Offenbächer, M.; Dezutter, J.; Kohls, Niko; Sigl, C.; Vallejo, M.; Rivera, J.; Weber, Annemarie; Schelling, J.; Vincent, A.; Hirsch, J. K.; Sirois, F.; Poggenburg, S.; Toussaint, L. (2016)
Offenbächer, M.; Dezutter, J.; Kohls, Niko; Sigl, C.; Vallejo, M.; Rivera, J....
8th European Conference on Positive Psychology, Angers, Frankreich,28.6.-1.7.2016, DOI: 10.13140/RG.2.1.2414.4246.
DOI: https://doi.org.10.13140/RG.2.1.2414.4246
Toussaint, L.; Offenbächer, M.; Dezutter, J.; Kohls, Niko; Sigl, C.; Vallejo, M.; Weber, Annemarie; Schelling, J.; Vincent, A.; Hirsch, J. K.; Poggenburg, S.; Sirois, F. (2016)
Toussaint, L.; Offenbächer, M.; Dezutter, J.; Kohls, Niko; Sigl, C.; Vallejo, M....
Deutschen Kongress für Forschung in der Positiven Psychologie in Trier, 19.-21. Mai 2016.
Offenbächer, M.; Toussaint, L.; Dezutter, J.; Kohls, Niko; Sigl, C.; Vallejo, M.; Rivera, J.; Weber, Annemarie; Schelling, J.; Vincent, A.; Hirsch, J. K.; Poggenburg, S.; Sirois, F. (2016)
Offenbächer, M.; Toussaint, L.; Dezutter, J.; Kohls, Niko; Sigl, C.; Vallejo, M....
Conference: 1. Deutschen Kongress für Forschung in der Positiven Psychologie in Trier, 19.-21. Mai 2016.
Offenbächer, M.; Dezutter, J.; Kohls, Niko; Sigl, C.; Vallejo, M.; Rivera, J.; Weber, Annemarie; Schelling, J.; Vincent, A.; Hirsch, J. K.; Sirois, F.; Poggenburg, S.; Toussaint, L. (2016)
Offenbächer, M.; Dezutter, J.; Kohls, Niko; Sigl, C.; Vallejo, M.; Rivera, J....
1. Deutschen Kongress für Forschung in der Positiven Psychologie in Trier, 19.-21. Mai 2016.
Schuster, Judith ; Funke, Susanne A. (2016)
J Alzheimers Dis 53, 53-67.
DOI: 10.3233/JAD-151029
Schötz, E.; Otten, S.; Wittmann, M.; Schmidt, Sabine; Kohls, Niko; Meißner, Karin (2016)
Personality and Individual Differences 2016 / 93, 16–21.
DOI: 10.1016/j.paid.2015.10.023
Jonason, P.; Kohls, Niko; Nadler, R.; Yoshinori, S. (2016)
Personality and Individual Differences, Volume 93, Pages 1-142 93, 1-142.
Schaub, Michael; Kriegel, Martin (2016)
TGA-Kongress, 14.-15.04.2016 in Berlin.
DOI: 10.13140/RG.2.2.10099.81440
Lohrenscheit , Claudia (2016)
Schnuppervorlesungen im Rahmen der Schnuppertage an der Hochschule Coburg .
Heinrich, Michael (2016)
The International Journal of Visual Design, The Design Collection, CG Publisher.
Armon, E.; Kohls, Niko; Giordano, J. (2016)
European Journal of Integrative Medicine, 8(2), 137-140., 137-140.
Klein, Antonia Nicole ; Ziehm , Tamar ; Tusche, Markus; Buitenhuis , Johan ; Bartnik , Dirk ; Boeddrich , Annett ; Wiglenda , Thomas; Wanker , Erich ; Funke, Susanne A.; Brener, Oleksandr; Gremer, Lothar; Kutzsche, Janine; Willbold, Dieter (2016)
Klein, Antonia Nicole ; Ziehm , Tamar ; Tusche, Markus; Buitenhuis , Johan ...
Plos One .
DOI: 10.1371/journal.pone.0153035
Fragkostefanakis, Sotirios; Mesihovic, Anida; Simm, Stefan; Paupière, Marine; Hu, Yangjie; Paul, Puneet; Mishra, Shravan; Tschiersch, Bettina; Theres, Klaus; Bovy, Arnaud; Schleiff, Enrico; Scharf, Klaus-Dieter (2016)
Fragkostefanakis, Sotirios; Mesihovic, Anida; Simm, Stefan; Paupière, Marine...
Plant Physiology 170 (4), 2461–2477.
DOI: 10.1104/pp.15.01913
Male reproductive tissues are more sensitive to heat stress (HS) compared to vegetative tissues, but the basis of this phenomenon is poorly understood. Heat stress transcription factors (Hsfs) regulate the transcriptional changes required for protection from HS In tomato (Solanum lycopersicum), HsfA2 acts as coactivator of HsfA1a and is one of the major Hsfs accumulating in response to elevated temperatures. The contribution of HsfA2 in heat stress response (HSR) and thermotolerance was investigated in different tissues of transgenic tomato plants with suppressed HsfA2 levels (A2AS). Global transcriptome analysis and immunodetection of two major Hsps in vegetative and reproductive tissues showed that HsfA2 regulates subsets of HS-induced genes in a tissue-specific manner. Accumulation of HsfA2 by a moderate HS treatment enhances the capacity of seedlings to cope with a subsequent severe HS, suggesting an important role for HsfA2 in regulating acquired thermotolerance. In pollen, HsfA2 is an important coactivator of HsfA1a during HSR HsfA2 suppression reduces the viability and germination rate of pollen that received the stress during the stages of meiosis and microspore formation but had no effect on more advanced stages. In general, pollen meiocytes and microspores are characterized by increased susceptibility to HS due to their lower capacity to induce a strong HSR This sensitivity is partially mitigated by the developmentally regulated expression of HsfA2 and several HS-responsive genes mediated by HsfA1a under nonstress conditions. Thereby, HsfA2 is an important factor for the priming process that sustains pollen thermotolerance during microsporogenesis.
Funke, Susanne A.; Willbold, Dieter (2016)
Alzheimer's diagnosis, 1-24.
DOI: 10.3233/JAD-151029
Kohls, Niko (2016)
In L. Hofmann & P. Heise (Eds.), Spiritualität und spirituelle Krisen: Handbuch zu Theorie, Forschung und Praxis (pp. 3-12). Stuttgart: Schattauer., 3-12.
Rudolph, Stephan; Klein, Antonia Nicole ; Tusche, Markus; Schlosser, Christine ; Elfgen , Anne; Brener, Oleksandr; Teunisssen , Charlotte; Gremer, Lothar; Funke, Susanne A.; Kutzsche, Janine; Willbold, Dieter (2016)
Rudolph, Stephan; Klein, Antonia Nicole ; Tusche, Markus; Schlosser, Christine ...
PLOS ONE 11, 2.
DOI: 10.1371/journal.pone.0147470
Schubert, Theresa; Markert, Michael; Dreßler, Moritz; Adamatzky, Adam (2016)
Advances in Physarum Machines. Sensing and Computing with Slime Mould. 2016, 801-811.
DOI: 10.1007/978-3-319-26662-6_37
Busch-Geertsema, Annika; Lanzendorf, Martin; Müggenburg, Hannah; Wilde, Mathias (2016)
Handbuch Verkehrspolitik, 755-779.
DOI: 10.1007/978-3-658-04693-4_33
Simm, Stefan; Scharf, Klaus-Dieter; Jegadeesan, Sridharan; Chiusano, Maria; Firon, Nurit; Schleiff, Enrico (2016)
Simm, Stefan; Scharf, Klaus-Dieter; Jegadeesan, Sridharan; Chiusano, Maria...
Bioinformatics and Biology Insights 10, 185–207.
DOI: 10.4137/BBI.S38425
Phytohormones control the development and growth of plants, as well as their response to biotic and abiotic stress. The seven most well-studied phytohormone classes defined today are as follows: auxins, ethylene, cytokinin, abscisic acid, jasmonic acid, gibberellins, and brassinosteroids. The basic principle of hormone regulation is conserved in all plants, but recent results suggest adaptations of synthesis, transport, or signaling pathways to the architecture and growth environment of different plant species. Thus, we aimed to define the extent to which information from the model plant Arabidopsis thaliana is transferable to other plants such as Solanum lycopersicum. We extracted the co-orthologues of genes coding for major pathway enzymes in A. thaliana from the translated genomes of 12 species from the clade Viridiplantae. Based on predicted domain architecture and localization of the identified proteins from all 13 species, we inspected the conservation of phytohormone pathways. The comparison was complemented by expression analysis of (co-) orthologous genes in S. lycopersicum. Altogether, this information allowed the assignment of putative functional equivalents between A. thaliana and S. lycopersicum but also pointed to some variations between the pathways in eudicots, monocots, mosses, and green algae. These results provide first insights into the conservation of the various phytohormone pathways between the model system A. thaliana and crop plants such as tomato. We conclude that orthologue prediction in combination with analysis of functional domain architecture and intracellular localization and expression studies are sufficient tools to transfer information from model plants to other plant species. Our results support the notion that hormone synthesis, transport, and response for most part of the pathways are conserved, and species-specific variations can be found.
Palm, Denise; Simm, Stefan; Darm, Katrin; Weis, Benjamin; Ruprecht, Maike; Schleiff, Enrico; Scharf, Christian (2016)
Palm, Denise; Simm, Stefan; Darm, Katrin; Weis, Benjamin; Ruprecht, Maike...
RNA biology 13 (4), 441–454.
DOI: 10.1080/15476286.2016.1154252
Ribosome biogenesis is an essential process initiated in the nucleolus. In eukaryotes, multiple ribosome biogenesis factors (RBFs) can be found in the nucleolus, the nucleus and in the cytoplasm. They act in processing, folding and modification of the pre-ribosomal (r)RNAs, incorporation of ribosomal proteins (RPs), export of pre-ribosomal particles to the cytoplasm, and quality control mechanisms. Ribosome biogenesis is best established for Saccharomyces cerevisiae. Plant ortholog assignment to yeast RBFs revealed the absence of about 30% of the yeast RBFs in plants. In turn, few plant specific proteins have been identified by biochemical experiments to act in plant ribosome biogenesis. Nevertheless, a complete inventory of plant RBFs has not been established yet. We analyzed the proteome of the nucleus and nucleolus of Arabidopsis thaliana and the post-translational modifications of these proteins. We identified 1602 proteins in the nucleolar and 2544 proteins in the nuclear fraction with an overlap of 1429 proteins. For a randomly selected set of proteins identified by the proteomic approach we confirmed the localization inferred from the proteomics data by the localization of GFP fusion proteins. We assigned the identified proteins to various complexes and functions and found about 519 plant proteins that have a potential to act as a RBFs, but which have not been experimentally characterized yet. Last, we compared the distribution of RBFs and RPs in the various fractions with the distribution established for yeast.