David, Carmen C., additional, Fasano, Mark, additional, Goldenberg, Richard, additional, Howitt, Jake, additional, Söderlund, Timo T., additional, Trotter, Debra, additional, Rabin, Asaf, additional, Boehler-Tatman, Mattie, additional, Russo, Melissa L., additional, Drudi, Laura Marie, additional, Marks, Laura L., additional, Yousif, Maisoon D., additional, Hoffstaetter, Tabea, additional, Taubenfeld, Ella, additional, Vemulapalli, Sreekanth, additional, Campos, Chrisanne S., additional, Rusche, Lindsey, additional, Pena, Robert C.F., additional, Mussa, Firas F., additional, MacCarrick, Gretchen, additional, Goldsborough, Earl, additional, Samuel, Christeen, additional, Xu, Lillian, additional, Mouawad, Nicolas J., additional, Yassa, Eanas S., additional, Teng, Xiaoyi, additional, Politano, Amani, additional, Teindl, Jesse, additional, Bloom, Lara, additional, Gluck, Rebecca, additional, O'Neal, Meredith Ford, additional, Grima, Josephine, additional, Masciale, Eileen, additional, Ota, Takeyoshi, additional, Wright, Katelyn, additional, Hakim, Alan J., additional, Owens, Gareth, additional, Arnaoutakis, George J., additional, Judelson, Dejah, additional, D'Oria, Mario, additional, Rio-Sola, Lurdes del, additional, Ajalat, Mark, additional, Chau, Marvin, additional, Talutis, Stephanie D., additional, Woo, Karen, additional, Wohlauer, Max V., additional, Yi, JeniannA., additional, Eagle, Kim A., additional, Bowman, Marion A. Hofmann, additional, MS, Eva Kline-Rogers, additional, Kim, Hyein, additional, Henoud, Claudine, additional, Damrauer, Scott, additional, Krol, Emilia, additional, Afifi, Rana O., additional, Cecchi, Alana C., additional, Drake, Madeline, additional, Estrera, Anthony, additional, Hebert, Avery M, additional, Milewicz, Dianna M., additional, Prakash, Siddharth K., additional, Roberts, Aaron W., additional, Sandhu, Harleen, additional, Smith-Washington, Akili, additional, Tanaka, Akiko, additional, Watson, Jacob, additional, Ahmad, Myra, additional, Albright, Catherine M., additional, Burke, Christopher R., additional, Byers, Peter H., additional, Kennedy, L'Oreal, additional, Lawrence, Sarah O., additional, Lee, Jenney R., additional, Medina, Jonathan, additional, Nishath, Thamanna, additional, Pham, Julie, additional, Segal, Courtney, additional, Shalhub, Sherene, additional, Soto, Michael, additional, Catalan, Linell, additional, Patterson, Megan, additional, and Ilonzo, Nicole, additional

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2022
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36. The Aortic Dissection Collaborative: Methods for building capacity for patient-centered outcomes research in the aortic dissection community

Author

Lee, Jenney R., primary, Lawrence, Sarah O., additional, Soto, Michael, additional, Case, Melanie, additional, Cotter, Novelett, additional, Howitt, Jake, additional, Soderlund, Timo, additional, Trotter, Debra, additional, Byers, Peter H., additional, Shalhub, Sherene, additional, Cotter, Novelett E., additional, David, Carmen C., additional, Fasano, Mark, additional, Goldenberg, Richard, additional, Söderlund, Timo T., additional, Rabin, Asaf, additional, Boehler-Tatman, Mattie, additional, Russo, Melissa L., additional, Drudi, Laura Marie, additional, Marks, Laura L., additional, Yousif, Maisoon D., additional, Hoffstaetter, Tabea, additional, Taubenfeld, Ella, additional, Vemulapalli, Sreekanth, additional, Campos, Chrisanne S., additional, Rusche, Lindsey, additional, Pena, Robert C.F., additional, Mussa, Firas F., additional, MacCarrick, Gretchen, additional, Goldsborough, Earl, additional, Samuel, Christeen, additional, Xu, Lillian, additional, Mouawad, Nicolas J., additional, Yassa, Eanas S., additional, Teng, Xiaoyi, additional, Politano, Amani, additional, Teindl, Jesse, additional, Bloom, Lara, additional, Gluck, Rebecca, additional, O'Neal, Meredith Ford, additional, Grima, Josephine, additional, Masciale, Eileen, additional, Ota, Takeyoshi, additional, Wright, Katelyn, additional, Hakim, Alan J., additional, Owens, Gareth, additional, Arnaoutakis, George J., additional, Judelson, Dejah, additional, D'Oria, Mario, additional, del Rio-Sola, Lurdes, additional, Ajalat, Mark, additional, Chau, Marvin, additional, Talutis, Stephanie D., additional, Woo, Karen, additional, Wohlauer, Max V., additional, Yi, Jeniann A., additional, Eagle, Kim A., additional, Bowman, Marion A. Hofmann, additional, Kline-Rogers, Eva, additional, Kim, Hyein, additional, Henoud, Claudine, additional, Damrauer, Scott, additional, Krol, Emilia, additional, Afifi, Rana O., additional, Cecchi, Alana C., additional, Drake, Madeline, additional, Estrera, Anthony, additional, Hebert, Avery M, additional, Milewicz, Dianna M., additional, Prakash, Siddharth K., additional, Roberts, Aaron W., additional, Sandhu, Harleen, additional, Smith-Washington, Akili, additional, Tanaka, Akiko, additional, Watson, Jacob, additional, Ahmad, Myra, additional, Albright, Catherine M., additional, Burke, Christopher R., additional, Kennedy, L'Oreal, additional, Lee, Jenney R., additional, Medina, Jonathan, additional, Nishath, Thamanna, additional, Pham, Julie, additional, Segal, Courtney, additional, Catalan, Linell, additional, Patterson, Megan, additional, and Ilonzo, Nicole, additional

Published
2022
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37. Implementation of telemedicine in the care of patients with aortic dissection

Author

Nishath, Thamanna, primary, Wright, Katie, additional, Burke, Christopher R., additional, Teng, Xiaoyi, additional, Cotter, Novelett, additional, Yi, Jeniann A., additional, Drudi, Laura M., additional, Case, Melanie, additional, Cotter, Novelett E., additional, David, Carmen C., additional, Fasano, Mark, additional, Goldenberg, Richard, additional, Howitt, Jake, additional, Söderlund, Timo T., additional, Trotter, Debra, additional, Rabin, Asaf, additional, Boehler-Tatman, Mattie, additional, Russo, Melissa L., additional, Drudi, Laura Marie, additional, Marks, Laura L., additional, Yousif, Maisoon D., additional, Hoffstaetter, Tabea, additional, Taubenfeld, Ella, additional, Vemulapalli, Sreekanth, additional, Campos, Chrisanne S., additional, Rusche, Lindsey, additional, Pena, Robert C.F., additional, Mussa, Firas F., additional, MacCarrick, Gretchen, additional, Goldsborough, Earl, additional, Samuel, Christeen, additional, Xu, Lillian, additional, Mouawad, Nicolas J., additional, Yassa, Eanas S., additional, Politano, Amani, additional, Teindl, Jesse, additional, Bloom, Lara, additional, Gluck, Rebecca, additional, O'Neal, Meredith Ford, additional, Grima, Josephine, additional, Masciale, Eileen, additional, Ota, Takeyoshi, additional, Wright, Katelyn, additional, Hakim, Alan J., additional, Owens, Gareth, additional, Arnaoutakis, George J., additional, Judelson, Dejah, additional, D'Oria, Mario, additional, Rio-Sola, Lurdes del, additional, Ajalat, Mark, additional, Chau, Marvin, additional, Talutis, Stephanie D., additional, Woo, Karen, additional, Wohlauer, Max V., additional, Yi, JeniannA., additional, Eagle, Kim A., additional, Bowman, Marion A. Hofmann, additional, MS, Eva Kline-Rogers, additional, Kim, Hyein, additional, Henoud, Claudine, additional, Damrauer, Scott, additional, Krol, Emilia, additional, Afifi, Rana O., additional, Cecchi, Alana C., additional, Drake, Madeline, additional, Estrera, Anthony, additional, Hebert, Avery M, additional, Milewicz, Dianna M., additional, Prakash, Siddharth K., additional, Roberts, Aaron W., additional, Sandhu, Harleen, additional, Smith-Washington, Akili, additional, Tanaka, Akiko, additional, Watson, Jacob, additional, Ahmad, Myra, additional, Albright, Catherine M., additional, Byers, Peter H., additional, Kennedy, L'Oreal, additional, Lawrence, Sarah O., additional, Lee, Jenney R., additional, Medina, Jonathan, additional, Nishath, Thamanna, additional, Pham, Julie, additional, Segal, Courtney, additional, Shalhub, Sherene, additional, Soto, Michael, additional, Catalan, Linell, additional, Patterson, Megan, additional, and Ilonzo, Nicole, additional

Published
2022
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38. Stakeholder perspectives on education in aortic dissection

Author

Talutis, Stephanie D., primary, Watson, Jacob, additional, Goldsborough, Earl, additional, Masciale, Eileen, additional, Woo, Karen, additional, Case, Melanie, additional, Cotter, Novelett E., additional, David, Carmen C., additional, Fasano, Mark, additional, Goldenberg, Richard, additional, Howitt, Jake, additional, Söderlund, Timo T., additional, Trotter, Debra, additional, Rabin, Asaf, additional, Boehler-Tatman, Mattie, additional, Russo, Melissa L., additional, Drudi, Laura Marie, additional, Marks, Laura L., additional, Yousif, Maisoon D., additional, Hoffstaetter, Tabea, additional, Taubenfeld, Ella, additional, Vemulapalli, Sreekanth, additional, Campos, Chrisanne S., additional, Rusche, Lindsey, additional, Pena, Robert C.F., additional, Mussa, Firas F., additional, MacCarrick, Gretchen, additional, Samuel, Christeen, additional, Xu, Lillian, additional, Mouawad, Nicolas J., additional, Yassa, Eanas S., additional, Teng, Xiaoyi, additional, Politano, Amani, additional, Teindl, Jesse, additional, Bloom, Lara, additional, Gluck, Rebecca, additional, O'Neal, Meredith Ford, additional, Grima, Josephine, additional, Ota, Takeyoshi, additional, Wright, Katelyn, additional, Hakim, Alan J., additional, Owens, Gareth, additional, Arnaoutakis, George J., additional, Judelson, Dejah, additional, D'Oria, Mario, additional, Rio-Sola, Lurdes del, additional, Ajalat, Mark, additional, Chau, Marvin, additional, Talutis, Stephanie D., additional, Wohlauer, Max V., additional, Yi, JeniannA., additional, Eagle, Kim A., additional, Bowman, Marion A. Hofmann, additional, MS, Eva Kline-Rogers, additional, Kim, Hyein, additional, Henoud, Claudine, additional, Damrauer, Scott, additional, Krol, Emilia, additional, Afifi, Rana O., additional, Cecchi, Alana C., additional, Drake, Madeline, additional, Estrera, Anthony, additional, Hebert, Avery M, additional, Milewicz, Dianna M., additional, Prakash, Siddharth K., additional, Roberts, Aaron W., additional, Sandhu, Harleen, additional, Smith-Washington, Akili, additional, Tanaka, Akiko, additional, Ahmad, Myra, additional, Albright, Catherine M., additional, Burke, Christopher R., additional, Byers, Peter H., additional, Kennedy, L'Oreal, additional, Lawrence, Sarah O., additional, Lee, Jenney R., additional, Medina, Jonathan, additional, Nishath, Thamanna, additional, Pham, Julie, additional, Segal, Courtney, additional, Shalhub, Sherene, additional, Soto, Michael, additional, Catalan, Linell, additional, Patterson, Megan, additional, and Ilonzo, Nicole, additional

Published
2022
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39. Knowledge gaps in surgical management for aortic dissection

Author

Tanaka, Akiko, primary, Hebert, Avery M., additional, Smith-Washington, Akili, additional, Hoffstaetter, Tabea, additional, Goldenberg, Richard, additional, Vemulapalli, Sreekanth, additional, del Río-Solá, Lourdes, additional, Arnaoutakis, George J., additional, Mussa, Firas, additional, Ota, Takeyoshi, additional, Case, Melanie, additional, Cotter, Novelett E., additional, David, Carmen C., additional, Fasano, Mark, additional, Howitt, Jake, additional, Söderlund, Timo T., additional, Trotter, Debra, additional, Rabin, Asaf, additional, Boehler-Tatman, Mattie, additional, Russo, Melissa L., additional, Drudi, Laura Marie, additional, Marks, Laura L., additional, Yousif, Maisoon D., additional, Taubenfeld, Ella, additional, Campos, Chrisanne S., additional, Rusche, Lindsey, additional, Pena, Robert C.F., additional, Mussa, Firas F., additional, MacCarrick, Gretchen, additional, Goldsborough, Earl, additional, Samuel, Christeen, additional, Xu, Lillian, additional, Mouawad, Nicolas J., additional, Yassa, Eanas S., additional, Teng, Xiaoyi, additional, Politano, Amani, additional, Teindl, Jesse, additional, Bloom, Lara, additional, Gluck, Rebecca, additional, O'Neal, Meredith Ford, additional, Grima, Josephine, additional, Masciale, Eileen, additional, Wright, Katelyn, additional, Hakim, Alan J., additional, Owens, Gareth, additional, Judelson, Dejah, additional, D'Oria, Mario, additional, Rio-Sola, Lurdes del, additional, Ajalat, Mark, additional, Chau, Marvin, additional, Talutis, Stephanie D., additional, Woo, Karen, additional, Wohlauer, Max V., additional, Yi, JeniannA., additional, Eagle, Kim A., additional, Bowman, Marion A. Hofmann, additional, MS, Eva Kline-Rogers, additional, Kim, Hyein, additional, Henoud, Claudine, additional, Damrauer, Scott, additional, Krol, Emilia, additional, Afifi, Rana O., additional, Cecchi, Alana C., additional, Drake, Madeline, additional, Estrera, Anthony, additional, Hebert, Avery M, additional, Milewicz, Dianna M., additional, Prakash, Siddharth K., additional, Roberts, Aaron W., additional, Sandhu, Harleen, additional, Tanaka, Akiko, additional, Watson, Jacob, additional, Ahmad, Myra, additional, Albright, Catherine M., additional, Burke, Christopher R., additional, Byers, Peter H., additional, Kennedy, L'Oreal, additional, Lawrence, Sarah O., additional, Lee, Jenney R., additional, Medina, Jonathan, additional, Nishath, Thamanna, additional, Pham, Julie, additional, Segal, Courtney, additional, Shalhub, Sherene, additional, Soto, Michael, additional, Catalan, Linell, additional, Patterson, Megan, additional, and Ilonzo, Nicole, additional

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2022
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40. A mixed method approach to understanding the impact of COVID-19 on patients with or at risk for aortic dissection

Author

Lee, Jenney R., primary, Segal, Courtney, additional, Howitt, Jake, additional, Lawrence, Sarah O., additional, Grima, Josephine, additional, Eagle, Kim, additional, Woo, Karen, additional, Byers, Peter, additional, Klein-Rogers, Eva, additional, Milewicz, Dianna, additional, Mussa, Firas, additional, Soderlund, Timo, additional, Cotter, Novelette, additional, Case, Melanie, additional, Trotter, Debra, additional, Shalhub, Sherene, additional, Cotter, Novelett E., additional, David, Carmen C., additional, Fasano, Mark, additional, Goldenberg, Richard, additional, Söderlund, Timo T., additional, Rabin, Asaf, additional, Boehler-Tatman, Mattie, additional, Russo, Melissa L., additional, Drudi, Laura Marie, additional, Marks, Laura L., additional, Yousif, Maisoon D., additional, Hoffstaetter, Tabea, additional, Taubenfeld, Ella, additional, Vemulapalli, Sreekanth, additional, Campos, Chrisanne S., additional, Rusche, Lindsey, additional, Pena, Robert C.F., additional, Mussa, Firas F., additional, MacCarrick, Gretchen, additional, Goldsborough, Earl, additional, Samuel, Christeen, additional, Xu, Lillian, additional, Mouawad, Nicolas J., additional, Yassa, Eanas S., additional, Teng, Xiaoyi, additional, Politano, Amani, additional, Teindl, Jesse, additional, Bloom, Lara, additional, Gluck, Rebecca, additional, O'Neal, Meredith Ford, additional, Masciale, Eileen, additional, Ota, Takeyoshi, additional, Wright, Katelyn, additional, Hakim, Alan J., additional, Owens, Gareth, additional, Arnaoutakis, George J., additional, Judelson, Dejah, additional, D'Oria, Mario, additional, del Rio-Sola, Lurdes, additional, Ajalat, Mark, additional, Chau, Marvin, additional, Talutis, Stephanie D., additional, Wohlauer, Max V., additional, Yi, Jeniann A., additional, Eagle, Kim A., additional, Bowman, Marion A. Hofmann, additional, Kline-Rogers, Eva, additional, Kim, Hyein, additional, Henoud, Claudine, additional, Damrauer, Scott, additional, Krol, Emilia, additional, Afifi, Rana O., additional, Cecchi, Alana C., additional, Drake, Madeline, additional, Estrera, Anthony, additional, Hebert, Avery M, additional, Milewicz, Dianna M., additional, Prakash, Siddharth K., additional, Roberts, Aaron W., additional, Sandhu, Harleen, additional, Smith-Washington, Akili, additional, Tanaka, Akiko, additional, Watson, Jacob, additional, Ahmad, Myra, additional, Albright, Catherine M., additional, Burke, Christopher R., additional, Byers, Peter H., additional, Kennedy, L'Oreal, additional, Lee, Jenney R., additional, Medina, Jonathan, additional, Nishath, Thamanna, additional, Pham, Julie, additional, Soto, Michael, additional, Catalan, Linell, additional, Patterson, Megan, additional, and Ilonzo, Nicole, additional

Published
2022
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42. Specific niche requirements underpin multidecadal range edge stability, but may introduce barriers for climate change adaptation

Author

Firth, Louise B, Harris, Daniel, Blaze, Julie A, Marzloff, Martin, Boye, Aurelien, Miller, Peter I, Curd, Amelia, Vasquez, Mickael, Dunn, Julia D, O'Connor, Nessa E, Power, Anne-marie, Mieszkowska, Nova, O’riordan, Ruth M, Burrows, Michael T, Bricheno, Lucy M, Knights, Anthony M, Nunes, Flavia, Bordeyne, François, Bush, Laura E, Byers, James E, David, Carmen, Davies, Andrew J, Dubois, Stanislas, Edwards, Hugh, Foggo, Andy, Grant, Lisa, Mattias Green, Ja, Gribben, Paul E, Lima, Fernado P, Mcgrath, David, Noel, Laure Mlj, Seabra, Rui, Simkanin, Christina, Hawkins, Stephen J, Firth, Louise B, Harris, Daniel, Blaze, Julie A, Marzloff, Martin, Boye, Aurelien, Miller, Peter I, Curd, Amelia, Vasquez, Mickael, Dunn, Julia D, O'Connor, Nessa E, Power, Anne-marie, Mieszkowska, Nova, O’riordan, Ruth M, Burrows, Michael T, Bricheno, Lucy M, Knights, Anthony M, Nunes, Flavia, Bordeyne, François, Bush, Laura E, Byers, James E, David, Carmen, Davies, Andrew J, Dubois, Stanislas, Edwards, Hugh, Foggo, Andy, Grant, Lisa, Mattias Green, Ja, Gribben, Paul E, Lima, Fernado P, Mcgrath, David, Noel, Laure Mlj, Seabra, Rui, Simkanin, Christina, and Hawkins, Stephen J

Abstract

Aim To investigate some of the environmental variables underpinning the past and present distribution of an ecosystem engineer near its poleward range edge. Location >500 locations spanning >7,400 km around Ireland. Methods We collated past and present distribution records on a known climate change indicator, the reef‐forming worm Sabellaria alveolata (Linnaeus, 1767) in a biogeographic boundary region over 182 years (1836–2018). This included repeat sampling of 60 locations in the cooler 1950s and again in the warmer 2000s and 2010s. Using species distribution modelling, we identified some of the environmental drivers that likely underpin S. alveolata distribution towards the leading edge of its biogeographical range in Ireland. Results Through plotting 981 records of presence and absence, we revealed a discontinuous distribution with discretely bounded sub‐populations, and edges that coincide with the locations of tidal fronts. Repeat surveys of 60 locations across three time periods showed evidence of population increases, declines, local extirpation and recolonization events within the range, but no evidence of extensions beyond the previously identified distribution limits, despite decades of warming. At a regional scale, populations were relatively stable through time, but local populations in the cold Irish Sea appear highly dynamic and vulnerable to local extirpation risk. Contemporary distribution data (2013–2018) computed with modelled environmental data identified specific niche requirements which can explain the many distribution gaps, namely wave height, tidal amplitude, stratification index, then substrate type. Main conclusions In the face of climate warming, such specific niche requirements can create environmental barriers that may prevent species from extending beyond their leading edges. These boundaries may limit a species’ capacity to redistribute in response to global environmental change.

Published
2021
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43. ICEFLUX allometric measurements of polar zooplankton and fish

Author

Schaafsma, Fokje L., David, Carmen L., Kohlbach, Doreen, Ehrlich, Julia, Castellani, Giulia, Lange, Benjamin A., Vortkamp, Martina, Meijboom, André, Fortuna-Wünsch, Anna, Immerz, Antonia, Cantzler, Hannelore, Klasmeier, Apasiri, Zakharova, Nadezhda, Schmidt, Katrin, Van de Putte, Anton P., van Franeker, Jan Andries, Flores, Hauke, Schaafsma, Fokje L., David, Carmen L., Kohlbach, Doreen, Ehrlich, Julia, Castellani, Giulia, Lange, Benjamin A., Vortkamp, Martina, Meijboom, André, Fortuna-Wünsch, Anna, Immerz, Antonia, Cantzler, Hannelore, Klasmeier, Apasiri, Zakharova, Nadezhda, Schmidt, Katrin, Van de Putte, Anton P., van Franeker, Jan Andries, and Flores, Hauke

Abstract

This dataset summarizes allometric measurements on zooplankton and nekton species performed in the framework of the Dutch and German ICEFLUX projects. Measurements were performed on 639 individuals of 15 species from the Southern Ocean and 2374 individuals of 14 species from the Arctic Ocean, including euphausiids, fish, pelagic and ice-associated amphipods, cnidarians, salps, siphonophores, chaetognaths and a copepod. Animals were collected during three expeditions in the Southern Ocean (winter and summer) and three expeditions in the Arctic Ocean (spring and summer). In addition to measurements on length and mass, the sizes of body parts were measured, such as carapaces, eyes, heads, telsons, tails and otoliths., This dataset summarizes allometric measurements on zooplankton and nekton species performed in the framework of the Dutch and German ICEFLUX projects. Measurements were performed on 639 individuals of 15 species from the Southern Ocean and 2374 individuals of 14 species from the Arctic Ocean, including euphausiids, fish, pelagic and ice-associated amphipods, cnidarians, salps, siphonophores, chaetognaths and a copepod. Animals were collected during three expeditions in the Southern Ocean (winter and summer) and three expeditions in the Arctic Ocean (spring and summer). In addition to measurements on length and mass, the sizes of body parts were measured, such as carapaces, eyes, heads, telsons, tails and otoliths.

Published
2021

44. Large-Scale Variability of Physical and Biological Sea-Ice Properties in Polar Oceans

Author

Castellani, Giulia, Schaafsma, Fokje L., Arndt, Stefanie, Lange, Benjamin A., Peeken, Ilka, Ehrlich, Julia, David, Carmen, Ricker, Robert, Krumpen, Thomas, Hendricks, Stefan, Schwegmann, Sandra, Massicotte, Philippe, Flores, Hauke, Castellani, Giulia, Schaafsma, Fokje L., Arndt, Stefanie, Lange, Benjamin A., Peeken, Ilka, Ehrlich, Julia, David, Carmen, Ricker, Robert, Krumpen, Thomas, Hendricks, Stefan, Schwegmann, Sandra, Massicotte, Philippe, and Flores, Hauke

Abstract

In this study, we present unique data collected with a Surface and Under-Ice Trawl (SUIT) during five campaigns between 2012 and 2017, covering the spring to summer and autumn transition in the Arctic Ocean, and the seasons of winter and summer in the Southern Ocean. The SUIT was equipped with a sensor array from which we retrieved: sea-ice thickness, the light field at the underside of sea ice, chlorophyll a concentration in the ice (in-ice chl a), and the salinity, temperature, and chl a concentration of the under-ice water. With an average trawl distance of about 2 km, and a global transect length of more than 117 km in both polar regions, the present work represents the first multi-seasonal habitat characterization based on kilometer-scale profiles. The present data highlight regional and seasonal patterns in sea-ice properties in the Polar Ocean. Light transmittance through Arctic sea ice reached almost 100 in summer, when the ice was thinner and melt ponds spread over the ice surface. However, the daily integrated amount of light under sea ice was maximum in spring. Compared to the Arctic, Antarctic sea-ice was thinner, snow depth was thicker, and sea-ice properties were more uniform between seasons. Light transmittance was low in winter with maximum transmittance of 73. Despite thicker snow depth, the overall under-ice light was considerably higher during Antarctic summer than during Arctic summer. Spatial autocorrelation analysis shows that Arctic sea ice was characterized by larger floes compared to the Antarctic. In both Polar regions, the patch size of the transmittance followed the spatial variability of sea-ice thickness. In-ice chl a in the Arctic Ocean remained below 0.39 mg chl a m�2, whereas it exceeded 7 mg chl a m�2 during Antarctic winter, when water chl a concentrations remained below 1.5 mg chl a m�2, thus highlighting its potential as an important carbon source for overwintering organisms. The data analyz

Published
2020

45. Large-Scale Variability of Physical and Biological Sea-Ice Properties in Polar Oceans

Author

Castellani, Giulia, primary, Schaafsma, Fokje L., additional, Arndt, Stefanie, additional, Lange, Benjamin A., additional, Peeken, Ilka, additional, Ehrlich, Julia, additional, David, Carmen, additional, Ricker, Robert, additional, Krumpen, Thomas, additional, Hendricks, Stefan, additional, Schwegmann, Sandra, additional, Massicotte, Philippe, additional, and Flores, Hauke, additional

Published
2020
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46. Sea ice draft, under-ice irradiance and radiance, and surface water temperature, salinity and chlorophyl a from Surface and Under Ice Trawl (SUIT) measurements in 2012-2017

Author

Castellani, Giulia, Flores, Hauke, Lange, Benjamin A., Schaafsma, Fokje, Ehrlich, Julia, David, Carmen L., van Franeker, Jan Andries, Meijboom, Andre, van Dorssen, Michiel, Vortkamp, Martina, van de Putte, Anton, Castellani, Giulia, Flores, Hauke, Lange, Benjamin A., Schaafsma, Fokje, Ehrlich, Julia, David, Carmen L., van Franeker, Jan Andries, Meijboom, Andre, van Dorssen, Michiel, Vortkamp, Martina, and van de Putte, Anton

Abstract

Surface and Under Ice Trawl (SUIT) deployments have been carried out during five expeditions (PS80, PS81, PS89, PS92, PS106) on board of the RV Polarstern in both the Arctic and Antarctic between 2012 and 2017. The SUIT is equipped with a CTD probe (Sea and Sun Technology CTD75M memory probe) to measure surface water temperature and salinity at a sampling interval of 0.1s, later interpolated to a 0.5m grid. A fluorometer integrated in the CTD allows surface chl a measurements and an altimeter allows to measure the distance of the SUIT from the ice underside. An Acoustic Doppler Current Profiler (ADCP; Nortek Aquadopp Profiler) with three acoustic beams is used to measure water inflow speed and direction, pitch and roll angles, and pressure. Information on pressure, distance from the ice above, and pitch and roll have been combined to obtain sea-ice draft on a 0.5m grid. Hyperspectral measurements have been performed with Ramses spectral radiometers (Trios, Rastede, Germany), then integrated over the PAR range. Positions are obtained from the ship GPS and used to retrieve speed and length of trawling.

Published
2019

47. Ice-fuelled food webs in the Polar Oceans

Author

Flores, Hauke, Graeve, Martin, David, Carmen, Lange, Benjamin, Ehrlich, Julia, Hardge, Kristin, Peeken, Ilka, Lebreton, Benoit, Niehoff, Barbara, Krumpen, Thomas, Rabe, Benjamin, Kunz, Kristina, van Franeker, Jan Andries, Metfies, Katja, and Brandt, Angelika

Abstract

The Arctic Ocean is undergoing substantial warming and sea ice loss which are likely to cause changes in primary production, export fluxes and productivity of the Arctic marine ecosystems. Yet, we lack sufficient information about the ecosystem productivity, organic carbon cycling and cryo-pelago-benthic coupling processes in the Arctic Ocean. Particularly such information is scarce for deep Arctic basins and the spring to summer transition time. Our aim was to provide carbon budget estimations under different regimes and bloom development stages in the region north of Svalbard. We conducted ecological and biogeochemical early spring process studies in sea ice covered areas, from the shelf to the basins of the European Arctic margin and on the Yermak Plateau during the TRANSSIZ cruise PS 92 on the ice breaker R/V Polarstern in May/June 2015. We identified the potential characteristics of carbon production of primary producers in the sea ice and water column, and secondary production of zooplankton and benthos. We looked into the organic carbon production fate and export, including respiration and burial, as well as identified similarities and differences in ecosystem functioning along topography- , sea ice- and water mass-related gradients. This scientific initiative was undertaken by Arctic in Rapid Transition (ART) International Arctic Science Committee (IASC) network .

Published
2018

50. Dependency of Antarctic zooplankton species on ice algae-produced carbon suggests a sea ice-driven pelagic ecosystem during winter

Author

Kohlbach, Doreen, Graeve, Martin, Lange, Benjamin A., David, Carmen, Schaafsma, Fokje L., Franeker, Jan Andries, van, Vortkamp, Martina, Brandt, Angelika, Flores, Hauke, Kohlbach, Doreen, Graeve, Martin, Lange, Benjamin A., David, Carmen, Schaafsma, Fokje L., Franeker, Jan Andries, van, Vortkamp, Martina, Brandt, Angelika, and Flores, Hauke

Abstract

How the abundant pelagic life of the Southern Ocean survives winter darkness, when the sea is covered by pack ice and phytoplankton production is nearly zero, is poorly understood. Ice-associated (“sympagic”) microalgae could serve as a high-quality carbon source during winter, but their significance in the food web is so far unquantified. To better understand the importance of ice algae-produced carbon for the overwintering of Antarctic organisms, we investigated fatty acid (FA) and stable isotope compositions of 10 zooplankton species, and their potential sympagic and pelagic carbon sources. FA-specific carbon stable isotope compositions were used in stable isotope mixing models to quantify the contribution of ice algae-produced carbon (αIce) to the body carbon of each species. Mean αIce estimates ranged from 4% to 67%, with large variations between species and depending on the FA used for the modelling. Integrating the αIce estimates from all models, the sympagic amphipod Eusirus laticarpus was the most dependent on ice algal carbon (αIce: 54%–67%), and the salp Salpa thompsoni showed the least dependency on ice algal carbon (αIce: 8%–40%). Differences in αIceestimates between FAs associated with short-term vs. long-term lipid pools suggested an increasing importance of ice algal carbon for many species as the winter season progressed. In the abundant winter-active copepod Calanus propinquus, mean αIce reached more than 50% in late winter. The trophic carbon flux from ice algae into this copepod was between 3 and 5 mg C m−2 day−1. This indicates that copepods and other ice-dependent zooplankton species transfer significant amounts of carbon from ice algae into the pelagic system, where it fuels the food web, the biological carbon pump and elemental cycling. Understanding the role of ice algae-produced carbon in these processes will be the key to predictions of th

Published
2018

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