TY - GEN A1 - Hall, Braeden A1 - Schmidt, Kathleen A1 - Wagge, Jordan A1 - Lewis, Savannah C. A1 - Weissgerber, Sophia C. A1 - Kiunke, Felix A1 - Pfuhl, Gerit A1 - Stieger, Stefan A1 - Tran, Ulrich S. A1 - Barzykowski, Krystian A1 - Bogatyreva, Natalia A1 - Kowal, Marta A1 - Massar, KarlIJn A1 - Pernerstofer, Felizitas A1 - Sorokowski, Piotr A1 - Voracek, Martin A1 - Chartier, Christopher R. A1 - Brandt, Mark J. A1 - Grahe, Jon E. A1 - Özdoğru, Asil A. A1 - Andreychik, Michael R. A1 - Chen, Sau-Chin A1 - Evans, Thomas R. A1 - Hautekiet, Caro A1 - IJzerman, Hans A1 - Kačmár, Pavol A1 - Krafnick, Anthony J. A1 - Musser, Erica D. A1 - Vergauwe, Evie A1 - Werner, Kaitlyn M. A1 - Aczel, Balazs A1 - Arriaga, Patrícia A1 - Batres, Carlota A1 - Beaudry, Jennifer L. A1 - Cova, Florian A1 - Ďurbisová, Simona A1 - Cramblet Alvarez, Leslie D. A1 - Feldman, Gilad A1 - Godbersen, Hendrik A1 - Gottfried, Jaroslav A1 - Haeffel, Gerald J. A1 - Hartanto, Andree A1 - Isloi, Chris A1 - McFall, Joseph P. A1 - Milyavskaya, Marina A1 - Moreau, David A1 - Nosáľová, Ester A1 - Papaioannou, Kostas A1 - Ruiz-Fernandez, Susana A1 - Schrötter, Jana A1 - Storage, Daniel A1 - Vezirian, Kevin A1 - Volz, Leonhard A1 - Weisberg, Yanna J. A1 - Xiao, Qinyu A1 - Awlia, Dana A1 - Branit, Hannah W. A1 - Dunn, Megan R. A1 - Groyecka-Bernard, Agata A1 - Haneda, Ricky A1 - Kielinska, Julita A1 - Kolle, Caroline A1 - Lubomski, Paweł A1 - Miller, Alexys M. A1 - Mækelæ, Martin J. A1 - Pantazi, Mytro A1 - Ribeiro, Rafael R. A1 - Ross, Robert M. A1 - Sorokowska, Agnieszka A1 - Aberson, Christopher L. A1 - Vassiliou, Xanthippi Alexi A1 - Baker, Bradley J. A1 - Bognar, Miklos A1 - Cong, Chin Wen A1 - Danvers, Alex F. A1 - Davis, William E. A1 - Dranseika, Vilius A1 - Dumbravă, Andrei A1 - Farmer, Harry A1 - Field, Andy P. A1 - Forscher, Patrick S. A1 - Graton, Aurélien A1 - Hajdu, Nandor A1 - Howlett, Peter A. A1 - Kabut, Radosław A1 - Larsen, Emmett M. A1 - Lee, Sean T. H. A1 - Legate, Nicole A1 - Levitan, Carmel A. A1 - Levy, Neil A1 - Lu, Jackson G. A1 - Misiak, Michał A1 - Morariu, Roxana E. A1 - Novak, Jennifer A1 - Pronizius, Ekaterina A1 - Prusova, Irina A1 - Rathnayake, Athulya S. A1 - Romanova, Marina O. A1 - Röer, Jan P. A1 - Sampaio, Waldir M. A1 - Schild, Christoph A1 - Schulte-Mecklenbeck, Michael A1 - Stephen, Ian D. A1 - Szecsi, Peter A1 - Takacs, Elizabeth A1 - Teeter, Julia N. A1 - Thiele-Evans, Elian H. A1 - Valeiro-Paterlini, Julia A1 - Vilares, Iris A1 - Villafana, Louise A1 - Wang, Ke A1 - Wu, Raymond A1 - Álvarez-Solas, Sara A1 - Moshontz, Hannah A1 - Buchanan, Erin M. T1 - Registered Replication Report: A Large Multilab Cross-Cultural Conceptual Replication of Turri et al. (2015) T2 - Advances in Methods and Practices in Psychological Science Y1 - 2024 U6 - https://doi.org/10.1177/25152459241267902 SN - 2515-2459 VL - 7 IS - 4 SP - 1 EP - 38 PB - SAGE Publications ER - TY - GEN A1 - Shipley, J. Ryan A1 - Oester, Rebecca A1 - Mathieu-Resuge, Margaux A1 - Parmar, Tarn Preet A1 - Kowarik, Carmen A1 - Ilíć, Maja A1 - Kainz, Martin J. A1 - Martin-Creuzburg, Dominik A1 - Obrist, Martin K. A1 - Graham, Catherine H. A1 - Gossner, Martin M. A1 - Matthews, Blake A1 - Twining, Cornelia W. T1 - Consumer biodiversity increases organic nutrient availability across aquatic and terrestrial ecosystems T2 - Science N2 - Human land-use intensification threatens arthropod (for example, insect and spider) biodiversity across aquatic and terrestrial ecosystems. Insects and spiders play critical roles in ecosystems by accumulating and synthesizing organic nutrients such as polyunsaturated fatty acids (PUFAs). However, links between biodiversity and nutrient content of insect and spider communities have yet to be quantified. We relate insect and spider richness to biomass and PUFA-mass from stream and terrestrial communities encompassing nine land uses. PUFA-mass and biomass relate positively to biodiversity across ecosystems. In terrestrial systems, human-dominated areas have lower biomass and PUFA-mass than more natural areas, even at equivalent levels of richness. Aquatic ecosystems have consistently higher PUFA-mass than terrestrial ecosystems. Our findings reinforce the importance of conserving biodiversity and highlight the distinctive benefits of aquatic biodiversity. KW - land-use KW - predator richness KW - polyunsaturated fatty acid Y1 - 2024 U6 - https://doi.org/10.1126/science.adp6198 SN - 0036-8075 VL - 386 IS - 6719 SP - 335 EP - 340 PB - American Association for the Advancement of Science (AAAS) ER - TY - GEN A1 - Veldkamp, Edzo A1 - Schmidt, Marcus A1 - Markwitz, Christian A1 - Beule, Lukas A1 - Beuschel, René A1 - Biertümpfel, Andrea A1 - Bischel, Xenia A1 - Duan, Xiaohong A1 - Gerjets, Rowena A1 - Göbel, Leonie A1 - Graß, Rüdiger A1 - Guerra, Victor A1 - Heinlein, Florian A1 - Komainda, Martin A1 - Langhof, Maren A1 - Luo, Jie A1 - Potthoff, Martin A1 - Ramshorst, Justus G. V. van A1 - Rudolf, Carolin A1 - Seserman, Diana-Maria A1 - Shao, Guodong A1 - Siebicke, Lukas A1 - Svoboda, Nikolai A1 - Swieter, Anita A1 - Carminati, Andrea A1 - Freese, Dirk A1 - Graf, Torsten A1 - Greef, Jörg M. A1 - Isselstein, Johannes A1 - Jansen, Martin A1 - Karlovsky, Petr A1 - Knohl, Alexander A1 - Lamersdorf, Norbert A1 - Priesack, Eckart A1 - Wachendorf, Christine A1 - Wachendorf, Michael A1 - Corre, Marife D. T1 - Multifunctionality of temperate alley-cropping agroforestry outperforms open cropland and grassland T2 - Communications Earth & Environment N2 - AbstractIntensively managed open croplands are highly productive but often have deleterious environmental impacts. Temperate agroforestry potentially improves ecosystem functions, although comprehensive analysis is lacking. Here, we measured primary data on 47 indicators of seven ecosystem functions in croplands and 16 indicators of four ecosystem functions in grasslands to assess how alley-cropping agroforestry performs compared to open cropland and grassland. Carbon sequestration, habitat for soil biological activity, and wind erosion resistance improved for cropland agroforestry (P ≤ 0.03) whereas only carbon sequestration improved for grassland agroforestry (P < 0.01). In cropland agroforestry, soil nutrient cycling, soil greenhouse gas abatement, and water regulation did not improve, due to customary high fertilization rates. Alley-cropping agroforestry increased multifunctionality, compared to open croplands. To ameliorate the environmental benefits of agroforestry, more efficient use of nutrients is required. Financial incentives should focus on conversion of open croplands to alley-cropping agroforestry and incorporate fertilizer management. Y1 - 2023 U6 - https://doi.org/10.1038/s43247-023-00680-1 SN - 2662-4435 VL - 4 IS - 1 PB - Springer Science and Business Media LLC ER - TY - GEN A1 - Pfetsch, Marc E. A1 - Fügenschuh, Armin A1 - Geißler, Björn A1 - Geißler, Nina A1 - Gollmer, Ralf A1 - Hiller, Benjamin A1 - Humpola, Jesco A1 - Koch, Thorsten A1 - Lehmann, Thomas A1 - Martin, Alexander A1 - Morsi, Antonio A1 - Rövekamp, Jessica A1 - Schewe, Lars A1 - Schmidt, Martin A1 - Schultz, Rüdiger A1 - Schwarz, Robert A1 - Schweiger, Jonas A1 - Stangl, Claudia A1 - Steinbach, Marc C. A1 - Vigerske, Stefan A1 - Willert, Bernhard M. T1 - Validation of Nominations in Gas Network Optimization: Models, Methods, and Solutions T2 - Optimization Methods and Software Y1 - 2015 U6 - https://doi.org/10.1080/10556788.2014.888426 SN - 1055-6788 SN - 1029-4937 VL - 30 IS - 1 SP - 15 EP - 53 ER - TY - GEN A1 - Fügenschuh, Armin A1 - Geißler, Björn A1 - Gollmer, Ralf A1 - Hayn, Christine A1 - Henrion, René A1 - Hiller, Benjamin A1 - Humpola, Jesco A1 - Koch, Thorsten A1 - Lehmann, Thomas A1 - Martin, Alexander A1 - Mirkov, Radoslava A1 - Morsi, Antonio A1 - Rövekamp, Jessica A1 - Schewe, Lars A1 - Schmidt, Martin A1 - Schultz, Rüdiger A1 - Schwarz, Robert A1 - Schweiger, Jonas A1 - Stangl, Claudia A1 - Steinbach, Marc C. A1 - Willert, Bernhard M. T1 - Mathematical Optimization for Challenging Network Planning Problems in Un- bundled Liberalized Gas Markets T2 - Energy Systems Y1 - 2014 U6 - https://doi.org/10.1007/s12667-013-0099-8 SN - 1868-3975 SN - 1868-3967 VL - 5 IS - 3 SP - 449 EP - 473 ER - TY - GEN A1 - Eisenhauer, Nico A1 - Frank, Karin A1 - Weigelt, Alexandra A1 - Bartkowski, Bartosz A1 - Beugnon, Rémy A1 - Liebal, Katja A1 - Mahecha, Miguel A1 - Quaas, Martin A1 - Al‐Halbouni, Djamil A1 - Bastos, Ana A1 - Bohn, Friedrich J. A1 - Brito, Mariana Madruga de A1 - Denzler, Joachim A1 - Feilhauer, Hannes A1 - Fischer, Rico A1 - Fritsche, Immo A1 - Guimaraes‐Steinicke, Claudia A1 - Hänsel, Martin A1 - Haun, Daniel B. M. A1 - Herrmann, Hartmut A1 - Huth, Andreas A1 - Kalesse‐Los, Heike A1 - Koetter, Michael A1 - Kolleck, Nina A1 - Krause, Melanie A1 - Kretschmer, Marlene A1 - Leitão, Pedro J. A1 - Masson, Torsten A1 - Mora, Karin A1 - Müller, Birgit A1 - Peng, Jian A1 - Pöhlker, Mira L. A1 - Ratzke, Leonie A1 - Reichstein, Markus A1 - Richter, Solveig A1 - Rüger, Nadja A1 - Sánchez‐Parra, Beatriz A1 - Shadaydeh, Maha A1 - Sippel, Sebastian A1 - Tegen, Ina A1 - Thrän, Daniela A1 - Umlauft, Josefine A1 - Wendisch, Manfred A1 - Wolf, Kevin A1 - Wirth, Christian A1 - Zacher, Hannes A1 - Zaehle, Sönke A1 - Quaas, Johannes T1 - A belowground perspective on the nexus between biodiversity change, climate change, and human well‐being T2 - Journal of Sustainable Agriculture and Environment N2 - Soil is central to the complex interplay among biodiversity, climate, and society. This paper examines the interconnectedness of soil biodiversity, climate change, and societal impacts, emphasizing the urgent need for integrated solutions. Human‐induced biodiversity loss and climate change intensify environmental degradation, threatening human well‐being. Soils, rich in biodiversity and vital for ecosystem function regulation, are highly vulnerable to these pressures, affecting nutrient cycling, soil fertility, and resilience. Soil also crucially regulates climate, influencing energy, water cycles, and carbon storage. Yet, climate change poses significant challenges to soil health and carbon dynamics, amplifying global warming. Integrated approaches are essential, including sustainable land management, policy interventions, technological innovations, and societal engagement. Practices like agroforestry and organic farming improve soil health and mitigate climate impacts. Effective policies and governance are crucial for promoting sustainable practices and soil conservation. Recent technologies aid in monitoring soil biodiversity and implementing sustainable land management. Societal engagement, through education and collective action, is vital for environmental stewardship. By prioritizing interdisciplinary research and addressing key frontiers, scientists can advance understanding of the soil biodiversity–climate change–society nexus, informing strategies for environmental sustainability and social equity. Y1 - 2024 U6 - https://doi.org/10.1002/sae2.12108 SN - 2767-035X VL - 3 IS - 2 PB - Wiley ER - TY - GEN A1 - Jinks, Clare A1 - Botto-van Bemden, Angie A1 - Bunzli, Samantha A1 - Bowden, Jocelyn A1 - Egerton, Thorlene A1 - Eyles, Jillian A1 - Foster, Nadine A1 - Healey, Emma L. A1 - Maddison, John A1 - O’Brien, Daniel A1 - Quicke, Jonathan G. A1 - Schiphof, Dieuwke A1 - Parry, Emma A1 - Thomas, Martin J. A1 - Holden, Melanie A. A1 - Allen, Kelli A1 - Babatunde, Opeyemi O. A1 - Bennel, Kim L. A1 - Berry, Alice A1 - Bierma-Zeinstra, Sita A1 - Callahan, Leigh A1 - Campbell, Laura A1 - Dziedzic, Krysia S. A1 - Finney, Andrew A1 - French, Helen P. A1 - Haber, Travis A1 - Hadley-Barrows, Tina A1 - Hall, Michelle A1 - Hawker, Gillian A1 - Henriksen, Marius A1 - Hinman, Rana S. A1 - Ho-Pham, Lan A1 - Hunter, David J. A1 - Lawford, Belinda J. A1 - Mallen, Christian D. A1 - McHugh, Gretl A. A1 - Kopkow, Christian A1 - Neogi, Tuhina A1 - Nicholls, Elaine A1 - Nicolson, Philippa J. A. A1 - Østerås, Nina A1 - Paskins, Zoe A1 - Protheroe, Joanne A1 - Roos, Ewa M. A1 - Runhaar, Jos A1 - Skou, Soren T. A1 - Simkins, Joanna A1 - Swaithes, Laura A1 - Thomas, Geraint A1 - Esch, Martin van der A1 - Whittaker, Jackie A1 - Zhang, Weiya T1 - Changing the narrative on osteoarthritis: A call for global action T2 - Osteoarthritis and Cartilage Y1 - 2024 U6 - https://doi.org/10.1016/j.joca.2024.02.004 SN - 1063-4584 VL - 32 IS - 4 SP - 414 EP - 420 ER - TY - GEN A1 - Twining, Cornelia W. A1 - Blanco, Andreu A1 - Dutton, Christopher A1 - Kainz, Martin J. A1 - Harvey, Eric A1 - Kowarik, Carmen A1 - Kraus, Johanna M. A1 - Razavi, N. Roxanna A1 - Martin-Creuzburg, Dominik A1 - Parmar, Tarn Preet A1 - Richoux, Nicole A1 - Saboret, Gregoire A1 - Sarran, Charlie A1 - Schmidt, Travis S. A1 - Shipley, J. Ryan A1 - Subalusky, Amanda L. T1 - Integrating the bright and dark sides of aquatic resource subsidies—a synthesis T2 - Ecology letters N2 - Aquatic and terrestrial ecosystems are linked through the reciprocal exchange of materials and organisms. Aquatic-to-terrestrial subsidies are relatively small in most terrestrial ecosystems, but they can provide high contents of limiting resources that increase consumer fitness and ecosystem production. However, they also may carry significant contaminant loads, particularly in anthropogenically impacted watersheds. Global change processes, including land use change, climate change and biodiversity declines, are altering the quantity and quality of aquatic subsidies, potentially shifting the balance of costs and benefits of aquatic subsidies for terrestrial consumers. Many global change processes interact and impact both the bright and dark sides of aquatic subsidies simultaneously, highlighting the need for future integrative research that bridges ecosystem as well as disciplinary boundaries. We identify key research priorities, including increased quantification of the spatiotemporal variability in aquatic subsidies across a range of ecosystems, greater understanding of the landscape-scale extent of aquatic subsidy impacts and deeper exploration of the relative costs and benefits of aquatic subsidies for consumers. KW - Aquatic subsidy KW - Biodiversity KW - Climate change KW - Contaminants KW - Land use change KW - Nutrients KW - Resource subsidie Y1 - 2025 UR - https://onlinelibrary.wiley.com/doi/10.1111/ele.70109 U6 - https://doi.org/10.1111/ele.70109 SN - 1461-0248 SN - 1461-023X VL - 28 IS - 4 SP - 1 EP - 20 PB - Wiley ER - TY - GEN A1 - Gossner, Martin M. A1 - Lewinsohn, Thomas M. A1 - Kahl, Tiemo A1 - Grasstein, Fabrice A1 - Boch, Steffen A1 - Prati, Daniel A1 - Birkhofer, Klaus A1 - Renner, Swen C. A1 - Sikorski, Johannes A1 - Wubet, Tesfaye T1 - Land-use intensification causes homogenization of grassland communities across trophic levels T2 - Nature N2 - Land-use intensification is a major driver of biodiversity loss. Alongside reductions in local species diversity, biotic homogenization at larger spatial scales is of great concern for conservation. Biotic homogenization means a decrease in β-diversity (the compositional dissimilarity between sites). Most studies have investigated losses in local (α)-diversity and neglected biodiversity loss at larger spatial scales. Studies addressing β-diversity have focused on single or a few organism groups (for example, ref. 4), and it is thus unknown whether land-use intensification homogenizes communities at different trophic levels, above- and belowground. Here we show that even moderate increases in local land-use intensity (LUI) cause biotic homogenization across microbial, plant and animal groups, both above- and belowground, and that this is largely independent of changes in α-diversity. We analysed a unique grassland biodiversity dataset, with abundances of more than 4,000 species belonging to 12 trophic groups. LUI, and, in particular, high mowing intensity, had consistent effects on β-diversity across groups, causing a homogenization of soil microbial, fungal pathogen, plant and arthropod communities. These effects were nonlinear and the strongest declines in β-diversity occurred in the transition from extensively managed to intermediate intensity grassland. LUI tended to reduce local α-diversity in aboveground groups, whereas the α-diversity increased in belowground groups. Correlations between the β-diversity of different groups, particularly between plants and their consumers, became weaker at high LUI. This suggests a loss of specialist species and is further evidence for biotic homogenization. The consistently negative effects of LUI on landscape-scale biodiversity underscore the high value of extensively managed grasslands for conserving multitrophic biodiversity and ecosystem service provision. Indeed, biotic homogenization rather than local diversity loss could prove to be the most substantial consequence of land-use intensification. Y1 - 2016 U6 - https://doi.org/10.1038/nature20575 SN - 1476-4687 SN - 0028-0836 VL - 540 IS - 7632 SP - 266 EP - 269 ER - TY - GEN A1 - Schulz, Christian M. A1 - Skrzypczak, M. A1 - Schneider, Erich A1 - Hapfelmeier, Alexander A1 - Martin, J. A1 - Kochs, Eberhard F. A1 - Schneider, G. T1 - Assessment of subjective workload in an anaesthesia simulator environment: reliability and validity T2 - European Journal of Anaesthesiology Y1 - 2011 SN - 0265-0215 VL - 28 IS - 7 SP - 502 EP - 505 ER -