GXM decreases the trans-endothelial electrical resistance (TEER) and transmigration of <i>C</i>. <i>neoformans</i> through HBECs in a blood brain barrier (BBB) model. by Hiu Ham Lee (15374677)

Species richness (<i>SR</i>, upper panels) and Shannon’s entropy (<i>SE</i>, lower panels) vs. the rate in which new species are trying to invade the community, <i>νN</i>. by Immanuel Meyer (12306666)

Subjects:

Inclusion and exclusion criteria delineated via the PCC (Population, Concept, Context) search framework. by Rabia Asghar (18840759)

Containing the enlargement factor increases the possibility of identification of the large displacement vectors and the accuracy of the tracking. by Samuel E. Haarman (12908291)

The list of genes whose expression was largely increased by AdNKX2-1 infection. by Yuko Ito (1976692)

Subjects:

Mean, SD and individual values of mechanical power difference for technique transitions when increasing and decreasing resistive force. by Gertjan Ettema (2802448)

Mean time to extinction, <i>T</i>, is plotted against the initial frequency of the focal species <i>x</i>. by Immanuel Meyer (12306666)

Subjects:

The relationships between the mean time to extinction <i>T</i> and the size of the community, <i>N</i>, in different scenarios. by Immanuel Meyer (12306666)

Subjects:

The two mechanisms of increase. by Jakub Köry (17980273)

Debiasing Watermarks for Large Language Models via Maximal Coupling by Yangxinyu Xie (21656912)

Active Diffusion of Self-Propelled Particles in Flexible Polymer Networks by Yeongjin Kim (10878837)

“…However, when the particle size is increased to be comparable to the mesh size, the active particles explore the polymer network via the trapping-and-hopping mechanism. …”

Active Diffusion of Self-Propelled Particles in Flexible Polymer Networks by Yeongjin Kim (10878837)

“…However, when the particle size is increased to be comparable to the mesh size, the active particles explore the polymer network via the trapping-and-hopping mechanism. …”

Active Diffusion of Self-Propelled Particles in Flexible Polymer Networks by Yeongjin Kim (10878837)

“…However, when the particle size is increased to be comparable to the mesh size, the active particles explore the polymer network via the trapping-and-hopping mechanism. …”

Active Diffusion of Self-Propelled Particles in Flexible Polymer Networks by Yeongjin Kim (10878837)

“…However, when the particle size is increased to be comparable to the mesh size, the active particles explore the polymer network via the trapping-and-hopping mechanism. …”

Active Diffusion of Self-Propelled Particles in Flexible Polymer Networks by Yeongjin Kim (10878837)

“…However, when the particle size is increased to be comparable to the mesh size, the active particles explore the polymer network via the trapping-and-hopping mechanism. …”

Active Diffusion of Self-Propelled Particles in Flexible Polymer Networks by Yeongjin Kim (10878837)

“…However, when the particle size is increased to be comparable to the mesh size, the active particles explore the polymer network via the trapping-and-hopping mechanism. …”

Active Diffusion of Self-Propelled Particles in Flexible Polymer Networks by Yeongjin Kim (10878837)

“…However, when the particle size is increased to be comparable to the mesh size, the active particles explore the polymer network via the trapping-and-hopping mechanism. …”

TPP decreases melanoma tumor growth rate when administered via hydrogel. by Kyle C. Kloepping (9928265)

Cumulative distribution of EQ-5D-3L utilities decreasingly ordered before and after the onset of cutaneous leishmaniasis symptoms. by Janaína de Pina Carvalho (12152812)

Large deletions detected in sequenced dogs. by Erik Axelsson (201248)