Selection frequencies plotted in decreasing order. by Hannah P. Rowe (7830599)

ECoG timescales decrease during spatial attention. by Isabel Raposo (21615517)

Toxoplasma infection leads to a decrease in the concentration of EVs. by Emily Z. Tabaie (16630841)

IL-1β microinjection in the OB decreased total spectral power and increased signal frequency. by Adriana Jiménez (3551204)

Invention patent applications and grants in China. by Pu Miao (12886949)

Subjects:

Regression results of the different number of patents. by Pu Miao (12886949)

Subjects:

Voxel-based whole-brain analysis shows regional and dose-dependent effects of netoglitazone in decreasing plaque count. by Francesca Catto (21253435)

Voxel-based whole-brain analysis shows regional and dose-dependent effects of netoglitazone in decreasing plaque mean size. by Francesca Catto (21253435)

The variation in classification proportions with strength of the stimulated brain region belonging to the respective cognitive system in a given age group including the strength di... by Andrew Patton (10224161)

Subjects:

Astrocytes increase contact with vessels and expression of AQP4 following Mtb infection, which is decreased in cytosis⁺ animals. by Amanda S. Latham (12093638)

“…Decreased expression of AQP4, and endfoot contact, is found in cytosis⁺ animals in the frontal cortex (D and E), cerebral nuclei (J and K), brain stem (P and Q), thalamus (V and W) and hippocampus (BB and CC). …”

Conditional knockout of SLAMF5 in CX3CR1^er cells attenuates EAE progression, reduces brain myeloid cell activation, and decreases T cell infiltration. by Laura Bellassen (22209109)

Brain regions with significantly decreased activations for the Raven task are shown in blue. by Morteza Fattahi (15892028)

All data points from Fig 2. by Sara Hijazi (21656615)

“…Together, our data uncovers a critical period for juvenile myelination as an important factor in PFC PV interneuron development and brain maturation.</p></div>…”

All data points from Fig 5. by Sara Hijazi (21656615)

“…Together, our data uncovers a critical period for juvenile myelination as an important factor in PFC PV interneuron development and brain maturation.</p></div>…”

All data points from Fig 8. by Sara Hijazi (21656615)

“…Together, our data uncovers a critical period for juvenile myelination as an important factor in PFC PV interneuron development and brain maturation.</p></div>…”

All data points from Fig 3. by Sara Hijazi (21656615)

“…Together, our data uncovers a critical period for juvenile myelination as an important factor in PFC PV interneuron development and brain maturation.</p></div>…”

All data points from Fig 1. by Sara Hijazi (21656615)

“…Together, our data uncovers a critical period for juvenile myelination as an important factor in PFC PV interneuron development and brain maturation.</p></div>…”

All data points from Fig 4. by Sara Hijazi (21656615)

“…Together, our data uncovers a critical period for juvenile myelination as an important factor in PFC PV interneuron development and brain maturation.</p></div>…”

All data points from Fig 9. by Sara Hijazi (21656615)

“…Together, our data uncovers a critical period for juvenile myelination as an important factor in PFC PV interneuron development and brain maturation.</p></div>…”

All data points from Fig 7. by Sara Hijazi (21656615)

“…Together, our data uncovers a critical period for juvenile myelination as an important factor in PFC PV interneuron development and brain maturation.</p></div>…”