@article {Gaignard2019,
	title = {Screening of marine microalgae: Investigation of new exopolysaccharide producers},
	journal = {Algal Research},
	volume = {44},
	year = {2019},
	note = {tex.ids= Gaignard2019a tex.mendeley-tags: RCC1084,RCC1196,RCC1504,RCC1714,RCC1774,RCC1786,RCC1863,RCC1978,RCC1983,RCC2035,RCC232,RCC2350,RCC2352,RCC2368,RCC2380,RCC2381,RCC2383,RCC2436,RCC2558,RCC2598,RCC2608,RCC2614,RCC2624,RCC2638,RCC269,RCC2696,RCC2703,RCC2932,RCC3069,RCC3072,RCC3092,RCC3093,RCC3436,RCC3649,RCC377,RCC4094,RCC4438,RCC4555,RCC4621,RCC4631,RCC4657,RCC76,RCC775,RCC821,RCC97 publisher: Elsevier},
	month = {dec},
	pages = {101711},
	abstract = {Biopolymers, such as exopolysaccharides are widely exploited by industry as hydrocolloids (gelling, thickening agents) and biological agents (anti-inflammatory, anti-parasitic, antioxidant, etc.). In this study, 166 marine microalgae and cyanobacteria species have been screened in order to identify strains producing original exopolysaccharides. This screening allowed the highlighting of 45 positive strains. In a second time, the monosaccharide compositions from 20 EPS of them were determined by GC/MS and HPAEC-PAD. The results led to a discovery of 8 new genera of microalgae producing EPS, including polymers with a very original composition like richness in GlcA. Finally, a phylogenic tree has been contructed in order to assess the link between the phylogeny of microalgae and the global composition of their exopolymers, based on data obtained in this study and from the literature.},
	keywords = {rcc1084, RCC1196, RCC1504, RCC1714, RCC1774, RCC1786, RCC1863, RCC1978, RCC1983, RCC2035, RCC232, RCC2350, RCC2352, RCC2368, rcc2380, RCC2381, RCC2383, RCC2436, RCC2558, RCC2598, RCC2608, RCC2614, RCC2624, RCC2638, RCC269, RCC2696, RCC2703, RCC2932, RCC3069, RCC3072, RCC3092, RCC3093, RCC3436, RCC3649, RCC377, RCC4094, RCC4438, RCC4555, RCC4621, RCC4631, RCC4657, RCC76, RCC775, RCC821, RCC97},
	issn = {22119264},
	doi = {10.1016/j.algal.2019.101711},
	url = {https://www.sciencedirect.com/science/article/pii/S2211926419303261 https://linkinghub.elsevier.com/retrieve/pii/S2211926419303261},
	author = {Gaignard, C. and Laroche, C. and Pierre, G. and Dubessay, P. and Delattre, C. and Gardarin, C. and Gourvil, P. and Probert, I. and Dubuffet, A. and Michaud, P.}
}
@article {Beuvier2019,
	title = {X-ray nanotomography of coccolithophores reveals that coccolith mass and segment number correlate with grid size},
	journal = {Nature Communications},
	volume = {10},
	number = {1},
	year = {2019},
	note = {Publisher: Springer US tex.mendeley-tags: RCC1212,RCC1216,RCC1314,RCC3370,RCC4032,RCC4036},
	month = {dec},
	pages = {751},
	abstract = {Coccolithophores of the No{\"e}laerhabdaceae family are covered by imbricated coccoliths, each composed of multiple calcite crystals radially distributed around the periphery of a grid. The factors that determine coccolith size remain obscure. Here, we used synchrotron-based three-dimensional Coherent X-ray Diffraction Imaging to study coccoliths of 7 species of Gephyrocapsa, Emiliania and Reticulofenestra with a resolution close to 30 nm. Segmentation of 45 coccoliths revealed remarkable size, mass and segment number variations, even within single coccospheres. In particular, we observed that coccolith mass correlates with grid perimeter which scales linearly with crystal number. Our results indirectly support the idea that coccolith mass is determined in the coccolith vesicle by the size of the organic base plate scale (OBPS) around which R-unit nucleation occurs every 110{\textendash}120 nm. The curvation of coccoliths allows inference of a positive correlation between cell nucleus, OBPS and coccolith sizes.},
	keywords = {Biomaterials, Marine biology, rcc1212, RCC1216, RCC1314, RCC3370, RCC4032, RCC4036},
	issn = {2041-1723},
	doi = {10.1038/s41467-019-08635-x},
	url = {http://www.nature.com/articles/s41467-019-08635-x},
	author = {Beuvier, T. and Probert, I. and Beaufort, L. and Such{\'e}ras-Marx, B. and Chushkin, Y. and Zontone, F. and Gibaud, A.}
}
